Introduction - El Paso Electric Efficiency
Public Utility Commissionof TexasTexas Technical Reference ManualVersion 3.1Volume 3: Nonresidential Measures PY2016 Implementation 258762526797000Last Revision Date: November 5, 2015, revised March 2016Public Utility Commissionof TexasTexas Technical Reference ManualVersion 3.1Volume 3: Nonresidential MeasuresPY2016 Implementation Last Revision Date:November 5, 2015, revised March 2016 Table of Contents TOC \o "1-3" \h \z \u 1.Introduction PAGEREF _Toc433979272 \h 1-12.Nonresidential Measures PAGEREF _Toc433979273 \h 2-42.1Nonresidential: Lighting PAGEREF _Toc433979274 \h 2-42.1.1Lamps and Fixtures Measure Overview PAGEREF _Toc433979275 \h 2-42.1.2Lighting Controls Measure Overview PAGEREF _Toc433979276 \h 2-162.2Nonresidential: HVAC PAGEREF _Toc433979277 \h 2-222.2.1Split System/Single Packaged Air Conditioners and Heat Pumps Measure Overview PAGEREF _Toc433979278 \h 2-222.2.2HVAC Chillers Measure Overview PAGEREF _Toc433979279 \h 2-432.2.3Packaged Terminal Air Conditioners, Heat Pumps and Room Air Conditioners Measure Overview PAGEREF _Toc433979280 \h 2-562.2.4HVAC Variable Frequency Drive (VFD) on Air Handler Unit (AHU) Supply Fans Measure Overview PAGEREF _Toc433979281 \h 2-652.3Nonresidential: Building Envelope PAGEREF _Toc433979282 \h 2-812.3.1ENERGY STAR? Roofs Measure Overview PAGEREF _Toc433979283 \h 2-812.3.2Window Treatments Measure Overview PAGEREF _Toc433979284 \h 2-902.4Nonresidential: Food Service Equipment PAGEREF _Toc433979285 \h 2-952.4.1ENERGY STAR? Combination Ovens Measure Overview PAGEREF _Toc433979286 \h 2-952.4.2ENERGY STAR? Electric Convection Ovens Measure Overview PAGEREF _Toc433979287 \h 2-1002.4.3ENERGY STAR? Commercial Dishwashers Measure Overview PAGEREF _Toc433979288 \h 2-1052.4.4ENERGY STAR? Hot Food Holding Cabinets Measure Overview PAGEREF _Toc433979289 \h 2-1122.4.5ENERGY STAR? Electric Fryers Measure Overview PAGEREF _Toc433979290 \h 2-1162.4.6Pre-Rinse Spray Valves Measure Overview PAGEREF _Toc433979291 \h 2-1212.4.7ENERGY STAR? Electric Steam Cookers Measure Overview PAGEREF _Toc433979292 \h 2-1252.5Nonresidential: Refrigeration PAGEREF _Toc433979293 \h 2-1312.5.1Door Heater Controls Measure Overview PAGEREF _Toc433979294 \h 2-1312.5.2ECM Evaporator Fan Motor Measure Overview PAGEREF _Toc433979295 \h 2-1382.5.3Electronic Defrost Controls Measure Overview PAGEREF _Toc433979296 \h 2-1422.5.4Evaporator Fan Controls Measure Overview PAGEREF _Toc433979297 \h 2-1462.5.5Night Covers for Open Refrigerated Display Cases Measure Overview PAGEREF _Toc433979298 \h 2-1502.5.6Solid and Glass Door Reach-Ins Measure Overview PAGEREF _Toc433979299 \h 2-1572.5.7Strip Curtains for Walk-In Refrigerated Storage Measure Overview PAGEREF _Toc433979300 \h 2-1612.5.8Zero Energy Doors for Refrigerated Cases Measure Overview PAGEREF _Toc433979301 \h 2-1632.6Nonresidential: Miscellaneous PAGEREF _Toc433979302 \h 2-1662.6.1Vending Machine Controls Measure Overview PAGEREF _Toc433979303 \h 2-1662.6.2Lodging Guest Room Occupancy Sensor Controls Measure Overview PAGEREF _Toc433979304 \h 2-1692.6.3Pump-off Controller Measure Overview PAGEREF _Toc433979305 \h 2-1742.7Nonresidential: Renewables PAGEREF _Toc433979306 \h 2-1792.7.1Solar Photovoltaic (PV) Measure Overview PAGEREF _Toc433979307 \h 2-179APPENDIX C: Nonresidential Lighting Factors Comparison TablesC- PAGEREF _Toc433979308 \h 1APPENDIX D: Measure Life Calculations for Early Retirement ProgramsD- PAGEREF _Toc433979309 \h 1List of Tables TOC \h \z \c "Table" Table 11: Nonresidential Deemed Savings by Measure Category PAGEREF _Toc433979310 \h 1-2Table 21: Adjusted Baseline Wattages for T12 Equipment PAGEREF _Toc433979311 \h 2-7Table 22: New Construction LPDs by Building Type PAGEREF _Toc433979312 \h 2-10Table 23: Operating Hours and Coincidence Factors by Building Type PAGEREF _Toc433979313 \h 2-11Table 24: Deemed Energy and Demand Interactive HVAC Factors PAGEREF _Toc433979314 \h 2-12Table 25: Lighting Measure Groups to be used for Reporting Savings PAGEREF _Toc433979315 \h 2-14Table 26: Nonresidential Lighting-Lamps and Fixtures Revision History PAGEREF _Toc433979316 \h 2-15Table 27: Lighting Controls Definitions PAGEREF _Toc433979317 \h 2-17Table 28: Lighting Controls Energy and Power Adjustment Factors PAGEREF _Toc433979318 \h 2-19Table 29: Nonresidential Lighting Controls Revision History PAGEREF _Toc433979319 \h 2-21Table 210: ER Baseline Full-Load Efficiency for ACs PAGEREF _Toc433979320 \h 2-24Table 211: ER Baseline Part-Load Efficiency for ACs PAGEREF _Toc433979321 \h 2-24Table 212: ER Baseline Full-Load Cooling Efficiency for HPs PAGEREF _Toc433979322 \h 2-25Table 213: ER Baseline Part-Load Cooling Efficiency for HPs PAGEREF _Toc433979323 \h 2-25Table 214: ER Baseline Heating Efficiency for HPs PAGEREF _Toc433979324 \h 2-26Table 215: Baseline Efficiency Levels for ROB and NC Air Conditioners and Heat Pumps PAGEREF _Toc433979325 \h 2-26Table 216: Commercial HVAC Building Type Descriptions and Examples PAGEREF _Toc433979326 \h 2-30Table 217: Commercial HVAC Floor Area and Floor Assumptions by Building Type PAGEREF _Toc433979327 \h 2-34Table 218: CF and EFLH Values for Amarillo (Climate Zone 1) PAGEREF _Toc433979328 \h 2-35Table 219: CF and EFLH Values for Fort Worth (Climate Zone 2) PAGEREF _Toc433979329 \h 2-36Table 220: CF and EFLH Values for Houston (Climate Zone 3) PAGEREF _Toc433979330 \h 2-37Table 221: CF and EFLH Values for Brownsville (Climate Zone 4) PAGEREF _Toc433979331 \h 2-38Table 222: CF and EFLH Values for El Paso (Climate Zone 5) PAGEREF _Toc433979332 \h 2-39Table 223: Remaining Useful Life Early Retirement Systems PAGEREF _Toc433979333 \h 2-40Table 224: Nonresidential HVAC Single-Zone AC-HP History PAGEREF _Toc433979334 \h 2-42Table 225: ER Baseline Full-Load Efficiency of All Air-Cooled Chillers PAGEREF _Toc433979335 \h 2-45Table 226: ER Baseline Part-Load Efficiency of All Air-Cooled Chillers PAGEREF _Toc433979336 \h 2-45Table 227: ER Baseline Full-Load Efficiency of Centrifugal Water-Cooled Chillers PAGEREF _Toc433979337 \h 2-45Table 228: ER Baseline Part-Load Efficiency of Centrifugal Water-Cooled Chillers PAGEREF _Toc433979338 \h 2-45Table 229: ER Baseline Full-Load Efficiency of Screw/Scroll/Recip. Water-Cooled Chillers PAGEREF _Toc433979339 \h 2-46Table 230: ER Baseline Part-Load Efficiency of Screw/Scroll/Recip. Water-Cooled Chillers PAGEREF _Toc433979340 \h 2-46Table 231: Baseline Efficiencies for ROB and NC Air-Cooled and Water-Cooled Chillers PAGEREF _Toc433979341 \h 2-47Table 232: CF and EFLH for Amarillo (Climate Zone 1) PAGEREF _Toc433979342 \h 2-50Table 233: CF and EFLH for Fort Worth (Climate Zone 2) PAGEREF _Toc433979343 \h 2-51Table 234: CF and EFLH for Houston (Climate Zone 3) PAGEREF _Toc433979344 \h 2-51Table 235: CF and EFLH for Brownsville (Climate Zone 4) PAGEREF _Toc433979345 \h 2-52Table 236: CF and EFLH for El Paso (Climate Zone 5) PAGEREF _Toc433979346 \h 2-52Table 237: Remaining Useful Life of Early Retirement Systems PAGEREF _Toc433979347 \h 2-53Table 238: Nonresidential HVAC-Chillers History PAGEREF _Toc433979348 \h 2-55Table 239: ER Baseline Efficiency Levels for Standard Size PTAC/PTHP Units, PAGEREF _Toc433979349 \h 2-58Table 240: Minimum Efficiency Levels for PTAC/PTHP ROB and NC Units PAGEREF _Toc433979350 \h 2-58Table 241: Minimum Efficiency Levels for Room Air Conditioners ROB and NC Units PAGEREF _Toc433979351 \h 2-59Table 242:PTAC/PTHP Equipment: CF and EFLH Values by Climate Zone for Hotel – Small and Hotel – Large Building Types PAGEREF _Toc433979352 \h 2-61Table 243: RAC Equipment: CF and EFLH Values PAGEREF _Toc433979353 \h 2-62Table 244: Remaining Useful Life of ER PTAC/PTHP Systems PAGEREF _Toc433979354 \h 2-63Table 245: Nonresidential HVAC PTAC-PTHP/Room AC History PAGEREF _Toc433979355 \h 2-64Table 246: Yearly Motor Operation Hours by Building Type PAGEREF _Toc433979356 \h 2-69Table 247: Deemed Energy and Demand Savings Values for Outlet Damper Part-Load Fan Control by Climate Region PAGEREF _Toc433979357 \h 2-69Table 248: Deemed Energy and Demand Savings Values for Inlet Damper Part-Load Fan Control by Climate Region PAGEREF _Toc433979358 \h 2-73Table 249: Deemed Energy and Demand Savings Values for Inlet Guide Vane Part-Load Fan Control by Climate Region PAGEREF _Toc433979359 \h 2-76Table 250: Nonresidential HVAC-VFD History PAGEREF _Toc433979360 \h 2-80Table 251: R-Values of Different Material [hr-ft2-?F/Btu] PAGEREF _Toc433979361 \h 2-86Table 252: TMY2 Solar Data PAGEREF _Toc433979362 \h 2-86Table 253: Deemed Values used in Algorithm for El Paso Electric PAGEREF _Toc433979363 \h 2-87Table 254: Cool Roof Deemed Savings for El Paso Electric PAGEREF _Toc433979364 \h 2-87Table 255: Nonresidential Cool Roof History PAGEREF _Toc433979365 \h 2-89Table 256: Solar Heat Gain Factors PAGEREF _Toc433979366 \h 2-92Table 257: Recommended Shading Coefficient (SC) for Different Pre-Existing Shade Types PAGEREF _Toc433979367 \h 2-93Table 258: Recommended COP for Different HVAC System Types PAGEREF _Toc433979368 \h 2-93Table 259: Nonresidential Window Treatment History PAGEREF _Toc433979369 \h 2-94Table 260: Cooking Energy-Efficiency and Idle Energy Rate Requirements PAGEREF _Toc433979370 \h 2-96Table 261: Deemed Variables for Energy and Demand Savings Calculations PAGEREF _Toc433979371 \h 2-98Table 262: Deemed Energy and Demand Savings Values PAGEREF _Toc433979372 \h 2-98Table 263: Nonresidential High-Efficiency Combination Oven History PAGEREF _Toc433979373 \h 2-99Table 264: Convection Oven Cooking Energy Efficiency and Idle Energy Requirements PAGEREF _Toc433979374 \h 2-101Table 265: Deemed Variables for Energy and Demand Savings Calculations PAGEREF _Toc433979375 \h 2-102Table 266: Deemed Energy and Demand Savings Values PAGEREF _Toc433979376 \h 2-103Table 267: Nonresidential High-Efficiency Convection Oven History PAGEREF _Toc433979377 \h 2-104Table 268: Nonresidential ENERGY STAR? Commercial Dishwashers Descriptions PAGEREF _Toc433979378 \h 2-106Table 269: High-Efficiency Requirements for Commercial Dishwashers PAGEREF _Toc433979379 \h 2-107Table 270: Deemed Variables for Energy and Demand Savings Calculations PAGEREF _Toc433979380 \h 2-109Table 271: Deemed Energy and Peak Demand Savings Values by Dishwasher PAGEREF _Toc433979381 \h 2-110Table 272: Nonresidential ENERGY STAR? Commercial Dishwashers History PAGEREF _Toc433979382 \h 2-111Table 273: Maximum Idle Energy Rate Requirements ENERGY STAR? Qualification PAGEREF _Toc433979383 \h 2-113Table 274: Equipment Operating Hours per Day and Operating Days per Year PAGEREF _Toc433979384 \h 2-114Table 275: Deemed Energy and Demand Savings Values by HFHC Size PAGEREF _Toc433979385 \h 2-114Table 276: Nonresidential Hot Food Holding Cabinets History PAGEREF _Toc433979386 \h 2-115Table 277: High-Efficiency Requirements for Electric Fryers PAGEREF _Toc433979387 \h 2-117Table 278: Deemed Variables for Energy and Demand Savings Calculations PAGEREF _Toc433979388 \h 2-119Table 279: Deemed Energy and Demand Savings Values by Fryer Type PAGEREF _Toc433979389 \h 2-119Table 280: Nonresidential Electric Fryers History PAGEREF _Toc433979390 \h 2-120Table 281: Deemed Variables for Energy and Demand Savings Calculations PAGEREF _Toc433979391 \h 2-123Table 282: Deemed Energy and Demand Savings Values by Building Type PAGEREF _Toc433979392 \h 2-124Table 283: Nonresidential Pre-Rinse Spray Valves History PAGEREF _Toc433979393 \h 2-124Table 284: ENERGY STAR? Energy Efficiency and Idle Rate Requirements for Electric Steam Cookers PAGEREF _Toc433979394 \h 2-126Table 285: Deemed Variables for Energy and Demand Savings Calculations PAGEREF _Toc433979395 \h 2-128Table 286: Annual Energy Consumption and Daily Food Cooked PAGEREF _Toc433979396 \h 2-129Table 287: Nonresidential High-Efficiency Commercial Steam Cookers History PAGEREF _Toc433979397 \h 2-130Table 288: Values Based on Climate Zone City PAGEREF _Toc433979398 \h 2-135Table 289: Deemed Energy and Demand Savings Values by Location and Refrigeration Temperature in kWh per Linear Foot of Display Case PAGEREF _Toc433979399 \h 2-136Table 290: Nonresidential Door Heater Controls History PAGEREF _Toc433979400 \h 2-137Table 291: Deemed Variables for Energy and Demand Savings Calculations PAGEREF _Toc433979401 \h 2-140Table 292: Nonresidential ECM Evaporator Fan Motors History PAGEREF _Toc433979402 \h 2-141Table 293: Deemed Variables for Energy and Demand Savings Calculations PAGEREF _Toc433979403 \h 2-144Table 294: Nonresidential Electronic Defrost Controls History PAGEREF _Toc433979404 \h 2-145Table 295: Deemed Variables for Energy and Demand Savings Calculations PAGEREF _Toc433979405 \h 2-148Table 296: Nonresidential Evaporator Fan Controls History PAGEREF _Toc433979406 \h 2-149Table 297: Various Climate Zone Design Dry Bulb Temperatures and Representative Cities PAGEREF _Toc433979407 \h 2-152Table 298: Modeled Deemed Savings for Night Covers for Texas (per Linear Foot) PAGEREF _Toc433979408 \h 2-155Table 299: Nonresidential Night Covers for Open Refrigerated Display Cases History PAGEREF _Toc433979409 \h 2-156Table 2100: Baseline Energy Consumption, PAGEREF _Toc433979410 \h 2-158Table 2101: Efficient Energy Consumption PAGEREF _Toc433979411 \h 2-158Table 2102: Nonresidential Solid and Glass Door Refrigerators and Freezers History PAGEREF _Toc433979412 \h 2-160Table 2103: Deemed Energy and Demand Savings for Freezers and Coolers PAGEREF _Toc433979413 \h 2-162Table 2104: Nonresidential Walk-In Refrigerator and Freezer Strip Curtains History PAGEREF _Toc433979414 \h 2-162Table 2105: Deemed Variables for Energy and Demand Savings Calculations PAGEREF _Toc433979415 \h 2-164Table 2106: Energy and Demand Deemed Savings PAGEREF _Toc433979416 \h 2-164Table 2107: Nonresidential Zero-Energy Refrigerated Case Doors History PAGEREF _Toc433979417 \h 2-165Table 2108: Deemed Energy and Demand Savings Values by Equipment Type PAGEREF _Toc433979418 \h 2-167Table 2109: Nonresidential Vending Machine Controls History PAGEREF _Toc433979419 \h 2-168Table 2110: Deemed Energy and Demand Savings for Motel per Guest Room, by Region PAGEREF _Toc433979420 \h 2-171Table 2111: Deemed Energy and Demand Savings for Hotel per Guest Room, by Region PAGEREF _Toc433979421 \h 2-171Table 2112: Deemed Energy and Demand Savings for Dormitories per Room, by Region PAGEREF _Toc433979422 \h 2-172Table 2113: Lodging Guest Room Occupancy Controls History PAGEREF _Toc433979423 \h 2-173Table 2114: Deemed Variables for Energy and Demand Savings Calculations PAGEREF _Toc433979424 \h 2-176Table 2115: NEMA Premium Efficiency Motor Efficiencies PAGEREF _Toc433979425 \h 2-177Table 2116: Pump-off Controller History PAGEREF _Toc433979426 \h 2-178Table 2117: Incentivized System Ranges by Utility PAGEREF _Toc433979427 \h 2-179Table 2118: Nonresidential Solar Photovoltaic History PAGEREF _Toc433979428 \h 2-183Table C01: Operating Hours Building Type, By Utility PAGEREF _Toc433979429 \h 1Table C02: Coincidence Factors Building Type, By Utility PAGEREF _Toc433979430 \h 3Table C03: Operating Hour and Coincidence Factor Sources from Petition 39146 PAGEREF _Toc433979431 \h 5Table C04: Lighting Power Densities, By Building Type, By Utility PAGEREF _Toc433979432 \h 8Table C05: Energy Adjustment Factors By Utility PAGEREF _Toc433979433 \h 12Table C06: Demand Adjustment Factors By Utility PAGEREF _Toc433979434 \h 13AcknowledgementsThe Technical Reference Manual is maintained by the Public Utility Commission of Texas’ independent Evaluation, Monitoring and Verification (EM&V) team members—Tetra Tech, The Cadmus Group, Itron, and Johnson Consulting Group. This version of the Texas Technical Reference Manual was primarily developed from program documentation and measure savings calculators used by the Texas Electric Utilities and their Energy Efficiency Services Providers (EESPs) to support their energy efficiency efforts, and original source material from petitions filed with the Public Utility Commission of Texas by the utilities, their consultants and EESPs such as Frontier Associates (TXu 1-904-705), ICF, CLEAResult and?Nexant. Portions of the Technical Reference Manual are copyrighted 2001-2015 by the Electric Utility Marketing Managers of Texas (EUMMOT), while other portions are copyrighted 2001-2015 by Frontier Associates. Certain technical content and updates were added by the EM&V team to provide further explanation and direction as well as consistent structure and level of informationTRM Technical SupportTechnical support and questions can be emailed to the EM&V project manager (lark.lee@) and PUCT staff (katie.rich@puc.).Introduction This volume of the TRM contains the deemed savings for nonresidential measures that have been approved for use in Texas by the PUCT. This volume includes instructions regarding various savings calculators and reference sources of the information. The TRM serves as a centralized source of deemed savings values; where appropriate, Measurement & Verification (M&V) methods by measure category are noted for informational purposes only regarding the basis of projected and claimed savings. REF _Ref371061506 \h Table 11 provides an overview of the nonresidential measures contained within Volume 3 and the types of deemed savings estimates available for each one. There are four types of deemed savings estimates identified: Point estimates that provide a single deemed savings value that correspond to a single measure or type of technology. Deemed saving tables that provide energy and peak savings as a function of size, capacity; building type, efficiency level, or other inputs.Savings algorithms that require user defined inputs that must be gathered on site and the identification of default inputs where primary data could not be collected. In many cases, these algorithms are provided as references to deemed savings tables, point estimates, or calculator explanations. Calculators are used by different utilities and implementers to calculate energy savings for different measures. In many cases, there are several different calculators available for a single measure. Sometimes their background calculators are similar, and in other cases, estimates can vary greatly between each calculator. M&V methods are also used for some measures to calculate savings in the event that standard equipment is not used, or the specified building types do not apply. For some of these measures, both a simplified M&V approach and a full M&V approach may be allowed by the utility. M&V methods as a source of claimed and projected savings are noted for informational purposes only. Standardized M&V approaches that have been reviewed by the EM&V team are incorporated into Volume 4: Measurement & Verification Protocols of this TRM. Please consult Volume I: Overview and User Guide, Section 4: Structure and Content, for details on the organization of the measure templates presented in this volume. Table STYLEREF 1 \s 1 SEQ Table \* ARABIC \s 1 1: Nonresidential Deemed Savings by Measure CategoryMeasure CategoryMeasure DescriptionPoint EstimatesDeemed Savings TablesSavings AlgorithmCalculatorM&V3.1 UpdateLightingLighting - Lamps and Fixtures----XXXRevised to eliminate T12 lamps as a valid baseline and eliminate the Oncor winter peak demand value to use the statewide average in all service territories. Eligibility Criteria: Adding sources for LED lamp and fixture eligibility. 03/22/2016 Update: Updated Linear Fluorescent T12 Special Conditions baseline table to include HO and VHO lamps. Updated criteria for miscellaneous length (e.g. 2-ft, 3-ft) T8s. Added footnote to explain how to account for non-rebated fixture lighting controls in savings calculations. Clarified some tracking data requirements,LightingLighting Controls----XXXHVAC (Cooling)Package and Split-System (AC and Heat Pumps)----XXXUpdated the building type definitions and descriptions. Added “Other” building type for when building type is not explicitly listed.HVAC (Cooling)Chillers----XXXUpdated table references to clarify building types and RUL references. Added “Other” building type for when building type is not explicitly listed. Added Religious Worship building type to Climate Zone 5 for consistency with other zones.HVAC (Cooling)Package Terminal Units and Room Air Conditioners (AC and Heat Pumps)----XXXUpdated table references to clarify building types and RUL references, minor updates to text for clarification and consistency.Table STYLEREF 1 \s 11 (Cont’d): Nonresidential Deemed Savings by Measure CategoryMeasure CategoryMeasure DescriptionPoint EstimatesDeemed Savings TablesSavings AlgorithmCalculatorM&V3.1 UpdateHVAC (Ventilation)VFDs on AHU Supply Fans --XX----Building EnvelopeCool RoofX--XX--Building EnvelopeWindow TreatmentsX--XX--Food ServiceENERGY STAR? Combination Ovens Measure Overview--XX----Updated title to reflect ENERGY STAR? MeasureFood ServiceENERGY STAR? Electric Convection Ovens--XX----Updated title to reflect ENERGY STAR? MeasureFood ServiceENERGY STAR? Commercial Dishwashers--XX----Food ServiceENERGY STAR? Commercial Electric Hot Food Holding Cabinets--XX----Food ServiceENERGY STAR? Kitchen Electric Fryers--XX----Food ServicePre-Rinse Spray Valves--XX----Food ServiceENERGY STAR? Electric Steam Cookers--XX----RefrigerationDoor Heater Controls--XX----RefrigerationECM Evaporator Fan Motors----X----RefrigerationElectronic Defrost Control----X----RefrigerationEvaporator Fan Controls----X----RefrigerationNight Covers for Open Refrigerated Cases--XX----RefrigerationHigh-Efficiency Solid & Glass Door Reach-in Cases----X----RefrigerationStrip Curtains for Walk-in Cooler/Freezer--X------Table STYLEREF 1 \s 11 (Cont’d): Nonresidential Deemed Savings by Measure CategoryMeasure CategoryMeasure DescriptionPoint EstimatesDeemed Savings TablesSavings AlgorithmCalculatorM&V3.1 UpdateRefrigerationLow/No Anti-sweat Heat Glass Doors (Zero Energy Glass Doors)--XX----MiscellaneousVending Machine Controllers--XX----Miscellaneous Lodging Guest Room Occupancy Sensor Control--X------MiscellaneousPump-Off Controller--XX----Solar ElectricSolar Photovoltaics----X--XUpdated to reflect EPE’s 2016 program, and revised.Measure CategoryMeasure DescriptionPoint EstimatesDeemed Savings TablesSavings AlgorithmCalculatorM&V3.1 UpdateFood ServiceENERGY STAR? Commercial Dishwashers--XX----Food ServiceENERGY STAR? Commercial Electric Hot Food Holding Cabinets--XX----Food ServiceENERGY STAR? Kitchen Electric Fryers--XX----Food ServicePre-Rinse Spray Valves--XX----Food ServiceENERGY STAR? Electric Steam Cookers--XX----RefrigerationDoor Heater Controls--XX----RefrigerationECM Evaporator Fan Motors----X----RefrigerationElectronic Defrost Control----X----RefrigerationEvaporator Fan Controls----X----RefrigerationNight Covers for Open Refrigerated Cases--XX----RefrigerationHigh-Efficiency Solid & Glass Door Reach-in Cases----X----RefrigerationStrip Curtains for Walk-in Cooler/Freezer--X------RefrigerationLow/No Anti-sweat Heat Glass Doors (Zero Energy Glass Doors)--XX----MiscellaneousVending Machine Controllers--XX----Miscellaneous Lodging Guest Room Occupancy Sensor Control--X------MiscellaneousPump-Off Controller--XX----Solar ElectricSolar Photovoltaics----X--XUpdated to reflect EPE’s 2016 program, and revised.Nonresidential MeasuresNonresidential: LightingLamps and Fixtures Measure OverviewTRM Measure ID: NR- LT-LFMarket Sector: CommercialMeasure Category: LightingApplicable Building Types: All Commercial, Multifamily common areasFuels Affected: Electricity (Interactive HVAC effects: Electric/Gas space heating)Decision/Action Types: Retrofit (RET) and New Construction (NC) Program Delivery Type: Prescriptive, Custom, Direct InstallDeemed Savings Type: Deemed Savings CalculationSavings Methodology: CalculatorMeasure DescriptionThis section provides estimates of the energy and peak savings resulting from the retrofit, replacement, or new installation of existing lamps and/or ballasts with new energy efficient lamps and/or ballasts. This TRM Measure ID covers the following lighting technologies:Linear Fluorescent T5s, and High-Performance or Reduced Watt T8s. Linear fluorescent measures may also involve delamping with or without the use of pact Fluorescent Lamp (CFL) screw-based lamps and hard-wired pin-based fixtures Induction lampsPulse-start (PSMH) and Ceramic Metal Halide (CMH) lamps, and other High Intensity Discharge (HID) lamps.Light Emitting Diode (LED) screw-based lamps and hard-wired LED fixturesEnergy and demand savings are based on operating hours, coincident-load factors, and changes in pre-existing and post-installation lighting loads as determined using an approved lighting Standard Fixture Wattage table (see the Lighting Survey Form). The Lighting Survey Form (LSF) is one example of a calculator that is used to determine energy and demand savings. Pre and post-retrofit lighting inventories are entered and used with the pre-loaded stipulated values and algorithms needed to calculate energy and demand savings. Components of the calculator include:Instructions and Project Information Pre and Post-retrofit lighting inventories. A tab for exempt fixtures, and a description of the exemptions, is also present in this calculator.Fixture descriptions are selected from a Standard Fixture Wattage table.Factor Tables which contain stipulated operating hours, coincidence factors, and interactive HVAC factors.A Summary tab, where the final energy and demand calculations are displayed. The data from this tab is entered into the utility program tracking data as the claimed savings values.Although the generic Lighting Survey Form calculator is available to all entities on the Texas Energy Efficiency website, several utilities have their own versions.Eligibility Criteria This section describes the system information and certified wattage values that must be used to estimate energy and peak savings from lighting systems installed as part of the Texas utility energy efficiency programs. The fixture codes and the demand values listed in the Table of Standard Fixture Wattages are used in calculating energy and demand savings for lighting efficiency projects. In addition, LED and linear fluorescent T8s need to be certified, as follows:High-performance (HP) and reduced-watt (RW) T8 linear fluorescent lamps and ballasts need to be certified by the Consortium for Energy Efficiency (CEE). Links for both HPT8s and RWT8s are provided on the Texas Energy Efficiency website.LED lamps and fixtures must be certified and listed by at least one of the following organizations: DesignLights Consortium (DLC), ENERGY STAR?, Lighting Design Lab (LDL), or DOE LED Lighting Facts.? Links to these organizations and their certified LED equipment lists are provided on the Texas Energy Efficiency website. Additionally, at the utilities discretion, LED products may receive approval if results of independent lab testing (e.g. LM-79, LM-80, TM-21, ISTMT) show the products comply with the most current version of the DLC Technical Requirements.Exempt Lighting for New Construction. Some types of new construction lighting fixtures are exempt from inclusion in the interior lighting demand savings calculation, but they are still included in the total installed lighting power calculations for a project. Exempt fixtures are those that do not provide general/ambient/area lighting, have separate control devices, and are installed in one of the following applications:The connected power associated with the following lighting equipment is not included in calculating total connected lighting power.Professional sports arena playing-field lighting.Sleeping-unit lighting in hotels, motels, boarding houses, or similar buildings.Emergency lighting automatically off during normal building operation.Lighting in spaces specifically designed for use by occupants with special lighting needs including visual impairment and other medical and age-related issues.Lighting in interior spaces that have been specifically designated as a registered interior historic landmark.Casino gaming areas.Lighting equipment used for the following shall be exempt provided that it is in addition to general lighting and is controlled by an independent control device:Task lighting for medical and dental purposes.Display lighting for exhibits in galleries, museums, and monuments.Lighting for theatrical purposes, including performance, stage, film production, and video production.Lighting for photographic processes.Lighting integral to equipment or instrumentation and installed by the manufacturer.Task lighting for plant growth or maintenance.Advertising signage or directional signage.In restaurant building and areas, lighting for food warming or integral to food preparation equipment.Lighting equipment that is for sale.Lighting demonstration equipment in education facilities.Lighting approved because of safety or emergency considerations, inclusive of exit lights.Lighting integral to both open and glass-enclosed refrigerator and freezer cases.Lighting in retail display windows, provided the display area is enclosed by ceiling height partitions.Furniture-mounted supplemental task lighting that is controlled by automatic shut off.Baseline ConditionThe baseline condition or assumed baseline efficiency used in the savings calculations depends on the decision type used for the measure. For new construction, the baseline will be based on a Lighting Power Density (LPD) in watts per square foot by building type, as specified by the relevant energy code/standard applied to a specific project. For retrofit applications, the baseline efficiency would typically reflect the in-situ, pre-existing equipment, with the exception of linear fluorescent T12s and first generation T8s as explained below. Fixture wattages used for the savings calculations are determined from the Table of Standard Fixture Wattages. Linear Fluorescent T12 Special Conditions The U.S. Energy Policy Act of 1992 (EPACT) set energy efficiency standards that preclude certain lamps and ballasts from being manufactured or imported into the U.S. The latest standards covering general service linear fluorescents went into full effect July 2014. Under this provision, almost all 4-foot and some 8-foot T12 lamps, as well as first-generation 4-foot, 700?series T8 lamps were prohibited from manufacture. Because all lighting equipment for Texas energy efficiency programs must be EPACT compliant, including existing or baseline equipment, adjustments were made to the T12 fixtures in the Standard Fixture Wattage table. Certain T12 lamp/ballast combinations which are non-EPACT compliant are assigned EPACT demand values. As such, 4-foot and 8-foot T12s are no longer an approved baseline technology for Texas energy efficiency programs. 4-foot and 8-foot T12s are still eligible for lighting retrofit projects, but an assumed electronic T8 baseline will be used for estimating the energy and demand savings instead of the existing T12 equipment. T12 fixtures will remain in the Standard Fixture Wattage list, but the label for these records will be changed to “T12 (T8 baseline)” and the fixture wattage for these records will be adjusted to use the adjusted fixture wattages shown in REF _Ref410804186 Table 21.Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 1: Adjusted Baseline Wattages for T12 EquipmentT12 LengthLampCountRevised Lamp WattageRevisedSystem Wattage48 inch – Std, HO, and VHO(4 feet)13231232583328543211263217083222496 inch - Std(8 feet)60/75W15969259110359179459219659330859438+*96 inch-HO and VHO(8 feet)95/110W1861012861603862614863196864818866382 ft U-Tube132322326033289* Value approximated using linear interpolation.*+ 8 lamp fixture wattage approximated by doubling 4 lamp fixture wattage.Key: HO = high output, VHO = very high outputHigh-Efficiency ConditionAcceptable efficient fixture types are specified in the Table of Standard Fixture Wattages. In addition, some technologies such as LEDs must meet the additional requirements specified under Eligibility Criteria.High-Efficiency/Performance Linear Fluorescent T8s All post-retrofit technologies and new construction must use Reduced Wattage T8 systems or High Performance T8 systems that meet the High Performance and Reduced Wattage lamp and ballast efficiency specifications developed by the Consortium for Energy Efficiency (CEE) as published on its website. This is a requirement for all T8 system projects. In addition, iIf CEE does not have efficiency guidelines for a T8 system (such as for 8-foot, 3-foot, 2-foot, and U-bend T8 products), the product must have higher light output or reduced wattage than its standard equivalent product (minimum efficacy of 75 mean lumens per watt), while also providing a higher CRI (color rendition index) greater than 80, and a n average rated life of 24,000 hours at 3 hours per starthigher rated lamp life, and an equivalent or higher initial and mean lumen output per lamp. In addition, 2-foot and 3-foot ballasts must also use electronic ballasts manufactured after November 2014.Energy and Demand Savings MethodologySavings Algorithms and Input VariablesThis section describes the deemed savings methodology for both energy and demand savings for all lighting projects. The savings are calculated in separate methods for retrofit projects and new construction projects, and both are described below. Retrofit,:Energy Savings=kWpre-kWinstalled×Hours×HVACenergyEquation SEQ Equation \* ARABIC 1Peak Summer Demand Savings=kWpre-kWinstalled×CF×HVACdemandEquation SEQ Equation \* ARABIC 2New Construction:Energy Savings=LPD×FloorArea1000-kWinstalled×Hours×HVACenergyEquation SEQ Equation \* ARABIC 3Peak Summer Demand Savings=LPD×FloorArea1000-kWinstalled×CF×HVACdemandEquation SEQ Equation \* ARABIC 4Where:kWpre=Total kW of existing measure (Fixture wattage from Standard wattage table multiplied by quantity of fixtures)kWinstalled=Total kW of retrofit measure (Fixture wattage from Standard wattage table multiplied by quantity of fixtures)LPD=Acceptable Lighting Power Density based on building type from efficiency codes from REF _Ref367729731 \h \* MERGEFORMAT Table 22 [W/ft2] Floor Area=Floor area of the treated space where the lights were installedHours=Hours by building type from Table 2-3 CF= Coincidence factor by building type from Table 2-3 HVACenergy=Energy Interactive HVAC factor by building typeHVACdemand= Demand Interactive HVAC factor by building typeEach of the parameters in these equations, and the approach or their stipulated values, is discussed in detail below.Lamp and Fixture Wattages (kWpre, kWinstalled)Existing Construction: Standard Fixture Wattage Table. One example of a Table of Standard Fixture Wattages can be found in the Lighting Survey Form maintained on the Texas Energy Efficiency website. This table is used to assign identification codes and demand values (watts) to common fixture types (fluorescent, incandescent, HID, LED, etc.) used in commercial applications. The table is subdivided into lamp types such as linear fluorescent, compact fluorescent, mercury vapor, etc., with each subdivision sorted by fixture code. Each record, or row, in the Table contains a fixture code, which serves as a unique identifier. A legend explains the rules behind the fixture codes.Each record also includes a description of the fixture, the number of lamps, the number of ballasts if applicable, and the fixture wattage. The table wattage values for each fixture type are averages of various manufacturers’ laboratory tests performed to ANSI test standards. By using standardized demand values for each fixture type, the Table simplifies the accounting procedures for lighting equipment retrofits. The table is usually updated periodically as new fixtures are added.The fixture codes and the demand values listed in the watt/fixture column in the Table of Standard Fixture Wattages are used in calculating energy and demand savings for any lighting efficiency project. There are two versions of the Table of Standard Fixture Wattages (Frontier and Nexant). Having a common master table in a single location would make it easier to maintain and add new fixtures, and more importantly ensure consistent savings are used for the same lighting measure across the state. However, an alternative approach would be to compare all standard wattage tables being used as part of the evaluation effort, identify differences, and choose the one that is most correct.For implementers interested in adding new fixtures to Frontier’s lighting table, a request should be submitted to Frontier. The request should include all information required to uniquely identify the fixture type and to fix its demand, as well as other contextual information needed for the table. If possible, the request should also be supported by manufacturer’s ANSI test data. Frontier then periodically releases updates of the table.New Construction: Lighting Power Density Table. For new construction projects, the post-retrofit lighting wattages are determined as they are for the existing construction projects, from the Standard Fixture Wattage table. However, the baseline wattage is determined from the treated floor area and a lighting power density (LPD) value, which are the allowable watts per square foot of lit floor area as specified by the relevant energy code. These values are presented in REF _Ref367729731 Table 22.Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 2: New Construction LPDs by Building TypeFacility TypeLighting Power Density ( W/ft2)Facility TypeLighting Power Density ( W/ft2)Automotive Facility0.90Office1.00Convention Center1.20Outdoor Uncovered Parking Area: Zone 10.04Courthouse1.20Outdoor Uncovered Parking Area: Zone 20.06Dining: Bar/Lounge/Leisure1.30Outdoor Uncovered Parking Area: Zone 30.10Dining: Cafeteria1.40Outdoor Uncovered Parking Area: Zone 40.13Dining: Family1.60Parking Garage0.30Dormitory1.00Penitentiary1.00Exercise Center1.00Performing Arts1.60Gymnasium1.10Police/Fire Stations1.00Health Care – Clinic1.00Post Office1.10Hospital1.20Religious Buildings1.30Hotel1.00Retail1.50Library1.30School/University1.20Manufacturing1.30Sports Arena1.10Motel1.00Town Hall1.10Motion Picture1.20Transportation1.00Multi-Family0.70Warehouse0.80Museum1.10Workshop1.40In REF _Ref367729731 Table 22 above, the zones used for the Outdoor Uncovered Parking Areas are:Zone 1: Developed areas of national parks, state parks, forest lands, and rural areasZone 2: Areas predominantly consisting of residential zoning, neighborhood business districts, light industrial with limited night-time use, and residential mixed use areasZone 3: All other areasZone 4: High-activity commercial districts in major metropolitan areas as designated by the local land use planning authorityOperating Hours (Hours) and Coincidence Factors (CFs)Operating hours and peak demand coincidence factors are assigned by building type, as shown in Table 2-3. The building types used in this table are based on CBECS building types, but have been modified for Texas.Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 3: Operating Hours and Coincidence Factors by Building TypeBuilding Type CodeBuilding Type DescriptionOperating HoursSummer Peak Coincidence FactorEduc. K-12, No SummerEducation (K-12 w/o Summer Session)2,77747%Education, SummerEducation: College, University, Vocational, Day Care, and K-12 w/ Summer Session3,57769%Non-24 Hour RetailFood Sales – Non-24 Hour Supermarket/Retail4,70695%24-Hr Retail24 Hour Supermarket/Retail6,90095%Fast FoodFood Service – Fast Food6,18881%Sit Down Rest.Food Service – Sit-down Restaurant4,36881%Health InHealth Care (In Patient)5,73078%Health OutHealth Care (Out Patient)3,38677%Lodging, CommonLodging (Hotel/Motel/Dorm), Common Area6,63082%Lodging, RoomsLodging (Hotel/Motel/Dorm), Rooms3,05525%ManufacturingManufacturing5,74073%MF CommonMulti-family Housing, Common Areas4,77287%Nursing HomeNursing and Residential Care4,27178%OfficeOffice3,73777%OutdoorOutdoor Lighting Photo-Controlled3,9960% (Winter peak = 61%)ParkingParking Structure7,884100%Public AssemblyPublic Assembly2,63856%Public OrderPublic Order and Safety3,47275%ReligiousReligious Worship1,82453%Retail Non Mall/StripRetail (Excl. mall and strip center)3,66890%Enclosed MallRetail (Enclosed Mall)4,81393%Strip/Non-Enclosed MallRetail (Strip Center and non-enclosed mall)3,96590%Service (Non-Food)Service (excl. food)3,40690%Non-Refrig. Warehouse Warehouse (non-refrigerated)3,50177%Refrig. WarehouseWarehouse (refrigerated)3,79884%Note: These petition-approved values listed in this table come from PUCT Docket 39146. The exception to this is the Winter Peak factor of 61% for Outdoor Lighting (see Footnote 11 NOTEREF _Ref372901605 \h Error! Bookmark not defined. Slight variations to these are found in other calculators and program manuals. A set of comparisons of HOU and CF across utilities are found in Appendix C. Interactive HVAC Factors (HVAC energy, demand)Basic lighting savings are adjusted to account for the lighting system interaction with HVAC systems in conditioned or refrigerated spaces. A reduced lighting load reduces the internal heat gain to the building, which reduces the air conditioning/cooling load but it also increases the heating load. Currently, the TRM only considers the additional cooling savings, and the heating penalty or increase in usage is ignored. As REF _Ref367732228 Table 24 shows, four conditioned space types are used for the Texas programs. There is a single air-conditioned space type and two options for commercial refrigeration type spaces like walk-in coolers and refrigerated warehouses: Medium and Low temperature. Utility procedures state that if the actual application falls between these values, that the higher temperature value should be used. The final space type is unconditioned (or more explicitly uncooled as the focus is on cooling). In the lighting calculators, these values are typically assigned at the line-item level based on the conditioning type for the space in which the fixtures are located. Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 4: Deemed Energy and Demand Interactive HVAC FactorsSpace Conditioning TypeEnergy Interactive HVAC FactorDemand Interactive HVAC FactorAir Conditioned1.051.10Med. Temp Refrigeration (33 to 41?F)1.251.25Low Temp Refrigeration (-10 to 10?F)1.301.30None (Unconditioned/Uncooled)1.001.00Deemed Energy and Demand Savings TablesThis section is not applicable as these calculations are entirely dependent on site-specific parameters related to lighting system operation. Claimed Peak Demand SavingsRefer to Volume 1, Appendix B: Peak Demand Reduction Documentation for further details on peak demand savings and methodology. Measure Life and Lifetime SavingsThe estimated useful life (EUL) values are defined for specific lighting types by the Texas petition process, and are maintained on the Texas Energy Efficiency website and are listed below:Halogen Lamps: 1.5 yearsHigh Intensity Discharge Lamps: 15.5 yearsIntegrated-ballast CCFL Lamps: 4.5 yearsIntegrated-ballast CFL Lamps: 2.5 yearsIntegral LED Lamps: 9 yearsLight Emitting Diode: 15 yearsModular CFL and CCFL Fixtures: 16 yearsT8 and T5 Linear Fluorescents: 15.5 yearsProgram Tracking Data and Evaluation RequirementsThe following primary inputs and contextual data should be specified and tracked by the program database to inform the evaluation and apply the savings properly. Decision/Action Type: Retrofit or New ConstructionBuilding or Space TypeDecision/Action Type: Retrofit or NCFor New Construction Only: Lighting Power Density FactorFor New Construction Only: Interior or Exterior Space Square FootageConditioned Space Type: cooling Cooling equipment type, refrigerated space temperature range, heating fuel type, and % heated/cooled (for NC ONLY) (specified per control)Baseline Fixture ConfigurationBaseline Lamp WattageBaseline Ballast TypeBaseline Lighting ControlsControl TypeBaseline Counts of Operating FixturesBaseline Counts of Non-Operating FixturesPost-Retrofit Fixture ConfigurationPost-Retrofit Lamp WattagePost-Retrofit Lamp Specification SheetsPost-Retrofit Ballast TypePost-Retrofit Lighting ControlsControl TypePost-Retrofit Counts of Operating FixturesEquipment Operating HoursLighting Measure Group (from REF _Ref446414157 Table 25)Lighting measure groups to be used for measure summary reports:The lighting measure groups below must be used for reporting summarized savings of lighting measures. Higher-level groupings of lighting technologies, such as “NonLED” lighting, will not provide enough resolution for evaluation and cost effectiveness analysis. These lighting groups are consistent with the EULs defined for lighting technologies, and will ensure that the correct, approved EUL can be associated with reported lighting savings.Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 5: Lighting Measure Groups to be used for Reporting SavingsTRM Standard Measure GroupsT8/T5 Linear FluorescentIntegrated-ballast CCFL LampsIntegrated-ballast CFL LampsModular CFL and CCFL FixturesLight Emitting Diode (LED)Integral LED LampHigh Intensity Discharge (HID)HalogenReferences and Efficiency Standards Petitions and RulingsPUCT Docket 36779 – Describes Effective Useful LifePUCT Docket 39146 – Describes deemed values for energy and demand savingsPUCT Docket 38023 – Describes LED Installation and Efficiency Standards for non-residential LED productsRelevant Standards and Reference SourcesDOE’s LED Lighting Facts showcases LED products for general illumination from manufacturers who commit to testing products and reporting performance results. . Accessed 09/19/2013.ENERGY STAR? requirements for Commercial LED Lighting. . Accessed 09/19/2013.Design Lights Consortium. . Accessed 09/19/2013.CEE Guidelines for eligible T8 measures. . Accessed 09/19/2013.U.S. Lighting Market Characterization report, September 2002, . Accessed 9/19/2013.United Illuminating Company and Connecticut Light & Power. Final Report, 2005 Coincidence Factor Study. . Accessed 09/19/2013.Document Revision HistoryTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 6: Nonresidential Lighting-Lamps and Fixtures Revision HistoryTRM VersionDateDescription of Changev1.011/25/2013TRM V1.0 originv2.004/18/2014Measure Life section: Added additional energy efficiency measures for consistency with the EUMMOT maintained list. Calculator and Tools section: Eliminated description of calculator output comparisons. Tracking Data Requirements section: Added lighting category requirements for measure summary reports.v3.004/10/2015Revised to eliminate T12 lamps as a valid baseline. Measure Description section: General clean-up of technology descriptions. Program Tracking Data section: Minor changes and clarifications.v3.111/05/2015Revised to eliminate T12 lamps as a valid baseline and eliminate the Oncor winter peak demand value to use the statewide average in all service territories. Eligibility Criteria: Adding sources for LED lamp and fixture eligibility.V3.103/23/2016Updated Linear Fluorescent T12 Special Conditions baseline table to include HO and VHO lamps. Updated criteria for miscellaneous length (e.g. 2-ft, 3-ft) T8s. Added footnote to explain how to account for non-rebated fixture lighting controls in savings calculations. Clarified some tracking data requirements,Lighting Controls Measure OverviewTRM Measure ID: NR-LT-LCMarket Sector: CommercialMeasure Category: LightingApplicable Building Types: All Commercial, Multifamily common areasFuels Affected: Electricity (Interactive HVAC effects: Electric/Gas space heating)Decision/Action Types: Retrofit (RET), New Construction (NC)Program Delivery Type: Prescriptive, Custom, Direct InstallDeemed Savings Type: Deemed Savings CalculationSavings Methodology: Calculator Measure DescriptionThis measure promotes the installation of lighting controls in both new construction and retrofit applications. For retrofit applications, lighting controls would typically be installed where there is no control other than a manual switch (wall or circuit panel). For new construction lighting systems, they would be added where they are not already required by existing energy or building codes. Promoted technologies include occupancy sensors and daylight dimming controls. Energy and peak demand savings are calculated for these technologies via an energy adjustment factor (EAF) for kWh, and a power adjustment factor (PAF) for kW. Eligibility CriteriaMeasures installed through utility programs must be one of the occupancy sensor, daylighting, and tuning controls that are described in Table 2-7.Baseline Condition The baseline condition assumes no existing or code required (new construction) automatic lighting controls are installed on the existing lighting fixtures (i.e. they are only manually switched).High-Efficiency ConditionThe energy-efficient condition is properly installed (not bypassed or overridden) and calibrated lighting controls that control overhead lighting in a facility based on occupancy, day lighting, or tuning sensors.Energy and Demand Savings MethodologySavings Algorithms and Input Variables The equations for lighting controls are similar to those used for lighting lamps and fixtures, with the addition of the EAF and PAF multipliers, as shown below. Additionally, the pre/post k/W difference is replaced by a single kW value (the total fixture wattage controlled by the device).Energy Savings= kWcontrolled×EAF×Hours×HVACenergyEquation SEQ Equation \* ARABIC 5Peak Summer Demand Savings=kWcontrolled×PAF×CF×HVACdemandEquation SEQ Equation \* ARABIC 6Where:kWcontrolled=Total kW of controlled fixtures (Fixture wattage from Standard wattage table multiplied by quantity of fixtures)Hours=Hours by building type from Table 2-3EAF= Lighting control Energy Adjustment Factor, see Table 2-8PAF= Lighting control Power Adjustment Factor, see Table 2-8CF= Coincidence factor by building type, see Table 2-3HVACenergy=Energy Interactive HVAC factor by building type, see REF _Ref367732228 \h \* MERGEFORMAT Table 24HVACdemand= Demand Interactive HVAC factor by building type, see REF _Ref367732228 \h \* MERGEFORMAT Table 24See the 2.1.1 Lighting – Lamps and Fixtures measure overview section for a full explanation of the non-control variables and their corresponding values. The lighting controls EAFs and PAFs for different building types are presented in. Table 2-8. The EAF and PAF represent the reduction in energy and demand usage. For example, a factor of 0.24 would equate to a 24% energy and demand savings. Note that in previous TRM versions, the EAFs and PAFs were different values obtained from different sources. The same values from the referenced LBNL study are used for both EAF and PAF factors due to the lack of published data for demand factors.Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 7: Lighting Controls DefinitionsControl TypeDescriptionNoneNo controlOccupancyAdjusting light levels according to the presence of occupants-Wall or Ceiling-Mounted Occupancy Sensors-Integrated Fixture Occupancy Sensors-Time Clocks-Energy Management SystemsDaylighting(Indoor)Adjusting light levels automatically in response to the presence of natural light-PhotosensorsOutdoorOutdoor on/off photosensor/time clock controls; no savings attributed because already required by codePersonalTuningAdjusting individual light levels by occupants according to their personal preference; applies to private offices, workstation-specific lighting in open-plan offices, and classrooms-Dimmers-Wireless ON/OFF switches-Personal computer based controls-Pre-set scene selectionInstitutionalTuningAdjustment of light levels through commissioning or provision of switches or controls for areas or groups of occupants-Dimmable ballasts-On/Off or dimmer switches for non-personal tuningMultiple TypesAny combination of the types described aboveTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 8: Lighting Controls Energy and Power Adjustment FactorsControl TypeSub-CategoryControl CodesEAFPAFNonen/aNone0.000.00Occupancyn/aOS0.240.24Daylighting(Indoor)Continuous dimmingDL-Cont0.280.28Multiple step dimmingDL-StepON/OFFDL-ON/OFFOutdoorn/aOutdoor0.000.00Personal Tuningn/aPT0.310.31Institutional Tuningn/aIT0.360.36Multiple/Combined TypesVarious combinationsMultiple0.380.38Deemed Energy and Demand Savings TablesThis section is not applicable.Claimed Peak Demand SavingsRefer to Volume 1, Appendix B: Peak Demand Reduction Documentation for further details on peak demand savings and methodology.Measure Life and Lifetime SavingsThe estimated useful life (EUL) for lighting controls is provided by the 2007 GDS Associates Report:Occupancy Sensor: 10 yearsDaylighting Control: 10 yearsTime Clock: 10 yearsTuning Control: 10 yearsProgram Tracking Data & Evaluation RequirementsPrimary inputs and contextual data that should be specified and tracked by the program database to inform the evaluation and apply the savings properly are: Building TypeDecision/Action Type: Retrofit or NCConditioned Space Type: cooling equipment type, refrigerated space temperature range, heating fuel type (specified per control)Location of Controlled Lighting: Interior or Exterior (specified per control)Baseline Lighting Control Type CodeInstalled Lighting Control Type CodeLighting Control Mount Type: Wall, Ceiling, Integrated Fixture, etc.Lighting Control Specification SheetsControlled Fixture ConfigurationControlled Fixture Lamp TypeControlled Fixture WattageReferences and Efficiency StandardsPetitions and Rulings“A Meta-Analysis of Energy Savings from Lighting Controls in Commercial Buildings”. Williams, Alison, Atkinson, Barbara, Barbesi, Karina, & Rubinstein, Francis, Lawrence Berkeley National Laboratory (LBNL). September 2011. Table 6, p. 14. Weighted average by number of “reviewed” and “non-reviewed” papers.PUCT Docket 40668 – Describes deemed values to be used in energy and demand savings calculations.PUCT Docket 36779 – Describes Effective Useful Life.Relevant Standards and Reference Sources2009 IECC (Commercial buildings)ASHRAE 90.1-2010 (Public/State buildings) ANSI/ASHRAE/IESNA Standard 90.1 -2007 Document Revision HistoryTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 9: Nonresidential Lighting Controls Revision HistoryTRM VersionDateDescription of Changev1.011/25/2013TRM V1.0 originv2.101/30/2015Corrections to REF _Ref404322932 \h \* MERGEFORMAT Equation 5 and REF _Ref409102588 \h \* MERGEFORMAT Equation 6 to accurately reflect the energy and power adjustment factors and to reflect savings based on connected load rather than a delta load. Consolidation of algorithms for Retrofit and New Construction projects.v3.004/10/2015Update EAF and PAF factors with values from a more current and comprehensive controls study. Update equations to use a “controlled lighting watts” approach for both retrofit and new construction. Updated Program Tracking parameters for consistency with other Lighting measure and added interior/exterior location. Nonresidential: HVAC Split System/Single Packaged Air Conditioners and Heat Pumps Measure OverviewTRM Measure ID: NR-HV-PSMarket Sector: CommercialMeasure Category: HVAC Applicable Building Types: See Table 2-18 through Table 2-22 Fuels Affected: Electricity Decision/Action Type: Replace-on-Burnout (ROB), Early Retirement (ER), and New Construction (NC)Program Delivery Type: PrescriptiveDeemed Savings Type: Deemed Savings Calculation Savings Methodology: CalculatorMeasure DescriptionThis section summarizes the deemed savings methodology for the installation of air-cooled Split System and Single Packaged Air Conditioning (AC) and Heat Pump (HP) systems. This document covers assumptions made for baseline equipment efficiencies for early retirement (ER) based on the age of the replaced equipment, and replace-on-burnout (ROB) and new construction (NC) situations based on efficiency standards. Savings calculations incorporate the use of both full-load and part-load efficiency values. For ER, the actual age of the baseline system should be determined from the equipment nameplate or other physical documentation whenever possible. In the event that the actual age of the unit is unknown, default values are provided.Applicable efficient measure types include:Packaged and Split air conditioners (DX or air-cooled)Packaged and Split heat pumps (air-cooled)System Type Conversions. Retrofits involving a change from a chiller-based system to a packaged/split system are also covered under this measure. In the event that this type of retrofit is performed, the tables from the HVAC Chillers measure will need to be referenced.Eligibility CriteriaFor a measure to be eligible to use this deemed savings approach, the following conditions must be met:The existing and proposed cooling equipment are electric.The climate zone is determined from the county-to-climate-zone mapping table.The building falls into one of the categories listed in Table 2-28 through Table 2-22. Building type descriptions and examples are provided in REF _Ref428187133 \h \* MERGEFORMAT Table 216 and REF _Ref433116522 Table 217.For early retirement projects: ER projects involve the replacement of a working system that is at least five years old before natural burnout. Additionally, the ER approach cannot be used for projects involving a renovation where a major structural change or internal space remodel has occurred. An ROB approach should be used for these scenarios.In the event that these conditions are not met, the deemed savings approach cannot be used, and the Simplified M&V Methodology or the Full M&V Methodology must be used.Baseline ConditionThe baseline conditions related to efficiency and system capacity for early retirement and replace-on-burnout/new construction are as follows:Early RetirementEarly retirement systems involve the replacement of a working system, prior to natural burnout. The early retirement baseline cannot be used for projects involving a renovation where a major structural change or internal space remodel has occurred.Two baseline condition efficiency values are required for an ER scenario, one for the ER (RUL) period and one for the ROB (EUL-RUL) period. For the ROB period, the baseline efficiency is the same as for an ROB/NC scenario. For the ER period, the baseline efficiency should be estimated using the values from Table 2-10 through Table 2-14 according to the capacity, system type, and age (based on year of manufacture) of the replaced system. When the system age can be determined (from a nameplate, building prints, equipment inventory list, etc.), the baseline efficiency levels provided in Table 2-10 through Table 2-14 should be used. These tables will be updated every few years so that systems greater than five years old will be eligible for early retirement. When the system age is unknown, assume an age of 17 years.Regarding the ER baseline efficiency tables, PUCT Docket 40885 provided baseline efficiencies for split and packaged systems replaced via early retirement programs, and included a category for 1990-1991. However, common practice for energy efficiency programs in Texas is to allow systems older than 1990 to use the same baseline efficiencies as those listed for 1990-1991. This practice is reflected in the ER baseline efficiency tables, by showing the Year Installed as “≤ 1991” rather than 1990-1991.Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 10: ER Baseline Full-Load Efficiency for ACsYearInstalled(ReplacedSystem)SplitSystems< 5.4 tons[EER]PackageSystem< 5.4 tons[EER]AllSystems5.4 to< 11.3 tons[EER]AllSystems11.3 to< 20 tons[EER]AllSystems20 to< 63.3 tons[EER]AllSystems> 63.3 tons[EER]≤ 19919.29.08.98.08.07.81992 – 20019.29.08.98.38.38.02002 – 20059.29.010.19.59.39.02006 – 200911.211.210.19.59.39.02010 – 201111.211.211.010.89.89.5Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 11: ER Baseline Part-Load Efficiency for ACsYearInstalled(ReplacedSystem)SplitSystems< 5.4 tons[SEER]PackageSystem< 5.4 tons[SEER]AllSystems5.4 to< 11.3 tons[IEER]AllSystems11.3 to< 20 tons[IEER]AllSystems20 to< 63.3 tons[IEER]AllSystems> 63.3 tons[IEER]≤ 199110.09.79.18.28.17.91992 – 200110.09.79.18.58.48.12002 – 200510.09.710.39.79.49.12006 – 200913.013.010.39.79.49.12010 – 201113.013.011.211.09.99.6Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 12: ER Baseline Full-Load Cooling Efficiency for HPsYearInstalled(ReplacedSystem)SplitSystems< 5.4 tons[EER]PackageSystem< 5.4 tons[EER]AllSystems5.4 to< 11.3 tons[EER]AllSystems11.3 to< 20 tons[EER]AllSystems20 to< 63.3 tons[EER]AllSystems> 63.3 tons[EER]≤ 19919.29.08.98.08.07.81992 – 20019.29.08.98.38.38.52002 – 20059.29.09.99.18.88.82006 – 200911.211.29.99.18.88.82010 – 201111.211.210.810.49.39.3Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 13: ER Baseline Part-Load Cooling Efficiency for HPsYearInstalled(ReplacedSystem)SplitSystems< 5.4 tons[SEER]PackageSystem< 5.4 tons[SEER]AllSystems5.4 to< 11.3 tons[IEER]AllSystems11.3 to< 20 tons[IEER]AllSystems20 to< 63.3 tons[IEER]AllSystems> 63.3 tons[IEER]≤ 199110.09.79.18.18.17.91992 – 200110.09.79.18.48.48.62002 – 200510.09.710.19.28.98.92006 – 200913.013.010.19.28.98.92010 – 201113.013.011.010.59.49.4Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 14: ER Baseline Heating Efficiency for HPsYear Installed(ReplacedSystem)Split Systems< 5.4 tons[HSPF]Package System< 5.4 tons[HSPF]All Systems5.4 to < 11.3 tons[COP]All Systems> 11.3 tons [COP]≤ 19986.86.63.03.01999 – 20006.86.63.02.92001 – 20056.86.63.23.12006 – 20097.77.73.23.12010 – 20117.77.73.33.2Replace-on-Burnout (ROB) and New Construction (NC):Baseline efficiency levels for package and split DX air conditioners and heat pumps are provided in REF _Ref410912639 Table 215. These baseline efficiency levels reflect the latest minimum efficiency requirements from the current federal manufacturing standard and ASHRAE 90.1-2010. Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 15: Baseline Efficiency Levels for ROB and NC Air Conditioners and Heat PumpsSystem TypeCapacity[Tons]HeatingSection TypeBaselineEfficienciesSourceAir Conditioner< 5.4All11.2 EER13.0 SEERDOE Standards/ASHRAE 90.1-20105.4 to < 11.3None orElectric Resistance11.2 EER11.4 IEERAll Other11.0 EER11.2 IEER11.3 to < 20None orElectric Resistance11.0 EER11.2 IEERAll Other10.8 EER11.0 IEER20 to < 63.3None orElectric Resistance10.0 EER10.1 IEERAll Other9.8 EER9.9 IEER> 63.3None orElectric Resistance9.7 EER9.8 IEERASHRAE 90.1-2010All Other9.5 EER9.6 IEERHeat Pump (cooling)< 5.4Heat Pump11.2 EER13.0 SEERDOE Standards/ASHRAE 90.1-20105.4 to < 11.311.0 EER11.2 IEER11.3 to < 2010.6 EER10.7 IEER> 209.5 EER9.6 IEERHeat Pump (heating)< 5.4Heat Pump7.7 HSPFDOE Standards5.4 to < 11.253.3 COP> 11.33.2 COPHigh-Efficiency Condition Package and split-systems must exceed the minimum efficiencies specified in REF _Ref401839252 Table 215.For reference, both ENERGY STAR? and the Consortium for Energy Efficiency (CEE) offer suggested guidelines for high-efficiency equipment. Additional conditions for replace-on-burnout, early retirement and new construction are as follows:New Construction and Replace on BurnoutThis scenario includes equipment used for new construction and retrofit/replacements that are not covered by early retirement, such as units that are replaced after natural failure. Early Retirement The high-efficiency retrofits must meet the following criteria:For early retirement projects only, the installed equipment cooling capacity must be within 80% to 120% of the replaced electric cooling capacityNo additional measures are being installed that directly affect the operation of the cooling equipment (i.e., control sequences, cooling towers, and condensers).Energy and Demand Savings MethodologySavings Algorithms and Input VariablesEnergy Savings kWhsavings=kWhSavings,C+kWhSavings,HEquation SEQ Equation \* ARABIC 7Peak Demand [kWSavings,C]=CapC,preηbaseline,C-CapC,postηinstalled,C×CF×1 kW1,000 WEquation SEQ Equation \* ARABIC 8Energy Cooling kWhSavings,C=CapC,preηbaseline,C-CapC,postηinstalled,C×EFLHC×1 kW1,000 WEquation SEQ Equation \* ARABIC 9Energy Heating kWhSavings,H=CapH,preηbaseline,H-CapH,postηinstalled,H×EFLHH×1 kWh3,412 BtuEquation SEQ Equation \* ARABIC 10Where:CapC/H,pre=Rated equipment cooling/heating capacity of the existing equipment at AHRI standard conditions [Btuh]; 1 ton = 12,000 BtuhCapC/H,post=Rated equipment cooling/heating capacity of the newly installed equipment at AHRI standard conditions [Btuh]; 1 ton = 12,000 Btuhηbaseline,C= Cooling efficiency of existing equipment (ER) or standard equipment (ROB/NC) [Btuh/W]ηinstalled,C=Rated cooling efficiency of the newly installed equipment (kW/Ton) - (Must exceed ROB/NC baseline efficiency standards in REF _Ref401839252 Table 215) [Btuh/W]ηbaseline,H= Heating efficiency of existing equipment (ER) or standard equipment (ROB/NC) [COP]ηinstalled,H=Rated heating efficiency of the newly installed equipment (Must exceed baseline efficiency standards in REF _Ref401839252 Table 215) [COP]Note: Use EER for kW savings calculations and SEER/IEER and COP for kWh savings calculations. The COP expressed for units > 5.4 tons is a full-load COP. Heating efficiencies expressed as HSPF will be approximated as a seasonal COP and should be converted using the following equation:COP=HSPF3.412Equation SEQ Equation \* ARABIC 11CF=Summer peak coincidence factor for appropriate climate zone, building type, and equipment type (Table 2-18 through Table 2-22)EFLHC/H=Cooling/heating equivalent full-load hours for appropriate climate zone, building type, and equipment type [hours] (Table 2-18 through Table 2-22) Early Retirement SavingsThe first year savings algorithms in the above equations are used for all HVAC projects, across NC, ROB, and ER projects. However, ER projects require a weighted savings calculated over both the ER and ROB periods taking the EUL and RUL into account. The ER savings are applied over the remaining useful life (RUL) period, and the ROB savings are applied over the remaining period (EUL-RUL). The final reported savings for ER projects are not actually a “first-year” savings, but an “average annual savings over the lifetime (EUL) of the measure”. These savings calculations are explained in Appendix D.Deemed Energy and Demand Savings TablesDeemed peak demand coincidence factor (CF) and equivalent full-load hour (EFLH) values are presented by building type and climate zone. A description of the building types that are used for HVAC systems are presented in REF _Ref428187133 Table 216 and REF _Ref433116522 Table 217. These building types are derived from the EIA CBECS study. The CF and EFLH values for packaged and split AC and HP units are presented in Table 2-18 through Table 2-22. These tables also include an “Other” building type, which can be used for business types that are not explicitly listed. The CF and EFLH values used for Other are the most conservative values from the explicitly listed building types.? When the Other building type is used, a description of the actual building type, the primary business activity, the business hours, and the HVAC schedule must be collected for the project site, and stored in the utility tracking data system.For those combinations of technology, climate zone, and building type where no values are present, a project with that specific combination cannot use the deemed approach.A description of the calculation method used to derive these values can be found in Docket No. 40885, Attachment B.Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 16: Commercial HVAC Building Type Descriptions and ExamplesBuilding TypePrincipal Building ActivityDefinitionDetailed Business Type ExamplesEducationCollegeBuildings used for academic or technical classroom instruction, such as elementary, middle, or high schools, and classroom buildings on college or university campuses. Buildings on education campuses for which the main use is not classroom are included in the category relating to their use. For example, administration buildings are part of "Office," dormitories are "Lodging," and libraries are "Public Assembly."1) College or University2) Career or Vocational Training3) Adult EducationPrimary School1) Elementary or Middle School2) Preschool or DaycareSecondary School1) High School2) Religious EducationFood SalesConvenienceBuildings used for retail or wholesale of food.1) Gas Station with a Convenience Store2) Convenience StoreSupermarket1) Grocery Store or Food MarketFood ServiceFull-Service RestaurantBuildings used for preparation and sale of food and beverages for consumption.1) Restaurant or CafeteriaQuick-Service Restaurant1) Fast FoodHealthcareHospitalBuildings used as diagnostic and treatment facilities for inpatient care.1) Hospital2) Inpatient RehabilitationOutpatient HealthcareBuildings used as diagnostic and treatment facilities for outpatient care. Medical offices are included here if they use any type of diagnostic medical equipment (if they do not, they are categorized as an office building).1) Medical Office2) Clinic or Outpatient Health Care3) VeterinarianLarge MultifamilyMidrise ApartmentBuildings containing multifamily dwelling units, having multiple stories, and equipped with elevators.No sub-categories collected.LodgingLarge HotelBuildings used to offer multiple accommodations for short-term or long-term residents, including skilled nursing and other residential care buildings.1) Motel or Inn2) Hotel3) Dormitory, Fraternity, or Sorority4) Retirement Home, Nursing Home, Assisted Living, or other Residential Care5) Convent or MonasteryNursing HomeSmall Hotel/MotelMercantileStand-Alone RetailBuildings used for the sale and display of goods other than food.1) Retail Store2) Beer, Wine, or Liquor Store3) Rental Center4) Dealership or Showroom for Vehicles or Boats5) Studio or GalleryStrip MallShopping malls comprised of multiple connected establishments.1) Strip Shopping Center2) Enclosed MallsOfficeLarge OfficeBuildings used for general office space, professional office, or administrative offices. Medical offices are included here if they do not use any type of diagnostic medical equipment (if they do, they are categorized as an outpatient health care building).1) Administrative or Professional Office2) Government Office3) Mixed-Use Office4) Bank or Other Financial Institution5) Medical Office6) Sales Office7) Contractor’s Office (e.g. Construction, Plumbing, HVAC)8) Non-Profit or Social Services9) Research and Development10) City Hall or City Center11) Religious Office12) Call CenterMedium OfficeSmall OfficePublic AssemblyPublic Assembly Buildings in which people gather for social or recreational activities, whether in private or non-private meeting halls.1) Social or Meeting (e.g. Community Center, Lodge, Meeting Hall, Convention Center, Senior Center)2) Recreation (e.g. Gymnasium, Health Club, Bowling Alley, Ice Rink, Field House, Indoor Racquet Sports)3) Entertainment or Culture (e.g. Museum, Theater, Cinema, Sports Arena, Casino, Night Club)4) Library5) Funeral Home6) Student Activities Center7) Armory8) Exhibition Hall9) Broadcasting Studio10) Transportation TerminalReligious WorshipReligious WorshipBuildings in which people gather for religious activities, (such as chapels, churches, mosques, synagogues, and temples).No sub-categories collected.ServiceServiceBuildings in which some type of service is provided, other than food service or retail sales of goods.1) Vehicle Service or Vehicle Repair Shop2) Vehicle Storage/Maintenance3) Repair Shop4) Dry Cleaner or Laundromat5) Post Office or Postal Center6) Car Wash7) Gas Station with no Convenience Store8) Photo Processing Shop9) Beauty Parlor or Barber Shop10) Tanning Salon11) Copy Center or Printing Shop12) KennelWarehouseWarehouseBuildings used to store goods, manufactured products, merchandise, raw materials, or personal belongings (such as self-storage).1) Refrigerated Warehouse2) Non-refrigerated warehouse3) Distribution or Shipping CenterTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 17: Commercial HVAC Floor Area and Floor Assumptions by Building TypeBuilding TypePrincipal Building ActivityAverageFloor Area(ft2)Average# of FloorsEducationCollegeNot specifiedNot specifiedPrimary School73,960 1Secondary School210,887 2Food SalesConvenienceNot specified1Supermarket45,000 1Food ServiceFull-Service Restaurant5,500 1Quick-Service Restaurant2,500 1HealthcareHospital241,351 5Outpatient Healthcare40,946 3Large MultifamilyMidrise Apartment33,740 4LodgingLarge Hotel122,120 6Nursing HomeNot specifiedNot specifiedSmall Hotel/Motel43,200 4MercantileStand-Alone Retail24,962 1Strip Mall22,500 1OfficeLarge Office498,588 12Medium Office53,628 3Small Office5,500 1Public AssemblyPublic Assembly Not specifiedNot specifiedReligious WorshipReligious WorshipNot specifiedNot specifiedServiceServiceNot specifiedNot specifiedWarehouseWarehouse52,045 1Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 18: CF and EFLH Values for Amarillo (Climate Zone 1)Building TypePrincipal Building ActivityPackage and Split DXAir ConditionerHeat PumpCFEFLHCCFEFLHCEFLHHEducationCollege0.921,721------Primary School0.958530.95853773Secondary School0.947980.94798697Food SalesConvenience0.923,452------Supermarket0.618000.61800786Food ServiceFull-Service Restaurant1.001,3371.001,337980Quick-Service Restaurant0.951,0780.951,0781,046HealthcareHospital0.893,1070.893,1071,531Outpatient Healthcare0.822,1890.822,1891,554Large MultifamilyMidrise Apartment0.807270.80727389LodgingLarge Hotel0.871,9060.871,9061,127Nursing Home0.921,873------Small Hotel/Motel0.661,3090.661,3091,056MercantileStand-Alone Retail0.788320.78832747Strip Mall0.899240.89924786OfficeLarge Office0.861,2130.861,213582Medium Office0.738930.73893547Small Office0.737690.73769402Public AssemblyPublic Assembly 0.921,797------Religious WorshipReligious Worship0.901,585------ServiceService0.921,848------WarehouseWarehouse0.622900.622901,370OtherOther0.612900.61290389Note: Coefficient values are derived from the petitions filed in Docket 40885 and Docket 30331. Coefficients were updated with Docket 40885, but not all building types (herein “principal building activities,” or PBAs) that were originally available in Docket 30331 were updated in Docket 40885. Coefficient values for those PBAs that were not updated in Docket 40885 remain valid with two exceptions: coefficients for PBA “Grocery” have been removed (“Supermarket” coefficients remain available as have the coefficients for PBA Motel (“Small Hotel” coefficients remain available and have been renamed “Small Hotel/Motel”).Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 19: CF and EFLH Values for Fort Worth (Climate Zone 2)Building TypePrincipal Building ActivityPackage and Split DXAir ConditionerHeat PumpCFEFLHCCFEFLHCEFLHHEducationCollege0.911,955------Primary School0.911,1620.911,162474Secondary School1.001,2441.001,244397Food SalesConvenience0.923,831------Supermarket0.851,2960.851,296622Food ServiceFull-Service Restaurant0.861,5480.861,548602Quick-Service Restaurant0.871,3020.871,302471HealthcareHospital0.984,1850.984,1851,349Outpatient Healthcare0.882,8280.882,8281,501Large MultifamilyMidrise Apartment0.901,3220.901,322284LodgingLarge Hotel0.962,9620.962,962874Nursing Home0.922,218------Small Hotel/Motel0.852,2030.852,203745MercantileStand-Alone Retail0.871,2310.871,231422Strip Mall0.931,2880.931,288410OfficeLarge Office0.911,7200.911,720403Medium Office0.851,2810.851,281410Small Office0.911,3470.911,347221Public AssemblyPublic Assembly 0.922,385------Religious WorshipReligious Worship0.921,946------ServiceService0.922,262------WarehouseWarehouse0.896220.89622945OtherOther0.856220.85622221Note: Coefficient values are derived from the petitions filed in Docket 40885 and Docket 30331. Coefficients were updated with Docket 40885, but not all building types (herein “principal building activities,” or PBAs) that were originally available in Docket 30331 were updated in Docket 40885. Coefficient values for those PBAs that were not updated in Docket 40885 remain valid with two exceptions: coefficients for PBA “Grocery” have been removed (“Supermarket” coefficients remain available as have the coefficients for PBA Motel (“Small Hotel” coefficients remain available and have been renamed “Small Hotel/Motel”).Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 20: CF and EFLH Values for Houston (Climate Zone 3)Building TypePrincipal Building ActivityPackage and Split DXAir ConditionerHeat PumpCFEFLHCCFEFLHCEFLHHEducationCollege0.852,175------Primary School0.841,2650.841,265279Secondary School0.961,3960.961,396193Food SalesConvenience0.884,168------Supermarket0.731,3250.731,325384Food ServiceFull-Service Restaurant0.861,8810.861,881591Quick-Service Restaurant0.851,5360.851,536316HealthcareHospital0.944,6760.944,6761,239Outpatient Healthcare0.823,1160.823,116167Large MultifamilyMidrise Apartment0.981,7970.981,797244LodgingLarge Hotel0.953,3270.953,327766Nursing Home0.842,368------Small Hotel/Motel0.812,5370.812,537462MercantileStand-Alone Retail0.911,4370.911,437200Strip Mall0.931,4560.931,456182OfficeLarge Office0.881,9030.881,903281Medium Office0.751,3570.751,357287Small Office0.851,4450.851,44574Public AssemblyPublic Assembly 0.862,559------Religious WorshipReligious Worship0.872,028------ServiceService0.872,429------WarehouseWarehouse0.815450.81545523OtherOther0.735450.7354574Note: Coefficient values are derived from the petitions filed in Docket 40885 and Docket 30331. Coefficients were updated with Docket 40885, but not all building types (herein “principal building activities,” or PBAs) that were originally available in Docket 30331 were updated in Docket 40885. Coefficient values for those PBAs that were not updated in Docket 40885 remain valid with two exceptions: coefficients for PBA “Grocery” have been removed (“Supermarket” coefficients remain available as have the coefficients for PBA Motel (“Small Hotel” coefficients remain available and have been renamed “Small Hotel/Motel”).Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 21: CF and EFLH Values for Brownsville (Climate Zone 4)Building TypePrincipal Building ActivityPackage and Split DXAir ConditionerHeat PumpCFEFLHCCFEFLHCEFLHHEducationCollege0.832,547------Primary School0.991,7380.991,738293Secondary School0.961,7040.961,704165Food SalesConvenience0.854,647------Supermarket0.841,7720.841,772368Food ServiceFull-Service Restaurant0.842,1870.842,187522Quick-Service Restaurant0.841,8600.841,860262HealthcareHospital0.925,2860.925,2861,080Outpatient Healthcare0.843,2940.843,2941,431Large MultifamilyMidrise Apartment0.942,3810.942,381174LodgingLarge Hotel0.954,0410.954,041710Nursing Home0.852,953------Small Hotel/Motel0.783,0190.783,019369MercantileStand-Alone Retail0.821,7630.821,763159Strip Mall0.851,7570.851,757151OfficeLarge Office0.892,3380.892,338206Medium Office0.791,5450.791,545215Small Office0.821,7820.821,78261Public AssemblyPublic Assembly 0.853,077------Religious WorshipReligious Worship0.842,181------ServiceService0.852,684------WarehouseWarehouse0.786870.78687424OtherOther0.786870.7868761Note: Coefficient values are derived from the petitions filed in Docket 40885 and Docket 30331. Coefficients were updated with Docket 40885, but not all building types (herein “principal building activities,” or PBAs) that were originally available in Docket 30331 were updated in Docket 40885. Coefficient values for those PBAs that were not updated in Docket 40885 remain valid with two exceptions: coefficients for PBA “Grocery” have been removed (“Supermarket” coefficients remain available as have the coefficients for PBA Motel (“Small Hotel” coefficients remain available and have been renamed “Small Hotel/Motel”).Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 22: CF and EFLH Values for El Paso (Climate Zone 5)Building TypePrincipal Building ActivityPackage and Split DXAir ConditionerHeat PumpCFEFLHCCFEFLHCEFLHHEducationCollege0.911,955------Primary School0.911,1620.911,162474Secondary School1.001,2441.001,244397Food SalesConvenience0.923,831------Supermarket0.851,2960.851,296622Food ServiceFull-Service Restaurant0.861,5480.861,548602Quick-Service Restaurant0.871,3020.871,302471HealthcareHospital0.984,1850.984,1851,349Outpatient Healthcare0.882,8280.882,8281,501Large MultifamilyMidrise Apartment0.901,3220.901,322284LodgingLarge Hotel0.962,9620.962,962874Nursing Home0.922,218------Small Hotel/Motel0.852,2030.852,203745MercantileStand-Alone Retail0.871,2310.871,231422Strip Mall0.931,2880.931,288410OfficeLarge Office0.911,7200.911,720403Medium Office0.851,2810.851,281410Small Office0.911,3470.911,347221Public AssemblyPublic Assembly 0.922,385------Religious WorshipReligious Worship0.921,946------ServiceService0.922,262------WarehouseWarehouse0.896220.89622945OtherOther0.856220.85622221Note: Coefficient values are derived from the petitions filed in Docket 41070, 40885, and 30331. The only coefficients that were developed specific to Climate Zone 5 are those filed in Docket 41070; however, the petition in that docket did not include coefficients for all building types (herein “principal building activities,” or PBAs). Prior to filing of Docket 41070, deemed savings for what is now climate zone 5 were the Climate Zone 2 deemed savings. Due to significant differences between the values for CZ5 filed in Docket 41070 relative to the values for the other CZs, the values for CZ2 are used here for CZ5.? This change also expands the coverage of building types and HVAC systems type for CZ5.Claimed Peak Demand SavingsA summer peak period value is used for this measure. Refer to Volume 1, Appendix B: Peak Demand Reduction Documentation for further details on peak demand savings and methodology. Measure Life and Lifetime SavingsThe EUL and RULs for this HVAC equipment are provided below. The reader should refer to the definitions of effective useful life and remaining useful life in the glossary in Volume 1 for guidance on how to determine the decision type for system installations. Effective Useful Life (EUL)The EUL for Split and Packaged Air Conditioners and Heat Pumps is 15 years. Remaining Useful Life (RUL) The RUL of replaced systems is provided according to system age in REF _Ref373761639 \h Table 223. As previously noted, for ER units of unknown age, a default value of 17 years should be used. Both the RUL and EUL are needed to estimate savings for early retirement projects for two distinct periods: The ER period (RUL) and the ROB period (EUL - RUL). The calculations for early retirement projects are extensive, and as such are provided in Appendix D.Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 23: Remaining Useful Life Early Retirement SystemsAge in Years of Replaced SystemSplit and Packaged A/C and HP Systems [years]Age in Years of Replaced SystemSplit and Packaged A/C and HP Systems [years]51015 2.869.1162.578.2172.287.3181.996.5191.7105.7201.5115.0211.3124.4221.1133.8231.0143.3Program Tracking Data & Evaluation RequirementsThe below list of primary inputs and contextual data is recommended to be specified and tracked by the program database to inform the evaluation and apply the savings properly. Decision/Action Type; ER, ROB, NC, System Type ConversionBuilding TypeClimate ZoneBaseline Equipment TypeBaseline Equipment Rated Cooling and Heating CapacityBaseline Number of UnitsFor ER ONLY: Baseline Age and Method of Determination (e.g. nameplate, blueprints, customer reported, not available)Installed Equipment TypeInstalled Equipment Rated Cooling and Heating CapacitiesInstalled Number of UnitsInstalled Cooling and Heating Efficiency RatingsInstalled Make & ModelFor Other building types ONLY: A description of the actual building type, the primary business activity, the business hours, and the HVAC scheduleReferences and Efficiency StandardsPetitions and RulingsPUCT Docket 36779 – Provides EUL for HVAC equipment.PUCT Docket 40083– Provides incorporation of Early Retirement savings for existing commercial HVAC SOP designs and updates for baseline equipment efficiency levels for ROB and New Construction projects involving package and split systems. PUCT Docket 40885 – Provides a petition to revise deemed savings values for Commercial HVAC replacement measures. Items covered by this petition include the following:Updated baseline efficiencies use for estimating deemed savings for commercial PTAC/PTHP’s, Room Air Conditioners and chilled water systems. Approved estimates of RUL of working chilled water systems.Updated demand and energy coefficients for all commercial HVAC systems.Updated EUL of centrifugal chilled water systems installed in ROB or New Construction projects. Provide a method for utilizing the early retirement concept developed in the petition in Docket No. 40083 for Packaged and Split DX systems and applied to chilled water systems when the age of the system being replaced cannot be ascertained.PUCT Docket 41070 – Provides energy and demand savings coefficients for an additional climate zone, El Paso, TX. Prior to this filing, savings for the Dallas-Fort Worth area were used for El Paso, but Dallas-Fort Worth has a colder winter, somewhat more moderate summer, more sunshine, and less precipitation than El Paso.PUCT Docket 43681 – Updated the approach for calculating early replacement energy and demand savings using a Net Present Value (NPV) method. Documented in Appendix D.Relevant Standards and Reference SourcesANSI/ASHRAE/IES Standard 90.1-2010. Energy Standard for Buildings Except Low-Rise Residential Buildings. Table 6.8.1A through Table 6.8.1D. Code of Federal Regulations. Title 10. Part 431 – Energy Efficiency Program for Certain Commercial and Industrial Equipment. Revision HistoryTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 24: Nonresidential HVAC Single-Zone AC-HP HistoryTRM VersionDateDescription of Changev1.011/25/2013TRM v1.0 originv2.004/18/2014Modified Early Retirement savings calculations and added references to Appendix D which details those calculations. Added heat pump minimum required heating efficiencies for reference. Revised baseline efficiency standards based on updates to federal standards. v2.101/30/2015Minor text updates and clarification of early retirement requirements.v3.004/10/2015Update of savings method to allow for part-load efficiency calculations. For heat pumps: Added heating efficiencies and split EFLH into cooling and heating components.v3.111/05/2015Update the building type definitions and descriptions. Added “Other” building type for when building type is not explicitly listed.HVAC Chillers Measure OverviewTRM Measure ID: NR-HV-CHMarket Sector: CommercialMeasure Category: HVACApplicable Building Types: See REF _Ref410917229 \h Table 232 through Table 2-36. Table 236Fuels Affected: Electricity Decision/Action Type: Replace on Burnout (ROB), Early Retirement (ER), and New Construction (NC)Program Delivery Type: PrescriptiveDeemed Savings Type: Deemed Savings CalculationSavings Methodology: CalculatorMeasure DescriptionThis document presents the deemed savings methodology for the installation of chillers. This document covers assumptions made for baseline equipment efficiencies for early retirement (ER) based on the age of the replaced equipment, and replace-on-burnout (ROB) and new construction (NC) situations based on efficiency standards. Savings calculations incorporate the use of both full-load and part-load efficiency values. For ER, the actual age of the baseline system should be determined from the equipment nameplate or other physical documentation whenever possible. In the event that the actual age of the unit is unknown, default values are provided.Applicable efficient measure types include:Compressor Types: Centrifugal or Positive-displacement (Screw, Scroll, or Reciprocating)Condenser/Heat Rejection Type: Air-cooled or Water-cooled System Type Conversions. Retrofits involving a change from a chiller-based system to a packaged/split system are also covered under this measure. In the event that this type of retrofit is performed, the tables from the Split/Single Packaged Air Conditioners and Heat Pumps measure will need to be referenced.Chiller Type Conversions: Conversion from an air-cooled chiller system to a water-cooled chiller system is also addressed in this measure. An additional adjustment is made to the basic chiller savings to account for the auxiliary equipment associated with a water-cooled chiller.Eligibility CriteriaFor a measure to be eligible for this deemed savings approach the following conditions must be met:The existing and proposed cooling equipment are electric.The climate zone is determined from the county-to-climate-zone mapping table. The building falls into one of the categories listed in Table 2-32 through Table 2-36. Building type descriptions and examples are provided in Table 2-16 and Table 2-17.For early retirement projects: ER projects involve the replacement of a working system that is at least five years old before natural burnout. Additionally, the ER approach cannot be used for projects involving a renovation where a major structural change or internal space remodel has occurred. An ROB approach should be used for these scenarios.In the event that one of these conditions are not met, the deemed savings approach cannot be used, and the Simplified M&V Methodology or the Full M&V Methodology must be used.Baseline ConditionEarly RetirementEarly retirement systems involve the replacement of a working system prior to natural burnout. The early retirement baseline cannot be used for projects involving a renovation where a major structural change or internal space remodel has occurred.Two baseline condition efficiency values are required for an ER scenario, one for the ER (RUL) period and one for the ROB (EUL-RUL) period. For the ROB period, the baseline efficiency is the same as for an ROB/NC scenario. For the ER period, the baseline efficiency should be estimated using the values from REF _Ref410917286 \h \* MERGEFORMAT Table 225 through REF _Ref410915279 \h Table 230 according to the capacity, chiller type, and age (based on year of manufacture) of the replaced system. When the chiller age can be determined (from a nameplate, building prints, equipment inventory list, etc.), the baseline efficiency levels provided in REF _Ref410917286 \h Table 225 through REF _Ref410915279 Table 230 should be used. These tables will be updated every few years so that systems greater than 5 years old will be eligible for early retirement. When the system age is unknown, assume 21 years for Non-Centrifugal chillers and 26 years for Centrifugal chillers. ER baseline efficiency values represent the code-specified efficiency in effect at the time the chiller was installed. Prior to 2002, code-specified efficiencies from ASHRAE 90.1-1989 were in effect. Code-specified efficiencies increased in 2002, approximating the effective date of ASHRAE 90.1-1999, which went into effect on October 29, 2001. Code-specified efficiencies increased again in 2010, coinciding with the ASHRAE90.1-2010 code increase (Path A).Code-specified efficiencies in effect prior to 2010 (ASHRAE 90.1-2010), efficiencies were given in COP and have been converted to EER and kW/ton in the tables below using EER = COP x 3.412 and kW/ton = 3.516 ÷ COP. Values in the “< 2001” and “2002-2009” rows of REF _Ref410917286 \h \* MERGEFORMAT Table 225, REF _Ref409176978 \h \* MERGEFORMAT Table 227, REF _Ref409176985 \h \* MERGEFORMAT Table 229 have been converted and are expressed in italics.PUCT Docket 40885 provided baseline efficiencies for chillers replaced via early retirement programs, and included a category for 1990-2001. However, common practice for energy efficiency programs in Texas is to allow systems older than 1990 to use the same baseline efficiencies as those listed for 1990-2001. This practice is reflected in the baseline efficiency tables, by showing the Year Installed as ≤ 2001 rather than 1990-2001.Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 25: ER Baseline Full-Load Efficiency of All Air-Cooled ChillersYear Installed(Replaced System)< 75 tons[EER]≥ 75 to 150tons[EER]≥ 150 to 300tons[EER]≥ 300 to 600tons[EER]≥ 600 tons[EER]≤ 20019.2129.2128.5308.5308.5302002 - 20099.5549.5549.5549.5549.5542010 - 20119.5629.5629.5629.5629.562Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 26: ER Baseline Part-Load Efficiency of All Air-Cooled ChillersYear Installed(Replaced System)< 75 tons[IPLV]≥ 75 to 150tons[IPLV]≥ 150 to 300tons[IPLV]≥ 300 to 600tons[IPLV]≥ 600 tons[IPLV]≤ 20019.5549.5548.5308.5308.5302002 - 200910.40710.40710.40710.40710.4072010 - 201112.75012.75012.75012.75012.750ER Baseline: Centrifugal Water-Cooled ChillersTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 27: ER Baseline Full-Load Efficiency of Centrifugal Water-Cooled ChillersYear Installed(Replaced System)< 75 tons[kW/ton]≥ 75 to 150tons[kW/ton]≥ 150 to 300tons[kW/ton]≥ 300 to 600tons[kW/ton]≥ 600 tons[kW/ton]≤ 20010.9250.9250.8370.7480.7482002 - 20090.7030.7030.6340.5760.5762010 - 20110.6340.6340.6340.5760.570Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 28: ER Baseline Part-Load Efficiency of Centrifugal Water-Cooled ChillersYear Installed(Replaced System)< 75 tons[IPLV]≥ 75 to 150tons[IPLV]≥ 150 to 300tons[IPLV]≥ 300 to 600tons[IPLV]≥ 600 tons[IPLV]≤ 20010.9020.9020.7810.7330.7332002 - 20090.6700.6700.5960.5490.5492010 - 20110.5960.5960.5960.5490.539ER Baseline: Positive-Displacement Water-Cooled ChillersTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 29: ER Baseline Full-Load Efficiency of Screw/Scroll/Recip. Water-Cooled ChillersYear Installed(Replaced System)< 75 tons[kW/ton]≥ 75 to 150tons[kW/ton]≥ 150 to 300tons[kW/ton]≥ 300 to 600tons[kW/ton]≥ 600 tons[kW/ton]≤ 20010.9250.9250.8370.7480.7482002 - 20090.7900.7900.7180.6390.6392010 - 20110.7800.7750.6800.6200.620Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 30: ER Baseline Part-Load Efficiency of Screw/Scroll/Recip. Water-Cooled ChillersYear Installed(Replaced System)< 75 tons[IPLV]≥ 75 to 150tons[IPLV]≥ 150 to 300tons[IPLV]≥ 300 to 600tons[IPLV]≥ 600 tons[IPLV]≤ 20010.9020.9020.7810.7330.7332002 - 20090.6760.6760.6280.5720.5722010 - 20110.6300.6150.5800.5400.540Replace-on-Burnout and New ConstructionNew baseline efficiency levels for chillers are provided in REF _Ref367272753 \h Table 231, which includes both full load and Integrated Part Load Value (IPLV) ratings. The IPLV accounts for chiller efficiency at part-load operation for a given duty cycle. These baseline efficiency levels reference standard ASHRAE 90.1-2010. This standard contains two paths for compliance, Path A or Path B, however Path A is the method chosen for consistency with the full-load efficiency conditions used in the savings algorithms.Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 31: Baseline Efficiencies for ROB and NC Air-Cooled and Water-Cooled Chillers System Type [Efficiency Units]Efficiency TypeCapacity [Tons]Path AFull-LoadIPLVAir-Cooled Chiller EER< 150≥ 9.562≥ 12.750≥ 150≥ 9.562≥ 12.750Water-Cooled Chiller Electrically-Operated, Positive Displacement (Screw/Scroll/Reciprocating)kW/ton<75≤ 0.780≤ 0.630≥ 75 and < 150≤ 0.775≤ 0.615≥ 150 and < 300 ≤ 0.680≤0.580≥ 300 ≤ 0.620≤0.540Electrically-Operated, Centrifugal< 300 ≤ 0.634≤ 0.596≥ 300 and < 600 ≤ 0.576≤ 0.549≥ 600 ≤ 0.570≤ 0.539High-Efficiency ConditionChillers must exceed the minimum efficiencies specified in REF _Ref367272753 Table 231. Additional conditions for replace-on-burnout, early retirement and new construction are as follows:New Construction and Replace on BurnoutThis scenario includes chillers used for new construction and retrofit/replacements that are not covered by early retirement, such as units that are replaced after natural failure.Early Retirement The high-efficiency retrofits must meet the following criteria:For early retirement projects only, the installed equipment cooling capacity must be within 80% to 120% of the replaced electric cooling capacityNo additional measures are being installed that directly affect the operation of the cooling equipment (i.e., control sequences, cooling towers, and condensers).Energy and Demand Savings MethodologySavings Algorithms and Input VariablesPeak Demand [kWSavings]=CapC,pre×ηbaseline-CapC,post×ηinstalled×CFEquation SEQ Equation \* ARABIC 12Energy Savings [kWhSavings]=CapC,pre×ηbaseline-CapC,post×ηinstalled×EFLHCEquation SEQ Equation \* ARABIC 13Where:CapC,pre =Rated equipment cooling capacity of the existing equipment at AHRI standard conditions [Tons]CapC,post=Rated equipment cooling capacity of the newly installed equipment at AHRI standard conditions [Tons]ηbaseline= Efficiency of existing equipment (ER) or standard equipment (ROB/NC) [kW/Ton]ηinstalled=Rated efficiency of the newly installed equipment [kW/Ton] - (Must exceed efficiency standards, shown in REF _Ref367272753 \h \* MERGEFORMAT Table 231)Note: Use full-load efficiency (kW/ton) for kW savings calculations and part-load efficiency (IPLV) for kWh savings calculations. REF _Ref410917286 \h Table 225 through REF _Ref410915279 Table 230 provide efficiency ratings for baseline equipment and the efficiency ratings are given in terms of EER, kW/ton, or IPLV. In the cases where the full-load efficiency is provided in terms of EER rather than kW/ton, a conversion to kW/ton needs to be performed using the following conversion:kWTon=12EEREquation SEQ Equation \* ARABIC 14CF=Summer peak coincidence factor for appropriate climate zone, building type, and equipment type ( REF _Ref410917229 \h \* MERGEFORMAT Table 232 through Table 2-36) EFLHC=Cooling equivalent full-load hours for appropriate climate zone, building type, and equipment type [hours] ( REF _Ref410917229 \h \* MERGEFORMAT Table 232 through Table 2-36) Air-to Water-Cooled Replacement: Adjustments for Auxiliary Equipment:The equipment efficiency for an air-cooled chiller includes condenser fans, but the equipment efficiency for a water-cooled chiller does not include the condenser water pump and cooling tower (auxiliary equipment). Therefore, when an air-cooled chiller is replaced with a water-cooled chiller, the savings must be reduced to account for the impact of the water-cooled system’s additional equipment. This type of retrofit is only applicable for ER situations. The following equations are used:kW=HPCW pump+HPCT fan×0.7460.86×0.80Equation SEQ Equation \* ARABIC 15kWh=kW×8,760Equation SEQ Equation \* ARABIC 16Where:HPCW pump =Horsepower of the condenser water pumpHPCT fan=Horsepower of the cooling tower fan0.746=Conversion from HP to kW [kW/HP]0.86=Assumed equipment efficiency 0.80=Assumed load factor8,760=Annual run time hours The energy and demand of the condenser water pump and cooling tower fans are subtracted from the final savings, to reach the net savings:kWsavings,net=kWChiller-kWEquation SEQ Equation \* ARABIC 17kWhsavings,net=kWhChiller-kWhEquation SEQ Equation \* ARABIC 18Early Retirement SavingsThe first year savings algorithms in the above equations are used for all HVAC projects, across NC, ROB, and ER projects. However, ER projects require a weighted savings calculated over both the early retirement period and the replace-on-burnout period, and take into account the EUL and the RUL. The final reported savings for ER projects are not actually a “first-year” savings, but an “average annual savings over the lifetime (EUL) of the measure”. These savings calculations are explained in Appendix D. REF _Ref410917229 \h Table 232 through Table 2-36 present the demand and energy coefficients. These HVAC coefficients vary by climate zone, building type, and equipment type. A description of the calculation method can be found in Docket No. 40885, Attachment BClaimed Peak Demand SavingsA summer peak period value is used for this measure. Refer to Volume 1, Appendix B: Peak Demand Reduction Documentation for further details on peak demand savings and methodology.Deemed Energy and Demand Savings TablesDeemed peak demand coincidence factor (CF) and equivalent full-load hour (EFLH) values are presented building type and climate zone for chillers in REF _Ref410917229 \h \* MERGEFORMAT Table 232 through Table 2-36. These tables also include an “Other” building type, which can be used for business types that are not explicitly listed. The CF and EFLH values used for Other are the most conservative values from the explicitly listed building types.? When the Other building type is used, a description of the actual building type, the primary business activity, the business operating hours, and the HVAC schedule must be collected for the project site, and stored in the utility tracking data system. For those combinations of technology, climate zone, and building type where no values are present, a project with that specific combination cannot used the deemed approach. A description of the calculation method can be found in Docket No. 40885, Attachment B. Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 32: CF and EFLH for Amarillo (Climate Zone 1)Building TypePrincipal Building ActivityChillerAir CooledWater CooledDemand CoefficientsEnergy CoefficientsDemand CoefficientsEnergy CoefficientsEducationCollege0.871,1150.681,243Secondary School0.821,0280.751,244Food SalesSupermarket----0.671,892HealthcareHospital0.862,8730.743,545LodgingLarge Hotel0.771,9650.722,396Nursing Home0.871,2300.651,260OfficeLarge Office0.921,7100.822,104Public AssemblyPublic Assembly0.871,4040.651,444Religious WorshipReligious Worship0.828480.67856OtherOther0.778480.65856Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 33: CF and EFLH for Fort Worth (Climate Zone 2)Building TypePrincipal Building ActivityChillerAir CooledWater CooledDemand CoefficientsEnergy CoefficientsDemand CoefficientsEnergy CoefficientsEducationCollege0.891,5870.811,761Secondary School0.881,3330.841,669Food SalesSupermarket----0.872,708HealthcareHospital0.963,5740.834,323LodgingLarge Hotel0.822,5960.803,159Nursing Home0.901,7440.821,854OfficeLarge Office0.921,7100.822,104Public AssemblyPublic Assembly0.902,0050.842,116Religious WorshipReligious Worship0.881,3550.831,396OtherOther0.821,3330.801,396Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 34: CF and EFLH for Houston (Climate Zone 3)Building TypePrincipal Building ActivityChillerAir CooledWater CooledDemand CoefficientsEnergy CoefficientsDemand CoefficientsEnergy CoefficientsEducationCollege0.801,8580.842,099Secondary School0.781,2970.821,726Food SalesSupermarket----0.883,012HealthcareHospital0.823,7530.814,708LodgingLarge Hotel0.762,6900.823,475Nursing Home0.801,9600.842,172OfficeLarge Office0.791,6800.822,185Public AssemblyPublic Assembly0.812,2640.862,482Religious WorshipReligious Worship0.831,4740.841,594OtherOther0.761,2970.811,594Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 35: CF and EFLH for Brownsville (Climate Zone 4)Building TypePrincipal Building ActivityChillerAir CooledWater CooledDemand CoefficientsEnergy CoefficientsDemand CoefficientsEnergy CoefficientsEducationCollege0.802,3400.872,583Secondary School0.811,6140.852,094Food SalesSupermarket----0.853,603HealthcareHospital0.854,2080.805,160LodgingLarge Hotel0.903,5750.823,969Nursing Home0.802,6340.852,890OfficeLarge Office0.852,0180.832,562Public AssemblyPublic Assembly0.802,8570.853,085Religious WorshipReligious Worship0.811,7540.851,907OtherOther0.801,6140.801,907Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 36: CF and EFLH for El Paso (Climate Zone 5)Building TypePrincipal Building ActivityChillerAir CooledWater CooledDemand CoefficientsEnergy CoefficientsDemand CoefficientsEnergy CoefficientsEducationCollege0.931,2780.961,458Primary School0.879790.931,141Secondary School0.879790.931,141Food SalesSupermarket--0.832,468HealthcareHospital0.972,2250.982,705LodgingLarge Hotel0.781,8440.701,996Nursing Home0.901,7440.821,854MercantileStand-Alone Retail0.861,5530.771,781OfficeLarge Office1.052,1341.012,213Small Office0.881,6140.991,873Public AssemblyPublic Assembly0.771,7240.742,013WarehouseWarehouse0.801,1610.821,381Religious WorshipReligious Worship0.881,3550.831,396OtherOther0.779790.701,141Measure Life and Lifetime SavingsEffective Useful Life (EUL)The EUL of HVAC equipment is provided below:Screw / Scroll / Reciprocating Chillers – 20 yearsCentrifugal Chillers – 25 yearsRemaining Useful Life (RUL)The RUL of replaced systems is provided according to system age in REF _Ref367280302 \h \* MERGEFORMAT Table 237. As previously noted, for ER units of unknown age, a default value of 21 years for Non-Centrifugal chillers and 26 years for Centrifugal chillers should be used. Both the RUL and EUL are needed to estimate savings for early retirement projects for two distinct periods: The ER period (RUL) and the ROB period (EUL - RUL). The calculations for early retirement projects are extensive, and as such are provided in Appendix D.Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 37: Remaining Useful Life of Early Retirement SystemsAge in Years of Replaced SystemNon-Centrifugal Chilled Water SystemsCentrifugal Chilled Water SystemsAge in Years of Replaced SystemNon-Centrifugal Chilled Water SystemsCentrifugal Chilled Water Systems514.719.9213.26.6613.718.9222.96.3712.717.9232.65.9811.816.9242.45.6910.915.925 2.15.41010.014.9261.95.1119.113.9271.84.9128.312.9281.64.7137.511.9291.54.5146.810.9301.34.3156.210.1311.24.1165.59.332N/A4175.08.733N/A3.8184.58.134N/A3.7194.07.535N/A3.620 3.67.136N/A3.5Program Tracking Data and Evaluation RequirementsThe below list of primary inputs and contextual data is recommended to be specified and tracked by the program database to inform the evaluation and apply the savings properly. Decision/Action Type: ER, ROB, NC, ConversionBuilding TypeClimate ZoneBaseline Equipment Type (Compressor/Condenser Type)Baseline Equipment Rated CapacityBaseline Number of UnitsFor ER ONLY: Baseline Age of System and Method of Determination (e.g. nameplate, blueprints, customer reported, not available)Installed Equipment Type (Compressor/Condenser Type)Installed Equipment Rated CapacityInstalled Number of UnitsInstalled Efficiency RatingInstalled Make & ModelFor Chiller Type Conversion ONLY: Condenser water pump HP and cooling tower fan HPFor Other building type ONLY: A description of the actual building type, the primary business activity, the business hours, and the HVAC scheduleReferences and Efficiency StandardsPetitions and RulingsPUCT Docket 36779 – Provides EUL for HVAC equipment.PUCT Docket 40083– Provides incorporation of Early Retirement savings for existing commercial HVAC SOP designs and updates for baseline equipment efficiency levels for ROB and New Construction projects involving package and split systems. PUCT Docket 40885 – Provides a petition to revise deemed savings values for Commercial HVAC replacement measures. Items covered by this petition include the following:Updated baseline efficiencies use for estimating deemed savings for commercial PTAC/PTHP’s, Room Air Conditioners and chilled water systems. Approved estimates of RUL of working chilled water systems.Updated demand and energy coefficients for all commercial HVAC systems.Updated EUL of centrifugal chilled water systems installed in ROB or New Construction projects. Provide a method for utilizing the early retirement concept developed in the petition in Docket No. 40083 for Packaged and Split DX systems and applied to chilled water systems when the age of the system being replaced cannot be ascertained.PUCT Docket 41070 – Provides energy and demand savings coefficients for an additional climate zone, El Paso, TX. Previously these savings were taken from the Dallas-Fort Worth area, which has a colder winter, somewhat more moderate summer, more sunshine, and less precipitation than El Paso.PUCT Docket 43681 – Updated the approach for calculating early replacement energy and demand savings using a Net Present Value (NPV) method. Documented in Appendix D.Relevant Standards and Reference SourcesANSI/ASHRAE/IES Standard 90.1-1989. Energy Standard for Buildings except Low-Rise Residential Buildings. Table 10-7. ANSI/ASHRAE/IES Standard 90.1-2004. Energy Standard for Buildings except Low-Rise Residential Buildings. Table 6.8.1C. ANSI/ASHRAE/IES Standard 90.1-2010. Energy Standard for Buildings except Low-Rise Residential Buildings. Table 6.8.1A through Table 6.8.1D. Document Revision HistoryTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 38: Nonresidential HVAC-Chillers HistoryTRM VersionDateDescription of Changev1.011/25/2013TRM V1.0 originv2.004/18/2014Modified savings calculations surrounding Early Retirement programs, and revised details surrounding RUL and Measure Life. Added references to Appendix D for EUL and RUL discussion, and Net Present Value (NPV) equations. v2.101/30/2015Minor text updates and clarification of early retirement requirements.v3.004/10/2015Update of savings method to allow for part-load efficiency calculations.v3.111/05/2015Updated table references to clarify building types and RUL references. Added “Other” building type for when building type is not explicitly listed. Added Religious Worship building type to Climate Zone 5 for consistency with other zones. Packaged Terminal Air Conditioners, Heat Pumps and Room Air Conditioners Measure OverviewTRM Measure ID: NR-HV-PTMarket Sector: CommercialMeasure Category: HVACApplicable Building Types: Large Hotel and Small Hotel/MotelFuels Affected: Electricity Decision/Action Type: Replace-on-Burnout (ROB), Early Retirement (ER), and New Construction (NC)Program Delivery Type: PrescriptiveDeemed Savings Type: Deemed Savings CalculationsSavings Methodology: CalculatorMeasure DescriptionThis section presents the deemed savings methodology for the installation of Packaged Terminal Air Conditioners (PTAC), Packaged Terminal Heat Pumps (PTHP), and Room AC (RAC) systems. This document covers assumptions made for baseline equipment efficiencies for early retirement (ER) of PTAC/PTHPs, replace-on-burnout (ROB), and new construction (NC) situations based current and previous on efficiency standards. For ER, the actual age of the baseline system should be determined from the equipment nameplate or other physical documentation whenever possible. In the event that the actual age of the unit is unknown, default values are provided. Applicable efficient measure types include:Packaged Terminal Air Conditioners and Heat Pumps. Both Standard and Non-Standard size equipment types are covered. Standard Size refers to equipment with wall sleeve dimensions having an external wall opening greater than, equal to 16 inches high or greater than, or equal to 42 inches wide and a cross sectional area greater than 670 in2. Non-Standard Size refers to equipment with existing wall sleeve dimensions having an external wall opening of less than 16 inches high or less than 42 inches wide and a cross sectional area less than 670 in2.Room Air Conditioners. Includes all equipment configurations covered by the federal appliance standards, including with or without reverse cycle, louvered or non-louvered sides, casement-only, and casement-slide.Eligibility CriteriaFor a measure to be eligible for this deemed savings approach the following conditions will be met:The existing and proposed cooling equipment are electric.The climate zone is determined from the county-to-climate-zone mapping table. For PTAC/PTHP and RAC equipment types, the eligible building types are “Large Hotel” and “Small Hotel/Motel. Building type descriptions and examples are provided in REF _Ref428187133 \h \* MERGEFORMAT Table 216 and REF _Ref433116522 Table 217.For early retirement PTAC/PTHP projects: ER projects involve the replacement of a working system that is at least five years old before natural burnout. Additionally, the ER approach cannot be used for projects involving a renovation where a major structural change or internal space remodel has occurred. An ROB approach should be used for these scenariosIn the event that one of these conditions are not met, the deemed savings approach cannot be used, and the Simplified M&V Methodology or the Full M&V Methodology must be used.Baseline ConditionEarly Retirement for PTAC/PTHP SystemsAn early retirement scenario is only applicable for Standard Size PTAC/PTHP system types replacing system types with an equivalent cooling capacity or reduced cooling capacity (within 80% of existing capacity).Two baseline condition efficiency values are required for an ER scenario, one for the ER (RUL) period and one for the ROB (EUL-RUL) period. For the ROB period, the baseline efficiency is that same as for an ROB/NC scenario. For the ER period, the baseline efficiency should be estimated according to the capacity, system type (PTAC or PTHP), and age (based on year of manufacture) of the replaced system. When the system age can be determined (from a nameplate, building prints, equipment inventory list, etc.), the baseline efficiency levels provided in REF _Ref410917635 \h Table 239, reflecting ASHRAE Standard 90.1-2001 through 90.1-2007, should be used. When the system age is unknown, assume 17 years.Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 39: ER Baseline Efficiency Levels for Standard Size PTAC/PTHP UnitsEquipmentCoolingCapacity[Btuh]Baseline CoolingEfficiency [EER]Baseline HeatingEfficiency [COP]PTAC<7,00011.0--7,000-15,00012.5-0.213×Cap/1000-->15,0009.3--PTHP<7,00010.83.07,000-15,00012.3-0.213×Cap/10003.2-0.026×Cap/1000>15,0009.12.8Replace-on-Burnout and New Construction REF _Ref381691914 \h Table 240 provides minimum efficiency standards for PTAC/PTHP units and reflects the federal standards for Packaged Terminal Air Conditioners and Heat Pumps effective February 2013 and reflected in 10 CFR 431. Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 40: Minimum Efficiency Levels for PTAC/PTHP ROB and NC UnitsEquipmentCategoryCooling Capacity [Btuh]Minimum CoolingEfficiency [EER]Minimum HeatingEfficiency [COP]PTACStandard Size<7,00011.7--7,000-15,00013.8-0.300×Cap/1000-->15,0009.3--Non-Standard Size<7,0009.4--7,000-15,00010.9-0.213×Cap/1000-->15,0007.7--PTHPStandard Size<7,00011.93.37,000-15,00014.0-0.300×Cap/10003.7-0.052×Cap/1000>15,0009.52.9Non-Standard Size<7,0009.32.77,000-15,00010.8-0.213×Cap/10002.9-0.026×Cap/1000>15,0007.62.5 REF _Ref365286131 \h Table 241 reflects the standards for Room Air Conditioners, specified in 10 CFR 430.32(b).Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 41: Minimum Efficiency Levels for Room Air Conditioners ROB and NC UnitsCategoryCooling Capacity[Btuh]Minimum Cooling Efficiency [EER]Without reverse cycle,with louvered sides< 8,00011.0≥ 8,000 and < 14,00010.9≥ 14,000 and < 20,00010.7≥ 20,000 and < 25,0009.4≥ 25,0009.0Without reverse cycle,without louvered sides< 8,00010.0≥ 8,000 and < 11,0009.6≥ 11,000 and < 14,0009.5≥ 14,000 and < 20,0009.3≥ 20,0009.4With reverse cycle,with louvered sides< 20,0009.8≥ 20,0009.3With reverse cycle,without louvered sides< 14,0009.3≥ 14,0008.7Casement-onlyAll capacities9.5Casement-sliderAll capacities10.4High-Efficiency ConditionThe high-efficiency retrofits must exceed the minimum federal standards found in REF _Ref381691914 \h Table 240 and REF _Ref365286131 \h Table 241.The high-efficiency retrofits must also meet the following criteria:For early retirement PTAC/PTHPs only, the high-efficiency equipment cooling capacity must be equal to or no less than 80% of the existing capacity. Equipment with a cooling capacity larger than the existing equipment must use the replace-on-burnout baseline.Non-Standard Size PTAC/PTHPs cannot be used for New Construction.No additional measures are being installed that directly affect the operation of the cooling equipment (i.e. control sequences).Energy and Demand Savings MethodologySavings Algorithms and Input VariablesPeak Demand [kWSavings]=CapC,preηbaseline,C-CapC,postηinstalled,C×CF×1 kW1,000 WEquation SEQ Equation \* ARABIC 19Total Energy [kWhSavings]=kWhSavings,C+kWhSavings,HEquation SEQ Equation \* ARABIC 20Energy Cooling [kWhSavings,C]=CapC,preηbaseline,C-CapC,postηinstalled,C×EFLHC×1 kW1,000 WEquation SEQ Equation \* ARABIC 21Energy Heating [kWhSavings,H]=CapH,preηbaseline,H-CapH,postηinstalled,H×EFLHH×1 kWh3,412 BtuEquation SEQ Equation \* ARABIC 22Where:CapC/H,pre=Rated equipment cooling/heating capacity of the existing equipment at AHRI standard conditions [BTUH]; 1 ton = 12,000 BtuhCapC/H,post=Rated equipment cooling/heating capacity of the newly installed equipment at AHRI standard conditions [Btuh]; 1 ton = 12,000 Btuhηbaseline,C=Cooling efficiency of existing (ER) or standard (ROB/NC) equipment [EER, Btu/W-h] (Table 2-40 and Table 2-41) ηbaseline,H=Heating efficiency of existing (ER) or standard (ROB/NC) equipment [COP] (Table 2-40)ηinstalled,C=Rated cooling efficiency of the newly installed equipment [EER, Btu/W-h]) - (Must exceed minimum federal standards found in Table 2-40 and Table 2-41ηinstalled,H=Rated heating efficiency of the newly installed equipment [COP] (Must exceed minimum federal standards found in REF _Ref381691914 \h \* MERGEFORMAT Table 240)CF =Summer peak coincidence factor for appropriate climate zone, building type, and equipment types, see Table 2-42 and Table 2-43.EFLHC/H=Cooling/heating equivalent full-load hours for newly installed equipment based on appropriate climate zone, building type, and equipment type [hours], see Table 2-42 and Table 2-43. The first year savings algorithms in the above equations are used for all HVAC projects, across NC, ROB, and ER projects. However, ER projects require a weighted savings calculated over both the ER and ROB periods taking the EUL and RUL into account. The ER savings are applied over the remaining useful life (RUL) period, and the ROB savings are applied over the remaining period (EUL-RUL). The final reported savings for ER projects are not actually a “first-year” savings, but an “average annual savings over the lifetime (EUL) of the measure”. These savings calculations are explained in Appendix D.Claimed Peak Demand SavingsA summer peak period value is used for this measure. Refer to Volume 1, Appendix B: Peak Demand Reduction Documentation for further details on peak demand savings and methodology.Deemed Energy and Demand Savings TablesTable 2 42 and Table 2 43 present the coincident factor (CF) and equivalent full-load hour (EFLH) values for PTAC/PTHPs and RACs. These values are calculated by climate zone, building type, and equipment type. A description of the calculation method can also be found in Docket No. 40885, Attachment B.Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 42:PTAC/PTHP Equipment: CF and EFLH Values by Climate Zone for Hotel – Small and Hotel – Large Building TypesClimate ZonePackaged Terminal UnitAir ConditionerHeat PumpCFEFLHCCFEFLHCEFLHHAmarillo (Climate Zone 1)0.511,3590.511,359361Fort Worth (Climate Zone 2)0.611,8340.611,834208Houston (Climate Zone 3)0.551,9920.551,99243Brownsville (Climate Zone 4)0.492,2230.492,22350El Paso (Climate Zone 5)0.611,8340.611,834208Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 43: RAC Equipment: CF and EFLH ValuesClimate ZoneRoom/Window Air ConditionerCFEFLHCAmarillo (Climate Zone 1)0.511,359Fort Worth (Climate Zone 2)0.611,834Houston (Climate Zone 3)0.551,992Brownsville (Climate Zone 4)0.492,223El Paso (Climate Zone 5)0.611,834Measure Life and Lifetime SavingsEffective Useful Life (EUL)The EUL of PTAC/PTHP units is 15 years as specified in DEER 2014. The EUL of RAC units is 11 years based on current DOE Final Rule standards for residential room air conditioners.Remaining Useful Life (RUL) for PTAC/PTHP SystemsThe RUL of ER replaced systems is provided according to system age in Table 2-44. As previously noted, for ER units of unknown age, a default value of 17 years should be used. Both the RUL and EUL are needed to estimate savings for early retirement projects for two distinct periods: The ER period (RUL) and the ROB period (EUL - RUL). The calculations for early retirement projects are extensive, and as such are provided in Appendix D.Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 44: Remaining Useful Life of ER PTAC/PTHP SystemsAge of Replaced System (Years)RUL(Years)Age of ReplacedSystem (Years)RUL(Years)510.0152.869.1162.578.2172.287.3181.996.5191.7105.7201.5115.0211.3124.4221.1133.8231.0143.3Program Tracking Data & Evaluation RequirementsThe below list of primary inputs and contextual data is recommended to be specified and tracked by the program database to inform the evaluation and apply the savings properly. Equipment Type: PTAC, PTHP, or RACEquipment Configuration Category: Standard/Non-Standard or Room AC Decision/Action Type: ROB, NC, or ERBuilding TypeClimate ZoneBaseline Equipment Rated Cooling and Heating CapacitiesBaseline Number of UnitsBaseline Cooling and Heating Efficiency RatingBaseline Make & ModelFor ER ONLY: Baseline Age and Method of Determination (e.g. nameplate, blueprints, customer reported, not available)Installed Equipment TypeInstalled Equipment Rated CapacityInstalled Number of UnitsInstalled Efficiency RatingInstalled Make & ModelReferences and Efficiency StandardsPetitions and RulingsPUCT Docket 36779 – Provides EUL for HVAC equipment.PUCT Docket 40083– Provides incorporation of Early Retirement savings for existing commercial HVAC SOP designs and updates for baseline equipment efficiency levels for ROB and New Construction projects involving package and split systems. PUCT Docket 40885 – Provides a petition to revise deemed savings values for Commercial HVAC replacement measures. This petition updated demand and energy coefficients for all commercial HVAC systems.Relevant Standards and Reference SourcesANSI/ASHRAE/IES Standard 90.1-2001 through ASHRAE 90.1-2007. Energy Standard for Buildings Except Low-Rise Residential Buildings. Table 6.8.1D.ANSI/ASHRAE/IES Standard 90.1-2010. Energy Standard for Buildings Except Low-Rise Residential Buildings. Table 6.8.1D. Code of Federal Regulations. Title 10. Part 431 – Energy Efficiency Program for Certain Commercial and Industrial Equipment. of Federal Regulations. Title 10. Part 430 – Energy Efficiency Program for Certain Commercial and Industrial Equipment. Revision HistoryTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 45: Nonresidential HVAC PTAC-PTHP/Room AC HistoryTRM VersionDateDescription of Changev1.011/25/2013TRM V1.0 originv2.004/18/2014Updated EUL value for DX units, based on PUCT Docket No. 36779. Updated the minimum baseline efficiencies for Standard PTAC and PTHP based on new federal standards, 10 CFR 431.97, and updated the minimum efficiencies for Room AC units and added specifications for new Casement-only and Casement-slider equipment. Expanded application to “Hotel – Large” business type for PTAC/PTHP equipment, and changed the RAC energy and demand coefficients to reference those for DX systems, rather than those for PTAC/PTHP systems.v2.101/30/2015Corrections to energy and demand coefficients for heat pumps in Climate Zone 3 (Houston).v3.004/10/2015Added energy and demand coefficients for RAC units. Included text to allow for Early Retirement changes. For PTHPs: Added heating efficiencies and split EFLH into cooling and heating components.v3.111/05/2015Added updated building type definitions and descriptions, minor updates to text for clarification and consistency. HVAC Variable Frequency Drive (VFD) on Air Handler Unit (AHU) Supply Fans Measure OverviewTRM Measure ID: NR-HV-VFMarket Sector: CommercialMeasure Category: HVACApplicable Building Types: See REF _Ref366837591 \h \* MERGEFORMAT Table 247 though REF _Ref410917982 \h Table 249Fuels Affected: Electricity Decision/Action Type: Retrofit (RET)Program Delivery Type: PrescriptiveDeemed Savings Type: Deemed Savings ValuesSavings Methodology: Look-up Tables (fan type, motor hp, Climate Zone, Building Type)Measure DescriptionThis measure involves the installation of a VFD on an existing AHU supply fan to replace either outlet damper or inlet guide vane part-load control. The fan is in a variable air volume (VAV) system with terminal VAV boxes. This measure accounts for the interactive air-conditioning demand savings during the utility defined summer peak period. The savings are on a per-control basis and the lookup tables show the total savings for particular eligible scenarios. Eligibility CriteriaSupply fans may not have variable pitch blades. New construction and constant-volume systems are ineligible. Supply fans must be less than or equal to 100 HP.Baseline ConditionThe baseline is a centrifugal supply fan with a single-speed motor, a direct expansion (DX) air-conditioning (AC) unit, and VAV boxes. The motor is a standard efficiency motor based on ASHRAE Standard 90.1-2004 standards which are provided by horsepower. The AC unit has standard cooling efficiency based on ASHRAE 90.1-2004. The part-load fan control is an outlet damper, inlet damper or inlet guide vane. High-Efficiency ConditionThe high efficiency condition is installation of a VFD on an AHU supply fan. The existing damper or inlet guide vane will be removed or set completely open permanently after installation. The VFD will maintain a constant static pressure by adjusting fan speed and delivering the same amount of air as the baseline condition.Energy and Demand Savings MethodologySavings Algorithms and Input VariablesDemand Savings are calculated for each hour over the course of the year:Step 1 – Determine %CFM for the hour, i; %CFMi =1.25 × ti +bEquation SEQ Equation \* ARABIC 23Where:b =100 -(1.25 × tdbd))Equation SEQ Equation \* ARABIC 24Step 2 – Calculate the %power for the applicable baseline and the new VFD technology:Baseline Technologies%poweri,OutletDamper =0.00745 × %CFMi2+0.10983 ×%CFMi +20.41905 Equation SEQ Equation \* ARABIC 25%poweri,InletDamper = 0.00013×%CFMi3-0.01452×%CFMi2+0.71648×%CFMi+50.258330.00013×%CFMi3-0.01452×%CFMi2+0.71648×%CFMi+50.25833Equation SEQ Equation \* ARABIC 26%poweri,InletGuideVane= 0.00009×%CFMi3-0.00128×%CFMi2+0.06808×%CFMi+20Equation SEQ Equation \* ARABIC 27VFD Technology%powerVFD = 0.00004×%CFMi3-0.00766×%CFMi2+0.19567×%CFMi+5.9Equation SEQ Equation \* ARABIC 28Step 3 – Calculate kWfull using the HP from the motor nameplate, LF (75%), and the applicable motor efficiency from ASHRAE 2004, Table 10.8 Minimum Nominal Efficiency for General Purpose Design A and Design B Motors; Use that result and the %power results to determine power consumption at each hour:kWfull=0.746×HP×LFηEquation SEQ Equation \* ARABIC 29kWi=kWfull×%poweriEquation SEQ Equation \* ARABIC 30Step 4 – Calculate the kW savings for each hour within the 510-hr summer peak period, sum the kW savings from the 510 individual hourly calculations, divide by 510 to get the average peak demand impact, and then calculate the total peak demand saved by adding peak demand interactive effects:Hourly Savings Calculations(kWi)Saved=[(kWi)Baseline -kWi)New × scheduleiEquation SEQ Equation \* ARABIC 31Average Peak Demand Saved Calculation, excluding interactive effectskWAVG,Saved= i=1510kWi)Saved ÷ 510Equation SEQ Equation \* ARABIC 32Total Peak Demand Saved Calculation, including interactive effectskWTotalSaved=kWAVG, Saved × (1+ 3.412CoolingSEER)Equation SEQ Equation \* ARABIC 33Energy Savings are calculated in the following manner:Step 1 – Calculate the individual kWh consumption in each hour of the year and sum them; This is done for both the baseline and the new technologies:Annual kWh= i=18760(kWi×schedulei)Equation SEQ Equation \* ARABIC 34Step 2 – Subtract the Annual kWhnew from the Annual kWhbaseline to get the Annual Energy Savings:Annual Energy Savings [kWh]=kWhbaseline-kWhnewEquation SEQ Equation \* ARABIC 35Where:%CFMi=Part-load fan airflow at the ith hour of the yearti=Dry bulb air temperature at ith hour taken from TMY3 hourly weather datatdbd=ASHRAE 0.4% Cooling Dry Bulb Design Temperature for the reference city from 1997 ASHRAE Handbook – Fundamentals, Table 26.1B%poweri=Percentage of full load power at the ith hour calculated by an equation based on the control type (outlet damper, inlet box damper, inlet guide vane-IGV, or VFD) kWfull=Fan motor power demand operating at the fan design 100% CFMkWi=Fan real-time power at the ith hour of a yearHP =Rated horsepower of the motorLF=Load factor – ratio of the operating load to the nameplate rating of the motor – assumed to be 75% at the fan design 100% per DEER 2005 η=Motor efficiency of a standard efficiency Open Drip Proof (ODP) motor operating at 1800 RPM taken from ASHRAE Standard 90.1-20040.746=HP to kW conversion factorschedule=1 when building is occupied, 0.2 when building is unoccupied, see Table 2-46CoolingSEER=Air conditioner cooling efficiency, assumed at 11.2, based on ASHRAE Standard 90.1 – 2004 minimum efficiency of a unitary AC system between 5 and 10 tons510 = Total number of hours during the utility defined summer peak period (Weekdays from 1-7 PM during months of June, July August and September)8760= Total number of hours in a yearDeemed Energy and Demand Savings Tables Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 46: Yearly Motor Operation Hours by Building TypeBuilding TypeWeekday ScheduleWeekend ScheduleAnnual Building Occupied HoursAnnual Motor Operation Hours*Office – Large8am–8pm8am–10am3,3404,424Office – Small8am-6pm8am-10am2,8184,007Hospitals & Healthcare24 hr24 hr8,7608,760Education – K-127am-5pm8am-12pm2,6303,856Education – College & University8am-8pm8am-12pm3,5484,591Retail9am-10pm9am-10pm4,7455,548Restaurants- Fast Food6am-11pm6am-11pm6,2056,716Restaurants – Sit Down11am-11pm11am-11pm4,3805,256* Motor operation hours are building occupied hours plus 20% of unoccupied hoursTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 47: Deemed Energy and Demand Savings Values for Outlet Damper Part-Load Fan Control by Climate RegionHPDallasEl PasoHoustonCorpus ChristiAmarillokWkWhkWkWhkWkWhkWkWhkWkWhHospital & Healthcare10.1051,2400.1261,2780.0971,1670.0901,1200.1171,27320.2072,4360.2482,5100.1912,2920.1762,2000.2292,50030.3013,5490.3613,6560.2783,3390.2563,2050.3343,64250.4975,8470.5956,0230.4585,5020.4225,2800.5506,0017.50.7368,6710.8828,9330.6798,1590.6267,8310.8168,900100.97111,4321.16311,7770.89510,7570.82610,3251.07611,734151.43316,8661.71617,3741.32115,8701.21815,2321.58717,311201.91022,4882.28823,1661.76121,1601.62420,3092.11623,081252.36927,8952.83828,7362.18426,2482.01525,1932.62528,631302.82233,2213.38034,2222.60131,2592.39930,0023.12634,097403.73844,0094.47745,3353.44641,4103.17839,7454.14145,170504.67255,0115.59656,6694.30851,7623.97349,6815.17756,462605.57165,5906.67367,5675.13661,7164.73759,2366.17267,320756.92781,5528.29684,0106.38676,7355.89073,6517.67483,7031009.235108,73611.062112,0148.515102,3147.85398,20110.232111,605Office - Large10.1056010.1266220.0975570.0905300.11761820.2071,1810.2481,2220.1911,0950.1761,0410.2291,21430.3011,7200.3611,7810.2781,5950.2561,5160.3341,76850.4972,8340.5952,9340.4582,6270.4222,4980.5502,9137.50.7364,2030.8824,3510.6793,8970.6263,7050.8164,321100.9715,5421.1635,7360.8955,1380.8264,8851.0765,697151.4338,1761.7168,4631.3217,5791.2187,2071.5878,404201.91010,9012.28811,2841.76110,1061.6249,6092.11611,206252.36913,5232.83813,9972.18412,5362.01511,9202.62513,900302.82216,1043.38016,6692.60114,9292.39914,1963.12616,554403.73821,3344.47722,0823.44619,7773.17818,8054.14121,929504.67226,6675.59627,6034.30824,7213.97323,5075.17727,411605.57131,7966.67332,9115.13629,4754.73728,0276.17232,683756.92739,5338.29640,9206.38636,6485.89034,8487.67440,6371009.23552,71111.06254,5608.51548,8647.85346,46410.23254,182Office - Small10.0885440.1075630.0805010.0734760.09855920.1731,0680.2091,1060.1569840.1449350.1931,09830.2521,5550.3051,6110.2281,4330.2091,3610.2811,59950.4152,5630.5022,6540.3752,3620.3452,2430.4622,6347.50.6163,8000.7453,9370.5563,5020.5123,3270.6863,907100.8125,0110.9825,1900.7344,6180.6754,3860.9045,151151.1987,3921.4487,6571.0826,8120.9966,4701.3347,599201.5989,8561.93110,2091.4439,0831.3288,6271.77910,132251.98212,2262.39612,6641.79011,2671.64710,7022.20612,569302.36014,5602.85315,0822.13213,4181.96112,7452.62714,968403.12719,2883.77919,9792.82417,7762.59816,8833.48119,829503.90924,1104.72424,9743.53022,2203.24821,1044.35124,786604.66028,7465.63329,7774.20826,4933.87225,1635.18829,553755.79435,7427.00337,0235.23332,9404.81431,2866.45036,7451007.72647,6569.33849,3646.97743,9206.41941,7158.60048,993Education - K-1210.0365450.0445610.0305010.0304770.04155920.0701,0700.0861,1010.0599840.0589380.0811,09730.1031,5590.1251,6040.0861,4330.0841,3660.1181,59850.1692,5690.2062,6420.1412,3600.1392,2510.1942,6337.50.2513,8090.3063,9190.2093,5010.2063,3380.2873,905100.3305,0220.4035,1670.2764,6150.2724,4010.3795,148150.4887,4090.5957,6230.4076,8090.4016,4930.5597,595200.6509,8790.79310,1630.5429,0790.5358,6570.74510,127250.80612,2550.98412,6070.67311,2620.66410,7390.92412,562300.96014,5941.17115,0140.80113,4120.79012,7891.10014,960401.27219,3331.55219,8901.06117,7671.04716,9421.45819,818501.59024,1671.94024,8621.32722,2091.30921,1771.82224,772601.89628,8142.31329,6431.58226,4801.56025,2502.17329,536752.35735,8272.87636,8571.96732,9241.94031,3952.70136,7241003.14347,7693.83449,1432.62243,8982.58741,8603.60248,966Education - College & University10.1056240.1266460.0975770.0905480.11764120.2071,2250.2481,2680.1911,1330.1761,0770.2291,26030.3011,7850.3611,8480.2781,6510.2561,5690.3341,83550.4972,9410.5953,0440.4582,7200.4222,5850.5503,0237.50.7364,3620.8824,5150.6794,0340.6263,8340.8164,483100.9715,7501.1635,9530.8955,3180.8265,0551.0765,911151.4338,4831.7168,7821.3217,8451.2187,4581.5878,720201.91011,3112.28811,7091.76110,4611.6249,9442.11611,626252.36914,0312.83814,5252.18412,9762.01512,3352.62514,422302.82216,7103.38017,2982.60115,4532.39914,6903.12617,175403.73822,1364.47722,9153.44620,4713.17819,4614.14122,753504.67227,6705.59628,6434.30825,5893.97324,3265.17728,441605.57132,9916.67334,1525.13630,5104.73729,0046.17233,910756.92741,0208.29642,4636.38637,9355.89036,0627.67442,1631009.23554,69311.06256,6178.51550,5807.85348,08310.23256,217Retail10.1057530.1267790.0976990.0906680.11777420.2071,4790.2481,5300.1911,3730.1761,3120.2291,52130.3012,1540.3612,2280.2782,0000.2561,9110.3342,21650.4973,5490.5953,6710.4583,2950.4223,1490.5503,6517.50.7365,2630.8825,4450.6794,8870.6264,6700.8165,414100.9716,9391.1637,1790.8956,4430.8266,1571.0767,138151.43310,2371.71610,5901.3219,5051.2189,0831.58710,531201.91013,6502.28814,1201.76112,6741.62412,1102.11614,042252.36916,9322.83817,5162.18415,7212.01515,0222.62517,418302.82220,1643.38020,8602.60118,7232.39917,8903.12620,743403.73826,7124.47727,6343.44624,8023.17823,7004.14127,479504.67233,3905.59634,5424.30831,0033.97329,6255.17734,349605.57139,8126.67341,1855.13636,9654.73735,3226.17240,955756.92749,5008.29651,2076.38645,9615.89043,9187.67450,9211009.23566,00011.06268,2778.51561,2817.85358,55710.23267,895Restaurant - Fast Food10.1059280.1269580.0978640.0908270.11795420.2071,8220.2481,8820.1911,6980.1761,6240.2291,87430.3012,6540.3612,7420.2782,4730.2562,3650.3342,72950.4974,3730.5954,5170.4584,0740.4223,8960.5504,4977.50.7366,4860.8826,6990.6796,0420.6265,7790.8166,669100.9718,5511.1638,8320.8957,9670.8267,6191.0768,792151.43312,6151.71613,0301.32111,7531.21811,2401.58712,971201.91016,8202.28817,3741.76115,6701.62414,9862.11617,295252.36920,8642.83821,5512.18419,4382.01518,5902.62521,454302.82224,8473.38025,6662.60123,1492.39922,1393.12625,549403.73832,9164.47734,0003.44630,6673.17829,3284.14133,846504.67241,1455.59642,5004.30838,3333.97336,6605.17742,308605.57149,0586.67350,6735.13645,7054.73743,7106.17250,444756.92760,9968.29663,0056.38656,8285.89054,3477.67462,7191009.23581,32811.06284,0078.51575,7717.85372,46310.23283,626Restaurant - Sit down10.1057150.1267390.0978640.0906410.11773520.2071,4040.2481,4510.1911,6980.1761,2590.2291,44430.3012,0450.3612,1140.2782,4730.2561,8340.3342,10450.4973,3700.5953,4830.4584,0740.4223,0220.5503,4667.50.7364,9980.8825,1660.6796,0420.6264,4810.8165,140100.9716,5891.1636,8110.8957,9670.8265,9091.0766,777151.4339,7211.71610,0471.32111,7531.2188,7171.5879,998201.91012,9612.28813,3971.76115,6701.62411,6222.11613,330252.36916,0772.83816,6182.18419,4382.01514,4172.62516,535302.82219,1473.38019,7902.60123,1492.39917,1693.12619,692403.73825,3644.47726,2173.44630,6673.17822,7454.14126,087504.67231,7065.59632,7714.30838,3333.97328,4315.17732,608605.57137,8036.67339,0735.13645,7054.73733,8986.17238,879756.92747,0028.29648,5826.38656,8285.89042,1487.67448,3411009.23562,67011.06264,7768.51575,7717.85356,19710.23264,455Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 48: Deemed Energy and Demand Savings Values for Inlet Damper Part-Load Fan Control by Climate RegionHPDallasEl PasoHoustonCorpus ChristiAmarillokWkWhkWkWhkWkWhkWkWhkWkWhHospital & Healthcare10.1251,9050.1581,9910.1151,7290.1031,6190.1501,99520.2463,7420.3113,9110.2253,3970.2023,1800.2953,91930.3595,4510.4525,6970.3284,9480.2944,6320.4305,70850.5918,9810.7459,3870.5418,1530.4847,6320.7099,4057.50.87613,3191.10613,9220.80312,0920.71911,3181.05113,948101.15517,5611.45818,3551.05815,9420.94714,9231.38618,390151.70425,9072.15027,0781.56123,5191.39822,0152.04527,130202.27234,5422.86736,1042.08131,3581.86329,3532.72736,174252.81942,8483.55744,7862.58238,8992.31136,4113.38244,872303.35751,0294.23653,3363.07546,3252.75343,3624.02853,438404.44767,5995.61170,6564.07361,3683.64757,4445.33670,791505.55884,4997.01488,3205.09176,7104.55871,8056.67088,489606.627100,7498.363105,3046.07091,4615.43585,6137.953105,506758.240125,26710.398130,9317.548113,7196.758106,4489.888131,18210010.987167,02213.864174,57510.063151,6269.010141,93013.184174,909Office - Large10.1259090.1589530.1158090.1037500.15095320.2461,7860.3111,8710.2251,5900.2021,4740.2951,87230.3592,6020.4522,7250.3282,3160.2942,1470.4302,72750.5914,2860.7454,4900.5413,8160.4843,5370.7094,4927.50.8766,3571.1066,6590.8035,6590.7195,2451.0516,662101.1558,3811.4588,7801.0587,4610.9476,9151.3868,784151.70412,3652.15012,9531.56111,0061.39810,2022.04512,959202.27216,4862.86717,2712.08114,6751.86313,6032.72717,278252.81920,4513.55721,4242.58218,2042.31116,8743.38221,433303.35724,3554.23625,5143.07521,6792.75320,0954.02825,525404.44732,2645.61133,7994.07328,7193.64726,6215.33633,813505.55840,3307.01442,2485.09135,8994.55833,2766.67042,267606.62748,0858.36350,3736.07042,8035.43539,6757.95350,395758.24059,78710.39862,6327.54853,2196.75849,3309.88862,65910010.98779,71613.86483,50910.06370,9599.01065,77313.18483,545Office - Small10.1048220.1328620.0947270.0846730.12686220.2041,6150.2601,6930.1841,4270.1641,3220.2471,69330.2982,3520.3782,4670.2682,0790.2391,9250.3602,46650.4913,8760.6234,0640.4413,4260.3943,1720.5944,0637.50.7285,7480.9256,0270.6545,0800.5844,7040.8806,026100.9607,5781.2197,9460.8636,6980.7706,2011.1617,945151.41611,1801.79811,7231.2739,8821.1369,1491.71211,722201.88814,9062.39815,6311.69713,1761.51512,1982.28315,629252.34118,4912.97419,3892.10516,3441.87915,1322.83219,387302.78822,0213.54223,0912.50719,4642.23818,0213.37323,088403.69429,1724.69330,5893.32225,7852.96423,8724.46830,585504.61736,4645.86638,2364.15232,2313.70529,8405.58538,232605.50543,4776.99445,5904.95138,4294.41835,5796.65945,584756.84554,0578.69656,6846.15547,7815.49344,2378.28056,6771009.12772,07611.59475,5798.20763,7087.32458,98311.04075,569Education - K-1210.0438340.0558680.0357340.0346810.05487120.0841,6380.1091,7060.0691,4410.0661,3380.1071,71130.1222,3860.1582,4850.1002,0990.0961,9490.1552,49250.2013,9310.2614,0940.1653,4580.1593,2120.2564,1067.50.2985,8290.3876,0710.2445,1280.2354,7630.3806,090100.3937,6860.5108,0050.3226,7610.3106,2800.5018,029150.57911,3390.75211,8090.4759,9750.4579,2650.73911,845200.77215,1181.00315,7460.63413,3000.61012,3540.98515,793250.95818,7541.24419,5320.78616,4980.75615,3241.22219,591301.14122,3341.48223,2610.93719,6480.90118,2501.45523,331401.51229,5861.96330,8141.24126,0281.19324,1761.92730,907501.89036,9832.45438,5181.55132,5351.49130,2202.40938,634602.25344,0952.92645,9251.84938,7921.77836,0312.87346,064752.80154,8263.63857,1022.29948,2322.21144,8003.57257,2741003.73573,1014.85076,1363.06564,3092.94859,7334.76276,365Education - College & University10.1259430.1589880.1158370.1037760.15098920.2461,8530.3111,9410.2251,6440.2021,5240.2951,94230.3592,6990.4522,8270.3282,3950.2942,2200.4302,82950.5914,4470.7454,6580.5413,9470.4843,6570.7094,6617.50.8766,5951.1066,9080.8035,8530.7195,4241.0516,913101.1558,6951.4589,1071.0587,7170.9477,1511.3869,114151.70412,8282.15013,4361.56111,3851.39810,5502.04513,445202.27217,1032.86717,9152.08115,1801.86314,0662.72717,927252.81921,2163.55722,2222.58218,8302.31117,4493.38222,238303.35725,2664.23626,4653.07522,4242.75320,7804.02826,483404.44733,4715.61135,0594.07329,7063.64727,5285.33635,083505.55841,8397.01443,8235.09137,1334.55834,4106.67043,854606.62749,8858.36352,2516.07044,2745.43541,0277.95352,287758.24062,02510.39864,9677.54855,0486.75851,0119.88865,01110010.98782,70013.86486,62210.06373,3979.01068,01513.18486,682Retail10.1251,1370.1581,1900.1151,0160.1039470.1501,19420.2462,2340.3112,3370.2251,9960.2021,8590.2952,34530.3593,2540.4523,4040.3282,9070.2942,7080.4303,41650.5915,3620.7455,6090.5414,7900.4844,4620.7095,6287.50.8767,9521.1068,3180.8037,1040.7196,6181.0518,347101.15510,4841.45810,9671.0589,3660.9478,7261.38611,005151.70415,4672.15016,1791.56113,8171.39812,8732.04516,235202.27220,6232.86721,5722.08118,4231.86317,1632.72721,647252.81925,5823.55726,7592.58222,8532.31121,2913.38226,852303.35730,4664.23631,8683.07527,2162.75325,3554.02831,978404.44740,3595.61142,2164.07336,0533.64733,5895.33642,362505.55850,4497.01452,7705.09145,0674.55841,9866.67052,953606.62760,1508.36362,9186.07053,7335.43550,0607.95363,136758.24074,78910.39878,2307.54866,8106.75862,2439.88878,50010010.98799,71813.864104,30610.06389,0799.01082,99013.184104,667Restaurant - Fast Food10.1251,4100.1581,4750.1151,2650.1031,1790.1501,48020.2462,7710.3112,8970.2252,4840.2022,3160.2952,90730.3594,0360.4524,2200.3283,6190.2943,3740.4304,23450.5916,6490.7456,9540.5415,9620.4845,5580.7096,9777.50.8769,8611.10610,3130.8038,8420.7198,2431.05110,347101.15513,0021.45813,5971.05811,6580.94710,8681.38613,642151.70419,1812.15020,0591.56117,1981.39816,0342.04520,125202.27225,5752.86726,7452.08122,9311.86321,3782.72726,834252.81931,7243.55733,1762.58228,4452.31126,5193.38233,286303.35737,7814.23639,5103.07533,8762.75331,5824.02839,641404.44750,0495.61152,3404.07344,8763.64741,8375.33652,513505.55862,5627.01465,4255.09156,0954.55852,2976.67065,641606.62774,5938.36378,0076.07066,8835.43562,3547.95378,265758.24092,74510.39896,9907.54883,1596.75877,5289.88897,31110010.987123,66013.864129,32110.063110,8799.010103,37113.184129,748Restaurant - Sit Down10.1251,0820.1581,1310.1151,2650.1039120.1501,13520.2462,1240.3112,2210.2252,4840.2021,7920.2952,23030.3593,0950.4523,2350.3283,6190.2942,6100.4303,24850.5915,0990.7455,3310.5415,9620.4844,3000.7095,3527.50.8767,5611.1067,9060.8038,8420.7196,3771.0517,938101.1559,9691.45810,4231.05811,6580.9478,4081.38610,465151.70414,7072.15015,3771.56117,1981.39812,4042.04515,439202.27219,6102.86720,5032.08122,9311.86316,5392.72720,586252.81924,3253.55725,4332.58228,4452.31120,5163.38225,536303.35728,9694.23630,2893.07533,8762.75324,4324.02830,411404.44738,3775.61140,1244.07344,8763.64732,3665.33640,286505.55847,9717.01450,1565.09156,0954.55840,4586.67050,357606.62757,1968.36359,8016.07066,8835.43548,2387.95360,041758.24071,11510.39874,3547.54883,1596.75859,9789.88874,65310010.98794,82013.86499,13810.063110,8799.01079,97013.18499,537Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 49: Deemed Energy and Demand Savings Values for Inlet Guide Vane Part-Load Fan Control by Climate RegionHPDallasEl PasoHoustonCorpus ChristiAmarillokWkWhkWkWhkWkWhkWkWhkWkWhHospital & Healthcare10.0213970.0274200.0193500.0173200.02742320.0417800.0538250.0386870.0336290.05383230.0591,1370.0781,2020.0551,0010.0489160.0781,21150.0981,8730.1281,9810.0901,6490.0791,5090.1281,9967.50.1452,7780.1902,9380.1342,4450.1172,2380.1902,960100.1913,6630.2513,8730.1773,2240.1552,9500.2513,902150.2825,4030.3705,7140.2614,7560.2284,3520.3705,757200.3767,2040.4947,6190.3486,3420.3045,8030.4937,676250.4668,9370.6129,4510.4317,8670.3777,1990.6129,521300.55510,6430.72911,2550.5139,3680.4498,5730.72911,339400.73614,0990.96614,9100.68012,4100.59511,3570.96615,021500.92017,6241.20718,6370.85015,5130.74414,1961.20718,777601.09721,0131.44022,2211.01418,4960.88716,9261.43922,387751.36326,1271.79027,6291.26022,9981.10221,0451.78927,8361001.81834,8362.38736,8391.68030,6641.47028,0602.38637,114Office - Large10.0211870.0271980.0191610.0171460.02720020.0413680.0533890.0383160.0332870.05339230.0595360.0785670.0554610.0484180.07857150.0988830.1289340.0907590.0796880.1289417.50.1451,3100.1901,3850.1341,1260.1171,0200.1901,396100.1911,7270.2511,8260.1771,4850.1551,3450.2511,841150.2822,5480.3702,6940.2612,1900.2281,9850.3702,716200.3763,3980.4943,5920.3482,9200.3042,6460.4933,621250.4664,2150.6124,4550.4313,6230.3773,2830.6124,492300.5555,0190.7295,3060.5134,3140.4493,9090.7295,349400.7366,6490.9667,0290.6805,7150.5955,1790.9667,086500.9208,3111.2078,7860.8507,1440.7446,4741.2078,858601.0979,9101.44010,4751.0148,5180.8877,7191.43910,561751.36312,3211.79013,0241.26010,5911.1029,5971.78913,1311001.81816,4282.38717,3661.68014,1211.47012,7962.38617,508Office - Small10.0171690.0231790.0161450.0141310.02318120.0343330.0443520.0312840.0272570.04535530.0494850.0655130.0454140.0393740.06551750.0817990.1068450.0746810.0656170.1078527.50.1201,1850.1581,2540.1101,0110.0969150.1591,263100.1581,5620.2081,6530.1451,3320.1271,2060.2101,666150.2342,3040.3072,4390.2141,9660.1871,7790.3102,458200.3123,0730.4093,2520.2852,6210.2492,3720.4133,277250.3863,8110.5084,0340.3543,2510.3092,9430.5134,065300.4604,5390.6054,8040.4223,8720.3683,5050.6114,841400.6106,0130.8016,3630.5595,1290.4884,6430.8096,412500.7627,5161.0017,9540.6986,4110.6095,8031.0118,016600.9098,9621.1949,4840.8337,6440.7276,9191.2069,557751.13011,1431.48411,7921.0359,5040.9038,6031.49911,8831001.50714,8571.97915,7231.38012,6721.20511,4711.99915,844Education - K-1210.0071730.0101820.0061470.0051330.01018420.0143400.0193580.0112890.0112620.02036130.0204960.0275210.0174200.0153810.02952750.0338170.0458590.0276930.0266280.0478687.50.0491,2120.0671,2740.0411,0270.0389320.0701,287100.0641,5970.0881,6800.0541,3540.0501,2280.0921,696150.0952,3570.1302,4790.0791,9980.0741,8120.1362,502200.1263,1420.1733,3050.1062,6640.0982,4160.1823,337250.1573,8980.2154,0990.1313,3040.1222,9970.2264,139300.1874,6420.2564,8820.1563,9350.1453,5700.2694,929400.2476,1490.3396,4670.2075,2130.1924,7290.3566,530500.3097,6870.4238,0840.2586,5160.2405,9110.4458,162600.3699,1650.5059,6390.3087,7690.2867,0480.5309,732750.45811,3950.62811,9840.3839,6600.3568,7630.65912,1001000.61115,1930.83715,9790.51112,8800.47411,6840.87916,133Education - College & University10.0211940.0272050.0191670.0171510.02720720.0413820.0534030.0383270.0332960.05340730.0595560.0785880.0554760.0484320.07859350.0989160.1289680.0907850.0797110.1289777.50.1451,3590.1901,4360.1341,1640.1171,0550.1901,449100.1911,7920.2511,8930.1771,5350.1551,3900.2511,910150.2822,6430.3702,7930.2612,2640.2282,0510.3702,818200.3763,5240.4943,7240.3483,0190.3042,7350.4933,757250.4664,3720.6124,6190.4313,7450.3773,3930.6124,660300.5555,2060.7295,5010.5134,4600.4494,0400.7295,550400.7366,8970.9667,2880.6805,9080.5955,3520.9667,352500.9208,6211.2079,1100.8507,3850.7446,6901.2079,190601.09710,2791.44010,8611.0148,8060.8877,9771.43910,957751.36312,7801.79013,5051.26010,9491.1029,9181.78913,6241001.81817,0402.38718,0061.68014,5981.47013,2252.38618,165Retail10.0212340.0272470.0192020.0171840.02725020.0414600.0534850.0383980.0333620.05349130.0596700.0787070.0555790.0485270.07871650.0981,1040.1281,1640.0909540.0798690.1281,1797.50.1451,6370.1901,7270.1341,4150.1171,2890.1901,749100.1912,1590.2512,2770.1771,8660.1551,6990.2512,306150.2823,1850.3703,3590.2612,7520.2282,5060.3703,402200.3764,2470.4944,4780.3483,6700.3043,3420.4934,536250.4665,2680.6125,5550.4314,5520.3774,1450.6125,626300.5556,2730.7296,6160.5135,4220.4494,9370.7296,700400.7368,3110.9668,7640.6807,1820.5956,5400.9668,876500.92010,3881.20710,9550.8508,9780.7448,1751.20711,095601.09712,3861.44013,0621.01410,7040.8879,7471.43913,229751.36315,4001.79016,2411.26013,3091.10212,1181.78916,4491001.81820,5332.38721,6551.68017,7451.47016,1582.38621,931Restaurant - Fast Food10.0212920.0273080.0192530.0172310.02731220.0415730.0536050.0384970.0334530.05361230.0598350.0788820.0557250.0486600.07889250.0981,3760.1281,4530.0901,1940.0791,0880.1281,4697.50.1452,0400.1902,1540.1341,7700.1171,6130.1902,178100.1912,6900.2512,8400.1772,3340.1552,1260.2512,872150.2823,9690.3704,1900.2613,4430.2283,1370.3704,237200.3765,2920.4945,5870.3484,5910.3044,1830.4935,650250.4666,5640.6126,9300.4315,6950.3775,1890.6127,008300.5557,8170.7298,2530.5136,7820.4496,1790.7298,346400.73610,3560.96610,9330.6808,9850.5958,1860.96611,056500.92012,9451.20713,6670.85011,2310.74410,2321.20713,820601.09715,4341.44016,2951.01413,3910.88712,2001.43916,478751.36319,1901.79020,2601.26016,6501.10215,1691.78920,4881001.81825,5872.38727,0141.68022,2001.47020,2252.38627,317Restaurant - Sit down10.0212230.0272350.0192530.0171780.02723820.0414380.0534620.0384970.0333500.05346830.0596380.0786730.0557250.0485100.07868250.0981,0510.1281,1090.0901,1940.0798400.1281,1237.50.1451,5590.1901,6440.1341,7700.1171,2460.1901,666100.1912,0550.2512,1680.1772,3340.1551,6420.2512,196150.2823,0320.3703,1980.2613,4430.2282,4230.3703,240200.3764,0430.4944,2640.3484,5910.3043,2300.4934,320250.4665,0150.6125,2890.4315,6950.3774,0070.6125,359300.5555,9720.7296,2990.5136,7820.4494,7720.7296,382400.7367,9120.9668,3440.6808,9850.5956,3210.9668,454500.9209,8901.20710,4300.85011,2310.7447,9021.20710,568601.09711,7921.44012,4361.01413,3910.8879,4211.43912,600751.36314,6611.79015,4621.26016,6501.10211,7141.78915,6661001.81819,5482.38720,6161.68022,2001.47015,6192.38620,888Claimed Peak Demand SavingsRefer to Volume 1, Appendix B: Peak Demand Reduction Documentation for further details on peak demand savings and methodology.Measure Life and Lifetime SavingsThe estimated useful life (EUL) for this VFD measure is 15 years per both the PUCT-approved Texas EUL filing (Docket No. 36779) and DEER 2014 (EUL ID – HVAC-VSD-fan).Program Tracking Data & Evaluation RequirementsThe below list of primary inputs and contextual data is recommended to be specified and tracked by the program database to inform the evaluation and apply the savings properly. Building TypeClimate ZoneMotor Horsepower Baseline Part-load Control Type (outlet damper, inlet damper, inlet guide vane)References and Efficiency StandardsPetitions and RulingsPUCT Docket 36779 – Provides EUL for VFD equipmentPUCT Docket 40668 – Provides details on deemed savings calculations for VFDsRelevant Standards and Reference SourcesASHRAE Fundamentals 1997: Chapter 26, Table 1B - Cooling and Dehumidification Design Conditions – United StatesASHRAE Standard 90.1-2004: Table 10.8 Minimum Nominal Efficiency for General Purpose Design A and Design B MotorsNational Renewable Energy Laboratory’s (NREL) National Solar Radiation Data Base: 1991- 2005 Update for Typical Meteorological Year 3 (TMY3). Accessed at Public Utility Commission. Database for Energy Efficiency Resources, 2005Bonneville Power Authority Adjustable Speed Drive Calculator – Fan curves utilized from that calculator were derived from "Flow Control", a Westinghouse publication, Bulletin B-851, F/86/Rev-CMS 8121. . Accessed 12/12/2014.Document Revision HistoryTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 50: Nonresidential HVAC-VFD HistoryTRM versionDateDescription of Changev1.011/25/2013TRM v1.0 originv3.004/10/2015Corrected ASHRAE 0.4% Dry Bulb Design Temperature references for three climate zone reference cities: DFW, El Paso, and Houston. Updated Valley climate zone reference city to Corpus Christi to be consistent with TRM guidance. Corrected Motor Load Factor to 75%.Nonresidential: Building Envelope ENERGY STAR? Roofs Measure OverviewTRM Measure ID: NR-BE-CR Market Sector: CommercialMeasure Category: Building EnvelopeApplicable Building Types: Specific building types defined by each utilityFuels Affected: Electricity Decision/Action Type: Retrofit (RET)Program Delivery Type: PrescriptiveDeemed Savings Type: Deemed Savings CalculationSavings Methodology: Calculators, WorksheetsMeasure DescriptionThis section presents the deemed savings methodology for the installation of an ENERGY STAR? certified roof. The installation of an ENERGY STAR? roof decreases the roofing heat transfer coefficient and reduces the solar heat transmitted to the building space. During months when cooling is required in the building, this measure decreases the cooling energy use.Eligibility CriteriaThe simplified M&V guidelines are applicable for roofs with a slope of 2.5 or less only. Reflectivity must be at least 65% at three years, have at least a 10-year life, and be listed on the ENERGY STAR? list of qualified products.Baseline Condition A baseline is not specified in the program manuals for any of the utilities. The only utility to specify baseline requirements is EPE, in PUCT Docket No. 41070, which states that the baseline is considered to be a black ethylene propylene diene monomer (EPDM) roofing membrane with a solar reflectance of 6.2%. The building is assumed to have a ceiling with a total R-value (including construction materials) of 18. Electric AC was assumed to have an EER of 8.5, and electric heating, a COP of 1.High-Efficiency ConditionA high efficiency condition is not specified in the program manuals for any of the utilities. The only utility to specify high efficiency requirements is EPE, in PUCT Docket No. 41070 in which it was determined that to qualify for a cool roof at least 75% of the roof surface over conditioned space must be replaced by a material with a solar reflectance of at least 70%. The roof must also receive significant direct sunlight.Energy and Demand Savings MethodologySavings Algorithms and Input VariablesAcross the Texas utilities, there are several ways of calculating energy and demand savings for ENERGY STAR? roofs. Oncor and AEP use the algorithms below in their calculators to calculate their savings. Demand Savings kW=ACOP×1Rexist+1hin, air-Rprop+1hin, airto-ε?Rho-tin+1-ρexistEtPRexist+1hin, airho-1-ρpropEtPRprop+1hin, airhoEquation SEQ Equation \* ARABIC 36Energy Savings kWh=ACOP×1Rexist+1hin, air-Rprop+1hin, airi=1nto,i-n×ε?Rho-n×tin+1-ρexisti=1nEt, iRexist+1hin, airho-1-ρpropi=1nEt, iRprop+1hin, airhoEquation SEQ Equation \* ARABIC 37Where:A=Roof Area [ft2]ho=coefficient of heat transfer by long-wave radiation and convection at outer surface [Btu/hr-?F-ft2], assumed to be 3.COP=Coefficient of PerformanceR=The total thermal resistance value (R-value) of the roof [hr-?F-ft2/Btu]. See REF _Ref366598292 \h \* MERGEFORMAT Table 251.hin,air=The heat transfer coefficient for indoor air [Btu/hr-?F-ft2], assumed to be 1.68.ρ=Reflectance of surface (after three years) for solar radiationEt,P=Total peak solar radiation incident on surface during a cooling period [Btu/hr-ft2]. See Table 2-52.ΣEt,I=The sum of the hourly solar radiation incident during a cooling period [Btu/hr-ft2]. See Table 2-52.n=The number of total cooling hours when solar radiation exist = 636ε=Emittance of surface for solar radiationΔR=Difference between long-wave radiation incident on surface from sky and radiation emitted by blackbody at outdoor air temperature [Btu/hr-ft2], assumed to be 20.to=Outdoor air temperaturetin=Indoor air temperature, assumed to be 75?FCenterPoint Electric and Xcel Energy also use calculator-based method; however, their method is slightly different, and uses the following algorithms. These algorithms are pulled from their calculator. Note that each utility should use only its approved calculations for this measure. ?QBtuhr= ?U×A×?T= (1R1-1R2)×A×?TEquation SEQ Equation \* ARABIC 38?T=Tsol-air-Tspace=Toa+∝ho ×IDT24-ε×?Rho-TspaceEquation SEQ Equation \* ARABIC 39?kW= ?Q×1.0×112,000Equation SEQ Equation \* ARABIC 40?kWh= ?kW ×EFLHEquation SEQ Equation \* ARABIC 41Where:A=Roof Area [ft2]ΔU=Difference in pre- and post-retrofit overall coefficient of heat transferΔQ=Heat transfer [Btu/hr]ΔT=Temperature difference [?F]R1=Thermal resistance pre-retrofitR2=Thermal resistance post-retrofitα=Absorptance of surface for solar radiationho=Coefficient of heat transfer by long-wave radiation and convection at outer surface NOTEREF _Ref366743594 \f \h 77IDT=Hourly solar radiation incident on surface NOTEREF _Ref366743594 \f \h 77, deemed at 1,122ε=Hemispherical emittance of the surface, assumed to be 1.0Toa=Outdoor air temperature [?F]Tsol=Sol-air temperature [?F]Tspace=Indoor temperature [?F]ΔR=Difference between long-wave radiation incident on surface from sky and surroundings and radiation emitted by blackbody at outdoor air temperature1.0=Assumed cooling efficiency [kW/ton]1/12,000=Conversion from Btu to Tons/hrEFLH=Effective full load hours [hours], assumed to be 2,000 hoursFinally, El Paso Electric uses the methodology found in Docket No. 41070. This docket outlines a deemed method for calculating savings. Their algorithm and deemed input variables used to calculate savings are shown below:Cooling Energy SavingskWhft2=1EER×ρnew-ρold×Et,coolingRins+Rcons+Rairfilm×ho×0.001Equation SEQ Equation \* ARABIC 42Heating Energy PenaltykWhft2=1COP×ρold-ρnew×Et,heatingRins+Rcons+Rairfilm×ho×13412Equation SEQ Equation \* ARABIC 43Total Energy Savings=Cooling Energy Savings-Heating Energy PenaltyEquation SEQ Equation \* ARABIC 44Peak Demand Savings kWft2=1EER×ρnew-ρold×ltRins+Rcons+Rairfilm×ho×0.001Equation SEQ Equation \* ARABIC 45Where:EER=Energy efficiency ratio of the buildings air conditioner [Btu/W-hr]Et,cooling=Total solar radiation incident on the surface throughout the time when a building is in cooling mode [Btu/ft2]ρnew=Reflectance (at three years) of the new roof membraneρold=Reflectance of the original roof membraneRins=R-value of the roof insulation [h-ft2-?F/Btu]Rcons=R-value of the roof construction [h-ft2-?F/Btu]Rairfilm=R-value of the air film [h-ft2-?F/Btu]ho=Coefficient of heat transfer by long-wave radiation and convection at outer surface0.001=Conversion kWh per Watt-Hr COP=Coefficient of performance of building’s electric heating systemEt,heating=Total solar radiation incident on the surface throughout the time when a building is in heating mode [Btu/ft2]3412=Conversion Btu per kWhIt=Total solar radiation incident on the surface during the summer peak hour [Btu/ft2-hr]Stipulated R-values and solar data used for the calculations are presented next:Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 51: R-Values of Different Material [hr-ft2-?F/Btu]Roofing MaterialR-ValuePlenum R-ValueAsbestos – cement shingles0.21Yes0.61Asphalt Roll Roofing0.15No0.00Asphalt Shingles0.44MembraneR-ValueBuilt-up Roofing (0.375”)0.33Permeable Felt0.06Slate (0.5”)0.05Seal, 2 layers of mopped 15 lb felt0.12Wood Shingles0.94Sel, plastic film0.00Construction MaterialR-ValueInsulation MaterialR-Value (per inch)Concrete 4”0.08None0.00Concrete 8”1.11Cellulose3.70Concrete 12”1.23Fiberglass3.20Brick 4”0.80Polystyrene4.00Wood Frame0.10Polyurethane6.25Metal Frame0.00Polyisocyanurate7.00Ceiling MaterialR-ValueAcoustic Tile0.06Drywall Finish0.45Plaster Finish0.45Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 52: TMY2 Solar DataClimate ZonePeak Total Solar Radiation Incident [Btu/hr-ft2]Total Solar Radiation Incident [Btu/ft2]Amarillo, TX329 124,314 Brownsville, TX326 113,022 Dallas/Fort Worth, TX335 117,686 Houston, TX325 101,734 Austin, TX342116,511Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 53: Deemed Values used in Algorithm for El Paso ElectricVariableAssumed ValueEER8.5COP1.0ρnew0.7ρold0.062Et,cooling469,199Et,heating185,347 NOTEREF _Ref366747042 \f \h \* MERGEFORMAT 86It217Rins16Rcons2Rairfilm0.92ho3Deemed Energy and Demand Savings TablesThe resulting deemed energy and demand savings values are presented in Table 254. Note that cool roofs have a negative heating impact, as reflected in the lower deemed savings value for Electric Resistance Heat versus Gas Heat.Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 54: Cool Roof Deemed Savings for El Paso ElectricRegionElectric A/C and Gas Heat[kWh/ft2]Electric A/C and Electric Resistance Heat[kWh/ft2]Summer Peak (Electric A/C)[kW/ft2]Winter Peak (Electric Resistance Heat)[kW/ft2]West0.62050.00990.00030.00Claimed Peak Demand Savings Refer to Volume 1, Appendix B: Peak Demand Reduction Documentation for further details on peak demand savings and methodology.Measure Life and Lifetime SavingsEstimated Useful Life is 15 years for cool roofs, as discussed in PUCT Docket Nos. 36779 and 41070. The DEER 2014 update also provides a 15-year life for cool roofs (EUL ID – BldgEnv-CoolRoof).Program Tracking Data & Evaluation RequirementsThe following primary inputs and contextual data should be specified and tracked within the program database to inform the evaluation and apply the savings properly. Roofing Square Foot (Conditioned Area)Existing Roofing Amount of InsulationExisting Roofing Amount of SlopeExisting Roofing ReflectanceENERGY STAR? Roofing Reflectance CoefficientENERGY STAR? Roofing Rated LifeENERGY STAR? Roofing Insulation ValueBuilding TypeHVAC Equipment TypeHVAC Equipment Rated EfficiencyReferences and Efficiency StandardsPetitions and RulingsPUCT Docket 41070 – Provides deemed energy and demand savings values for El Paso, TX. PUCT Docket 36779 – Provides EUL for commercial Cool Roof.Relevant Standards and Reference SourcesOncor Technical Resource Manual. 2013.ENERGY STAR? Certified Cool Roof Products. . Accessed 09/12/2013.IECC 2000 Table 802.2(17)2006 ASHRAE FundamentalsEUMMOT Commercial Standard Offer Program. Measurement and Verification Guidelines for Retrofit and New Construction Projects. . Accessed 09/10/2013DEER 2014 EUL updateDocument Revision HistoryTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 55: Nonresidential Cool Roof HistoryTRM VersionDateDescription of Changev1.011/25/2013TRM V1 originv2.004/18/2014Clarified that reflectance is three years basis. Table 2-44 through REF _Ref367756251 \h \* MERGEFORMAT Table 254: Rounded off values, too many insignificant digits. Window Treatments Measure OverviewTRM Measure ID: NR-BE-WFMarket Sector: CommercialMeasure Category: Building EnvelopeApplicable Building Types: All Commercial Building Types Fuels Affected: Electricity Decision/Action Type: Retrofit (RET)Program Delivery Type: PrescriptiveDeemed Savings Type: Deemed Savings CalculationsSavings Methodology: AlgorithmsMeasure DescriptionThis section presents the deemed savings methodology for the installation of window films and solar screens. The installation of window film decreases the window-shading coefficient and reduces the solar heat transmitted to the building space. During months when perimeter cooling is required in the building, this measure decreases cooling energy use. Demand and energy savings result in demand and energy use of cooling equipment. Eligibility CriteriaThis measure is applicable for treatment of single-paned windows in south or west facing orientations (as specified in Table 2-56 that do not have existing solar films or solar screens, are not shaded by exterior awnings, curtains, or overhangs, in buildings that are mechanically cooled (DX or chilled water). Baseline ConditionThe baseline condition is single-pane clear glass, without existing window treatment. Interior and exterior shading is acceptable, but should be considered in the savings calculation. High-Efficiency ConditionThe high-efficiency condition is an eligible window treatment applied to eligible windows. Energy and Demand Savings MethodologyThe demand and energy savings equations in this section originated in calculations by the EUMMOT utilities as presented in the EUMMOT program manual Commercial Standard Offer Program: Measurement and Verification Guidelines for Retrofit and New Construction Projects. The method estimates reduction in solar heat gain/insolation attributable to a given window treatment using shading coefficients for the treated and untreated window and solar heat gain estimates by window orientation according to ASHRAE Fundamentals. The reduction in building energy use attributable to reduction in cooling system energy use is estimated based on the reduced heat removal requirement for a standard efficiency cooling system.Savings Algorithms and Input VariablesDemand Savingso kW=Afilm,o×SHGFo×SCpre, o-SCpost,o3413×COPEquation SEQ Equation \* ARABIC 46Peak Demand Savings kW=DemandSavingo, maxEquation SEQ Equation \* ARABIC 47Energy Savingso kWh= Afilm,o×SHGo×SCpre, o-SCpost,o3413×COPEquation SEQ Equation \* ARABIC 48Energy Savings kWh= Energy SavingsoEquation SEQ Equation \* ARABIC 49Where:Demand Savings =Peak demand savings per window orientationEnergy Savings=Energy savings per window orientationAfilm,o=Area of window film applied to orientation [ft2]SHGFo=Peak solar heat gain factor for orientation of interest [Btu/hr-ft2-year]. See Table 2-56.SHGo=Solar heat gain for orientation of interest [Btu/ ft2-year]. See Table 2-56.SCpre=Shading coefficient for existing glass/interior-shading device. See Table 2-57.SCpost=Shading coefficient for new film/interior-shading device, from manufacturer specsCOP=Cooling equipment COP based on Table 2-58 or actual COP equipment, whichever is greater3413=Conversion factor [Btu/kW]Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 56: Solar Heat Gain FactorsOrientationSolar Heat Gain {SHG) [Btu/ft2-year]Peak Hour Solar Heat Gain (SHGF) [Btu/hr-ft2-year]Zone 1Zone 2Zone 3Zone 4Zone 5South-East158,8442525252534South-South-East134,7942626262638South120,8393333444457South-South-West134,7948787106111102South-West158,844152152164173143West-South-West169,696192192196207163West163,006204204198211158West-North-West139,615185185170183131North-West107,16113913911712689Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 57: Recommended Shading Coefficient (SC) for Different Pre-Existing Shade TypesShading TypeShading CoefficientSourceNone0.95Table 29: Based on ?” clear single-pane glassRoller Shade0.81Table 25: Based on clear glass, dark opacityVenetian Blinds0.74Table 25: Based on clear glass, medium-color blindsLouvered Exterior Shades0.59Table 24: Based on Profile Angle ≤ 10?, Group 4Draperies – Open Weave0.65Table 29: Based on ?” clear single-pane glass, Option DDraperies – Closed Weave0.53Table 29: Based on ?” clear single-pane glass, Option F/GTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 58: Recommended COP for Different HVAC System TypesHVAC TypeCOPSourceAir Conditioners & Heat Pumps3.02Table 6.2.1A: Air Conditioner, ≥19 kW and <40 kWAir-Cooled Chillers3.1Table 6.2.1C: Air Cooled Chiller w/o Condenser <528kWWater-Cooled Chiller5.0Table 6.2.1C: Water-Cooled Centrifugal Chiller <528 kWRoom Air Conditioner2.84Table 6.2.1D: Room A/C w/ Louvered Sides, < 2.3 kWPTAC/PTHP3.66Table 6.2.1D: PTAC (New Construction), 2.3 kWMeasure Life and Lifetime SavingsEstimated Useful Life is 10 years for solar screens, as discussed in PUCT Docket Nos. 36779 and 41070. The DEER 2014 update also provides a EUL of 10 years for this measure (EUL ID – GlazDayIt-WinFilm).Program Tracking Data & Evaluation RequirementsThe following primary inputs and contextual data should be specified and tracked within the program database to inform the evaluation and apply the savings properly. Existing Window Shading CoefficientsExisting Window Interior Shading TypeDescription of Existing Window Presence of Exterior Shading from other Buildings or ObstaclesWindow Film or Solar Screen Shading CoefficientEligible Window Treatment Application Area by Orientation (e.g. S, SSW, SW...)Cooling Equipment TypeCooling Equipment Rated EfficiencyReferences and Efficiency StandardsPetitions and RulingsPUCT Docket 36779 – Provides EUL for reflective window films and sunscreens.Relevant Standards and Reference Sources1997 ASHRAE Fundamentals, Chapter 29, Table 17.ASHRAE Standard 90.1-1999DEER 2014 EUL updateDocument Revision HistoryTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 59: Nonresidential Window Treatment HistoryTRM VersionDateDescription of Changev1.011/25/2013TRM v1.0 originv2.004/18/2014Eliminated east-facing windows from consideration for energy savings.v3.004/10/2015References to EPE-specific deemed savings removed (EPE to adopt methods used by the other utilities). Demand savings: Frontier updated to incorporate new peak demand definition. Provided deemed values for shading coefficients and HVAC efficiencies. SHGF: Used CZ2 savings for CZ1 until better values can be developed.Nonresidential: Food Service Equipment ENERGY STAR? Combination Ovens Measure OverviewTRM Measure ID: NR-FS-COMarket Sector: CommercialMeasure Category: Food Service EquipmentApplicable Business Types: See Eligibility CriteriaFuels Affected: Electricity Decision/Action Type: Retrofit, Replace-on-Burnout or New ConstructionProgram Delivery Type: PrescriptiveDeemed Savings Type: Deemed Savings ValuesSavings Methodology: Look-up TablesMeasure DescriptionThis section presents the deemed savings methodology for the installation of High Efficiency Combination Ovens. Combination ovens are convection ovens that include the added capability to inject steam into the oven cavity and typically offers at least three distinct cooking modes; combination mode to roast or bake with moist heat, convection mode to operate purely as a convection oven providing dry heat, or as a straight pressure-less steamer. The energy and demand savings are determined on a per-oven basis. Eligibility CriteriaEligible units must meet ENERGY STAR? qualifications, with half-size and full-size ovens as defined by ENERGY STAR? and a pan capacity ≥ 5 and ≤ 20. Half-Size Combination Oven: A combination oven capable of accommodating a single 12 x 20 x 2?-inch steam table pan per rack position, loaded from front-to-back or lengthwise.Full-Size Combination Oven: A combination oven capable of accommodating two 12 x 20 x 2?-inch steam table pans per rack position, loaded from front-to-back or lengthwise.Eligible building types include independent restaurants, chain restaurants, elementary and secondary schools, colleges and universities, corporate foodservice operations, healthcare, hospitality, and supermarkets.The following products are excluded from the ENERGY STAR? eligibility criteria:2/3-sized combination ovens, Dual-fuel heat source combination ovens, Gas combination ovens, andElectric combination ovens with a pan capacity < 5 and >20.Baseline Condition Eligible baseline condition for retrofit situations is a half-size or full-size combination oven with a pan capacity ≥ 5 and ≤ 20. High-Efficiency ConditionThe high-efficiency combination ovens must be ENERGY STAR? rated. To do so, they meet the following minimum energy efficiency and idle energy rate requirements, as shown in REF _Ref410916252 Table 260 below.Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 60: Cooking Energy-Efficiency and Idle Energy Rate RequirementsOperationIdle Rate (kW)Cooking Energy Efficiency (%)Steam Mode≤ 0.133P + 0.6400≥ 55Convection Mode≤ 0.080P + 0.4989≥ 76Energy and Demand Savings MethodologySavings Algorithms and Input Variables The calculation for these deemed values are calculated based on the following algorithms:Energy Savings kWh=kWhbase-kWhpostEquation SEQ Equation \* ARABIC 50Peak Demand kW=ΔkWhthrs×tdays×CFEquation SEQ Equation \* ARABIC 51kWhbase=kWhconv+ kWhstEquation SEQ Equation \* ARABIC 52kWhpost=kWhconv+ kWhstEquation SEQ Equation \* ARABIC 53kWhconv and kWhst are each calculated the same for both the base (baseline) and post (ENERGY STAR? ) cases, as shown in REF _Ref410918145 \h \* MERGEFORMAT Equation 54, except they require their respective η (Cooking Efficiencies), EIdle (Idle Energy Rates) and Ccao (Production Capacity) relative to Convection and Steam Modes as seen in REF _Ref410052864 \h \* MERGEFORMAT Table 261.kWh= Wfood× Efood ×50%ηcooking + Eidle × thours- WfoodCcap×50%×tdays1000Equation SEQ Equation \* ARABIC 54Where:kWhbase=Baseline annual energy consumption [kWh]kWhpost=Post annual energy consumption [kWh]tdays=Facility operating days per yearthours=Equipment operating hours per dayCF=Peak coincidence factorWfood=Pounds of food cooked per day [lb/day]Efood=ASTM energy to food [Wh/lb]. (Differs for Convection-Mode and Steam-Mode?. See Table 2-61)EIdle=Idle energy rate [W]. (Differs for Convection-Mode and Steam-Mode, for Baseline and ENERGY STAR?. See Table 2-61)ηcooking=Cooking energy efficiency [%]. (Differs for Convection-Mode and Steam-Mode, for Baseline and ENERGY STAR?. See Table 2-61)CCap=Production capacity per pan [lb/hr]. (Differs for Convection-Mode and Steam-Mode, for Baseline and ENERGY STAR?. See Table 2-61)1000=Wh to kWh conversionTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 61: Deemed Variables for Energy and Demand Savings CalculationsParameterConvection-ModeSteam-ModeBaseline ENERGY STAR? Baseline ENERGY STAR? kWhbaseSee REF _Ref410918179 \h \* MERGEFORMAT Table 262kWhpostWfood200thours12tDays365Npans10CF0.92Efood73.230.8ηcooking72%76%49%55%EidleB1,3201,2995,2601,970CCap79119126177Deemed Energy and Demand Savings Tables The energy and demand savings of High Efficiency Combination Ovens in Table 2-62 are calculated in the Savings Calculator for ENERGY STAR? Qualified Commercial Kitchen Equipment using the default parameters shown above in Table 2-61.Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 62: Deemed Energy and Demand Savings ValueskWhbasekWhpostAnnual Energy Savings [kWh]Peak Demand Savings [kW]18,28211,9146,3681.338Claimed Peak Demand Savings Refer to Volume 1, Appendix B: Peak Demand Reduction Documentation for further details on peak demand savings and methodology. Measure Life and Lifetime Savings The EUL has been defined for this measure as 12 years, consistent with ENERGY STAR? calculator and with the DEER 2014 EUL update (EUL ID – Cook-ElecCombOven).Program Tracking Data & Evaluation RequirementsThe following primary inputs and contextual data should be specified and tracked within the program database to inform the evaluation and apply the savings properly. High Efficiency Manufacturer Make and ModelHigh Efficiency Heavy Load Cooking EfficiencyHigh Efficiency Equipment Idle RateOven SizeVerification of ENERGY STAR? certificationReferences and Efficiency StandardsPetitions and RulingsN/ARelevant Standards and Reference SourcesENERGY STAR? Equipment Standards for Commercial Ovens. 2014 EUL updateDocument Revision HistoryTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 63: Nonresidential High-Efficiency Combination Oven HistoryTRM VersionDateDescription of Changev1.011/25/2013TRM v1.0 originv3.004/10/2015Updated previous method based upon the Food Service Technology Center (FSTC) assumptions to an approach using the newly developed ENERGY STAR? Commercial Ovens Program Requirements Version 2.1, which added combination ovens under this version. Simplified calculation methodology to a single representative building type consistent with the ENERGY STAR? Commercial Kitchen Equipment Savings Calculatorv3.111/05/2015 Updated title to reflect ENERGY STAR? MeasureENERGY STAR? Electric Convection Ovens Measure OverviewTRM Measure ID: NR-FS-CVMarket Sector: CommercialMeasure Category: Food Service EquipmentApplicable Building Types: See Eligibility CriteriaFuels Affected: Electricity Decision/Action Type: Retrofit, Replace-on-Burnout, or New ConstructionProgram Delivery Type: PrescriptiveDeemed Savings Type: Deemed Savings ValuesSavings Methodology: Look-up TablesMeasure DescriptionThis section covers the savings from retrofit (early retirement), replacement, or new installation of a full-size high efficiency electric convection oven. Convection ovens cook their food by forcing hot dry air over the surface of the food product. The rapidly moving hot air strips away the layer of cooler air next to the food and enables the food to absorb the heat energy. The energy and demand savings are deemed, and based off of energy rates of the oven, cooking efficiencies, operating hours, production capacities and building type. An average energy and demand consumption has been calculated based on these default values to create a stipulated savings value. The energy and demand savings are determined on a per-oven basis. Eligibility CriteriaEligible units must meet ENERGY STAR? qualifications, with half-size and full-size electric ovens as defined by ENERGY STAR?. Half-Size Combination Oven: A combination oven capable of accommodating half-size sheet pans measuring 18 x 13 x 1-inch.Full-Size Combination Oven: A combination oven capable of accommodating standard full-size sheet pans measuring 18 x 26 x 1-inch.Eligible building types include independent restaurants, chain restaurants, elementary and secondary schools, colleges and universities, corporate foodservice operations, healthcare, hospitality, and supermarkets.Convection ovens eligible for rebate do not include ovens that have the ability to heat the cooking cavity with saturated or superheated steam.Baseline ConditionEligible baseline condition for retrofit situations is an electric convection oven. High-Efficiency ConditionThe high-efficiency convection ovens must be ENERGY STAR? rated and therefore must meet the following minimum energy efficiency and idle energy rate requirements, as shown in REF _Ref410916404 \* MERGEFORMAT Table 264 below:Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 64: Convection Oven Cooking Energy Efficiency and Idle Energy RequirementsOven CapacityIdle Rate (W)Cooking Energy Efficiency (%)Half-Size≤ 1,000≥ 71Full-Size≤ 1,600≥ 71Energy and Demand Savings MethodologySavings Calculations and Input VariablesThe deemed savings from these ovens are based on the following algorithms:Energy kWh=(Ebase-EHE)×days1000Equation SEQ Equation \* ARABIC 55Peak Demand kW=Ebase-EHETon×CF1000Equation SEQ Equation \* ARABIC 56Ebase=LB×EFoodEFFbase+IDLEbase×Ton-LBPCbaseEquation SEQ Equation \* ARABIC 57EHE=LB×EFoodEFFHE+IDLEHE×Ton-LBPCHEEquation SEQ Equation \* ARABIC 58Where:Ebase=Baseline daily energy consumption (kWh/day)EHE=High efficiency daily energy consumption (kWh/day)LB=Pounds of food cooked per day [lb/day]Days=Number of operating days per year [days/yr]CF =Coincidence FactorEfood=ASTM energy to food of energy absorbed by food product during cooking [Wh/lb]EFFbase=Baseline heavy load cooking energy efficiency [%]EFFHE=High efficiency heavy load cooking energy efficiency [%]IDLEbase=Baseline idle energy rate [kW]IDLEHE=High efficiency idle energy rate [kW]Ton=Operating hours per day [hrs/day]PCbase=Baseline production capacity [lbs/hr]PCHE=High efficiency production capacity [lbs/hr]Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 65: Deemed Variables for Energy and Demand Savings CalculationsVariableFull-SizeHalf-SizeLB NOTEREF _Ref363629101 \f \h \* MERGEFORMAT 106100Days365CF0.92Efood73.2EFFbase NOTEREF _Ref363629101 \f \h \* MERGEFORMAT 10665%68%EFFHE NOTEREF _Ref363629101 \f \h \* MERGEFORMAT 10671%IDLEbase NOTEREF _Ref363629101 \f \h \* MERGEFORMAT 1062,0001,030IDLEHE NOTEREF _Ref363629101 \f \h \* MERGEFORMAT 1061,6001,000Ton12PCbase NOTEREF _Ref363629101 \f \h \* MERGEFORMAT 1069045PCHE NOTEREF _Ref363629101 \f \h \* MERGEFORMAT 1069050Deemed Energy and Demand Savings Tables The energy and demand savings of High Efficiency Convection Ovens are deemed values based on an assumed capacity for the average convection oven installed The following tables provide these deemed values.Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 66: Deemed Energy and Demand Savings Values Oven SizeAnnual Energy Savings [kWh]Peak Demand Savings [kW]Full-Size1,9370.410Half-Size1920.040Claimed Peak Demand SavingsRefer to Volume 1, Appendix B: Peak Demand Reduction Documentation for further details on peak demand savings and methodology. Measure Life and Lifetime SavingsThe EUL has been defined for this measure as 12 years, consistent with ENERGY STAR? research NOTEREF _Ref363629101 \f \h \* MERGEFORMAT 106 and with the DEER 2014 EUL update (EUL ID – Cook-ElecConvOven).Program Tracking Data & Evaluation RequirementsThe following primary inputs and contextual data should be specified and tracked within the program database to inform the evaluation and apply the savings properly. High Efficiency Equipment Manufacturer and Model NumberHigh Efficiency Equipment Heavy Load Cooking EfficiencyHigh Efficiency Equipment Idle RateOven SizeVerification of ENERGY STAR? certificationReferences and Efficiency StandardsPetitions and RulingsN/ARelevant Standards and Reference SourcesENERGY STAR? requirements for Commercial Ovens. . Accessed 1/22/2015.ENERGY STAR? list of Qualified Commercial Ovens. . Accessed 1/22/2015DEER 2014 EUL updateDocument Revision HistoryTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 67: Nonresidential High-Efficiency Convection Oven HistoryTRM VersionDateDescription of Changev1.011/25/2013TRM V1.0 originv3.004/10/2015Updated to newer ENERGY STAR? Commercial Ovens Program Requirements Version 2.1. Simplified calculation methodology to a single representative building type consistent with the ENERGY STAR? Commercial Kitchen Equipment Savings Calculator.v3.111/05/2015 Updated title to reflect En ENERGY STAR? MeasureENERGY STAR? Commercial Dishwashers Measure OverviewTRM Measure ID: NR-FS-DWMarket Sector: CommercialMeasure Category: Food Service EquipmentApplicable Building Types: See Eligibility CriteriaFuels Affected: Electricity Decision/Action Type: Retrofit, Replace-on-Burnout and New ConstructionProgram Delivery Type: PrescriptiveDeemed Savings Type: Deemed Savings ValuesSavings Methodology: Look-up TablesMeasure DescriptionThis document presents the deemed savings methodology for the installation of an ENERGY STAR? commercial dishwasher. Commercial dishwashers that have earned the ENERGY STAR? label are on average 25% more energy-efficient and 25% more water-efficient than standard models. The energy savings associated with ENERGY STAR? commercial dishwashers is primarily due to reduced water use and reduced need to heat water. A commercial kitchen may have external booster water heaters or booster water heaters may be internal to specific equipment. Both primary and booster water heaters may be either gas or electric; therefore, dishwasher programs need to assure the savings calculations used are appropriate for the water heating equipment installed at the participating customer’s facility. The energy and demand savings are determined on a per-dishwasher basis. Eligibility CriteriaThe dishwasher must be ENERGY STAR? certified and fall under one of the following categories, and are described in REF _Ref367189638 \h \* MERGEFORMAT Table 268:Under Counter DishwasherStationary Rack, Single Tank, Door Type DishwasherSingle Tank Conveyor DishwasherMultiple Tank Conveyor DishwasherPot, Pan & UtensilEligible building types include independent restaurants, chain restaurants, elementary and secondary schools, colleges and universities, corporate foodservice operations, healthcare, hospitality, and supermarkets.Dishwashers intended for use in residential or laboratory applications are not eligible for ENERGY STAR? under this product specification. Steam, gas, and other non-electric models also do not qualify.Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 68: Nonresidential ENERGY STAR? Commercial Dishwashers DescriptionsEquipment TypeEquipment DescriptionUnder Counter DishwasherA machine with overall height of 38" or less, in which a rack of dishes remains stationary within the machine while being subjected to sequential wash and rinse sprays, and is designed to be installed under food preparation workspaces. Under counter dishwashers can be either chemical or hot water sanitizing, with an internal booster heater for the latter. For purposes of this specification, only those machines designed for wash cycles of 10 minutes or less can qualify for ENERGY STAR?.Stationary Rack, Single Tank, Door Type DishwasherA machine in which a rack of dishes remains stationary within the machine while subjected to sequential wash and rinse sprays. This definition also applies to machines in which the rack revolves on an axis during the wash and rinse cycles. Subcategories of stationary door type machines include: single and multiple wash tank, double rack, pot, pan and utensil washers, chemical dump type and hooded wash compartment ("hood type"). Stationary rack, single tank, door type models are covered by this specification and can be either chemical or hot water sanitizing, with an internal or external booster heater for the latter.Single Tank Conveyor DishwasherA washing machine that employs a conveyor or similar mechanism to carry dishes through a series of wash and rinse sprays within the machine. Specifically, a single tank conveyor machine has a tank for wash water followed by a final sanitizing rinse and does not have a pumped rinse tank. This type of machine may include a pre-washing section before the washing section. Single tank conveyor dishwashers can either be chemical or hot water sanitizing, with an internal or external booster heater for the latter.Multiple Tank Conveyor DishwasherA conveyor type machine that has one or more tanks for wash water and one or more tanks for pumped rinse water, followed by a final sanitizing rinse. This type of machine may include one more pre-washing sections before the washing section. Multiple tank conveyor dishwashers can be either chemical or hot water sanitizing, with an internal or external hot water booster heater for the latter.Pot, Pan, and UtensilA stationary rack, door type machine designed to clean and sanitize pots, pans, and kitchen utensils.Baseline ConditionBaseline equipment is either a low-temperature or high temperature machine as defined by REF _Ref367189638 \h Table 268, which is not used in a residential or laboratory setting. For low-temperature units, the DHW is assumed to be electrically heated. For high-temperature units, the DHW can either be heated by electric or natural gas methods. For units heated with natural gas, the unit shall have an electric booster heater attached to it.High-Efficiency ConditionQualifying equipment must meet or exceed the ENERGY STAR? V2.0 specification. High temperature equipment sanitizes using hot water, and requires a booster heater. Booster heaters must be electric. Low temperature equipment uses chemical sanitization, and does not require a booster heater. The high efficiency dishwasher is required to have the maximum idle energy rate and water consumption as shown in REF _Ref367279253 \h \* MERGEFORMAT Table 269 below. Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 69: High-Efficiency Requirements for Commercial DishwashersMachine TypeLow Temperature Efficiency RequirementsHigh Temperature Efficiency RequirementsIdle Energy Rate [kW]Water Consumption[gal/rack]Idle Energy Rate [kW]Water Consumption[gal/rack]Under Counter≤ 0.50≤ 1.19≤ 0.50≤ 0.86Stationary Single Tank Door≤ 0.60≤ 1.18≤ 0.70≤ 0.89Single Tank Conveyor≤ 1.50≤ 0.79≤ 1.50≤ 0.70Multiple Tank Conveyor≤ 2.00≤ 0.54≤ 2.25≤ 0.54Pot, Pan and UtensilNANA≤ 1.20≤ 0.58Energy and Demand Savings MethodologySavings Algorithms and Input VariablesThe calculation for these deemed values are calculated based on the following algorithms:Energy Savings kWh = VwaterB-VwaterP×?TDHW+?TboostηDHW×ρwater×Cp×1 W3413 kBtuh +(Idlebase-Idlepost)×tdays×thours-tdays×Nracks×WashTime60Equation SEQ Equation \* ARABIC 59Peak Demand kW=?kWhthrs×tdays×CFEquation SEQ Equation \* ARABIC 60VwaterB=tdays×Nracks×VgalrackBEquation SEQ Equation \* ARABIC 61VwaterP=tdays×Nracks×VgalrackPEquation SEQ Equation \* ARABIC 62Where:VwaterB=Baseline volume of water consumed per year [gallons] VwaterP=Post measure volume of water consumed per year [gallons]tdays=Facility operating days per year [days]thours= Equipment operating hours per day [hours]Nracks=Number of racks washed per daysCF=Peak coincidence factorVgalrackB=Gallons of water used per rack of dishes washed for conventional dishwashers [gallons]VgalrackP=Gallons of water used per rack of dishes washed for ENERGY STAR? dishwashers [gallons]ρwater=Density of water [lbs/gallon]Cp=Specific heat of water [Btu/lb ?F]ΔTDHW=Inlet water temperature increase for building water heater [?F]ηDHW=Building electric water heater and booster heater efficiency [%]ΔTboost=Inlet water temperature for booster water heater [?F]IDLEbase=Baseline Idle Energy Rate [kW]IDLEpost=High Efficiency Idle Energy Rate [kW]WashTime=Wash time per RackTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 70: Deemed Variables for Energy and Demand Savings CalculationsInputsUnder CounterDoor TypeSingle Tank ConveyorMultiple Tank ConveyorPot, Pan and Utensiltdays365thours518CF0.97ρwater8.208 [lbs/gallon]Cp1.0 [Btu/lb ?F]ΔTDHW4Gas Hot Water Heaters: 0?FElectric Hot Water Heaters: 70 ?FηDHW98%ΔTboostGas Booster Heaters: 0 ?FElectric Booster Heaters: 40 ?Fηboost98%Low Temperature UnitsNracks75280400600N/AVgalrackB1.732.101.311.04N/AVgalrackP1.191.180.790.54N/AIDLEbase0.500.601.602.00N/AIDLEpost0.500.601.502.00N/AWashTime2.01.50.30.3N/AHigh Temperature UnitsNracks75280400600280VgalrackB1.091.290.870.970.70VgalrackP0.860.890.700.540.58IDLEbase0.760.871.932.591.20IDLEpost0.500.701.502.251.20WashTime2.01.00.30.23.0Deemed Energy and Demand Savings TablesThe energy and demand savings of High Efficiency Dishwashers are deemed values based on an assumed capacity for the average convection oven installed. The following tables provide these deemed values.Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 71: Deemed Energy and Peak Demand Savings Values by Dishwasher Facility DescriptionUnder CounterDoor TypeSingle Tank ConveyorMulti Tank ConveyorPot, Pan and UtensilkWhkWkWhkWkWhkWkWhkWkWhkWLow Temp. / Electric Hot Water Heater2,5400.37516,1532.38513,6262.01218,8112.777NANAHigh Temp. / Electric Hot Water Heater w/ Electric Booster Heater3,1710.46811,8631.7519,2121.36027,4084.0463,3110.489High Temp. / Gas Hot Water Heater w/ Electric Booster Heater2,0890.3084,8400.7154,9480.73011,2301.6581,2040.178Measure Life and Lifetime SavingsThe EUL has been defined for this measure as 11 years, consistent with ENERGY STAR? research.Program Tracking Data & Evaluation RequirementsThe following primary inputs and contextual data should be specified and tracked within the program database to inform the evaluation and apply the savings properly. Baseline and Post-Retrofit Dishwasher Machine TypePost-Retrofit Make and Model NumberEnergy Source for Primary Water HeaterEnergy Source for Booster Water HeaterReferences and Efficiency StandardsPetitions and RulingsN/ARelevant Standards and Reference SourcesENERGY STAR? requirements for Commercial Dishwashers. . Accessed 01/30//2015.ENERGY STAR? maintains an online list of qualified commercial dishwashers meeting or exceeding ENERGY STAR? requirements at: . Accessed 01/30//2015.ENERGY STAR? v2.0 Calculator (Commercial Kitchen Equipment Savings Calculator). . Accessed 01/27/2015.Document Revision HistoryTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 72: Nonresidential ENERGY STAR? Commercial Dishwashers HistoryTRM VersionDateDescription of Changev1.011/25/2013TRM V1.0 originalv2.004/18/2014Update savings based on newest version of ENERGY STAR? deemed input variables.v2.101/30/2015Corrections to Water Use per Rack in REF _Ref367279253 \h \* MERGEFORMAT Table 269.v3.004/30/2015Aligned calculation approach with ENERGY STAR? Commercial Dishwashers Program Requirements Version 2.0. Simplified methodology to a single representative building type consistent with the ENERGY STAR? Commercial Kitchen Equipment Savings CalculatorENERGY STAR? Hot Food Holding Cabinets Measure OverviewTRM Measure ID: NR-FS-HC Market Sector: CommercialMeasure Category: Food Service EquipmentApplicable Building Types: See Eligibility CriteriaFuels Affected: Electricity Decision/Action Type: Retrofit, Replace-on-Burnout or New Construction Program Delivery Type: PrescriptiveDeemed Savings Type: Deemed Savings ValuesSavings Methodology: Look-up TablesMeasure DescriptionThis section covers the energy and demand savings resulting in the installation of ENERGY STAR? qualified hot food holding cabinets. Models that meet these ENERGY STAR? specifications incorporate better insulation, reducing heat loss, and may also offer additional energy saving devices such as magnetic door gaskets, auto-door closers, or Dutch doors. The insulation of the cabinet offers better temperature uniformity with the cabinet from top to bottom. The energy and demand savings are deemed, and based off of an interior volume range of the holding cabinets and the building type. An average wattage has been calculated for each volume range, half size, three quarter size, and full size. The energy and demand savings are determined on a per-cabinet basis. Eligibility CriteriaHot food holding cabinets must be ENERGY STAR? certified. Eligible building types include independent restaurants, chain restaurants, elementary and secondary schools, colleges and universities, corporate foodservice operations, healthcare, hospitality, and supermarkets.The following products are excluded from the ENERGY STAR? eligibility criteria:Dual function equipment,Heated transparent merchandising cabinets, andDrawer warmersBaseline ConditionEligible baseline equipment is a half-size, three-quarter size, or full-size hot food holding cabinet with a maximum idle energy rate of < 40 watts/ft3 for all equipment sizes.High-Efficiency ConditionEligible equipment are set by ENERGY STAR? and based on the cabinet’s interior volume. Table 273 summarizes Idle Energy Rates per ENERGY STAR? Version 2.0:Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 73: Maximum Idle Energy Rate Requirements ENERGY STAR? QualificationProduct CategoryProduct Interior Volume [ft3]Idle Energy Rate [W]Half Size0 < V < 13≤ 21.5 VThree-Quarter Size13 ≤ V ≤ 28≤ 2.0 V + 254.0Full Size28 ≤ V≤ 3.8 V + 203.5* V = Interior Volume = Interior Height x Interior Width x Interior DepthEnergy and Demand Savings MethodologySavings Calculations and Input VariablesThe calculation for these deemed values are calculated based on the following algorithms:Energy Saving kWh= EIdleB-EIdleP×11000×thrs×tdaysEquation SEQ Equation \* ARABIC 63Peak Demand kW=EIdleB-EIdleP×11000×CFEquation SEQ Equation \* ARABIC 64Where:EIdleB=Baseline idle energy rate [W]. See Table 2-74EIdleP=Idle energy rate after installation [W]. See Table 2-74 V=Product Interior Volume [ft3]thrs=Equipment operating hours per day [hrs]tdays=Facility operating days per year CF=Peak coincidence factorTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 74: Equipment Operating Hours per Day and Operating Days per YearInput VariableHalf-SizeThree-Quarter SizeFull-SizeProduct Interior Volume [ft3]122030Baseline Equipment Idle Energy Rate [EIdleB] 4808001,200Efficient Equipment Idle Energy Rate [EIdleP]258294318Operating Hours per Day [thours]15Facility Operating Days per Year [tdays]365Peak Coincidence Factor [CF]0.92Deemed Energy and Demand Savings Tables The energy and demand savings of Electric Hot Food Holding Cabinets are deemed values. The following tables provide these deemed values.Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 75: Deemed Energy and Demand Savings Values by HFHC SizeSizeAnnual Energy Savings [kWh]Peak Demand Savings [kW]Half1,2150.204Three-Quarter2,7700.466Full4,8320.812Measure Life and Lifetime Savings The EUL has been defined for this measure as 12 years per the PUCT approved Texas EUL filing (Docket No. 36779), and is consistent with ENERGY STAR?’s research and the DEER 2014 EUL update (EUL ID - Cook-Hold Cab)Program Tracking Data & Evaluation RequirementsThe following primary inputs and contextual data should be specified and tracked within the program database to inform the evaluation and apply the savings properly. Baseline Equipment Interior Cabinet VolumeBaseline Equipment Idle Energy RatePost-Retrofit Equipment Interior Cabinet VolumePost-Retrofit Equipment Size (Half, Three-Quarters, Full)References and Efficiency StandardsPetitions and RulingsPUCT Docket 36779 – Provides EUL for Hot Food Holding CabinetsRelevant Standards and Reference SourcesENERGY STAR? requirements for Hot Food Holding Cabinets. . Accessed 01/21/2015 DEER 2014 EUL updateDocument Revision HistoryTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 76: Nonresidential Hot Food Holding Cabinets HistoryTRM VersionDateDescription of Changev1.011/25/2013TRM V1.0 originv3.004/10/2015Updated to newer ENERGY STAR? Hot Food Holding Cabinet Program Requirements Version 2.0. Simplified calculation methodology to a single representative building type consistent with the ENERGY STAR? Commercial Kitchen Equipment Savings Calculator.ENERGY STAR? Electric Fryers Measure OverviewTRM Measure ID: NR-FS-EFMarket Sector: CommercialMeasure Category: Cooking EquipmentApplicable Building Types: See Eligibility CriteriaFuels Affected: Electricity Decision/Action Type: Retrofit, Replace-on-Burnout or New ConstructionProgram Delivery Type: PrescriptiveDeemed Savings Type: Deemed ValuesSavings Methodology: Look-up TablesMeasure DescriptionThis section presents the deemed savings methodology for the installation of an ENERGY STAR? Electric Fryer. Fryers which have earned the ENERGY STAR? rating, offer shorter cook times and higher production rates through advanced burner and heat exchanger designs. Fry pot insulation reduces standby losses resulting in a lower idle energy rate. The energy and demand savings are determined on a per-fryer basis. Eligibility CriteriaEligible units must meet ENERGY STAR? qualifications, either counter-top or floor type designs, with standard-size and large vat fryers as defined by ENERGY STAR?. Standard-Size Electric Fryer: A fryer with a vat that measures ≥ 12 inches and < 18 inches wide, and a shortening capacity ≥ 25 pounds and ≤ 65 pounds.Large Vat Electric Fryer: A fryer with a vat that measures ≥ 18 inches and ≤ 24 inches wide, and a shortening capacity > 50 pounds.Eligible building types include independent restaurants, chain restaurants, elementary and secondary schools, colleges and universities, corporate foodservice operations, healthcare, hospitality, and supermarketsThe following products are excluded from the ENERGY STAR? eligibility criteria:Fryers with vats measuring < 12 inches wide, or > 24 inches wide Baseline ConditionBaseline fryers can be existing or new electric standard-size fryers ≥12 inches < 18 inches wide or large vat fryers > 18 inches and < 24 inches wide that do not meet ENERGY STAR? product criteria. High-Efficiency ConditionNew electric standard fryers ≥12 inches and < 18 inches wide and large vat fryers >18 inches and < 24 inches wide that meet or exceed the ENERGY STAR? requirements listed below in REF _Ref367278678 \h Table 277. Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 77: High-Efficiency Requirements for Electric FryersInputsStandardLarge-VatCooking energy efficiency≥ 80%≥ 80%Idle energy rate [W]≤ 1,000≤ 1,100Energy and Demand Savings MethodologySavings Algorithms and Input VariablesThe calculation for these deemed values are calculated based on the following algorithms:Energy Savings kWh=kWhbase-kWhpostEquation SEQ Equation \* ARABIC 65Peak Demand kW=kWhbase-kWhposttOpHrs×tdays×CFEquation SEQ Equation \* ARABIC 66kWhbase =Wfood ×EfoodηcookingB+ EidleB × tOpHours- Wfood CCapB×tdays1000Equation SEQ Equation \* ARABIC 67kWhpost =Wfood ×EfoodηcookingP+ EidleP × tOpHours- Wfood CCapP×tdays1000Equation SEQ Equation \* ARABIC 68Where:kWhbase=Baseline annual energy consumption [kWh]kWhpost=Post annual energy consumption [kWh]Wfood=Pounds of food cooked per day [lb/day]Efood=ASTM energy to food [Wh/lb]ηcookingP=Post measure cooking energy efficiency [%]ηcookingB=Baseline cooking energy efficiency [%]EIdleP=Post measure idle energy rate [W]EIdleB=Baseline idle energy rate [W]CCapP=Post measure production capacity per pan [lb/hr]CCapB=Baseline production capacity per pan [lb/hr]tDays=Facility operating days per year [days/yr]tOpHrs=Average daily operating hours per day [hr]ηPC=Percent of rated production capacity [%]CF=Peak coincidence factorTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 78: Deemed Variables for Energy and Demand Savings CalculationsParameterStandard-Sized VatLarge-VatBaseline Post Retrofit Baseline Post Retrofit kWhbaseSee Table 2-79kWhpostWfood150tOpHors1612tdays365CF0.92Efood167ηcooking75%80%70%80%Eidle1,0501,0001,3501,110CCap6570100110Deemed Energy and Demand Savings TablesThe energy and demand savings of Electric Fryers are deemed values. REF _Ref410119448 \h Table 279 provides these deemed values.Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 79: Deemed Energy and Demand Savings Values by Fryer TypeFryer TypekWhbasekWhpostAnnual Energy Savings [kWh]Peak Demand Savings [kW]Standard17,43916,4889520.150Large Vat18,23615,7002,5360.533Measure Life and Lifetime SavingsThe EUL has been defined for this measure as 12 years per the PUCT approved Texas EUL filing (Docket No. 36779) and by the DEER 2014 EUL update (EUL ID – Cook-ElecFryer).Program Tracking Data & Evaluation RequirementsThe following primary inputs and contextual data should be specified and tracked within the program database to inform the evaluation and apply the savings properly. Manufacturer and Model NumberHigh Efficiency Unit Heavy Load Cooking EfficiencyHigh Efficiency Unit Equipment Idle RateFryer WidthVerification of ENERGY STAR? certificationReferences and Efficiency StandardsPetitions and RulingsPUCT Docket 36779 – Provides EUL for Electric FryersRelevant Standards and Reference SourcesENERGY STAR? requirements for Electric Fryers . Accessed 01/22/2015. DEER 2014 EUL updateDocument Revision HistoryTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 80: Nonresidential Electric Fryers HistoryTRM VersionDateDescription of Changev1.011/25/2013TRM V1.0 originv3.004/10/2015Updated to newer ENERGY STAR? Electric Fryers Program Requirements Version 2.1. Simplified calculation methodology to a single representative building type consistent with the ENERGY STAR? Commercial Kitchen Equipment Savings CalculatorPre-Rinse Spray Valves Measure OverviewTRM Measure ID: NR-FS-SVMarket Sector: CommercialMeasure Category: Food Service EquipmentApplicable Building Types: See REF _Ref367278510 \h \* MERGEFORMAT Table 282Fuels Affected: Electricity Decision/Action Type: Retrofit Program Delivery Type: Direct Install or Point of SaleDeemed Savings Type: Deemed ValuesSavings Methodology: DeemedMeasure DescriptionThis document presents the deemed savings methodology for the installation of Pre-Rinse Sprayers to reduce hot water usage to save energy associated with heating the water. Water heating is assumed to be electric. The energy and demand savings are determined on a per-sprayer basis. Installation of Pre-Rinse Spray Valves to reduce energy consumption associated with heating the water.Eligibility CriteriaPre-rinse spray valves must have a maximum flow rate no greater than 1.25 GPM. Units must be used for commercial food preparation only.Baseline ConditionEligible baseline equipment is pre-rinse sprayer using 1.60 GPM.High-Efficiency ConditionEligible equipment is a pre-rinse sprayer using 1.25 GPM or less. The sprayer should be capable of the same cleaning ability as the old sprayer. Energy and Demand Savings MethodologySavings Algorithms and Input VariablesThe calculation for these deemed values are calculated based on the following algorithms:Energy kWh =(FB×UB-FP×UP)×DaysYear×(TH-TC)×CH×CEEffEEquation SEQ Equation \* ARABIC 69Peak Demand kW=P×(FB×UB-FP×UP)×(TH-TC)×CH×CEEffEEquation SEQ Equation \* ARABIC 70Where:FB=Average Baseline Flow Rate of Sprayer (GPM)FP=Average Post Measure Flow Rate of Sprayer (GPM)UB=Baseline Water Usage DurationUP=Post-Retrofit Water Usage DurationTH=Average mixed hot water (after spray valve) temperature (?F)TC=Average supply (cold) water temperature (?F)Days=Annual facility operating days for the applicationsCH=Unit Conversion: 8.33 BTU/ (Gallons-?F)CE=Unit Conversion: 1 BTU = 0.00029308 kWh (1/3412)EffE=Efficiency of Electric Water HeaterP=Hourly Peak Demand as percent of Daily DemandTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 81: Deemed Variables for Energy and Demand Savings CalculationsVariableDeemed ValuesFB1.6 NOTEREF _Ref363461799 \f \h \* MERGEFORMAT 121FP1.25 NOTEREF _Ref363461799 \f \h \* MERGEFORMAT 121, NOTEREF _Ref363463777 \f \h \* MERGEFORMAT 122UB =UPFast Food Restaurant: 45 min/day/unitCasual Dining Restaurant: 105 min/day/unit NOTEREF _Ref363463469 \f \h \* MERGEFORMAT 123Institutional: 210 min/day/unit NOTEREF _Ref363463469 \f \h \* MERGEFORMAT 123 Dormitory: 210 min/day/unit NOTEREF _Ref363463469 \f \h \* MERGEFORMAT 123K-12 School: 105 min/day/unitTH120TC69DaysFast Food Restaurant: 360Casual Dining Restaurant: 360Institutional: 360Dormitory: 270K-12 School: 193CH8.33CE0.00029EffE1.0PFast Food Restaurant: 6.81%Casual Dining Restaurant: 17.36%Institutional: 5.85%Dormitory: 17.36%K-12 School: 11.35%Deemed Energy and Demand Savings Tables The energy and demand savings of Pre-Rinse Sprayers are deemed values. The following table provides these deemed values.Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 82: Deemed Energy and Demand Savings Values by Building TypePre-Rinse Spray Valve Electric SavingsAnnual Energy Savings [kWh]Peak Demand Savings [kW]Fast Food 706 0.134Casual Dining 1,647 0.794Institutional3,295 0.535Dormitory2,471 1.589School883 0.519Measure Life and Lifetime SavingsThe EUL has been defined for this measure as 5 years. NOTEREF _Ref363461799 \f \h \* MERGEFORMAT 121, NOTEREF _Ref363464168 \f \h \* MERGEFORMAT 126 This is consistent with PUCT Docket No. 36779. Program Tracking Data & Evaluation RequirementsThe following primary inputs and contextual data should be specified and tracked within the program database to inform the evaluation and apply the savings properly. Baseline Equipment flow-rateRetrofit Equipment flow-rateBuilding TypeReferences and Efficiency StandardsPetitions and RulingsPUCT Docket 40669 – Provides energy and demand savings and measure specifications. Attachment A: . Accessed 09/09/2013.PUCT Docket 36779 – Provides EUL for Pre-Rinse SprayersRelevant Standards and Reference SourcesN/ADocument Revision HistoryTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 83: Nonresidential Pre-Rinse Spray Valves HistoryTRM VersionDateDescription of Changev1.011/25/2013TRM V1.0 originv2.004/18/2014Updated the baseline and post-retrofit minimum flow rate values, based on federal standards. Removed reference to a list of qualifying pre-rinse spray valves.ENERGY STAR? Electric Steam Cookers Measure OverviewTRM Measure ID: NR-FS-SCMarket Sector: CommercialMeasure Category: Cooking EquipmentApplicable Building Types: See Eligibility CriteriaFuels Affected: Electricity Decision/Action Type: Retrofit, Replace-on-Burnout or New ConstructionProgram Delivery Type: PrescriptiveDeemed Savings Type: Deemed Savings ValuesSavings Methodology: Look-up TablesMeasure DescriptionThis document presents the deemed savings methodology for the installation of Electric Steam Cookers. Steam cookers are available in 3, 4, 5, or 6 pan and larger capacities. ENERGY STAR? qualified units are up to 50% more efficient than standard models. They have higher production rates and reduced heat loss due to better insulation and a more efficient steam delivery system. The energy and demand savings are determined on a per-cooker basis. Eligibility Criteria Eligible Steam Cookers can have a 3, 4, 5 or 6 pan capacity. A list of eligible equipment is found on the ENERGY STAR? list of qualified equipment. Eligible building types include independent restaurants, chain restaurants, elementary and secondary schools, colleges and universities, corporate foodservice operations, healthcare, hospitality, and supermarketsBaseline ConditionEligible baseline condition for retrofit situations are electric Steam Cookers that are not ENERGY STAR? certified.High-Efficiency ConditionThe high efficiency electric steam cookers are assumed to be ENERGY STAR? certified and have the characteristics shown in REF _Ref367278476 \h \* MERGEFORMAT Table 284. Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 84: ENERGY STAR? Energy Efficiency and Idle Rate Requirements for Electric Steam CookersPan CapacityCooking Energy Efficiency [%]Idle Rate [W]3-Pan50%4004-Pan50%5305-Pan50%6706-Pan and Larger50%800Energy and Demand Savings MethodologySavings Algorithms and Input VariablesEnergy Savings ?kWh=kWhbase-kWhpostEquation SEQ Equation \* ARABIC 71Peak Demand kW=ΔkWhthrs×tdays×CFEquation SEQ Equation \* ARABIC 72kWhbase = Wfood × Efoodηbase+ 1- ηtSteam ×EidleRate, base+ ηtSteam×Cpan×Npan ×Efoodηbase ×tdays-Wfoodηbase×Npan×NOpDays1000Equation SEQ Equation \* ARABIC 73kWhpost = Wfood × Efoodηpost+ 1- ηtSteam×EidleRate, post+ ηtSteam×Cpan×Npan ×Efoodηpost ×tdays-Wfoodηpost×Npan×NOpDays1000Equation SEQ Equation \* ARABIC 74Where:kWhbase=Baseline annual energy consumption [kWh]kWhpost=Post annual energy consumption [kWh]ΔkWh=Energy Savings = kWhbase – kWhpostWfood=Pounds of food cooked per day [lb/day]Efood=ASTM energy to food [Wh/lb]ηbase=Baseline Cooking energy efficiency (Differs for boiler-based or steam generator equipment)ηpost=Post-Retrofit Cooking energy efficiencyηtSteam=Percent of time in constant steam mode [%]EIdleRate, base=Idle energy rate [W]. (Differs for boiler-based or steam-generator equipment)EIdleRate, post=Idle energy rate [W]. Cpan=Production capacity per pan [lb/hr]Npan=Number of pansNOpDays=Facility operating days per year [days/yr]tOpHrs=Average daily operating hours per day [hr]CF=Peak coincidence factor1000=Wh to kWh conversion factorTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 85: Deemed Variables for Energy and Demand Savings CalculationsParameterBaseline ValuePost Retrofit ValuekWhbaseSee Table 2-86 REF _Ref410918456 \h \* MERGEFORMAT Table 286kWhpostWfood100Efood30.8ηBoiler-based Efficiency: 26%Steam-Generator Efficiency: 30%50%ηtSteam40%EIdleRateBoiler-based Idle Rate: 1,000Steam Generator Idle Rate: 1,2003-Pan: 4004-Pan: 5305-Pan: 6706-Pan: 800Cpan23.316.7Npan3, 4, 5, or 6tOpHours12NOpDays365CF0.92Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 86: Annual Energy Consumption and Daily Food CookedSteam Cooker TypeNpankWhbasekWhPostAnnual Energy Savings [kWh]Peak Demand Savings [kW]Boiler Based3-Pan19,4167,63211,7842.4754-Pan24,3309,77714,5533.0575-Pan29,21311,94617,2683.6276-Pan and Larger34,08014,09019,9904.199Steam Generator3-Pan17,5997,6329,9672.0934-Pan21,8849,77712,1072.5435-Pan26,13211,94614,1862.9806-Pan and Larger30,36014,09016,2703.417Deemed Energy and Demand Savings TablesThe energy and demand savings of High Efficiency Steam Cookers are deemed values. The following tables provide these deemed values.Measure Life and Lifetime Savings. The EUL has been defined for this measure as 12 years, consistent with both ENERGY STAR? specifications and DEER 2014 EUL update (EUL ID – Cook-ElecStmCooker).Program Tracking Data & Evaluation RequirementsThe following primary inputs and contextual data should be specified and tracked within the program database to inform the evaluation and apply the savings properly. High Efficiency Manufacturer and Model numberNumber of PansVerification of ENERGY STAR? certificationReferences and Efficiency StandardsPetitions and RulingsPUCT Docket 40669 – Provides energy and demand savings and measure specificationsRelevant Standards and Reference SourcesENERGY STAR? specifications for Commercial Steam Cookers. . Accessed 01/22/2015.DEER 2014 EUL updateDocument Revision HistoryTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 87: Nonresidential High-Efficiency Commercial Steam Cookers HistoryTRM VersionDateDescription of Changev1.011/25/2013TRM V1.0 originv2.004/18/2014Updated EUL based on Energy Star? and DEER 2014v3.004/10/2015Updated to newer Energy Star? Steam Cooker Program Requirements Version 1.2. Simplified calculation methodology to a single representative building type consistent with the Energy Star? Commercial Kitchen Equipment Savings Calculator.Nonresidential: RefrigerationDoor Heater Controls Measure OverviewTRM Measure ID: NR-RF-DCMarket Sector: CommercialMeasure Category: RefrigerationApplicable Building Types: Any commercial retail facility such as supermarkets, grocery stores, hotels, restaurants and convenience stores.Fuels Affected: Electricity Decision/Action Type: Retrofit Program Delivery Type: PrescriptiveDeemed Savings Type: Deemed Savings ValuesSavings Methodology: Look-up Tables Measure DescriptionThis document presents the deemed savings methodology for the installation of Door Heater Controls for glass-door refrigerated cases with anti-sweat heaters (ASH). A door heater controller senses dew point (DP) temperature in the store and modules power supplied to the heaters accordingly. DP inside a building is primarily dependent on the moisture content of outdoor ambient air. Because the outdoor DP varies between climate zones, weather data from each climate zone must be analyzed to obtain a DP profile. The reduced heating results in a reduced cooling load. The savings are on a per-linear foot of display case basis.Eligibility CriteriaN/ABaseline ConditionBaseline efficiency case is a cooler or a freezer door heater that operates 8,760 hours per year without any controls.High-Efficiency Condition Eligible high efficiency equipment is a cooler or a freezer door heater connected to a heater control system, which controls the door heaters by measuring the ambient humidity and temperature of the store, calculating the dew point (DP) temperature, and using pulse width modulation to control the anti-sweat door heater based on specific algorithms for freezer and cooler doors. Energy and Demand Savings MethodologySavings Algorithms and Input Variables The energy savings from the installation of Anti-Sweat heater controls are a result from both the decrease in length of time the heater is running (kWhASH) and the reduction in load on the refrigeration (kWhrefrig). These savings are calculated using the following procedures:Indoor dew point (td-in) can be calculated from outdoor dew point (td-out) using the following equation:td-in=0.005×td-out2+0.172×td-out+19.870Equation SEQ Equation \* ARABIC 75The baseline assumes door heats are running on 8,760 operation. In the post-retrofit case, the duty for each hourly reading is calculated by assuming a linear relationship between indoor DP and duty cycle for each bin reading. It is assumed that the door heaters will be all off (duty cycle of 0%) at 42.89?F DP and all on (duty cycle of 100%) at 52.87?F for a typical supermarket. Between these values, the door heaters’ duty cycle changes proportionally:Door Heater ON%= td-in-All OFF setpt 42.89°FAll ON setpt 52.87℉-All OFF setpt 42.89°FEquation SEQ Equation \* ARABIC 76The controller only changes the run-time of the heaters so the instantaneous door heater power (kWASH) as a resistive load remains constant per linear foot of door heater at:kWASH=115V×0.37Aft1000×Linear ft of door heater=0.043kWft×ft of door heaterEquation SEQ Equation \* ARABIC 77Door heater energy consumption for each hour of the year is a product of power and run-time:kWhASH-Hourly=kWASH×Door Heater ON% ×1HourEquation SEQ Equation \* ARABIC 78kWhASH= kWhASH-HourlyEquation SEQ Equation \* ARABIC 79To calculate energy savings from the reduced refrigeration load using average system efficiency and assuming that 35% of the anti-sweat heat becomes a load on the refrigeration system, the cooling load contribution from door heaters can be given by:QASHton-hrs=0.35×kWASH×3413Btuhr12000Btuton×Door Heater ON%Equation SEQ Equation \* ARABIC 80The compressor power requirements are based on calculated cooling load and energy-efficiency ratios obtained from manufacturers' data. The compressor analysis is limited to the cooling load imposed by the door heaters, not the total cooling load of the refrigeration system. For medium temperature refrigerated cases, the saturated condensing temperature (SCT) is calculated as the design dry-bulb temperature plus 15 degrees. For low temperature refrigerated cases, the SCT is the design dry-bulb temperature plus 10 degrees. The EER for both medium- and low-temperature applications is a function of SCT and part load ratio (PLR) of the compressor. PLR is the ratio of total cooling load to compressor capacity, and is assumed to be a constant 0.87.For medium temperature compressors, the following equation is used to determine the EERMT [Btu/hr/watts]. These values are shown in Table 2-88.EERMT=a+b×SCT+c×PLR+d×SCT2+e×PLR2+f×SCT×PLR+g×SCT3+h×PLR3+i×SCT×PLR2+j×SCT2×PLREquation SEQ Equation \* ARABIC 81Where:a=3.753b=-0.050c=29.459d=0.0003e =-11.771f =-0.213g=-1.466 x 10-6h=6.802I=-0.020j=0.0007PLR=0.87SCT=ambient design temperature+ 15For low temperature compressors, the following equation is used to determine the EERLT [Btu/hr/watts]:EERLT=a+b×SCT+c×PLR+d×SCT2+e×PLR2+f×SCT×PLR+g×SCT3+h×PLR3+i×SCT×PLR2+j×SCT2×PLREquation SEQ Equation \* ARABIC 82Where:a=9.867b=-0.230c =22.906d=0.002e=-2.489f=-0.248g=-7.575 x 10-6h=2.036i=-0.021j=0.0009PLR=0.87SCT=ambient design temperature+10Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 88: Values Based on Climate Zone CityClimate ZoneSummer Design Dry Bulb TempSCTMTSCTLTEERMTEERLTAmarillo961111066.444.98Dallas-Ft. Worth1001151106.054.67El Paso1011161115.954.59Houston961111066.444.98McAllen1001151106.054.67Energy used by the compressor to remove heat imposed by the door heaters for each hourly reading is determined based on calculated cooling load and EER, as outlined below:kWhrefrig-hourly=QASH×12EEREquation SEQ Equation \* ARABIC 83kWhrefrig= kWhrefrig-HourlyEquation SEQ Equation \* ARABIC 84Total annual energy consumption (direct door heaters and indirect refrigeration) is the sum of all hourly reading values:kWhtotal=kWhrefrig+kWhASHEquation SEQ Equation \* ARABIC 85Total energy savings is a result of the baseline and post-retrofit case:Annual Energy Savings kWh=kWhtotal-baseline+kWhtotal-postEquation SEQ Equation \* ARABIC 86While there might be instantaneous demand savings as a result of the cycling of the door heaters, peak demand savings will only be due to the reduced refrigeration load. Peak demand savings is calculated by the following equation:Peak Demand Savings=kWhrefrig-baseline-kWhrefrig-post8760Equation SEQ Equation \* ARABIC 87Deemed Energy and Demand Savings Tables The energy and demand savings of Anti-Sweat Door Heater Controls are deemed values based on city and refrigeration temperature. The following table provides these deemed values.Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 89: Deemed Energy and Demand Savings Values by Location and Refrigeration Temperature in kWh per Linear Foot of Display CasePre-Rinse Spray Valve Electric SavingsMedium TemperatureLow TemperatureAnnual Energy Savings [kWh/ft]Peak Demand Savings [kW/ft]Annual Energy Savings [kWh/ft]Peak Demand Savings [kW/ft]Amarillo3570.0063730.008Dallas2430.0052550.006El Paso3950.0084150.010Houston1760.0031840.004McAllen1340.0031400.003Measure Life and Lifetime SavingsThe EUL has been defined for this measure as 12 years per the PUCT approved Texas EUL filing (Docket No. 36779). It is also consistent with the DEER 2014 EUL update (EUL ID - GrocDisp-FixtDrGask). Program Tracking Data & Evaluation RequirementsThe following primary inputs and contextual data should be specified and tracked within the program database to inform the evaluation and apply the savings properly. Regional Climate ZoneRefrigeration TemperatureReferences and Efficiency StandardsPetitions and RulingsPUCT Docket 40669 – Provides energy and demand savings and measure specifications. Attachment A: . Accessed 08/08/2013. . Accessed 08/08/2013.PUCT Docket 36779 – Provides EUL for Anti-Sweat Heater ControlsRelevant Standards and Reference SourcesDEER 2014 EUL updateDocument Revision HistoryTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 90: Nonresidential Door Heater Controls HistoryTRM VersionDateDescription of Changev1.011/25/2013TRM V1.0 originv2.004/18/2014In the energy savings equation used to determine the EER, rounded off the regression coefficients to 4 or 5 significant figures. v2.101/30/2015Correction to state that savings are on a per-linear foot of display case.ECM Evaporator Fan Motor Measure OverviewTRM Measure ID: NR-RF-FMMarket Sector: CommercialMeasure Category: RefrigerationApplicable Building Types: Any commercial retail facility such as supermarkets, grocery stores, hotels, restaurants and convenience storesFuels Affected: Electricity Decision/Action Type: RetrofitProgram Delivery Type: PrescriptiveDeemed Savings Type: Deemed Savings CalculationSavings Methodology: AlgorithmMeasure DescriptionThis document presents the deemed savings methodology for the installation of an Electronically Commutated Motor (ECM) in cooler and freezer display cases replacing existing evaporator fan motors. ECMs can reduce fan energy use up to approximately 65%, and can also provide higher efficiency, automatic variable-speed drive, lower motor operating temperatures, and less maintenance. Eligibility CriteriaAll ECMs must constitute suitable, size-for-size replacements of evaporator fan motors.Baseline ConditionBaseline efficiency case is an existing shaded pole evaporator fan motor in a refrigerated case.High-Efficiency Condition Eligible high efficiency equipment is an electronically commutated motor which replaces an existing evaporator fan motor.Energy and Demand Savings MethodologySavings Algorithms and Input VariablesThe energy savings from the installation of ECMs are a result of savings due to the increased efficiency of the fan, and reduction of heat produced from the reduction of fan operation. The energy and demand savings are calculated using the following equations:Energy kWh=ΔkWhfan+ ΔkWhheatEquation SEQ Equation \* ARABIC 88ΔkWhfan=kWfan×LRF×HoursEquation SEQ Equation \* ARABIC 89ΔkWhheat= ΔkWhfan ×0.28×EffEquation SEQ Equation \* ARABIC 90Peak Demand kW=?kWhHoursEquation SEQ Equation \* ARABIC 91Where:ΔkWhfan=Energy savings due to increased efficiency of evaporator fan motorΔkWhheat=Energy savings due to reduced heat from evaporator fankWfan=Power demand of evaporator fan calculated from equipment nameplate data and estimated 0.55 power adjustment/factorkWfan=RatedPowerMotorEfficiency×0.55LRF=Load reduction factor for motor replacementHours=Annual operating hours, depending on whether or not the evaporator fan has controls0.28=Conversion factor between kW and tons: 3413 Btuh/kW divided by 12,000 Btuh/tonEff=Estimated efficiency based on climate and refrigeration type (medium temperature or low temperature)Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 91: Deemed Variables for Energy and Demand Savings CalculationsVariableDeemed ValuesLRF65%HoursEvaporator Fans with Controls: 4,030Evaporator Fans without Controls: 8,760EffMTAmarillo: 1.86Dallas-Ft. Worth: 1.98El Paso: 2.02Houston: 1.86McAllen: 1.98EffLT NOTEREF _Ref364259607 \f \h \* MERGEFORMAT 141Amarillo: 2.41Dallas-Ft. Worth: 2.57El Paso: 2.61Houston: 2.41McAllen: 2.57Deemed Energy and Demand Savings TablesThe energy and demand savings of ECMs are calculated using a deemed algorithm, based on city, refrigeration temperature, and whether or not the motors have controls. Evaporator fan nameplate data is also required; rated power and efficiency.Measure Life and Lifetime SavingsThe EUL has been defined for this measure as 15 years as defined by the DEER 2014 EUL update (EUL ID - GrocDisp-FEvapFanMtr & GrocWlkIn-WEvapFanMtr).Program Tracking Data & Evaluation RequirementsThe following primary inputs and contextual data should be specified and tracked within the program database to inform the evaluation and apply the savings properly. Regional Climate ZoneBuilding TypeMotor Efficiency Motor Power RatingEvaporator Fan Control TypeRefrigeration TemperatureReferences and Efficiency StandardsPetitions and RulingsPUCT Docket 40669 – Provides energy and demand savings and measure specificationsRelevant Standards and Reference SourcesDEER 2014 EUL updateDocument Revision HistoryTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 92: Nonresidential ECM Evaporator Fan Motors HistoryTRM VersionDateDescription of Changev1.011/25/2013TRM V1.0 originElectronic Defrost Controls Measure OverviewTRM Measure ID: NR-RF-DFMarket Sector: CommercialMeasure Category: RefrigerationApplicable Building Types: Any commercial retail facility such as supermarkets, grocery stores, hotels, restaurants and convenience storesFuels Affected: Electricity Decision/Action Type: Retrofit Program Delivery Type: PrescriptiveDeemed Savings Type: Deemed Savings CalculationSavings Methodology: Algorithm, Engineering estimatesMeasure DescriptionThis document presents the deemed savings methodology for the installation of electronic defrost controls. The controls sense whether or not a defrost cycle is required in a refrigerated case, and skips it if it is unnecessary. Eligibility CriteriaN/ABaseline ConditionThe baseline efficiency case is an evaporator fan defrost system that uses a time clock mechanism to initiate electronic resistance defrost.High-Efficiency ConditionEligible high efficiency equipment is an evaporator fan defrost system with electronic defrost controls.Energy and Demand Savings MethodologySavings Algorithms and Input VariablesThe energy savings from the installation of electronic defrost controls are a result of savings due to the increase in operating efficiency and the reduced heat from a reduction in number of defrosts. The energy and demand savings are calculated using the following equations:Energy kWh=ΔkWhdefrost+ΔkWhheatEquation SEQ Equation \* ARABIC 92ΔkWhdefrost=kWdefrost×DRF×HoursEquation SEQ Equation \* ARABIC 93ΔkWhheat= ΔkWhdefrost ×0.28×EffEquation SEQ Equation \* ARABIC 94Peak Demand kW=ΔkWhHoursEquation SEQ Equation \* ARABIC 95Where:ΔkWhdefrost=Energy savings resulting from an increase in operating efficiency due to the addition of electronic defrost controlsΔkWhheat=Energy savings due to the reduced heat from reduced number of defrostskWdefrost=Load of electric defrostHours=Number of hours defrost occurs over a year without defrost controlsDRF=Defrost reduction factor – percent reduction in defrosts required per year0.28=Conversion of kW to tons; 3,413 Btuh/kW divided by 12,000 Btuh/tonEff=Estimated efficiency based on climate & refrigeration typeTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 93: Deemed Variables for Energy and Demand Savings CalculationsVariableDeemed ValuesDRF35%EffMTAmarillo: 1.86Dallas-Ft. Worth: 1.98El Paso: 2.02Houston: 1.86McAllen: 1.98EffLT NOTEREF _Ref384194492 \f \h 143Amarillo: 2.41Dallas-Ft. Worth: 2.57El Paso: 2.61Houston: 2.41McAllen: 2.57Deemed Energy and Demand Savings TablesN/AMeasure Life and Lifetime SavingsThe EUL has been defined for this measure as 10 years.Program Tracking Data & Evaluation RequirementsThe following primary inputs and contextual data should be specified and tracked within the program database to inform the evaluation and apply the savings properly. Hours that defrost occurs over a year without defrost controlsLoad of electric defrostRefrigeration Temperature (Low Temperature or Medium Temperature)Climate Zone (Amarillo, Dallas-Fort Worth, El Paso, Houston, or McAllen) References and Efficiency StandardsPetitions and RulingsPUCT Docket No. 40669 provides energy and demand savings and measure specificationsRelevant Standards and Reference SourcesN/ADocument Revision HistoryTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 94: Nonresidential Electronic Defrost Controls HistoryTRM VersionDateDescription of Changev1.011/25/2013TRM V1.0 originEvaporator Fan Controls Measure OverviewTRM Measure ID: NR-RF-FCMarket Sector: CommercialMeasure Category: RefrigerationApplicable Building Types: Any commercial retail facility such as supermarkets, grocery stores, hotels, restaurants and convenience storesFuels Affected: Electricity Decision/Action Type: Retrofit Program Delivery Type: PrescriptiveDeemed Savings Type: Deemed Savings CalculationSavings Methodology: AlgorithmMeasure DescriptionThis document presents the deemed savings methodology for the installation of evaporator fan controls. As walk-in cooler and freezer evaporators often run continuously, this measure consists of a control system that turns the fan on only when the unit’s thermostat is calling for the compressor to operate. Eligibility CriteriaN/ABaseline ConditionBaseline efficiency case is an existing shaded pole evaporator fan motor with no temperature controls, running 8,760 annual hours.High-Efficiency ConditionEligible high efficiency equipment will be regarded as an energy management system (EMS) or other electronic controls to modulate evaporator fan operation based on temperature of the refrigerated space.Energy and Demand Savings MethodologySavings Algorithms and Input VariablesThe energy savings from the installation of evaporator fan controls are a result of savings due to the reduction in operation of the fan. The energy and demand savings are calculated using the following equations:Energy kWh=ΔkW×8760Equation SEQ Equation \* ARABIC 96Peak Demand kW=kWevap×nfans-kWcirc×1-DCcomp×DCevap×BFEquation SEQ Equation \* ARABIC 97Where:kWevap=Connected load kW of each evaporator fankWcirc=Connected load kW of the circulating fannfans=Number of evaporator fansDCcomp=Duty cycle of the compressorDCevap=Duty cycle of the evaporator fanBF=Bonus factor for reducing cooling load from replacing the evaporator fan with a lower wattage circulating fan when the compressor is not running8760=Annual hours per yearTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 95: Deemed Variables for Energy and Demand Savings CalculationsVariableDeemed ValueskWevap0.123 kWkWcirc0.035 kWDCcomp50%DCevapCooler: 100%Freezer: 94%BFLow Temp: 1.5Medium Temp: 1.3High Temp: 1.2Deemed Energy and Demand Savings Tables N/AMeasure Life and Lifetime Savings. The EUL has been defined for this measure as 16 years per the PUCT approved Texas EUL filing (Docket No. 36779). This is consistent with the DEER 2014 EUL update (EUL ID - GrocWlkIn-WEvapFMtrCtrl).Program Tracking Data & Evaluation RequirementsThe following primary inputs and contextual data should be specified and tracked within the program database to inform the evaluation and apply the savings properly. Number of evaporator fans controlledRefrigeration TypeRefrigeration TemperatureReferences and Efficiency StandardsPetitions and RulingsPUCT Docket No. 40669 provides energy and demand savings and measure specificationsPUCT Docket No. 36779 provides approved EUL for Evaporator Fan ControlsRelevant Standards and Reference SourcesDEER 2014 EUL updateDocument Revision HistoryTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 96: Nonresidential Evaporator Fan Controls HistoryTRM VersionDateDescription of Changev1.011/25/2013TRM V1.0 originNight Covers for Open Refrigerated Display Cases Measure OverviewTRM Measure ID: NR-RF-RCMarket Sector: CommercialMeasure Category: RefrigerationApplicable Building Types: Any commercial retail facility such as supermarkets, grocery stores, hotels, restaurants and convenience storesFuels Affected: Electricity Decision/Action Type: RetrofitProgram Delivery Type: PrescriptiveDeemed Savings Type: Deemed Savings Value (per linear ft of case)Savings Methodology: Look-up TablesMeasure DescriptionThis document presents the deemed savings methodology for the installation of night covers on otherwise open vertical (multi-deck) and horizontal (or coffin-type) low-temperature and medium-temperature display cases to decrease cooling load of the case during the night. It is recommended that these film-type covers have small, perforated holes to decrease the build-up of moisture.Eligibility CriteriaAny suitable material sold as a night cover. BaselineBaseline efficiency case is an open low-temperature or medium-temperature refrigerated display case (vertical or horizontal) that is not equipped with a night cover. High-Efficiency ConditionEligible high efficiency equipment is considered any suitable material sold as a night cover. The cover must be applied for a period of at least 6 hours per night. Vertical strip curtains may be in use 24 hours per day.Energy and Demand Savings MethodologySavings Algorithms and Input VariablesThe following outlines the assumptions and approach used to estimate demand and energy savings due to installation of night covers on open low- and medium-temperature, vertical and horizontal, display cases. Heat transfer components of the display case include infiltration (convection), transmission (conduction), and radiation. This work paper assumes that installing night covers on open display cases will only reduce the infiltration load on the case. Infiltration affects cooling load in the following ways:Infiltration accounts for approximately 80% of the total cooling load of open vertical (or multi-deck) display cases.Infiltration accounts for approximately 24% of the total cooling load of open horizontal (coffin or tub style) display cases. NOTEREF _Ref364341003 \f \h 150Installing night covers for a period of 6 hours per night can reduce the cooling load due to infiltration by:8% on vertical cases NOTEREF _Ref364341003 \f \h 15050% on horizontal casesThe energy savings due to the reduced infiltration load when night covers are installed will vary based on outdoor temperature and climate zone. As a result the energy savings must be determined for each climate zone and typical outdoor temperatures when the covers are applied.Once the infiltration load for each type of case was determined, the following steps were followed to determine the compressor power requirements and energy savings. It is important to reiterate that heat transfer in display cases occurs due to convection, conduction, and radiation. The analysis presented here is limited to the cooling load imposed by convection (infiltration) only and not the total cooling load of a particulate display case.In the base case it is assumed that no night covers are installed on the cases and the infiltration cooling load for each bin can be given by:QbaselineInfiltrationton-hours=QbaselineInfiltrationBtuh×Bin-hours12,000 BtutonEquation SEQ Equation \* ARABIC 98The compressor power requirements are based on calculated cooling load and energy-efficiency ratios (EER) obtained from manufacturers’ data.Determine the saturated condensing temperature (SCT)For Medium Temperature (MT): SCT=DBadj+15Equation SEQ Equation \* ARABIC 99For Low Temperature (LT): SCT=DBadj+10Equation SEQ Equation \* ARABIC 100Where:DBadj=Design dry-bulb temperature (?F), based on climate zone, of ambient or space where the compressor/condensing units reside. REF _Ref364341905 \h \* MERGEFORMAT Table 297 below lists design dry-bulb temperatures by climate zone.Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 97: Various Climate Zone Design Dry Bulb Temperatures and Representative CitiesRepresentative Climate ZoneSummer Design Dry Bulb Temperature, ASHRAE Climatic Region Data, 0.5% (?F)Amarillo, TX96Dallas-Ft. Worth, TX100El Paso, TX101Houston, TX96McAllen, TX100Determine the EER for both MT and LT applicationsCompressor performance curves were obtained from a review of manufacturer data for reciprocating compressors as a function of SCT, cooling load, and cooling capacity of compressor.Part-load ratio (PLR) is the ratio of total cooling load (from Cooling Load Calculation Section) to compressor capacity. It indicates the percentage of compressor capacity needed to remove the total cooling load. It is calculated by the following equation:PLR=QcoolingQcapacityEquation SEQ Equation \* ARABIC 101Where:PLR=Part Load RatioQcooling =Cooling LoadQcapacity=Total Compressor CapacityQcapacity=Qcooling×1.15PLR=11.15=0.87To simplify the analysis, it is assumed that PLR remains constant for the post-retrofit condition. The energy efficiency ratio (EER) is a measure of how efficient a cooling system operates at a particular temperature. It is defined as the ratio of useful energy transfer to the work input. For refrigeration systems it is the ratio of heat removed by the compressor (Btu/h) to the input power (Watts). The higher the EER the greater the efficiency of the system.For medium temperature compressors, the following equation is used to determine the EERMT (Btu/hr/watts). The equation uses SCT (from step 2), and a PLR of 0.87 (from step 3b).EERMT=a+b×SCT+c×PLR+d×SCT2+ e×PLR2+f×SCT×PLR+g×SCT3+h×PLR3+i×SCT×PLR2+j×SCT2×PLREquation SEQ Equation \* ARABIC 102Where:a=3.753b =-0.050c = 29.459d= 0.0003e= -11.771f= -0.213g= -1.466 x 10-6h= 6.802i= -0.020j= 0.0007For low temperature compressors, the following equation is used to determine the EERLT (Btu/hr/watts). The equation uses SCT (from step 2), and a PLR of 0.87 (from step 3b).EERLT=a+b×SCT+c×PLR+d×SCT2+ e×PLR2+f×SCT×PLR+g×SCT3+h×PLR3+i×SCT×PLR2+j×SCT2×PLREquation SEQ Equation \* ARABIC 103Where:a = 9.867b= -0.230c= 22.906d= 0.002e= -2.489f= -0.248g= -7.575 x 10-6h= 2.036i= -0.0215j= 0.001Convert EER to kW/tonkWton=12EEREquation SEQ Equation \* ARABIC 104Energy used by the compressor to remove heat imposed due to infiltration in the base case for each bin reading is determined based on the calculated cooling load and EER, as outlined below.kWhbaseline-refrig-bin=Qbaseline-infiltration[ton-hours]×kWtonEquation SEQ Equation \* ARABIC 105Total annual baseline refrigeration energy consumption is the sum of all bin values.kWhbaseline-refrig= kWhbaseline-refrig-binEquation SEQ Equation \* ARABIC 106In the post retrofit case, it is assumed that night covers are installed on the cases during the nights from midnight to 6:00 AM. During the day the cases are uncovered and the total cooling load for each bin can be given by:Qpost-retrofitton-hours=Qbaseline-infiltration Btuh×Daytimebin-hrs12,000 Btuhton+ (Qbaseline-infiltration Btuh-Qreduced-infiltration Btuh)×Nighttimebin-hrs12,000 BtuhtonEquation SEQ Equation \* ARABIC 107Steps 2 through 7 are repeated in the post-retrofit case to calculate the post retrofit energy and demand usage.The energy savings were determined as the difference between the baseline energy use and post-retrofit energy use:?kWhtotal=kWhtotalBaseline-kWhtotalPostRetrofitEquation SEQ Equation \* ARABIC 108Deemed Energy and Demand Savings TablesThe energy and demand savings of Night Covers are based on PG&E Night Covers Work Paper. PG&E modeled the infiltration load of refrigerator cases without night covers and refrigerators with night covers to derive the energy savings. The PG&E report estimated savings for several climate zones. The climate zone (Amarillo, TX) was chosen to represent the entire state. The deemed energy and demand savings are shown below.Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 98: Modeled Deemed Savings for Night Covers for Texas (per Linear Foot)MeasureEnergy Savings [kWh/ft]Demand Savings [kW/ft]Night Covers on Vertical Low Temp Cases450Night Covers on Horizontal Low Temp Cases230Night Covers on Vertical Medium Temp Cases350Night Covers on Horizontal Medium Temp Cases170Measure Life and Lifetime SavingsThe EUL has been defined for this measure as 5 years in the DEER 2014 EUL update (EUL ID - GrocDisp-DispCvrs).Program Tracking Data & Evaluation RequirementsThe following primary inputs and contextual data should be specified and tracked within the program database to inform the evaluation and apply the savings properly. Display case typeRefrigeration TemperatureReferences and Efficiency StandardsPetitions and RulingsPUCT Docket 40669 provides energy and demand savings and measure specificationsRelevant Standards and Reference SourcesDEER 2014 EUL updateDocument Revision HistoryTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 99: Nonresidential Night Covers for Open Refrigerated Display Cases HistoryTRM VersionDateDescription of Changev1.011/25/2013TRM V1.0 originv2.004/18/2014Removed all references to Peak Demand Savings as this measure is implemented outside of the peak demand period. Also rounded off savings to a reasonable number of significant digits.Solid and Glass Door Reach-Ins Measure OverviewTRM Measure ID: NR-RF-RIMarket Sector: CommercialMeasure Category: RefrigerationApplicable Building Types: Any commercial retail facility such as supermarkets, grocery stores, hotels, restaurants and convenience storesFuels Affected: Electricity Decision/Action Type: Retrofit & New ConstructionProgram Delivery Type: PrescriptiveDeemed Savings Type: Deemed Savings CalculationSavings Methodology: AlgorithmMeasure DescriptionThis document presents the deemed savings methodology for the installation of ENERGY STAR? or CEE certified Solid & Glass Reach-in doors for refrigerators and freezers, which are significantly more efficient. The high-efficiency criteria, developed by ENERGY STAR? and the Consortium for Energy Efficiency (CEE), relate the volume of the appliance to its daily energy consumption. These reach-in cases have better insulation and higher-efficiency than save energy, over regular refrigerators and freezers. The unit of measurement is volume in cubic feet of the unit. These four most common sized refrigerators and freezers are reported here.Eligibility CriteriaSold- or glass-door reach-in refrigerators and freezers must meet CEE or ENERGY STAR? minimum efficiency requirements (See REF _Ref364751483 \h \* MERGEFORMAT Table 2101).Baseline ConditionBaseline efficiency case is a regular refrigerator or freezer with anti-sweat heaters on doors that meets federal standards. The baseline daily kWh for solid door and glass door commercial reach-in refrigerators and freezers are shown in Table 2-100.Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 100: Baseline Energy Consumption,Baseline StandardsRefrigerator Daily Consumption [kWh]Freezer Daily Consumption [kWh]Solid Door0.10V + 2.040.40V + 1.38Glass Door0.12V + 3.34075V + 4.10High-Efficiency ConditionEligible high efficiency equipment for solid- or glass-door reach-in refrigerators and freezers must meet CEE or ENERGY STAR? minimum efficiency requirements, as shown in REF _Ref364751483 \h \* MERGEFORMAT Table 2101 below:Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 101: Efficient Energy ConsumptionEfficiency StandardsRefrigerator Daily Consumption [kWh]Freezer Daily Consumption [kWh]Solid Door0 < V < 150.089V + 1.4110.250V + 1.25015 ≤ V < 300.037V + 2.2000.400V – 1.00030 ≤ V < 500.056V + 1.6350.163V + 6.125V ≥ 500.060V + 1.4160.158V + 6.333Glass Door0 < V < 150.118V + 1.3820.607V + 0.89315 ≤ V < 300.140V + 1.0500.733V – 1.00030 ≤ V < 500.088V + 2.6250.250V + 13.500V ≥ 500.110V + 1.5000.450V + 3.500Energy and Demand Savings MethodologySavings Algorithms and Input VariablesThe energy and demand savings of Solid- and Glass-Door Reach-In Refrigerators and Freezers are calculated using values in Tables 2-100 and 2-101, based on the volume of the units. The savings calculations are found below.Energy kWh=kWhbase-kWhee×365Equation SEQ Equation \* ARABIC 109Peak Demand kW=?kWh8760×CFEquation SEQ Equation \* ARABIC 110Where:kWhbase=Baseline maximum daily energy consumption in kWh, based on volume (V) of unit, found in Table 2-10.0kWhee=Efficient maximum daily energy consumption in kWh, based on volume (V) of unit, found in Table 2-101. .V=Chilled or frozen compartment volume [ft3] (as defined in the Association of Home Appliance Manufacturers Standard HRF-1-1979)365=Days per year8760=Hours per yearCF=Summer Peak Coincidence Factor (1.0)Deemed Energy and Demand Savings Tables. N/AMeasure Life and Lifetime SavingsThe EUL has been defined for this measure as 12 years, per the PUCT Texas EUL filing (Docket No. 36779). This is consistent with the 2008 DEER database.Program Tracking Data & Evaluation RequirementsThe following primary inputs and contextual data should be specified and tracked within the program database to inform the evaluation and apply the savings properly. Baseline Unit VolumeBaseline Unit Door Type (Solid or Glass)Baseline Unit Temperature (Refrigerator or Freezer)Post-Retrofit Unit VolumePost-Retrofit Unit Door Type (Solid or Glass)Post-Retrofit Unit Temperature (Refrigerator or Freezer)References and Efficiency StandardsPetitions and RulingsPUCT Docket 40669 provides energy and demand savings and measure specificationsPUCT Docket 36779 provides EUL estimates for Commercial Refrigerators and FreezersRelevant Standards and Reference SourcesENERGY STAR? Commercial Refrigerators & Freezers. . Accessed 08/20/2013Association of Home Appliance Manufacturers. HRF-1: Household Refrigerators, Combination Refrigerator-Freezers, and Household FreezersDocument Revision HistoryTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 102: Nonresidential Solid and Glass Door Refrigerators and Freezers HistoryTRM VersionDateDescription of Changev1.011/25/2013TRM V1.0 originStrip Curtains for Walk-In Refrigerated Storage Measure OverviewTRM Measure ID: NR-RF-SCMarket Sector: CommercialMeasure Category: RefrigerationApplicable Building Types: Any commercial retail facility such as supermarkets, grocery stores, hotels, restaurants and convenience storesFuels Affected: Electricity Decision/Action Type: Retrofit & New ConstructionProgram Delivery Type: PrescriptiveDeemed Savings Type: Deemed Savings Value (per door/opening)Savings Methodology: M&V analysisMeasure DescriptionThis measure refers to the installation of infiltration barriers (strip curtains or plastic swinging doors) on walk-in coolers or freezers. These units impede heat transfer from adjacent warm and humid spaces into walk-ins when the main door is opened, reducing the cooling load. This results in a reduced compressor run-time, reducing energy consumption. This assumes that a walk-in door is open 2.5 hours per day every day, and strip curtains cover the entire doorframe. Eligibility CriteriaStrip curtains or plastic swinging doors installed on walk-in coolers or freezers.Baseline ConditionBaseline efficiency case is a refrigerated walk-in space with nothing to impede air flow from the refrigerated space to adjacent warm and humid space when the door is opened.High-Efficiency ConditionEligible high efficiency equipment in a polyethylene strip curtain added to the walk-in cooler or freezer. Any suitable material sold as a strip cover for a walk-in unit is eligible as long as it covers the entire doorway.Energy and Demand Savings MethodologySavings Algorithms and Input VariablesSavings are derived from an M&V study.Deemed Energy and Demand Savings TablesThe energy and demand savings for strip curtains are based on the assumption that the walk-in door is open 2.5 hours per day, every day, and the strip curtain covers the entire doorframe, and are shown below in REF _Ref364754808 \h \* MERGEFORMAT Table 2103.Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 103: Deemed Energy and Demand Savings for Freezers and CoolersSavingsCoolersFreezersEnergy [kWh]4222,974Demand [kW]0.050.35Measure Life and Lifetime SavingsThe EUL has been defined for this measure as 4 years, per the PUCT Texas EUL filing (Docket No. 36779) and by the DEER 2014 EUL update (EUL ID - GrocWlkIn-StripCrtn).Program Tracking Data & Evaluation RequirementsThe following primary inputs and contextual data should be specified and tracked within the program database to inform the evaluation and apply the savings properly. Unit Temperature (Refrigerator or Freezer)References and Efficiency StandardsPetitions and RulingsPUCT Docket 40669 provides energy and demand savings and measure specificationsPUCT Docket 36779 provides EUL estimates for Commercial Refrigerators and FreezersRelevant Standards and Reference SourcesDEER 2014 EUL updateDocument Revision HistoryTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 104: Nonresidential Walk-In Refrigerator and Freezer Strip Curtains HistoryTRM VersionDateDescription of Changev1.011/25/2013TRM V1.0 originZero Energy Doors for Refrigerated Cases Measure OverviewTRM Measure ID: NR-RF-ZEMarket Sector: CommercialMeasure Category: RefrigerationApplicable Building Types: Any commercial retail facility such as supermarkets, grocery stores, hotels, restaurants and convenience storesFuels Affected: Electricity Decision/Action Type: Retrofit or New ConstructionProgram Delivery Type: PrescriptiveDeemed Savings Type: Deemed Savings ValuesSavings Methodology: Engineering estimatesMeasure DescriptionThis document presents the deemed savings methodology for the installation of Zero Energy Doors for refrigerated cases. These new zero-energy door designs eliminate the need for anti-sweat heaters to prevent the formation of condensation on the glass surface by incorporating heat reflective coatings on the glass, gas inserted between the panes, non-metallic spacers to separate glass panes, and/or non-metallic frames. Eligibility CriteriaThis measure cannot be used in conjunction with anti-sweat heat (ASH) controls. It is not eligible to be installed on cases above 0?F.Baseline Condition Baseline efficiency case is a standard vertical reach-in refrigerated case with anti-sweat heaters on the glass surface of the doors.High-Efficiency ConditionEligible high efficiency equipment is the installation of special doors that eliminate the need for anti-sweat heaters, for low-temperature cases only (below 0 ?F). Doors must have either heat reflective treated glass, be gas-filled, or both.Energy and Demand Savings MethodologySavings Algorithms and Input VariablesThe energy and demand savings from the installation of zero-energy doors are listed next:Energy kWh=ΔkW×8760Equation SEQ Equation \* ARABIC 111Peak Demand kW=kWdoor×BFEquation SEQ Equation \* ARABIC 112Where:kWdoor=Connected load kW of a typical reach-in cooler or freezer door with a heaterBF=Bonus factor for reducing cooling load from eliminating heat generated by the door heater from entering the cooler or freezer8760=Hours per yearTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 105: Deemed Variables for Energy and Demand Savings CalculationsVariableDeemed ValueskWdoorCooler: 0.075Freezer: 0.200 BFLow-Temp Freezer: 1.3Medium-Temp Freezer: 1.2High-Temp Freezer: 1.1Deemed Energy and Demand Savings TablesThe energy and demand savings of zero-energy doors are listed below in REF _Ref364779996 \h \* MERGEFORMAT Table 2106.Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 106: Energy and Demand Deemed SavingsTechnology TypeEnergy Savings [kWh]Peak Demand Savings [kW]Low-Temperature Freezer2,2780.26Medium-Temperature Cooler7880.09High-Temperature Cooler7230.08Measure Life and Lifetime SavingsThe EUL has been defined for this measure as 12 years per the PUCT approved Texas EUL filing (Docket No. 36779) and the DEER 2014 EUL update (EUL ID – GrocDisp-ZeroHtDrs). Program Tracking Data & Evaluation RequirementsThe following primary inputs and contextual data should be specified and tracked within the program database to inform the evaluation and apply the savings properly. Refrigeration Temperature RangeReferences and Efficiency StandardsPetitions and RulingsPUCT Docket 40669 provides energy and demand savings and measure specificationsPUCT Docket 36779 provides EUL values for Zero Energy Doors.Relevant Standards and Reference SourcesDEER 2014 EUL updateDocument Revision HistoryTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 107: Nonresidential Zero-Energy Refrigerated Case Doors HistoryTRM VersionDateDescription of Changev1.011/25/2013TRM V1.0 originNonresidential: Miscellaneous Vending Machine Controls Measure OverviewTRM Measure ID: NR-MS-VCMarket Sector: CommercialMeasure Category: MiscellaneousApplicable Building Types: All building types applicableFuels Affected: Electricity Decision/Action Type: Retrofit Program Delivery Type: PrescriptiveDeemed Savings Type: Deemed Value (per machine)Savings Methodology: M&VMeasure DescriptionThis section presents the deemed savings methodology for the installation of Vending Machine controls to reduce energy usage during periods of inactivity. These controls reduce energy usage by powering down the refrigeration and lighting systems when the control device signals that there is no human activity near the machine. If no activity or sale is detected over the manufacturer’s programmed time duration, the device safely de-energizes the compressor, condenser fan, evaporator fan, and any lighting. For refrigerated machines, it will power up occasionally to maintain cooling to meet the machine’s thermostat set point. When activity is detected, the system returns to full power. The energy and demand savings are determined on a per-vending machine basis. Eligibility CriteriaN/ABaseline ConditionEligible baseline equipment is a 120 volt single phase vending machine manufactured and purchased prior to August 31, 2012.High-Efficiency ConditionEligible equipment is a refrigerated vending machine or non-refrigerated snack machine (including warm beverage machines) without any controls. It is assumed that the display lighting has not been permanently disabled. Energy and Demand Savings MethodologySavings Algorithms and Input Variables N/ADeemed Energy and Demand Savings TablesEnergy and demand savings are deemed values for different sized vending machines. These values have been pieced together from different sources and studies. The energy and demand savings of Vending Machine Controllers are deemed values. The following tables provide these deemed values.Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 108: Deemed Energy and Demand Savings Values by Equipment TypeSizeAnnual Energy Savings [kWh]Peak Demand Savings [kW]Control for Refrigerated Cold Drink Unit cans or bottles1,6120.030Control for Refrigerated Reach-in Unit any sealed beverage1,0860.035Control for Non-Refrigerated Snack Unit with lighting (include. Warm beverage)3870.006Measure Life and Lifetime SavingsThe EUL has been defined for this measure as 5 years per the PUCT approved Texas EUL filing (Docket No. 36779) and the DEER 2014 EUL update (EUL ID – Plug-VendCtrler).Program Tracking Data & Evaluation RequirementsThe following primary inputs and contextual data should be specified and tracked within the program database to inform the evaluation and apply the savings properly. Vending Machine TypeRefrigerated Cold Drink Unit, Refrigerated Reach-in Unit, or Non-Refrigerated Snack Unit with lightingReferences and Efficiency StandardsPetitions and RulingsPUCT Docket 40669 – Provides energy and demand savings and measure specifications. Appendix A: . Accessed 9/24/2013.PUCT Docket 36779 – Provides EUL for Vending Machine ControlsRelevant Standards and Reference SourcesChappell, C., Hanzawi, E., Bos, W., Brost, M., and Peet, R. (2002). "Does It Keep the Drinks Cold and Reduce Peak Demand? An Evaluation of a Vending Machine Control Program," 2002 ACEEE Summer Study on Energy Efficiency in Buildings Proceedings, pp. 10.47-10.56. . Accessed 9/24/2013.DEER 2014 EUL updateDocument Revision HistoryTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 109: Nonresidential Vending Machine Controls HistoryTRM VersionDateDescription of Changev1.011/25/2013TRM V1.0 originLodging Guest Room Occupancy Sensor Controls Measure OverviewTRM Measure ID: NR-MS-GR Market Sector: CommercialMeasure Category: HVAC, Indoor LightingApplicable Building Types: Hotel/Motel Guestrooms, Schools/Colleges (Dormitory)Fuels Affected: ElectricityDecision/Action Type: Retrofit (RET)Program Delivery Type: PrescriptiveDeemed Savings Type: Deemed Savings CalculationSavings Methodology: Building SimulationMeasure DescriptionThis measure captures the potential energy and demand savings resulting from occupancy sensor control of HVAC and lighting in unoccupied hotel/motel guest rooms. Hotel and motel guest room occupancy schedules are highly variable, and guests often leave HVAC equipment and lighting on when they leave the room. Installation of occupancy controls can reduce the unnecessary energy consumption in unoccupied guest rooms. Savings have also been developed for use of this measure in college dormitories. This measure is also commonly referred to as a guest room energy management (GREM) system.Eligibility CriteriaTo be eligible for HVAC savings, controls must be capable of either a 5?F or 10?F temperature offset. To be eligible for lighting savings, at least 50% of all the lighting fixtures in a guest room – both hardwired and plug-load lighting - must be actively controlled. Baseline ConditionThe baseline condition is a guest room or dorm room without occupancy controls.High-Efficiency ConditionThe high-efficiency condition is a hotel/motel guest room or dorm room with occupancy controls. The occupancy sensors can control either the HVAC equipment only, or the HVAC equipment and the interior lighting (including plug-in lighting). The occupancy-based control system must include, but not be limited to, infrared sensors, ultrasonic sensors, door magnetic strip sensors, and/or card-key sensors. The controls must be able to either completely shut-off the HVAC equipment serving the space and/or place it into an unoccupied temperature setback/setup mode.Energy and Demand Savings MethodologyEnergy and demand savings are deemed values based on energy simulation runs performed using EnergyPro Version 5. Building prototype models were developed for a hotel, motel, and dormitory. The base case for each prototype model assumed a uniform temperature setting, and was calibrated to a baseline energy use. Occupancy patterns based on both documented field studies and prototypical ASHRAE 90.1-1999 occupancy schedules were used in the energy simulation runs to create realistic vacancy schedules. The prototype models were then adjusted to simulate an occupancy control system, which was compared to the baseline models. Savings Algorithms and InputsA building simulation approach was used to produce savings estimates.Deemed Energy and Demand Savings TablesEnergy and demand savings are provided by region, for HVAC-Only and HVAC+Lighting control configurations, and for three facility types: Motel and Hotel guest rooms, and Dormitory rooms.Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 110: Deemed Energy and Demand Savings for Motel per Guest Room, by RegionRepresentative City (Region)Heat PumpElectric HeatHVAC-OnlyHVAC & LightingHVAC-OnlyHVAC & LightingkWkWhkWkWhkWkWhkWkWh5-Degree Setup/Setback OffsetAmarillo (Panhandle)0.0592670.0753800.0593410.075441Dallas-Ft Worth (North)0.0763150.0914430.0763650.091485Houston (South)0.0823240.0974610.0823510.097484McAllen (Valley)0.0863540.1035000.0863690.103513El Paso (West)0.0632510.0783790.0632830.07840610-Degree Setup/Setback OffsetAmarillo (Panhandle)0.1114860.1265980.1116270.126726Dallas-Ft Worth (North)0.1465590.1616860.1466400.161761Houston (South)0.1515590.1666950.1516020.166735McAllen (Valley)0.1636170.1797610.1636500.179792El Paso (West)0.1184320.1335610.1184820.133607Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 111: Deemed Energy and Demand Savings for Hotel per Guest Room, by RegionRepresentative City (Region)Heat PumpElectric HeatHVAC-OnlyHVAC & LightingHVAC-OnlyHVAC & LightingkWkWhkWkWhkWkWhkWkWh5-Degree Setup/Setback OffsetAmarillo (Panhandle)0.0532320.0724390.0533030.072530Dallas-Ft Worth (North)0.0732580.0934520.0733030.093505Houston (South)0.0742420.0944300.0742600.094450McAllen (Valley)0.0812600.1024510.0812670.102459El Paso (West)0.0561780.0753600.0561960.07538010-Degree Setup/Setback OffsetAmarillo (Panhandle)0.1024260.1215680.1025570.121684Dallas-Ft Worth (North)0.1344520.1546170.1345170.154676Houston (South)0.1364230.1565990.1364460.156621McAllen (Valley)0.1494670.1696520.1494830.169667El Paso (West)0.1063120.1264790.1063380.126501Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 112: Deemed Energy and Demand Savings for Dormitories per Room, by RegionRepresentative City (Region)Heat PumpElectric HeatHVAC-OnlyHVAC & LightingHVAC-OnlyHVAC & LightingkWkWhkWkWhkWkwhkWkWh5-Degree Setup/Setback OffsetAmarillo (Panhandle)0.0341360.0613190.0341520.061316Dallas-Ft Worth (North)0.0482140.0764250.0482230.076428Houston (South)0.0512420.0784610.0512440.078462McAllen (Valley)0.0532650.0814920.0532660.081492El Paso (West)0.0311100.0593270.0311100.05932610-Degree Setup/Setback OffsetAmarillo (Panhandle)0.0732610.0844040.0732890.084417Dallas-Ft Worth (North)0.0782930.1055050.0783040.105511Houston (South)0.0813260.1085430.0813280.108545McAllen (Valley)0.0883680.1145910.0883700.114593El Paso (West)0.0451510.0604480.0451530.060450Claimed Peak Demand Savings Refer to Volume 1, Appendix B: Peak Demand Reduction Documentation for further details on peak demand savings and methodology.Measure Life and Lifetime SavingsEstimated Useful Life is 10 years based on the value for retrofit energy management system (EMS) HVAC control from the Massachusetts Joint Utility Measure Life Study. This value is also consistent with the EUL for lighting control and HVAC control measures in PUCT Docket Nos. 36779 and 40668.Program Tracking Data & Evaluation RequirementsThe following primary inputs and contextual data should be specified and tracked within the program database to inform the evaluation and apply the savings properly. HVAC System and Equipment TypeClimate Zone/RegionTemperature Offset category (5 or 10 degrees)Control Type (HVAC-Only or HVAC & Lighting)Business/Room TypeNumber of RoomsReferences and Efficiency StandardsPetitions and RulingsPUCT Docket 40668 – Provides deemed energy and demand savings values under “Guestroom, Dormitory and Multi-family Occupancy Controls for HVAC and Lighting Systems”, page 25 and Attachment pages A-46 through A-58.PUCT Docket 36779 – Provides EULs for commercial measures.Relevant Standards and Reference SourcesASHRAE Standard 90.1-1999Measure Life Study. Prepared for The Massachusetts Joint Utilities by ERS. November 17, 2005.Codes and Standards Enhancement Initiative (CASE): Guest Room Occupancy Controls, 2013 California Building Energy Efficiency Standards. October 2011.Document Revision HistoryTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 113: Lodging Guest Room Occupancy Controls HistoryTRM VersionDateDescription of Changev2.004/18/2014TRM V2.0 originPump-off Controller Measure OverviewTRM Measure ID: NR-MS-PCMarket Sector: CommercialMeasure Category: ControlsApplicable Building Types: IndustrialFuels Affected: ElectricityDecision/Action Type: RetrofitProgram Delivery Type: PrescriptiveDeemed Savings Type: Deemed AlgorithmSavings Methodology: Engineering estimates, Field study, AlgorithmMeasure DescriptionPump-off Controllers (POC) are micro-processor-based devices that continuously monitor pump down conditions, which is the condition when the fluid in the well bore is insufficient to warrant continued pumping. These controllers are used to shut down the pump when the fluid falls below a certain level and “fluid pounding” occurs. POCs save energy by optimizing the pump run-times to match the flow conditions of the well.Eligibility CriteriaThe POC measure retrofit is available for existing wells (wells with an existing API number prior to September 11th, 2014) with rod pumps using 15 hp or larger motors operating on time clock controls or less efficient devices. These cannot be integrated with a variable frequency drive, and only apply to POCs using load cells, which measure the weight on the rod string for greater precision. Additionally, the POC must control a conventional well (above ground, vertical, with a standard induction motor of 480V or less). Baseline ConditionThe baseline condition is an existing conventional well (with an API number prior to September 11th, 2014) with rod pumps operating on time clock controls or less efficient control devices.High-Efficiency ConditionThe efficient condition is the same existing well retrofitted with a pump-off controller. Energy and Demand Savings MethodologyTwo main sources were referenced to develop the savings methods for the POC measure: Electrical Savings in Oil Production (SPE 16363), which identified a relationship between volumetric efficiency and pump run times, and the 2006-2008 Evaluation Report for PG&E Fabrication, Process, and Manufacturing Contract Group, which showed a reduction in savings from the SPE 16363 paper. These two methods were the basis of the current savings calculations and deemed inputs listed below. However, to develop Texas-specific stipulated values, field and metering data will be collected in 2015 and used to calibrate and update the savings calculation methods and input variables for a future version of the TRM.Savings Algorithms and InputsThe energy and demand algorithms and associated input variables are listed below:Energy Savings kWh=kWavg*TimeClock%On-POC%On*8760Equation SEQ Equation \* ARABIC 113Demand Savings kW=EnergySavings8760Equation SEQ Equation \* ARABIC 114The inputs for the energy and peak coincident demand savings are listed below: kWavg=HP×0.746×LFMESMEEquation SEQ Equation \* ARABIC 115POC%On=RunConstant+RunCoefficient×VolumetricEfficiency%×TimeClock%On×100100Equation SEQ Equation \* ARABIC 116Where:kWavg=The demand used by each rod pumpHP =Rated pump motor horsepower0.746=Conversion factor from HP to kWLF = Motor load factor – ratio of average demand to maximum demand, see Table 2-114 ME=Motor efficiency, based on NEMA Standard Efficiency Motor, see Table 2-115SME=Mechanical efficiency of sucker rod pump, see Table 2-114TimeClock%On=Stipulated baseline timeclock setting, see Table 2-114Runconstant, Runcoefficient=8.336, 0.956. Derived from SPE 16363VolumetricEfficiency%=Average well gross production divided by theoretical production (provided on rebate application)Deemed Energy and Demand Savings TablesTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 114: Deemed Variables for Energy and Demand Savings CalculationsVariableStipulated/Deemed ValuesLF (Load Factor)25%ME (motor efficiency)See Table 2-115SME (pump mechanical efficiency)95%Timeclock%On65%Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 115: NEMA Premium Efficiency Motor EfficienciesMotor HorsepowerNominal Full Load EfficiencyOpen Motors (ODP)Enclosed Motors (TEFC)6 poles4 poles2 poles6 poles4 poles2 poles1200 rpm1800 rpm3600 rpm1200 rpm1800 rpm3600 rpm1591.7%93.0%90.2%91.7%92.4%91.0%2092.4%93.0%91.0%91.7%93.0%91.0%2593.0%93.6%91.7%93.0%93.6%91.7%3093.6%94.1%91.7%93.0%93.6%91.7%4094.1%94.1%92.4%94.1%94.1%92.4%5094.1%94.5%93.0%94.1%94.5%93.0%6094.5%95.0%93.6%94.5%95.0%93.6%7594.5%95.0%93.6%94.5%95.4%93.6%10095.0%95.4%93.6%95.0%95.4%94.1%12595.0%95.4%94.1%95.0%95.4%95.0%15095.4%95.8%94.1%95.8%95.8%95.0%20095.4%95.8%95.0%95.8%96.2%95.4%Claimed Peak Demand Savings Because the operation of the POC coincident with the peak demand period is uncertain, a simple average of the total savings over the full year (8760 hours) is used, as shown in REF _Ref409104639 \h Equation 114.Measure Life and Lifetime SavingsThe EUL for this measure is 15 years.Program Tracking Data & Evaluation RequirementsThe following primary inputs and contextual data should be specified and tracked within the program database to inform the evaluation and apply the savings properly. Motor MakeMotor Model NumberRated Motor HorsepowerMotor Type (TEFC or ODP)Rated Motor RPMBaseline control type and timeclock % on time (or actual on-time schedule)Volumetric EfficiencyField data on actual energy use and post-run timesReferences and Efficiency StandardsPetitions and RulingsPUCT Docket 42551 – Provides energy and demand savings calculations and EULRelevant Standards and Reference SourcesBullock, J.E. “SPE 16363 Electrical Savings in Oil Production”, (paper presented at the Society of Petroleum Engineers California Regional Meeting held in Ventura, California, April 8-10, 1987).79 FR 30933. Full-Load Efficiencies for General Purpose Electric Motors [Subtype I] 2006-2008 Evaluation Report for PG&E Fabrication, Process and Manufacturing Contract Group. Calmac Study ID: CPU0017.01. Itron, Inc. Submitted to California Public Utilities Commission. February 3, prehensive Process and Impact Evaluation of the (Xcel Energy) Colorado Motor and Drive Efficiency Program, FINAL. TetraTech. March 28, 2011.Document Revision HistoryTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 116: Pump-off Controller HistoryTRM VersionDateDescription of Changev2.101/30/2015TRM v2.1 originNonresidential: Renewables Solar Photovoltaic (PV) Measure OverviewTRM Measure ID: NR-RN-PVMarket Sector: CommercialMeasure Category: RenewablesApplicable Building Types: AllFuels Affected: Electricity Decision/Action Type: N/AProgram Delivery Type: Prescriptive RebateDeemed Savings Type: Deemed Savings Values and CalculationSavings Methodology: Algorithms, Model-Calculator (PVWatts?)Measure DescriptionThis section summarizes the savings calculations of the Solar Photovoltaic Standard Offer, Market Transformation, and Pilot programs. These programs are offered by the Texas utilities, with the primary objective to achieve cost-effective energy savings and peak demand savings. Participation in the Solar Photovoltaic program involves the installation of a solar photovoltaic system. There are two primary methods used to estimate savings. The deemed method uses deemed algorithms, and the M&V method uses a simulation tool: the National Renewable Energy Laboratory’s (NREL) PVWatts?. Each utility has a minimum and maximum incentivized system size, as shown in REF _Ref366143749 \h Table 2117, as well as additional eligibility criteria.Table STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 117: Incentivized System Ranges by UtilityUtilityMinimum Incentivized Size [kW]Maximum Incentivized Size [kW]Oncor1 kWN/AAEP (all entities)1 kW25 kWEl Paso Electric (EPE)1 kW10 kWEligibility CriteriaA project will be eligible for rebates under the Solar Photovoltaic programs if the following criteria are met:Eligible equipment must be new, and used for individually metered commercial buildings. Used, refurbished, and existing solar PV systems are not eligible for incentives.System ranges must be met, as described above in Table 2-117.Solar electric systems must deliver energy to a building’s electrical distribution system which is connected to the utility. Portable systems, systems of a temporary nature, and off-grid systems are ineligible.Each utility may have additional program eligibility requirements, which are listed here. These requirements are provided for reference purposes only, and are not listed in any PUCT-approved petition. Therefore, these utility-specific eligibility requirements may be subject to change.Oncor:Electrical output of the installed solar PV system is limited to 75% of the host customer’s demand during summer peak demand. Additionally, annual energy generation should not exceed the customer’s annual energy consumption.A deemed savings approach can only be used for “standard” systems. A standard system, for both residential and nonresidential PV systems, is defined as a system that does not exceed an azimuth angle of +/- 20? of south, and has a tilt angle between 0? (horizontal) and [system latitude + 15?]. The azimuth angle requirement is irrelevant for flat panel systems. Systems that fall outside of these requirements are considered non-standard systems, and are required to use a site-specific approach for energy and demand production impacts.El Paso Electric & AEP:Modules and Inverters must be new and certified to UL 1741 standards by a Nationally Recognized Testing Laboratory (NRTL). Eligible modules must be warranted for at least 10 years to produce at least 90% of their rated power output, and for at least 20 years to produce at least 80% of their rated power output.Energy produced will be monitored by a utility-provided Revenue-Grade Solar (REC) Meter.The estimated annual electrical energy output of a solar electric system, as modeled by National Renewable Energy Laboratory’s (NREL) PVWatts? and considering an appropriate factor for shading, must be at least 80% of the estimated annual energy output for an optimally-sited, un-shaded system of the same DC capacity.A deemed savings approach is used to claim savings for all eligible systems, however, no mention of this deemed savings approach is found in any of the EPE or AEP program manuals. The deemed savings approach used is the same as is used by Oncor, and listed below in the section on REF _Ref372881679 \h \* MERGEFORMAT Savings Algorithms and Input Variables. The EPE and AEP program manuals actually discuss the method of savings calculations as an M&V Methodology, however, project desk reviews performed for the 2012 evaluations did not find any of these M&V methods being used. The M&V methodology, which is currently being used by Oncor for non-standard installations, is listed below in the section titled, REF _Ref372881893 \h \* MERGEFORMAT M&V Methodology.Baseline Condition PV system not currently installed (typical), or production capacity of an existing system is less than any utility requirements, so that additional panels can be added.High-Efficiency ConditionPV systems must meet the eligibility criteria shown above to be eligible for incentives. Energy and Demand Savings Methodology Savings Algorithms and Input Variables The deemed energy and demand savings methodology is used by all utilities. An alternate approach for ‘non-standard’ installations is also available state-wide.Energy and demand savings methodology for standard installations use a deemed algorithm based on the system size. Deemed Energy Savings kWh=1.6×WattsDCSTCEquation SEQ Equation \* ARABIC 117Deemed Demand Savings kW=0.83×kWDCSTCEquation SEQ Equation \* ARABIC 118Where:1.6=Energy factor 0.83=Demand factor NOTEREF _Ref366154279 \f \h 195 WattsDCSTC=The system’s factory-rated output at standard test conditions (STC), which assumes 1,000 W/m2 of solar radiation and 25?C cell operating temperatureFor non-standard installations, the method of calculating savings is the same, based on the deemed savings methodology; however, additional information has to be collected to ensure that these projects are still eligible to be incentivized. See the section labeled REF _Ref366155261 \h \* MERGEFORMAT Program Tracking Data & Evaluation Requirements below to see the additional information needing to be collected.M&V MethodologyThe estimated annual electrical energy output of the proposed system shall be derived from PVWatts? and shall consider separately the effects of tilt, orientation and shading on each array and/or string, as appropriate. The effect of shading shall be determined using a Solar Pathfinder or equivalent instrument. As a general rule, multiple shading measurements should be made along the lower or southern edge of an array, and/or locations where shading is most prevalent. Non-Standard Installation:PUCT Docket No. 40885 allows for alternative means for estimating deemed savings for solar PV systems for non-standard installations, allowing commercial customers around the state access to utility incentives for systems installed on roofs – or portions of roofs – that are not within 20 degrees of south, or for which the tilt angle must exceed 15 degrees from horizontal due to site specific considerations. The proposed alternative would also facilitate the installation of single-axis or two-axis tracking systems. For those solar PV installations that do not conform to the installation standards of the existing deemed savings, the deemed demand and energy savings be established by modeling the performance of the system using PVWatts? Version1. Claimed Peak Demand SavingsRefer to Volume 1, Appendix B: Peak Demand Reduction Documentation for further details on peak demand savings and methodology.Measure Life and Lifetime SavingsThe Effective Useful Life (EUL) for solar PV has been set at 30 years, based on PUCT Docket No. 36779. Additional Calculators and ToolsOncor’s Solar PV Savings Summary Sheet Using PV Watts. This calculator provides deemed savings estimates for standard-installation PV systems. For non-standard installation PV systems, the results from PVWatts? or from M&V should be input into the calculator. Program Tracking Data & Evaluation RequirementsThe following information will be required to be collected to determine the project eligibility. Project location (city)DC rating for the systemStandard or Non-Standard SystemSavings approach type: Deemed algorithm or PVWatts?System LatitudeSystem TiltSystem AzimuthReferences and Efficiency StandardsPetitions and RulingsPUCT Docket 40885 – Allows for alternative means for estimating deemed savings for solar PV systems is proposed for unconventional installations, allowing commercial customers around the state access to utility incentives for systems installed on roofs – or portions of roofs – that are not within 20 degrees of south, or for which the tilt angle must exceed 15 degrees from horizontal due to site specific considerations. The proposed alternative would also facilitate the installation of single-axis or two-axis tracking systems. PUCT Docket 36779 – Provides estimate for EUL. Relevant Standards and Reference SourcesEl Paso Electric Solar PV Pilot Program Guidebook. Program Year 2013. . Accessed 09/09/2013.AEP. SMART Source Solar PV Program Guidebook. Program Year 2013. . Accessed 09/09/2013.Oncor. Solar Photovoltaic Standard Offer Program. . Accessed 09/09/2013.Document Revision HistoryTable STYLEREF 1 \s 2 SEQ Table \* ARABIC \s 1 118: Nonresidential Solar Photovoltaic HistoryTRM VersionDateDescription of Changev1.011/25/2013TRM V1.0 originV3.111/05/2015Updated to reflect EPE’s 2016 program, and revised Maximum Incentivized Size for EPE from 50 to 10 kW.APPENDIX C: Nonresidential Lighting Factors Comparison TablesThe following appendix shows a comparison of deemed values used across utilities and implementers for the following lighting measure inputs, by building type. Note the calculators used may not represent the most recent calculators, and are only provided here as a snapshot comparison of similarities and differences across utilities.Hours of Operation (HOU)Coincidence Factors (CF)Energy Adjustment Factors (EAF)Power Adjustment Factors (PAF)Table C STYLEREF 1 \s 0 SEQ Table \* ARABIC \s 1 1: Operating Hours Building Type, By UtilityBuilding Type CodeBuilding Type DescriptionOperating HoursDocket 39146LSF CalculatorsOncor CalculatorEduc. K-12, No SummerEducation (K-12 w/o Summer Session)2,7772,7772,777Education, SummerEducation: College, University, Vocational, Day Care, and K-12 w/ Summer Session3,5773,5773,577Non-24-Hr RetailFood Sales – Non-24-Hr Supermarket/Retail4,7064,7064,70624-Hr Retail24-Hr Supermarket/Retail6,9006,9006,900Fast FoodFood Service – Fast Food6,1886,1886,188Sit-down Rest.Food Service – Sit-down Restaurant4,3684,3684,368Health InHealth Care (In Patient)5,7305,7305,730Health OutHealth Care (Out Patient)3,3863,3863,386Lodging, CommonLodging (Hotel/Motel/Dorm), Common Area6,6306,6306,630Lodging, RoomsLodging (Hotel/Motel/Dorm), Rooms3,0553,0553,055ManufacturingManufacturing5,7405,7405,740MF CommonMulti-family Housing, Common Areas4,7724,7724,772Nursing HomeNursing and Residential Care4,2714,2714,271OfficeOffice3,7373,7373,737OutdoorOutdoor Lighting Photo-Controlled3,9963,9964,145*ParkingParking Structure7,8847,8847,884Public AssemblyPublic Assembly2,6382,6382,638Public OrderPublic Order and Safety3,4723,4723,472ReligiousReligious Worship1,8241,8241,824Retail Non-mall/stripRetail (Excl. Mall and Strip Center)3,6683,6683,668Enclosed MallRetail (Enclosed Mall)4,8134,8134,813Strip/Non-enclosed MallRetail (Strip Center and Non-enclosed Mall)3,9653,9653,965Service (Non-food)Service (Excl. Food)3,4063,4063,406Non-refrig. WarehouseWarehouse (Non-refrigerated)3,5013,5013,501Refrig. WarehouseWarehouse (Refrigerated)3,7983,7983,798Table C STYLEREF 1 \s 0 SEQ Table \* ARABIC \s 1 2: Coincidence Factors Building Type, By UtilityBuilding Type CodeBuilding Type DescriptionCoincidence FactorsDocket 39146LSF CalculatorsOncor CalculatorEduc. K-12, No SummerEducation (K-12 w/o Summer Session)47%47%47%Education, SummerEducation: College, University, Vocational, Day Care, and K-12 w/ Summer Session69%69%69%Non-24-Hr RetailFood Sales – Non-24-Hr Supermarket/Retail95%95%95%24-Hr Retail24-Hr Supermarket/Retail95%95%95%Fast FoodFood Service – Fast Food81%81%81%Sit-down Rest.Food Service – Sit-down Restaurant81%81%81%Health InHealth Care (In Patient)78%78%78%Health OutHealth Care (Out Patient)77%77%77%Lodging, CommonLodging (Hotel/Motel/Dorm), Common Area82%82%82%Lodging, RoomsLodging (Hotel/Motel/Dorm), Rooms25%25%25%ManufacturingManufacturing73%73%73%MF CommonMulti-family Housing, Common Areas87%87%87%Nursing HomeNursing and Residential Care78%78%78%OfficeOffice77%77%77%OutdoorOutdoor Lighting Photo-Controlled0%0% / 61%*64%*ParkingParking Structure100%100%100%Building Type CodeBuilding Type DescriptionCoincidence FactorsDocket 39146LSF CalculatorsOncor CalculatorPublic AssemblyPublic Assembly56%56%56%Public OrderPublic Order and Safety75%75%75%ReligiousReligious Worship53%53%53%Retail Non-mall/stripRetail (Excl. Mall and Strip Center)90%90%90%Enclosed MallRetail (Enclosed Mall)93%93%93%Strip/Non-enclosed MallRetail (Strip Center and Non-enclosed Mall)90%90%90%Service (Non-food)Service (Excl. Food)90%90%90%Non-refrig. WarehouseWarehouse (Non-refrigerated)77%77%77%Refrig. WarehouseWarehouse (Refrigerated)84%84%84%Table C STYLEREF 1 \s 0 SEQ Table \* ARABIC \s 1 3: Operating Hour and Coincidence Factor Sources from Petition 39146Table C-3: (Cont.) Operating Hour and Coincidence Factor Sources from Petition 39146Petition 39146, Table 8, References:Navigant (2002) / XENCAP Study. Navigant Consulting, Inc. (September, 2002). U.S. Lighting Market Characterization: Volume I: National Lighting Inventory and Energy Consumption Estimate. U.S. Department of Energy Office or Energy Efficiency and Renewable Energy, Building Technologies Program.SCE (2007) The citation for this report appears to be missing from the petition. The only SCE report in the petition is this one from 2006: Southern California Edison, Design & Engineering Services Customer Service Business Unit. (December 15, 2006). Fiber Optic Lighting in Low Temperature Reach-In Refrigerated Display Cases. Southern California Edison.RLW (2007). United Illuminating Company and Connecticut Light & Power. Final Report, 2005 Coincidence Factor Study. . Accessed 09/19/2013.Oncor Street Lighting Tariff Filing. Only this general description is provided. There is no specific reference or citation.Conn (2007). RLW Analytics. (September, 2006). CT & MA Utilities 2004-2005 Lighting Hours of Use for School Buildings Baseline Study. Prepared for Connecticut Light & Power Company, Western Massachusetts Electric Company, United Illuminating Company.Existing PUCT-Approved Value. A specific petition is not cited, but a table is presented that “….outlines the existing M&V Guidelines approved by the PUC...”Operating Hours Calculation spreadsheet (lmc_vol1_final_tables.xls). This spreadsheet was prepared by Frontier, and it contains the detailed calculations that are presented in Appendix A of petition 39146.Table C STYLEREF 1 \s 0 SEQ Table \* ARABIC \s 1 4: Lighting Power Densities, By Building Type, By UtilityBuilding Type CodeBuilding Type DescriptionLighting Power Density (LPD) or New ConstructionOncor CalculatorLSF CalculatorsAutomotive Facility--0.900.90Convention Center--1.201.20Court House--1.201.20Dining: Bar Lounge/Leisure--1.301.30Dining: Cafeteria/Fast Food--1.401.40Dining: Family--1.601.60Dormitory--1.001.00Exercise Center--1.001.00Gymnasium--1.101.10Health Center--1.001.00Hospital--1.201.20Hotel--1.001.00Library--1.301.30Manufacturing Facility--1.301.30Motel--1.001.00Motion Picture Theater--1.201.20Multi-family--0.700.70Museum--1.101.10Penitentiary--1.001.00Performing Arts Theater--1.601.60Police/Fire Station--1.001.00Post Office--1.101.10Retail--1.501.50School/University--1.201.20Sports Arena--1.101.10Town Hall--1.101.10Transportation--1.001.00Warehouse--0.800.80Workshop--1.401.40Educ K-12, No Summer*Education (K-12 w/o Summer Session)----Education, Summer*Education: College, University, Vocational, Day Care, and K-12 w/ Summer Session----Non-24-Hr Retail*Food Sales – Non-24-Hr Supermarket/Retail----24-Hr Retail*24-Hr Supermarket/Retail----Fast Food*Food Service – Fast Food----Sit-down Rest.*Food Service – Sit-down Restaurant------Food Service – Sit-down Restaurant - Dining: Bar Lounge/Leisure ----Health In*Health Care (In Patient)----Health Out*Health Care (Out Patient)----Lodging, Common*Lodging (Hotel/Motel/Dorm), Common Area----Lodging, Rooms*Lodging (Hotel/Motel/Dorm), Rooms----Manufacturing*Manufacturing----MF Common*Multi-family Housing, Common Areas----Nursing Home*Nursing and Residential Care----Office*Office1.001.00--Outdoor - Outdoor Uncovered Parking Area: Zone 1--0.04--Outdoor - Outdoor Uncovered Parking Area: Zone 2--0.06--Outdoor - Outdoor Uncovered Parking Area: Zone 3--0.10--Outdoor - Outdoor Uncovered Parking Area: Zone 4--0.13Outdoor*Outdoor Lighting Photo-Controlled----Parking*Parking Structure0.300.30Public Assembly*Public Assembly------Public Assembly - Convention Center ------Public Assembly - Exercise Center ------Public Assembly - Gymnasium------Public Assembly - Hospital ------Public Assembly - Library------Public Assembly - Motion Picture Theater ------Public Assembly - Museum------Public Assembly - Performing Arts Theater ------Public Assembly - Post Office ------Public Assembly - Sports Arena ------Public Assembly - Transportation ------Public Order and Safety - Court House ------Public Order and Safety - Penitentiary ------Public Order and Safety - Police/Fire Station ----Public Order*Public Order and Safety----Religious*Religious Worship1.301.30Retail Non-mall/strip*Retail (Excl. Mall and Strip Center)----Enclosed Mall*Retail (Enclosed Mall)----Strip/Non-enclosed Mall*Retail (Strip Center and Non-enclosed Mall)----Service (Non-food)*Service (Excl. Food)----Non-refrig. Warehouse*Warehouse (Non-refrigerated)----Refrig. Warehouse*Warehouse (Refrigerated)----Table C STYLEREF 1 \s 0 SEQ Table \* ARABIC \s 1 5: Energy Adjustment Factors By UtilityBuilding Type CodeControl CodesEnergy Adjustment FactorsDocket 40668LSF CalculatorsOncor Calculator (Retrofit)Oncor Calculator (New Construction)No controls measuresNone1.001.001.001.00Stipulated DC - Continuous DimmingDC- cont0.700.700.700.70Stipulated DC - Multiple Step DimmingDC- step0.800.800.800.80Stipulated DC - ON/OFF (Indoor)Indoor DC - on/off0.900.900.900.90Stipulated DC - ON/OFF (Outdoor)Outdoor DC - on/off1.001.000.64*0.64*Stipulated Occupancy Sensor (OS)OS0.700.700.700.70Stipulated OS w/DC - Continuous DimmingOS - cont0.600.600.600.60Stipulated OS w/DC - Multiple Step DimmingOS - step0.650.650.650.65Stipulated OS w/DC - ON/OFF (Indoor)Indoor OS - on/off0.650.650.650.65PhotocontrolPhoto----1.00*--Table C STYLEREF 1 \s 0 SEQ Table \* ARABIC \s 1 6: Demand Adjustment Factors By UtilityBuilding Type CodeControl CodesDemand Adjustment FactorsDocket 40668LSF CalculatorsOncor Calculator K-12, No SummerAll Remaining Building TypesK-12, No SummerAll Remaining Building TypesK-12, No SummerAll Remaining Building TypesNo Controls MeasuresNone1.001.001.001.001.001.00Stipulated DC - Continuous DimmingDC- cont0.760.700.760.700.760.70Stipulated DC - Multiple Step DimmingDC- step0.840.800.840.800.840.80Stipulated DC - ON/OFF (Indoor)Indoor DC - on/off0.920.900.920.900.920.90Stipulated DC - ON/OFF (Outdoor)Outdoor DC - on/off1.001.001.001.000.64*0.64*Stipulated Occupancy Sensor (OS)OS0.800.750.800.750.800.75Stipulated OS w/DC - Continuous DimmingOS - cont0.720.650.720.650.720.65Stipulated OS w/DC - Multiple Step DimmingOS - step0.760.700.760.700.760.70Stipulated OS w/DC - ON/OFF (Indoor)Indoor OS - on/off0.760.700.760.700.760.70PhotocontrolPhoto------------APPENDIX D: Measure Life Calculations for Early Retirement ProgramsThe following appendix describes the method of calculating savings for early retirement programs. This supersedes the previous Measure Life Savings found in PUCT Dockets 40083 and 40885, and is revised to clarify the understanding of the Measure Life calculations and reduce any misrepresentation of Net Present Value (NPV) of early retirement projects. These calculations are provided in the Docket [43681]. Step 1: Determine the measure life for ER and ROB components of the calculated savings:Early Retirement ERPeriod=MLER=RULEquation SEQ Equation \* ARABIC 119Replace on Burnout ROBPeriod= MLROB=EUL-RULEquation SEQ Equation \* ARABIC 120Where:RUL=The remaining useful life determined from lookup tables based on the age of the replaced unit (or default age when actual age is unknown)EUL=The estimated useful life as specified in applicable measure from Texas TRM (or approved petition)Step 2: Calculate the ER demand and energy savings and the ROB demand and energy savings:?kWER=kWreplaced-kWinstalledEquation SEQ Equation \* ARABIC 121?kWRPB=kWbaseline-kWinstalledEquation SEQ Equation \* ARABIC 122?kWhER=kWhreplaced-kWhinstalledEquation SEQ Equation \* ARABIC 123?kWhRPB=kWhbaseline-kWhinstalledEquation SEQ Equation \* ARABIC 124Where:ΔkWER=Early retirement demand savingsΔkWROB=Replace-on-burnout demand savingskWreplaced=Demand of the retired systemkWbaseline=Demand of the baseline ROB systemkWinstalled=Demand of the replacement systemΔkWhER=Early retirement energy savingsΔkWhROB=Replace-on-burnout energy savingskWhreplaced=Energy Usage of the retired system NOTEREF _Ref382401517 \f \h 220kWhbaseline=Energy Usage of the baseline ROB system NOTEREF _Ref382401484 \f \h 221kWhinstalled=Energy Usage of the replacement system NOTEREF _Ref382401509 \f \h 222Step 3: Calculate the avoided capacity and energy cost contributions of the total NPV for both the ER and ROB components:NPVER, kW=ACkW×1+ed-e×1-1+e1+dMLER×?kWEREquation SEQ Equation \* ARABIC 125NPVROB, kW=ACkW×1+ed-e×1-1+e1+dMLROB×1+eMLER1+dMLER×?kWROBEquation SEQ Equation \* ARABIC 126NPVER, kWh=ACkWh×1+ed-e×1-1+e1+dMLER×?kWhEREquation SEQ Equation \* ARABIC 127NPVROB, kWh=ACkWh×1+ed-e×1-1+e1+dMLROB×1+eMLER1+dMLER×?kWhROBEquation SEQ Equation \* ARABIC 128Where:NPVER, kW=Net Present Value (kW) of ER projectsNPVROB, kW=Net Present Value (kW) of ROB projectsNPVER, kWh=Net Present Value (kWh) of ER projectsNPVROB, kW=Net Present Value (kWh) of ROB projectse=Escalation Rate d = Discount rate weighted average cost of capital (per utility) NOTEREF _Ref382306651 \f \h 223ACkW =Avoided cost per kW ($/kW) NOTEREF _Ref382306651 \f \h 223ACkWh =Avoided cost per kWh ($/kWh) NOTEREF _Ref382306651 \f \h 223 MLER=ER Measure Life (calculated in REF _Ref379538441 \h \* MERGEFORMAT Equation 119)MLROB=ROB measure life (calculated in REF _Ref379538491 \h \* MERGEFORMAT Equation 120)Note: Demand and energy savings (ΔkW and ΔkWh) used to estimate NPV in REF _Ref379538655 \h Equation 125 through REF _Ref379538661 \h Equation 128 are the savings estimated using the same equations as have been in use for some time in the commercial HVAC programs (equations A-1 and A-2 in Petition 40083). However, the efficiency values used in estimating the equations differ from those used in Petitions 40083 and 40885: (1) the Early Retirement savings, earned for the RUL of the replaced system, are estimated using the difference between the efficiency of the replaced system and that of the installed system; (2) the replace-on-burnout savings, earned over the measure EUL minus the project’s RUL, are estimated using the difference between the replace-on-burnout baseline efficiency and the efficiency of the installed system.Step 4: Calculate the total capacity and energy cost contributions to the total NPV:NPVTotal, kW=NPVER,kW+NPVROB,kWEquation SEQ Equation \* ARABIC 129NPVTotal, kWh=NPVER,kWh+NPVROB,kWhEquation SEQ Equation \* ARABIC 130Where:NPVTotal, kW=Total capacity contributions to NPV of both ER and ROB component NPVTotal, kWh=Total energy contributions to NPV of both ER and ROB component Step 5: Calculate the capacity and energy cost contributions to the NPV without weighting by demand and energy savings for a scenario using the original EUL:NPVEUL, kW=ACkW×1+ed-e×1-1+e1+dEULEquation SEQ Equation \* ARABIC 131NPVEUL, kWh=ACkWh×1+ed-e×1-1+e1+dEULEquation SEQ Equation \* ARABIC 132Where:NPVEUL, kW=Capacity contributions to NPV without weighting, using original EULNPVTotal, kWh=Energy contributions to NPV without weighting, using original EULStep 6: Calculate the weighted demand and energy savings by dividing the combined capacity and energy cost contributions from the ER and ROB scenarios by the non-savings weighted capacity and energy cost contributions from the single EUL scenario. These weighted savings are claimed over the original measure EUL:Weighted kW=NPVTotal. kWNPWEUL, kWEquation SEQ Equation \* ARABIC 133Weighted kWh=NPVTotal. kWhNPWEUL, kWhEquation SEQ Equation \* ARABIC 134Where:Weighted kW=Weighted lifetime demand savingsWeighted kWh=Weighted lifetime energy savingsNPVTotal, kW=Total capacity contributions to NPV of both ER and ROB component, calculated in REF _Ref379539831 \h \* MERGEFORMAT Equation 129NPVTotal, kWh=Total energy contributions to NPV of both ER and ROB component, calculated in REF _Ref379539835 \h \* MERGEFORMAT Equation 130NPVEUL, kW=Capacity contributions to NPV without weighting, using original EUL, calculated in REF _Ref379539781 \h \* MERGEFORMAT Equation 133NPVTotal, kWh=Energy contributions to NPV without weighting, using original EUL, calculated in REF _Ref379539784 \h \* MERGEFORMAT Equation 134 ................
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