E-32025 DSM Evaluation Reports
53 passages
ection 2.2 – HVAC. Minnesota Department of Commerce Division of Energy Resources, State of Minnesota Technical Reference Manual for Energy Conservation Improvement Programs Version 3.1, January 2020. Dunsky Energy Consulting, Residential F...
AI summary Section 2.2 – HVAC lists technical reference manuals and energy efficiency program reports from Minnesota, Connecticut, Illinois, Iowa, and Quebec. These documents provide methodologies and data for evaluating energy conservation measures and residential fuel substitution initiatives.
Components Bibliographic References Pennsylvania Public Utility Commission (PUC), Technical Reference Manual, August 2019, Subsection 2.4 – Appliances. NRCan, 2015 Survey of Household Energy Use, Table 10.6. Calculated average annual washe...
AI summary The text lists bibliographic references related to energy efficiency, including technical manuals, household energy use surveys, and ENERGY STAR appliance certifications. Sources include the Pennsylvania Public Utility Commission, Natural Resources Canada, and Illinois Energy Efficiency Stakeholder Advisory Group, focusing on appliance standards and energy use data.
Methodology The Evaluator conducted a literature review of technical reference manuals (TRMs), NTG studies and instant rebate program impact evaluation reports across 12 jurisdictions in Canada and the United States for NTGR assumptions of...
AI summary The Evaluator reviewed technical reference manuals and NTGR studies from 12 jurisdictions to assess instant rebate program impact. Similar measures like lighting controls and thermostats were grouped based on customer motivation and program influence. Priority was given to instant rebate programs and online marketplaces, as well as participant survey data for NTGR assumptions.
ng source, and introduced a heat pump only stream for past participants to apply for the new heat pump measure; this stream excludes an energy assessment and any additional building envelope upgrades. ASFH is supported across Nova Scotia b...
AI summary The ASFH program in Nova Scotia involves seven delivery agents and 38 heat pump contractors, with energy advisors conducting pre- and post-retrofit assessments. Pre-retrofit assessments identify energy upgrades, while post-retrofit assessments verify measures using HOT2000. Heat pump installations are managed by contractors after E1 approval.
23.2.1 Electrical Energy Savings For MHEEP, electrical energy savings are calculated based on HOT2000 simulation results adjusted with billing analysis results and unitary savings values for prescriptive measures, as shown in the equation...
AI summary Electrical energy savings for the Mi'kmaw Home Energy Efficiency Project (MHEEP) are calculated using HOT2000 simulation results, adjusted with billing analysis and unitary savings values for prescriptive measures. The formula incorporates adjustment ratios (AR) derived from 2024 billing analyses and EnerGuide ratings. The methodology references the National Renewable Energy Laboratory's Uniform Methods Project.
27.2 Net Savings For Residential Behaviour, savings are obtained from the change in electricity consumption resulting from behaviours adopted by treatment group participants compared with the change in electricity consumption observed amon...
AI summary Net savings for Residential Behaviour programs are calculated by comparing electricity consumption changes between treatment and control groups, using the Uniform Methods Project (UMP) framework. Savings are net of control group changes, eliminating free-ridership adjustments. However, increased participation in other programs may require avoiding double-counting between ENS initiatives.
Jurisdictional Scan The Evaluator reviewed eight Canadian and American utilities' and program administrators' energy efficiency programs to document their BNI lighting offers, which measures are included, and whether the programs are insta...
AI summary The Evaluator reviewed energy efficiency programs from eight Canadian and American utilities, focusing on BNI lighting offers, included measures, and program types (instant vs. application-based). The scan also analyzed technical reference manuals (TRMs) to identify baseline and EUL data for BNI LED fixtures and lamps.
6.3.1 Baseline Approach and Effective Useful Life (EUL) Assumptions for Application Programs The Evaluator also investigated the baseline approach and EUL assumptions utilized for LED lighting in midstream and application rebate programs f...
AI summary The Evaluator examined baseline approaches and Effective Useful Life (EUL) assumptions for LED lighting in rebate programs across eight jurisdictions. Existing lighting baselines and EUL assumptions vary, with some programs sunsetting in 2026 due to LED market changes. Nova Scotia's current approach for BER-AR lighting measures does not account for recent LED fixture market transformations.
Where: - › : the existing nominal (bare) lamp wattage. - › : the system wattage of the efficient lamp. - › : the dimming factor as a percent of the efficient lamp's full light output. - › : the percentage of time the efficient lights are d...
AI summary The text defines variables and factors used in lighting efficiency calculations, including lamp wattage, dimming factors, interactive effects, and conversion metrics. These parameters are likely part of a technical reference manual or methodology for assessing energy efficiency in lighting programs.
ABBREVIATIONS BDM Business Development Manager BER Business Energy Rebates BNI Business, non-profit, and institutional BOpt Building Optimization CPA Customer Project Agreement DR Demand response DSM Demand-side management DSM MA Demand-si...
AI summary A list of abbreviations and their expansions used in regulatory proceedings, including terms related to energy efficiency, demand-side management, and utility programs. Key acronyms include DSM, BER, and NSUARB, with definitions covering technical, programmatic, and organizational terms.
Note on the M&V Approach Used for Compressed Air Leak Projects For most compressed air leak projects completed through Retrofit, permanent or temporary submetering was not available. In these cases, the Evaluator accepted the use of ultras...
AI summary The Evaluator accepts ultrasonic leak detectors as a valid M&V method for compressed air leak projects when submetering is unavailable, citing industry acceptance and cost considerations. Leak-down tests are deemed impractical due to production interruptions. Conservative compressor efficiency assumptions are used when facility-specific data is absent, aligning with IPMVP Core Concepts.
5 HVAC Systems This section can be very complex, depending on the building modelled, so the following should be considered as general guidelines. Please refers to E1 White Paper - Baseline HVAC System in MURBs for MURBS - Validate that all...
AI summary This section outlines general guidelines for validating HVAC systems in multi-unit residential buildings (MURBs), emphasizing alignment with shop drawings, code specifications, operating sequences, energy efficiency measures, airflow matching, and addressing software modeling bugs.
ln Electric System Demand Response Pilot Evaluation (Generic Version) - 2017 Technical Report , May 2017. Retrieved from: (last accessed 04-10-2024). The model used by the Evaluator for each subgroup consists of 168 regression models, i.e....
AI summary The evaluation of an electric system demand response pilot uses 168 regression models to correlate hourly participant load with heating degree days. Each model groups data by time of the week, using aggregated datapoints to establish baseline equations for load prediction.
Purpose The objectives of this document are to: - › Ensure consistency in gross savings values throughout the three-year DSM cycle and thus improve E1's ability to define and track targets for energy and peak demand savings - › Consolidate...
AI summary This document aims to ensure consistency in gross savings values across the three-year DSM cycle, enhancing E1's ability to track energy and peak demand savings targets. It also consolidates these values into a single reference document for program staff and E1's internal e-Technical Reference Manual (e-TRM).
Installation Rates The installation rate of 57% was drawn from the 2024 Illinois TRM[83](#page-51-0) value for window kits.
AI summary The installation rate of 57% is based on the 2024 Illinois Technical Reference Manual (TRM) value for window kits, indicating a reference to external standards in determining efficiency metrics.
Some models of smart thermostats are compatible with electrical heating systems. They operate by connecting to a single baseboard, MSHP, or in-floor heating system as opposed to a central heating system. The equation below is used to calcu...
AI summary The document discusses the calculation of energy savings from smart thermostats installed in electrical heating systems, including baseboard, MSHP, and in-floor systems. It references studies and categories of thermostats, such as programmable, non-learning smart, and advanced learning, to determine a 10.2% heating consumption savings percentage based on the 2025 Illinois TRM.
The EUL values for non-LED lighting measures were established by conducting a literature review of the most recent sources, notably technical reference manuals (TRMs) and studies, used in other jurisdictions. [Table](#page-111-3) 142 below...
AI summary The EUL values for non-LED lighting measures were determined through a literature review of recent technical reference manuals and studies from other jurisdictions. A table summarizes these values and their sources for residential measures.
Table 143: Commercial Measure Assessment Change Log Change Type Section Description Date Update 6.3.4(4) Air-source Heat Pumps Less Than 65,000 Btu/h (excluding air-to-water) Updated the minimum efficient COP default value (COPee_min) defa...
AI summary This table details updates to the Commercial Measure Assessment in various sections, including changes to COP default values, peak demand savings formulas, and references to technical manuals. The updates were made on February 27, 2026, to improve accuracy and consistency in energy efficiency calculations.
Table 171 lists the parameters and corresponding values used in the equation below for LED nightlights and the resulting unitary values. The values for displaced wattages and hours of operation are consistent with the values used by other...
AI summary The document presents an energy savings calculation formula for LED nightlights, using parameters such as old and new wattage and hours of operation. It references the Technical Reference Manual from Pennsylvania and mentions the 2025 DSM Measure Assessment Final Report.
Table 176 lists the parameters and corresponding values used in the equation below for horticultural lighting and the resulting unitary peak demand savings values. $$\textit{Unitary Peak Demand Savings} \ [kW] = \frac{(W_b[W] \times Qty_b[...
AI summary The text references a formula for calculating unitary peak demand savings in horticultural lighting, citing a study on energy use in the cannabis industry and a technical reference manual from the Iowa Utilities Commission. It includes a table and a figure reference.
The electrical energy unitary savings for circulator pumps are calculated using the equation below and savings data from Vermont adapted to Nova Scotia using each jurisdiction's average operating hours. Although the max input power tiers d...
AI summary The document discusses the calculation of electrical energy unitary savings for circulator pumps, using an equation adapted from Vermont data to Nova Scotia, considering differences in average operating hours between the two jurisdictions. The equation and parameters used are outlined in Table 179.
Table 179: Electrical Unitary Energy Savings Values for Circulator Pumps BER-IR Parameters Symbol Max Input Power < 144 W Max Input Power ≥ 144 W and < 575 W Max Input Power ≥ 575 W and < 2,500 W Reference Vermont Average Unitary Energy Sa...
AI summary The table presents electrical unitary energy savings values for circulator pumps in Nova Scotia and Vermont, comparing average operating hours and energy savings calculations. It includes energy savings values for different power ranges and references the Vermont Technical Reference Manual and assumptions for Nova Scotia operating hours.
The unitary demand savings value corresponds to the unitary energy savings divided by the HOU, as presented in the equation below. $$\textit{Unitary Demand Savings} \ [W] = \frac{\textit{Unitary Energy Savings} \ [kWh]}{\textit{HOU} \ [h]...
AI summary The document explains the calculation of unitary demand savings for circulator pumps, using a formula that divides unitary energy savings by the hours of use (HOU), adjusted by a peak coincidence factor (PCF) of 100%. It assumes continuous operation during cold winter days and references the Technical Reference Manual from Efficiency Vermont.
Table 181: Booster Pump Measure Summary Parameter BER-AR SE BES Reference Measure Description and Identification Measure High efficiency rebated after i / booster pumps nstallation - Baseline Existing boost er pumps General Parameters Inst...
AI summary Table 181 provides a summary of the Booster Pump Measure, including parameters such as installation rates, energy savings adjustment ratios, and effective useful life. It references the Technical Reference Manual (TRM) and includes details on energy and peak demand savings calculations.
Table 185: Electric Thermal Storage Measure Summary Parameter BER-AR SBES Reference Measure Description and Identification Measure load, rebated after installation Electric thermal storage systems to reduce peak demand space heating - Base...
AI summary Table 185 outlines the Electric Thermal Storage Measure Summary, detailing parameters for BER-AR and SBES, including installation rates, energy savings adjustment ratios, and effective useful life. It also references subsections in the Technical Reference Manual for additional details on energy and peak demand savings.
Table 187: Electrical Unitary Energy Savings Values for Advanced RTU Controls Parameter Symbol BER-AR Reference Indicator of Cooling in the RTU AC RTU with AC: 1 RTU without AC: 0 - Indicator of Electrical Heating in the RTU ElecHeat RTU w...
AI summary Table 187 presents electrical unitary energy savings values for advanced RTU controls, including parameters such as cooling indicators, COP, and energy savings factors. The table references specification data and external sources like the 2021 Illinois TRM and evaluations from 2016.
Table 189: Unitary Peak Demand Savings Values for Advanced RTU Controls Parameter Symbol BER-AR Reference Demand Savings Factor [kW/hp] 𝐷𝑆𝑉𝐺 0.252 2025 Massachusetts Peak Coincidence Factor [-] 𝑃𝐶𝐹 1.0 TRM211 Conversion Factor [W/kW] - 1,0...
AI summary Table 189 presents unitary peak demand savings values for advanced RTU controls, including parameters such as demand savings factor, peak coincidence factor, and conversion factor. The table references a 2025 Massachusetts Technical Reference Manual and includes a calculation method for unitary peak demand savings based on specification data for each rebated unit.
Table 236: Unitary Peak Demand Savings Values for Cycling Air Dryers Parameter Symbol BER-AR, SBES Reference Peak Coincidence Factor PCF Actual or 0.77 As per Subsection 6.5.2 Hours of Use [hours/year] HOU Actual or 1-shift (8/5) – 2,080 h...
AI summary Table 236 provides unitary peak demand savings values for cycling air dryers, including parameters such as peak coincidence factor, hours of use, and unitary peak demand savings. The table references Efficiency Vermont's Technical Reference User Manual from 2015.
Table 238: Electrical Unitary Energy Savings Values for Air-entraining Air Nozzles Parameter Symbol BER-AR, SBES Reference Compressor kW/CFM COMP Modulating w/ BD = 0.32 Load/No Load w/ 1 gal/CFM = 0.32 Load/No Load w/ 3 gal/CFM = 0.30 Loa...
AI summary Table 238 provides electrical unitary energy savings values for air-entraining air nozzles, including compressor efficiency, usage percentages, baseline and efficient nozzle capacities, and annual hours of use. It references the Vermont TRM (2015) and outlines calculations for energy savings.
$$\Delta kW = \Delta kWh \times PCF/HOU$$ Table 239: Unitary Peak Demand Savings Values for Air-entraining Air Nozzles Parameter Symbol BER-AR, SBES Reference Peak Coincidence Factor PCF Actual or 0.77 As per Subsection 6.5.2 Hours of Use...
AI summary The document presents a formula for calculating peak demand savings using the peak coincidence factor (PCF) and hours of use (HOU). It also includes a table with parameters related to air-entraining air nozzles and their installation rates.
The electrical unitary energy savings for no-loss drains are calculated using the variables defined and listed in the equation[262](#page-197-1) and [Table](#page-198-0) 241 below. $$\Delta kWh = ALR \times COMP \times OPEN \times AF \time...
AI summary The document provides a formula for calculating electrical unitary energy savings for no-loss drains, referencing an equation and a table. It also cites a source from Efficiency Vermont's Technical Reference User Manual (TRM) from 2015.
Table 241: Electrical Unitary Energy Savings Values for No-loss Drains Parameter Symbol BER-AR, SBES Reference Air Loss Rate [CFM] ALR See Table 242 Vermont TRM (2015)263 Compressor Efficiency [kW/CFM] COMP Modulating w/ BD = 0.32 Load/No...
AI summary The document presents two tables related to energy savings calculations for no-loss drains in electrical systems. The first table outlines parameters such as air loss rate, compressor efficiency, adjustment factors, and unitary energy savings. The second table provides average air loss rates based on pressure and orifice diameter. Both tables reference the Vermont TRM (2015) for data and calculations.
Table 243: Unitary Peak Demand Savings Values for No-loss Drains Parameter Symbol BER-AR, SBES Reference Peak Coincidence Factor PCF Actual or 0.77 As per Subsection 6.5.2 Hours of Use [hours/year] HOU Actual 1-Shift (8/5) – 2,080 hours 2-...
AI summary Table 243 outlines unitary peak demand savings values for no-loss drains, including parameters like the Peak Coincidence Factor (PCF), Hours of Use (HOU), and Unitary Peak Demand Savings (∆𝑘𝑊). These values are calculated based on specification data for each rebated unit and referenced in the Technical Reference Manual (TRM).
Table 246: Electrical Unitary Energy Savings Values for VFD Pumps and Fans Parameter Symbol Value Reference Rated Horsepower of the Motor [HP] HP Varies per project Project documentation Motor Load Factor [%] LF Varies per project (If unkn...
AI summary Table 246 outlines the parameters and calculations used to determine electrical unitary energy savings values for VFD pumps and fans, including factors such as motor load, efficiency, and operating hours, with references to project documentation and the Minnesota TRM.
Table 247: Part Load Ratio for Flow Rate Based on Control Types[268](#page-2-1) Flow Rate (percentage of design flow) Control Type 0% to 10% 10% to 20% 20% to 30% 30% to 40% 40% to 50% 50% to 60% 60% to 70% 70% to 80% 80% to 90% 90% to 100...
AI summary Table 247 presents part load ratios for flow rates based on different control types for pumps and fans. It compares baseline values with VFD (Variable Frequency Drive) values, showing efficiency differences across various control mechanisms.
Table 248: Electrical Unitary Peak Demand Values for VFDs for non-HVAC Applications Parameter Symbol Value Reference Part Load Ratio for the Average Flow Fraction During the Weekday Peak Time Period 𝑃𝐿𝑅𝐵𝑎𝑠𝑒𝑙𝑖𝑛𝑒,𝐹𝐹𝑝𝑒𝑎𝑘 Based on baseline con...
AI summary Table 248 presents electrical unitary peak demand values for VFDs in non-HVAC applications. It includes parameters such as part load ratios, peak coincidence factors, and unitary peak demand savings, with values based on baseline control, VFD control, and project documentation.
The electrical unitary energy savings for cooler night covers and display strip curtains are calculated using the variables defined and listed in the equation and [Table](#page-11-0) 256 below.[271](#page-10-1) ℎ = ( × × × )⁄( × 1,000) × ×...
AI summary The document discusses the calculation of electrical unitary energy savings for cooler night covers and display strip curtains, using an equation and variables outlined in Table 256. The equation is sourced from Efficiency Vermont's Technical Reference User Manual (TRM) under the Refrigeration section.
Table 256: Electrical Unitary Savings Values for Cooler Night Covers and Display Strip Curtains BER-AR R, SBES Parameter Symbol Cooler Night Covers Display Strip Curtains Reference Loss of Cold Air or Heat Gain for Refrigerated Cases with...
AI summary The text presents a table with electrical unitary savings values for Cooler Night Covers and Display Strip Curtains, including parameters such as heat gain, efficiency factors, and usage hours. It outlines how savings are calculated based on these variables and references the Technical Reference Manual (TRM) for data sources.
Table 257: Unitary Peak Demand Savings Values for Cooler Night Covers and Display Strip Curtains BER-AR, SBES Parameter Symbol Cooler Night Covers Display Strip Curtains Reference Peak Coincidence Factor PCF 1 As per Subsection 6.9.2 Unita...
AI summary Table 257 presents unitary peak demand savings values for Cooler Night Covers and Display Strip Curtains, including parameters like Peak Coincidence Factor and Unitary Peak Demand Savings. The table outlines calculation methods and references subsections from the Technical Reference Manual.
Table 260: Unitary Peak Demand Savings Values for Zero-energy Doors Parameter Symbol BER-AR, SBES Reference Peak Coincidence Factor PCF 1 As per Subsection 6.9.2 Unitary Peak Demand Savings [kW] ∆𝑘𝑊 Calculation based on specification data...
AI summary Table 260 presents unitary peak demand savings values for zero-energy doors, focusing on parameters such as the Peak Coincidence Factor (PCF) and Unitary Peak Demand Savings (∆𝑘𝑊). The table includes installation rates and references to technical guidelines.
$$\Delta kW = \Delta kWh \times PCF/HOU$$ 285 Ibid. BER-AR, SBES 286 Ibid. 283 Efficiency Vermont, Technical reference User Manual , March 16, 2015. 284 Ibid.
AI summary The text includes a mathematical formula relating power and energy, references to technical documents, and mentions of Efficiency Vermont's Technical Reference User Manual from 2015. It also includes page and footnote references.
Table 282: Electrical Unitary Energy Savings Values for Brushless DC Motors Parameter Symbol Value for BER-AR and SBES Reference Motor Output [kW] kWoutput 0.015 for cases and 0.042 for walk-ins Iowa TRM, 2023 Baseline Motor Efficiency [-]...
AI summary Table 282 outlines the electrical unitary energy savings values for brushless DC motors, including parameters such as motor output, baseline and efficient motor efficiency, hours of use, and coefficient of performance, with references to various technical documents and studies.
Table 283: Unitary Peak Demand Savings Values for Brushless DC Motors Parameter Symbol BER-AR, SBES Reference Peak Coincidence Factor PCF 1 As per Subsection 6.9.2 Unitary Peak Demand Savings [kW] ∆𝑘𝑊 Calculation based on specification dat...
AI summary Table 283 presents unitary peak demand savings values for brushless DC motors, including parameters like the Peak Coincidence Factor (PCF) and calculations based on specification data for rebated units. References include technical documents and reports related to energy efficiency and refrigeration load shapes.
Table 285: Electrical Unitary Energy Savings Values for Refrigerated Vending Machine Controllers Parameter Symbol BER-AR, SBES Reference Rated Power of Connected Equipment [kW] kWrated Actual Use information in TS Hours of Use [h/year] HOU...
AI summary The text presents Table 285, which outlines electrical unitary energy savings values for refrigerated vending machine controllers. The table includes parameters such as rated power, hours of use, percent savings factor, quantity of vending machines, and unitary energy savings. It references the Massachusetts TRM and provides calculation methods for energy savings.
Table 299: Unitary Peak Demand Savings Values for Agriculture Heat Pads Parameter Symbol BER-AR, SBES Reference Peak Coincidence Factor PCF 0.84 As per Subsection 6.10.2 Unitary Peak Demand Savings [kW] ∆𝑘𝑊 Calculation based on specificati...
AI summary This table presents unitary peak demand savings values for agriculture heat pads, including the peak coincidence factor (PCF) and the calculation method for unitary peak demand savings. It references Subsection 6.10.2 of the Technical Reference Manual (TRM) for the PCF value.
Table 301: Electrical Unitary Energy Savings Values for Tractor Engine Block Heater Timers Parameter Symbol BER-AR, SBES Reference Power Consumption of Engine Block Heater [W] Pheater Actual Use information in TS Baseline Hours of Use [h/d...
AI summary Table 301 outlines parameters for calculating unitary energy savings from tractor engine block heater timers, including power consumption, baseline and efficient hours of use, and days of use per year. These values are used in conjunction with Table 302 to calculate peak demand savings.
6.11.2 Peak Demand Savings Factor For kitchen measures, peak demand savings are determined by multiplying the wattage by a PCF value of 68%, which was established as part of the 2015 evaluation of BER.[318](#page-53-3) Freezers and refrige...
AI summary The Peak Demand Savings Factor (PCF) for kitchen measures is 68%, derived from the 2015 BER evaluation, while freezers/refrigerators have a 100% PCF. References include Econoler's 2016 report and a Minnesota Technical Reference Manual.
Table 320: Dishwasher Measure Summary Parameter BER-AR SBES Reference Measure Description and Identification Measure Low or high temperature ENERGY STAR® rated dishwasher, rebated after installation - Baseline Standard dishwasher - General...
AI summary Table 320 provides a summary of the dishwasher measure under the Business Energy Rebates (BER) program. It outlines parameters such as installation rates, energy savings adjustment ratios, and effective useful life for different dishwasher types. The table references various subsections in the technical reference manuals for detailed calculations.
Table 335: Ice Machine Measure Summary Parameter BER-AR SBES Reference Measure Description and Identification Measure ENERGY STAR® rated ice machine, rebated after installation - Baseline Standard ice machine - General Parameters Installat...
AI summary Table 335 provides a summary of the Ice Machine Measure under the Business Energy Rebates (BER) program. It outlines parameters such as installation rates, energy savings adjustment ratios, and useful life for ENERGY STAR® rated ice machines compared to standard models. The table references specific subsections in the Technical Reference Manuals for detailed calculations and definitions.
Table 343: Unitary Peak Demand Savings Values for Steam Cookers Parameter Symbol BER-AR, SBES Reference Peak Coincidence Factor PCF Actual or 0.68 As per Subsection 6.11.2 Unitary Peak Demand Savings [kW] 𝑃𝑒𝑎𝑘 𝐷𝑒𝑚𝑎𝑛𝑑 𝑆𝑎𝑣𝑖𝑛𝑔𝑠𝑘𝑊 Calculation...
AI summary Table 343 outlines the Unitary Peak Demand Savings Values for Steam Cookers, focusing on parameters such as the Peak Coincidence Factor (PCF) and the calculation of unitary peak demand savings in kilowatts (kW). The table references Subsection 6.11.2 of the Technical Reference Manuals (TRMS) for the Peak Coincidence Factor and provides calculation methods for demand savings.
6.12.3 Adjustment Ratios For laundry measures, no adjustment ratios were calculated. 320 Econoler, Business Energy Rebates 2015 DSM Evaluation, Report presented to Efficiency Nova Scotia, 2016. 319 Pennsylvania Public Utility Commission, T...
AI summary The document states that no adjustment ratios were calculated for laundry measures. It cites a 2016 report by Econoler and a 2024 Pennsylvania Public Utility Commission technical reference manual as sources.
7.2 Other Measures The EUL values for non-LED lighting measures were established by conducting a literature review of technical reference manuals (TRMs) and studies from other similar jurisdictions. [Table](#page-86-0) 362 summarizes the E...
AI summary The EUL values for non-LED lighting measures were determined through a literature review of technical reference manuals and studies from similar jurisdictions, as summarized in Table 362 for BNI measures.
Table 1: Equivalent EUL Calculation for Solar Fixtures Average Replaced Average Wattage of Efficient Lamp Halogen Incandescent Baseline – Replaced Fixture Baseline 1 Year LED Equivalent Baseline 9 Years (W) Lamp (W) Baseline Wattage Displa...
AI summary Table 1 presents an Equivalent Useful Life (EUL) calculation for solar fixtures, comparing halogen incandescent and LED baseline wattages. The table includes data on average replaced wattage and displaced wattage for both fixture types. The text references EfficiencyOne's 2025 DSM Evaluation and a technical reference manual from the Illinois Commerce Commission.