certified to AS/NZS 2712 Specified Minimum Energy Efficiency The product installed must meet the relevant additional requirements listed in Table 3.2. Table . – Additional requirements for water heating equipment to be installed Product category number Requirement type Efficiency requirement 3B Minimum annual energy savings 60%, determined in accordance with AS/NZS 4234 when modelled in climate zone 4 specified matters None. Method for Determining GHG Equivalent Reduction Scenario 3B: Decommissioning Gas and Installing Gas Boosted Solar The GHG equivalent emissions reduction for this scenario is given by Equation 3.1 using the variables listed in Table 3.3. Equation . – GHG equivalent emissions reduction calculation for Scenario 3B Table . – GHG equivalent emissions reduction variables for Scenario 3B upgrade: upgrade product is a small system as determined in accordance with AS/NZS 4234 based on the system's peak daily thermal energy load delivery characteristics Medium upgrade: upgrade product is a medium system as determined in accordance with AS/NZS 4234 based on the system's peak daily thermal energy load delivery characteristics BS and Be are determined in accordance with AS/NZS 4234 and measured in MJ/year Input Type Condition Input Value Abatement Factor For upgrades in Metropolitan Victoria Small upgrade 12.27 - [0.015 (0.0573 BS + 0.2625 Be)] Medium upgrade 17.95 - [0.015 (0.0573 BS + 0.2625 Be)] For upgrades in Regional Victoria Small upgrade 12.27 - [0.015 (0.0573 BS + 0.2775 Be)] Medium upgrade 17.95 - [0.015 (0.0573 BS + 0.2775 Be)]
Measurement, testings and ratings must be in accordance with the Greenhouse and Energy Minimum Standards (Air Conditioners and Heat Pumps) Determination 2013 (Cth) Other specified matters The product decommissioned must meet the relevant additional requirements listed in 10.3. Table . – Other specified matters for space heating equipment Product category number Requirement type Specification details 10A Space heating product for the purposes of the definition of controlled heating or cooling product in the Regulations For the purposes of scenario number 10A(ii) the department hereby specifies that any room heaters that are not otherwise listed may also be decommissioned Method for Determining GHG Equivalent Reduction Scenario 10A(i): Decommissioning hard-wired electric room heater and installing a high efficiency space air to air heat pump The GHG equivalent emissions reduction for this scenario is given by Equation 10.1 using the variables listed in Table 10.4. Equation . – GHG equivalent emissions reduction calculation for Scenario 10A(i) . – GHG equivalent emissions reduction variables for Scenario 10A(i) Measurements, testing and ratings must be in accordance with the Greenhouse and Energy Minimum Standards (Air Conditioners and Heat Determination 2013 (Cth) Small upgrade: upgrade product has a RTHC of at least 2 and not more than 3 kW Medium upgrade: upgrade product has a RTHC of more than 3 and not more than 6 kW Large upgrade: upgrade product has a RTHC of more than 6 kW Input type Condition Input value Baseline Small upgrade 1.67 Medium upgrade 3.17 Large upgrade 3.99 Upgrade Small upgrade ACOP of 4.20 to less than 4.50 0.63 ACOP of 4.50 to less than 5.00 0.57 ACOP of 5.00 to less than 5.50 0.52
ACOP of 5.50 or greater 0.47 Medium upgrade ACOP of 4.00 to less than 4.50 1.22 ACOP of 4.50 to less than 5.00 1.08 ACOP of 5.00 to less than 5.50 0.97 ACOP of 5.50 or greater 0.88 Large upgrade ACOP of 4.00 to less than 4.50 1.44 ACOP of 4.50 to less than 5.00 1.28 ACOP of 5.00 to less than 5.50 1.15 ACOP of 5.5 or greater 1.04 Lifetime In every instance 12.00 Regional Factor For upgrades in Metropolitan Victoria – Climatic region mild 1.00 For upgrades in Metropolitan Victoria – Climatic region cold 1.79 For upgrades in Regional Victoria – Climatic region mild 1.06 For upgrades in Regional Victoria – Climatic region cold 1.90 For upgrades in Regional Victoria – Climatic region hot 0.48 Scenario 10A(ii): Decommissioning room air to air heat pump and installing a high efficiency space air to air heat pump The GHG equivalent emissions reduction for this scenario is by Equation 10.2, using the variables listed in Table 10.5. Equation . – GHG equivalent emissions reduction calculation for Scenario 10A(ii) Table . – GHG equivalent emissions reduction variables for Scenario 10A(ii) Measurements, testing and ratings must be in accordance with the Greenhouse and Energy Minimum Standards (Air Conditioners and Heat Pumps) Determination 2013 (Cth) Small upgrade: upgrade product has a RTHC of at least 2 and not more than 3 kW Medium upgrade: upgrade product has a RTHC of more than 3 and not more than 6 kW upgrade: upgrade product has a RTHC of more than 6 kW Input type Condition Input value Baseline Small upgrade 0.64 Medium upgrade 1.24 upgrade 1.61 Upgrade Small upgrade ACOP of 4.20 to less than 4.50 0.63
cannot be created for this activity unless products installed are listed on the ESC Register by the time VEECs are created. Products already on the register at the time of installation can be taken as satisfying all those product requirements that can be determined prior to the installation of a product. Table . – Eligible shower rose scenarios Product category number Scenario number Decommissioning requirements Product to be installed Historical schedule number 17A 17A A shower rose with a flow rate above 9L/min A shower rose that: complies with AS/NZS 3662 17A Specified Minimum Energy Efficiency The product installed must meet the additional requirements listed in Table 17.2. Table . – Additional requirements for shower roses to be installed Product category number Requirement type Efficiency requirement 17A Minimum star rating 3 stars and a flow rate of range E, determined in accordance with AS/NZS 6400 Other specified matters None. Method for Determining GHG Equivalent Reduction Scenario 17A: A shower rose with a flow rate above 9 L/min replaced with a low flow shower rose The GHG equivalent emissions reductions for each scenario is given by Equation 17.1, using the variables listed in Table 17.3. If multiple installations are carried out at the same site and within the same period, please be aware that the total GHG equivalent emissions equal the sum of the GHG equivalent emissions reductions for all upgrades of the same scenario type. Equation . – GHG equivalent emissions reduction calculation for Scenario 17A Table . – GHG equivalent emissions reduction variables for Scenario 17A Input Type Condition Input Value
21A 21A Mains voltage incandescent GLS lamp of at least 25 Watts (tungsten filament lamp) or 18 Watts (tungsten halogen lamp) or a mains voltage compact fluorescent lamp of at least 5 Watts LED GLS lamp that: has a output equivalent to or higher than the decommissioned lamp meets ESC performance requirements if installed in a dimmable circuit, is approved by the manufacturers are suitable for such a circuit has a colour temperature of (or capable of set to) warm white or cool white 21A 21B 21B Mains voltage incandescent reflector lamp LED lamp which: is determined suitable for the same purpose as the decommissioned lamp by the ESC has a light output equivalent to the decommissioned lamp ESC performance requirements if installed in a dimmable circuit, is approved by the manufacturers are suitable for such a circuit has a colour temperature of (or capable of being set to) warm white or cool white 21B 21C 21C 12 volt tungsten halogen lamp of at least 35 Watts Non-integrated LED lamp compatible with the type of ELC used with the replaced lamp and: is installed by a licensed electrician if installed in a dimmable circuit, is approved by the manufacturer as suitable for such a circuit meets ESC performance requirements has a minimum light output of 420 lumens has a colour temperature of (or capable of being set to) warm white or cool white 21C 21D 21D 12 volt tungsten halogen downlight luminaire that uses a 12 volt tungsten halogen lamp of at 35 Watts, as well as any transformer associated with it Mains voltage downlight LED luminaire (integrated or non-integrated) which: is installed by a licensed electrician if installed in a dimmable circuit, is approved by the manufacturer as suitable for such a circuit meets ESC performance requirements with a minimum light output of 400 lumens with a colour temperature of (or capable of being set to) warm white or cool white 21D 21E 21E Mains voltage tungsten halogen lamp of at least 35 Watts with a GU10 base LED lamp with integrated driver that has a GU10 base which: is installed by a licensed electrician 21E
Scenario 21B: Replacing incandescent reflector lamp with LED lamp The GHG equivalent emissions reduction for each scenario is given by Equation 21.2, using the variables listed in Table 21.5. If multiple installations are carried out at the same site and within the same period, please be aware that the total GHG equivalent emissions equal the sum of the GHG equivalent emissions reductions for all upgrades of the same scenario type. Equation . – GHG equivalent emissions reduction calculation for Scenario 21B Table . – GHG equivalent emissions reduction variables for Scenario 21B Measurements, testing and ratings must be in accordance with the ESC’s performance requirements Input type Condition Input value Abatement Factor Upgrade product has a minimum light source efficacy of 45 lumens/watt Lifetime is at least 12,000 and less than 15,000 hours 0.40 Lifetime is at least 15,000 and less than 20,000 hours 0.50 Lifetime is at least 20,000 and less than 25,000 hours 0.67 Lifetime is at least 25,000 hours 0.83 Upgrade product has a minimum source efficacy of 54 lumens/watt Lifetime is at 12,000 and less than 15,000 hours 0.41 Lifetime is at 15,000 and less than 20,000 hours 0.51 Lifetime is at least 20,000 and less than 25,000 hours 0.68 Lifetime is at least 25,000 hours 0.85 Upgrade product has a minimum light source efficacy of 65 lumens/watt Lifetime is at least 12,000 and less than 15,000 hours 0.42 Lifetime is at least 15,000 and less than 20,000 hours 0.52 Lifetime is at least 20,000 and less than 25,000 hours 0.70 Lifetime is at least 25,000 hours 0.87 Upgrade product has a minimum light source efficacy of 78 lumens/watt Lifetime is at least 12,000 and less than 15,000 hours 0.42
Table . – GHG equivalent emissions reduction variables for Scenarios 27A to 27C type Condition value Baseline In every instance Given by Equation 27.2, using variables listed in Table 27.3 Upgrade In every instance Equation 27.3, using variables listed in Table 27.4 Lifetime In every instance Equation 27.4 using variables listed in Table 27.5 Regional Factor For upgrades in Metropolitan Victoria 0.98 For upgrades in Regional Victoria 1.04 Equation . – Baseline calculation for all public lighting upgrades . – Baseline calculation variables for all public lighting upgrades Input type Condition Input value LCP If the Victorian load is listed* The Victorian load (W)* If the Victorian load is not listed* The nominal device rating (W)* If the Victorian load or nominal device rating is not listed* The determined by Table 27.6 for the relevant incumbent light source If the Victorian load or nominal device rating is not listed and the light source is not in Table 27.6 The value determined by the ESC for that type of incumbent light source CM In every instance As determined by Table 27.7 GHG coefficient In every instance 1.095 * Regulation 15(3) of the Regulations incorporates the latest version of the AEMO Load on which these inputs will be listed. Equation . – Upgrade calculation for all public lighting upgrades Table . – Upgrade calculation variables for all public lighting upgrades Input type Condition value LCP If the Victorian load is listed* The Victorian load (W)* If the Victorian load is not listed* The nominal device rating (W)** If the Victorian load or nominal device rating is not listed* The determined by Table 27.6 for the relevant upgrade light source If the Victorian load or nominal device rating is not listed and the light source is not in Table 27.6 The value determined by the ESC for that type of upgrade light source CM In every instance As determined by Table 27.7 GHG coefficient In every instance 1.095
Table . – GHG equivalent emissions reduction variables for Scenario 32A Measurement, testings and ratings must be in accordance with the Greenhouse and Energy Minimum Standards (Refrigerated Display Cabinets) Determination 2012 type Condition Input value Baseline RS 1 – unlit shelves 4.02 RS 1 – lit shelves 5.68 RS 2 – unlit shelves 4.07 RS 2 – lit shelves 5.43 RS 3 – unlit shelves 4.75 RS 3 – lit shelves 5.88 RS 4 – glass door 3.11 RS 6 – gravity coil 4.55 RS 6 – fan coil 4.53 RS 7 – fan coil 4.73 RS 8 – gravity coil 3.92 RS 8 – fan coil 4.22 RS 9 – fan coil 3.87 RS 10 – low 5.97 RS 11 12.20 RS 12 21.22 RS 13 – sided 6.23 RS 13 – glass sided 6.26 RS 14 – solid sided 4.96 RS 14 – glass sided 11.86 RS 15 – glass door 11.86 RS 16 – glass door 12.98 RS 18 15.54 RS 19 11.57 HC1 3.68 HC4 4.96 VC1 10.48 VC2 8.40 VC4 – solid door 5.52 VC4 – glass door 5.52 HF4 8.48 HF6 2.56 VF4 – solid door 13.28
if an internal rotor motor, has a rated motor output of not more than 600 Watts if an external rotor motor, has a rated motor input of not more than 800 Watts Specified Minimum Energy Efficiency are no additional requirements that must be met by the product installed. Other specified matters None. Method for Determining GHG Equivalent Reduction Scenario 33A: Installing motored fans in refrigerated display cabinet, commercial freezer or cool room The GHG equivalent emissions reduction for each scenario is given by Equation 33.1, using the variables listed in Table 33.2 and Table 33.3. Equation . – GHG equivalent emissions reduction calculation for Scenario 33A Table . – GHG equivalent emissions reduction variables for Scenario 33A Input type Condition Input value Baseline* In every instance Upgrade* In instance Lifetime In instance 7.00 Regional Factor For upgrades in Metropolitan Victoria 0.98 For upgrades in Regional Victoria 1.04 *The COP is determined from Table 33.3. . – Coefficient of performance (COP) values for Scenario 33A Refrigerator type COP
Equation . – Baseline calculation at sites not required to comply with Part J6 of the Building Code . – Baseline calculation variables for sites not required to comply with Part J6 of the Building Code and upgrade calculation variables for all sites Input type Condition value LCP Light source is listed in Table 34.10 As determined by 34.10 Light source is not listed in Table 34.10 The value determined by the ESC for that type of light source CM In every instance As determined by Table 34.9 AM For an upgrade in a that is air conditioned 1.05 For an upgrade in a space that is not air conditioned 1.00 GHG Coefficient In instance 1.095 Equation . – Upgrade calculation at all Table . – Upgrade calculation variables for all sites Input type Condition Input value LCP source is listed in Table 34.10 As determined by 34.10 source is not listed in Table 34.10 The value determined by the ESC for that type of light source CM In every instance As determined by 34.9 AM For an upgrade in a space that is air conditioned 1.05 For an upgrade in a space that is not air conditioned 1.00 GHG Coefficient In instance 1.095 Equation . – Lifetime calculation at all sites Table . – Lifetime calculation variables for all sites Input type Condition value Asset Lifetime In every instance As determined by Table 34.11 Annual Operating Hours Activity is part of upgrades refurbishment that is required to comply with Part J6 of the Building Code as amended from time to time As determined by Table 34.7
when installed, meets the minimum power factor determined by the ESC meets minimum standards determined by the ESC when tested by an approved laboratory in accordance with a laboratory test approved by the ESC is not a T5 adaptor N/A 35C Removing no more than half the from a luminaire that houses multiple lamps and decommissioning any associated control gear None Regulation 6(3)(d) N/A 35D Removing and not replacing: a LED integrated luminaire, or the lamp and control gear associated with a luminaire None Regulation 6(3)(d) * It is not envisaged that lighting equipment would be removed as part of this scenario, but if it is, it is required to be decommissioned. Specified Minimum Energy Efficiency There are no additional requirements that must be met by the product installed. Other specified matters None. Method for Determining GHG Equivalent Reduction Scenarios 35A to 35D: Non-building based lighting upgrades The GHG equivalent emissions reduction for each scenario is given by Equation 35.1, using the variables listed in Table 35.2. Equation . – GHG equivalent emissions reduction calculation for Scenarios 35A to 35D . – GHG equivalent emissions reduction variables for Scenarios 35A to 35D type Condition Input value
Table . – Eligible pre-rinse spray valve scenarios Product category number Scenario Number Decommissioning Requirements Other Product to be installed Historical Schedule Number 36A 36A(i) Decommissioning a spray valve that is not rated as having a 4 star or higher water efficiency (when assessed or labelled in accordance with AS/NZS 6400) None A pre-rinse spray valve that: is described as “tap equipment” in the Water Efficiency Labelling and Standards Determination 2013 (No. 2) made under the Water Efficiency Labelling and Standards Act 2005 (Cth) is installed in accordance with AS/NZS 3500 and the Plumbing Regulations 2008 36A 36A(ii) None There is an existing fitting for a pre-rinse spray valve on which no existing pre-rinse spray valve is installed Specified Minimum Energy Efficiency The product installed must meet the additional requirements listed in Table 36.2. Table . – Additional requirements for pre-rinse spray valve activities Product category number Requirement Type Efficiency Requirement 36A Minimum star rating 6 stars, determined in accordance with AS/NZS 6400 specified matters None. Method for Determining GHG Equivalent Reduction Scenario 36A: Installing a WELS high efficiency pre-rinse spray valve The GHG equivalent emissions reductions for each scenario is by Equation 36.1, using the variables listed in Table 36.3. Equation . – GHG equivalent emissions reduction calculation for Scenario 36A(i) and (ii)
Table . - Additional requirements for steam boiler activities Product category number Requirement Type Efficiency Requirement 37A Minimum thermal efficiency requirements At least 80% when at a firing rate with an output that is at least 100% but not more than 105% of the manufacturer’s rated heat output as determined in accordance with BS 845-2 (pre-commissioning) or BS 845-1 (post-commissioning) Other specified matters None. Method for Determining GHG Equivalent Reduction Scenario 37A: Upgrading to a high efficiency gas-fired steam boiler The GHG equivalent emissions reduction for each scenario is given by Equation 37.1, using the variables listed in Table 37.3. Equation . – GHG equivalent emissions reduction calculation for Scenario 37A Table . – GHG equivalent emissions reduction variables for Scenario 37A Input type Condition Input value Consumption In every instance the lower of the net nominal gas consumption (MJ/h) of the replacement equipment or of the incumbent equipment; DEI Year of manufacture of the incumbent boiler marked as 1989 or earlier, and the burner was installed over 10 ago New steam boiler has a gross thermal efficiency of 80% to less than 85% New steam boiler has a gross thermal efficiency of 85% or greater Year of manufacture of the incumbent boiler marked as 1989 or earlier, and the burner was installed up to and including 10 ago New steam boiler has a gross thermal efficiency of 80% to less than 85% New steam boiler has a gross thermal efficiency of 85% or greater Year of manufacture of the incumbent boiler marked as 1990 or and the burner New steam boiler has a gross thermal efficiency of 80% to less than 85%