3FOOD
TIR-CG_Luxembourg-Final-Report_Long-Version TIR-CG_Luxembourg-Final-Report_Long-Version
Third Industrial Revolution Consulting Group 1.2.1 SEF Characteristics Relevant to Luxembourg At its core, the SEF model is anchored by an economic perspective that builds on a basic principle of energy efficiency, or energy productivity, as it is made specific to Luxembourg--that is, monetizing an array of savings which cost less than paying the retail price for energy, water and materials as the source of its capital investments. For example, a recent study of the institutional building stock in Luxembourg found retrofit costs of 0.04 to 0.08 €/ kWh for the majority of floor area in their sample. 214 The 2014 cost of electricity was 0.166 and 0.075 €/kWh for households and industry, respectively. The cost to save energy, therefore, is considerably below the cost to use that energy. The gap between the cost to buy energy and the cost to save energy forms the basis for capital investment. In other words, the direct savings (or the use of renewable energy to lower the use of more expensive energy resources) are used to pay back initial investments that enable the reductions. Critically, SEF economics avoid the practice of many governmental and regulatory programs currently in use which assess end users for funds that conventional utilities operate to meet sustainability goals. As such, SEF economics do not require regulated utility price increases to cover renovation costs. SEF economics similarly does not rely on taxes to capitalize renovation but reaps social advantages such as benefiting low-income households. 215 Capital investments are used to procure energy, water, and material conservation measures and on-site renewable energy options to lower participants’ costs. Figure 3 offers a conceptual overview of the SEF arrangement: capital investments are attracted to implement energy efficiency measures and renewable energy options up to the maximum point of savings that can be covered without raising the original energy costs of the participant. After debt service payments have fully paid back the capital investments, over a period of 10-14 years, all remaining savings accrue to the participant of the program over the next 6-10 years or so (with the assumption of a typical project life of 20 years). 214 Hoos, T., Merzkirch, A., Maas, S., Scholzen, F. (2016). Energy consumption of non-retrofitted institutional building stock in Luxembourg and the potential for a cost-efficient retrofit. Energy and Buildings (published online 01 April, 2016 at http://www.sciencedirect.com/science/article/pii/S0378778816302213). Doi: 10.1016/j.enbuild.2016.03.065 215 The approach is compatible with the ‘State Renovation Fund’ described in the Working Group ‘Building’ Final Outcome Document (Version 02.05.2016). This proposal is detailed on page 19 of the Third Industrial Revolution Working Group ‘Building’ Final Outcome Document (Version 02.05.2016). 266
Third Industrial Revolution Consulting Group Figure 3. Conceptual overview of reduction of energy use and costs for program participants under SEF programming. 1.2.1.1 SEF: A Market-Tested Model The SEF investment model was first applied in the United States. Operationalized through the Delaware Sustainable Energy Utility (SEU) 216 in the U.S. state of Delaware, on behalf of six state agencies and two institutions of higher learning, the Sustainable Energy Bond Series was issued in 2011. The state-wide, tax-exempt bond issue raised $72.5 million in sustainable energy capital from the private market, sufficient to invest in energy saving measures that deliver a guaranteed $148 million in aggregate energy savings. 217 All-in program costs, including 216 The SEU concept is the result of 20 years of research conducted by Dr. John Byrne and his colleagues at the Center for Energy & Environmental Policy (CEEP) at the University of Delaware. Additional information on the model can be found at http://freefutures.org/seu-initiative/. 217 Original planned issuance of the bonds stood at $67.4 million. However, average coverage of orders and allotments by maturity of the DE SEU bond offering was 1.2x. In addition, the $67.4 million par value Sustainable Energy Bond was oversold within two hours of its offering. The serial bond issue generated premiums in excess of $5 million and sold at the low arbitrage yield of 3.67% over its 20 year debt service period. 267
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Third Industrial Revolution Consulting Group<br />
1.2.1 SEF Characteristics Relevant to Luxembourg<br />
At its core, the SEF model is anchored by an economic perspective that builds on a basic<br />
principle of energy efficiency, or energy productivity, as it is made specific to Luxembourg--that<br />
is, monetizing an array of savings which cost less than paying the retail price for energy, water<br />
and materials as the source of its capital investments. For example, a recent study of the<br />
institutional building stock in Luxembourg found retrofit costs of 0.04 to 0.08 €/ kWh for the<br />
majority of floor area in their sample. 214 The 2014 cost of electricity was 0.166 and 0.075<br />
€/kWh for households and industry, respectively. The cost to save energy, therefore, is<br />
considerably below the cost to use that energy.<br />
The gap between the cost to buy energy and the cost to save energy forms the basis for capital<br />
investment. In other words, the direct savings (or the use of renewable energy to lower the use<br />
of more expensive energy resources) are used to pay back initial investments that enable the<br />
reductions. Critically, SEF economics avoid the practice of many governmental and regulatory<br />
programs currently in use which assess end users for funds that conventional utilities operate<br />
to meet sustainability goals. As such, SEF economics do not require regulated utility price<br />
increases to cover renovation costs. SEF economics similarly does not rely on taxes to capitalize<br />
renovation but reaps social advantages such as benefiting low-income households. 215<br />
Capital investments are used to procure energy, water, and material conservation measures<br />
and on-site renewable energy options to lower participants’ costs. Figure 3 offers a conceptual<br />
overview of the SEF arrangement: capital investments are attracted to implement energy<br />
efficiency measures and renewable energy options up to the maximum point of savings that<br />
can be covered without raising the original energy costs of the participant. After debt service<br />
payments have fully paid back the capital investments, over a period of 10-14 years, all<br />
remaining savings accrue to the participant of the program over the next 6-10 years or so (with<br />
the assumption of a typical project life of 20 years).<br />
214 Hoos, T., Merzkirch, A., Maas, S., Scholzen, F. (2016). Energy consumption of non-retrofitted institutional<br />
building stock in Luxembourg and the potential for a cost-efficient retrofit. Energy and Buildings (published online<br />
01 April, 2016 at http://www.sciencedirect.com/science/article/pii/S0378778816302213). Doi:<br />
10.1016/j.enbuild.2016.03.065<br />
215 The approach is compatible with the ‘State Renovation Fund’ described in the Working Group ‘Building’ Final<br />
Outcome Document (Version 02.05.2016). This proposal is detailed on page 19 of the Third Industrial Revolution<br />
Working Group ‘Building’ Final Outcome Document (Version 02.05.2016).<br />
266