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Third Industrial Revolution Consulting Group<br />

Multiplying the two cost estimates by the Fraunhofer benchmark energy savings or production<br />

by 2050 indicates a preliminary investment requirement on the order of €20.6 billion over the<br />

35-year period of analysis. At this point we can now begin to compare the working example in<br />

Table 3 with published statistics made available through the Fraunhofer Institute’s KomMod<br />

modelling system as shown in Table 4 that follows. 388 In sum, Table 4 highlights 15 different<br />

technologies that can be used to provide a secure and reliable energy source for a variety of<br />

home and business needs. By way of explaining the table, rooftop solar suggests a 2015<br />

investment cost of €1,330 per kilowatt of rooftop photovoltaic capacity in 2015. As previously<br />

mentioned in the Table 1 discussion, with anticipated improvements in materials and design,<br />

Fraunhofer suggests costs will decline to about €660/kilowatt. This change over time may be<br />

sufficient to reduce delivered costs of electricity from about €ct 10/kWh in 2015 to perhaps €ct<br />

5/kWh by 2050. These costs also include annual operating and maintenance systems necessary<br />

to maintain a reliable and safe operation. 389<br />

Table 4. Technology Cost Assumptions for TIR Innovation Scenario<br />

Lifetime Investment Cost (€2015/kW)<br />

Technology<br />

(Years) 2015 2030 2050<br />

wood boilder 20 510 533 565<br />

solid biomass chp plant 30 1,428 1,493 1,583<br />

biogas chp plant 12.5 421 440 466<br />

liquid biofuels chp plant 12.5 421 440 467<br />

rooftop photovoltaics 25 1,330 921 660<br />

free field photovoltaics 25 1,209 837 600<br />

solar heat 25 1,286 777 396<br />

wind power plant 20 999 1,044 1,107<br />

heat pump air-water 20 1,243 1,243 1,243<br />

heat pump brine-water 20 1,492 1,492 1,492<br />

heatpump geothermal probe 20 1,467 1,467 1,467<br />

hydro station 60 3,300 3,452 3,505<br />

power to heat 20 238 238 238<br />

Li-Ion battery* 15 1,558 1,006 666<br />

thermal storage* 20 102 106 113<br />

Source: Fraunhofer Institute ISE (2016). Note: items with asterisks are costs per kWh.<br />

388 See also the extended discussion of energy resource costs in the Energy section of this master plan and the<br />

investment costs and returns from the Luxembourg Sustainable Energy Finance Program, also found in this master<br />

plan.<br />

389 It is worth noting that the costs of photovoltaics, as suggested elsewhere in this master plan, may already be<br />

approaching 55 US cents per watt by 2017, or about €492 per kilowatt (at current rates of currency conversion).<br />

Hence, the results reported here are likely conservative. That is, the costs are higher than what we might expect<br />

from the future market. Net economic benefits reported here may be understated.<br />

438

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