description: the ongoing energy transition which aims at replacing fossil fuels with renewable energy
10 results
by Michael Shellenberger · 28 Jun 2020
, as we have seen, for some advocates of renewables, that has always been the goal. In its 2019 exposé, Der Spiegel concludes that Germany’s renewable energy transition was just done incorrectly,91 but that’s misleading. The transition to renewables was doomed because modern industrial people, no matter how romantic they are
by Varun Sivaram · 2 Mar 2018 · 469pp · 132,438 words
to a tractable bath toy, CAISO adopted the “duck curve” as the mascot of its campaign to educate the public about the difficulties of the renewable energy transition. Figure 3.4 California’s duck curve. This is an updated version of the original figure created by the California grid operator (CAISO) to predict
by Rupert Darwall · 2 Oct 2017 · 451pp · 115,720 words
do, Ostwald believed that society’s energy consumption should be no greater than what the Earth receives each year from the sun (Chapter 12). The renewable energy transition would cost the equivalent of a scoop of ice cream on monthly electricity bills, the Greens claimed. Nine years after the scoop of ice cream
by Oliver Morton · 26 Sep 2015 · 469pp · 142,230 words
way has various charms. Its benefits are felt at the level of the system, not at the level of the individual buyer. That means a renewable-energy transition will need significant pushing. As with Grübler’s observations about the time transitions take, this points merely to decarbonization being unprecedented, not impossible. But the
by Naomi Klein · 15 Sep 2014 · 829pp · 229,566 words
back Hamburg’s grid: it would allow them to get off coal and nuclear and go green.5 Much has been written about Germany’s renewable energy transition—particularly the speed at which it is being achieved, as well as the ambition of its future targets (the country is aiming for 55–60
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Ecológica, explained, the “proposal establishes a precedent, arguing that countries should be rewarded for not exploiting their oil. . . . Funds gathered would be used for the [renewable] energy transition and could be seen as payments for the ecological debt from North to South, and they should be distributed democratically at the local and global
by Joseph Romm · 3 Dec 2015 · 358pp · 93,969 words
be better to deploy PV systems where there is more sunshine.” Germany has done the world a great favor by investing so heavily in its renewable energy transition, which has helped to bring down the cost of solar energy for every country. However, solar power is considerably more cost-effective in places where
by Brett Christophers · 12 Mar 2024 · 557pp · 154,324 words
, livemint. com. 34 Ibid. 35 ‘Will India Become a Green Superpower?’ 36 D. Ghosh, G. Bryant and P. Pillai, ‘Who Wins and Who Loses from Renewable Energy Transition? Large-Scale Solar, Land, and Livelihood in Karnataka, India’, Globalizations (2022). 37 Kumar Shukla, Thangzason Sonna and Kumar Srivastava, ‘Renewable Energy – The Silent Revolution’, p
by J. Doyne Farmer · 24 Apr 2024 · 406pp · 114,438 words
faster, so that costs become lower sooner, the Fast Transition is also substantially cheaper than the Slow Transition. There are potential barriers to implementing the renewable-energy transition quickly. Perhaps the most important is expanding the capacity of the electrical grid. Electricity plays a much larger role in a world of renewable energy
by Alan Weisman · 21 Apr 2025 · 599pp · 149,014 words
-at-three-times-the-global-rate. Seibert, M. K., and W. E. Rees. “Through the Eye of a Needle: An Eco-Heterodox Perspective on the Renewable Energy Transition.” Energies 14 (2021): 4508. https://doi.org/10.3390/en14154508. Siegert, Martin, Mike J. Bentley, Angus Atkinson, Thomas J. Bracegirdle, Peter Convey, Bethan Davies, Rod
by Gareth Dennis · 12 Nov 2024 · 261pp · 76,645 words
further to include platinum, silicon, thorium, titanium, vanadium, molybdenum, nickel, cobalt, chromium, aluminium and a variety of rare-earth metals. The mineral requirements of the “renewable” energy transition, alongside the complexifying nature of our technology, has widened this pool of critical elements even further in the 2000s, adding rhodium, tantalum, tellurium, uranium, ruthenium