Difference between revisions of "Publication - Matching Demand with Supply at Low Cost in 139 Countries Among 20 World Regions with 100% Intermittent Wind, Water, and Sunlight (WWS) for All Purposes"

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{{Pub Database
 
{{Pub Database
|Pub Title=Matching demand with supply at low cost in 139 Countries Among 20 World rRegions with 100% Intermittent Wind, Water, and Sunlight (WWS) for All Purposes
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|Pub Title=Matching Demand with Supply at Low Cost in 139 Countries Among 20 World Regions with 100% Intermittent Wind, Water, and Sunlight (WWS) for All Purposes
 
|Pub Organization=Journal: Renewable Energy
 
|Pub Organization=Journal: Renewable Energy
|Pub Author=Mark Z. Jacobson
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|Pub Author=Mark Z. Jacobsona, Mark A. Delucchib, Mary A.Camerona, Brian V.Mathiesenc
 
|Pub Month=February
 
|Pub Month=February
 
|Pub Year=2018
 
|Pub Year=2018
|Pub Abstract=“The solutions in the current paper address these criticisms by suggesting several different solutions for stabilizing energy produced with 100% clean, renewable sources,” the university release states. The modeling matched energy supply and demand in 30-second increments from 2050 to 2054, based on anticipated global weather patterns, future energy demand, and variability in supply and demand over hours and seasons.
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|Pub Abstract=Matching electricity, heat, and cold demand with supply at low cost is the greatest concern facing countries seeking to provide their all-purpose energy with 100% clean, renewable wind, water, and sunlight (WWS). Implementing WWS worldwide could eliminate 4–7 million annual air pollution deaths, first slow then reverse global warming, and provide energy sustainably. This study derives zero-load-loss technical solutions to matching demand with 100% WWS supply; heat, cold, and electricity storage; hydrogen production; assumed all-distance transmission; and demand response for 20 world regions encompassing 139 countries after they electrify or provide direct heat for all energy in 2050. Multiple solutions are found, including those with batteries and heat pumps but zero added hydropower turbines and zero thermal energy storage. Whereas WWS and Business-As-Usual (BAU) energy costs per unit energy are similar, WWS requires ∼42.5% less energy in a base case and ∼57.9% less in a heat-pump case so may reduce capital and consumer costs significantly. Further, WWS social (energy + health + climate) costs per unit energy are one-fourth BAU's. By reducing water vapor, the wind turbines proposed may rapidly offset ∼3% global warming while also displacing fossil-fuel emissions. Thus, with careful planning, the world's energy challenges may be solvable with a practical technique.
 
 
“Based on these results, I can more confidently state that there is no technical or economic barrier to transitioning the entire world to 100% clean, renewable energy with a stable electric grid at low cost,” said Jacobson, senior fellow at the Stanford Precourt Institute for Energy and the Stanford Woods Institute for the Environment.
 
 
 
“Our main result is that there are multiple solutions to the problem,” he added. “This is important, because the greatest barrier to the large-scale implementation of clean renewable energy is people’s perception that it’s too hard to keep the lights on with random wind and solar output.
 
 
|Pub Topics=Grid, Renewable Energy
 
|Pub Topics=Grid, Renewable Energy
 
|Pub Download=http://theenergymix.com/2018/02/14/jacobson-study-shows-multiple-paths-to-grid-stability-in-100-renewable-future/
 
|Pub Download=http://theenergymix.com/2018/02/14/jacobson-study-shows-multiple-paths-to-grid-stability-in-100-renewable-future/
 
|Pub Newsletter=No
 
|Pub Newsletter=No
 
}}
 
}}

Revision as of 13:55, 16 February 2018

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Title
Matching Demand with Supply at Low Cost in 139 Countries Among 20 World Regions with 100% Intermittent Wind, Water, and Sunlight (WWS) for All Purposes
Publisher
Journal: Renewable Energy
Author
Mark Z. Jacobsona, Mark A. Delucchib, Mary A.Camerona, Brian V.Mathiesenc
Published in
February 2018
Abstract
Matching electricity, heat, and cold demand with supply at low cost is the greatest concern facing countries seeking to provide their all-purpose energy with 100% clean, renewable wind, water, and sunlight (WWS). Implementing WWS worldwide could eliminate 4–7 million annual air pollution deaths, first slow then reverse global warming, and provide energy sustainably. This study derives zero-load-loss technical solutions to matching demand with 100% WWS supply; heat, cold, and electricity storage; hydrogen production; assumed all-distance transmission; and demand response for 20 world regions encompassing 139 countries after they electrify or provide direct heat for all energy in 2050. Multiple solutions are found, including those with batteries and heat pumps but zero added hydropower turbines and zero thermal energy storage. Whereas WWS and Business-As-Usual (BAU) energy costs per unit energy are similar, WWS requires ∼42.5% less energy in a base case and ∼57.9% less in a heat-pump case so may reduce capital and consumer costs significantly. Further, WWS social (energy + health + climate) costs per unit energy are one-fourth BAU's. By reducing water vapor, the wind turbines proposed may rapidly offset ∼3% global warming while also displacing fossil-fuel emissions. Thus, with careful planning, the world's energy challenges may be solvable with a practical technique.
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