A Global Green New Deal
Right before Christmas, researchers from Stanford and Berkley, published a 119-page report on the impact of a global GND on grid stability, costs, jobs, health and climate across 143 countries grouped into 24 regions.
The plan would require an investment of about $73T USD over the next 30 years, but the research shows that a payback period, adjusted for new jobs and estimated savings from climate related disasters, could be as little as 7 years.
The timeline is aggressive, with 80% of the work being done in the next decade and the remaining 20% completed by 2050.
The best thing about this plan, almost all of the technology needed to make it happen already exists. The only exceptions are electrified long-distance travel across both land and sea.
Here are a few of the points I highlighted from the paper:
For each case in each of the 24 world regions, the model was run forward in time. Simulations were run for three years (3.15 million 30-s timesteps) from 2050 to 2052.
The shift to Wind-Water-Solar reduces end-use energy consumption for 5 primary reasons:
-
Efficiency of electricity and hydrogen over combustion in transportation ...
-
Efficiency of moving low-temperature building air and water hear with heat pumps
-
Eliminating the energy needed to mine, transport, and process dirty and bio fuels
-
Improving efficiency and reducing energy use beyond what will occur under “business as usual”
The shifts above would reduce end-use energy by 57.1%, reduce private energy costs to $6.8T per year, and reduce social costs to $6.8T per year
The net job creation from this plan would be 28.6M
Gains would occur in construction of generation, storage, and transmission, [FC]EV manufacturing, the electrification/maintenance of all vehicles ranging from lawn mowers to airplanes, solar and wind maintenance, etc... The biggest job losses would be in mining, transporting, and processing fossil fuels as well as the opportunity costs of not constructing generation plants powered by fossil fuels, refineries, and midstream pipelines. The new land footprint is actually really small - only 0.17% net new land area would be needed, 0.65% when accounting for spacing.
This is equivalent to about 1.85 times California’s land area for virtually all world energy. Today, that number is 0.48% in the countries of the study. This number did not count the space needed to mine the materials to build solar panels and wind turbines. However, it also did not count the land that could potentially be freed up once fossil fuel plants are recommissioned or demolished.
The researchers created a new metric to include climate and social costs into the cost of energy if we continue on in a business as usual scenario.
The WWS-to-BAU levelized cost of energy is the cost of energy when factoring in social costs. (private plus health plus climate cost of energy) The figure indicates that, among 143 countries, the aggregate annual private energy cost in the WWS case is $6.83 trillion/yr and in the BAU case is $17.7 trillion/yr. The main difference is the 57.1% lower end-use energy consumption in the WWS case mentioned above. Uncertainties in the plan were wide-ranging ...
Conclusion
This group did a great job of paying attention to the per/kWh cost of energy and is something I wish more studies did. The reason, I believe we will pay a higher cost per kWh in the future, but should consume much less given the potential efficiency gains. This is a long-term play ...
Regulators and politicians would be well-served in helping their constituents understand that we are making a multi-generational investment into our future while incentivizing the private sector to tackle these problems in the way they have done with wind, solar and [FC]EV’s.
Overall, it’s clear that the transition is a net positive one regardless of the climate and social gains as a result of it