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U.S. industry energy-saving potential, 2010–2050

http://www.rmi.org/RFGraph-US_industry_energy_saving_potential
Increased adoption of energy efficient technologies as well as cogeneration and waste heat recovery systems will reduce energy use by an additional 4.7 quadrillion BTUs from business-as-usual. These and other changes (energy changes due fuel switching or transformation in other sectors) can reduce projected primary energy use by 27% in 2050.

 

U.S. biomass consumption, 2010-2050

http://www.rmi.org/RFGraph-US_biomass_consumption
In Reinventing Fire, non-cropland biomass provides 16 quads of primary energy in 2050. That’s six times today’s biomass consumption and 60% higher than U.S. government projections extrapolated to 2050.

 

Biofeedstock supply curve

http://www.rmi.org/RFGraph-biofeedstock_supply_curve
The 16 quadrillion BTU of biomass used in 2050 in Reinventing Fire is supplied by agricultural residue, mill residue, dedicated energy crops, municipal solid waste and forestry residue. No cropland or edible feedstock is required.

 

Transportation sector job quantity impact

http://www.rmi.org/RFGraph-transportation_job_quantity_impact
In the transportation sector, Reinventing Fire affects jobs in oil exploration and production, auto manufacturing, auto parts and auto repair, and hydrogen and biofuels production. The net effect on jobs from these changes is relatively small.

 

Changes in industrial energy use from transportation sector transformations

http://www.rmi.org/RFGraph-Changes_industrial_energy_use_from_transportation
Transformations in the transportation sector will have the net effect of saving half of refining energy, cutting 2050 industrial energy use by 3.5 quads/y.

 

Biomass process flow for advanced cellulosic ethanol process

http://www.rmi.org/RFGraph-Biomass_process_flow_for_advanced_cellulosic_ethanol_process
There are different types of biofuels as well as processes to create them. RMI analysis uses the National Renewable Energy Laboratory’s cellulosic ethanol process from corn stover as the basis for processing biofuels for the transportation sector.

 

Fuel–switching options in industry

http://www.rmi.org/RFGraph-Fuel_switching_options_industry
With current fuel prices, most coal and oil use can be switched to natural gas for process heating needs.

 

Biofuel supply curve

http://www.rmi.org/RFGraph-Biofuel_supply_curve
Even with Reinventing Fire’s 2050 outlook on oil use, the nation will still need 3.1 million bbl/d of liquid fuel (minus any natural gas used in trucks). While they can't be cost-effectively electrified, planes and heavy trucks can run on second and third generation biofuels that can be produced in sufficient supply at costs below $80/barrel oil equivalent.

 

Second generation biofuel economics by conversion process

http://www.rmi.org/RFGraph-second_generation_biofuels_economics
Key inputs to our biofuel model for key second-generation biofuel conversion processes are outlined in this table.

 

Projected decline in U.S. transportation sector fuel use, 2010–2050

http://www.rmi.org/RFGraph-Projected_decline_in_US_transportation_sector_fuel_use
America's vast transportation system can continue growing and improving all without oil. In 2050 we’d rely on superefficient, lightweight vehicles and planes to move ourselves and our goods. For the remaining 3.1 Mbbl/d of liquid fuel demand not supplied by electric propulsion systems, 2nd and 3rd generation biofuels (or, in trucks, natural gas if desired) could be substituted for oil.

 

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