Regulatory Barriers to Lowering the Carbon Content of Energy Services

Frank A. Wolak
Director, Program on Energy and Sustainable Development (PESD) Stanford University

Overview

This document compiles a list of state and local regulatory barriers to greater penetration of technologies and mechanisms that reduce the carbon content of the energy services consumed in the United States. A preliminary list of regulatory barriers is given below.

1. Transmission planning and expansion approval process. A comprehensive national transmission planning process is necessary to support the large-scale deployment of renewable energy resources. The two major interconnected grids in the United States—Eastern Interconnection and the Western Interconnection should have a regional transmission planning and siting process that also constructs and pays for each interconection's transmission network at the regional level.

2. Transmission pricing. A simplified, standardized, and interconnection-wide approach to transmission pricing is needed to facilitate the siting and construction of transmission projects to support the large scale deployment of renewable energy.

3. Interval metering and symmetric treatment of load and generation. Meters that record a customer's consumption at least every hour of the day are necessary to enable electricity consumers to benefit fully from wholesale electricity competition and from managing the intermittent supply of electricity associated with a larger capacity share of renewable generation resources. Moreover, unless these meters are accompanied by default hourly retail prices that pass through the hourly wholesale price signal, few if any, of these benefits will be realized by electricity consumers. The potentiaal benefits of a "smart grid" will largely go unrealized because there is little financial incentive for any market participant to capture them.

4. Limited ability and benefits from switching to lower carbon sources of energy. Running more efficient natural gas-fired generation more intensively and coal-fired generation units less intensively can significantly reduce GHG emissions from the electricity sector. Retrofitting coal-fired generation units to burn natural gas can also significantly reduce GHG emissions from the electricity sector. The lack of a price for GHG emissions significantly limits the financial incentives for this fuel switching to occur and the substantial regulatory barriers to repowering generation units near major load centers further dulls this financial incentive.

5. Barriers to the development of unconventional sources of natural gas and LNG. Natural gas has the potential to become a transitional fossil fuel to a significantly lower carbon electricity sector. This will require substantial increases in domestic natural gas consumption which will require increases in the supply of natural gas from both unconventional sources and liquefied natural gas (LNG) imports.

6. Barriers to the development of carbon capture and sequestration facilities. For both political and economic reasons, it is highly unlikely that the United States electricity sector will be able to significantly reduce its consumption of coal in the near term. The deployment of carbon capture and sequestration (CCS) technologies at scale can allow the United States to continue to burn coal in the electricity sector.