Publications

Our report notes the growing presence of distributed energy resources, like solar panels and energy storage installations, and explains how they should be compensated for providing electricity services valued by utilities and their customers. Currently, 40 states use net energy metering programs to compensate DERs. We describe a promising alternative, “value stacking,” which better reflects DERs’ value, and provide suggestions for how to implement this approach.

The electric distribution grid is transitioning toward a model in which customers can themselves provide a variety of services to the grid by investing in distributed energy resources (DERs) such as distributed solar generation, programmable appliances, and energy storage. However, customers’ incentives to make these investments depend on how they are being charged for electric service. Despite the topic’s importance for the electric distribution system of the future, the body of literature on the impact of electric rate design on the proliferation of DERs is still limited. Our research improves upon common assumptions of fixed electric demand by incorporating microeconomic theory into an existing engineering simulation model.

With an absence of federal leadership on climate change, many states have worked to reduce greenhouse gas emissions on their own, often by incorporating a broader range of considerations into electricity policy. Our report assesses the potential to expand the valuation of climate damages in state electricity policy using Social Cost of Carbon metrics. We examine existing statutes and regulations in all 50 states to identify opportunities for valuing climate impacts around the country.

This article, published in the New York University Environmental Law Journal, shows how the Federal Energy Regulatory Commission (FERC) must attempt to address the external cost of carbon dioxide (CO2) emissions to achieve an efficient electricity market. CO2 emissions impose a significant cost on society by contributing to climate change. The electricity sector is a major source of these emissions, yet their external cost is not fully reflected in electricity rates, and the market outcomes thus do not adjust to reflect those true costs—a classic market failure. This leads to emissions that are higher than optimal.

This paper discusses how variations in the availability of various resources (generation seasonality) and the fluctuations in the electricity usage (load seasonality) relate to efficient capacity market design. Even though capacity markets have been around for two decades, the necessity as well as the design of these markets are subjects of ongoing debates. Many design questions, such as how to determine the amount of capacity to be procured, how to prevent market power, or how to provide incentives for performance dominate both the academic literature and the policymaking discussions. Another design aspect that plays a crucial role for market participants is the length of the capacity product procured (“obligation period”), because it defines the length of time for which a seller commits to maintaining its capacity available. However, a thorough analysis of obligation periods has been overlooked by literature and policymaking discussions. Our article works to provide this analysis.