Title :
Opportunities for superconductivity in the electric power industry
Author :
Mann, T.L. ; Zeigler, J.C. ; Young, T.R.
Author_Institution :
Houston Adv. Res. Center, The Woodlands, TX, USA
fDate :
6/1/1997 12:00:00 AM
Abstract :
The US Federal Energy Policy Act of 1992 has fostered the rapid evolution of a competitive electric power industry. Its implementation by the Federal Energy Regulatory Commission (FERC) and the various state public utility commissions has created an opportunity for vastly expanded application of superconducting devices in transmission and distribution systems. Historically, the entrance of new technologies into the electric power system has been a long laborious process. Conservative electric utility technologists focused on reliability and long track records on someone else´s system. The long range planning process (5-10 years) required in the regulatory environment further delayed implementation of newer technologies. Finally, regulations that limited return on investment fostered high cost generation over transmission. This has changed. The functional unbundling of the utilities into generation, transmission and service components has put in place new management teams. Regulations are focusing on increased performance and reduced costs as well as reliability. A favorable environment is developing for a wide range of new devices that include transmission enhancement SMES, microSMES for power quality applications and superconducting fault current limiters, motors, generators, transformers and transmission lines. It is important for technologists to fully understand how the changes in the $270 B electric power industry are opening unprecedented opportunities for superconductivity as an enabling technology.
Keywords :
current limiters; electricity supply industry; power system planning; power transformers; superconducting cables; superconducting coils; superconducting machines; superconducting magnet energy storage; USA; electric power industry; electric utility; enabling technology; long range planning process; microSMES; power quality; superconducting fault current limiters; superconducting generators; superconducting motors; superconducting transformers; superconducting transmission lines; superconductivity applications; transmission enhancement SMES; Costs; Delay; Power industry; Power system planning; Power system reliability; Process planning; Superconducting devices; Superconducting transmission lines; Superconductivity; Technology planning;
Journal_Title :
Applied Superconductivity, IEEE Transactions on