Abstract:

Superconducting Magnetic Energy Storage (SMES) systems have been identified as possessing advantages over other energy storage systems due to its ability to provide much greater power densities and superior reaction times compared to bulk energy storage systems such as hydro and CAES. This dissertation examines the potential designs of Superconducting Magnetic Energy Storage (SMES) systems, with a focus on categorizing the prior advancements in SMES design at both national and international levels. The identification of the high temperature superconducting tape is based on the assessment of manufacturers' offerings and the tape's current carrying capabilities. The tape selected for the current investigation has a substrate material that is not magnetic. Moreover, a comprehensive investigation has been conducted on the mechanical design of the 1 MJ Superconducting Magnetic Energy Storage (SMES) systems operating at a temperature of 77 K. This study encompasses the identification of all design parameters, as well as the constraints and input factors associated with the design process. The investigation has opted for a solenoidal magnet arrangement, with a reference field strength of 3 Tesla selected for the design.

Description:

Mechanical Design, Superconducting Coil, Superconducting Magnetic, energy storage systems, high temperature