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Energy-storage technologies and electricity generation

Hall, Peter J. and , EPSRC (Funder) (2008) Energy-storage technologies and electricity generation. Energy Policy, 36 (12). pp. 4352-4355. ISSN 0301-4215

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    Abstract

    As the contribution of electricity generated from renewable sources (wind, wave, solar) grows, the inherent intermittency of supply from such generating technologies must be addressed by a step-change in energy storage. Furthermore, the continuously developing demands of contemporary applications require the design of versatile energy-storage/power-supply systems offering wide ranges of power density and energy density. As no single energy-storage technology has this capability, systems will comprise of combinations of technologies such as electrochemical supercapacitors, flow batteries, Lithium-ion batteries, superconducting magnetic energy storage (SMES) and kinetic energy storage. The evolution of the electrochemical supercapacitor is largely dependent on the development of optimised electrode materials (tailored to the chosen electrolyte) and electrolytes. Similarly, the development of Lithium-ion battery technology requires fundamental research in materials science aimed at delivering new electrodes and electrolytes; Lithium-ion technology has significant potential and a step-change is required in order to promote the technology from the portable electronics market into high-duty applications. Flow-battery development is largely concerned with safety and operability. However, opportunities exist to improve electrode technology yielding larger power densities. The main barriers to overcome in terms of the development of SMES technology are those related to high-temperature superconductors in terms of their granular, anisotropic nature. Materials development is essential for the successful evolution of flywheel technology. Given the appropriate research effort, the key scientific advances required in order to successfully develop energy-storage technologies generally represent realistic goals which may be achieved by 2050.

    Item type: Article
    ID code: 13540
    Keywords: energy storage, technology status, research trends, chemical engineering, energy, Environmental technology. Sanitary engineering, Energy(all), Management, Monitoring, Policy and Law
    Subjects: Technology > Environmental technology. Sanitary engineering
    Department: Faculty of Engineering > Chemical and Process Engineering
    Related URLs:
    Depositing user: Prof Peter J. Hall
    Date Deposited: 27 Nov 2009 14:20
    Last modified: 05 Sep 2014 03:24
    URI: http://strathprints.strath.ac.uk/id/eprint/13540

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