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Development of High Energy/High Power Density Supercapacitors for Automotive Applications

Project

AUTOSUPERCAP - Development of High Energy/High Power Density Supercapacitors for Automotive Applications


Funding origin:
European
European Union
STRIA Roadmaps:
Transport electrification (ELT)
Transport electrification
Vehicle design and manufacturing (VDM)
Vehicle design and manufacturing
Low-emission alternative energy for transport (ALT)
Low-emission alternative energy for transport
Transport mode:
Road
Road
Transport sectors:
Passenger transport
Passenger transport
Project website:
Duration:
Start date: 01/01/2011,
End date: 01/07/2014

Status: Finished
Funding details:
Total cost:
€5 434 732
EU Contribution:
€3 974 595

Overview

Background & policy context:

Supercapacitors are essential in electric vehicles for supplying power during acceleration and for recovering braking energy. High power and sufficient energy density (per kilo) are required for both an effective power system but also to reduce weight. There are several issues to achieve a high performance/low weight power system that need to be addressed by various groups of scientists and engineers in an integrated framework.

Objectives:

The aim of the project is to develop supercapacitors of both high power and high energy density at affordable levels for the automotive industry, and of higher sustainability than many current electrochemical storage devices.

Methodology:

These targets will be achieved by integrating several novel stages:

(a) computer simulations to optimise the power system and the design of the supercapacitor bank for different supercapacitor models, representing the different supercapacitor cells to be developed and tested in this project;

(b) carbon-based electrodes will be used to reduce the amount of rare and expensive metals;

(c) electrolytes of high operating voltage will be used to increase both power and energy density, although the problem is that they have large ions that reduce the effective surface area of porous electrodes due to low diffusivity;

(d) in this case, innovative electrode structures will be developed based on combinations of high surface area/large pore activated carbon electrodes and low resistance carbon fibrous materials or carbon nanotubes; graphene will also be investigated.

(e) novel methodologies will be developed to integrate the innovative electrode materials in the fabrication process for manufacturing large supercapacitors. These will be tested both at small-scale, and in realistic electric car test rig tests, and be cost and life-cycle-assessed.

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