AZoM - The A to Z of Materials


 
Picosun SUNALE P-Series Atomic Layer Deposition (ALD) Reactors
Bruker Handheld XRF Spectrometers
Micromeritics is an Industry Leader in Particle Science and Particle Technology
CILAS state of the art laser particle size analyzers
Vesuvius - Solutions for molten metal, glass and renewable energy industries
University of Surrey-Short Courses and MSc in Materials science
World leader in design and manufacture of high-performance CCD, ICCD, sCMOS, EMCCD for scientific imaging, microscopy and spectroscopy applications
Materials testing services for aerospace to automotives, pharmaceuticals to polymers
X-Ray diffractometers from Shimadzu
NanoTest™, the complete nanomechanical testing center
Email / Share

Prediction Made that High Temperature Ceramic Fuel Cells will become Mobile Power Generators

Posted in | Plastics and Polymers | Building and Construction | Ceramic Materials | Composites | Energy | Fuel Cell

 



 

Tab options

 

“Ceramic high-temperature fuel cells will soon be a mass market,” forecasts Professor Alexander Michaelis, director of the Fraunhofer Institute for Ceramic Technologies and Systems IKTS in Dresden. “They are ideal as mobile power generators for motor homes, boats, trucks or cars, as well as in stationary applications for generating electricity, heating and cooling, or in agriculture for generating energy from biogas.”

By developing cost-effective, long-lasting stacks, the heart of a high-temperature fuel cell, IKTS researchers have now created conditions for commercial applications. Stacks are made up of thin ceramic plates on the surface of which fuels are converted directly into electrical power through an electrochemical process. Compared with the polymers used in low-temperature fuel cells, these ceramic cells have one distinct advantage: apart from pure hydrogen, which is difficult to obtain in any case, they can also generate power from methane, gasoline, diesel, natural gas or biogas. The process is fairly simple from an engineering viewpoint and therefore cost-effective. Efficiency of more than 90 percent can be achieved as part of a combined heat/cooling and power system – outperforming alternative technologies.

However, the stacks inside the fuel cell need to withstand major stresses with operating temperatures reaching up to 1 000 degrees Celsius. In effect, a high reducing atmosphere is created on the combustion gas side of the ceramic cells as a counterpoint to the high oxidizing atmosphere on the air side. Developing materials that can constantly withstand these kinds of aggressive conditions is a challenge for seasoned materials researchers. Together with industry partners H.C. Starck GmbH, a subsidiary of Bayer AG, and Webasto AG, a team at the IKTS is developing composite materials made out of metal, ceramics and glass. These materials are ideal for building low-cost, robust stacks – a service life of over 5,000 hours has already been achieved. The new stack design is due to go into series production shortly.

Posted July 25th, 2006

 

AZoM News Archive Page

Microtrac Particle Size Distribution & Characterization Analyzers
Bodycote Heat Treatments - Electron Beam Welding Services
The New D8 ADVANCE – the 1st truly all-purpose Diffraction Solution for X-ray Powder Diffraction
Malvern Morphologi G3 particle characterization system
Approved Professional Development Courses from Loughborough University
Powerful MAC OS compatible scanning probe microscope SPM
ADMET universal materials testing machines

 

International Syalons - leading manufacturer of advanced technical ceramics
version 2.0 - AZoM™ - The A to Z of Materials and AZojomo - The "AZo Journal of Materials Online"...AZoM™.com Pty.Ltd Copyright © 2000-2010