Manchester Scientists in Drive for Cleaner Energy
May 26, 2016 | University of ManchesterEstimated reading time: 1 minute

For the first time, scientists have mapped the movement of electrical charge through a material known as a metal organic framework or ‘MOF’, designed to host charge in future vehicle fuel cells which offer a greener alternative to traditional combustion engines. By using a combination of X-ray and neutron techniques, scientists now have a better understanding of the flow of charge in the material, and can begin to design more efficient fuel cells in pursuit of cleaner energy.
Fuel cells convert the chemical energy of a fuel into electricity by means of a chemical reaction, and there are a variety of fuel cells available, with polymer electrolyte membrane fuel cells currently used most widely. However, the performance of a fuel cell depends on the electrolyte, the porous material at the centre of the cell which controls the flow of charge - to boost its efficiency, scientists are developing smart membranes with new materials which produce more charge.
A team from The University of Manchester linked up with others, including the University of Nottingham, have mapped the atomic structure and workings of the metal organic framework using intense X-rays at the UK’s Diamond Light Source ‘super-microscope’. They then used neutrons to map the flow of charge, known as proton conduction, in the material for the first time. The results, published in the Journal of the American Chemical Society, found that the protons move freely within a sphere, rather than the more common ‘jump diffusion between sites’ mechanism. This new knowledge will enable the design of improved proton conducting materials by optimising the pathway that the protons take.
Dr Claire Murray from Diamond Light Source said: “This represents really beautiful chemistry in a new and exciting area of research. Up until now, metal organic frameworks have been mainly used for gas absorption, but scientists hope to be able to exploit proton conductivity for the production of green energy fuel cells that can operate at high temperatures and in dry conditions. Because the X-rays we generate are so intense, researchers can reveal the structure of materials in very fine detail, enabling the detection of tiny changes that could impact on their performance.”
Now the team have cracked the mechanism behind proton conductivity in the material, they have returned to the laboratory to use this information to design and study new materials with increased conductivity.
Testimonial
"We’re proud to call I-Connect007 a trusted partner. Their innovative approach and industry insight made our podcast collaboration a success by connecting us with the right audience and delivering real results."
Julia McCaffrey - NCAB GroupSuggested Items
Curing and Verification in PCB Shadow Areas
09/17/2025 | Doug Katze, DymaxDesign engineers know a simple truth that often complicates electronics manufacturing: Light doesn’t go around corners. In densely populated PCBs, adhesives and coatings often fail to fully cure in shadowed regions created by tall ICs, connectors, relays, and tight housings.
Marcy’s Musings: Advancing the Advanced Materials Discussion
09/17/2025 | Marcy LaRont -- Column: Marcy's MusingsAs the industry’s most trusted global source of original content about the electronics supply chain, we continually ask you about your concerns, what you care about, and what you most want to learn about. Your responses are insightful and valuable. Thank you for caring enough to provide useful feedback and engage in dialogue.
September 2025 PCB007 Magazine: The Future of Advanced Materials
09/16/2025 | I-Connect007 Editorial TeamMoore’s Law is no more, and the advanced material solutions being developed to grapple with this reality are surprising, stunning, and perhaps a bit daunting. Buckle up for a dive into advanced materials and a glimpse into the next chapters of electronics manufacturing.
I-Connect007 Launches Advanced Electronics Packaging Digest
09/15/2025 | I-Connect007I-Connect007 is pleased to announce the launch of Advanced Electronics Packaging Digest (AEPD), a new monthly digital newsletter dedicated to one of the most critical and rapidly evolving areas of electronics manufacturing: advanced packaging at the interconnect level.
Panasonic Industry will Double the Production Capacity of MEGTRON Multi-layer Circuit Board Materials Over the Next Five Years
09/15/2025 | Panasonic Industry Co., Ltd.Panasonic Industry Co., Ltd., a Panasonic Group company, announced plans for a major expansion of its global production capacity for MEGTRON multi-layer circuit board materials today. The company plans to double its production over the next five years to meet growing demand in the AI server and ICT infrastructure markets.