Active Clean Energy Materials & Manufacturing

FlexiTEC 2 – flexible and robust thermoelectric cooling

In plain English

AI plain-English summary

Heating and cooling a car cabin can drain up to 40% of an electric vehicle’s battery power. This project tackles that waste by developing flexible thermoelectric devices that cool the driver directly, rather than the entire cabin. Previous work shows that localised temperature control can cut cabin power use by 17%. The goal here is to improve both comfort and efficiency by creating thin, bendable cooling panels that can be built into car seats. Thermoelectric materials convert electricity into a temperature difference, but making them both flexible and robust has been a long-standing engineering challenge. This fellowship aims to solve that, producing devices that can bend without breaking. Along the way, the researcher will also adapt more rigid versions for medical and optoelectronic uses—for example, cooling laser components or patient skin during procedures. If successful, the work could directly extend EV range by reducing the energy diverted to climate control. It also aims to shake up a thermoelectric device market that has seen little major innovation in decades, shifting the field’s focus from materials research to practical, deployable products.

View original technical description
Electric vehicles typically consume 14-18% of their power on cabin temperature control, but this can reach up to 40%. Addressing this demand side power consumption rather than the battery supply side could enable easier improvements in electric vehicle (EV) range, increasing the speed of EV adoption. It has been shown that cabin power can be reduced by 17% using more local temperature control e.g. cooling the driver rather than the whole cabin. Our proposed approach is to improve the local temperature control further in both comfort and efficiency by utilising flexible cooling systems that can be integrated more directly into seats. Thermoelectric devices are good candidates for such local temperature control, but need further development to enable a truly flexible and robust device. This project aims to enable this, as well as exploiting the steps on the way to this end, for example utilising more robust devices for medical and optoelectronic applications. By demonstrating these successful application-focused innovations, the fellowship additionally aims to reinvigorate the thermoelectric community, with an increased emphasis on devices and applications beyond the more commonly reported successful research on materials. This would enable real impact, and shake up the market in commercially available thermoelectric temperature control devices that have seen little major innovation in recent decades.

View the original record at the funder ↗

Researchers

Richard Tuley (Principal Investigator)

Related Research

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Original classification

Fellowship

Plain English summaries and category classifications on this site are generated by AI and may not perfectly reflect the original research.