Case Studies

Receiving support and funding through the Technology Developer Accelerator Programme helped Empel Systems to commercialise its technology – in particular, the development of a new multi-voltage silicon carbide inverter.

The Technology Developer Accelerator Programme gave Spark EV Technology access to networking opportunities, detailed advice on how to commercialise its EV range prediction technology and platforms to showcase it.

From SME to IPO - this case study tells the story of liner generator maker Libertine FPE's rise through the Technology Developer Accelerator Programme and recent successes.

2-DTech was supported through the Technology Developer Accelerator Programme to commercialise innovative techniques for reinforcing carbon fibre with graphene nano platelets.

An APC-funded project, led by Tevva Trucks in partnership with Advanced Electric Machines Ltd, has demonstrated the need for and developed a hydrogen fuel cell range extender to combat the current requirement for heavy batteries in heavy-duty trucks. This collaborative R&D project SANGREAL is a major step forward in the development of viable low-carbon transport.

Much of the energy is consumed by off-highway work vehicles is used in lifting, carrying or digging - for which the technology can often be comparatively old-fashioned and inefficient. In 2018, the Advanced Propulsion Centre awarded a £10.9 million grant to the DDISPLACE project, which set out to address these challenges with a fundamental rethink on hydraulic system design.

Battery researchers have traditionally had to rely on computer models if they wanted to observe the flow of current within a cell. These vary in accuracy, and any errors in the simulation can be carried through to the cell design, affecting its real-world performance. So, what if you could see inside the cell and directly visualise the flow of current?

Battery researchers have traditionally had to rely on computer models if they wanted to observe the flow of current within a cell. These vary in accuracy, and any errors in the simulation can be carried through to the cell design, affecting its real-world performance. So, what if you could see inside the cell and directly visualise the flow of current?

Battery researchers have traditionally had to rely on computer models if they wanted to observe the flow of current within a cell. These vary in accuracy, and any errors in the simulation can be carried through to the cell design, affecting its real-world performance. So, what if you could see inside the cell and directly visualise the flow of current?

Assisted by funding and support from the Technology Developer Accelerator Programme, Reaction Engines progressed its revolutionary battery cooling system from proof of concept stage to validation.