The project will design, model, develop and evaluate an industry-first Low Cost Auxiliary Power Unit (LowCAP) for Range Extended Electric Vehicles (REEVs). Tata Motors European Technical Centre (TMETC) plc, Ashwoods Automotive Ltd (Ashwoods), and University of Bath (Bath) combine to offer the set of skills to develop, evaluate and exploit the outputs in global mass market volumes.
The project will be focused from day one towards the low cost REEV market. The motors and controllers will be an exploitation of the low cost electric motor technology developed by Ashwoods through previous TSB funded projects involving Ashwoods and Bath. The project will see further innovations in low cost motor and inverter IP that will enable the development of a highly efficient, low cost, fully integrated, lightweight APU built from sustainable materials.
Successful outputs will be sold and distributed by Tata Motors Group within their own vehicles and as a standard LowCAP unit to global OEMs. The project will result in UK intellectual property being technically and commercially tied into one of the lowest cost modern internal combustion engines (ICE) on the market which is built by Tata Motors and is anticipated to be exploited globally within the Tata Motors Group and beyond to the global OEM marketplace.
Enhancing the performance of advanced battery technologies is pivotal in the development of high-functioning electric vehicles. In this case study, we explore how a collaboration between Rockfort Engineering, a UK based design consultancy specialising in EV powertrain integration and technologies, and IAAPS leveraged state-of-the-art testing facilities and expertise to push the boundaries of battery technology.
The primary goal is to develop a high-speed, electrically driven two-stage compressor that is both lighter and cheaper and more efficient than current air compressor systems available in the automotive sector
Our researchers analysed the commercial viability of solid-state batteries in automotive technology and whether elevated operational temperature is a barrier to mainstream adoption
Globally unique experimental and simulation techniques result in CO2 savings equivalent to removing 109, 000 cars from the road every year
Chassis dynamometers offer considerable potential for the analysis of real-world fuel economy and emissions performance
IAAPS is collaborating with McLaren on research into several technology areas for McLaren’s next generation engine and hybrid powertrain
Electric Turbocharging for Energy Regeneration Increased Efficiency at Real Driving Conditions
How we’ve helped Ford improve the way they measure carbon emissions and fuel consumption
In collaboration with the IAAPS team, HiETA Technologies designed, manufactured and physically tested a lightweight and internally cooled Radial turbine wheel
Our researchers have conducted experiments linking fuel use and the emotional response of drivers to acceleration performance
Alongside Ashwoods Automotive, our researchers have developed a mass-market-ready low-carbon diesel hybrid engine
A cost-effective solution to torque ripple in PM Synchronous Motors enabled our partner to expand its market into high-quality, light-weight electric vehicles
New Hybrid Thermal Propulsion Systems Prosperity Partnership aims to accelerate UK’s journey to zero emission mobility
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