or
Looking to list your PhD opportunities? Log in here.
Johnson Matthey [JM] makes formulated products, catalysing the net zero transition. These are heavily characterised and tested during product development and manufacturing. The move towards better process efficiency, product control and increasing digitisation of manufacturing plant leads inexorably to a need for improved on-line measurement, and real time process modelling. However, analytics of these data is insufficient to fully optimize the processes. The focus of this project is to integrate available physical models with available process data to create real time inverse models (i.e. digital twins) that are suitable for advanced process control needs of JM, with a focus on the crystallisation of existing products. The EngD student will work as an integral part of the process measurement and control group enabling the digitisation drive across JM manufacturing. The EngD researcher will play a key role within this team; the role will primarily be modelling focused but will require the development of a deep understanding of instrument design and practical experimental skills. The researcher will obtain training and practice in a wide range of skills critical to the future “digital chemical engineer” in an exciting and growing group, and an opportunity to work with a world leading formulation business and gain a unique range of mathematical, engineering and digital skills.
To apply please email your cv to [Email Address Removed]. This projects is open to UK and international students. For details on the Engineering Doctorate scheme visit the homepage: https://www.birmingham.ac.uk/schools/chemical-engineering/postgraduate/eng-d
Based on your current searches we recommend the following search filters.
Check out our other PhDs in Birmingham, United Kingdom
Start a New search with our database of over 4,000 PhDs
Based on your current search criteria we thought you might be interested in these.
EPSRC supported EngD: An experimental and computational investigation of inverse micelles
University of Birmingham
Model-predictive control of brain plasticity for optimal non-invasive brain stimulation
The University of Manchester
EPSRC supported EngD: Towards net-zero manufacture of chilled/refrigerated prepared foods
University of Birmingham