Imperial College London

Dr. Zoltán Kis

Faculty of EngineeringDepartment of Chemical Engineering

Honorary Lecturer
 
 
 
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Contact

 

z.kis10 Website

 
 
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Location

 

C506Roderic Hill BuildingSouth Kensington Campus

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Summary

 

Research Overview

Our exciting research combines experimental and modelling techniques, and innovates RNA vaccine & therapeutics production platform processes. The platform processes that we are developing will enable the rapid development and mass-manufacturing of RNA vaccines and therapeutics at high volumes, low cost and high quality against a wide range of diseases. To achieve this ambitious goal, we are developing and synergising a set of physical and digital technologies integrated into the Quality by Digital Design framework, and based on techno-economic considerations. The obtained computer models will link RNA product quality to the production process, and will enhance both the development and operation of RNA manufacturing processes.

The RNA vaccine platform technology has been successfully used to develop COVID-19 vaccines at record speeds. However, the RNA vaccine production volumes and rates can be further increased, while reducing costs and maintaining consistently high product quality. In addition, RNA vaccines can be produced based on a transformative platform technology, meaning that the same manufacturing infrastructure can be used to produce vaccines and therapeutics against a wide range of diseases. Therefore, it is anticipated that the demand for RNA vaccine production technologies will substantially increase and the physical processes and digital tools developed in our group are expected to be widely adopted.


Key research areas include:

  • Experimental mRNA vaccine and RNA therapeutics manufacturing process development: process intensification, continuous manufacturing and scale-up.
  • Development and optimisation of continuous in vitro transcription (IVT) reaction for mRNA synthesis, continuous mRNA downstream purification processes based on continuous chromatography and tangential flow filtration unit operations, as well as continuous LNP formulation unit operations.
  • Development of new unit operations and design of process equipment for mRNA manufacturing.
  • Process digitalisation: development of soft sensors and digital twins to monitor and control the manufacturing of RNA vaccines, RNA therapeutics and other biopharmaceuticals.
  • Techno-economic modelling for reducing the costs, increasing production rates and increasing production volumes of RNA vaccines, RNA therapeutics and other biopharmaceuticals.
  • Quality by Digital Design for consistently ensuring product quality, support scale-up, technology transfer, and for accelerating the regulatory approval process.

Research Student Supervision

Asma Zafar,, Development of a gene network for studying mechanosensing in endothelial cells. 2013-2014

Behmer,C, Bioprocess modelling for Quality by Design. 2019

Grace Freke,, Evaluating the activation of shear stress sensors by pulling with magnetic tweezers. 2013-2014

Karpouza,L, Techno-economic modelling of vaccine production processes in glycoengineered yeast. 2019

Oliver Fleck,, Evaluating shear stress sensors under various shear stress regimes. 2013-2014

Vanoutryve,J, Bioprocess simulation and techno-economic modelling of GMMA vaccines. 2019

Zhangxing Lai,, Design and construction of a flow chamber in which shear stress varies linearly along the axis of flow. 2012

van De Berg,D, Bioprocess modelling for Quality by Design. 2019