APPLICATIONS NOW CLOSED
School of Engineering, University of Warwick and ERC Synergy Project
Supervisors: Professor Evgeny Rebrov and Professor Volker Hessel
Start date: 03 Oct 2022
Duration: 3.5 years
The laboratory for Energy Intensified Reactor Engineering, together with several academic and industrial partners, performs ongoing research in the framework of an ERC Synergy project SCOPE on the application of novel structured catalysts in plasma flow reactors. This project aims at the design of a novel type of fast measuring technique in methane coupling into ethylene under non-thermal plasma conditions.
To attain optimal reactor performance, measurements for the local temperature and concentration distributions in the reactor should be attained in real-time. It has been proven that the TDLAS (tunable diode laser absorption spectroscopy) is able to measure the temperature and concentration with an ultrafast response time. TDLAS is a technique that measures the absorption spectra of the selected gas using IR-lasers. The principle of TDLAS is based on Lambert Beer’s law. The main part of the TDLAS system is the diode laser of which working wavelengths are adjusted to the range of absorptive wavelengths of the target gas.
In addition to the concentration measurements, the temperature dependency of the ratio of two dominant wavelengths is used for temperature calculations inside the reactor. The optical parameters are directly measured by changing the temperature and pressure of the target gas. In the actual use of the optical experimental apparatus, the process of reducing the error between the theory and the experiment is important. The calculation error of the method will be estimated from the temperature obtained from the TDLAS experiment and the temperature obtained with a thermocouple.
The primary objective of this research is to develop a method allowing to obtain reliable temperature and concentration maps for key components inside the chemical reactor. Then the catalytic reaction will be studied in real-time to determine the reactant conversion and product yields/selectivity as a function of several process parameters (flow rate, catalyst type, pressure etc.).
The student will be actively involved in the development of optical gas measurement, calibration and testing infrastructure, which would include the development and deployment of spectral databases and testing of mid-IR laser diodes. This would also involve participation in publishing review papers, trade journals and other outreach activities with industrial partners with regular site visits and assist in test and measurement campaigns when necessary.
More details about the SCOPE project can be found in the Warwick news
Candidates must have a 1st or 2.1 honours degree in Physics, Optics or Electrical Engineering. UK and International candidates are welcome to apply.
Experience with diode lasers, programming environments such as Matlab and LabVIEW and gas handling would be a plus. The candidate should have demonstrated the ability to publish in top scientific journals.
The award will cover full tuition fees, plus a stipend of £20,062 per annum for 3.5 years of full-time study.
How to apply:
Candidates should submit an expression of interest by sending a CV and supporting statement outlining their skills and interests in this research area to www.warwick.ac.uk/engpgr/ervh2/appcv/. If this initial application is successful, we will invite you to make a formal application for study. All candidates must fulfil the University of Warwick entry criteria and obtain an unconditional offer before commencing enrolment.
The University of Warwick provides an inclusive working and learning environment, recognising and respecting every individual’s differences. We welcome applications from individuals who identify with any of the protected characteristics defined by the Equality Act 2010.