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QMU

Microwave Catalysis for Sustainable Solvent Production from Waste Carbon Resources

Queen Mary University of London School of Physical and Chemical Sciences
✓ Fully Funded 🎓 Applied Chemistry 🎓 Chemistry 🎓 Environmental Chemistry pharmaceutical chemistry microwave catalysis sustainable solvents carbon dioxide utilization plastic waste upcycling catalyst design reaction engineering

Explore microwave-driven catalytic processes to convert waste carbon resources into sustainable solvents. Investigate catalyst performance and process optimization in a multidisciplinary project with industrial collaboration.

AI-generated overview

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Why This Research Matters

This research develops sustainable, circular production routes for pharmaceutical solvents, reducing reliance on fossil-derived solvents and cutting greenhouse gas emissions. The project also advances scalable microwave catalytic technologies with potential industrial and environmental benefits.

Microwave Catalysis and Chemistry Hydrogen technology Plastic waste upcycling CO2 utilization

Project Description

Project Overview

Solvents are essential in pharmaceutical manufacturing but contribute significantly to Scope 3 greenhouse gas emissions. This project aims to establish a circular, sustainable solvent production route by upcycling waste carbon forms such as CO₂, waste plastics, and biomass into high-value solvents.

What You Will Do

You will explore innovative microwave-driven catalysis, designing advanced microwave-responsive catalysts and developing scalable reaction systems. Your research will investigate the interactions between microwaves and catalytic materials, catalyst performance, and optimization of processes to achieve high-purity solvent output.

Expected Outcomes

The project will deliver a novel catalytic process enabling efficient conversion of waste carbon into valuable solvents, bridging catalysis, reaction engineering, and sustainable manufacturing disciplines.

Why This Matters

This project addresses pharmaceutical solvent-related emissions by transforming waste carbon resources into sustainable chemical feedstocks, enabling greener manufacturing and reduced environmental impact. Collaboration with industrial partners will facilitate real-world application and process scale-up opportunities.

Entry Requirements

A good Honours degree (minimum 2:1) or MSc/MRes in a relevant discipline.

How to Apply

Apply via https://www.qmul.ac.uk/postgraduate/research/subjects/chemistry.html or contact Dr Michael Jie at x.jie@qmul.ac.uk for informal enquiries.

Eligibility

UK/Home
EU
International

Supervisor Profile

DM
Dr Michael Jie
Queen Mary University of London, School of Physical and Chemical Sciences
1704 Citations
17 h-index
Google Scholar

Dr Michael Jie is a Senior Lecturer at Queen Mary University of London specializing in microwave catalysis, hydrogen technology, plastic waste upcycling, and CO₂ utilization. He leads research in innovative microwave-driven catalytic processes with significant contributions in environmental and sustainable chemistry, supported by an h-index of 17 and over 1,700 citations.

Key Publications

2020 590 citations
Microwave-initiated catalytic deconstruction of plastic waste into hydrogen and high-value carbons
This paper demonstrated a method to convert plastic waste into hydrogen and valuable carbon materials using microwave-initiated catalysis.
2020 359 citations
Transforming carbon dioxide into jet fuel using an organic combustion-synthesized Fe-Mn-K catalyst
This work enabled the conversion of CO2 into jet fuel, providing a potential pathway for sustainable fuel production.
2019 138 citations
The decarbonisation of petroleum and other fossil hydrocarbon fuels for the facile production and safe storage of hydrogen
This study advanced techniques for producing and safely storing hydrogen from fossil hydrocarbon fuels with reduced carbon emissions.
2019 137 citations
The importance of inner cavity space within Ni@ SiO2 nanocapsule catalysts for excellent coking resistance in the high-space-velocity dry reforming of methane
The paper identified catalyst design strategies enhancing coking resistance to improve methane dry reforming efficiency.
2017 77 citations
Rapid production of high‐purity hydrogen fuel through microwave‐promoted deep catalytic dehydrogenation of liquid alkanes with abundant metals
This research developed a method for fast generation of pure hydrogen fuel via microwave-assisted catalytic dehydrogenation.

Research Contributions

Developed microwave-initiated catalytic processes to deconstruct plastic waste into hydrogen and valuable carbon materials.
Provides a sustainable approach to plastic waste management and clean hydrogen production.
Designed catalysts enabling the conversion of carbon dioxide into usable fuels like jet fuel.
Offers a route toward carbon-neutral or carbon-recycling fuel technologies.
Advanced understanding and improvement of catalyst structures to enhance resistance to coking in methane reforming.
Improves catalyst longevity and efficiency for hydrogen production from methane.
Established microwave-assisted catalytic methods for rapid and high-purity hydrogen production from hydrocarbons.
Contributes to clean energy technology advancement and hydrogen economy development.

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