Research profile
Digital chemistry, automation, and electrochemical discovery
I am a Research Fellow at the University of Glasgow working at the interface of digital chemistry, electrochemistry automation, and programmable chemical systems.
- Glasgow, United Kingdom
- Google Scholar
- GitHub
About Me
My career has strategically built an interdisciplinary profile at the forefront of digital chemistry, integrating materials science, electrocatalysis, chemical automation, and AI for sustainable energy discovery. I specialize in the development of automated platforms for the controlled stimulus of electro- and photochemistry, utilizing integrated analytical feedback to drive autonomous discovery.
During my PhD, I pioneered automated in-situ analysis to understand complex electrochemical processes at nanointerfaces, leading to a real-time gas monitoring device and a granted patent. I also designed an in-flow electrochemical cell for the ALBA synchrotron enabling real-time electrocatalysis and XANES measurements, complemented by Raman, X-ray spectroscopy and confocal microscopy studies.
My postdoctoral work at the University of Glasgow expanded into digital chemistry with the ElectroChemputer, the first universal framework for programmable electrosynthesis. Since September 2024, I have served as Postdoctoral Researcher and Team Leader of the Chemputer Reactivity Team in the Cronin Group. In this leadership role, I manage multidisciplinary projects focused on advancing reactivity and chemical discovery through robotics.
Outside the lab, I enjoy bringing science to life through illustration, video editing, and 3D modelling. Some of my artwork has even made it onto the front covers of scientific journals.
Video
Pushing the Boundaries of Digital Chemistry
Recent Updates
- 2026: Selected as an SLAS2026 Innovation Award finalist for “Real-Time Analytics for Accelerated Electrochemistry: The ElectroChemputer Platform.”
- 2026: ElectroChemputer with integrated monitoring for programmable electrochemistry published in Chem.
- 2025: Work on compression of molybdenum blue polyoxometalate cluster rings published in Journal of the American Chemical Society.
- 2024: Algorithm-driven robotic discovery of polyoxometalate-scaffolding metal-organic frameworks published in Journal of the American Chemical Society.
Scientific illustration
Cover Artwork
Selected journal cover artwork and visual pieces developed alongside my research.
Contact
Publications
Peer-reviewed publications listed in my current CV.
Published Research
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ElectroChemputer with Integrated Monitoring for Programmable Electrochemistry
Chem, 2026, 12, 102907.
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Advanced Functional Materials, 2026.
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POM-based Water Splitting Catalyst Under Acid Conditions Driven by its Assembly on Carbon Nanotubes
Advanced Materials, 2025, e12902.
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Advanced Science, 2025, 12, e05104.
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Compression of Molybdenum Blue Polyoxometalate Cluster Rings
Journal of the American Chemical Society, 2025, 147 (12), 10579-10586.
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Algorithm-driven robotic discovery of polyoxometalate-scaffolding metal-organic frameworks
Journal of the American Chemical Society, 2024, 146 (42), 28952-28960.
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Programmable Chemputable Click Chemistry
Chem, 2024, 10 (9), 2621-2623.
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Advanced Sustainable Systems, 2023, 8 (5), 2300607.
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Mechanical interlocking of SWCNTs with N-rich macrocycles for efficient ORR electrocatalysis
Chemical Science, 2022, 13 (33), 9706-9712.
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ChemSusChem, 2021, 14 (22), 4973-4984.
A regularly updated record is also available through Google Scholar .
Patents
- ES-2796448_B2. Battery Compound. María del Carmen Giménez López, Eugenia Pilar Quirós Díez, and Melanie Guillén Soler.
- ES-2952195_B2. Dispositivo de monitorización de gases automatizada y en tiempo real (CEMDRA). María del Carmen Giménez López, Víctor Leborán Álvarez, Carlos Herreros Lucas, and Melanie Guillén Soler.
Research
My research connects digital chemistry, robotic experimentation, electrochemical methods, and materials discovery. I am interested in systems where hardware, chemical reactivity, analytical feedback, and algorithmic decision-making can be treated as one programmable experimental workflow.
- Programmable electrochemistry and electro-photo-chemical platforms
- Robotic workflows for reproducible chemical synthesis and analysis
- Polyoxometalate materials, electrocatalysis, and energy-related chemistry
- Data-rich experimental design for automated discovery
Projects
Selected project pages, data, and code repositories will be added here. Current public resources are available through my GitHub profile.