CUNY(The City University of New York)

What you'll study

The programme centres on advanced topics in electrochemical systems within a broad chemical engineering curriculum. Core research areas include electrochemical energy conversion and storage (batteries, fuel cells, electrolyzers), electrode and electrolyte materials, interfacial electrochemistry, corrosion and protection, electrochemical sensors, and scale-up of electrochemical reactors.

Coursework typically combines advanced chemical engineering foundations (transport phenomena, reaction engineering, thermodynamics) with specialised classes in electrochemistry, materials for energy, porous electrode theory, and advanced characterisation techniques. Students also take seminars in current research, professional development modules, and methods courses in data analysis and modelling.

• Typical taught modules and topics: advanced transport phenomena, electrochemical kinetics and mechanisms, materials for batteries and supercapacitors, electrode/electrolyte interfaces, porous media and multiphase transport, corrosion science, electrochemical reactor design, in situ characterisation methods (electrochemical impedance spectroscopy, cyclic voltammetry, spectroscopy), and computational methods for electrochemical systems.
• Research and thesis: the PhD is research-intensive. After initial coursework and rotations (where offered), students join a research group and develop an original dissertation under faculty supervision. Research is often interdisciplinary, combining experiments, modelling and materials characterisation.
• Facilities and collaboration: students commonly use shared clean-room and materials labs, electrochemical workstations, spectroscopy and microscopy facilities, and have opportunities to collaborate with the CUNY Energy Institute, Advanced Science Research Center, and regional industry and national laboratory partners.

Entry requirements

Applicants are expected to hold a strong bachelor's degree in chemical engineering, materials science, chemistry, physics or a closely related engineering discipline. Many successful applicants have a master’s degree or prior research experience in electrochemical systems or materials, but a master’s is not always mandatory if undergraduate preparation and research potential are strong.

• Academic preparation: strong academic record in core subjects such as transport phenomena, thermodynamics, kinetics, and materials science.
• Research experience: prior laboratory or research experience in electrochemistry, batteries, fuel cells, corrosion, or related areas strengthens an application.
• Supporting documents: research statement outlining interests and potential faculty matches, curriculum vitae, academic transcripts, letters of recommendation, and where applicable proof of English language proficiency.
• Admissions assessment: selection prioritises research fit with faculty, potential for independent research, and availability of faculty supervision and funding. Specific departmental guidelines and minimum numerical thresholds (such as GPA or test scores) should be checked on CUNY programme pages.

Career prospects

Graduates proceed to a range of careers that value deep electrochemical and materials expertise. Common paths include academic research and postdoctoral positions, roles in industrial R&D for battery, fuel cell and electrolysis technology, materials and corrosion engineering, analytical and sensor companies, and process development for electrochemical manufacturing.

• Industry: positions in battery and energy storage companies, renewable energy firms, chemical manufacturers, and start-ups developing electrochemical devices and processes.
• National laboratories and research institutes: research scientist roles addressing large-scale energy challenges, advanced materials development and electrochemical testing facilities.
• Academic: faculty positions and postdoctoral research leading independent research programmes in electrochemistry, materials science and chemical engineering.
• Related roles: technology translation, intellectual property and patent science, consulting, and engineering management in sectors where electrochemical solutions are applied.

Why study at CUNY(The City University of New York)

CUNY offers a PhD environment embedded in an urban research ecosystem with strong ties to industry, national labs and interdisciplinary research centres. The Grove School of Engineering and affiliated research institutes provide access to specialised facilities and collaborative projects in energy and materials science.

• Faculty expertise: research-active faculty working on electrochemical energy conversion and storage, corrosion, sensors and related materials offer a broad range of supervision and collaboration opportunities.
• Interdisciplinary environment: proximity to the CUNY Energy Institute, Advanced Science Research Center and neighbouring universities in New York enables cross-disciplinary projects and access to additional instrumentation and expertise.
• Funding and professional development: PhD students are typically supported through research and teaching assistantships, and have access to workshops, seminars and career-development resources tailored to academic and industry careers.
• Location: studying in New York provides networking opportunities with a dense cluster of energy, materials and technology companies, start-ups and research organisations, useful for internships and collaborations.