Aarhus University

What you'll study

The programme is a research-led PhD combining an independent doctoral project with targeted advanced training. Central themes include electrochemical techniques (potentiometry, amperometry, impedance spectroscopy), surface and interface science, design and characterisation of nanomaterials (metallic and carbon-based nanostructures, nanoparticles, nanosheets), and the integration of these materials into biosensors and bioelectronic devices.

• Doctoral research project – an original experimental and/or modelling project supervised by one or more academic staff, focused on electrochemical approaches to biomedical problems such as diagnostics, neural interfaces, implantable devices or drug delivery.
• Advanced technical training – focused courses or workshops on electrochemical instrumentation, micro/nanofabrication, surface analysis (XPS, AFM), electron microscopy (SEM/TEM), spectroscopy and cleanroom processes where relevant.
• Bioscience & safety aspects – modules covering biocompatibility, in vitro/in vivo testing basics, biofunctionalisation of surfaces and safe handling of biological materials.
• Research skills and transferable competencies – training in scientific writing, statistics and data analysis, project management, research integrity and science communication. Teaching and supervision experience is often available.
• Seminars and collaboration – participation in departmental seminars, international guest lectures and collaborative meetings with hospital and industry partners.

Structure and assessment

The PhD is primarily assessed on the quality and originality of the thesis (including publications) and on a final public defence. Progress is monitored through regular supervisory meetings, interim reports and seminars. Many candidates also contribute to teaching and collaborative grant activities during their candidature.

Entry requirements

Applicants should hold a relevant master's degree or equivalent in chemistry, physics, materials science, nanoscience, biomedical engineering or a closely related discipline, with strong academic performance. Essential background typically includes electrochemistry, physical chemistry or solid-state/analytical characterisation techniques.

• Demonstrable laboratory experience in electrochemical methods or nanomaterials preparation and characterisation is strongly preferred.
• A research statement or proposal outlining intended PhD topics and prior experience.
• Academic references that can attest to research potential.
• Proof of English language proficiency where required by university regulations.

Many PhD positions are tied to funded projects; prospective candidates should consult advertised project descriptions or contact potential supervisors to discuss fit and available funding. International applicants should follow Aarhus University's general PhD application procedures.

Career prospects

Graduates gain skills applicable across academia, industry and the public sector. Typical career paths include:

• Academic research and postdoctoral positions in electrochemistry, nanoscience and bioengineering.
• R&D roles in medical device, diagnostics and biotechnology companies, focusing on sensor development, implantable devices and point-of-care technologies.
• Analytical and instrumentation industries, working on electrochemical instrument design, quality assurance and method development.
• Regulatory science, clinical validation, technology transfer and start-up formation within the health-tech and nanotech sectors.
• Science policy, technical consulting and intellectual property careers where strong interdisciplinary technical training is valued.

Why study at Aarhus University

Aarhus University offers an interdisciplinary environment combining chemistry, physics, engineering and life sciences, with active research groups in electrochemistry, nanoscience and biointerfaces. Students benefit from access to shared facilities such as advanced microscopy, spectroscopy and nanofabrication labs, and from collaborations with clinical partners at Aarhus University Hospital and industrial partners in the Danish and international med‑tech community.

The PhD training emphasises international research, supervision by experienced groups with strong publication records, and professional development through the university's doctoral school programmes. The research culture supports cross‑disciplinary projects that translate fundamental electrochemical science into practical biomedical and nanobiotechnology applications.