Kettering University

What you'll study

The programme builds a solid foundation in general, organic and physical chemistry, then progresses to specialised topics in optics, photonics and quantum chemistry. Early years cover foundational laboratories, analytical methods and mathematical tools; later years emphasise quantum mechanics for chemists, spectroscopy, optical materials, laser applications and computational modelling of electronic structure.

• Core chemistry and labs: general chemistry, organic chemistry, analytical methods, instrumental analysis and multi-semester laboratory sequences that stress measurement, data analysis and safety.
• Physical and quantum chemistry: thermodynamics and kinetics, quantum mechanics for chemists, molecular orbital theory, spectroscopy and statistical mechanics.
• Optics and photonics: electromagnetic theory for optics, optical materials, laser physics, nonlinear optics, photonic devices and spectroscopy techniques such as UV–Vis, IR, Raman and fluorescence.
• Computational and experimental methods: quantum chemical calculations (DFT and post-Hartree–Fock methods), computational spectroscopy, programming for scientific computing, and instrument control.
• Interdisciplinary electives: materials science, solid-state physics, semiconductor device fundamentals, nanotechnology and courses linking chemistry to electrical engineering and applied optics.
• Capstone and research: a senior design or research project that typically involves experimental or computational investigation of an optics- or quantum-related problem, often carried out in collaboration with faculty or industry partners.

Entry requirements

Applicants should have completed secondary education with strong preparation in chemistry, mathematics (including calculus if available) and physics. Typical successful applicants present advanced-level courses such as A levels, IB higher-level subjects or AP equivalents in those areas. Admissions also consider grades/GPA, relevant laboratory or research experience, personal statements and references.

International applicants must provide academic records that demonstrate equivalence to the university's entry standards. Placement or bridging coursework may be recommended for students who need to strengthen mathematics or physics fundamentals prior to advanced chemistry modules.

Career prospects

Graduates of the programme are prepared for technical and research roles where understanding of light–matter interaction and quantum behaviour is essential. Common career destinations include:

• Photonics and optical engineering positions in companies developing sensors, lasers, fibre-optic systems and imaging devices.
• Materials and semiconductor industries working on optical materials, thin films and nanostructures.
• Analytical and spectroscopic roles in environmental, chemical and pharmaceutical laboratories.
• Research scientist roles in national laboratories, research institutes or university research groups focusing on quantum materials and quantum information science.
• Technical roles in instrumentation, quality control, process development and R&D, plus pathways into graduate study (MS/PhD) in chemistry, physics, materials science or optics and into careers such as patent law or technical consultancy with additional training.

Why study at Kettering University

Kettering emphasises hands-on, experiential education and close collaboration with industry, so the chemistry programme integrates extensive laboratory work and applied projects. The university's cooperative education model and strong employer relationships provide sustained workplace experience and opportunities for internships or co-op placements with companies in manufacturing, automotive, defence and advanced technology sectors.

Students benefit from small class sizes, close faculty mentoring and access to instrumentation used in contemporary optics and spectroscopy research. The curriculum is designed to prepare graduates for immediate technical contribution or for competitive applications to graduate programmes in optics, quantum science and related fields.