Pittsburg State University

What you'll study

This programme builds core competency in general, organic and analytical chemistry while concentrating on topics that underpin modern optics and quantum chemistry. You will study the theoretical and experimental foundations of physical chemistry and quantum mechanics as applied to molecular structure, spectroscopy and photonic materials.

• Core chemistry sequence: General Chemistry, Organic Chemistry, Analytical Chemistry and associated laboratory courses providing quantitative and instrumental skills.
• Physical and quantum chemistry: Courses in thermodynamics, chemical kinetics, quantum mechanics for chemists, molecular structure and statistical mechanics.
• Spectroscopy and optics: Instruction in electronic, vibrational and rotational spectroscopy, laser fundamentals, photophysics, and experimental optics techniques relevant to chemical measurement.
• Materials and solid-state chemistry: Study of optical materials, semiconductors and photonic materials including structure–property relationships.
• Computational and instrumental methods: Computational chemistry, numerical methods and hands‑on training with instruments such as UV–Vis, IR, fluorescence spectrometers and other common laboratory optics equipment.
• Laboratory and research experience: Progressive laboratory courses and opportunities for faculty‑mentored undergraduate research or a senior capstone project focused on experimental or theoretical problems in optics and quantum chemistry.
• Supporting mathematics and physics: Calculus, linear algebra and introductory electromagnetism/modern physics to provide the quantitative background needed for quantum and optical topics.

Entry requirements

Applicants are typically expected to hold a high school diploma or equivalent with a solid record in science and mathematics. Successful candidates commonly have completed high school chemistry (with laboratory) and mathematics through at least algebra and precalculus or calculus.

• Official high school transcripts demonstrating college‑preparatory coursework.
• Preparation in chemistry and mathematics; prior laboratory experience is advantageous.
• Some preparation in physics is helpful because physical and quantum chemistry draw on basic physical principles.
• Standardised tests, personal statements or letters of recommendation may be considered according to the university's undergraduate admissions policies; check the admissions office for current guidance.
• Transfer students should provide college transcripts and details of previous coursework to evaluate equivalency for core and major requirements.

Career prospects

Graduates with a chemistry degree focused on optics and quantum chemistry are well placed for a range of technical and scientific careers. The degree prepares students for immediate entry into industry as well as for graduate or professional study.

• Research and development: Positions in industrial R&D or national laboratories working on optical materials, sensors, photonics and spectroscopy.
• Optical and photonics engineering support: Roles involving instrumentation, optical testing, and quality control in companies producing lasers, detectors and optical components.
• Materials science and nanotechnology: Work on design and characterisation of materials with tailored optical or electronic properties.
• Computational chemistry and modelling: Roles using quantum chemical methods and simulation to predict molecular and material behaviour.
• Technical sales, patent and regulatory work: Opportunities leveraging scientific knowledge in commercial, legal or compliance settings.
• Further study: Many graduates go on to graduate programs (MSc, PhD) in chemistry, physics or engineering, or professional schools in areas such as optics, materials or applied physics.

Why study at Pittsburg State University

Pittsburg State University offers small‑group teaching and accessible faculty mentorship that benefits undergraduates pursuing hands‑on scientific training. The chemistry programme emphasises laboratory competence and undergraduate research, enabling students to develop practical skills with modern analytical and optical instruments.

• Undergraduate research opportunities: Close faculty‑student collaboration on projects gives students real research experience that strengthens career and graduate school applications.
• Practical laboratory training: The curriculum integrates instrument‑based laboratory courses and capstone projects, preparing students for work in labs and industry settings.
• Supportive campus environment: Small class sizes, advising and career services help tailor academic pathways and connect students with internships and regional employers.
• Pathways to advanced study: The programme provides the theoretical and quantitative foundations necessary for graduate study in chemistry, optics, materials science and related fields.