Benedictine University

What you'll study

The programme builds a strong core in general, organic and physical chemistry while giving you specialised coursework and laboratory experience in optics and quantum chemistry. You will take foundational courses such as General Chemistry, Organic Chemistry, Physical Chemistry and Analytical Chemistry alongside mathematics and physics courses (calculus, linear algebra and introductory electromagnetism) that underpin quantum and optical theory.

• Core chemistry and labs: general/inorganic chemistry, organic chemistry sequence with associated labs, analytical methods and instrumental analysis.
• Physical and theoretical chemistry: thermodynamics, kinetics, quantum chemistry/quantum mechanics for chemists, statistical mechanics and computational chemistry methods.
• Optics and spectroscopy: classical optics, modern optics, optical spectroscopy (UV‑Vis, IR, Raman), photophysics and laser applications in chemical analysis.
• Advanced laboratory and research: advanced instrumental laboratory, experimental optics lab, independent research projects or capstone with faculty mentorship emphasising experimental design, data analysis and scientific communication.
• Supporting mathematics and physics: calculus, differential equations, linear algebra and introductory physics courses to provide the quantitative background required for quantum and optical studies.
• Electives and interdisciplinarity: materials chemistry, semiconductor physics, nanoscience, photonic materials, computational modelling and courses from adjacent disciplines depending on interests.

Structure

The degree combines general education requirements with major coursework and laboratory hours across multiple semesters. Early years concentrate on core chemistry and maths/physics foundations; later years emphasise advanced physical chemistry, optics, specialised labs and an independent research or capstone project that integrates theoretical and experimental skills.

Entry requirements

Applicants should hold a high school diploma or equivalent with a solid background in chemistry and mathematics. Typical preparation includes high school chemistry, algebra and precalculus or calculus; physics is strongly recommended. Admissions consider your academic transcript, personal statement and letters of recommendation. For transfer applicants, college transcripts showing completion of introductory chemistry and calculus are typically required. International applicants must meet English proficiency requirements and provide equivalent academic documentation.

Prospective students should be prepared for a quantitatively demanding programme: good grades in STEM subjects and demonstrated analytical ability are important. Contact the admissions office or departmental advisers for specific entry guidance and course placement assessments.

Career prospects

Graduates are prepared for a range of scientific and technical careers or for graduate study. Common pathways include:

• Research and development in photonics, optical materials and sensors.
• Analytical and instrumental chemistry roles in industry, quality control and environmental testing.
• Materials science and semiconductor industry positions developing optoelectronic devices.
• Graduate study in chemistry, chemical physics, optical engineering or quantum science leading to research careers or academic posts.
• Technical roles in biotechnology, pharmaceuticals, instrumentation companies and national laboratories.
• Careers in patent law, technical consulting or scientific sales, often following additional professional training.

The programme’s hands‑on laboratory training and emphasis on experimental design and data analysis make graduates attractive to employers needing practical skills in spectroscopy, laser systems and computational modelling.

Why study at Benedictine University

Benedictine University offers a small‑class environment with opportunities for close faculty mentorship and early involvement in undergraduate research. Chemistry students benefit from access to modern instrumentation in teaching and research laboratories and tailored supervision for capstone projects that can focus on optics, spectroscopy or quantum‑related experiments.

The university’s location provides connections to a broad regional network of industry, research institutions and internship providers, allowing students to gain practical experience outside the laboratory. In addition to technical training, the curriculum emphasises communication, ethics and interdisciplinary thinking to prepare graduates for professional contexts or further academic study.