Pace University

What you'll study

The programme provides a comprehensive chemistry curriculum built on foundational courses in general, organic and physical chemistry, together with mathematics and physics required for advanced work in optics and quantum chemistry. Core laboratory work emphasises instrumental analysis, spectroscopy and modern physical methods, while specialised modules cover topics such as quantum mechanics for chemists, molecular spectroscopy, photochemistry, solid-state and materials chemistry, and optical materials.

• Core chemistry: general chemistry, organic chemistry, physical chemistry, analytical chemistry and laboratory techniques.
• Mathematics and physics foundations: calculus, linear algebra, classical mechanics and introductory electromagnetism to support quantum and optical topics.
• Optics and photonics: courses in optics, laser spectroscopy, nonlinear optics, and photonic materials and devices.
• Quantum chemistry: quantum theory for chemists, computational quantum chemistry, and electronic structure methods.
• Laboratory and instrumentation: hands-on training with spectrometers, lasers, microscopes, chromatography and other modern analytical instruments.
• Electives and interdisciplinary options: materials chemistry, nanoscience, computational modelling, and courses from physics, computer science or engineering.
• Research and capstone: options for undergraduate research projects with faculty, group projects, and a senior capstone experience integrating experimental and theoretical work.

Students are encouraged to combine coursework with computational chemistry training and to take advantage of seminars and guest lectures that expose them to current research in photonics, quantum information and materials science.

Entry requirements

Applicants should hold a recognised secondary school qualification with strong preparation in mathematics (including calculus where available), chemistry and physics. Pace University considers applications holistically; successful candidates typically demonstrate academic readiness through transcripts, recommendations and personal statements that reflect interest and aptitude in science.

• Domestic applicants: completion of high-school coursework in chemistry, mathematics and physics; college-preparatory curriculum is preferred.
• International applicants: an equivalent secondary credential and demonstrated English proficiency where required (TOEFL, IELTS or other accepted evidence), unless exempt by prior education in English.
• Standardised tests: Pace may consider standardised test scores as part of a holistic review; applicants should consult the university for current testing policies.
• Additional preparation: prior laboratory experience, research internships, participation in STEM extracurriculars or advanced science coursework strengthen applications.

Career prospects

Graduates are prepared for a range of careers in industry, government and academia that require expertise in optics, spectroscopy, materials and quantum technologies. Typical roles include research scientist or technician in photonics and materials laboratories, optical engineer, analytical chemist, process scientist in manufacturing, and roles in instrumentation companies.

• Opportunities in private sector R&D, including firms specialising in lasers, imaging, sensors and semiconductor materials.
• Positions in analytical laboratories, environmental testing, quality control and chemical manufacturing.
• Paths into the technology sector, including roles related to quantum information, photonics device development and nanotechnology.
• Further study options: graduate programmes in chemistry, materials science, physics, optical engineering or applied physics, and professional degrees where strong analytical and quantitative skills are valued.
• Careers in patent law, science policy, technical consulting and education are also common for graduates who combine chemistry training with additional qualifications or experience.

Why study at Pace University

Pace offers a chemistry programme with a strong emphasis on hands-on laboratory experience and close faculty mentorship. The university’s campuses provide access to well-equipped teaching and research laboratories, instrumentation facilities and opportunities to work with faculty on active research projects in optics, spectroscopy and materials chemistry.

• Location advantage: proximity to New York City creates access to internships, industrial partnerships, national laboratories and a broad network of employers in photonics, pharmaceuticals and high-technology sectors.
• Undergraduate research: small cohort sizes facilitate close collaboration with faculty on experimental and computational research, enabling students to develop publishable work and strong practical skills.
• Career development: dedicated career services, industry connections and internship placement support help students secure experiential learning and employment opportunities.
• Interdisciplinary environment: the programme encourages collaboration with physics, engineering and computer science, preparing graduates for emerging fields such as quantum technologies and photonic devices.

Overall, Pace’s chemistry degree with a focus on optics and quantum chemistry is designed to equip students with the theoretical understanding, laboratory proficiency and professional experience needed for technical careers or advanced study in rapidly evolving science and technology fields.