CUNY(The City University of New York)

What you'll study

This programme emphasises the interplay between quantum theory and optical phenomena. Core topics typically include advanced quantum chemistry, molecular and electronic structure theory, modern optical spectroscopy, and photonics. You will study ultrafast and nonlinear optics, light–matter interactions, quantum dynamics and decoherence, and computational methods used in electronic structure and spectroscopic simulation.

Teaching combines seminars, advanced coursework and laboratory work. Students normally choose between a thesis (research) route and a coursework/project route: the research option involves joining a faculty research group and undertaking an original research project under supervision, while the project route combines advanced electives with a substantial experimental or computational project.

• Advanced quantum chemistry and electronic structure methods
• Optical spectroscopy (steady‑state and time‑resolved)
• Nonlinear and ultrafast optics
• Computational chemistry and numerical methods for quantum dynamics
• Nanophotonics and solid‑state optics where relevant to chemical systems
• Research seminar, journal club and methods in laboratory practice

Students take electives drawn from physical chemistry, condensed‑matter/solid‑state physics, materials chemistry and engineering, and may access cross‑disciplinary training in quantum information science and photonics through CUNY research centres. Hands‑on experience in modern laser laboratories, spectrometers, cryogenic and vacuum systems and high‑performance computing is a core element of training.

Entry requirements

Applicants are expected to hold a recognised bachelor’s degree in chemistry, physics, materials science or a closely related discipline with a strong academic record. Typical preparation includes undergraduate coursework in physical chemistry, quantum mechanics, calculus and experimental laboratory techniques. Where applicants lack specific prerequisites, conditional admission with remedial coursework may be possible.

Application materials normally include:

• Academic transcripts from all post‑secondary institutions attended
• A statement of purpose describing research interests in optics/quantum chemistry
• Two or three letters of recommendation from academic or professional referees
• A current CV or résumé
• Proof of English language proficiency for applicants whose first language is not English (accepted tests and minimum scores are set by the university)

Some programmes or faculty supervisors may request an interview. The GRE is not universally required across CUNY graduate programmes; consult the specific department page or admissions office for details. Applicants aiming for research projects in advanced optics or quantum information are encouraged to highlight prior laboratory or computational experience.

Career prospects

Graduates from CUNY’s chemistry programme with training in optics and quantum chemistry move into a wide range of roles across academia, industry and public sector labs. Common career paths include:

• Research scientist or engineer in photonics, laser technology and optical instrumentation
• R&D roles in quantum technologies, including quantum sensing and quantum materials
• Spectroscopist or analytical chemist in pharmaceutical, environmental and materials industries
• Computational chemist modelling electronic structure and spectroscopic signatures
• Further research training through PhD programmes in chemistry, physics or materials science
• Technical roles in start‑ups and established firms within the New York technology and biotech ecosystem, and positions in national laboratories

Skills developed — experimental optics, ultrafast spectroscopy, quantum chemistry modelling and scientific communication — are widely valued by employers in both applied and fundamental research settings.

Why study at CUNY(The City University of New York)

CUNY offers unique advantages for advanced study in optics and quantum chemistry: a large, diverse research community spanning multiple colleges, access to state‑of‑the‑art facilities at the Advanced Science Research Center (ASRC), and interdisciplinary initiatives in photonics and quantum information. Faculty active in optical spectroscopy, ultrafast dynamics and theoretical quantum chemistry collaborate across departments, providing students with a breadth of research supervisors and cross‑disciplinary projects.

Located in New York City, CUNY provides proximity to industry partners, start‑ups and national research labs, creating opportunities for internships and collaborative research. As a public research university system, CUNY combines strong research training with resources aimed at student support, professional development and career placement for graduates entering both academic and applied careers.