University of Southern Mississippi

What you'll study

The programme blends foundational engineering and science coursework with specialised polymer topics and hands‑on laboratory classes. Core subjects typically include general chemistry, organic chemistry, calculus, physics and introductory engineering courses early in the degree, followed by focused modules such as polymer chemistry and synthesis, polymer physics, rheology, polymer characterisation and testing, polymer processing and manufacturing, composites and adhesive technology.

• Polymer chemistry and synthesis — structure–property relationships, polymerisation mechanisms and copolymer design.
• Polymer physics and thermodynamics — crystallinity, phase behaviour, glass transition and mechanical performance.
• Rheology and processing — flow behaviour, extrusion, injection moulding, thermoplastics and thermosets.
• Materials characterisation — spectroscopy, chromatography, thermal analysis, mechanical testing and microscopy.
• Composites and advanced materials — fibre‑reinforced systems, laminate design and processing techniques.
• Laboratory and pilot‑scale work — practical labs, pilot plant experience, and safety and quality practices relevant to polymer manufacture.
• Design and capstone project — team‑based senior design or research project addressing a real engineering problem in polymer materials or processing.

Elective options often let you explore related areas such as biomedical polymers, sustainable materials and polymer recycling, computational materials modelling, or business and management topics relevant to manufacturing environments.

Entry requirements

Applicants should hold a high school diploma or equivalent with a strong background in mathematics and sciences. Typical preparation includes coursework in algebra, geometry, precalculus or calculus, chemistry (including laboratory), and physics. Admissions consider overall academic record, transcripts, and any relevant test scores where required by the university.

• Academic preparation — solid performance in mathematics and science courses; calculus and laboratory chemistry are particularly important.
• Recommended experience — prior laboratory work, engineering or technical coursework, and participation in STEM extracurriculars are beneficial.
• International students — equivalent secondary qualifications and demonstrated English proficiency are required per university policy.
• Transfers — transfer students from community colleges or other institutions should consult programme advisors about course equivalencies and required prerequisites.

Career prospects

Graduates enter a wide range of industries that use polymeric materials. Common roles include polymer engineer, materials engineer, process engineer, product development scientist, quality/control engineer, and technical sales or application specialist. Employers span plastics and polymer producers, composites manufacturers, automotive, aerospace, medical devices, packaging, coatings and adhesives companies, as well as research laboratories and regulatory bodies.

Many graduates pursue further study at master’s or doctoral level in polymer science, materials science, chemical engineering or related disciplines, or move into roles in manufacturing management, patent law (with additional qualifications), and consulting.

Why study at University of Southern Mississippi

The University of Southern Mississippi is home to a dedicated polymer programme with strong emphasis on practical skills and industry relevance. Students benefit from specialised laboratories, pilot‑scale processing equipment and faculty with research and industry experience in polymers and composite materials.

• Applied facilities — access to hands‑on labs and pilot equipment so students gain real‑world processing and testing experience.
• Industry links — partnerships with regional and national companies provide internship and project opportunities that help bridge education and employment.
• Research and specialisms — opportunities to work with faculty on applied research in areas such as advanced composites, polymer formulation and sustainable materials.
• Supportive environment — academic advising, career services and senior capstone projects help students build a professional portfolio and transition into the workforce or postgraduate study.