Chemical Engineering (BS): Biomolecular Concentration

4 Years On Campus Bachelors Program

North Carolina State University Raleigh

Program Overview

The Chemical Engineering (BS): Biomolecular Concentration at North Carolina State University combines core chemical engineering with hands-on molecular biology and biotechnology, preparing students for pharmaceutical, medical, agricultural, biotechnology, and engineering applications. Students develop strong foundations in chemistry, biology, mathematics, transport and thermodynamics before progressing into recombinant DNA, bioreactor design, biomolecular engineering, and chemical engineering design.

Curriculum Structure

Year 1: Students establish their scientific and engineering foundations through Chemistry – A Molecular Science, General Chemistry Laboratory, Calculus I, Introduction to Engineering & Problem Solving, and Introduction to Computing Environments. The second semester adds Chemistry – A Quantitative Science, Calculus II, and Physics for Engineers and Scientists I, giving students the mathematical, chemical, physical, and computational base needed for advanced engineering study.

Year 2: The curriculum moves into deeper chemistry and chemical engineering with Organic Chemistry I, Organic Chemistry I Lab, Chemical Process Principles, and Calculus III. Students then progress to Organic Chemistry II, Introduction to Chemical Engineering Analysis, Applied Differential Equations I, and Introductory Biology: Cellular and Molecular Biology, connecting engineering principles with molecular and biological systems.

Year 3: Students begin applying their scientific knowledge to professional chemical engineering and biotechnology through Principles of Biochemistry, Transport Processes I, Chemical Process Thermodynamics, and Manipulation of Recombinant DNA. They then advance through Transport Processes II, Thermodynamics of Chemical and Phase Equilibria, and Chemical Engineering Lab I, alongside specialized biotechnology laboratory modules.

Year 4: The final year emphasizes advanced design, process control, and biomolecular applications through Design and Analysis of Chemical Reactors, Chemical Engineering Design I, and Chemical Engineering Projects I. Students complete the concentration with Process Systems Analysis and Control, Bioreactor Design, Biomolecular Engineering, and Chemical Engineering Design II, giving them an integrated foundation for professional engineering or further study.

Focus areas

Chemical engineering, biomolecular engineering, biotechnology, molecular biology, bioreactor design, biochemical processing, pharmaceutical applications, biotechnology laboratory techniques, process systems, and chemical engineering design.

Learning outcomes

Students develop the ability to apply engineering, science, and mathematics principles; conduct experiments and analyze data; communicate effectively; work in multidisciplinary teams; address ethical and environmental considerations; and acquire new technical knowledge throughout their careers.

Professional alignment (accreditation)

ABET-accredited: The NC State Chemical Engineering program is accredited by the Engineering Accreditation Commission of ABET, providing an established professional quality framework for the engineering degree.

Reputation (employability rankings)

U.S. News: NC State's undergraduate Chemical Engineering program was ranked #17 nationally in the 2024 U.S. News rankings, while the university reported that seven engineering specialties, including chemical engineering, were in the national top 25 in the 2025 undergraduate rankings. The department also reports that more than 90% of its chemical engineering students go directly into full-time employment or graduate school, supported by industry connections including research collaborations, sponsored design projects, career fairs, and on-campus interviews. 

Experiential Learning (Research, Projects, Internships etc.)

The Chemical Engineering (BS): Biomolecular Concentration at North Carolina State University gives students a strongly hands-on pathway into biotechnology, medicine, agriculture, food production, environmental applications, and energy. Students build practical molecular-biology and chemical-engineering skills through laboratory courses, independent research, senior design, internships and co-ops, while the concentration also fulfills the requirements for a Minor in Biotechnology.

The practical experience is built directly into the curriculum through courses such as BIT 410: Manipulation of Recombinant DNA, BIT Laboratory Modules, CHE 330: Chemical Engineering Lab I, CHE 448: Bioreactor Design, and CHE 452: Biomolecular Engineering. Students can also undertake CHE 497: Chemical Engineering Projects I, work with faculty and research mentors, and complete senior design projects addressing real engineering problems.

Key opportunities include:

  • Molecular biology laboratories: The Biomolecular Concentration provides hands-on laboratory training in molecular biology, particularly relevant to pharmaceutical, medical, engineering and agricultural applications.
  • Recombinant DNA experience: BIT 410: Manipulation of Recombinant DNA gives students practical exposure to molecular biotechnology techniques, complemented by dedicated BIT Laboratory Modules.
  • Chemical engineering laboratories: CHE 330: Chemical Engineering Lab I provides laboratory-based chemical engineering experience, while later coursework includes CHE 448: Bioreactor Design and CHE 452: Biomolecular Engineering.
  • Independent research: Through CHE 497/498: Chemical Engineering Projects, undergraduate students can conduct semester-long research under the guidance of faculty, graduate students or postdoctoral researchers and may work for academic credit or compensation.
  • Senior design projects: Students apply their engineering knowledge through CHE 450/451: Chemical Engineering Design I & II or the Engineering Entrepreneurship Senior Design I & II pathway, giving them experience developing solutions to practical problems.
  • Internships and co-ops: NC State’s Department of Chemical and Biomolecular Engineering connects students with internships and co-ops involving major industry partners, providing direct exposure to professional engineering environments.
  • Biotechnology facilities: NC State’s Biotechnology Program operates teaching and laboratory facilities supporting hands-on education in molecular biotechnology, with more than 400 students enrolling annually across its biotechnology courses.
  • Biological research infrastructure: The Biological Infrastructure Core Facility (BioCore) provides access to BSL-2 bacterial and cell-culture facilities, robotic liquid handling, microplate readers, phosphorimaging and automated protein-purification systems for biological research.
  • Genomics and computational tools: The Genomic Sciences Laboratory provides infrastructure for advanced genomics research, while NC State’s High-Performance Computing Core Facility supports computationally intensive research.
  • Industry and government projects: Department researchers and students work with government and industry partners across biotechnology, microfluidics, nanotechnology, polymer science and green energy, giving students opportunities to see how engineering research is applied beyond the classroom.

Progression & Future Opportunities

The Chemical Engineering (BS): Biomolecular Concentration at North Carolina State University prepares graduates to apply chemical engineering principles to pharmaceutical, medical, biotechnology, agricultural, and related industries. The concentration adds hands-on molecular biology laboratory skills and fulfills the requirements for a Minor in Biotechnology, creating pathways into both engineering careers and advanced study.

Typical job roles: Chemical Engineer, Biomedical Engineer, Biochemist, Process Engineer.

Career support and employment preparation:

  • Career services: NC State’s Career Development Center supports students and graduates with career goals, while the department provides access to internships, co-ops, career fairs, on-campus interviews, and company information sessions.
  • Industry experience: The department’s industry network supports internships, co-ops, research collaborations, sponsored senior-design projects, and employment opportunities.
  • Employment outcomes: The Department of Chemical and Biomolecular Engineering reports that more than 90% of its students go directly into full-time employment or graduate school.
  • Salary information: NC State does not provide a current program-specific starting-salary figure for the Biomolecular Concentration on its official program page. A College of Engineering young-alumni survey found that 43% of respondents reported starting base salaries of $50,000–$69,000, although this survey covered engineering alumni broadly rather than this specific program.
  • University–industry partnerships: The department works with companies including Pfizer, Merck, GSK, Novo Nordisk, Roche, Bayer, BASF, Dow, 3M, Procter & Gamble, Shell, and Syngenta, supporting research collaborations, recruitment, internships, and other student opportunities.
  • Industry-connected environment: NC State’s Centennial Campus hosts more than 70 government and industry partners, providing a setting for research collaborations, sponsored projects, facilities, and student opportunities.
  • Accreditation value: The Chemical Engineering program is accredited by the Engineering Accreditation Commission of ABET and has maintained continuous accreditation since 1948. NC State states that ABET accreditation helps employers identify graduates prepared to enter the profession and can be used by registration, licensure, and certification boards when screening applicants.
  • Graduation outcomes: Program educational objectives prepare graduates for professional engineering and entrepreneurship across biomanufacturing, biotechnology, pharmaceuticals, agriculture, advanced materials, energy, environmental engineering, and other industries, while also preparing them for advanced study in areas such as research, medicine, business, and law.

Further Academic Progression: After completing the BS, students can continue into NC State’s MS, Master of Engineering, or PhD pathways in Chemical Engineering, with graduate research spanning areas such as biomolecular engineering and biotechnology, computational biology, biofuels, green engineering, catalysis, and molecular simulation. High-performing undergraduates can also pursue the Accelerated Bachelor’s/Master’s (ABM) option, which allows up to 12 credits to be double-counted and can lead to a non-thesis master’s within 12 months or a thesis-based master’s within 18 months after completing the bachelor’s requirements. 

Program Key Stats

$9028
$33993
$33993
$100
EA, RD

Jan Intake : 1st Oct (RD) , 1st Nov (EA / ED)Jan Intake : 1st Oct


48%

Eligibility Criteria

BBB - BBC
3.4 - 3.7
25 - 28
70 - 80

1150 - 1350
31 - 32
6.5
90
Optional
No

Additional Information & Requirements

How US Universities Assess Applicants

Career Options

  • Biochemical Engineer
  • Chemical Engineer
  • Biomolecular Engineer
  • Bioprocess Engineer
  • Pharmaceutical Engineer
  • Biotechnology Engineer
  • Process Engineer
  • Biomedical Engineer
  • Research Engineer
  • Quality Control Engineer

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