Computational Chemistry and Chemical Informatics Bachelor's Degree

Use Technology to Unravel the Mysteries of Chemistry

Develop an in-demand skill set combining a technical understanding of chemistry with expertise in computers and computation. Support advancements in any branch of chemistry. Explore rapidly expanding career opportunities in the design of new drugs and materials.

A bachelor of science in computational chemistry and chemical informatics from Michigan Tech prepares you to work on the leading edge of this emerging technological field. 

What is Computational Chemistry and Chemical Informatics?

Computational Chemistry and Chemical Informatics is at the intersection of chemistry and information technology. If you prefer a digital view of chemistry to lab experiments and enjoy working with technology, a career in cheminformatics may suit you well. Your professional specialty will include using computational methods to complement laboratory experimentation. Upon graduation, you might:

  • Investigate chemicals and materials that are difficult to study in the laboratory.
  • Model and visualize individual molecules and how they behave in cells or materials
  • Create and/or work with databases to catalog, categorize, organize, and search chemical structures.
  • Employ computational chemistry to simplify problems and make predictions that enhance laboratory experiments.
  • Develop information-storage solutions at the molecular level.

One-of-a-Kind Program

You will complete upper-level course work in both chemistry and computer science, gaining the foundation in both physical chemistry and computer programming that is necessary to the field. Many chemical problems are multidimensional.  Solutions require advanced computational tools—and professionals who have the ability to effectively use them. Our degree program will prepare you to succeed in this role. Cutting-edge labs and equipment will enhance your education.

Obtain a minor in Computer Science by taking four Computer Science classes—CS 1142 Programming at the Hardware Software Interface and CS 3141 Team Software Project—and adding two Computer Science electives. CS 1142 and CS 3141 can also be counted as major electives. This is a low-cost but high-impact way to gain a competitive edge as you launch your career.

Choose your Career Path

Computational Chemistry and Chemical Informatics specialists play an important role in driving research and laboratory experiments by predicting properties of new compounds and by making chemical information accessible and usable. These professionals spend a great deal of time analyzing and interpreting data and must be detail oriented. Career pathways are diverse and often lead to positions outside of the traditional laboratory—and inside of the computer laboratory.

You could work with chemical databases; focus on computational chemistry; explore the properties of nanomaterials; or model molecular structure and the activities of proteins and enzymes. The job outlook for cheminformatics specialists is very good, with the expectation for jobs to grow with the increasing need to categorize and search chemical compounds in databases, create and manage data for laboratory experiments, and design and direct laboratory robots. You will also be prepared to enroll in graduate school and earn an advanced degree in cheminformatics, if you so choose.

  • 4,400
    individual peer coaching sessions in the Chemistry Learning Center
  • 1st
    computational chemistry BS in the country
  • 7
    undergraduates co-author research papers in the past 3 years
  • 100%
    of students use state-of-the-art instrumentation in teaching labs

Tomorrow Needs Innovative Chemists

The demand for computational chemists is great. Computational chemists may pursue a teaching and/or research career in academia, or they may work in industry or for a government agency or national laboratory. They may also support and train facility users, students, or customers or develop new capabilities for collecting and analyzing data. Industry employers typically include companies in the pharmaceutical, data science, and industrial chemistry areas. In academia, computational chemists often teach courses or provide individualized instruction on using different software or data analysis tools. At national laboratories, they may train visiting users, and they may perform their own research.

Career Opportunities for Computational Chemistry Majors

Your future career options are unlimited with a degree in computational chemistry. Career opportunities include, but are not limited to:

  • Analytical Chemist
  • Bioinformatics Analyst
  • Cheminformatician
  • Computational Chemist
  • Computational Chemistry Molecular Modeler
  • Computational Designer
  • Computational Medicinal Chemist
  • Computational R&D Scientist
  • Data Scientist/Manager
  • Environmental Scientist
  • Material Scientist
  • Research Scientist
  • Professor
  • Software Engineer
  • Technical Operations Engineer
  • Technical Writer
  • And more

You can explore career options further.

Michigan Tech Computational Chemistry Majors Have Been Hired By

The growing list of companies that have hired Michigan Tech computational chemistry graduates includes:

  • Brigham and Women's Hospital
  • Jump Trading LLC
  • IBM Corp.
  • Morley Companies

Ready to take the next step?

Learn more about studying computational chemistry at Michigan's flagship technological university.

"I like how the chemistry department is very encouraging in helping you push your career forward. The department itself is very good at helping you get research positions and learn other topics with seminars and such."Tommy McQuiston ‘25, BS Computational Chemistry

College of Sciences and Arts

The College of Sciences and Arts aims to excel globally in sciences, humanities, and arts. We are a community of faculty, staff, and students with a passion for education, outreach, research, and creativity across the social and natural sciences, humanities, and arts. Knowing that every student at Michigan Tech will pass through our doors, our college strives to be at the forefront of the interdisciplinary collaborations that lead to breakthrough solutions.

Our students gain a profound understanding of social and cultural contexts through experiential learning and innovative research. Become part of a diverse college with 32 undergraduate and 24 graduate degrees to choose from. Transform into a civic leader ready to contribute to a sustainable future. Lead and participate in action-based experiences that are critical to the start of a fulfilling career.

Job-shadow at a local hospital or veterinary clinic while preparing for a career in health. Design sound and lighting for a regional production. Conduct community forums on the implications of artificial intelligence. Work to purify vaccines. Study the impact of social media on society. Research the mysteries of space and galaxies beyond our universe. Explore transforming abandoned iron and copper mines into giant batteries. Understand freshwater ecosystem health. Document the nature of changes in cognitive function and motor behavior in aging and dementia.

At Michigan Tech, your academic growth is supported by a variety of learning centers, along with our Humanities Digital Media Zone and Writing Center. Model climate in the only cloud chamber of its kind. Take part in interdisciplinary health research in our state-of-the-art H-STEM Complex. Create amazing sights and sounds in our visual art, sound, and theatre performance spaces.

Tomorrow Needs You

Combine your creativity and curiosity to meet pressing societal challenges with innovative solutions. Graduate with the technical skills, critical thinking and tenacity to inspire, design and implement a sustainable future across social and natural sciences, humanities, and arts.

Student Learning Goals

When you complete our bachelors of science computational chemistry degree, you can expect to achieve the following:

  • In-depth theoretical and experimental knowledge in organic chemistry and in-depth theoretical knowledge in physical chemistry.
  • Fundamental theoretical and experimental knowledge in either inorganic or biochemistry, and fundamental theoretical and experimental knowledge of quantitative and instrumental analytical methods.
  • In-depth theoretical and practical knowledge of computer programming using modern languages, database development and maintenance, and their applications to the field of chemistry in both academic and industrial settings.
  • Safely work in a laboratory to collect, analyze and evaluate experimental data.
  • Use scientific literature to research and solve problems.
  • Applies theoretical and experimental knowledge, and problem-solving skills in an independent research project.
  • Communicate with other members of the scientific community using both oral and written methods.
  • Demonstrate awareness of the societal and environmental implications of chemistry as a discipline, and your professional responsibilities as an ethical chemist.
"My first visit to Michigan Tech was my junior year in high school and I immediately fell in love with the campus and the chemistry department. After speaking with chemistry faculty, they were able to direct me to the cheminformatics degree combining my passion of chemistry and computer programming."Ali Carpenter ‘16, BS Cheminformatics, Software Engineer, Watson Health, IBM