Cost & earnings at University of Maine What students borrow here, and what they go on to earn
Science, Technology and Society graduates earn a median $52,107 Across 50 US programmes, two years after finishing
See the degree grade →The Bachelor of Science in Computational Science at the University of Maine is an interdisciplinary degree that blends mathematics, computer science and domain science to train students to model, analyse and solve complex scientific problems using computational methods. It suits students who enjoy quantitative reasoning, programming and applying computational tools to fields such as environmental science, engineering, physics and data analytics.
The programme combines foundational coursework in mathematics and computer science with applied scientific modules and project-based learning. Early years focus on calculus, linear algebra, differential equations and introductory programming. Intermediate and advanced courses introduce algorithms, data structures, numerical analysis, scientific computing, and statistics, together with domain electives that may include physics, biology, environmental science or engineering.
Typical course topics and learning experiences include:
Applicants should have a solid background in mathematics and science from secondary education. Typical expectations include successful completion of college-preparatory courses that feature algebra, pre-calculus or calculus, and at least one laboratory science (physics, chemistry or biology).
Graduates leave prepared for roles that require quantitative analysis, modelling and software skills. Career paths span industry, government and academia, and graduates commonly find positions in data science, software development, computational modelling and technical consulting.
The University of Maine offers a programme grounded in interdisciplinary collaboration with access to campus research centres and computing resources. Students benefit from faculty engaged in applied research across areas such as environmental science, materials and engineering, and climate studies, enabling computational science projects tied to regional and global problems.
On-campus resources frequently available to students include high-performance computing infrastructure, specialised laboratories and opportunities to work with centres such as the Climate Change Institute and the Advanced Structures and Composites Center. The programme emphasises experiential learning through undergraduate research, internships with regional partners and a practicum or capstone project that builds a portfolio of applied computational work.
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