College of Basic and Applied Sciences

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https://jewlscholar.mtsu.edu/handle/mtsu/4208
The College of Basic and Applied Sciences (CBAS) is a diverse set of departments that includes the basic sciences (Biology, Chemistry, and Physics), Mathematics, and Computer Science as well as Aerospace, Agriculture, Concrete Industry Management, Engineering Technology, and Military Science. We believe that science holds the hope of our country's continued success and are working hard to improve K-12 education in the basic and applied sciences. We are excited you have taken time to visit our site!

The largest of the university's five undergraduate colleges in terms of the overall number of declared majors, the college has 4000+ undergraduate, over 300 master's, 90 doctoral students. This college offers 16 undergraduate major programs, including 56 different emphasis areas. Seven of the ten departments within the college offer programs leading to a master's degree. The college also offers three interdisciplinary Ph.D. degrees in the areas of Computational Science, Molecular Biosciences, and Mathematics and Science Education.

Our talented faculty work one-on-one with a large number of majors, teach many general education classes in mathematics and the sciences, provide service to the professional community, and engage in basic and applied research. The college currently has 195 full-time faculty.

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Browsing College of Basic and Applied Sciences by Subject "HOMO-LUMO gap"
  • Item
    Detection of hydrogen using graphene
    ( 2012-03-23) Ehemann, Robert C ; Krstić, Predrag S ; Dadras, Jonny ; Kent, Paul RC ; Jakowski, Jacek
    Irradiation dynamics of a single graphene sheet bombarded by hydrogen atoms is studied in the incident energy range of 0.1 to 200 eV. Results for reflection, transmission, and adsorption probabilities, as well as effects of a single adsorbed atom to the electronic properties of graphene, are obtained by the quantum-classical Monte Carlo molecular dynamics within a self-consistent-charge-density functional tight binding formalism We compare these results with those, distinctly different, obtained by the classical molecular dynamics.