BSc in Materials Science and Engineering - Biomaterials in Irvine United States | University of California Irvine

Graduates from the Materials Science and Engineering program will (1) build successful careers in industry, government, or academia within the field, (2) utilize critical thinking and analytical/quantitative abilities to address materials science and engineering challenges, (3) drive innovation in materials discovery, development, and design via strong leadership, effective communication, and collaborative teamwork across disciplines, and (4) demonstrate dedication to engineering ethics, environmental responsibility, lifelong learning, and professional growth. The undergraduate major in Materials Science and Engineering (MSE) equips students with a comprehensive understanding of fundamental engineering and scientific principles. The MSE undergraduate program consists of (a) a foundation in Chemistry, Physics, and Mathematics, (b) introductory Engineering courses, (c) a core in Materials and Engineering, and (d) specialized courses in Materials Science, Engineering, and Sciences.

Throughout history, materials have been essential to the advancement, prosperity, safety, and overall quality of human life. Anthropologists and historians have even named early civilizations after the key materials that defined them, such as the Stone, Bronze, and Iron Ages. Today, the field of materials science and engineering has expanded significantly, moving beyond metals and alloys to encompass ceramics, composites, polymers, biomaterials, nanostructures, smart materials, and electronic devices. Moreover, current work in the field addresses not only areas with immediate applications but also those with potential future uses that are not yet apparent. Materials scientists and engineers contribute to a wide range of engineering efforts, including emerging energy systems, semiconductor and optoelectronic device design, nanotechnology, composite material innovations, high-temperature superconductivity, biomedical products, enhancing performance (e.g., quality, reliability, safety, energy efficiency) in automotive and aerospace parts, advancing nondestructive testing methods, managing corrosion in refineries, addressing radiation effects in nuclear plants, and producing advanced materials.