Banyite Simon

Dynamic research professional with hands-on experience at the Shimadzu Institute of Nanotechnology, specializing in silicon wafer processing and semiconductor fabrication. Proven ability to collaborate effectively and deliver high-quality results. Proficient in OAI Aligner and SolidWorks, with a strong commitment to advancing technology through innovative research and development.

Development of 2D Cold Electron Transport Transistor, 09/01/24, Ongoing, 

• Fabricated silicon-based devices with integrated gate, source, and drain components.,
• Exfoliated thin flakes of 2D materials such as hBN, graphene, InSe and ReS2 which are used as energy stacks and quantum wells.,
• Conduct regular research visits to Northwestern University as part of an active collaboration, supporting device fabrication and materials characterization.

Exploring GaN-Based Heterostructures for Energy-Efficient Cold-Electron Devices, 09/01/24, Ongoing, 

• Developed deposition recipes and optimized thin-film growth of GaN, Cr2O3 and SnO2 on SiO2/Si substrates using magnetron sputtering.,
• Executed nanoscale deposition of metals such as Ni and Cr using e-beam evaporator.

Synthesis, characterization and in vitro study of functionalized bovine-derived hydroxyapatite as a bone substitute material, Undergraduate Research Thesis, 10/01/21, 09/01/23, 

• Synthesized a functionalized biomaterial for bone grafting by incorporating hydroxyapatite nanoparticles with folic acid and phytochemicals from paullinia pinnata extract.,
• Performed various characterizations such as SEM, FTIR, XRD, and EDS to ascertain the material's ability to induce bone growth.,
• Conducted an in vitro study by soaking the material in simulated body fluid for 28 days to confirm apatite growth on its surface. SEM analysis revealed that the functionalized material exhibited superior properties compared to hydroxyapatite alone.
• Modelling a Li-based rechargeable battery using the materials selection process, Group project, 05/01/23, 08/01/23, Utilized the materials selection process to identify and optimize materials for the cathode, anode, and electrolyte in the design of a lithium-based rechargeable battery, achieving high energy density, rapid charging capabilities, and low discharge rates.,
• Employed SolidWorks to assemble various components of the battery.

• CAMPS 2025 conference across PREM-MRSEC schools, Texas State University, 05/01/25
• ICFO-KNUST International School on the Frontiers of Light: Photonics Sciences- Applications and Opportunities, 10/01/24