Anvesh Rajeshirke

I’ve been working independently as an independent PhD researcher for developing graphene biosensors at Royal School of Mines, Imperial College London, which is the world’s top 6th university for science, technology and medicine and the 3rd in the UK after Oxford & Cambridge universities.

I’ve a deep understanding of the principles of operation of Raman, TEM and XRD instruments, & I have done over 500 graphene transfer over 500 silicon and quartz devises then characterised the 2D pack and the properties of pristine graphene for last four years. I’ve published a research paper in the renowned journal called ACS sensors, which you can find in the attachments. My idea to improve surface area of the sensors to capture exosomes is turned out to be a success. This success shows you my expertise in the field of nanotechnology, & thin film technics such as CVD, RIE, Raman, AFM, TFIR, XPS, & TEM. The knowledge of the same techniques has been the requirements for this role.

In my previous role at Imperial College London, I was responsible for providing creative and technical support to our research group on a variety of analytical instruments to develop Graphene field effect transistor (GFET) for the detection of CD63 antigen protein, exosomes, and ctDNAs. I have intensively worked on pristine graphene material synthesis in the CVD & the oxygen RIE etc. I have intensively used CVD for depositing pristine graphene layer on top of copper foil. Then used Oxygen plasma etching to remove graphene layer from the back side of the copper foil inside the RIE. This has been my daily work due to fact that I have been developing graphene/silicon biosensors. I’ve intensively used Raman, XPS, AFM, TEM, TFIR & sensitive 4-probe electrical measurements for characterising graphene & piezoelectric (MEMS device) thin film transistor (gFET). These technical skills were thought to me in an excellent Master of Science Course called “Nanoelectronics & Nanomechanics“ at the University of Sheffield, UK. Therefore, the PhD in the materials department at Imperial College London have been the natural step for me. I’ve developed transferable skills such as the shadowing work for postgraduate students while they were operating these thin film instruments and working on graphene. Therefore, I am also experienced to communicate well with customers and our Canadian leadership.

I’m confident that my soft skills, transferable skills & valuable previous international experience in Germany & India would be a valuable asset to this role. I am a highly motivated & results-oriented intelligent individual, & I am good at taking on new challenges. I am also a keen team player, & I am confident that I would be able to contribute effectively with the other members of the application engineering team and team leader by processing wide variety of samples for the customers too. My great interest into the material science, & the proven record to publish the paper in the renowned journal on graphene material certainly makes an excellent technical writer, which further qualifies me to be the strong candidate to work this role. I’ve a strong interest in this thin film technology, & I believe that my skills & experience would be a good fit for this position at Manchester .

I’ve attached my resume along with my published research paper, & reference letter from my Prof. Norbert Klein. I would be grateful for the opportunity to discuss the opportunity in detail with you soon. Thank you for your time & consideration.

PhD in Dual-Mode Biosensor, Surface Acoustic Wave and Graphene FET

Research Achievements:
+ Simulated Graphene devices COMSOL FEA simulation for producing for transverse wave devices. + Successfully enhanced detection of graphene sensor using Carbon-Nano-Dots.
+ Published Quantum Dots peer paper with American Chemical Society.
+ Graphene FET device preparation at London Centre for Nanotechnology SEM, TEM, AFM, CVD, RIE etc. + Confidentially presented online to the UK and European audiences of expert in the field, took questions. + COMSOL modelling to test SiO2, ZnO, and AlN substrate compatibility for Acoustic Wave Devices.
+ Successfully built extremely acoustic devices AT-Quartz Acoustic Wave devices.

PhD in Dual-Mode Biosensor, Surface Acoustic Wave and Graphene FET

Research Achievements:
+ Simulated Graphene devices COMSOL FEA simulation for producing for transverse wave devices. + Successfully enhanced detection of graphene sensor using Carbon-Nano-Dots.
+ Published Quantum Dots peer paper with American Chemical Society.
 

UNIVERSITY OF SHEFFIELD, DEPARTMENT OF PHYSICS AND ASTRONOMY, UK

MSC in Nanoelectronics & Nanomechanics

+ Adapting Nobel Prize Winner Nano-Magnetic Sensor with organic polymer. Ni81Fe19/PBTTT/ Fe50Co50.

+ Demonstrated the implications of semiconducting PBTTT as a spacer layer (Project Grades: First) Research Achievements:

+ Successfully polarised electrons spin with 3% GMR at room temperature, spintronics Project (First class) + Hands on Scanning probe microscopy (SPM), Magneto optic Kerr effect (MOKE), Plasma Sputtering, Thermal

Evaporation, Spin Coating, 4-Probe technique. Statistical Analysis in Excel. Simulations in OOMMF