DEPARTMENT.FACULTY
- DEPARTMENT_STAFF.QUALIFICATION
Ph.D., B. Tech, M. Tech ( Thermal Sc)
- DEPARTMENT_STAFF.DESIGNATION
Assistant Professor
- DEPARTMENT_STAFF.THRUST_AREA
Thermo Fluid, CFD, PV/T system with nano-Fluid, nanomaterials, NEPCM, CFD, Solar Energy. Thermal Energy Management
- DEPARTMENT_STAFF.ADDRESS
Community College, AMU Aligarh
- DEPARTMENT_STAFF.MOBILE
8410249658
- DEPARTMENT_STAFF.EMAIL
azim7alam@gmail.com
- DEPARTMENT_STAFF.TIME_TABLE
Beyond his academic endeavors, Dr. Khan has actively engaged in professional development through faculty development programs, webinars, seminars, and moderation roles, demonstrating his commitment to staying abreast of emerging trends and sharing knowledge within the academic community. Dr. Khan's dedication to advancing sustainable energy solutions, his significant contributions to research and education, and his numerous accomplishments in academia make him a standout scholar in his field, with the potential to drive meaningful advancements in sustainable energy and thermal systems, ultimately contributing to a more sustainable future.
- Ajiv Alam Khan [HTML] from sciencedirect.com Get Full Text via MAL AMU Insight into the investigation of Fe3O4/SiO2 nanoparticles suspended aqueous nanofluids in hybrid photovoltaic/thermal system This experimental study aims to evaluate the energetic performance of a photovoltaic-thermal system with a serpentine tube collector. A photovoltaic-thermal unit with a serpentine tube collector is used to compare the unit's performance metrics to those of a PV panel without cooling. The considered heat transfer fluid is the hybrid nanofluid prepared using water and Fe3O4/SiO2 nanoparticles. Using irradiance data from an average day in Aligarh, India, the experiment is conducted in indoor environment in a solar simulator under regulated operating circumstances. Effects of mono and hybrid nanofluids are examined at 3% wt. concentration for varying flow rates (20, 30, 40 LPM). The experimentation analysis showed that the maximum drop in PV temperature at 20 LPM is 25?°C, 24?°C, and then 16?°C for Fe3O4/water, SiO2/water, and Fe3O4/SiO2 nanofluids-based PVT systems, respectively with a highest …