Faizan Tariq Beigh
Indian Institute of Technology Delhi, Indian Institute of Science Bangalore, University of Kashmir
About
I am Faizan Tariq Beigh , Curently Pursuing Ph.D. from IIT Delhi. I am a part of the Interdisciplinary Microsystems Lab (IML), headed by Dr. Dhiman Mallick with expertise in flexible electronics and laser- induced Graphene (LIG).
I have developed a reproducible recipe to imprint high-quality graphene with exceptional accuracy and repeatability, achieving a density of over 130 mg/cm³ without additional doping.
I havePresented work at international conferences, demonstrating the integration of machine learning to optimize laser parameters for enhanced surface properties of LIG, enabling scalable and sustainable applications in advanced materials.After my docterate work i have also worked on various machine work which helped us to detect the human activity moring with application of cammera.
I have also worked on the bottom-up development of photopatternable nano-composites for mechanical energy harvesting via dual piezoelectric/triboelectric properties that can be integrated to machine learning for intelligent sensing systems
Employment
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Indian Institute of Technology Delhi Ph.D. Researcher2022 - Present
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Indian Institute of Science Bangalore Project Associate2021 - 2021
Education
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University of Kashmir Master's in Engineering2019 - 2021
Projects & Funding
Projects & funding information is unavailable.
Publications (9)
- Geometry-Engineered Porous Graphene Microheaters for Efficient Electrothermal Heating, Temperature Sensing, and Deicing Applications Save
- Parametrically Engineered Laser-Induced Graphene with Tunable Electrical and Morphological Properties for Flexible Sensor Applications Save
- Ambient Process Controlled Laser-Induced Graphene with Tunable Wettability and Electrical Performances for Multifunctional Surfaces Save
- Lithographically patternable SU-8/Graphene nanocomposite based strain sensors for soft-MEMS applications Save
- Magnetically Polarizable Energy-Efficient Magnetoelectric Core–Shell Nanocomposites for Magnetic Field Sensing Save
- Machine Learning Enabled Hind Foot Deformity Detection Using Individually Addressable Hybrid Pressure Sensor Matrix Save
- Intelligent Workplace Activity Monitoring and Detection Using Self-Powered Triboelectric/Piezoelectric Sensor Augmented Machine Learning Save
- A New Low Power Bi-Stable RF-MEMS Based Energy Harvester for NOMA Driven Industrial Internet of Things (IIoT) Save
- Optimized MEMS Circular Membrane Resonators for Mechanical Energy Harvesting and Sensing for IoT Application Save