Author: Virendra Singh Shekhawat
Virendra Singh Shekhawat
Role: Sr. Product Development Engineer | Production Head
Specializations: PCB Design | Robotics | AI-Enabled Hardware Systems
Background: Electronics & Hands-On Engineering
Core Focus: Transforming Ideas into Manufacturable Products — From Circuit Design to Production
Mentorship Impact: Trained 1,000+ Students & 100+ Educators in Robotics & Embedded Systems
Key Projects: Modular Electronics Platforms | IoT Systems | AI-Based Learning Devices
Subject Expertise: PCB Design, Robotics, Embedded Systems, IoT, AI-Enabled Hardware, Product Development, Electronics Manufacturing, and STEM Education.
Short Bio
Virendra Singh Shekhawat is a Product Development Engineer and Production Head specializing in PCB design, robotics, and AI-enabled hardware systems. With a strong background in electronics and hands-on engineering, he focuses on transforming ideas into manufacturable products, covering the complete cycle from circuit design to production. He has trained over 1,000 students and 100+ educators in robotics and embedded systems, with an emphasis on practical, real-world learning. His work includes developing modular electronics platforms, IoT systems, and AI-based learning devices aimed at simplifying complex technology for students and innovators.Extended Bio
Virendra Singh Shekhawat operates at the intersection of electronics engineering and education — designing hardware systems on one hand, and empowering the next generation of innovators on the other. As a Product Development Engineer and Production Head, he specializes in PCB design, robotics, and AI-enabled hardware systems, with a strong focus on the practical realities of bringing products from concept to manufacturing.His engineering approach is rooted in a deep understanding of the complete product lifecycle. Virendra doesn't just design circuits — he considers how they will be manufactured, tested, and deployed at scale. He transforms ideas into manufacturable products, covering the entire chain from circuit design and prototyping to production planning and quality assurance. This end-to-end perspective allows him to build systems that are not just technically sound, but commercially viable.Beyond his work in product development, Virendra is deeply committed to education and mentorship. He has trained over 1,000 students and 100+ educators in robotics and embedded systems, always with an emphasis on practical, real-world learning. He believes that the best way to understand technology is to build with it, and his training programs reflect that hands-on philosophy.His project portfolio includes developing modular electronics platforms that make prototyping accessible, IoT systems that connect the physical and digital worlds, and AI-based learning devices designed to simplify complex technology for students and innovators. Each project reflects his commitment to making advanced technology understandable, usable, and affordable.As an author for ENTECH Magazine, Virendra writes for engineering students trying to bridge the gap between theory and practice, for educators looking for effective ways to teach robotics and electronics, for innovators who want to understand how to take a product from idea to production, and for anyone who believes that the best engineering is the kind that builds both systems and people.Primary Beats
- PCB Design & Hardware Development — From Circuit to Product: The complete journey from circuit design to manufacturable product; best practices in PCB design for reliability and scalability; navigating the transition from prototyping to production; practical lessons in electronics product development.
- Robotics & Embedded Systems — Building Intelligent Hardware: The fundamentals of robotics and embedded system design; creating modular platforms for rapid prototyping; integrating sensors, actuators, and controllers; real-world applications of robotics in education and industry.
- AI-Enabled Hardware — The Future of Intelligent Devices: Bringing AI capabilities to hardware systems; designing AI-based learning devices; the convergence of embedded systems and machine learning; practical approaches to building smart, connected products.
- STEM Education & Mentorship — Training the Next Generation of Engineers: Teaching robotics and embedded systems to students and educators; the importance of hands-on, project-based learning; scaling mentorship — training 1,000+ students and 100+ educators; building a culture of practical innovation in engineering education.