Every professional journey begins with curiosity. Mine began in the small town of Mahua, Mahoba in the Bundelkhand region of India, where I developed an early fascination with science, engineering, and the potential of technology to improve lives. After completing my technical school education in Khirsadoh, Chhindwara, I moved to Jabalpur, Madhya Pradesh, to pursue higher education in electrical engineering.
I earned my Bachelor's degree in Electrical Engineering from Government Engineering College, Jabalpur, graduating with distinction and securing a position among the university merit holders. My professional career began at Larsen & Toubro (L&T) Limited, where I joined through campus recruitment as a Graduate Engineer Trainee. Working on engineering projects in one of India's leading technology companies provided valuable exposure to industrial engineering practices and project execution.
Seeking broader engineering responsibilities, I later joined the Central Public Works Department (CPWD), Government of India, where I managed electrical infrastructure for the National Informatics Centre (NIC) Data Centre and other government installations in Pune. This experience strengthened my understanding of mission-critical infrastructure, reliability, and systems engineering.
Although these roles were professionally rewarding, my long-term aspiration was to contribute to research, innovation, and engineering education. This motivation led me to join the Technical Education Department of the Government of Madhya Pradesh as a Class-I officer. At Indira Gandhi Engineering College, Sagar, I served as faculty, Head of the Department, and later Dean (Research & Development), where I discovered my passion for mentoring students, building laboratories, and advancing applied research.
My growing interest in sustainable energy technologies inspired me to pursue advanced research at two of India's premier institutions. I completed my Master's degree at IIT Roorkee, where I was awarded the Gold Medal, followed by doctoral research at IIT Delhi, focusing on advanced power electronics and electric drive systems. These years established the scientific foundation that has guided my research throughout my career.
In 2008, I moved to Denmark to join the Global Research and Development organisation at Danfoss Drives. During the following years, I contributed to advanced motor drive technologies, intelligent diagnostics, and digital innovation programmes that translated research into globally deployed industrial products. In recognition of one such innovation, I received the Danfoss "Man on the Moon" Global Innovation Award, presented by the company's President and CEO for outstanding contribution to product innovation.
Recognizing that successful innovation requires not only technical excellence but also strategic thinking, I pursued executive education at the MIT Sloan School of Management in Boston. I later completed an M.Sc. in Engineering (Innovation and Business) at the University of Southern Denmark, where I specialised in innovation management and business strategy. These experiences strengthened my ability to bridge engineering research, technology development, and business innovation.
Alongside my technical career, I have continued to develop expertise in project leadership and agile product development. I am a Project Management Professional (PMP), a Certified ScrumMaster (CSM), and have led multidisciplinary international teams delivering complex engineering projects across industry and academia.
My career has since expanded across several sectors that are central to the global energy transition, including green hydrogen, offshore wind energy, power electronics, electric mobility, and industrial electrification through roles at Everfuel, Siemens Gamesa Renewable Energy, and Vestas Wind Systems. These experiences have reinforced my belief that the most impactful engineering solutions emerge when scientific research is closely connected with industrial implementation.
Beyond industrial innovation, I remain deeply committed to education, mentoring, and international collaboration. Through appointments as Professor of Practice, Adjunct Professor, Visiting Professor, editorial leadership, and service as an IEEE Power Electronics Society Distinguished Lecturer, I have had the privilege of working with researchers, universities, and industries across Europe, Australia, and India to advance knowledge and develop the next generation of engineers.
Today, my work continues to focus on developing sustainable power electronics and intelligent energy systems that contribute to cleaner industries, resilient energy infrastructure, and the global transition towards net-zero technologies. While my career has taken me from a small town in India to international research and industrial leadership, the motivation remains unchanged: to apply engineering and innovation in ways that create lasting value for society.
My academic journey has been driven by a commitment to continuous learning and the integration of engineering, innovation, and leadership. Each stage of my education has expanded my perspective—from fundamental electrical engineering and advanced research to technology management and strategic innovation—providing a multidisciplinary foundation for my work in sustainable energy technologies.
To complement my technical expertise with strategic leadership skills, I completed the Executive Leadership Program at the MIT Sloan School of Management. The programme strengthened my understanding of innovation management, technology commercialization, product strategy, and organizational leadership in globally competitive technology environments.
Recognising the importance of connecting engineering innovation with business strategy, I pursued a Master's degree in Innovation and Business. I graduated with the highest grade (12/12) for my Master's thesis, gaining expertise in innovation management, business development, entrepreneurship, and technology strategy.
My doctoral research focused on Power Quality Improvement and Sensor Reduction in Permanent Magnet Synchronous Motor (PMSM) Drives, combining advanced power electronics, electric drives, and control systems. This work established the scientific foundation for my subsequent research and industrial innovation in power electronic converters and sustainable energy systems. I completed the coursework with a CGPA of 9.5/10.
I specialised in electrical machines, power apparatus, and electric drives, graduating with the Gold Medal in recognition of academic excellence. This programme laid the foundation for my research career in advanced electrical energy conversion and motor drive systems.
My undergraduate studies provided a strong foundation in electrical engineering and engineering problem-solving. I graduated with Distinction and was awarded the Bronze Medal for outstanding academic performance, marking the beginning of a lifelong commitment to engineering excellence.
🎓 MIT Sloan School of Management – Executive Leadership & Innovation Management (2016)
🎓 University of Southern Denmark – M.Sc. Engineering (Innovation & Business), Highest Thesis Grade (12/12)
🎓 IIT Delhi – Ph.D. in Power Electronics and Electric Drives (CGPA 9.5/10)
🥇 IIT Roorkee – M.E. in Electrical Machines & Drives, Gold Medalist
🥉 Government Engineering College, Jabalpur – B.E. in Electrical Engineering, Distinction & Bronze Medal
Projects
Throughout my career, I have led and contributed to the complete innovation lifecycle—from scientific research and technology concept development to engineering design, industrial validation, and global product commercialization. My work has focused on developing advanced power electronic converters, intelligent control systems, renewable energy technologies, and digital engineering solutions that improve energy efficiency, system reliability, and industrial sustainability.
At Danfoss Drives, I led the development of a next-generation control platform for the global Variable Frequency Drive (VFD) portfolio. The programme focused on advanced sensorless motor control, robust operation under parameter variations, seamless flying-start capability, and high-performance control for a broad range of industrial applications.
The technology successfully progressed from concept and algorithm development through prototype validation, industrial testing, and global commercialization. Its superior performance contributed to Danfoss receiving a Best Supplier Award from one of Central Europe's largest HVAC equipment manufacturers, demonstrating how advanced research can translate into globally deployed industrial products.
To improve industrial energy efficiency, I contributed to the development and commercialization of an IE4-class Cold Rotor Synchronous Reluctance Motor solution integrated with Danfoss Variable Frequency Drives.
The project covered technology evaluation, electromagnetic optimisation, advanced converter control, prototype development, system validation, and commercial product deployment. The resulting solution enabled customers to significantly reduce electrical energy consumption while meeting increasingly demanding international energy-efficiency regulations.
Recognising the growing importance of digitalisation and predictive maintenance, I conceived and led the development of an innovative Condition-Based Monitoring (CBM) platform for Danfoss Drives.
The solution enables continuous monitoring of motors and driven equipment without requiring additional external sensors, allowing customers to utilise existing drive hardware for intelligent asset diagnostics and predictive maintenance. Developed by a multidisciplinary team across Denmark, India, Estonia, and the United States, the technology became a commercially successful licence-based software product, creating a new digital revenue stream for Danfoss while improving customer productivity and equipment reliability.
This innovation was recognised with the prestigious Danfoss "Man on the Moon" Global Innovation Award, presented by the company's President and CEO in recognition of its strategic business impact.
At Everfuel A/S, I contributed to the engineering and deployment of one of Northern Europe's large-scale green hydrogen production facilities, supporting the transition towards carbon-neutral industrial energy systems.
My work included the electrical infrastructure for a 20 MW electrolyser plant, power electronic interfaces, renewable energy integration, UPS and DC power systems, FAT/SAT activities, commissioning support, electrical safety, and hydrogen production infrastructure. I also led technology development for a high-pressure mobile hydrogen dispensing system, contributing to safe and reliable hydrogen refuelling solutions for future zero-emission mobility.
These projects strengthened my expertise in integrating renewable electricity, power electronics, and hydrogen technologies to support industrial decarbonisation and the emerging hydrogen economy.
At Siemens Gamesa Renewable Energy and Vestas Wind Systems, I have contributed to the development of next-generation offshore wind energy technologies that improve the reliability, safety, and performance of multi-megawatt renewable energy systems.
At Siemens Gamesa, my work focused on megawatt-scale power converters, grid-forming converter technologies, thermal management, electrical system integration, and technology validation for next-generation offshore wind turbines. These developments support improved grid stability and enable higher penetration of renewable energy into modern power systems.
At Vestas Wind Systems, my current work concentrates on converter safety, advanced sensing technologies, intelligent monitoring systems, functional safety, and digital engineering for offshore wind turbine converter platforms. My responsibilities include developing technologies that enhance operational reliability, improve equipment safety, and support predictive maintenance for large-scale offshore wind installations operating in demanding marine environments.
Together, these projects contribute to the development of resilient offshore renewable energy infrastructure capable of supporting the global transition toward low-carbon electricity generation.
Across every project, my objective has remained consistent: to bridge scientific research with industrial implementation and transform innovative ideas into deployable engineering solutions that create measurable technical, commercial, and societal value. Whether developing advanced motor drives, digital products, green hydrogen infrastructure, or offshore wind converter systems, I believe innovation achieves its greatest impact when research excellence is combined with multidisciplinary collaboration and real-world industrial application.