Manoj Sahi Kumar
Deep-Tech Systems & Commercialization Leader exploring frontier technologies shaping civilization
Physical AI, Humanoids, Robotics & Autonomous Systems, Advanced Materials
Manoj Sahi Kumar is a deep-tech executive, venture builder, and systems thinker exploring how ideas become technologies, technologies become industries, and industries shape civilization. For more than 15 years in Asia and Europe, he has worked at the intersection of research, engineering, product development, commercialization, and industrial deployment, exploring and building at the frontier of Physical AI, Humanoids, Robotics & Autonomous Systems, Advanced Materials, and the Energy Transition.
He has founded and built ventures including Electrofuel Marine in Singapore, Mattr5 in Estonia, Elbots in Japan, and Robots Alive in India, and has served as CEO, Managing Director, CTO, Director of Product Management, and Entrepreneur-in-Residence. Across these roles, he has built multidisciplinary teams, developed technology ventures, led multi-million-dollar product and commercialization programs, established strategic partnerships, secured research and innovation funding, and turned frontier research into products, businesses, and technology ecosystems.
He has worked across academia, industry, and entrepreneurship, collaborating on technology initiatives with NASA’s Space Technology Mission Directorate, the Max Planck Institute, Imperial College London, the Royal College of Art, the National University of Singapore, the University of Oxford, and the Fraunhofer Institute, alongside global companies including Fanuc, Denso Robotics, Dyson, Panasonic, Atlas Copco, Daiwa House Group, and Mitsubishi Corporation. He has also developed and commercialized patented technologies across advanced materials and autonomous systems.
Educated in Robotics and Innovation Design Engineering at Imperial College London and the Royal College of Art, where he earned two Master’s degrees with Distinction, Manoj is a Chevening Scholar and recipient of multiple national awards, including recognition for excellence in robotics and design.
Today, his professional work focuses on where intelligence meets the physical world in the Age of AI from autonomous systems and humanoids to advanced materials and industrial infrastructure spanning the full technology maturity lifecycle from TRL 1 to TRL 9. Alongside this work, he is developing a broader body of thought on the technological and civilizational consequences of increasingly capable machines.
Manoj believes enduring progress emerges when human creativity, deep technology, and long-term sustainability advance together.
AI 2030+ ⇢ The industrialization of intelligence and its implications for human identity and society.
Humanoids 0:1 ⇢ The transition from artificial intelligence to scalable artificial physical agency.
AI Liberation Hypothesis ⇢ How the distribution of intelligence may reshape human agency and power.
Conscious Enterprise ⇢ Reimagining organizations when intelligence becomes abundant.
Age of Imagination ⇢ Rethinking creativity, purpose, and agency in an age of intelligent machines.
Human? ⇢ What remains distinctly human as intelligence and physical capability become programmable?
Fractal Universe ⇢ Exploring emergence, recursion, consciousness, and the nature of reality.
Mattrbot
Robotic Soft Material
London, 2019
The next evolution of technology is not smarter devices, it is intelligent materials. Mattrbot is the world’s first robotic material, exploring how a single material system could sense, move, compute, and communicate. Developed through AI and design thinking for autonomous systems, Mattrbot is laying the foundation for the age of robotic materials, bringing embedded intelligence to applications across healthcare, mobility, consumer products, and everyday living. Rather than simply enhancing existing technologies, Mattrbot introduces an entirely new way for humans to interact with the physical world, where materials themselves become intelligent, responsive, and adaptive.
Atlas Reinforcement Learning
HER with DQN
London, 2018
A framework to evaluate the performance of two reinforcement learning algorithms, Hindsight Experience Replay (HER) and Deep Q Network (DQN), using a simulated humanoid robot from Boston Dynamics. The analysis encompasses metrics such as learning efficiency and adaptability to dynamic environments. Through the simulation of real-world scenarios, the project aims to understand how these algorithms perform in tasks such as locomotion and manipulation in autonomous robotic systems.
CarriRo
Logistics Robot Cart
Tokyo, 2015
A robot engineered to revolutionize logistics operations. At the heart of its design is a sophisticated algorithm that enables the robot to switch between multiple modes to cater to specific operational needs. In “Assist” mode, the robot provides real-time support to human operators, aiding in tasks such as material handling. In “Tracking” mode, the robot utilizes advanced sensor fusion to autonomously follow users. Moreover, the robot’s “Autonomous” mode allows it to navigate independently.
Space Grounded
Neurological Wellness Device
Paris, 2022
A pocket-sized device designed to enhance the neurological well-being of astronauts. This device not only generates the familiar scent of petrichor, evoking the soothing aroma of rain on Earth, but also stimulates the production of serotonin and norepinephrine, crucial neurotransmitters associated with mood regulation and cognitive function. By exploring the interplay between neurotransmitters and psychological resilience, it paves the way for deep space exploration.
Space Compass
Interplanetary Navigation
London, 2018
An artifact navigation compass engineered to transcend the limitations of gravity, guiding space travelers with unparalleled accuracy by pointing towards the planetary positions within the solar system. Unlike traditional compasses bound by Earth’s gravity, this artifact remains unaffected by gravitational pulls, providing reliable guidance regardless of the space traveler’s position or orientation. This compass serves not only as a navigational tool but also fosters intriguing interactions.
Sensoids
All-Condition Human Sensing System
Tokyo, 2015
A non-contact sensing system for the detection of human presence and identity, both indoors and outdoors, regardless of conditions. When integrated into intelligent systems, it offers unparalleled capabilities in personalized interactions and enhanced security protocols. Moreover, the non-contact nature ensures privacy and convenience, eliminating the need for physical contact or intrusive monitoring devices, whether deployed in smart homes, public spaces, or industrial settings.
ElbotM
Elderly Mobility Robot
Tokyo, 2015
A robot designed to address the diminishing walking abilities of the elderly. The robot features an adaptive walking function, enhancing users’ natural walking gait. Leveraging advanced AI algorithms, it continuously analyzes vital data, including gait patterns and balance, allowing for real-time adjustments and personalized feedback tailored to each individual’s needs. Serving as a valuable tool for rehabilitation and physical therapy, it empowers individuals to regain independence.
Liwa BreathLink Watch
Respiratory Health Monitoring
London, 2018
A timepiece that goes beyond telling time. When worn, it senses the wearer’s breath, fostering non-verbal connections with others wearing compatible devices. When off the wrist, it becomes a personalized companion, offering support and encouragement based on the user’s breath patterns. With its sleek design and advanced technology, including biofeedback, the BreathLink Watch exemplifies how meaningful connections can enrich the human experience and foster self-awareness.
Farm-in-Pocket
Consumer Photo-bioreactor
London, 2018
A pocket-sized photo-bioreactor, engineered to harness ultraviolet (UV) light and carbon dioxide (CO2) to cultivate high-density synthesized protein, serves as an alternative source of food nutrients. This technology not only advocates for sustainable food production but also promotes the concept of production at the point of consumption. It promotes self-sufficiency, empowering individuals to take control of their nutritional needs while minimizing food waste and addressing food security issues.
Dhii
Collaborative Robot for SMEs
Bengaluru, 2010
A robot for smart manufacturing, characterized by its lightweight build, dexterity, and ease of programming. The robot operates on the principle of service-oriented architecture, employing modular intelligent components to provide unparalleled flexibility in industrial settings. Its dexterity enables it to handle delicate tasks with precision, while its intuitive programming interface makes it accessible to operators of all skill levels. In addition to its technical capabilities, it’s designed to minimize downtime in production environments.
Dynawear
Smart Wearable
Mumbai, 2010
A collection of smart wearables that seamlessly blend wearable sensors with mechanical parts crafted from soft polymers. These garments not only sense and adapt to the wearer’s movements but also have the ability to dynamically change shape, transforming from one form to another with fluidity and precision. The combination of advanced materials and intelligent design not only enhances the wearer’s comfort but also enables a wide range of fashion possibilities, representing a bold leap forward in both form and function.
Transgenic Bee
Synthetic Biology for Sustainability
London, 2018
A transgenic bee with enhanced olfactory capabilities to detect RDX contamination in soil, and a higher density of receptacle hairs, strategically positioned to facilitate the efficient transfer of pollen. Additionally, it features an increased number of wax glands, enabling the rapid repair of microstructures essential for hive integrity, while mitigating the negative impacts of habitat destruction. It offers promising solutions to pressing challenges facing both agricultural productivity and ecological sustainability.