The self-healing, bio-electronic gloves are designed for human-machine interfacing in defense applications
Cybosense BV, a pioneering deep technology defense company spun out of the Technical University of Denmark (DTU), and SenseGlove, a leader in wearable haptic technology, have joined forces to develop groundbreaking glove technology with 3D printable self-healing bioelectronic and biosensing capabilities. This collaboration, backed by a €200,000 grant from a Dutch funding body(RVO and Provincie Zuid-Holland), aims to revolutionize hand-worn technology for applications in defense, industry, and space exploration.
Cybosense has developed a proprietary and patented 3D printable, stretchable, self-healing bioelectronic material that can sense multiple physical, chemical, and biological signals, offering real-time monitoring of hand gestures and pressures from the surroundings. Notably, this technology can be used to give rise to self-maintainable and highly durable electronics that display self-repair capacity. This cutting-edge material will be integrated with SenseGlove’s advanced haptic glove technology, which is widely used for virtual reality (VR) training, augmented reality (AR) research, and industrial applications to enable motion and pressure sensing.
“This partnership represents a significant step towards the future of wearable intelligence for human-machine interfacing,” said Prof. Alireza Dolatshahi-Pirouz, Founder and CEO of Cybosense. “By combining our biomaterials capabilities that are 3D printable, bio-electronic, biosensing, and self-healing with SenseGlove’s haptic expertise, we are developing a technology that not only enhances human-machine interaction but also provides real-time health and performance monitoring in extreme environments.”
The potential applications of this next-generation glove technology are vast and go beyond Cybosense’s focus on defense.
In defense, soldiers could benefit from real-time biometric feedback and enhanced haptic perception for mission-critical operations. The integration of biosensing and haptic feedback could provide soldiers with early detection of dehydration, stress, or injury, allowing for timely medical intervention. Moreover, in battlefield conditions, these gloves could improve grip strength and tactile sensitivity, enhancing performance in environments where precision and situational awareness are critical.
In industrial settings, these 3D printable self-healing bio-electronic smart gloves could monitor worker fatigue, detect harmful exposure to chemicals, and provide enhanced dexterity for precision tasks. For hazardous environments, such as chemical plants or high-risk manufacturing, the gloves could provide continuous safety monitoring, alerting users to physiological stressors or exposure to toxic substances. Additionally, the gloves could be used in automation and robotics to enable more intuitive and precise control over machinery through real-time biometric feedback.
For space exploration, astronauts could use the 3D printable smart-gloves to monitor vital signs while maintaining tactile interaction with their environment, addressing the unique challenges of microgravity. The gloves could also enhance extravehicular activity (EVA) operations by providing real-time health diagnostics, such as oxygen levels, muscle fatigue, and thermal regulation. Additionally, the combination of haptic feedback and biosensing capabilities could assist in robotic teleoperation, enabling astronauts to perform intricate tasks remotely with a higher degree of control and accuracy.
Beyond specific applications, the convergence of biosensing and haptic feedback technologies has the potential to disrupt human-machine interaction on a fundamental level. By seamlessly integrating biological intelligence with digital interfaces, these smart gloves could enable a new era of cybernetic augmentation, allowing humans to interact with machines in more intuitive and responsive ways. This breakthrough has the potential to redefine productivity, safety, and efficiency across multiple industries, offering a transformative shift in how humans engage with technology in real time.
Prof. Alireza Dolatshahi-Pirouz brings deep expertise in tissue engineering and cyborganics, areas that have been instrumental in the development of the company’s core bioelectronic material. With a background in merging biological, materials, and electronic systems, Prof. Alireza Dolatshahi-Pirouz has led Cybosense in pioneering a new class of self-healing and biosensing materials that bridge the gap between organic and synthetic interfaces, positioning the company at the forefront of next-generation wearable technology.
“We are thrilled to collaborate with Cybosense on this groundbreaking project,” said Frank Goovaerts, CEO of SenseGlove. “Our goal is to redefine wearable haptics by integrating biosensing and self-healing materials, creating a new paradigm in human augmentation.”
Both companies, headquartered in the Netherlands, are at the forefront of their respective fields and are committed to pushing the boundaries of technological innovation. The awarded funding will support research, development, and prototyping, with an aim to deliver the first proof-of-concept within the next year.
This partnership exemplifies the synergy between academic research and commercial technology development, driving innovation that has the potential to redefine the future of human interaction with digital and physical environments.
