Jiu Zhang Zhu specializes in the integration of biomechatronics and artificial intelligence, dedicated to restoring limb function for the disabled community through high-precision myoelectric prosthetic hands and intelligent dexterous hand systems, while also driving breakthroughs in smart bionic technology for industrial and service robotics.
In terms of technological innovation, our self-developed multimodal biosignal acquisition system, combined with deep learning algorithms, enables precise capture of micro-current signals and millisecond-level response. With haptic feedback and adaptive grasping technologies, daily actions like holding a cup or picking up objects feel natural again, seamlessly integrating technology into the nuances of life.
From medical rehabilitation to smart manufacturing, we continue to push the boundaries of neural interface and flexible sensing technologies, creating a new paradigm for human-world interaction—where the loss of a limb is no longer a limitation, but the starting point for the rebirth of human potential.
This technology utilizes micro-current signal capture and neural interface technology to help upper-limb amputees restore fundamental functions such as natural grasping and tactile feedback.
Integrating biosignal acquisition and adaptive algorithms to provide personalized training solutions for limb functional recovery.
This system is applied in industrial automation scenarios to achieve precise grasping and flexible manipulation, while in service robot scenarios, it supports complex interactive tasks.
Providing partners with core technical components such as flexible sensing and haptic feedback.
High-Precision Myoelectric Hand
Neural Interface System
Modular Output of Bionic Technology
Smart Dexterous Hand System
Our core competency lies in the self-developed multi-modal bio-signal acquisition system, which forms a hardware-software closed loop integrated with deep learning algorithms.
We provide customized prosthetic products for medical rehabilitation needs, while offering modular intelligent grasping systems for industrial clients.
Through partnerships with medical institutions, robotics enterprises, and research organizations, we accelerate the transition of technology from laboratory prototypes to market-ready applications.
Originating from the vision of "limb functional rehabilitation," we bridge the gap between individuals with limb differences and full participation in daily life through technology.
We pursue the "unnoticed integration" of bionic technology, enabling mechanical movements to closely mimic the flexibility and intuitiveness of human limbs.
Micro-current Signal Capture Technology:
Overcoming the precision limitations of traditional myoelectric prosthetics, our self-developed high-sensitivity sensors and anti-interference algorithms enable millisecond-level resolution of microvolt-level bioelectric signals, accurately interpreting user intent (such as grip strength and gesture transitions).
Medical-Grade Technology Enhancing Industrial Applications:
Leveraging high-precision biosignal processing capabilities developed in medical rehabilitation, we have adapted them for industrial robotics—enabling flexible grasping and adaptive control technologies (e.g., for fragile item sorting and precision assembly). This addresses key limitations of traditional robotic arms, such as excessive rigidity and insufficient flexibility.
Industrial Scenarios Validating Technological Reliability:
By testing and refining system stability and interference resistance in complex industrial environments, we achieve reverse optimization of medical products' durability and response speed, creating a "flywheel effect" for continuous technological advancement.
From "Functional Replacement" to "Capability Augmentation":
We not only assist individuals with disabilities in regaining essential living functions but also push the boundaries of human operation through intelligent prosthetic hands, redefining the symbiotic relationship between humans and tools.
The Pursuit of Seamless Interaction:
By integrating flexible sensing and self-adaptive algorithms, our mechanical systems achieve "intuitive understanding" of human motion intent—requiring no deliberate user training. Movements become as natural as those of a biological limb (e.g., automatically adjusting grip strength to prevent slippage when holding a cup).
Standardized Core Modular Output:
Key technologies such as biosignal interpretation and tactile feedback are encapsulated into independent modules. We offer plug-and-play solutions to medical device manufacturers and robotics companies, lowering the barrier to entry for applied bionic technology across industries.
Anchor in Essential Needs Secures the Medical Foundation:
With over 100 million upper-limb impaired individuals globally requiring rehabilitation support, this technology addresses long-term societal needs and ensures sustained market relevance.
Pioneering Technology Captures Future Scenarios:
Early strategic investments in brain-computer interfaces, flexible electronic skins, and related fields position the technology as a critical "interaction gateway" for the era of human-machine integration. This groundwork lays the foundation for key advancements in emerging domains such as the metaverse and embodied AI.
Address: Room 413, 4th Floor, New Materials Venture Building No. 7 Fenghui Middle Road, Haidian District Beijing, China
TEL: 400 999 6027
Website: http://www.kapitels.com
E-mail: sales@kapitels.com
