The operator feels what the robot touches.
Not through a vibration motor. Through biologically informed feedback.
Looking Glass Robotics develops advanced robotics, teleoperation, and next-generation human-machine interfaces. Our flagship initiative, Project Juvet, is designed to close the embodiment gap, the eighty-year unsolved problem in teleoperated robotics where operators cannot feel what their machines touch.
Every haptic feedback solution attempted over the past several decades has delivered a mechanical proxy for touch: vibration motors, force feedback actuators, electrotactile stimulation. Each delivers a signal the brain must interpret as touch. None activates the body's own sensory cells. Project Juvet is the first approach designed to do so.
Four peer-reviewed capabilities. One co-fabricated construct.
Project Juvet is a co-fabricated bioprinted biological tissue construct that returns genuine biological haptic sensation to the operator through a quantum-secured photonic channel. The system integrates four independently peer-reviewed capabilities into a single wearable construct for the first time.
Detection and interpretation of pre-motor neural signals using quantum ion-pair sensors operating beyond the classical shot-noise limit. The goal is to capture intent before physical movement occurs, allowing human-machine interaction to feel faster, more natural, and more responsive.
Intent is transmitted as a modulated photonic signal through a communication architecture informed by advances in quantum research, operating within the biological tissue optical transparency window. Designed for resistance to interception and signal disruption through physics, not software.
Ultra-low-power AI designed to run at the edge, directly with the user. Emerging photonic approaches offer sub-milliwatt operation while enabling near real-time signal decoding. The goal is to move beyond cloud-dependent systems toward on-body intelligence that responds immediately to user intent.
Optogenetic activation of channelrhodopsin-expressing dermal cells through targeted photonic stimulation. This approach moves beyond traditional haptic systems to deliver touch signals that align with human perception at the cellular level, bringing interaction closer to real sensation.
The complete bidirectional loop from pre-motor neural signal detection to biological haptic return operates below the 20ms human sensorimotor perception threshold.
The science behind each layer has been independently validated in peer-reviewed literature. Project Juvet is the first system designed to integrate them into a single co-fabricated wearable construct. In April 2026, Northwestern University published in Nature Nanotechnology a demonstration of printed bioelectronic neurons communicating directly with living brain tissue, further validating the biological interface layer approach.
$70B+ total addressable market by 2030.
Surgeons operating through robotic systems lose tactile feedback. Project Juvet is designed to restore it with quantum-precise sensing and genuine biological touch return. Over 1.5 million da Vinci procedures are performed annually with no haptic feedback available to the operating surgeon.
Secure command channels that cannot be jammed or intercepted. Physical-layer quantum communication provides security no adversary can defeat through computational advances. Applications include explosive ordnance disposal, teleoperated reconnaissance, and contested-environment operations.
Prosthetic limbs that feel. Rehabilitation robotics that respond to neural intent in real time. A pathway to restoring genuine sensory experience for amputees currently facing a 40 percent prosthetic abandonment rate driven primarily by the absence of sensation.
Bomb disposal. Chemical plants. Nuclear facilities. Offshore platforms. Environments where human presence means risk and where current teleoperation tools force operators to make high-consequence decisions without tactile information.
48 months. Four phases.
Biological Substrate Validation
Tri-layer GelMA-fibrin scaffold fabrication with quantum dot bioink incorporation and ChR2-expressing dermal fibroblast integration. Target: greater than 90 percent cell viability at day 7 post-printing.
Quantum Sensing Integration
Ag2S NIR-II quantum dot incorporation and signal fidelity validation at 1.4x beyond classical shot-noise limit in the co-fabricated construct environment.
Photonic Communication & AI Inference
QKD-secured entangled photon channel validation at 92 percent fidelity. Sub-milliwatt photonic AI inference below 5ms classification latency.
Full System Integration
Closed-loop bidirectional operation below 10ms end-to-end latency. First-in-class integrated construct ready for IRB-reviewed human factors studies.
Where we are.
Building at the frontier, together.
Looking Glass Robotics is actively seeking partners whose technology operates at the frontier of each layer of the Project Juvet architecture.