HapticSystem
HapticSystem tactile sensing product concept image

Giving robots a real sense of the world HapticSystem

Focused on flexible tactile sensing, on-device tactile computing and robotic applications, we give machines a sense of the physical world that is closer to reality.

  • Sensing–computing–control (all-in-one) architecture
  • Chip + toolchain + dataset
Tactile closed-loop application concept image

Giving robots a tactile “cerebellum”

Processing contact, force and slip information locally on the robot itself, helping the robot judge “am I holding it”, “is the grip force right” and “is the object slipping”.

  • Compatible with many types of tactile sensors
  • Iterated on real-world robotic tasks

What We Do

Helping machines understand the real world from the first touch

As robots move into factories, homes and public services, “seeing” alone is no longer enough — they also need to sense force, slip and impact when they touch objects before they can perform finer and safer operations. HapticSystem focuses on exactly this link.

10+

[To be confirmed: basis of these figures]

HapticSystem working scene

How We Work

Technology Roadmap

From flexible sensing to robotic applications: a closed tactile loop

HapticSystem builds a complete haptic technology chain from flexible sensing and signal processing to application feedback, so that tactile signals are genuinely used by robot models.

Flexible Tactile Sensing

Collects heterogeneous tactile signals such as pressure, force, temperature, vibration, slip and flexible electronic skin, giving robots reliable input the moment they touch an object.

On-Device Tactile Computing

Processes tactile data and performs physical cognition computing on the robot itself, reducing reliance on the cloud and general-purpose compute, and tackling the industry pain points of high power consumption and high latency.

Robotic Application Feedback

Returns the results to the robot's “main brain”, which handles overall decision-making, forming a closed loop from sensing to motion adjustment, and keeps improving the product through real robotic tasks.

Partnership & Ecosystem

Connecting tactile sensors, robot end effectors and the robot “main brain”

Robotic tactile product concept image

Dexterous Hands & Humanoid Robots

Giving robots more delicate contact feedback

For dexterous hands, humanoid robots and other embodied intelligence devices, we provide tactile information such as pressure, contact and deformation, making grasping and manipulation more stable and safer.

  • Flexible tactile sensors and multi-dimensional signal acquisition
  • On-device tactile data processing and real-time feedback
  • An application loop built around real manipulation tasks
Tactile application closed-loop concept image

Smart Manufacturing & Research Collaboration

Bringing haptic technology into more applications

For collaborative robots, industrial inspection, medical wearables and XR haptic interaction, we are open to business, technology and research collaboration.

  • Collaborative robots and smart manufacturing
  • Medical wearables and XR haptic interaction
  • Research projects and engineering services

Core Technical Metrics

The technical loop from flexible sensing and on-device computing to robotic applications

1.3 pJ/SOP
On-device neuromorphic chip energy efficiency

Built on a fused charge-domain compute-in-memory (CIM) and spiking neural network (SNN) architecture, the NeuC-CIM charge-domain SNN compute-in-memory inference chip reaches an energy efficiency of 1.3 pJ/SOP.

Results published at VLSI 2025
3 in 1
Sensing–computing–control haptic co-processing architecture

Integrates tactile sensing fusion (SENSE), physical cognition computing (COMPUTE) and end-effector feedback control (CONTROL) into a single on-device co-processing chip — the robot's tactile “cerebellum”.

Purpose-built edge computing architecture for haptics
Sub-millisecondscale
Reflex loop latency

Completes tactile sensing fusion, physical cognition computing and end-effector feedback control on the device side, forming a local closed loop from contact to motion adjustment without waiting for a cloud round trip.

Processed locally on the device side
6 types
Heterogeneous tactile signal processing

Processes pressure, force, temperature, vibration, slip and flexible electronic skin signals at the same time, reducing the integration and development effort for robot makers working with different tactile sensors.

General-purpose hardware and software platform
1 model
Edge AI sensing–computing–memory processor with on-chip learning

SpikeRAM lets the tactile chip perform adaptive learning and adjustment on the device side without relying on the cloud, tackling the bottlenecks of tactile models: difficult data alignment and poor cross-device generalisation.

Results published at ISSCC 2026
+80%
Faster toolchain deployment

A software toolchain supporting automated TFLite / ONNX deployment, together with an in-house data acquisition system and multimodal data system, significantly shortens the path from model to on-device chip.

+30pp
Dexterous manipulation task success rate

Builds a dedicated high-frequency processing path for touch (dual ANN/SNN cores), raising the success rate of dexterous manipulation tasks by about 30 percentage points and solving the problem that touch “cannot be effectively used by models”.

Technical Strengths

Not a single component, but system-level tactile infrastructure

In the upstream white space of “purpose-built haptic edge computing architecture + neuromorphic compute-in-memory chips”, HapticSystem uses neuromorphic compute-in-memory chips as its foundation to integrate sensing, computing, control, data and the toolchain at the system level.

  • Upgrading from “single components” to system-level haptic co-processing chips
  • Solving the high power consumption and high latency of on-device tactile processing at circuit level
  • Building long-term barriers through the four-in-one combination of “chip – data – model – standard”

An open hardware and software platform that connects to different types of tactile sensors

Sensing–computing–control (all-in-one) haptic co-processor architecture diagram

Team & Credentials

Turning technology into real-world deployment with a team built on long-term experience

Drawing on the team's long-term experience in sensor signal processing, AI chip design and mass production, HapticSystem aims to connect tactile sensors, robot end effectors and the robot's main brain, so that machines are more sensitive, stable and safe when they come into contact with the real world.

University Incubation

A startup in embodied haptic intelligence and edge co-processing chips, incubated at The Hong Kong University of Science and Technology (Guangzhou) campus.

Media Coverage

Its technical direction and innovations have been covered by Xinhua News Agency and other media, and are seen as a viable path to giving robots the tactile sensing capability they lack.

Program Recognition

Selected for the “invest-first, convert-later” program, with related technical results published at international integrated-circuit conferences.

Team collaboration scene

Technical Capabilities

Full-stack capabilities from chips and processors to the toolchain

Sensing–computing–control (all-in-one) purpose-built haptic co-processing architecture

Integrates tactile sensing fusion, physical cognition computing and end-effector feedback control into a single on-device co-processing chip, giving robots local tactile processing capability.

  • A single chip handles sensing fusion, physical computing and end-effector control
  • Compatible with many types of tactile sensors, reducing integration effort for robot makers
  • Advantages in integration density, latency and cost over “general-purpose compute chip + external sensors” approaches
Haptic co-processing chip architecture concept image

Neuromorphic compute-in-memory to break the on-device energy-efficiency bottleneck

Addressing the massive real-time data processing demands created by full-body tactile arrays on robots, and solving the industry pain points of high power consumption and high latency at the circuit level.

  • A fused charge-domain compute-in-memory (CIM) and spiking neural network (SNN) architecture
  • The NeuC-CIM charge-domain SNN compute-in-memory inference chip, with an energy efficiency of 1.3 pJ/SOP
  • On-chip learning reduces reliance on the cloud and improves privacy and security
Neuromorphic compute-in-memory architecture diagram

Software toolchain and multimodal dataset

More than a chip: we also provide the software and data that make tactile models actually run, shortening the path from algorithm to the device side.

  • A software toolchain supporting automated TFLite / ONNX deployment
  • An in-house data acquisition system and a multimodal tactile data system
  • Event encoding and a multimodal fusion architecture for touch, creating a dedicated high-frequency processing path
Software toolchain diagram

TouchBench tactile benchmarking suite

A benchmarking suite for embodied haptic tasks, so that the performance of different tactile approaches can be compared fairly and reproducibly.

  • Provides a unified, reproducible basis for evaluating tactile tasks
  • Supports cross-device, cross-task comparison of tactile models
  • Combined with real robotic tasks to keep improving product capabilities
Tactile benchmarking suite diagram

Products & Solutions

A full-stack tactile solution for embodied intelligence

From tactile sensor integration and on-device chips to the software toolchain and datasets, HapticSystem provides a complete “chip + toolchain + dataset” solution, together with reference designs and engineering support.

Tactile Sensor Integration

Universal interfaces for connecting all kinds of tactile devices

On-Device Co-Processing Chip

Sensing–computing–control (all-in-one) architecture

Low-Power Real-Time Processing

Energy-efficient computing for the device side

Model Deployment Toolchain

Automated TFLite / ONNX deployment

Multimodal Tactile Dataset

In-house acquisition and data system

Research & Engineering Support

Joint projects and technical services

Recognition & Endorsement

Recognition from universities, media and industry programs

“This technology is like adding a tactile ‘cerebellum’ to a robot, helping it promptly understand what changes when it touches an object and pass useful information on to the robot's ‘main brain’, which handles overall decision-making.”

Xinhua News Agency report

Feature on the technical breakthroughs and innovations

Focusing on robots' tactile sensing needs, the company develops embodied haptic edge co-processing chips and a supporting hardware and software platform, achieving systemic innovation in the upstream white space of “purpose-built haptic edge computing architecture + neuromorphic compute-in-memory chips”.

the “invest-first, convert-later” program

Selected for its technical breakthroughs and innovations

Related chip and processor research results have been published at the international integrated-circuit conferences VLSI 2025 and ISSCC 2026, drawing attention from international peers in purpose-built haptic edge computing.

International Conference Results

VLSI 2025 / ISSCC 2026

Incubated at The Hong Kong University of Science and Technology (Guangzhou) campus, the company carries out research, development and industrialisation on the strength of the team's long-term experience in sensor signal processing, AI chip design and mass production.

University Incubation

The Hong Kong University of Science and Technology (Guangzhou)

FAQ

Frequently asked questions about partnership

Whether it is a business partnership, technical integration or research collaboration, you can contact our team directly. If your question is not answered below, please get in touch with us through the Contact page.

We currently offer three: business partnership, technology partnership and research collaboration. Business partnership is aimed at robot OEMs, sensor makers and end application providers; technology partnership is aimed at teams that need to integrate a tactile solution; research collaboration is aimed at universities and research institutions. Please contact us through the Contact page to discuss specific forms of collaboration.

Yes, we support many types. Robots today use a wide variety of tactile sensors with different interfaces and data formats, and HapticSystem connects different tactile devices through a relatively universal hardware and software platform, lowering the integration and development effort for robot makers. The exact compatibility depends on the sensor model, so we welcome you to talk to us with your setup.

[To be confirmed: product status and availability] — please add the chip tape-out status, whether the SDK can be requested for trial use, whether prototyping and evaluation are offered, and how to apply. This item is not yet confirmed, so no commitment is made externally for now.

The project does not only develop chips: it also builds the supporting software tools and algorithm models, and provides reference designs, continuously improving the product through real robotic tasks so that it fits different application needs such as fine grasping, industrial operations and safe human-robot interaction. The scope and timeline of customisation depend on the specific use case.

You can submit a partnership enquiry through the “Contact” page, or email us directly at info@hapticsys.com. We will arrange the right colleague to get in touch with you once we receive it.