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POC IN DEVELOPMENT
Experimental Validation Underway
Graphibre combines shear-thickening fluid formulations with graphene-based materials to investigate a responsive medium for vibration isolation
Shear-thickening fluids can change their rheological behaviour as applied shear conditions change, providing a basis for mechanically responsive vibration-isolation systems
Graphibre's experimental programme investigates graphene-enhanced formulations and their interaction with the surrounding composite architecture under controlled vibration conditions
Controlled testing will compare fluid formulations and mechanical configurations to determine their effect on vibration transmission and system response
The proof-of-concept programme is designed to establish experimentally how fluid composition, annular geometry and structural configuration influence Graphibre's vibration-isolation behaviour
Graphibre integrates lightweight carbon-composite structures with a fluid-filled concentric architecture to create a compact vibration-isolation system
Inner and outer composite members define an annular region containing the functional fluid, combining structural support and vibration isolation within a lightweight assembly
Tube diameter, active length, annular volume and internal geometry can be varied experimentally to investigate their influence on vibration-isolation behaviour
The modular proof-of-concept architecture enables individual mechanical and fluid parameters to be changed and compared under controlled test conditions
The current multi-component construction supports rapid prototyping and comparative testing, while future development will investigate more integrated manufacturing architectures
Graphibre combines composite structures with graphene-enhanced shear-thickening fluids to create a passive mechanical response to vibration
The passive architecture is designed to respond mechanically to vibration without requiring continuous electronic control, external power or software intervention
stablishing the performance of the passive system provides the experimental baseline for developing instrumented and subsequently adaptive Graphibre architectures
The proof-of-concept programme compares controlled fluid and structural configurations to determine how Graphibre affects vibration transmission under repeatable conditions
Experimental results from the passive rigs will establish the baseline needed to evaluate changes in fluid formulation, geometry, sensing and future adaptive control
Integrated sensing measures vibration and movement to quantify isolation performance and provide reliable physical-world data for future adaptive control
Accelerometers and other sensors measure vibration, movement and system response before and after isolation, enabling Graphibre performance to be quantified experimentally
Sensor data provides the foundation for comparing isolation configurations and, in future systems, informing real-time adjustments to changing vibration conditions
Graphibre uses physical measurement to establish how different isolation configurations affect vibration transmission and the quality of data available to sensors
The proof-of-concept test programme compares controlled configurations using repeatable measurements, providing experimental evidence for subsequent development of adaptive Graphibre systems
Graphibre is developing a pathway from passive vibration isolation to actively controlled systems that respond to changing physical conditions
Embedded sensors can measure vibration, movement and system behaviour, providing physical-world data for monitoring and future adaptive control
Future development will use sensor feedback to adjust system behaviour in response to changing vibration conditions and operating environments
The development programme progresses from experimentally validated passive isolation towards sensing, closed-loop control and intelligent physical response
The current proof-of-concept programme is intended to establish the physical performance of the isolation architecture before progressively introducing sensing and adaptive control
Physical AI systems depend on sensors to observe and interpret the real world. Vibration can degrade the physical inputs captured by cameras, inertial sensors and other sensing systems before that data reaches an AI model
AgentFlow operates on a zero-trust model—every agent, user, and system interaction is authenticated, authorized, and logged. Role-based access controls ensure that AI agents only access the data and tools they are explicitly permitted to use, minimizing risk across your entire automation environment.
Rather than relying solely on software to compensate for degraded sensor inputs, Graphibre introduces vibration isolation into the physical sensor architecture itself
Graphibre's development programme investigates how vibration isolation can improve the physical operating environment of sensors used by autonomous and intelligent systems.
Graphibre is currently in proof-of-concept development. The experimental programme is designed to quantify vibration-isolation performance before evaluating its effect on sensor-data quality
Answers to common questions about Graphibre’s technology, development programme and approach to physical AI data fidelity
Graphibre is developing adaptive vibration-isolation technology designed to improve the quality and consistency of physical-world data captured by sensors. The approach combines lightweight composite structures, graphene-enhanced shear-thickening fluids, sensing and adaptive control
Physical AI Data Fidelity describes the reliability of data captured from the physical world before it reaches an intelligent system. Graphibre addresses vibration and movement at the sensor interface, helping reduce physical interference that can affect the quality and consistency of sensor data
Graphibre combines a lightweight composite architecture with a fluid-based isolation system. The technology is being developed to respond mechanically to changing vibration conditions while isolating sensitive sensors and other components from unwanted vibration
Shear-thickening fluids can change their rheological behaviour as applied shear conditions change. Graphibre is investigating how this responsive behaviour can be used within a compact vibration-isolation system to alter its mechanical response under dynamic conditions
Graphibre is investigating graphene-enhanced shear-thickening fluid formulations and their interaction with the surrounding composite structure. The proof-of-concept programme is intended to determine experimentally how these formulations influence vibration transmission and system response
Conventional isolation systems generally rely on fixed mechanical characteristics selected for an expected operating environment. Graphibre is investigating a progression from passive fluid isolation toward sensing and adaptive control, allowing future systems to respond to changing vibration and operating conditions
Integrated sensing measures vibration and movement so that isolation performance can be quantified rather than assumed. These measurements provide the physical-world data required to characterise the system and support the development of future adaptive control
The development architecture combines embedded sensing with the potential for real-time control of isolation characteristics. Future development will investigate how measured operating conditions can be used to adjust system behaviour as vibration and environmental conditions change
Graphibre is being developed for applications where vibration can affect sensors, imaging systems, electronics or other sensitive components. Potential applications include unmanned and autonomous systems, aerospace, robotics, vehicles and other vibration-sensitive platforms.
Graphibre is currently in proof-of-concept development. Controlled testing is being used to investigate fluid formulations, structural configurations, vibration transmission and system response. Performance claims will be based on measured experimental results as the development programme progresses