THE TECH

Current extended reality (XR) systems provide high-fidelity visual environments but lack the ability to accurately reproduce physical interaction.Most haptic devices rely on vibrotactile feedback — localized vibration intended to approximate touch. While effective for consumer applications, vibration does not replicate the physical characteristics required for professional training environments, including pressure, resistance, and mechanical response.Haptics Research Inc. (HRi) is developing a pressure-based tactile architecture designed to enable physically accurate interaction within simulation systems.

The Limitation of Vibrotactile Systems

Vibrotactile approaches are inherently limited:

They simulate sensation, not forceThey do not reproduce pressure gradientsThey cannot model resistance or mechanical constraints.

They do not replicate detents or snap-action behaviorIn training environments such as aviation and maintenance, these limitations reduce procedural realism and can impact skill transfer.

Pressure-Based Interaction –

HRi’s approach is based on controlled application of pressure rather than vibration.

This enables:

Localized force interaction at points of contact

Simulation of mechanical resistance

Representation of detents and switch behavior

Directional tactile feedback at the fingertip

The result is a more accurate representation of how users physically interact with real-world controls and components.

System Architecture -

The HRi system integrates:

Distributed tactile contact across the handHigh-resolution fingertip interaction

Embedded control systems for actuator coordination

Software integration with XR simulation environments

The architecture is designed for: Low-latency response

Repeatable interaction behaviorIntegration with existing simulation platforms.

Designed for Simulation, Not Gaming –

This system is engineered specifically for professional training use cases.

Key considerations include:Consistent interaction across repeated training sessions

Compatibility with procedural training environments

Ability to support structured simulation scenarios

Integration into distributed training systems

This is not a consumer haptics device — it is a component of training infrastructure.

Integration Approach –

The HRi architecture is designed to interface with modern simulation environments through a flexible integration layer.

This allows: Use within existing XR-based training systems.
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Alignment with simulation software workflows

Potential integration into broader training architecture

The goal is to enable tactile capability without requiring a complete redesign of simulation environments.

Development Approach –

HRi is focused on iterative engineering and validation:

Controlled prototype developmentMeasured evaluation of interaction fidelity

Progressive refinement of mechanical and control systemsIntegration testing within representative simulation scenarios

This approach is aligned with achieving a demonstrator milestone at I/ITSEC 2026.

The objective is not to approximate touch, but to enable physically meaningful interaction within simulated environments.More broadly, this approach contributes to closing the loop between digital simulation and physical interaction — enabling users not only to see and hear simulated environments, but to physically engage with them.