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The Empathy Layer for Robotics™

Skollar™

The First Physical Expression of The Empathy Layer for Robotics™.

Skollar™ translates selected robot states and intent into intuitive, human-readable visual signals so people can better understand what autonomous systems are doing in real time.

Think of it as turn signals for robots, brake lights for automation, and vital signs for autonomous systems.

Beyond human-readable communication, Skollar™ is being developed as part of CRLJ's broader trust architecture supporting monitoring, Security & Data Protection visibility, and independently validated deployment.

Skollar™ signaling system illuminated on CRLJ's quadruped test platform
Skollar™ signaling hardware — mounted on a robot platform
Skollar™ Signaling

One Robot. One Skollar™. Clearly Different Signals.

The same Skollar™ unit, photographed from the same angle on CRLJ's quadruped test platform, displaying visually distinct signal states.

Skollar™ signal 01 on Shasta, CRLJ's quadruped test platform
Signal 01
Skollar™ signal 02 on Shasta, CRLJ's quadruped test platform
Signal 02
Skollar™ signal 03 on Shasta, CRLJ's quadruped test platform
Signal 03
Skollar™ signal 04 on Shasta, CRLJ's quadruped test platform
Signal 04
Product Demonstration

See Skollar™ in Action

See Skollar™ displaying visually distinct signals on a moving quadruped test platform.

The Problem

The Robot Knows. The Human Doesn't.

Robots process enormous amounts of information internally. But someone standing nearby may still not know whether the robot is moving, turning, reversing, stopping — or experiencing a fault.

Skollar™ makes selected robot states visible at the point where they matter most: on the robot itself.

Conceptual visualization of a humanoid robot without Skollar™ — no external signal around the neck.
Machine State

Robot state is not externally communicated.

Conceptual visualization of the same humanoid robot wearing an illuminated Skollar™ around the neck.
Human Understanding

Robot state is communicated through a human-readable signal.

Conceptual visualization

How It Works

Machine State → Human Understanding

Skollar's current MLP is designed around non-invasive telemetry integration and local signal logic so the light system can continue operating independently of internet connectivity.

  1. 01
    Robot Telemetry
    Non-invasive integration with platform state data
  2. 02
    State Classification
    Telemetry mapped to defined operating states
  3. 03
    Skollar™ Signal Logic
    Local logic selects the corresponding signal
  4. 04
    Visual Communication
    Signal presented on the robot itself
  5. 05
    Human Recognition
    Interpreted at the point of interaction
The Signal Language

Clear States. Clear Meaning.

Select a state to see how Skollar™ represents it. States reflect the current MLP state model.

Close detail of a Skollar™ signaling module mounted on a robot platform
Robot StateIdle / Standing

Powered and holding position.

Signal representation shown for illustration. Final signaling logic follows CRLJ's approved specification.

Designed for Human Recognition

No Dashboard Required to Read the Signal.

The objective is simple: make robot intent recognizable without requiring someone nearby to interpret complex telemetry, open software, or understand the robot's internal systems.

Development Objective
≤ 2 sec

Target recognition time for robot state.

≥ 80%

Target comprehension accuracy across pilot participants without prior training.

These are MLP testing and pilot success criteria — not documented results. Testing is in development.

CRLJ human comprehension testing framework documentation
Supervisory Visibility

Human Understanding on the Floor. Operational Visibility Behind It.

The Skollar dashboard is designed to provide supervisory visibility during pilots and operation.

Skollar™ Supervisory DashboardPrototype view
01
Live robot state
02
Online / offline status
03
Timestamped state transitions
04
Pilot metrics
05
Fault and E-stop counts
06
Event annotations
07
CSV export
08
Device health and connectivity status
Platform-Agnostic by Design

We Don't Build the Robot. We Build What Helps People Understand It.

CRLJ's strategy is not to compete with robot manufacturers. Skollar™ is being developed as a platform-agnostic layer designed to integrate with robotic platforms and support a broader ecosystem of OEMs, integrators and deployment partners.

Skollar™
One Interface. Many Platforms.
  • Quadruped
  • Humanoid
  • AMR
  • Service Robot
  • Future Platforms

Platform categories shown are generic. Compatibility with specific commercial platforms is stated only where technically validated.

From Skollar to Trust

Skollar™ Is One Part of a Larger Trust Architecture.

CRLJ is developing a tiered assurance framework. Each tier describes a different depth of evaluation.

  1. Tier 01

    Skollar Enabled™

    The autonomous system incorporates CRLJ technology supporting human-readable communication, operational transparency, and Security & Data Protection visibility.

  2. Tier 02

    CRLJ Monitored™

    The autonomous system is monitored against defined operating, communication, security, and data-protection conditions.

  3. Tier 03

    Independent Third-Party Validation

    Objective evaluation against defined CRLJ requirements using documented evidence, performed by a party other than the manufacturer.

  4. Tier 04

    CRLJ Assured™

    CRLJ Assured™ is being developed as a trust designation for autonomous systems evaluated against defined CRLJ requirements for communication, Security & Data Protection, transparency, monitoring and trusted human-ready deployment.

Dave Skillin installing the Skollar™ module on Shasta, CRLJ's quadruped test robot
Pilot With CRLJ

Help Define the Future of Human-Ready Robotics.

CRLJ is seeking organizations interested in evaluating Skollar™ in real-world environments and helping establish measurable benchmarks for human comprehension, operational visibility, and trusted robotics deployment.

OEMsIntegratorsEnterprise OperatorsSafety StakeholdersResearch Partners