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Orbit’s physical-systems direction is a long-term research concept. It could explore interfaces between AI software, sensors, embedded computers, actuators, and human operators. Physical autonomy creates risks that ordinary chat interfaces do not, so it must be treated as a distinct engineering discipline. Industrial robotic arm in a controlled manufacturing environment Illustrative industrial robotics image. It is not an image of an Orbit-built robot.

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10.1 Research goals

Possible research areas include:
  • Human-robot interaction and understandable commands.
  • Perception and scene understanding.
  • Navigation in controlled environments.
  • Task planning with explicit constraints.
  • Simulation and digital-twin testing.
  • Teleoperation and operator feedback.
  • Diagnostics, maintenance, and fault reporting.
  • Safe interaction between robots and nearby people.
These topics should be explored incrementally. A humanoid form factor is not inherently more capable or safer than a wheeled platform or a fixed robotic arm. The physical design should follow the task requirements, not the marketing appeal of looking human.

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10.2 Concept: Pulsar V1

Pulsar V1 may be used as a working name for a future robotics research concept. Before any real-world deployment, the project would need a specific use case, defined operating environment, measurable performance requirements, and a safety plan. A responsible development sequence would include:
  1. Requirements and hazard analysis.
  2. Simulation and software-in-the-loop testing.
  3. Bench tests with actuators safely isolated.
  4. Hardware-in-the-loop validation.
  5. Controlled trials in a restricted test area.
  6. Independent review of safety-critical functions.
  7. Limited deployment with trained operators and a documented recovery plan.
A rendered chassis, CAD drawing, or blueprint is not evidence that a robot can safely perform the depicted task.

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10.3 Physical safety architecture

Any future robot should include independent protective mechanisms appropriate to its hardware and operating environment. These may include emergency stops, safe torque or power states, speed and force limits, geofencing where appropriate, sensor-health monitoring, collision detection, and controlled restart procedures. Safety-critical protection should not rely exclusively on a general-purpose language model. The model may propose a task, but a deterministic safety controller and hardware-level safeguards must constrain what the machine can physically do.

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10.4 Loss of communication and faults

The robot should have defined behavior when the network fails, sensors disagree, an actuator overheats, or software stops responding. Depending on the system, the safe response may be to stop motion, enter a reduced-power state, or request operator intervention. The correct response must be determined through hazard analysis, not chosen by convenience. A remote stop mechanism is useful, but it is not sufficient on its own. It must be tested, protected from unauthorized use, and complemented by local safety controls that still work when the network is unavailable.