Fixed signal architecture
Quantum/Data Center
stored robot knowledge
stored robot knowledge
Experience + Error Memory
stored corrections and successful motion profiles
stored corrections and successful motion profiles
CPU Core 1
real-time movement command
real-time movement command
Hand Tower 1
routes hand signals
routes hand signals
Floor 1
finger + thumb + wrist controllers
finger + thumb + wrist controllers
Hand Sensors
pressure / joint / thermal feedback
pressure / joint / thermal feedback
Command
Motion limits
| Motion | Simulation limit |
|---|---|
| Finger open | 0° reference |
| Finger close | ~80° per bend section |
| Gentle squeeze | ≤ 35% grip force |
| Maximum squeeze | ≤ 70% grip force |
| Thumb | 2 bending sections |
| Wrist | ±7° slow left/right |
Ready. No errors detected.
Live process monitoring
18 WCPU process power
42 Wquantum/control share
0 mssimulated process latency
Idleenergy demand
Heat / cold sensors
38 °CCPU package estimate
15 mKQPU cryogenic estimate
29 °Chand electronics
Normalthermal status
Movement status
| Parameter | Current | Limit |
|---|---|---|
| Finger closure | 0% | 100% |
| Grip force | 0% | 70% |
| Wrist angle | 0° | ±7° |
| Open/close cycle | Ready | Controlled |
Energy by process
| Process | Est. use |
|---|
Hybrid vs separated systems
One hybrid coordinated system: CPU and quantum resources share the same task flow. The CPU handles deterministic hand movement and sensor response while the quantum layer can assist selected optimization/search tasks. This can reduce duplicated state and repeated handoffs.
Two separated systems: easier to isolate, but information must be copied and synchronized between systems, which can add latency and duplicated memory.
Practical design: use one coordinated hybrid architecture, while keeping CPU/local controllers responsible for real-time motor movement.
Two separated systems: easier to isolate, but information must be copied and synchronized between systems, which can add latency and duplicated memory.
Practical design: use one coordinated hybrid architecture, while keeping CPU/local controllers responsible for real-time motor movement.
Disclaimer
Conceptual simulation only. Power, latency, temperature, force, and quantum values are illustrative estimates, not measured hardware specifications. Real quantum hardware requires specialized cryogenic/control equipment, and qubits do not directly replace classical motor controllers. A real robotic hand requires hardware-specific electrical, thermal, mechanical, software, and safety validation.