The Transplantation Cycle

Four stages, one continuous robotic workflow

Outside of shaving, anesthesia and disinfection (handled by the clinical team), the entire cycle is designed to run autonomously under a doctor's supervision.

Head scan

The robot scans the scalp, mapping the location and orientation of every hair follicle and defining donor and recipient areas.

Planning

The system identifies the number of grafts to transplant and sequences the procedure. The doctor and patient review and approve the plan on screen.

Extraction

The first robotic arm locally identifies, cores and extracts each follicle, then transfers it to the implantation arm.

Implantation

The second arm injects each follicle with correct orientation and verifies implantation quality — graft by graft.

Samson Robotics dual-arm robot performing a hair transplant procedure
Continuous Improvement

Machine learning built into every procedure

Extraction force, coring depth and other procedural variables are continuously optimized by integrated machine learning algorithms — so outcomes keep improving over time, without depending on any single operator's skill or fatigue level.

The result is a system that targets >95% graft yield at roughly 3–4 hours per procedure (about 4,000 grafts) — twice as fast as a manual procedure, with far less variability.

Milestone

Phase 1 is complete

We've already de-risked the most technically demanding part of the project: a robotic arm that autonomously identifies and extracts hair follicles after precise micro-localization.

Roadmap

From prototype to certified, commercial robot

Done

Phase 1 — Extraction arm

Robotic arm capable of autonomously performing hair coring and extraction after micro-localization.

In progress

Phase 2a — Full prototype

Scalp scanning, automated extraction and sorting, and implantation via a second robotic arm — plus pre-clinical evaluation of the complete system.

Next

Phase 2b — Clinical validation

Clinical trials and robot reliability testing, with verifications and validations in preparation for certification.

Next

Phase 2c — Certification

CE Mark certification and preparation for commercialization. As an intrusive but non-critical device, the Samson Robot is expected to fall under Class 2a — a comparatively achievable regulatory path.

Ahead

Phase 3 — Commercialization

Go-to-market: selling robots to practitioners and deploying Samson-operated treatment centers.

Competitive Landscape

Why today's closest alternative hasn't solved this

Our closest competitor is the only other robotic system on the market — but it automates only part of the procedure.

Closest CompetitorSamson Robot
Automation levelSemi-automatic coring & implantation; manual sorting between stepsEnd-to-end autonomous cycle
Staff required3–4 medical professionals throughoutMinimal supervision (doctor/nurse)
Typical throughput~2,000 grafts in 8 hours~4,000 grafts in 3–4 hours
Core design eraOriginal platform released nearly two decades agoBuilt on modern robotics & machine learning
EconomicsHigh acquisition cost + labor still requiredLabor cost sharply reduced

Source: Samson Robotics investor materials.

Want the full technical deep-dive?

We're happy to share our detailed process documentation and development plan with qualified investors and partners.