Precision Energy.
Zero Compromise.

FocalSonic's DPC-GNN intelligent energy control delivers real-time tissue-adaptive ultrasonic surgery — eliminating thermal injury at its source, not after the fact.

Ultrasonic Surgical Systems
AI-Powered Energy Control
Physics-Informed Intelligence
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Three instruments.
One intelligent platform.

FS-V100

Ultrasonic Vessel Sealer

Precision vessel sealing for reliable hemostasis across vessels up to 7 mm, with intelligent feedback that stops energy the moment sealing is complete.

Max Vessel 7 mm
Seal Cycle < 3.2 s
Thermal Spread ≤ 1.5 mm
Burst Pressure > 650 mmHg

FS-L200

Laparoscopic Platform

Full-featured laparoscopic ultrasonic shears optimized for high-precision dissection and hemostasis in MIS procedures, with tissue-aware cutting that adapts in real time.

Frequency 55.5 kHz
Blade Temp (idle) < 45 °C
Cut Speed 12 mm/s
Shaft 5 mm

FS-E300

Smart Energy Generator

The central intelligence hub of the FocalSonic ecosystem — a DPC-GNN-powered generator that models tissue physics in real time to deliver exactly the right energy at every moment.

Power 5 – 120 W
Inference 100 µs
Shutoff < 150 ms
Display 15.6" HD

DPC-GNN:
Physics-Informed Intelligence.

Real-Time Tissue Modeling

Physics Modeling

DPC-GNN continuously reconstructs a dynamic model of tissue mechanical and thermal state from transducer impedance, acoustic emission, and force data — updated every 100 microseconds. Energy decisions grounded in physics, not averages.

10 kHz Update Rate Multi-Modal Fusion Graph Neural Network

Adaptive Energy Delivery

Adaptive Control

The FS-E300's adaptive loop translates the live tissue model into continuous power adjustments, maintaining the operating point within the optimal energy window — without over-driving into the thermal injury zone.

Closed-Loop Tissue Presets Auto-Optimization

Predictive Safety Control

Predictive Safety

DPC-GNN models tissue trajectory — where the tissue state is heading, not just where it is — and initiates power reduction 80–120 ms ahead of conventional cutoff triggers. Anticipatory control, not reactive alarms.

80–120 ms Ahead Trajectory Modeling Zero Overshoot
Our Philosophy

Precision
Through
Physics

In ultrasonic surgery, power is easy. Precision is hard. Most devices deliver energy bluntly — optimized for cutting speed, not tissue intelligence. FocalSonic was built on a different premise: that the safest incision is the most controlled one.

DPC-GNN embeds the laws of tissue mechanics, thermal diffusion, and acoustic propagation directly into the control loop. This is physics-driven intelligence, not post-hoc correction. A truly intelligent surgical tool should understand the tissue it touches, anticipate consequences, and adapt — the way an experienced surgeon's hands respond to subtle feedback.

"The physics IS the model. Every inference is constrained to be physically consistent, derived from first principles — not learned correlations."

Smaller Incisions.
Smarter Decisions.

Less Thermal Damage

Physics-constrained control continuously predicts and limits thermal diffusion zones in real time — not after the fact. Dramatically cleaner thermal footprint, reducing collateral injury and post-operative inflammation.

> 50% reduction in lateral thermal spread

Faster Procedures

Smarter energy delivery eliminates unnecessary power surges, prevents tissue sticking, and maintains optimal cutting efficiency. Surgeons operate with confidence, not caution.

Up to 30% reduction in operative time

Reliable Sealing

DPC-GNN continuously monitors tissue impedance, compression dynamics, and energy state to confirm seal integrity in real time — alerting before releasing. Each seal is verified, not assumed.

> 98% seal integrity rate (2–7 mm vessels)

Real-Time Feedback

The first ultrasonic surgical system with an embedded physics-constrained neural network at the control layer. Processes tissue response at millisecond intervals, distinguishing target tissue from critical structures.

< 5 ms closed-loop response latency

Performance that
speaks for itself.

0%
Reduction in lateral thermal spread vs. conventional devices
0kHz
DPC-GNN inference update rate — real-time tissue modeling
<0ms
End-to-end energy shutoff response time
0%
Seal integrity rate across 2–7 mm vessel diameters