Cardiovascular

Robotics

Here's the robotic system challenge. Your platform promises submillimeter precision and reduced operator radiation exposure. But you have to prove it actually delivers these advantages. We help you demonstrate your system's articulation accuracy, control responsiveness, and force feedback work reliably in real procedures.

Our Robotics Expertise

Robotic systems need to enhance precision without sacrificing feedback. Your neurovascular platform navigates tortuous anatomy with submillimeter accuracy. Endovascular systems reduce operator radiation while maintaining catheter control. Surgical platforms articulate across multiple degrees of freedom with appropriate force feedback. Each application has distinct challenges.

We measure system performance using precision fixtures. Positional accuracy. Force transmission fidelity. Control responsiveness across the full range of motion. Our robotic labs have anatomically accurate surgical models and vascular phantoms with realistic tortuosity. Specialized sensors measure instrument forces, articulation angles, and tip positioning.

Complete Robotics Capabilities

Neurovascular

Your robotic neurovascular system navigates delicate cerebral vessels. We evaluate vessel wall integrity after robotic catheter manipulation, assessing endothelial damage, vasospasm, and perforation risk. Our pathologists score vascular trauma using standardized cerebrovascular grading aligned with FDA expectations. This demonstrates your robotic precision minimizes vessel injury compared to manual techniques, showing that tremor elimination and force control reduce the vascular trauma that causes procedural complications in fragile brain vessels.

Endovascular

Your robotic endovascular system manipulates guidewires and catheters through delicate vessels. We evaluate vascular integrity after robotic navigation, assessing endothelial damage, dissection, and perforation risk across coronary and peripheral vessels. Our pathologists score vascular trauma using standardized grading for catheter-based interventions. This demonstrates your robotic force feedback and precise control minimize vessel injury compared to manual techniques, showing that remote manipulation with haptic sensing achieves safe navigation without the vessel damage that causes procedural complications.

Abdominal Surgery

Your robotic abdominal system manipulates intestinal, hepatic, renal, and vascular tissues. We evaluate tissue trauma from robotic instruments, assessing crush injury, thermal damage, and serosal integrity. Our pathologists score surgical trauma using standardized grading for laparoscopic procedures. This demonstrates your robotic force control and tremor filtration achieve precise dissection without the tissue crushing that occurs with manual laparoscopic instruments, showing that articulating wrists and motion scaling minimize injury to delicate abdominal structures during complex procedures requiring microsurgical precision.

Thoracic Surgery

Your robotic thoracic system manipulates delicate mediastinal structures and lung tissue. We evaluate tissue trauma from robotic instruments, assessing nerve injury, vascular damage, and pleural tissue integrity. Our pathologists score surgical trauma using standardized grading for thoracoscopic procedures. This demonstrates your robotic force control achieves precise dissection without the excessive tissue damage that occurs with rigid thoracoscopic instruments, showing that articulating wrists and force feedback minimize injury to critical mediastinal structures during complex resections.

Ready to Start Your Robotics Program?

Let's talk about your system. Neurovascular navigation. Endovascular catheter control. Surgical articulation. What precision it promises. What it needs to prove. We'll design validation that demonstrates your robotic advantages are real.

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