Product descriptionThe new‑generation 瑞鈊™ magnetic tracking sensor system uses micro‑magnetic field technology to overcome occlusion issues of optical tracking and the size and EMI susceptibility of conventional electromagnetic systems. Designed for percutaneous and endovascular interventions, guidewire and catheter tracking, and other image‑guided procedures in clinical and research environments.
Innovative technology- Metal‑tolerant tracking: stable pose capture and positioning accuracy in metal environments.
- Electromagnetic resilience: robust performance across complex EM scenarios.
- Facilitates efficient compliance with medical device EMC testing.
- Weak‑field operation: advanced nonlinear calibration for low‑signal accuracy.
- Minimizes interference to surrounding equipment.
- Compact form factor: small magnetic field generator and compact sensors for easy integration.
- Embedded sensors simplify device integration.
- Plug‑and‑play: sensors can be used without per‑case recalibration.
- Reduces setup time and streamlines workflow.
- Scalable tracking: expandable architecture supports multi‑sensor, unlimited tracking configurations.
- Pure digital signals provide additional immunity to EM coupling.
Product specificationsSpecification — Value
Magnetic field generator size — 120x120x97 mm
Tracking volume — Hemisphere, R = 15–50 cm
Positioning accuracy (RMS) — ≤ 1.5 mm
Angular accuracy — ≤ 0.5°
Update rate — 50 Hz
Max tracked sensors — 6 (scalable architecture supports more)
SDK & software — API functions and visualization tools for integration and secondary development
Power consumption — 3–12 W
Operating temperature — +10°C to +30°C
Magnetic field generator weight — < 0.8 kg
Clinical applications- Percutaneous interventions: real‑time needle tracking, patient pose and respiratory motion compensation, precise subcutaneous lesion navigation and intra‑procedural feedback.
- Endovascular interventions: sensor integration at catheter tips and ablation devices to build electro‑anatomical maps and localize cardiac targets.
- Guidewire and catheter tracking: precise guidance through tortuous anatomy in vascular, abdominal and minimally invasive procedures.
- Trauma and orthopedic procedures: rapid alignment of drill trajectories and distal locking for improved fixation accuracy and reduced OR time.
- Endoscopy: embedded sensors for colonoscopy and bronchoscopy to map and navigate complex luminal paths and monitor instrument position intra‑procedurally.
- ENT surgery: real‑time tracking of endoscopes and instruments in confined anatomy to avoid critical structures.
- Spine surgery: intra‑operative localization of endoscopes and instruments with pre‑operative CT fusion to assist pedicle screw placement and trajectory planning.
- Robot‑assisted surgery: real‑time spatial tracking of flexible endoscopes, laparoscopic ultrasound and instruments to enhance robotic guidance and safety.
Application sectors- Healthcare: image‑guided therapy devices, intra‑operative decision support, clinical research and training.
- Medical device manufacturing: embedded sensor integration for navigation‑enabled instruments and verification workflows.
- Academic & research: experimental platforms for procedure development and validation.
- Simulation & training: realistic instrument tracking for surgical simulators and training systems.
Features / Technical specifications- Product model: 瑞鈊™ Magnetic Tracking Sensor System.
- Magnetic field generator size: 120x120x97 mm.
- Tracking volume: hemispherical region, R = 15–50 cm.
- Positioning accuracy: RMS ≤ 1.5 mm; angular accuracy ≤ 0.5°.
- Update rate: 50 Hz.
- Max tracked sensors: 6 (expandable architecture supports additional sensors).
- Power consumption: 3–12 W.
- Operating temperature: +10°C to +30°C.
- Magnetic field generator weight: < 0.8 kg.
- SDK & integration: API functions and visualization software provided for secondary development.
- System advantages: metal tolerance, EMI resilience, weak‑field nonlinear calibration, compact size, plug‑and‑play operation, scalable multi‑sensor tracking.