A robotic knee testing apparatus defines world and local coordinate systems to measure joint movements.
Segmented windings on a powdered magnetic core maintain signal strength while allowing the sensor to navigate complex anatomical paths.
A computer-assisted orthopaedic surgery system generates 3D bone models and impingement zone color maps to guide precise bone removal.
A console verifies cassette identification data against server records to permit radiation image capture.
A multilayer planar spiral inductor design enhances signal sensitivity for MRI-guided robotic tracking.
Unique marker patterns resolve inaccuracy from multiple generic markers, enabling precise single-point tracking.
A wearable apparatus with reflective markers registers patient space using 3D scanning data.
Real-time nerve mapping using beacon signals and automated shutdown commands prevents unintended nerve damage during surgical dissection.
Wireless key depression signals trigger automated endoscope adjustments, resolving surgeon attention division during laparoscopic procedures.
Three MEMS position sensors and infrared distance sensors track the endoscope probe to prevent collisions with intestinal walls.
A computer-implemented method creates a virtual model of a spinal cage using a pointing device to acquire tip, end, and axis data for precise calibration.
A magnetic surgical guidance system calculates implant orientation using spatial data from reference and tool sensors.
A Position Sensing Unit maps electrode locations using voltage and impedance measurements.
Optical RFID tags replace migrating wires by harvesting light energy to modulate backscatter signals, ensuring accurate lesion localization during surgery.
Real-time tracking guides intraoperative resizing of customized implants, reducing operative time and improving fit accuracy.
Flexible electrode coils on an ablation balloon confine energy to target tissue, reducing unintentional damage and improving lesion formation consistency.