Real-time articulation and display feedback help guide staple firing paths through complex tissue for more precise surgical stapling.
A flat contact surface and separate fixation component secure sutures with stable hold, lower tissue trauma, and easier removal.
Coordinated motors, cams, and a bayonet linkage sequence tissue motion and staple firing to improve precision and shorten procedure time.
Real-time firing path visualization and self-propelled cartridge advance improve staple placement accuracy and procedure speed.
Hollow reinforcing filaments create in-wall delivery channels, adding contrast flow without increasing catheter size or reducing navigability.
A control circuit senses installed needle size and adjusts motor stroke, enabling one suturing end effector to handle different cartridges precisely.
A modular handle, shaft, and battery pack coordinate sensing, power, and drive control so one surgical tool can articulate, rotate, and clamp.
A modular handle and shaft arrangement switches motor engagement to articulate or rotate end effectors for precise surgical tasks with less fatigue.
Motorized articulation and display-guided control improve staple firing path accuracy and tissue handling in complex stapling procedures.
A modular rotary drive with clutches and sensors expands end effector functions while maintaining precise tissue manipulation control.
Hall effect sensing tracks implant magnetic fields to adjust spinal correction non-invasively while preserving flexibility and control.
A spring-biased engagement assembly delays torque transfer until axial force is high enough, reducing implant-site fatigue and simplifying anchor insertion.
A modular end effector combines grasping, dissecting, and suturing with motor drive and sensor feedback for precise tissue handling.
Selective heat treatment creates a flexible needle section so larger suture needles can pass through small trocars while retaining suturing strength.
Real-time needle position, speed, and force sensing adjusts the firing stroke to improve stitch quality while limiting tissue stress.
Sensors, motors, and an articulating end effector guide staple firing paths through complex tissue to improve placement accuracy and procedure efficiency.