A variable amplification factor compensates for force loss in bent flexible slave elements, improving tactile feedback at the master side.
A reciprocating jaw assembly and backward-moving wire keep the operation member from slipping during stapling, improving precision and efficiency.
A resilient retainer and datum locator keep the staple cartridge seated when open and aligned with anvil pockets when closed for proper staple formation.
Distal transducer placement and routed jaw cables improve tip stiffness, articulation freedom, and ultrasonic energy delivery in surgery.
A wedge-engaged jaw mechanism enables partial or full clip closure, supporting variable vessel occlusion and catheter retention.
A longitudinal support beam stabilizes a replaceable staple cartridge in an articulating stapling assembly for more precise tissue stapling and cutting.
A shared control hub combines manual and robotic actuators to steer an overtube in multiple planes for precise endoluminal access.
A virtualized network separates control and data paths to keep remote robotic surgery low-latency, reliable, and secure.
Sealed magnetic sensors inside the instrument shaft detect rotating user inputs, reducing laparoscope length while supporting sterilization.
Preloaded sterile cartridges stack and advance multiple clips, reducing reload interruptions while improving robotic clip placement safety.
A cam slot and offset transverse holes let an ultrasonic horn drive jaw clamping while preserving vibration balance for precise tissue sealing.
Selective inclusion areas around robot arms and proximal instrument shafts prevent interference while preserving distal tip freedom in surgery.
A flexible connector and segmented transducers let an articulating ultrasonic jaw-blade assembly navigate tight surgical sites without enlarging shaft diameter.
A metallic reinforcing wall supports a polymer staple cartridge during thick tissue clamping to improve staple formation and tissue sealing.