A surgical instrument comprises a fulcrum including a first surface that defines a cavity configured for disposal of a first implant support. A second surface is movable relative to the fulcrum and engageable with the support to fix the first surface with the support. A third surface is connected with the second surface such that the second surface is translatable relative to the support and the third surface is engageable with a second implant support. In some embodiments, spinal constructs, implants, systems and methods are disclosed.

Systems and methods are disclosed in which customized instruments, e.g., surgical instruments, can be manufactured to provide improved ergonomics, comfort, and accuracy. Instruments can be customized based on various parameters, including a quantitative assessment of the user, desired or intended use of the instrument, user preferences, and so forth. Exemplary instrument properties which can be customized include size, geometry, durometer, mechanical assist, texture, color, markings, modulus of elasticity, sensor inclusion, sensor type, sensor feedback type, balance, finish, and weight.

The present invention relates to surgical devices, particularly to a circumcision equipment, enable the circumcision equipment to be suitable for different surgery objects and environments.

An instrument includes a first arm including a first handle and a first tip coupled to the first handle. A second arm is coupled to the first arm, and the second arm includes a second handle and a second tip coupled to the second handle. At least one of the first handle and the second handle includes an inner surface facing toward the other one of the first handle and the second handle. A planar outer surface faces away from the other one of the first handle and the second handle. A first convex curved side surface extends between the inner surface and the planar outer surface. A second convex curved side surface opposite the first convex curved side surface extends between the inner surface and the planar outer surface.

Variations of integral navigation controls may be used in conjunction with a medical instrument to provide navigation functions for an image guided surgery (IGS) system that is in communication with the integral navigation controls. In some variations, a medical instrument with integrated navigation wheels allows movement of a cursor of the IGS system along the x and y axis by scrolling the wheel, or allows selection, zooming, or other controls by combined clicking and/or scrolling of wheels, and may be sterilized or discarded along with the device. In some other variations, a control overlay may be temporarily attached to the medical instrument to provide additional controls, such as buttons or a pointing stick, and then removed and sterilized or discarded after a procedure. In each variation, inputs may be communicated via wire or wirelessly to an IGS system to provide navigation of images during a surgical procedure.

A fluid flow metal sleeve includes a sleeve main body and an elongation portion, which are of a hollow structure as a whole. The sleeve main body is connected to the elongation portion in a threaded manner, and a terminal end of the sleeve main body is connected to an ultrasound scalpel handle and enables an ultrasound scalpel to pass therethrough. The fluid flow metal sleeve can control the direction of fluid flow during incision with the ultrasound scalpel so as to achieve the lubricating and cooling effects on a scalpel head. In addition, due to the use of a metal structure, a user can extend an original holding part from an outer portion of the ultrasound scalpel handle to an outer wall of the metal sleeve as required. The fluid flow metal sleeve also has an adjustable telescopic function so as to be adapted to different application scenarios, and limits the length of extension of the scalpel head so as to limit the depth during incision to improve the safety of surgery.

Contoured surgical instruments, including contoured forceps gripping surfaces, are presented. The instruments can have a first arm with a contoured surface and a second arm with a contoured surface to provide for rotation in the hand of a user. Instruments including the contoured gripping surfaces have an ergonomic shape, favorable weight distribution, improved tactile response, and a construction suitable for precise grasping and manipulation required in many surgical procedures. The contoured gripping surfaces are applicable to a variety of dental and surgical instruments.

A surgical instrument for stapling tissue includes a body, a shaft assembly, and an anvil. The shaft assembly includes a stapling head assembly and an actuator. The anvil is configured to be selectively coupled to the actuator. The anvil is configured to cooperate with the stapling head assembly to staple tissue. The anvil comprises a head and a shank extending from the head. The shank includes a proximal end, a distal end, a lumen, and an engagement feature. The engagement feature is in communication with the lumen such that the engagement feature is configured to move relative to the axis in response to the rod being directed into the lumen. The engagement feature is configured to selectively couple the shank to the actuator. The proximal end of the engagement feature is radially fixed relative to the axis.

Drill guides and related methods are disclosed herein, e.g., for use in surgical procedures. In some embodiments, a drill guide can include an adjustment mechanism that permits one-handed adjustment of the guide depth and does not require that the drill guide be removed from the patient or that the drill be removed from the drill guide when making an adjustment. The adjustment mechanism can include a trigger that moves first and second detents into and out of engagement with a guide stem to allow step-wise adjustment of the guide depth.

A handle for a surgical instrument, which handle has a carriage designed to move an actuation rod. A second actuation element is arranged adjacent to the first actuation element and is rotatable over the longitudinal axis of the main body. The second actuation element is annular, toward the first actuation element, and carries on its inner circumference a rotationally fixed locking ring. The carriage has a finger which extends, eccentrically with respect to the longitudinal axis of the main body, from a front face of the carriage facing the locking ring. In a locked state, a protuberance on the ring provides an abutment for the carriage. In the release state, the finger is offset with respect to the protuberance, and a range of travel of the carriage is freed.