Mako Surgical Corporation

Benny Hagag

Hyosig Kang

Alon Mozes

Daniel Odermatt

Brian D Schmitz

Rony Abovitz

Robert Van Vorhis

Chris Lightcap

Hyosig Kank

A surgical system includes a robotic arm, a straight end effector configured to be coupled to the robotic arm, an offset end effector configured to be coupled to the robotic arm, and

Surgical system for positioning prosthetic component and/or for constraining movement of surgical tool

An end effector for a computer-assisted surgical system includes a mount configured to be coupled to an arm and a housing coupled to the mount and configured to interchangeably support a first operating member and a second operating member. When the housing supports the first operating member, the housing is configured to prevent translation of the first operating member relative to the mount. When the housing supports the second operating member, the housing is configured to allow translation of the second operating member relative to the mount along a first axis.

A method for computer-assisted orthopedic feedback of at least one surgical tool relative a pre-operative plan, wherein the surgical tool is moveable relative to an anatomy of a patient during surgery, including providing the pre-operative plan including a planned position and orientation of an implant relative to a virtual model of the anatomy. Further including obtaining a position of the patient structure and at least one surgical tool using a navigation system, and registering the anatomy to the model of the anatomy. Further including tracking a current position and orientation of the at least one surgical tool and the anatomy of the patient using the navigation system, and providing feedback of the current position and orientation of the at least one surgical tool relative to the planned position and orientation of the implant based on the tracked current position and orientation of the at least one surgical tool.

A surgical system for positioning a prosthetic component includes a robotic arm and a surgical tool having an end effector configured to be coupled to the robotic arm. The system further includes a controller programmed to generate control signals, based on a planned pose of the prosthetic component, that cause the robotic arm to allow movement of the surgical tool in at least one degree of freedom and to constrain movement of the surgical tool in other degrees of freedom, wherein the controller is programmed to generate control signals that cause the robotic arm to maintain the constraint as the prosthetic component is implanted on the anatomy.

A surgical system for positioning a prosthetic component includes a surgical tool and a force system configured to provide a force to the surgical tool. The system further includes a controller programmed to: compare an actual pose of a prosthetic component engaged by the surgical tool and a target pose of the prosthetic component, and generate control signals that cause the force system to allow movement of the surgical tool within a range of movement and to provide a force to constrain movement of the surgical tool beyond the range of movement. The force resists movement of the surgical tool that would cause substantial deviation between an aspect of the actual pose of the prosthetic component and a corresponding aspect of the target pose. The controller is programmed to generate control signals that cause the force system to maintain the force as the prosthetic component is implanted on the anatomy.

A surgical system includes a surgical tool configured to be coupled to a cutting element, a force system configured to provide at least some force to the surgical tool, and a controller programmed to generate control signals. The control signals cause the force system to provide a first constraint on a user's manual movement of the surgical tool when the cutting element is a first cutting element and provide a second constraint, different from the first constraint, on a user's manual movement of the surgical tool when the cutting element is a second cutting element.

A fiber optic tracking system for tracking substantially rigid object(s) is described. The fiber optic tracking system includes a light source, an optical fiber having a sensing component configured to modify optical signals from the light source, the optical fiber being configured to attach to the substantially rigid object, a detection unit arranged to receive the modified optical signals from the sensing component, and a calculation unit configured to determine a pose of the substantially rigid object in six degrees of freedom based on the modified optical signals.

Fiber optic tracking system and method for tracking a substantially rigid object

A surgical system for positioning a prosthetic component on an anatomy of a patient includes a surgical tool configured to engage the prosthetic component, a force system configured to provide at least some force to the surgical tool, and a controller programmed to compare a target pose of the prosthetic component and an actual pose of the prosthetic component engaged by the surgical tool and generate control signals that cause the force system to allow movement of the surgical tool within a range of movement and provide haptic feedback to constrain a user's ability to manually move the surgical tool beyond the range of movement. The haptic feedback resists movement of the surgical tool by the user that would cause substantial deviation between at least one aspect of the actual pose of the prosthetic component and a corresponding aspect of the target pose of the prosthetic component. The controller is programmed to generate control signals that cause the force system to maintain the haptic feedback as the user implants the prosthetic component on the anatomy.

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Plantation, FL, United States of America

Benny Hagag