Abstract: Anterior spinal implant devices for reducing spinal malalignment and associated systems and methods are disclosed herein. A spinal implant system configured in accordance with embodiments of the present technology can include, for example, a first vertebral support implanted at an anterior region of a first vertebra of a patient, a second vertebral support implanted at an anterior region of a second vertebra inferior to the first vertebra, and an alignment system configured to be releasably coupled to the first and second vertebral supports. The first and second vertebral supports can extend into and interlock with each other within an interbody space between the first and second vertebrae when the first and second vertebral supports are aligned. The alignment system is configured to reduce angular, vertical, and linear malalignment of the first and second vertebrae relative to each other.

Abstract: Anterior spinal implant devices for reducing spinal malalignment and associated systems and methods are disclosed herein. A spinal implant system configured in accordance with embodiments of the present technology can include, for example, a first vertebral support implanted at an anterior region of a first vertebra of a patient, a second vertebral support implanted at an anterior region of a second vertebra inferior to the first vertebra, and an alignment system configured to be releasably coupled to the first and second vertebral supports. The first and second vertebral supports can extend into and interlock with each other within an interbody space between the first and second vertebrae when the first and second vertebral supports are aligned. The alignment system is configured to reduce angular, vertical, and linear malalignment of the first and second vertebrae relative to each other.

Abstract: Anterior spinal implant devices for reducing spinal malalignment and associated systems and methods are disclosed herein. A spinal implant system configured in accordance with embodiments of the present technology can include, for example, a first vertebral support implanted at an anterior region of a first vertebra of a patient, a second vertebral support implanted at an anterior region of a second vertebra inferior to the first vertebra, and an alignment system configured to be releasably coupled to the first and second vertebral supports. The first and second vertebral supports can extend into and interlock with each other within an interbody space between the first and second vertebrae when the first and second vertebral supports are aligned. The alignment system is configured to reduce angular, vertical, and linear malalignment of the first and second vertebrae relative to each other.

Abstract: Anterior spinal implant devices for reducing spinal malalignment and associated systems and methods are disclosed herein. A spinal implant system configured in accordance with embodiments of the present technology can include, for example, a first vertebral support implanted at an anterior region of a first vertebra of a patient, a second vertebral support implanted at an anterior region of a second vertebra inferior to the first vertebra, and an alignment system configured to be releasably coupled to the first and second vertebral supports. The first and second vertebral supports can extend into and interlock with each other within an interbody space between the first and second vertebrae when the first and second vertebral supports are aligned. The alignment system is configured to reduce angular, vertical, and linear malalignment of the first and second vertebrae relative to each other.

Abstract: Anterior spinal implant devices for reducing spinal malalignment and associated systems and methods are disclosed herein. A spinal implant system configured in accordance with embodiments of the present technology can include, for example, a first vertebral support implanted at an anterior region of a first vertebra of a patient, a second vertebral support implanted at an anterior region of a second vertebra inferior to the first vertebra, and an alignment system configured to be releasably coupled to the first and second vertebral supports. The first and second vertebral supports can extend into and interlock with each other within an interbody space between the first and second vertebrae when the first and second vertebral supports are aligned. The alignment system is configured to reduce angular, vertical, and linear malalignment of the first and second vertebrae relative to each other.

Abstract: A robotic system for minimally invasive surgery includes a surgical tool and a docking station for restraining movement of the surgical tool to four degrees of freedom about an incision point in a patient. The docking station includes a plurality of actuators for moving the surgical tool relative to the incision in the patient, and a controller operably connected to the actuators so that movement of the surgical tool may be collaboratively controllable both actively by the controller and manually by a surgeon. Desirably, the surgical tool and the docking station are releasably attachable together. Also disclosed is a computer implemented method employing a first docking station attachable to a suturing surgical tool and a second docking station attachable to gripping surgical tool for autonomously tying a knot in suturing.