Tool force information is provided to a user of a telesurgical system using an alternative modality other than force reflection on a master manipulator, such as providing the information on user-visible, user-audible, or haptic buzz or viscosity indicators, so as to allow expanded processing, including amplification, of the information, while not significantly affecting the stability of the telesurgical system or any closed-loop control systems in the telesurgical system.

A positioning device for a robot includes an end effector, in particular a surgical end effector, which has a base and a flange to which the robot can be secured, wherein the flange is connected to the base by a kinematic system which has at least two joints. The flange can be adjusted from a first position relative to the base, in particular at least substantially on a circular path or straight line, to a second position by the kinematic system, the second position being spaced apart from the first position. An orientation means reorients the flange from a first orientation in the first position into a second orientation in the second position, the second orientation being rotated about a reference axis by at least 75 degrees, in particular relative to the first orientation, as a result of an adjustment from a first position into a second position.

A remote center manipulator for use in minimally invasive robotic surgery includes a base link held stationary relative to a patient, an instrument holder, and a linkage coupling the instrument holder to the base link. First and second links of the linkage are coupled to limit motion of the second link to rotation about a first axis intersecting a remote center of manipulation. A parallelogram linkage portion of the linkage pitches the instrument holder around a second axis that intersects the remote center of manipulation. The second axis is angularly offset from the first axis by a non-zero angle other than 90 degrees.

A surgical stapling assembly is disclosed comprising a shaft, an end effector attached to the shaft, an electric motor, a plurality of sensors positioned within the end effector to measure an electrical parameter, and a control circuit. The end effector comprises a first jaw, a second jaw movable relative to the first jaw, and a firing driver to deploy staples and cut tissue. The electric motor is to actuate the firing driver. The control circuit is to actuate the electric motor to deploy staples from a staple cartridge during a firing stroke, monitor the electrical parameter at a first location of the firing stroke, and monitor the electrical parameter at a second location of the firing stroke, wherein the first location and the second location are different.

Systems and methods are provided for autonomous robotic surgery which is preferably integrated with autonomous-assisted intraoperative real-time single modality and/or multi-modality fusion imaging/electrophysiological diagnostics. The robotic surgery systems and methods can be integrated with autonomous-assisted intraoperative body/limb positioning, and integrated with autonomous-assisted land and unmanned aerial vehicular patient transportation.

The object of the invention is a foot portion (2a) of a medical device, such as gynecological examination bed or a birthing bed. The aim of the invention is to provide a method for moving the foot portion into the required position quickly, effectively and not limiting the actions of medical personnel. An advantage of the present invention is moving the foot portion under the rest area (1) without undesirable protrusion. Movement of the foot portion (2a) under the rest area (1) is performed around a column (5), which is attached under the side edge of a seating portion (3). Such arrangement of the column leaves free space under the rest area (1) for moving the foot portion (2a). Movement of the foot portion (2a) is performed with minimum protrusion over the borderline of the rest area (1) by means of a parallelogram. The foot portion according to the present invention may be also positioned horizontally and vertically, according to the patient's need during the procedure. For each movement, there are available separate moving mechanisms and latching mechanisms.

Disclosed is a mechanical teleoperated device comprising i) a handle (30) placed in a proximal part of the device, having a plurality of handle links interconnected by respective handle joints, ii) an end effector (31) placed in a distal part of the device, having a plurality of end-effector links interconnected by respective end-effector joints, iii) a transmission system arranged to kinematically connect the end effector to the handle such that movements of the end effector correspond to movements of the handle, comprising at least one arrangement of a plurality of rotatable elements (41a-d) coaxially mounted together about an axis and arranged to rotate independently from each other, b) first transmission means comprising driving elements (62a-d) which are arranged to actuate in rotation of the plurality of rotatable elements (41a-d) based upon movements of the handle, c) second transmission means comprising driven elements (63a-d) which are arranged to be driven by rotation of the plurality of rotatable elements resulting in movement of the end effector links, wherein the transmission system is configured for removably coupling together the first and second transmission means wherein each driven element is removably coupled to one corresponding rotatable element.

Method and system allowing more accurate detection and identification of unwanted arcing include novel processing of signal voltage representing recovered power-line current. In one implementation, arc-faults are detected based on numerical analysis where individual cycles of line voltage and current are observed and data collected during each cycle is processed to estimate likelihood of presence of arc-event within each individual cycle based on pre-defined number of arc-events occurring within pre-defined number of contiguous cycles. In another implementation, fast transient current spikes detection can be done by: computing difference values between consecutive line-current samples collected over a cycle, average of differences, and peak-to-peak value of line-current; comparing each difference value to average of difference; comparing each difference value to peak-to-peak value; and, based on calculation of composite of two comparisons, using thresholds to determine if arcing is present within processed cycle.

An annuloplasty stitching device (1) is disclosed for stitching at a stitch site in a patient. The stitching device comprises a support structure (2) comprising, an elongate center support (21) extending along an axial direction (27) between a proximal end and a distal end, a stitching arrangement (3) comprising, at least one elongate linkage section (31) being movably attached at a support end (25) of the linkage section to the center support, and at least one stitching member (32) arranged at a stitch end (26) of the linkage section and being movable along said axial direction by a pivoting action of the linkage section.

A stand includes first to fourth links, first to fourth joints, a front link, first to fifth extension links, and first to fourth extension joints. The first to fourth links are arranged in a parallelogram configuration, wherein the first and third links are arranged on opposite sides and the second and fourth joints are arranged in a diagonal direction. The front link extends from the first link. The first extension link is rotatably connected to the second joint. The second extension link is rotatably connected to the first extension joint. The third extension link is rotatably connected to the second extension joint. The fourth extension link is arranged between the third extension joint and the fourth extension joint. The fifth extension link is arranged between the first joint and the second extension joint. The first, fourth, and fifth extension links are in parallel with one another.