Abstract: A surgical system may include an elongated arm support and a robotic arm supported on the elongated arm support. The robotic arm may translate along the elongated arm support. A partially enclosed cavity may be defined in the elongated arm support for receiving an electrical cable electrically coupled to the robotic arm so that the first electrical cable is within the cavity and includes a rolling loop that moves in conjunction with movement of the robotic arm.

Abstract: A surgical robotics system can include a column-based mount platform and at least one robotic arm coupled to the mount platform. The robotic arm can include a setup linkage and a distal manipulator linkage that collectively define a remote center of motion. The setup linkage can be adjusted to manipulate a pose of the distal manipulator linkage and a location of the remote center of motion. Further, the distal manipulator linkage can be configured to isolate a degree of freedom of motion of a tool coupled thereto to articulate the tool about the remote center of motion. Optionally, the mount platform can be supported by a column of a surgical bed or system. Further, the setup linkage can be robotic. Furthermore, the distal manipulator linkage can use a hardware-constrained remote center of motion. In some embodiments, the distal manipulator linkage can include a parallelogram linkage.

Abstract: Robotic intervention systems may be used to perform medical procedures on patients using percutaneous instruments. Percutaneous interventional techniques are typically short in duration, requiring quick set-up and tear down to ensure minimal impact to medical workflow or process while maintaining a sterile field. A sterile disposable interface provides an inexpensive sterile barrier between the interventional site and the robotic system.

Abstract: A respiratory device and system, and in particular a respiratory device that is usable with a plurality of removable electronic function components that that can communicate wirelessly with other devices. In one embodiment, a respiratory device comprises a body, at least a portion of the body defining a volume; a mask communications unit (MCU) at least partially located within the volume; at least one electrical function component in communication with the MCU; and a rechargeable power source at least partially located within the volume, the rechargeable power source providing power to each of the at least one electrical function components.

Abstract: An embodiment may involve web page metadata that defines a web page, first sub-page metadata that defines a first sub-page, and second sub-page metadata that defines a second sub-page, wherein the web page metadata includes specification of a viewport, and wherein the viewport is associated with an identifier. One or more processors may be configured to: receive a request for the web page; resolve the web page metadata into web content, wherein resolving the web page metadata includes: (i) determining, based on the identifier, a route associated with the viewport, (ii) determining, based on the route, a set of conditions associated with the viewport, (iii) determining that a particular condition is satisfied, wherein the particular condition is associated with the first sub-page and (iv) placing, based on the particular condition being satisfied, the first sub-page metadata in the viewport; and transmit the web content.

Abstract: A tool driver for a robotic system can include a sensor to allow the surgical robotic system to determine if a tool or a sterile adapter are fully coupled to the tool driver. The tool driver can include a rotating output that can manipulate a tool and translate perpendicular to a surface of a tool driver body. The tool driver can include a drive mechanism to rotate the rotating output.

Abstract: An example operation includes one or more of receiving a request for an application from a vehicle; responsive to the request, pushing a version of the application to the vehicle; installing the application when a mode of the vehicle is set to at least one of a testing mode, a development mode, and a service mode; and performing at least one of testing a functionality of the vehicle by the application, validating the application, and modifying the application.

Abstract: A robotic surgical system can include one or more adjustable arm supports that support one or more robotic arms. The adjustable arm supports and/or robotic arms can be configured to be deployed from low mount positions, for example, from positions below the surface of the table. The robotic arms can include a plurality of joints providing a plurality of degrees of freedom. The joints may be grouped into a proximal shoulder, an elbow, and a distal wrist. The robotic arms can include one or more redundant degrees of freedom. An insertion mechanism, associated with the robotic arm and configured for providing insertion of an instrument along an assertion axis, can be provided at a distal end of the robotic arms.

Abstract: A robotically enabled teleoperated system can include a controller and a robotic tool capable of manipulation by the controller. The controller can include a handle, a gimbal and a positioning platform. The handle can be configured for actuation by an operator to cause a corresponding manipulation of the robotic tool. The gimbal can include a joint and a load cell. The joint can be configured to be manipulated based on an impedance control, such that manipulation of the gimbal causes a corresponding manipulation of the robotic tool based on a displacement of the joint. A portion of the positioning platform can be configured to be manipulated based on an admittance control, such that manipulation of the positioning platform causes a corresponding manipulation of the robotic tool based on a force imparted on the controller and measured by the load cell.

Abstract: A robotically enabled teleoperated system can include a controller and a robotic tool capable of manipulation by the controller. The controller can include a handle, a gimbal and a positioning platform. The handle can be configured for actuation by an operator to cause a corresponding manipulation of the robotic tool. The gimbal can include a joint and a load cell. The joint can be configured to be manipulated based on an impedance control, such that manipulation of the gimbal causes a corresponding manipulation of the robotic tool based on a displacement of the joint. A portion of the positioning platform can be configured to be manipulated based on an admittance control, such that manipulation of the positioning platform causes a corresponding manipulation of the robotic tool based on a force imparted on the controller and measured by the load cell.

Abstract: Systems and methods for detecting contact between a link and an external object are provided. In one aspect, there is provided a robotic system, including a manipulatable link, a rigid shell configured to overlay the manipulatable link, and one or more sensors positioned between the rigid shell and the manipulatable link. The one or more sensors are configured to detect contact between the rigid shell and an external object.

Abstract: Systems and methods for detecting contact between a link and an external object are provided. In one aspect, there is provided a robotic system, including a manipulatable link, a rigid shell configured to overlay the manipulatable link, and one or more sensors positioned between the rigid shell and the manipulatable link. The one or more sensors are configured to detect contact between the rigid shell and an external object.

Abstract: A robotic surgical system can include one or more adjustable arm supports that support one or more robotic arms. The adjustable arm supports can be configured to attach to either a table, a column support of the table, or a base of the table to deploy the adjustable arm supports and robotic arms from a position below the table. In some examples, the adjustable arm supports include at least four degrees of freedom that allow for adjustment of the position of a bar or rail to which the robotic arms are mounted. One of the degrees of freedom can allow the adjustable arm support to be adjusted vertically relative to the table.

Abstract: A robotic surgical system can include one or more adjustable arm supports that support one or more robotic arms. The adjustable arm supports can be configured to attach to either a table, a column support of the table, or a base of the table to deploy the adjustable arm supports and robotic arms from a position below the table. In some examples, the adjustable arm supports include at least four degrees of freedom that allow for adjustment of the position of a bar or rail to which the robotic arms are mounted. One of the degrees of freedom can allow the adjustable arm support to be adjusted vertically relative to the table.

Abstract: A pottery wheel with an improved throwing arm that pushes the clay towards the center of the spinning plate, in an arc shaped motion, defined by four directions of motion, with the throwing arm providing an inward force towards the direction of rotation and towards the axis of rotation, that also allows for micro-adjustments to be easily made, is disclosed. Various tool accessories can then be used to open the pottery and form the pottery. The embodiments of the present invention are suitable for use by children, individuals unskilled in the art of pottery, and individuals lacking fine motor skills due to the assistance provided by the features of present embodiments, including an improved throwing arm removably attached to the housing. Embodiments of the present invention also include numerous attachments designed to work in tandem with the improved pottery wheel and throwing arm assembly.

Abstract: A surgical system may include an elongated arm support and a robotic arm supported on the elongated arm support. The robotic arm may translate along the elongated arm support. A partially enclosed cavity may be defined in the elongated arm support for receiving an electrical cable electrically coupled to the robotic arm so that the first electrical cable is within the cavity and includes a rolling loop that moves in conjunction with movement of the robotic arm.