Abstract: A system includes a console assembly, a trocar assembly operably coupled to the console assembly, a camera assembly operably coupled to the console assembly having a stereoscopic camera assembly, and at least one rotational positional sensor configured to detect rotation of the stereoscopic camera assembly about at least one of a pitch axis or a yaw axis. The console assembly includes a first actuator and a first actuator pulley operable coupled to the first actuator. The trocar assembly includes a trocar having an inner and outer diameter, and a seal sub-assembly comprising at least one seal and the seal sub-assembly operably coupled to the trocar. The camera assembly includes a camera support tube having a distal and a proximal end, the stereoscopic camera operably coupled to the distal end of the support tube and a first and second camera module having a first and second optical axis.

Abstract: A rotating machine includes a housing that defines an inlet for air to enter into the rotating machine and an outlet for the air to exit the rotating machine. The rotating machine can also include a bearing received in the housing and a shaft rotationally supported by the bearing. The shaft defines a rotational axis that extends in a longitudinal direction. The rotating machine also includes a fan attached to the shaft so as to be coaxially aligned with the bearing. The fan defines an airflow path including an intake that receives the air from the inlet of the housing and an exhaust that discharges the air from the intake toward the outlet of the housing. A portion of the airflow path between the intake and the exhaust is in a direction that is not parallel to the rotational axis.

Abstract: A drive assembly of a surgical robotic system is disclosed herein. In some embodiments, the drive assembly includes a first drive unit having a first drive unit face, a second drive unit having a second drive unit face, and a third drive unit having a third drive unit face. Each drive unit may include a plurality of motors configured to rotate a corresponding one of a plurality of drive elements about rotational axes perpendicular to the respective the respective drive unit face. the first drive unit, the second drive unit, and the third drive unit configured to be positioned about the drive assembly common axis with respect to a vertical plane passing through the drive assembly common axis such that an orientation and position of the first drive unit face mirrors those of second drive unit face, and the third drive unit face is bisected by the vertical plane.

Abstract: Provided herein are various improvements to launch vehicle payload systems, such as employed to launch and deploy secondary payloads into orbit. In one example, a system includes a fairing configured to encase a payload within an envelope of a primary fairing of a launch vehicle, and a mount system configured to adapt a mounting port for the payload to a mounting port associated with the launch vehicle. The system also includes a fairing door configured to be commanded open for deployment of the payload after the primary fairing has open.

Abstract: A system includes a console assembly, a trocar assembly operably coupled to the console assembly, a camera assembly operably coupled to the console assembly having a stereoscopic camera assembly, and at least one rotational positional sensor configured to detect rotation of the stereoscopic camera assembly about at least one of a pitch axis or a yaw axis. The console assembly includes a first actuator and a first actuator pulley operable coupled to the first actuator. The trocar assembly includes a trocar having an inner and outer diameter, and a seal sub-assembly comprising at least one seal and the seal sub-assembly operably coupled to the trocar. The camera assembly includes a camera support tube having a distal and a proximal end, the stereoscopic camera operably coupled to the distal end of the support tube and a first and second camera module having a first and second optical axis.

Abstract: A surgical apparatus system for minimally invasive surgery (MIS) which includes a wrist assembly. The wrist assembly includes a first jaw, a first actuation hub, and a cable redirecting hub operably coupled to the first actuation hub, a second jaw, a second actuation hub, a housing for the first and second jaws, a first cable, a second cable, a third cable, rotational position sensors, and a control system. The first and second jaws of the wrist assembly are movably opposed, and the cables are configured such that applying tensions upon them cables produces rotation about a jaw axis. The wrist assembly may further include a hinge-rotary assembly to configured to provide rotation about a pitch axis and/or a roll axis. The wrist assembly may further include a fourth cable configured such that applying tensions upon the fourth cable and the opposing cable produces rotation about a pitch axis.

Abstract: A rotating machine assembly includes a rotating machine that has a cover that defines an outer surface of the rotating machine and a stator disposed within the cover. The stator is stationary with respect to the cover. The rotating machine also includes a shaft rotatably disposed at least partially within the cover so as to define a rotation axis. The shaft Includes a first end that is connectable to an aircraft engine and a second end that is opposite the first end. The rotating machine also includes a rotor attached to the shaft, the rotor being movable with respect to the stator and a power module including at least one MOSFET that periodically reverses an electrical current direction of the rotor. The power module includes the at least one MOSFET Is disposed within the cover.

Abstract: A surgical apparatus system for minimally invasive surgery (MIS) which includes a wrist assembly. The wrist assembly includes a first jaw, a first actuation hub, and a cable redirecting hub operably coupled to the first actuation hub, a second jaw, a second actuation hub, a housing for the first and second jaws, a first cable, a second cable, a third cable, rotational position sensors, and a control system. The first and second jaws of the wrist assembly are movably opposed, and the cables are configured such that applying tensions upon them cables produces rotation about a jaw axis. The wrist assembly may further include a hinge-rotary assembly to configured to provide rotation about a pitch axis and/or a roll axis. The wrist assembly may further include a fourth cable configured such that applying tensions upon the fourth cable and the opposing cable produces rotation about a pitch axis.

Abstract: A system includes a console assembly, a trocar assembly operably coupled to the console assembly, a camera assembly operably coupled to the console assembly having a stereoscopic camera assembly, and at least one rotational positional sensor configured to detect rotation of the stereoscopic camera assembly about at least one of a pitch axis or a yaw axis. The console assembly includes a first actuator and a first actuator pulley operable coupled to the first actuator. The trocar assembly includes a trocar having an inner and outer diameter, and a seal sub-assembly comprising at least one seal and the seal sub-assembly operably coupled to the trocar. The camera assembly includes a camera support tube having a distal and a proximal end, the stereoscopic camera operably coupled to the distal end of the support tube and a first and second camera module having a first and second optical axis.

Abstract: Disclosed herein are methods, devices and systems for performing robotic procedures. The devices may include one or more robotic arms. The one or more robotic arms may comprise one or more joints. A joint may include a magnetic sensing system. The one or more robotic arms may be configured to move an elbow joint independently from an end effector or origin of the robotic arm. A working end of the robotic arm may be configured for insertion through a trocar into a body cavity of a subject and may be operatively coupled to a motor unit by one or more electrical or mechanical components housed in a support tube.

Abstract: Disclosed herein are methods, devices and systems for performing robotic procedures. The devices may include one or more robotic arms. The one or more robotic arms may comprise one or more joints. A joint may include a magnetic sensing system. The one or more robotic arms may be configured to move an elbow joint independently from an end effector or origin of the robotic arm. A working end of the robotic arm may be configured for insertion through a trocar into a body cavity of a subject and may be operatively coupled to a motor unit by one or more electrical or mechanical components housed in a support tube.

Abstract: Provided herein are various improvements to launch vehicle payload systems, such as employed to launch and deploy secondary payloads into orbit. In one example, a system includes a fairing configured to encase a payload within an envelope of a primary fairing of a launch vehicle, and a mount system configured to adapt a mounting port for the payload to a mounting port associated with the launch vehicle. The system also includes a fairing door configured to be commanded open for deployment of the payload after the primary fairing has open.

Abstract: Disclosed herein are methods, devices and systems for performing robotic procedures. The devices may include one or more robotic arms. The one or more robotic arms may comprise one or more joints. A joint may include a magnetic sensing system. The one or more robotic arms may be configured to move an elbow joint independently from an end effector or origin of the robotic arm. A working end of the robotic arm may be configured for insertion through a trocar into a body cavity of a subject and may be operatively coupled to a motor unit by one or more electrical or mechanical components housed in a support tube.

Abstract: A surgical apparatus system for minimally invasive surgery (MIS) which includes a wrist assembly. The wrist assembly includes a first jaw, a first actuation hub, and a cable redirecting hub operably coupled to the first actuation hub, a second jaw, a second actuation hub, a housing for the first and second jaws, a first cable, a second cable, a third cable, rotational position sensors, and a control system. The first and second jaws of the wrist assembly are movably opposed, and the cables are configured such that applying tensions upon them cables produces rotation about a jaw axis. The wrist assembly may further include a hinge-rotary assembly to configured to provide rotation about a pitch axis and/or a roll axis. The wrist assembly may further include a fourth cable configured such that applying tensions upon the fourth cable and the opposing cable produces rotation about a pitch axis.

Abstract: An aspect of the disclosure includes a method, a system and a computer program product for scheduling a pickup of a passenger with an autonomous vehicle at a facility with a plurality of egress locations. The method includes receiving a pickup request for a passenger from a facility having a plurality of egress locations. A first pickup time is determined for each of the plurality of egress locations. A first egress location is selected from the plurality of egress locations based at least in part on the first pickup time at the first egress location, a position of the passenger and a queue time. A first signal is transmitted that includes a proposed pickup time and location to the passenger. An autonomous vehicle is moved from a first location to the first egress location. The passenger is picked up at the first egress location.

Abstract: A system includes a console assembly, a trocar assembly operably coupled to the console assembly, a camera assembly operably coupled to the console assembly having a stereoscopic camera assembly, and at least one rotational positional sensor configured to detect rotation of the stereoscopic camera assembly about at least one of a pitch axis or a yaw axis. The console assembly includes a first actuator and a first actuator pulley operable coupled to the first actuator. The trocar assembly includes a trocar having an inner and outer diameter, and a seal sub-assembly comprising at least one seal and the seal sub-assembly operably coupled to the trocar. The camera assembly includes a camera support tube having a distal and a proximal end, the stereoscopic camera operably coupled to the distal end of the support tube and a first and second camera module having a first and second optical axis.

Abstract: An aspect of the disclosure includes a method, a system and a computer program product for scheduling a pickup of a passenger with an autonomous vehicle at a facility with a plurality of egress locations. The method includes receiving a pickup request for a passenger from a facility having a plurality of egress locations. A first pickup time is determined for each of the plurality of egress locations. A first egress location is selected from the plurality of egress locations based at least in part on the first pickup time at the first egress location, a position of the passenger and a queue time. A first signal is transmitted that includes a proposed pickup time and location to the passenger. An autonomous vehicle is moved from a first location to the first egress location. The passenger is picked up at the first egress location.

Abstract: An aspect of the disclosure includes a method, a system and a computer program product for scheduling a pickup of a passenger with an autonomous vehicle at a facility with a plurality of egress locations. The method includes receiving a pickup request for a passenger from a facility having a plurality of egress locations. A first pickup time is determined for each of the plurality of egress locations. A first egress location is selected from the plurality of egress locations based at least in part on the first pickup time at the first egress location, a position of the passenger and a queue time. A first signal is transmitted that includes a proposed pickup time and location to the passenger. An autonomous vehicle is moved from a first location to the first egress location. The passenger is picked up at the first egress location.

Abstract: An aspect of the disclosure includes a method, a system and a computer program product for scheduling a pickup of a passenger with an autonomous vehicle at a facility with a plurality of egress locations. The method includes receiving a pickup request for a passenger from a facility having a plurality of egress locations. A first pickup time is determined for each of the plurality of egress locations. A first egress location is selected from the plurality of egress locations based at least in part on the first pickup time at the first egress location, a position of the passenger and a queue time. A first signal is transmitted that includes a proposed pickup time and location to the passenger. An autonomous vehicle is moved from a first location to the first egress location. The passenger is picked up at the first egress location.

Abstract: Herein are provided methods for reducing or eliminating cancer in a patient in need of cancer treatment, by providing cholesterol deprivation therapy (CDT) in conjunction with antibodies directed against cholesterol-deprived tumor cells. Further provided are methods of enhancing the efficacy of other cancer treatments, by administering CDT and antibodies directed against cholesterol-deprived tumor cells, in combination with additional anti-cancer therapies.