Abstract: Example embodiments relate to surgical systems. The surgical system includes a port assembly and instrument arm assembly. The port assembly includes a central access channel, anchoring portions, and anchor channels. The instrument arm assembly includes a shoulder section, first arm section, shoulder joint portion, elbow joint portion, second arm section, wrist section, end instrument, and instrument arm anchor segment. The instrument arm anchor segment includes an anchor body and instrument arm anchor portion. The anchor body is secured to the shoulder section. The anchor body is inserted through one of the anchor channels. The instrument arm anchor portion secures to one of the anchoring portions when the anchor body is housed in one of the anchor channels. The central access channel remains as an open access channel through the port assembly when the instrument arm anchor portion is anchored to one of the anchoring portions.

Abstract: Example embodiments relate to devices, systems, and methods for performing a surgical action. The device may comprise a port assembly, a camera arm assembly, and an instrument arm assembly. The port assembly comprises an access port and a plurality of anchoring portions. The camera arm assembly comprises at least one camera at a distal end and is configurable to insert into the access port and attach to one of the anchoring portions. The instrument arm assembly comprises a serial arrangement including a plurality of arm segments, a plurality of joint portions, and at least one end instrument attached to one of the arm segments by an instrument joint portion at a distal end. Each joint portion is configurable to provide an attached arm segment with at least one degree of freedom. Furthermore, the instrument joint portion is configurable to provide the end instrument with at least one degree of freedom.

Abstract: One example embodiment of the present invention is a control system for an actuator that is controlled by a pulse width modulation (PWM) signal. The control system includes at least two controllers that are connected to the actuator. Each of the controller sends an independent sequence of PWM signal to the actuator. The actuator is controlled by a combination of the PWM signals from all the controllers together. The controllers are synchronized by a clock signal that provides a sequence of periodic clock interval and the PWM signal from each controller occupies a separate and non-overlapping clock interval from the PWM signal of other controllers.

Abstract: Example embodiments relate to a system having a port assembly and instrument arm assembly. The port assembly includes an outer body, inner body, and internal channels. The outer body includes a first access port, first and second ends, and anchoring portions. The inner body may be positionable in the first access port. The internal channels may be formed around an exterior of the inner body when the inner body is positioned in the first access port. The instrument arm assembly may include one or more joint portions, arm segments, an end instrument, and an instrument arm anchor portion. One of the internal channels may be configurable to house at least a portion of the instrument arm anchor portion. The port assembly may be configurable to allow an insertion of the instrument arm assembly through the first access port of the outer body.

Abstract: One example embodiment of the present invention is a control system for an actuator that is controlled by a pulse width modulation (PWM) signal. The control system includes at least two controllers that are connected to the actuator. Each of the controller sends an independent sequence of PWM signal to the actuator. The actuator is controlled by a combination of the PWM signals from all the controllers together. The controllers are synchronized by a clock signal that provides a sequence of periodic clock interval and the PWM signal from each controller occupies a separate and non-overlapping clock interval from the PWM signal of other controllers.

Abstract: Example embodiments relate to a system having a port assembly and instrument arm assembly. The port assembly includes an outer body, inner body, and internal channels. The outer body includes a first access port, first and second ends, and anchoring portions. The inner body may be positionable in the first access port. The internal channels may be formed around an exterior of the inner body when the inner body is positioned in the first access port. The instrument arm assembly may include one or more joint portions, arm segments, an end instrument, and an instrument arm anchor portion. One of the internal channels may be configurable to house at least a portion of the instrument arm anchor portion. The port assembly may be configurable to allow an insertion of the instrument arm assembly through the first access port of the outer body.

Abstract: A robotic actuator includes an internal anchor and an instrument. The internal anchor is adapted to be inserted into a body via an entrance port, positioned inside the body, and magnetically coupled with an external anchor positioned outside the body. The instrument is adapted to be inserted into the body via the entrance port and secured to the internal anchor. The instrument includes an end-effector having multiple degrees of movement via multiple axes, and a plurality of actuators that provide the multiple degrees of movement.

Abstract: Example embodiments relate to a device comprising a port assembly, instrument arm assembly, and camera arm assembly. The port assembly includes an outer and inner body. The outer body includes a first access port, first end, second end, and anchoring portions. The inner body is positionable in the first access port to form a second access port. The instrument arm assembly is configurable in a serial arrangement of arm segments, joint portions, and end instrument. The instrument arm assembly is configurable to attach to an anchoring portion. The camera arm assembly includes a camera, and configurable to attach to an anchoring portion. The port assembly is configurable to provide at least one degree of freedom, and configurable to allow insertion of the instrument arm assembly and camera arm assembly into an abdominal cavity. The port assembly is configurable to allow insertion of instruments into the abdominal cavity.

Abstract: A surgical system includes an external anchor, an internal anchor and an instrument. The external anchor is adapted to be positioned outside a body. The internal anchor is adapted to be inserted into the body via a single entrance port, positioned inside the body and magnetically coupled with the external anchor. The instrument is adapted to be inserted into the body via the single entrance port and secured to the internal anchor. The instrument includes an end-effector that has multiple degrees of movement via multiple axes.

Abstract: Example embodiments relate to a device comprising a port assembly, instrument arm assembly, and camera arm assembly. The port assembly includes an outer and inner body. The outer body includes a first access port, first end, second end, and anchoring portions. The inner body is positionable in the first access port to form a second access port. The instrument arm assembly is configurable in a serial arrangement of arm segments, joint portions, and end instrument. The instrument arm assembly is configurable to attach to an anchoring portion. The camera arm assembly includes a camera, and configurable to attach to an anchoring portion. The port assembly is configurable to provide at least one degree of freedom, and configurable to allow insertion of the instrument arm assembly and camera arm assembly into an abdominal cavity. The port assembly is configurable to allow insertion of instruments into the abdominal cavity.

Abstract: Example embodiments relate to devices, systems, and methods for performing a surgical action. The device may comprise a port assembly, a camera arm assembly, and an instrument arm assembly. The port assembly comprises an access port and a plurality of anchoring portions. The camera arm assembly comprises at least one camera at a distal end and is configurable to insert into the access port and attach to one of the anchoring portions. The instrument arm assembly comprises a serial arrangement including a plurality of arm segments, a plurality of joint portions, and at least one end instrument attached to one of the arm segments by an instrument joint portion at a distal end. Each joint portion is configurable to provide an attached arm segment with at least one degree of freedom. Furthermore, the instrument joint portion is configurable to provide the end instrument with at least one degree of freedom.

Abstract: A surgical system includes a manipulator, an implantable actuator and a controller. The manipulator includes a plurality of integrated sensor/actuators. The sensors of the sensor/actuators are adapted to detect movement about a plurality of axes of movement. The implantable actuator includes a plurality of joints providing a plurality of axes of movement. The controller is configured to receive information from the plurality of sensor/actuators that indicates movement of the manipulator about the plurality of axes and to cause the joints of the actuator to move along corresponding axes of movement. Each sensor/actuator of the manipulator detects movement about an axis of movement corresponding to a similar one of the joints of the actuator.

Abstract: A surgical system includes an external anchor, an internal anchor and an instrument. The external anchor is adapted to be positioned outside a body. The internal anchor is adapted to be inserted into the body via a single entrance port, positioned inside the body and magnetically coupled with the external anchor. The instrument is adapted to be inserted into the body via the single entrance port and secured to the internal anchor. The instrument includes an end-effector that has multiple degrees of movement via multiple axes.

Abstract: A surgical system includes a manipulator, an implantable actuator and a controller. The manipulator includes a plurality of integrated sensor/actuators. The sensors of the sensor/actuators are adapted to detect movement about a plurality of axes of movement. The implantable actuator includes a plurality of joints providing a plurality of axes of movement. The controller is configured to receive information from the plurality of sensor/actuators that indicates movement of the manipulator about the plurality of axes and to cause the joints of the actuator to move along corresponding axes of movement. Each sensor/actuator of the manipulator detects movement about an axis of movement corresponding to a similar one of the joints of the actuator.

Abstract: A surgical system includes an external anchor, an internal anchor and an instrument. The external anchor is adapted to be positioned outside a body. The internal anchor is adapted to be inserted into the body via a single entrance port, positioned inside the body and magnetically coupled with the external anchor. The instrument is adapted to be inserted into the body via the single entrance port and secured to the internal anchor. The instrument includes an end-effector that has multiple degrees of movement via multiple axes.

Abstract: A surgical system includes an external anchor, an internal anchor and an instrument. The external anchor is adapted to be positioned outside a body. The internal anchor is adapted to be inserted into the body via a single entrance port, positioned inside the body and magnetically coupled with the external anchor. The instrument is adapted to be inserted into the body via the single entrance port and secured to the internal anchor. The instrument includes an end-effector that has multiple degrees of movement via multiple axes.

Abstract: A robotic actuator includes an internal anchor and an instrument. The internal anchor is adapted to be inserted into a body via an entrance port, positioned inside the body, and magnetically coupled with an external anchor positioned outside the body. The instrument is adapted to be inserted into the body via the entrance port and secured to the internal anchor. The instrument includes an end-effector having multiple degrees of movement via multiple axes, and a plurality of actuators that provide the multiple degrees of movement.

Abstract: A chipless microwave identification tag (200) comprising: a dielectric substrate (210); and a plurality of antenna elements (220) made from a conductive material and disposed on at least one surface (205, 255) of the dielectric substrate (210); wherein when the tag (200) is excited by an incident microwave signal (131), a reflected wave (141) to identify the tag (200) is generated with a number of specific frequencies altered by microwave resonation of the antenna elements (220).

Abstract: A chipless microwave identification tag (200) comprising: a dielectric substrate (210); and a plurality of antenna elements (220) made from a conductive material and disposed on at least one surface (205, 255) of the dielectric substrate (210); wherein when the tag (200) is excited by an incident microwave signal (131), a reflected wave (141) to identify the tag (200) is generated with a number of specific frequencies altered by microwave resonation of the antenna elements (220).

Abstract: A vertical micro-injection machine includes a plasticizing unit, in which a feeding channel is provided and a screw or a plunger for transporting the molten material is provided in the feeding channel; an injection unit adapted to receive a metered amount of molten material from the plasticizing unit; an injection mold adapted to receive the metered amount of molten material from the injection unit; at least two thrust cylinders adapted to close the injection mold before injection and open the injection mold after injected parts solidified; and the injection unit includes an injection cylinder, the injection cylinder is connected with the feeding channel of the plasticizing unit, and a vertically reciprocating plunger is provided in the injection cylinder, which can expel air above the molten material in the injection cylinder by its upward advancement and then push the molten material into the injection mold.