Abstract: A method for photographing at least a portion of a subject is disclosed, the method comprising: generating a photography scheme, the photography scheme comprising a set of photography control points, each of the photography control points comprising: a location of the platform relative to the subject; an orientation of the platform relative to the subject; and one or more photography parameters; determining a location and an orientation of the platform carrying the imaging system; navigating the platform to each of the photography control points and operating the imaging system to capture an image of the subject at each of the photography control points according to the associated photography parameters. A method of administering photodynamic therapy to a subject is also disclosed.

Abstract: An actuator for a robotic joint includes an actuator housing. A motor is disposed within the actuator housing. The motor includes a stator that is rotationally fixed relative to the actuator housing and a rotor that is rotatable relative to the stator and actuator housing. An output shaft is coupled to a rotational motion of the rotor by a gear reducer. A first rotary encoder is coupled to the rotor to measure one or more parameters of the rotational motion of the rotor. A second rotary encoder is coupled to the output shaft to measure one or more parameters of a rotational motion of the output shaft.

Abstract: A method for photographing at least a portion of a subject is disclosed, the method comprising: generating a photography scheme, the photography scheme comprising a set of photography control points, each of the photography control points comprising: a location of the platform relative to the subject; an orientation of the platform relative to the subject; and one or more photography parameters; determining a location and an orientation of the platform carrying the imaging system; navigating the platform to each of the photography control points and operating the imaging system to capture an image of the subject at each of the photography control points according to the associated photography parameters. A method of administering photodynamic therapy to a subject is also disclosed.

Abstract: A robotic wrist includes a wrist frame, a first actuator having a first actuator output, and a second actuator having a second actuator output. A first mechanical linkage includes a first input coupled to the first actuator output and a first output coupled to the wrist frame. A second mechanical linkage includes a second input coupled to the second actuator output and a second output coupled to the wrist frame. A rotational position of the first output about a first axis is responsive to a position of the first actuator output. A rotational position of the second output about a second axis that is transverse to the first axis is responsive to a different between a position of the first actuator output and a position of the second actuator output.

Abstract: A robotic wrist for a robotic arm includes a hybrid differential with a first cam, a second cam, a first differential input, and a second differential input. The first cam and the second cam are disposed about first and second pivots oriented along a first rotational axis. An abduction output is coupled to the second cam and has a second rotational axis transverse to the first rotational axis. The robotic wrist includes a first actuator, a second actuator, a first link coupling an output of the first actuator to the first differential input, and a second link coupling an output of the second actuator to the second differential input. Synchronous motion of the actuators causes flexion of the abduction output about the first rotation axis, and asynchronous motion of the actuators causes abduction motion of the abduction output about the second rotation axis.

Abstract: A robotic elbow has a first actuator having a rotary output and a first interface for coupling the elbow to a first robotic arm segment. A flexion frame rotatably mounts to the first actuator. A first link is coupled at one end to the output of the first actuator and at another end to the flexion frame. A second link is coupled at one end to the output of the first actuator and at another end to the flexion frame. The first link and the second link are coupled to the rotary output in a selected rotary phase displacement. A second actuator is mounted in the flexion frame, the second actuator has an output and a second interface for coupling the robotic elbow to a second robotic arm segment.

Abstract: A mobile robot system includes a mobile base and a humanoid robot. The mobile base includes a chassis having a platform. The mobile base includes a propulsion system that is coupled to the chassis and operable to propel the chassis within an environment. The humanoid robot includes a torso and two robotic legs. The humanoid robot has a first locomotion mode in which the humanoid robot is supported on the platform and travel of the humanoid robot within the environment is by movement of the mobile base within the environment. The humanoid robot has a second locomotion mode in which the humanoid robot is not supported on the platform and travel of the humanoid robot within the environment is by movement of the two robotic legs.

Abstract: A mobile robot system has a robot body attached to a mobile base. The robot body has a torso, a first robotic arm mechanically coupled to the torso, a first robotic leg, and a second robotic leg. The first robotic leg and the second robotic leg are controllably actuatable to enable the robot body to execute bipedal walking. The mobile base has a platform to receive a lower end of the first robotic leg and a lower end of the second robotic leg, at least one wheel and a controllable steering mechanism to enable the mobile base to travel both while the robot body is positioned on the platform and while the robot body is not positioned on the platform. The mobile base also has a plurality of components, at least one of which operable to support at least one function of the robot body.

Abstract: An actuator for a robotic joint includes an actuator housing. A motor is disposed within the actuator housing. The motor includes a stator that is rotationally fixed relative to the actuator housing and a rotor that is rotatable relative to the stator and actuator housing. An output shaft is coupled to a rotational motion of the rotor by a gear reducer. A first rotary encoder is coupled to the rotor to measure one or more parameters of the rotational motion of the rotor. A second rotary encoder is coupled to the output shaft to measure one or more parameters of a rotational motion of the output shaft.

Abstract: A robotic torso for a humanoid robot includes a first torso member having an axial axis aligned with a reference axis and a second torso member having at least one mounting portion for at least one humanoid component. The robotic torso includes a series of actuators arranged in a column between the first torso member and the second torso member and coupling the first torso member to the second torso member. Each of the actuators has a rotatable member defining a rotational axis. The rotational axes of each adjacent pair of actuators in the series of actuators are orthogonal to each other.

Abstract: A method for photographing at least a portion of a subject is disclosed, the method comprising: generating a photography scheme, the photography scheme comprising a set of photography control points, each of the photography control points comprising: a location of the platform relative to the subject; an orientation of the platform relative to the subject; and one or more photography parameters; determining a location and an orientation of the platform carrying the imaging system; navigating the platform to each of the photography control points and operating the imaging system to capture an image of the subject at each of the photography control points according to the associated photography parameters. A method of administering photodynamic therapy to a subject is also disclosed.