Abstract: Various operator supported camera positioning systems are disclosed. The camera positioning systems can allow translational and rotational movement of different camera types on a camera mount. An operator interface, such as a handle bar or elongated beam, can operatively support the camera mount through a series of rotational linkages, allowing for relative rotation of the camera mount about one, two or three axes. The rotation about some or all of these axes can be controlled by drives, and control signals for these drives can be generated by one or more inertial transducers to stabilize the surface mount and associated camera orientation and pointing by reducing deviations from the inertially fixed orientation of the camera mount in response to rotational movements of the system about the one or more controlled axes of rotation.

Abstract: Various operator supported camera positioning systems are disclosed. The camera positioning systems can allow translational and rotational movement of different camera types on a camera mount. An operator interface, such as a handle bar or elongated beam, can operatively support the camera mount through a series of rotational linkages, allowing for relative rotation of the camera mount about one, two or three axes. The rotation about some or all of these axes can be controlled by drives, and control signals for these drives can be generated by one or more inertial transducers to stabilize the surface mount and associated camera orientation and pointing by reducing deviations from the inertially fixed orientation of the camera mount in response to rotational movements of the system about the one or more controlled axes of rotation.

Abstract: Various operator supported camera positioning systems are disclosed. The camera positioning systems can allow translational and rotational movement of different camera types on a camera mount. An operator interface, such as a handle bar or elongated beam, can operatively support the camera mount through a series of rotational linkages, allowing for relative rotation of the camera mount about one, two or three axes. The rotation about some or all of these axes can be controlled by drives, and control signals for these drives can be generated by one or more inertial transducers to stabilize the surface mount and associated camera orientation and pointing by reducing deviations from the inertially fixed orientation of the camera mount in response to rotational movements of the system about the one or more controlled axes of rotation.

Abstract: Various operator supported camera positioning systems are disclosed. The camera positioning systems can allow translational and rotational movement of different camera types on a camera mount. An operator interface, such as a handle bar or elongated beam, can operatively support the camera mount through a series of rotational linkages, allowing for relative rotation of the camera mount about one, two or three axes. The rotation about some or all of these axes can be controlled by drives, and control signals for these drives can be generated by one or more inertial transducers to stabilize the surface mount and associated camera orientation and pointing by reducing deviations from the inertially fixed orientation of the camera mount in response to rotational movements of the system about the one or more controlled axes of rotation.

Abstract: A remote camera positioning and control system is disclosed that permits a sole operator to use and support a camera out of arm's reach. The system can include a handle module that incorporates, for example, an axially and rotationally moveable grip and a proximal handle grip ring and control cage for surrounding a camera control, such as a joystick.

Abstract: A remote camera positioning and control system is disclosed that permits a sole operator to use and support a camera out of arm's reach. Various features of such a remote camera positioning and control system are disclosed. The positioner can include one or more beam modules having cross-sectional flexural rigidity that varies along the length of the beam module(s) by use, for example, of stiffening longerons, anchoring braces and relatively low density stabilizing webs. The camera can be mounted to the beam module by a front end assembly that is constructed to place the center of mass of the camera and the front end assembly along the neutral axis of the beam module over as great a range of motion as possible.

Abstract: A remote camera positioning and control system is disclosed that permits a sole operator to use and support a camera out of arm's reach. Various features of such a remote camera positioning and control system are disclosed. The positioner can include one or more beam modules having cross-sectional flexural rigidity that varies along the length of the beam module(s) by use, for example, of stiffening longerons, anchoring braces and relatively low density stabilizing webs.

Abstract: A remote camera positioning and control system is disclosed that permits a sole operator to use and support a camera out of arm's reach without external structural or personnel support. Various features of such a remote camera positioning and control system are disclosed. The positioner can include one or more beam modules having cross-sectional flexural rigidity that varies along the length of the beam module(s) by use, for example, of stiffening longerons, anchoring braces and relatively low density stabilizing webs. The camera can be mounted to the beam module by a front end assembly that is constructed to place the center of mass of the camera and the front end assembly along the neutral axis of the beam module over as great a range of motion as possible. The system can also include a handle module that incorporates, for example, an axially and rotationally moveable grip and a proximal handle grip ring and control cage for surrounding a camera control, such as a joystick.

Abstract: A remote camera positioning and control system is disclosed that permits a sole operator to use and support a camera out of arm's reach without external structural or personnel support. The positioning system includes a beam module that provides lightweight yet flexurally rigid support for a distal camera, by including use of parallel longerons displaced from a neutral axis of the beam system.

Abstract: A remote camera positioning system provides a camera on a positioner, such as an elongated boom, out of the operator's reach. The positioner provides an operator interface, such as grips and optionally a body harness, to enable the operator to support, control and maneuver the position of the camera. A monitor for displaying images generated by the camera is mounted to the operator to enable the operator to view and control the camera images in a self-contained manner.

Abstract: A remote camera positioning system provides a camera on a positioner, such as an elongated boom, out of the operator's reach. The positioner provides an operator interface, such as grips and optionally a body harness, to enable the operator to support, control and maneuver the position of the camera. A monitor for displaying images generated by the camera is mounted to the operator to enable the operator to view and control the camera images in a self-contained manner.