Abstract: A grounding clamp includes a safety lock-out which locks the operation of the clamp in the absence of a cooperating hot-stick. The lock-out employs a clutch which prevents the translation of the clamping members relative to one another until the clutch is disengaged. The cooperating hot-stick is required for the disengagement of the clutch.

Abstract: A robot uses controlled omni-wheels and an arm assembly coupled to a gripper to facilitate the opening of doors. The gripper is rotatable around at least one of its axis to engage and rotate a door handle to unlatch a door. The omni-wheels are driven to move the robot along a curved path to open the door.

Abstract: A robot uses controlled omni-wheels and an arm assembly coupled to a gripper to facilitate the opening of doors. The gripper is rotatable around at least one of its axis to engage and rotate a door handle to unlatch a door. The omni-wheels are driven to move the robot along a carved path to open the door.

Abstract: A grounding clamp includes a safety lock-out which locks the operation of the clamp in the absence of a cooperating hot-stick. The lock-out employs a clutch which prevents the translation of the clamping members relative to one another until the clutch is disengaged. The cooperating hot-stick is required for the disengagement of the clutch.

Abstract: A grounding clamp includes a safety lock-out which locks the operation of the clamp in the absence of a cooperating hot-stick. The lock-out employs a clutch which prevents the translation of the clamping members relative to one another until the clutch is disengaged. The cooperating hot-stick is required for the disengagement of the clutch.

Abstract: A robot uses controlled omni-wheels and an arm assembly coupled to a gripper to facilitate the opening of doors. The gripper is rotatable around at least one of its axis to engage and rotate a door handle to unlatch a door. The omni-wheels are driven to move the robot along a carved path to open the door.

Abstract: A grounding clamp includes a safety lock-out which locks the operation of the clamp in the absence of a cooperating hot-stick. The lock-out employs a clutch which prevents the translation of the clamping members relative to one another until the clutch is disengaged. The cooperating hot-stick is required for the disengagement of the clutch.

Abstract: A telepresence robot uses three separately controlled omni-wheels and a computer processing arrangement to reposition the robot based on received positional signals. The telepresence robot captures and transmits visual information of a limited field of view and visual information of a broad field of view. The visual information is received and displayed on a remote input device and portions of the displayed information are selected to send an appropriate signal to reposition the robot based on the selected portion. A method of remotely controlling a telepresence robot is also disclosed.

Abstract: The present system and method provides for a new digital media paradigm enabling tight choreography of motion, content and, time able to be presented on a variety of hardware platforms consisting of robotic control of a multiplicity of display screens in the form of a movable array of 2 or more LCDs, LEDs, OLEDs, etc., with the movement and placement of each display achieved by one multi-axis manipulator arm mechanism. Motion control is achieved through software programmed onto one or more controller systems, and the corresponding tools necessary for creative visual designers to produce content meeting this new paradigm are also proposed. Each arm/display screen combination is kept aware of its positioning in physical space, relative to the positioning of each and every other arm/display screen at all times, in order to prevent collisions.

Abstract: The present system and method provides for a new digital media paradigm enabling tight choreography of motion, content and, time able to be presented on a variety of hardware platforms consisting of robotic control of a multiplicity of display screens in the form of a movable array of 2 or more LCDs, LEDs, OLEDs, etc., with the movement and placement of each display achieved by one multi-axis manipulator arm mechanism. Motion control is achieved through software programmed onto one or more controller systems, and the corresponding tools necessary for creative visual designers to produce content meeting this new paradigm are also proposed. Each arm/display screen combination is kept aware of its positioning in physical space, relative to the positioning of each and every other arm/display screen at all times, in order to prevent collisions.

Abstract: A telepresence robot uses three separately controlled omni-wheels and a computer processing arrangement to reposition the robot based on received positional signals. The telepresence robot captures and transmits visual information of a limited field of view and visual information of a broad field of view. The visual information is received and displayed on a remote input device and portions of the displayed information are selected to send an appropriate signal to reposition the robot based on the selected portion. A method of remotely controlling a telepresence robot is also disclosed.

Abstract: A telepresence robot uses three separately controlled omni-wheels and a computer processing arrangement to reposition the robot based on received positional signals. The telepresence robot captures and transmits visual information of a limited field of view and visual information of a broad field of view. The visual information is received and displayed on a remote input device and portions of the displayed information are selected to send an appropriate signal to reposition the robot based on the selected portion. A method of remotely controlling a telepresence robot is also disclosed.

Abstract: The present system and method provides for a new digital media paradigm enabling tight choreography of motion, content and, time able to be presented on a variety of hardware platforms consisting of robotic control of a multiplicity of display screens in the form of a movable array of 2 or more LCDs, LEDs, OLEDs, etc., with the movement and placement of each display achieved by one multi-axis manipulator arm mechanism. Motion control is achieved through software programmed onto one or more controller systems, and the corresponding tools necessary for creative visual designers to produce content meeting this new paradigm are also proposed. Each arm/display screen combination is kept aware of its positioning in physical space, relative to the positioning of each and every other arm/display screen at all times, in order to prevent collisions.

Abstract: A telepresence robot uses three separately controlled omni-wheels and a computer processing arrangement to reposition the robot based on received positional signals. The telepresence robot captures and transmits visual information of a limited field of view and visual information of a broad field of view. The visual information is received and displayed on a remote input device and portions of the displayed information are selected to send an appropriate signal to reposition the robot based on the selected portion. A method of remotely controlling a telepresence robot is also disclosed.

Abstract: A telepresence robot uses a series of connectible modules and preferably includes a head module adapted to receive and cooperate with a third party telecommunication device that includes a display screen. The module design provides cost advantages with respect to shipping and storage while also allowing flexibility in robot configuration and specialized applications.

Abstract: A telepresence robot uses a series of connectible modules and preferably includes a head module adapted to receive and cooperate with a third party telecommunication device that includes a display screen. The module design provides cost advantages with respect to shipping and storage while also allowing flexibility in robot configuration and specialized applications.

Abstract: The present system and method provides for a new digital media paradigm enabling tight choreography of motion, content and, time able to be presented on a variety of hardware platforms consisting of robotic control of a multiplicity of display screens in the form of a movable array of 2 or more LCDs, LEDs, OLEDs, etc., with the movement and placement of each display achieved by one multi-axis manipulator arm mechanism. Motion control is achieved through software programmed onto one or more controller systems, and the corresponding tools necessary for creative visual designers to produce content meeting this new paradigm are also proposed. Each arm/display screen combination is kept aware of its positioning in physical space, relative to the positioning of each and every other arm/display screen at all times, in order to prevent collisions.