Abstract:
The invention is a computerized mobile robotic router with an onboard internet web server, and a capability of establishing a first connection to a remote web browser on the internet for robotic control purposes, and a capability of establishing a second short range bi-directional digital radio connection to one or more nearby computerized digital radio equipped computers or devices external to the robot. The short-range bi-directional digital radio connection will typically have a maximum range of about 300 feet. In a preferred embodiment, this short-range wireless digital connection will use the 2.4 gHz band and digital protocols following the IEEE 802.11, 802.15, or other digital communications protocol. By employing the proper set of external short-range digital radio devices capable of interfacing with the robot (such as sensors, mechanical actuators, appliances, and the like), a remote user on the internet may direct the robot to move within range of the external devices or computers, and connect these devices or computers to the internet.
Abstract:
A path planner and a method for determining a path for a vehicle comprises defining a starting point for the vehicle. A termination point is defined. An obstacle detector detects one or more obstacles in a work area between the starting point and the termination point. A boundary zone is defined about each corresponding obstacle. Candidate paths are identified between the starting point and the termination point. Each candidate path only intersects each boundary zone once for each corresponding obstacle. An economic cost is estimated for traversing each candidate path or a portion thereof between the starting point and the termination point. A preferential path is selected from the identified candidate paths based on the preferential path being associated with a lowest estimated economic cost.
Abstract:
A security system comprises a first sensor disposed in an area to be monitored in a building to monitor the area; a moving robot having a robot main body, a second sensor for monitoring the area to be monitored and a robot operation processor for moving the robot main body according to an operation mode data indicating an operation of the robot main body; a controller including first and second sensor information monitor units for collecting first sensor information and second sensor information which are acquired by the first and second sensors, and an operation mode data generator for generating the operation mode data from the first sensor information or the second sensor information and transmitting the operation mode data to the robot operation processor.
Abstract:
A multi-agent autonomous system for exploration of hazardous or inaccessible locations. The multi-agent autonomous system includes simple surface-based agents or craft controlled by an airborne tracking and command system. The airborne tracking and command system includes an instrument suite used to image an operational area and any craft deployed within the operational area. The image data is used to identify the craft, targets for exploration, and obstacles in the operational area. The tracking and command system determines paths for the surface-based craft using the identified targets and obstacles and commands the craft using simple movement commands to move through the operational area to the targets while avoiding the obstacles. Each craft includes its own instrument suite to collect information about the operational area that is transmitted back to the tracking and command system. The tracking and command system may be further coupled to a satellite system to provide additional image information about the operational area and provide operational and location commands to the tracking and command system.
Abstract:
A system is described for a sensor network comprised of an apparatus of a group of mobile robotic vehicles (MRVs). The sensors in the MRVs are linked into a network such that sensor data from one MRV can be used by another MRV. The collective of MRVs can reconfigure in spatial positions and thereby responds to and interacts with its environment. The mobile sensor network is used to provide sensor data to the swarm weapon system.
Abstract:
In a swarm weapon system, groups of mobile robotic vehicles (MRVs) are organized into a leader-follower configuration in which follower drone MRVs supply sensor data to a lead MRV. The lead MRV analyzes data and makes decisions about how the collective of automated robots will behave as a group. The hierarchical control model will centralize processes in order for varied spatial configurations of the network to be made in real time.
Abstract:
In a swarm weapon system including mobile robotic vehicles (MRVs), a system, methods and apparatus are described for the use of external resources, including computation and sensor capabilities, to guide groups of MRVs from position to position in real time. Methods are shown whereby external computation resources provide massive supplementary computing capability to a remote computing network to solve complex problems on the fly that preserves limited intra-systemic power and computation resources. Methods are shown for external sensors, such as satellite sensors, to provide supplemental sensor data to a multi robotic system with resource constraints.
Abstract:
A security vehicle system and a security vehicle is provided. The security vehicle system preferably includes a remote controller and a security vehicle. The security vehicle preferably includes a security vehicle having a main body, a cargo receiving area adapted to receive cargo, at least one security device connected to the main body, a plurality of omni-directional wheels connected to the main body to provide multi-directional movement of the security vehicle, a control signal receiver, and at least one drive assembly connected to the main body and to the plurality of omni-directional wheels to drive the plurality of omni-directional wheels. The security vehicle preferably has a vertical height less than about twelve inches to thereby define a security vehicle having a low clearance.
Abstract:
A robotic vehicle system for terrain navigation mobility provides a way to climb stairs, cross crevices, and navigate across difficult terrain by coupling two or more mobile robots with a coupling device and controlling the robots cooperatively in tandem.
Abstract:
A mobile control unit adapted to move to a plurality of premises, the mobile control unit having a central monitoring system adapted to communicate with a facility system of each of the plurality of premises, such that the mobile control unit is adapted to move to one of the plurality of premises when alerted by the facility system of the one of the plurality of premises. A facility management system adapted to manage at least one of the plurality of premises, the facility management system having the mobile control unit and a plurality of facility systems, each facility system adapted to monitor one of the plurality of premises. A facility management method of monitoring the plurality of premises using the mobile control unit. A mobile unit control system having a plurality of mobile control units and a main control unit adapted to monitor the location of the plurality of mobile control units and controlling the plurality of mobile control units. A mobile unit control method having monitoring the location of a plurality of mobile control units from a main control unit; and communicating between the main control unit and the plurality of mobile control units.