2805 results about "Mobile control" patented technology

The described technology generally relates to method(s) and arrangement(s) for access control during relocation of a user equipment (UE) into a femto base station (FBS) and dynamic triggering of the relocation into the FBS. A white list is maintained in the UE. The white list includes information on a list of FBSs that the UE is allowed to relocate. The UE detects a target FBS and reports target FBS to a source macro base station (MBS). The source MBS makes a relocation request to a mobility controller. The mobility controller grants or denies the requests or allows the target FBS to make the decision. Upon grant, the UE is relocated to the target FBS. Otherwise, the white list is updated in the UE.

Devices and systems are provided for controlling electronic devices using a mobile remote control device. A mobile remote control device provides an interface to control a plurality of electronic devices. The mobile device has a unique identifier, and the electronic device transmits a presentation of a remote control to the mobile device. A user of the mobile device controls the electronic device by operating the “virtual” remote control displayed on the mobile device. The user may further define his or her custom remote control. The user may define batches of commands, or “macros” that transmit a specific series of commands to one or more electronic devices. Proximity and motion of a mobile device may be used as an input, such that the electronic devices are programmed to react in specific ways depending upon the position and movement of the user of the mobile device.

The system constructs a robot autonomously move by simply inputting a rough path. The system has a path-setting unit for setting the path of a mobile apparatus according to the inputted path, a measuring unit for measuring an environment in which the mobile apparatus exists, an extracting unit for extracting an object existence region in the environment according to the values measured by the measuring unit, a judging unit that judges the validity of the path according to the path set by the path setting unit and to the object existence region extracted by the extracting unit, a position determining unit that determines a target position to which the mobile apparatus is to move by selecting it from the portions of the path judged as valid, and a movement controller for controlling the mobile apparatus to move to the target position.

Micro-regional force application improves the control of the orthodontic movement of teeth in all six degrees of freedom. Micro regional force application utilizes an elastic repositioning appliance, a tooth positioner, a polymeric shell, or preprogrammed series of polymeric shells. The key components of the invention are the envelope of freedom, the force applicators, force couplers, counterpart coupling, vector modifiers, seating guides, decouplers, and forced balance points. Further, computerized finite element analysis determines the center of resistance and the center of rotation for each tooth to be moved. The present invention gently rotates and translates one or more teeth to a desired straight position within a treatment plan.

A movable game controller for controlling aspects of a computer controlled game display with apparatus for determining the linear and angular motion of that movable controller. The apparatus includes a plurality of self-contained inertial sensors for sensing the tri-axial linear and tri-axial angular motion of the moving controller. Each sensor is mounted at a fixed linear position and orientation with respect to the others. The linear and angular motion of the controller is computed from the correlated motion sensor readings of each of the plurality of self-contained inertial sensors.

In a mobile control node system and method for a vehicle (630), the mobile control node (624) can interact, via a bi-directional radio link (642), with a transceiver processor unit (628) in the vehicle. The transceiver processor unit (628) is connected to a vehicle control system (120) and allows the mobile control node (624) to function as an input and output node on a vehicle control network (632), allowing remote control of the vehicle and providing functions such as remote or passive keyless entry. Additionally, the system provides a vehicle location function wherein the range and bearing between the mobile control node (624) and the vehicle (630) can he determined and displayed on the mobile control node (624). The range and bearing are calculated by determining the range between the mobile control node (624) and vehicle (630), preferably using a time of flight methodology, and by processing the travel distance of the mobile control node and compass data in order to triangulate the position of the vehicle (630) relative to the mobile control node (624).

The invention is suitable for the field of unmanned planes and provides an unmanned plane panorama video-based virtual reality live broadcast system which comprises an unmanned plane, a mobility control terminal, a VR live broadcast cloud server, an immersion type visualization device, a VR processor and a panorama video camera. In a preferred solution, the unmanned plane panorama video-based virtual reality live broadcast system also comprises various kinds of wearable intelligent sensors that can be worn on all parts of a user. According to the virtual reality live broadcast system, VR live broadcast of an unmanned plane panorama video can be realized via three experience modes; specifically, the motional tendency of a user body can be felt via the wearable intelligent sensors and then can be converted into corresponding unmanned plane flight control instructions, the unmanned plane flight control instructions are sent to the mobility control terminal via the VR live broadcast cloud server, the control instructions are sent to the unmanned plane via the mobility control terminal, the unmanned plane synchronously performs flying motions after receiving the control instructions, a virtual operation user is embedded into the panorama video captured by the panorama video camera, then the panorama video is sent in real time to the immersion type visualization device in a reverse direction, and therefore VR interactive live broadcast effects can be realized.

A helicopter rotor blade includes a main airfoil body (12) and a movable control flap (3) incorporated in the trailing edge profile of the airfoil body. The flap (3) is movably connected to the main airfoil body (12) by a flexibly bendable junction element (4), and is actuated by a piezoelectric actuator unit (5) via a push/pull rod (6) and a lever arm (7), whereby the control flap is deflected relative to the main airfoil body. The junction element (4) is preferably a continuous integral fiber-reinforced composite component having a flexible bending portion (42) with a reduced thickness in comparison to the adjoining portions, whereby the reinforcing fibers extend continuously through the joint in the direction of the connection between the main airfoil body and the flap.

A method and device provide simple positioning of a TMS coil relative to a coordinate system of the patient's head while allowing flexible positioning of the patient's head. The system includes a mobile console on a wheeled base that integrates various subsystems and supports a mast that, in turn, supports a coil gantry that supports a TMS coil assembly. The coil gantry includes a balance arm with a counterbalance and a halo assembly that connects to the coil. The coil gantry supports the weight of the coil and allows free movement of the coil in all dimensions for easy placement on the patient's head. A head support and coil alignment unit includes several parts that are designed to provide maximum patient comfort and reliable coil position measurement of the patient's motor threshold (MT) location and TMS treatment location. The head support and coil alignment unit aligns the patient's head and holds the head in place relative to the coil during TMS treatment. The head support and coil alignment unit may include a side pad mounted on a bracket assembly that allows the side pad to be moved for set up on either the left or right side of the patient's head for bracing the patient's head against the coil. The head support and coil alignment unit may also include numerous guides for positioning the patient's head in a repeatable manner, including a superior oblique angle (SOA) guide including an angle indicator, an anterior/posterior (AP) guide that may be rotated through a range of superior oblique angles +/−45° from the mid-sagittal position, and a coil angle indicator. An associated touch screen allows the user to record position measurements of the respective guides.

A method and device for displaying content using an integral or remote controller for navigating the content based on dynamic image analysis of the motion of the controller, for example, by tilting. The controller is equipped with wide-angle optics and with a radiation sensor detecting either visible light or infrared radiation. The wide-angle optics may be directed towards the user, whereupon the radiation sensor receives useful images through the wide-angle optics. The images include contrast or thermal differences which it make possible to determine in which way the user has moved the controller. In more detail, a tilt angle or a corresponding change can be calculated and then, on the basis of the change, the content shown on a display is altered. The content is, for example, a menu, game scene or a web page.

The invention discloses an intelligent home control system which combines a near field communication (NFC) technology and a zigbee/bluethooth/zwave technology and a control method of the intelligent home control system, wherein the system comprises an NFC label, a mobile control terminal and a controlled unit, and an NFC module for receiving the data information, a first control unit which is connected with the NFC module and a first wireless communication unit which is connected with the first control unit are arranged in the mobile control terminal; a second wireless communication unit and a second control unit are arranged in the controlled unit, and are in data connection with each other; and the method is that after the mobile control terminal receives the data information which is sent out by the NFC label, and sends the control command information to the controlled unit, so the home equipment is controlled. The system enables the home life to be more humanized and more intelligent, and has the characteristics of close range, low complexity, low power consumption, low rate and low cost, so more humanized and better user experiences are realized.

A method for controlling and recording the security of an enclosure is disclosed. A mobile electronic control device, such as an electronic key, is used to access or otherwise control the operations of a field device, such as an appliance, power tool, shipping container, and the like. In a control event in which the mobile control device interacts with the field device via wired or wireless communications, the control device obtains the current location and the field device ID. The communications between the mobile control device and the field device may be secured with encryption. The location information is used by the mobile control device to determine whether the field device should be accessed or enabled. Alternatively, the location information may be stored separately in a location sensing device, and the control event data recorded by the key and the location information recorded by the location sensing device are later combined when they are downloaded into a management system for auditing. Moreover, an electronic access control device is disclosed comprising two microprocessors.

A method and associated system for controlling and monitoring a technical installation (M1, M2), which is assigned at least one regional control area (OA1, OA2), uses a universal, mobile control and monitoring module (MU) and includes three steps. In a first step, the current position of the mobile control and monitoring module (MU) is determined by means of positioning signals. In a second step, the mobile control and monitoring module (MU) is assigned to a technical installation (M1, M2), if the current position of the mobile control and monitoring module lies within the regional control area (OA1, OA2) of that technical installation (M1, M2). In a third step, HMI data of the technical installation (M1, M2) is loaded into the assigned mobile control and monitoring module (MU). The assignment of the universal, mobile control and monitoring module (MU) to the technical installation (M1, M2) is not fixed or permanent, but only temporary. Thus, only HMI data that are required to carry out the respectively desired control and monitoring tasks on the assigned technical installation (M1, M2), or on a certain part thereof, needs to be selectively loaded into the control and monitoring module (MU). If an operator carries along the control and monitoring module (MU), he or she can leave the regional control area (OA1, OA2) of the technical installation (M1, M2) and enter the regional control area (OA1, OA2) of another technical installation (M1, M2) without restrictions. Then, a temporary assignment to that installation is possible.

The invention relates to a shooting device and method using an unmanned aerial vehicle to perform automatic locking of a moving object. The shooting device includes an unmanned aerial vehicle flight platform, a load stabilizing device, a motion camera and a mobile control terminal, the bottom of the unmanned aerial vehicle flight platform is fixedly provided with the load stabilizing device, the motion camera is fixed on the load stabilizing device, the mobile control terminal is carried by a moving target, and the mobile control terminal obtains real-time images and related state information of the motion camera from the unmanned aerial vehicle flight platform through a data link, and controls the unmanned aerial vehicle flight platform to perform flight shooting following the moving object according to an instruction fed back by a moving object automatic locking shooting algorithm. The shooting device can set various shooting methods including forerunner front shooting, following rear shooting and side face parallel shooting, thereby obtaining all motion details in which a user is interested in. Based on the unmanned aerial vehicle flight platform, carrying the load stabilizing device and the motion camera, and in cooperation with the mobile control terminal, the shooting device completes wonderful detail shooting of the moving object.

Control handover planning for an unmanned aerial vehicle (UAV) is provided that includes determining, by a planning system, a current location of a mobile control system and a current location of the UAV. A target location is identified. A control handover zone is determined based on a communication range constraint between the mobile control system and the UAV. The control handover zone is located between the current location of the mobile control system, the current location of the UAV, and the target location. A mobile control system path plan and a UAV path plan are created that each includes a control handover waypoint in the control handover zone at the same time. The control handover waypoint defines a planned location to place the mobile control system in control of the UAV.

The invention provides a method and system for achieving integrated camera automatic focusing, and provides a zooming tracking method based on a relationship type, namely for a shot object at a fixed object distance, according to the initial zooming multiple, the value of an initial focusing position and a plurality of zooming tracking curves stored in advance, the mapping relation between the object distance interval and the focusing position is constructed, and the position to be focused is calculated in real time. Then, a gradient control function obtained by the combination of the statistical law of a lot of experimental data is utilized to achieve mobility control over a zooming motor and a focusing motor, the value of the position to be focused is improved and amended to a certain degree, the value of the position to be focused is closer to a real zooming tracking curve, and an automatic focusing effect is more accurate. Meanwhile, the zooming tracking curves are not needed to be stored in advance, all the zooming tracking curves corresponding to different object distances are not needed to be calculated point by point, an algorithm is simple, it is possible that the zooming speed meets a real-time property, and the focusing effect can meet the requirement for clearness in the whole process.

A wall climbing robot using an Indoor Global Positioning System (IGPS) provided in a room is disclosed. The wall climbing robot includes a navigation receiver configured to receive rotating fan beams emitted from one or more navigation transmitters of the indoor global positioning system, and recognize the rotating fan beams as IGPS signals; a robot frame provided with the navigation receiver mounted; a mobile controller configured to be installed on the robot frame, and to recognize and determine its own position using the IGPS signals; and a drive mechanism configured to travel along the surfaces of the room under control of the mobile controller. The mobile controller includes a central processing unit, an input/output unit, a motion control unit, a drive control unit, a navigation control unit, a sensor signal processor, an emergency processing unit, and an alarm generator.

A fluid friction coupling for driving a fan of an internal combustion engine includes a solenoid configured such that it surrounds a drive shaft and is operatively arranged for moving a control part. The control part moves a valve body which controls the flow of a viscous fluid into a working chamber. The fluid friction coupling is of particularly compact configuration and magnetic losses are kept particularly low.

The invention discloses an electric vehicle valet automatic parking in-place charging system, which comprises a parking space detection and guidance system, an automatic parking in-place system, a wireless charging system and a mobile control terminal. The mobile control terminal is in wireless communication control connection with the parking space detection and guidance system; the parking space detection and guidance system obtains idle parking space information in a parking lot through communication among a positioning system, a parking space unit, a parking lot management system and a vehicle-mounted system, and the vehicle-mounted system controls and guides a vehicle to drive to a parking region of a target parking space. The automatic parking in-place system obtains a specific parking space, position information of a wireless charging device on the parking space and surrounding environment information through communication between the vehicle-mounted system and the parking space unit, the vehicle-mounted system calculates and generates a parking trajectory, and the vehicle-mounted system controls the vehicle to drive into a charging matching region of the target parking space. The wireless charging system charges a battery of the electric vehicle by means of electromagnetic induction between the wireless charging device on the parking space and a vehicle-mounted charging receiving plate of the vehicle.

The invention relates to a robot autonomous obstacle avoidance moving control method based on distance vectors. In the moving process of a moving robot in the environment, the distance vectors from the robot to obstacles are measured through a distance measuring sensor and an angle sensor which are carried on the robot, the current position of the robot serves as the original point all the time to set up coordinate systems for unknown environments with multiple nearby obstacles, the distance vectors from the robot to the edges of the obstacles are measured, the steering angles of the collision prevention obstacles are obtained, the distance vector, larger than the radial size of the robot, between the two adjacent obstacles is obtained, the distance vector, at which collision with the two adjacent obstacles can be avoided at the same time, composed of the central points of the distance vectors between the current position to the robot and the two adjacent obstacles is obtained and serves as the moving direction of the robot and the moving path through which the robot can pass through the two obstacles, safety obstacle avoidance can be achieved to the maximum, and the autonomous obstacle avoidance moving from the starting point to the target point is achieved. According to a control model, the practical radial sizes of the moving robot and the environment obstacles are taken into consideration, and the robot autonomous obstacle avoidance moving control method has the practical application significance.

The invention provides a pump assembly comprising a suction pump and a safety valve arranged between the pump inlet and a fluid inlet for the assembly. The safety valve comprises an inlet valve and a moveable control member acting on the safety inlet valve, wherein the control member is operatable between an initial position in which the safety inlet valve is closed, and an activated position in which the safety inlet valve is open, and wherein the control member is moved from the initial to the activated position by means of suction action from the pump. By this arrangement the opening of the safety valve is positively controlled by the suction provided by the pump whereas the safety valve is closed during non-operation of the pump.