| 序号 | 专利名 | 申请号 | 申请日 | 公开（公告）号 | 公开（公告）日 | 发明人 |
|---|---|---|---|---|---|---|
| 121 | DIFFERENTIATED POSITIONING | US15743942 | 2015-08-07 | US20180206063A1 | 2018-07-19 | Pål FRENGER; Erik ERIKSSON; Fredrik GUNNARSSON; Martin HESSLER; Pradeepa RAMACHANDRA |
| A solution for providing differentiated positioning services in a wireless communication system is provided. For example, a method to be performed by a wireless device is provided, which includes requesting a high accuracy positioning information from the network, e.g., from a network node. The method further includes obtaining information from the network in response to the request, which is valid for a predefined period of time, and which enables the wireless device to obtain the high accuracy positioning information during the predefined period of time. The method further includes performing positioning or assisting performance of positioning based on the obtained high accuracy positioning information. | ||||||
| 122 | System and method for guided emergency exit | US13415562 | 2012-03-08 | US10028104B2 | 2018-07-17 | Rajesh Chandra Potineni; Joe Ben Alphonse; Bineesh Av |
| A system and method (10) are shown for providing a guided emergency exit to personnel (12) within a building (14), and includes the steps of: automatically determining the location of each of a plurality of wireless communication devices (22) within a building in response to an emergency, each of the communication devices being assigned to a person (12); determining an escape route (28) from the building for each of the communication devices based on the location of the communication device (22) and the available paths (20) from that location to a safe exit (29); and wirelessly transmitting a sequential series of images to each of the communication devices to guide the person assigned to the device from checkpoint (18) to checkpoint along the escape route (28) until the person (12) safely exits. | ||||||
| 123 | Device and method for calculating golf statistics | US13843380 | 2013-03-15 | US09943744B2 | 2018-04-17 | James W. Meadows; Richard L. Root |
| A location-aware device includes a position determination sensor that determines a position of the location-aware device. A receiver receives, from a tag coupled to a golf club, data corresponding to an output of a sensor included in the tag. A processor associates the data received from the tag with the determined position, and processes the data received from the tag to determine whether to register a golf shot as having occurred at the determined position. A memory stores a golf shot determined to be registered by the processor along with the determined position. | ||||||
| 124 | Method and apparatus for transmitting indoor context information | US14608857 | 2015-01-29 | US09894490B2 | 2018-02-13 | Rajarshi Gupta; Andreas Klaus Wachter |
| The subject matter disclosed herein relates to a system and method for determining indoor context information relating to a location of a mobile device. Indoor context information may be utilized by a mobile device or a network element to obtain an estimate of a location of the mobile device within an indoor environment. | ||||||
| 125 | Measurement systems and methods for fingerprinting positioning | US15196852 | 2016-06-29 | US09860867B2 | 2018-01-02 | Karl Torbjörn Wigren; Johan Bolin; Per Willars |
| A system, computer software and method for collecting, in addition to position data, additional positioning data in a user terminal served by a communication network. The method includes initiating, by generating a message within the user terminal, collection of the positioning data, where the positioning data includes information based on which a physical location of the user terminal is determined; measuring, by the user terminal, at least one parameter related to the physical location of the user terminal in response to the message; producing, within the user terminal, measurement reports that include the at least one parameter; selecting, within the user terminal, one or more measurement reports that were generated in response to the message generated by the user terminal; reporting the selected one or more measurement reports to an interface within the user terminal; and transmitting, from the interface, the reported one or more measurement reports to an external server or to the communication network. | ||||||
| 126 | SECURE FINE TIMING MEASUREMENT PROTOCOL | US15166646 | 2016-05-27 | US20170149799A1 | 2017-05-25 | Santosh VAMARAJU; Carlos Horacio ALDANA |
| Techniques for exchanging secure FTM messages are disclosed. An example of a wireless transceiver system for providing a secure Fine Timing Measurement (FTM) exchange includes a memory and a processor configured to obtain a initial-secure-token value and a secure-token-response value via an out-of-band signal, generate a FTM Request message including the initial-secure-token value, a transmitter to send the FTM Request message to a responding station, and a receiver to receive a FTM Response message including the secure-token-response value from the responding station, such that the at least one processor is configured to determine a Round Trip Time (RTT) value based at least in part on the FTM Response message. | ||||||
| 127 | ULTRA WIDEBAND (UWB)-BASED HIGH PRECISION POSITIONING METHOD AND SYSTEM | US14926421 | 2015-10-29 | US20170123039A1 | 2017-05-04 | Pilsoon SHIN; Jongman KWON |
| An ultra wideband (UWB)-based high precision positioning method and system is provided. According to the method and system, a precise position measurement according to a UWB signal characteristic can be achieved by an interaction between a UWB tag and an access point without a separate server in a real-time positioning system, further, a user terminal can receive information even when a user terminal is not connected to a separate Internet communication network by receiving position information of the UWB tag and additional information based on the position information through Bluetooth or a universal serial bus (USB). | ||||||
| 128 | Method and system for increasing the operational safety of mobile machines in aboveground or underground mining operations for the extraction of minerals by utilizing the RFID technology | US14353257 | 2012-10-26 | US09626538B2 | 2017-04-18 | Marco Ahler; Sascha Stelter; Christian Hauck |
| A system and method for increasing the operational safety of mobile machines in mining operations by utilizing RFID technology includes a transmitting unit at the mobile machine, a receiving unit, and a non-machine-related RFID transponder which can be activated by the transmitting unit and in the case of activation is contactlessly detected. A reference transponder and a control unit for actuating the transmitting unit and evaluating transponder signals in measuring cycles is provided. To improve the energy requirement of the method and system, the reference transponder may be mounted on the mobile machine at a defined distance, stored in the control unit, from the transmitting unit. The signal field strength L of the transmitter signal of the transmitting unit may be changed in dependence on the response signal of the reference transponder in a calibration cycle (KCB) for eliminating the environmental influences. | ||||||
| 129 | Handling packet data units | US14648867 | 2012-12-07 | US09622040B2 | 2017-04-11 | Jari Tapani Syrjarinne; Juha Salokannel |
| Apparatus is configured: to transmit angle-of-departure positioning messages from which a mobile device can calculate a direction to the mobile device from the apparatus; and to transmit a point of interest packet data unit for providing an emergency navigation service to a mobile device, the point of interest packet data unit comprising first data indicating a location of a first emergency point of interest and data indicating that the location relates to an emergency point of interest. | ||||||
| 130 | GEOLOCATION USING GUIDED SURFACE WAVES | US14850071 | 2015-09-10 | US20170074970A1 | 2017-03-16 | James F. Corum; Kenneth L. Corum; James D. Lilly; Michael J. D'Aurelio |
| Disclosed are various approaches for determining a location using guided surface waves. A wavelength and a phase of a base guided surface wave launched from a ground station and received by the guided surface wave receive structure are identified. A range of an overlaid guided surface wave launched from the ground station and received by the guided surface wave receive structure are identified., wherein the range of the overlaid guided surface wave is measured as a number of wavelengths of the base guided surface wave. A distance of the guided surface wave receive structure from the ground station based at least in part on the phase of the base guided surface wave and the range of the overlaid guided surface wave is calculated. Finally, a location of the guided surface wave receive structure based at least in part on the distance of the guided surface wave receive structure from the ground station is determined. | ||||||
| 131 | Measurement Systems and Methods for Fingerprinting Positioning | US15196852 | 2016-06-29 | US20160309443A1 | 2016-10-20 | Karl Torbjörn Wigren; Johan Bolin; Per Willars |
| A system, computer software and method for collecting, in addition to position data, additional positioning data in a user terminal served by a communication network. The method includes initiating, by generating a message within the user terminal, collection of the positioning data, where the positioning data includes information based on which a physical location of the user terminal is determined; measuring, by the user terminal, at least one parameter related to the physical location of the user terminal in response to the message; producing, within the user terminal, measurement reports that include the at least one parameter; selecting, within the user terminal, one or more measurement reports that were generated in response to the message generated by the user terminal; reporting the selected one or more measurement reports to an interface within the user terminal; and transmitting, from the interface, the reported one or more measurement reports to an external server or to the communication network. | ||||||
| 132 | INDOOR POSITIONING USING PRESSURE SENSORS | US14959952 | 2015-12-04 | US20160084934A1 | 2016-03-24 | Sai Pradeep Venkatraman |
| The present disclose relates to position estimation in an indoor environment. In one example, a location server may receive a request for reference information from a wireless network device located in the indoor environment. The location server may determine a reference altitude and a reference pressure at the wireless network device. The location server may transmit the reference altitude and the reference pressure to the wireless network device for the wireless network device to determine its altitude in the indoor environment. The location server may also determine a reference horizontal position, and transmit the reference horizontal position to the wireless network device for the wireless network device to determine its horizontal position in the indoor environment. | ||||||
| 133 | High altitude radio frequency positioning system | US13204532 | 2011-08-05 | US09250312B1 | 2016-02-02 | Peter W. Knibbe; John B. Stetson; Walter K. Feldman; Robert L. Aarons; Rex Bennett |
| A method and system for determining the geolocation of a vehicle in the absence of a GPS signal includes determining the geodetic position of each of a plurality of airborne objects based on the relative position of at least one star and at least one satellite. The determined geodetic positions of each of the airborne objects is transmitted to the vehicle. A distance from the vehicle to each airborne vehicle is calculated. Based on the geodetic position determined for each airborne object and the distance from the vehicle to each of the airborne objects, the geodetic position of the vehicle is determined. A receiver receives the geodetic position of each airborne object, calculates a distance to each airborne object, and determines a current geodetic position based on the received geodetic positions of the airborne objects and the distance from the vehicle to each airborne object. | ||||||
| 134 | Reference signals for positioning measurements | US12768033 | 2010-04-27 | US09234957B2 | 2016-01-12 | Janet A. Stern-Berkowitz; Marian Rudolf; Charles A. Dennean; John W. Haim; Guodong Zhang; Joseph S. Levy; Philip J. Pietraski |
| Methods and apparatus for supporting reference signals for positioning measurements are disclosed. Methods include subframe configuration, subframe structures, measurement opportunities using a set of downlink subframes which are not all consecutive, handling of subframes containing reference signals and system signals such as synchronization signals, paging occasions and Multicast Broadcast Multimedia Service (MBMS), and related control signaling between a long term evolution (LTE) network and a wireless transmit/receive unit (WTRU). Moreover, methods to resolve allocation conflicts arising between positioning reference signals and other reference signals are disclosed. | ||||||
| 135 | System and method for determining the position of an underwater vehicle | US11675167 | 2007-02-15 | US09223002B2 | 2015-12-29 | Jonathan C. Crowell |
| A system and a method are provided for determining the position of an underwater vehicle while the vehicle is operating underwater. A buoyant float stays on or near the surface of the water and is attached to the vehicle by thin tether that can include insulated wires. The vehicle moves under the water and pulls the float behind it. The float can receive a localization signal, such as a signal indicating its GPS position, and so can determine its position precisely. The position can be transmitted to the underwater vehicle over the wires located in the tether. The underwater vehicle can use sensors and/or calculations to determine the positional offset of the vehicle from the float buoy and generates its true position based on the known position of the float and the positional offset. The float can be constructed with attributes that will allow the float it operate with a greater tether length, and in turn allow the underwater vehicle to operate at greater depths. The float may also generally carry a radio system for high speed communication of signals from the vehicle while the vehicle is submerged. | ||||||
| 136 | Communication system, transmission device and receiving device | US14260796 | 2014-04-24 | US09207326B2 | 2015-12-08 | Jun Nomura |
| In a communication system, a transmitting unit divides each of latitude data and longitude data of a current location transmitted from a GPS receiver, at a predetermined digit position, into high order data and low order data. The transmitting unit makes a high order frame containing the high order data of each of the latitude data and the longitude data, and a low order frame containing the low order data of each of the latitude data and the longitude data, and transmits the high order frame and the low order frame, independently to a CAN bus. A receiving unit combines the high and low order data regarding the latitude data together, and further combines the high and low order data regarding the longitude data, extracted from the received high and low order frames in order to reconstruct the latitude data and the longitude data of the current location. | ||||||
| 137 | Method for locating persons and/or mobile machines in mine caverns using RFID technology, and longwall face extraction installation for carrying out the method | US13637299 | 2011-03-24 | US09152908B2 | 2015-10-06 | Marco Ahler; Sascha Stelter; Andreas Westphalen |
| A method and a longwall face extraction installation have a device for locating persons and/or mobile machines in mine caverns using RFID technology. Base stations are arranged in a distributed manner along the mine cavern to be monitored and have a transmitter and a receiver. At least one RFID transponder is associated with the person or machine to be located, which has stored identification data, can be activated using the base station and can be read in a contactless manner using the base station. In order to provide a method for locating persons and a longwall face extraction installation, in particular for coal mining, which make it possible to effectively use RFID technology, the transmitters of adjacently positioned base stations along a region of the mine cavern to be monitored successively emit their transmission wave in order to activate an RFID transponder. | ||||||
| 138 | METHOD FOR DETERMINING POSITION BASED ON NETWORK AND ELECTRONIC DEVICE THEREOF | US14499838 | 2014-09-29 | US20150092584A1 | 2015-04-02 | Bu-Seop JUNG; Jun-Ho LEE; Young-Kwan CHUNG; Jong-Mu CHOI |
| A method for operating an electronic device is provided. The method includes determining, by the electronic device, a position estimation point according to state information of the electronic device. Further, the method includes transmitting a position estimation request message to an Access Point (AP) at the determined position estimation point with a wireless Local Area Network (LAN) connection not being performed, and receiving position information of the electronic device from the AP. | ||||||
| 139 | Positioning protocol conveyance | US13081416 | 2011-04-06 | US08909257B2 | 2014-12-09 | Andreas K. Wachter; Stephen William Edge |
| Techniques for selecting positioning protocols consistent with the capabilities of the location server in a Secure User Plane Location (SUPL) based service are described. The SUPL Location Platform (SLP) transmits the service capabilities of the SLP, such as the positioning protocol capabilities of the SLP. The SLP transmits its capabilities of the SLP in an initiation message to the SUPL enabled terminal (SET) or after receiving an initiation message from the SET. The SET may transmit a positioning initiation message and the SLP and SET communicate to determine one or more position estimates for the SET. The SET may include in the positioning initiation message a positioning protocol positioning message that is consistent with the SLP service capabilities. | ||||||
| 140 | Location determination using radio wave measurements and pressure measurements | US12837583 | 2010-07-16 | US08890705B2 | 2014-11-18 | Richard O. Farley; Dimosthenis Kaleas; Gianni Giorgetti |
| A method and apparatus for determining a location of a wireless device using radio waves and pressure measurements is disclosed. In one embodiment, a plurality of Radio Signal Strength (RSS) measurements are used to trilaterate an approximate location of the wireless device. The wireless device also takes pressure measurements that are compared with a second pressure measurement made by at least one other pressure sensor at a known elevation and in a local area near the wireless device. This comparison is used to generate an accurate estimate of the elevation of the wireless device. The accurate estimate of elevation may be combined with the RSS measurements to yield an accurate estimate of the location of the wireless device. | ||||||
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