子分类：
- G01S13/003： .{收发分置雷达系统;多基地雷达系统}
- G01S13/006： .{理论方面}
- G01S13/02： .利用无线电波的反射的系统,例如,一次雷达系统;类似的系统
- G01S13/66： .雷达跟踪系统;波的波长或类型无关的类似系统
- G01S13/74： .应用无线电波再辐射的系统,例如二次雷达系统;类似系统
- G01S13/86： .雷达系统与非雷达系统(例如声纳、定向器)的组合(声纳系统与非声纳或非雷达系统的组合入G01S 15/025;激光雷达系统与除激光雷达之外的系统、雷达或声纳的组合入G01S17/023)
- G01S13/87： .雷达系统的组合,例如一次雷达与二次雷达
- G01S13/88： .专用于特定应用的雷达或类似系统(目标的电磁勘探或探测,例如近场探测入G01V3/00)
| 序号 | 专利名 | 申请号 | 申请日 | 公开（公告）号 | 公开（公告）日 | 发明人 |
|---|---|---|---|---|---|---|
| 21 | Vorrichtung mit einem spannungsgesteuerten Oszillator und einer Schulungsanodnung zum Ansteuern des Oszillators | EP13151233.7 | 2013-01-15 | EP2618174A1 | 2013-07-24 | Die Erfindernennung liegt noch nicht vor |
Die vorliegende Erfindung betrifft eine Vorrichtung, insbesondere einen Radarsensor, |
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| 22 | PROCÉDÉ D'ESTIMATION DES ANGLES D'ARRIVÉES DE SOURCES COHÉRENTES PAR UNE TECHNIQUE DE LISSAGE SPATIAL SUR UN RÉSEAU DE CAPTEURS QUELCONQUE | EP08760729.7 | 2008-06-09 | EP2156210A1 | 2010-02-24 | FERREOL, Anne; BRUGIER, Jérémy; MORGAND, Philippe |
| The invention relates to a method for interpolating the direction vectors a (ϑ) of a sensor network, the sensor network receiving signals emitted by a source, characterised in that it comprises using for the interpolation of the direction vectors a (ϑ) one or more omnidirectional modal functions z(ϑ)k where z(ϑ) = exp (jϑ) where ϑ is an angle sector on which the interpolation of the direction vectors is carried out. | ||||||
| 23 | ARTERIAL PULSE MEASUREMENT | EP17152323.6 | 2017-01-20 | EP3351168A1 | 2018-07-25 | SHAMAIN, Durgaprasad; DOPPLER, Klaus; MUNIRAJU, Swetha; TORKILDSON, Eric |
A method comprising: at a processor, determining an in vivo transit distance for an arterial pulse between a first arterial pulse point and a second arterial pulse point using a first distance measured to the first arterial pulse point and a second distance measured to a second arterial pulse point; and at the processor, determining a transit time for an arterial pulse between the first arterial pulse point and the second arterial pulse point, based on one or more transmitted detecting and ranging wave pulses reflected from the first arterial pulse point and from one or more transmitted detecting and ranging wave pulses reflected from the second arterial pulse point.
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| 24 | SUBSURFACE SENSING USING GUIDED SURFACE WAVE MODES ON LOSSY MEDIA | EP15770722.5 | 2015-09-10 | EP3191865A1 | 2017-07-19 | CORUM, James, F.; CORUM, Kenneth, L. |
| Disclosed are various systems and methods for remote surface sensing using guided surface wave modes on lossy media. One system, among others, comprises a guided surface waveguide probe configured to launch a guided surface wave along a surface of a lossy conducting medium, and a receiver configured to receive backscatter reflected by a remotely located subsurface object illuminated by the guided surface wave. One method, among others, includes launching a guided surface wave along a surface of a lossy conducting medium by exciting a charge terminal of a guided surface waveguide probe, and receiving backscatter reflected by a remotely located subsurface object illuminated by the guided surface wave. | ||||||
| 25 | Radar apparatus | EP12157853.8 | 2012-03-02 | EP2495582B1 | 2016-08-03 | Kurono, Yasuhiro; Shinomiya, Tomohiro; Asanuma, Hisateru |
| 26 | SENSORHALTERUNG FÜR EINEN SENSOR ZUR OBJEKTDETEKTION | EP13701743.0 | 2013-01-21 | EP2828680A1 | 2015-01-28 | DIHLMANN, Mathias |
| Sensor holder for a sensor (12) for object detection, comprising an assembly unit (14) for the sensor (12), a retaining frame (18) on which the assembly unit (14) is held such that it can pivot, an adjustment shaft (22) mounted on the retaining frame (18), said adjustment shaft having a screw-like guide contour (24) around the adjustment shaft (22), said guide contour engaging with a guide element (26) of the assembly unit (14); as well as a sensor unit comprising the sensor holder; and a sensor (12), particularly a radar sensor, arranged on the assembly unit (14) for object detection. | ||||||
| 27 | A method and arrangment for calculating speed distributions with multi-PRI and SMPRF radars | EP12197759.9 | 2012-12-18 | EP2607923B1 | 2014-06-18 | Sierwald, Jörn |
| A method and an arrangement are provided for producing a computed distribution of speeds of scatterers in a target volume (1701). An estimate distribution of speeds at which scatterers would move in said target volume is provided (1201). It is converted (1202) to a candidate autocorrelation function that represent autocorrelation data points that a pulse radar would measure from the current estimate distribution. The fit of a candidate ACF to a measured ACF is measured (1203). The estimate distribution is accepted if a measured fit fulfils a predefined acceptance criterion, or modified (1205) in which case processing returns to the conversion of the modified estimate distribution to an ACF. An accepted estimate distribution is output (1206) as a computed distribution of speeds that describes said actual distribution of speeds. | ||||||
| 28 | A method and implementation for calculating speed distributions with multi-PRI and SMPRF radars | EP12197759.9 | 2012-12-18 | EP2607923A1 | 2013-06-26 | Sierwald, Jörn |
A method and an arrangement are provided for producing a computed distribution of speeds of scatterers in a target volume (1701). An estimate distribution of speeds at which scatterers would move in said target volume is provided (1201). It is converted (1202) to a candidate autocorrelation function that represent autocorrelation data points that a pulse radar would measure from the current estimate distribution. The fit of a candidate ACF to a measured ACF is measured (1203). The estimate distribution is accepted if a measured fit fulfils a predefined acceptance criterion, or modified (1205) in which case processing returns to the conversion of the modified estimate distribution to an ACF. An accepted estimate distribution is output (1206) as a computed distribution of speeds that describes said actual distribution of speeds.
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| 29 | PROCÉDÉ D'ESTIMATION DES ANGLES D'ARRIVÉES DE SOURCES COHÉRENTES PAR UNE TECHNIQUE DE LISSAGE SPATIAL SUR UN RÉSEAU DE CAPTEURS QUELCONQUE | EP08760729.7 | 2008-06-09 | EP2156210B1 | 2010-09-22 | FERREOL, Anne; BRUGIER, Jérémy; MORGAND, Philippe |
| 30 | A SYSTEM A METHOD AND AN APPARATUS FOR PERFORMING WIRELESS MEASUREMENTS, POSITIONING AND SURFACE MAPPING BY MEANS OF A PORTABLE COORDINATE SYSTEM | EP05709119.1 | 2005-02-23 | EP1743137A2 | 2007-01-17 | Ash, Chaim; Volodine, Yuri G.; Novikov, Lenny M.; Kovtun, Michael |
| The present invention is a new multifunctional low-cost solution for performing measurements and positioning in construction sites and automatically extracting a three-dimensional virtual model, plans, elevations and sections drawings based on these measurements. The preferred embodiment of the present invention consists of a field beacon FB3 or a set of field beacons FB1-FB14, spread around the measured area, communicating by omnidirectional signals with at least one central signal collector 100, which communicates with a computer. Dedicated computer software performs the spatial calculations and other applicable functions. The disclosed system is used for laying out axes and columns at the beginning stage of construction while ensuring the exact match of each mark to its planned position, and for quality and exactitude control of constructions or assembling. In addition the system may be used for locating and tracking objects in a predefined area and automatic directing of machinery to target points. | ||||||
| 31 | CABLE TRACKING BY ELECTROMAGNETIC EMISSION | US15823879 | 2017-11-28 | US20190165834A1 | 2019-05-30 | Petra Sabine Buehrer; Florian Graf; Thorsten Muehge; Tim U. Scheideler; Raphael Waltert |
| A method and system for tracking a course of a cable using electromagnetic waves. A first transceiver sends to a second transceiver a first signal wirelessly in a linear line. The second transceiver sends back to the first transceiver the first signal in the linear line. A first distance between the first transceiver and the second transceiver is determined by determining a total transmission time for a first wireless signal travelling from the first transceiver to the second transceiver and back to the first transceiver. A second signal, aligned with the first signal, is transmitted from the first transceiver into the cable. The second transceiver receives the second signal wirelessly from the cable. A second distance between the first transceiver and the second transceiver is determined by comparing a phase difference between the first signal received by the second transmitter and the second signal received by the second transmitter. | ||||||
| 32 | METHOD FOR AUTOMATICALLY ADJUSTING THE VEHICLE SPEED | US15940040 | 2018-03-29 | US20180281792A1 | 2018-10-04 | Ralf Schaeffler; Thomas Brettschneider |
| In a method for automatically adjusting the vehicle speed of a vehicle, while the distance to a preceding other vehicle is continuously measured, in order to reduce an initial distance, the vehicle is initially moved, in a drive phase, at a higher vehicle speed and is subsequently decelerated in a braking phase. | ||||||
| 33 | ARTERIAL PULSE MEASUREMENT | US15869587 | 2018-01-12 | US20180206743A1 | 2018-07-26 | Durgaprasad SHAMAIN; Klaus DOPPLER; Swetha MUNIRAJU; Eric TORKILDSON |
| A method comprising: at a processor, determining an in vivo transit distance for an arterial pulse between a first arterial pulse point and a second arterial pulse point using a first distance measured to the first arterial pulse point and a second distance measured to a second arterial pulse point; and at the processor, determining a transit time for an arterial pulse between the first arterial pulse point and the second arterial pulse point, based on one or more transmitted detecting and ranging wave pulses reflected from the first arterial pulse point and from one or more transmitted detecting and ranging wave pulses reflected from the second arterial pulse point. | ||||||
| 34 | Method for transmitting and receiving radar signals while blocking reception of self-generated signals | US13506584 | 2012-04-30 | US09935369B1 | 2018-04-03 | David Elliot Dorfan |
| A method and apparatus which enables a facility or entity that transmits and receives radar signals to receive any incoming radar signal, while blocking reception of any signals generated by the facility or entity itself. The method comprises transmitting a primary signal from an rf generator; providing a second signal which is synchronized with the primary signal matching in both phase and amplitude, but with a phase difference of 180 degrees so that the two signals sum to zero. The second signal travels through a voltage controlled attenuator and thru a voltage controlled phase shifter. Combining in a combiner the second signal with a signal radiated by a transmitting antenna and received by a receiving antenna that connects into a transmission enabling mechanism, and then transmitting the combined signal to a detector apparatus. | ||||||
| 35 | Mandrel configuration monitoring system | US14153529 | 2014-01-13 | US09933247B2 | 2018-04-03 | Don Michael Clark; Austin Michael Cangelosi; Li Chun Chang; Deborah E. Errazo |
| A method and system for monitoring a mandrel. A first plurality of transmitting devices is positioned with respect to the mandrel. Signals from a portion of the first plurality of transmitting devices are received at a receiving device. The signals are processed to determine a configuration of the mandrel. | ||||||
| 36 | IMAGE PROCESSING DEVICE, IMAGING DEVICE, EQUIPMENT CONTROL SYSTEM, EQUIPMENT, IMAGE PROCESSING METHOD, AND RECORDING MEDIUM STORING PROGRAM | US15665869 | 2017-08-01 | US20180060671A1 | 2018-03-01 | Yasuhiro NOMURA |
| An image processing device, an imaging device, an equipment control system, equipment, an image processing method, and a recording medium storing a program. The image processing device and the image processing method includes capturing an object to obtain a captured image using at least one capturing unit, generating a correction parameter based on the captured image to update a correction parameter stored in a memory, correcting displacement in coordinate caused to the captured image, using the updated correction parameter, and updating a referring status of a specific thing included in the captured image to a not-yet-referred status when the correction parameter is updated. The imaging device includes the image processing device, the at least one capturing unit captures an image including the specific thing, and the memory stores the correction parameter. | ||||||
| 37 | SUCCESSIVE SIGNAL INTERFERENCE MITIGATION | US15791495 | 2017-10-24 | US20180048493A1 | 2018-02-15 | Jean P. Bordes; Aria Eshraghi; David S. Trager; Murtaza Ali; Raghunath K. Rao |
| A radar system for a vehicle includes a transmitter, a receiver, and an interference mitigator. The transmitter transmits radio signals. The receiver receives radio signals. The received radio signals include transmitted radio signals reflected from objects. The receiver also processes the received radio signals to produce a sample stream. The interference mitigator successively (i) generates respective signals corresponding to the transmitted radio signals that are reflected from each of a plurality of objects, and (ii) adds the respective signals to the sample stream to form a modified sample stream. The addition of the respective signals removes interference from the sample stream due to the transmitted radio signals reflected from the plurality of objects. The receiver is configured to use the modified sample stream to detect a first object at a first range which is more distant than respective ranges of the plurality of objects. | ||||||
| 38 | Successive signal interference mitigation | US15491193 | 2017-04-19 | US09806914B1 | 2017-10-31 | Jean P. Bordes; Aria Eshraghi; David S. Trager; Murtaza Ali; Raghunath K. Rao |
| A radar sensing system for a vehicle includes a transmitter, a receiver, and an interference mitigation processor. The transmitter transmits radio signals. The receiver receives radio signals. The received radio signals include reflected radio signals that are each transmitted radio signals reflected from objects in the environment. The receiver also down-converts and digitizes the received radio signals to produce a baseband sampled stream. The interference mitigation processor produces a second received radio signal that includes reflected radio signals that are transmitted radio signals reflected from a first object. The interference mitigation processor uses the second received radio signal to remove selected samples from the baseband sampled stream that are attributed to radio signals reflected from the first object to produce a modified baseband sampled stream. The receiver uses the modified baseband sampled stream to detect a second object more distant than the first object. | ||||||
| 39 | Route re-planning using enemy force lethality projection | US15334010 | 2016-10-25 | US09791283B1 | 2017-10-17 | James C. Rosswog; Carl R. Herman |
| A method, system and computer readable media for route re-planning including generating enemy force movement predictions to be used during mission planning. During a mission, enemy force movements can be compared to the predictions. By using enemy force movement predictions for an initial comparison, the enemy force movements may only need to be compared to the own force mission plan if the enemy forces deviate from the predictions. When enemy force movement deviates from the predictions, new enemy force movement predictions can be generated. The new enemy force movement predictions can then be compared to the own force mission plan to determine if a route re-plan is needed. The route can be re-planned to determine a route that reduces or eliminates the chance of a lethal encounter with an enemy or threat. | ||||||
| 40 | GPS correction method and system | US14519177 | 2014-10-21 | US09766340B2 | 2017-09-19 | Salem Ali Bin Kenaid |
| GPS correction method comprising providing benchmark GPS devices located respectively at a priori known stationary benchmark points within respective geographical zones, the stationary benchmark points having corresponding benchmark GPS coordinates; providing a benchmark database storing data mapping the GPS devices to the benchmark GPS coordinates of their respective stationary benchmark points and their respective geographical zones; receiving first GPS coordinates associated to objects within the geographical zones and second GPS coordinates associated to the stationary benchmark points measured at a same time period, the first GPS coordinates being transmitted by the benchmark GPS devices and the second GPS coordinates being transmitted by GPS devices associated to the objects; and generating corrected GPS coordinates of the object by measuring a deviation between the benchmark GPS coordinates and the second GPS coordinates and using the deviation for correcting the first GPS coordinates. There is also provided a GPS correction system. | ||||||
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