子分类：
| 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 | ULTRASONIC SENSING APPARATUS AND SENSING METHOD THEREOF | US15338538 | 2016-10-31 | US20170367681A1 | 2017-12-28 | JUAN WANG |
| An ultrasonic sensing apparatus held next to a target can detect vital signs of the target. The ultrasonic sensing apparatus includes a first flexible circuit board, a transmitting layer, a readout layer, and a receiving layer. Emitting elements in the transmitting layer generate ultrasonic signals and the receiving layer receives reflected ultrasonic signals and converts the reflections into electrical signals. The emitting elements are staggered in relation to elements of the receiving layer for better resolution and accuracy. The readout layer reads the electric signals for calculating vital signs. The readout layer includes input lines and output lines and readout pixels are defined by the crossing points of input and output lines. Ultrasonic signals are generated during a first period, and the reflections are read in a second period next following. The readout layer completes one reading operation corresponding to one readout pixel during the second period. | ||||||
| 22 | RADIATION DEVICE OR SIGNAL | US12440774 | 2007-09-11 | US20100155609A1 | 2010-06-24 | Ronald Laksham Silva |
| A zoned radiation device for converging radiation of a wavelength λ to a focus at distance b, the device comprising a first set of zones and a second set of zones, wherein the first set of zones have a different characteristic to the second set and wherein the area of the zones decrease as their distance from a predetermined point increases, and one or more zone distances at which a zone of the first set with a first characteristic switches to a second zone with a second characteristic are configured such that the device can focus the radiation with wavelength λ at a distance b with an autocorrelation/point spread function that is sharper than the autocorrelation/point spread function produced by zones configured to a Fresnel zone construction. | ||||||
| 23 | Precision of localization estimates | US11210160 | 2005-08-22 | US07487056B2 | 2009-02-03 | Ivan Tashev |
| Precision and reliability of localization estimates derived from conventional localization systems are improved through a system and method for post-processing of initial localization data, even in environments which may include noise, reflections, or other interference. Such localization systems include conventional sound source localization (SSL) systems based on microphone array inputs, radio source location systems based on directional antenna array inputs, etc. In general, this post-processing system and method applies statistical real-time clustering to initial localization estimates, and then uses this real-time clustering in a multi-stage process to generate new localization estimates having improved precision and reliability relative to the initial localization estimates. | ||||||
| 24 | System a method and an apparatus for performing wireless measurements, positioning and surface mapping by means of a portable coordinate system | US10598415 | 2005-02-23 | US20070182632A1 | 2007-08-09 | Chaim Ash; Yuri Volodine; Lenny Novikov; Michael Kovtun |
| 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 or a set of field beacons, spread around the measured area, communicating by omnidirectional signals with at least one central signal collector, 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. | ||||||
| 25 | Precision of localization estimates | US11210160 | 2005-08-22 | US20050283328A1 | 2005-12-22 | Ivan Tashev |
| Precision and reliability of localization estimates derived from conventional localization systems are improved through a system and method for post-processing of initial localization data, even in environments which may include noise, reflections, or other interference. Such localization systems include conventional sound source localization (SSL) systems based on microphone array inputs, radio source location systems based on directional antenna array inputs, etc. In general, this post-processing system and method applies statistical real-time clustering to initial localization estimates, and then uses this real-time clustering in a multi-stage process to generate new localization estimates having improved precision and reliability relative to the initial localization estimates. | ||||||
| 26 | Plasma generating apparatus | US09987588 | 2001-11-15 | US20020047544A1 | 2002-04-25 | Kazuyasu Nishikawa; Hiroki Ootera; Mutumi Tuda |
| The present plasma generating apparatus includes a vacuum container an anode and a cathode formed by a plurality of electrodes, a power supply for applying a high voltage to anode and cathode, and switching elements for switching the electrodes in anode and cathode to which the high voltage is applied. The combinations of the electrodes are switched by switching elements so as to form a sheet plasma at any desired angle relative to the directional electromagnetic waves. | ||||||
| 27 | Undersea data collection, analysis, and display system | US691581 | 1991-04-23 | US5126978A | 1992-06-30 | Erik Chaum |
| A device and process is disclosed for creating detailed volumetric ocean els, which in turn are used as inputs for naval tactical and oceanographic analysis. Near-real-time volumetric modelling is accomplished by continuously integrating, filtering, interpolating, and extrapolating oceanographic data (e.g., temperature, sound velocity, conductivity, salinity, bathymetry, current, chlorophyll) from historical data bases, forecasts, remote sensors, and onboard sensors. The value of the invention can be appreciated in the detailed, time-varying, three-dimensional ocean models which can be realized for mesoscale and smaller areas and the ability to use these more detailed and timely ocean models for three-dimensional acoustic propagation predictions and combat control algorithms. Tactical and oceanographic models are computed using an advanced processor and the results are displayed using three-dimensional visualization softwaare and hardware techniques. The invention may be used from a submarine, surface ship, or aircraft. | ||||||
| 28 | DEFORMABLE ULTRASOUND ARRAY AND SYSTEM | US15572286 | 2016-04-27 | US20180130457A1 | 2018-05-10 | FRANCISCUS JOHANNES GERARDUS HAKKENS; DEBBIE REM-BRONNEBERG; WIM CROOIJMANS; CORNELIS PETRUS HENDRIKS; SERGEI SHULEPOV; EMIL GEORGE RADULESCU; DENNY MATHEW |
| Disclosed is an ultrasound array comprising a plurality of ultrasound transducer elements (20) on a carrier (10), said carrier further carrying an actuator arrangement (30, 30′) of a material having an adjustable shape in response to an electromagnetic stimulus, e.g. an electro active polymer or optically responsive polymer, wherein the material is arranged to change the orientation of said ultrasound transducer elements in response to said stimulus. This facilitates configurable beam shaping and/or body contour matching with the ultrasound array. An ultrasound system (100) comprising such an ultrasound array is also disclosed. | ||||||
| 29 | Photoelectric conversion apparatus and information processing apparatus | US15371818 | 2016-12-07 | US09876047B2 | 2018-01-23 | Yoichi Wada; Hajime Ikeda; Tatsuhito Goden; Keisuke Ota; Toshinori Hasegawa; Masahiro Kobayashi |
| A semiconductor apparatus includes a first photodiode arranged in a semiconductor substrate, a second photodiode arranged in the semiconductor substrate, a charge voltage conversion part connected to a cathode of the first photodiode and an anode of the second photodiode and configured to convert a charge amount in accordance with electrons generated in the first photodiode and holes generated in the second photodiode into a voltage, and a signal generation part configured to generate a signal in accordance with the voltage of the charge voltage conversion part. | ||||||
| 30 | Combined Active and Passive High-Power RF Protection Circuit | US14950404 | 2015-11-24 | US20170149238A1 | 2017-05-25 | George Zohn HUTCHESON; Gregory Dean McINTIRE |
| An electronic system comprising: 1) an antenna; 2) a transmission line coupled to the antenna; 3) RF electronics circuitry coupled to the transmission line that is sensitive to a high frequency EMI/RF signal on the transmission line; and 4) a protection circuit comprising passive mode circuitry operational when the electronic system is powered off and active mode circuitry operational when the electronic system is powered on. | ||||||
| 31 | EPIPOLAR PLANE SINGLE-PULSE INDIRECT TOF IMAGING FOR AUTOMOTIVES | US14960339 | 2015-12-04 | US20170064235A1 | 2017-03-02 | Yibing Michelle WANG; Ilia OVSIANNIKOV |
| A method and a system are disclosed for detecting a depth of an object illuminated by at least one first light pulse. Detection of light reflected from the object illuminated by the at least one first light pulse by a first row of pixels of 2D pixel array is enabled for a first predetermined period of time in which the first row of pixels forms an epipolar line of a scanning line of a first light pulse. Enabling of the detection by the first row of pixels for the first predetermined period of time occurs a second predetermined period of time after a beginning of a pulse cycle T of the at least one first light pulse. Detection signals are generated corresponding to the detected light reflected from the object, and the generated detection signals are used to determine a depth of the object. | ||||||
| 32 | Microwave transmission apparatus | US13757259 | 2013-02-01 | US09069054B2 | 2015-06-30 | Bing Jiang; Yihua Zhang |
| A microwave transmission apparatus is provided. A multiplexing unit generates multiplexed data based on a service clock rate. An interface unit writes and reads the multiplexed data at the service clock rate and a read clock rate respectively. An encoding and mapping unit performs encoding and mapping on the multiplexed data using a symbol clock rate to generate symbol data, and sends the symbol data to up conversion units. A clock tracking unit generates the symbol clock according to the system clock, and performs frequency division on the symbol clock to acquire the read clock. A stream control unit adjusts the service clock rate according to a water line error generated by the interface unit, so that the service clock rate is equal to the read clock rate. As a frequency and a phase of the system clock are fixed, even ACM switching occurs, the system clock is stably transferred. | ||||||
| 33 | MICROWAVE TRANSMISSION APPARATUS | US13757259 | 2013-02-01 | US20130141272A1 | 2013-06-06 | Bing Jiang; Yihua Zhang |
| A microwave transmission apparatus is provided. A multiplexing unit generates multiplexed data based on a service clock rate. An interface unit writes and reads the multiplexed data at the service clock rate and a read clock rate respectively. An encoding and mapping unit performs encoding and mapping on the multiplexed data using a symbol clock rate to generate symbol data, and sends the symbol data to up conversion units. A clock tracking unit generates the symbol clock according to the system clock, and performs frequency division on the symbol clock to acquire the read clock. A stream control unit adjusts the service clock rate according to a water line error generated by the interface unit, so that the service clock rate is equal to the read clock rate. As a frequency and a phase of the system clock are fixed, even ACM switching occurs, the system clock is stably transferred. | ||||||
| 34 | Compensation of flight path deviation for spotlight SAR | US11433707 | 2006-05-12 | US07277042B1 | 2007-10-02 | Kwang M. Cho; Leo H. Hui |
| A radar acquires a formed SAR image of radar scatterers in an area around a central reference point (CRP). Target(s) are within the area illuminated by the radar. The area covers terrain having a plurality of elevations. The radar is on a moving platform, where the moving platform is moving along an actual path. The actual path is displaced from an ideal SAR image acquisition path. The radar has a computer that divides the digital returns descriptive of the formed SAR image into multiple blocks, such as a first strip and an adjacent strip. The first strip is conveniently chosen, likely to generally align with a part of the area, at a first elevation. An adjacent strip covers a second part of the area at a second elevation. The first strip is overlapping the adjacent strip over an overlap portion. The first and second elevation are extracted from a terrain elevation database (DTED). Horizontal displacement of returns (range deviation) is computed for each strip using the elevation information from the terrain elevation database. Taylor series coefficients are computed for the horizontal displacement due to terrain elevation using the ideal path, the actual path and central reference point. Actual flight path deviation is available at each pulse position while azimuth frequency is given in azimuth angle off mid angle point. Remapping between indices in two arrays is also computed. Phase error compensation and compensation in azimuth (spacial frequency) is computed using the Taylor series coefficients, a Fast Fourier Transform and an inverse Fast Fourier Transform for each strip. Phase error compensation is applied to the digital returns from each strip to obtain the SAR image. The SAR image is further improved by having the first strip corrected data and the second strip corrected data merged over the overlap portion to generate a relatively seamless SAR image. | ||||||
| 35 | System and method for improving the precision of localization estimates | US10791252 | 2004-03-01 | US06970796B2 | 2005-11-29 | Ivan Tashev |
| Precision and reliability of localization estimates derived from conventional localization systems are improved through a system and method for post-processing of initial localization data, even in environments which may include noise, reflections, or other interference. Such localization systems include conventional sound source localization (SSL) systems based on microphone array inputs, radio source location systems based on directional antenna array inputs, etc. In general, this post-processing system and method applies statistical real-time clustering to initial localization estimates, and then uses this real-time clustering in a multi-stage process to generate new localization estimates having improved precision and reliability relative to the initial localization estimates. | ||||||
| 36 | Continuously adaptive dynamic signal separation and recovery system | US08990682 | 1997-12-15 | US06236862B1 | 2001-05-22 | Gamze Erten; Faihi M. Salam |
| A method and apparatus for dynamically separating and recovering original signal sources by processing a set of mixed received mixtures and convolution of said signals utilizing differential equations and a computer. The system of the invention enables the blind separation and recovery of an unknown number of signals mixed together in dynamically changing interference environments with very minimal assumption on the original signals. The system of this invention has practical applications to nonmultiplexed media sharing, adaptive interferer rejection, acoustic sensors, acoustic diagnostics, medical diagnostics and instrumentation, speech, voice, language recognition and processing, wired and wireless modulated communication signal receivers, and cellular communications. | ||||||
| 37 | Microwave detector | US162347 | 1998-09-28 | US6154166A | 2000-11-28 | Motoshi Sawada; Yuichi Kajita; Mitsuhiro Imura; Shinji Koike; Akira Ito; Hisao Ono |
| In order to detect microwaves from radar type speed measurement devices and microwaves leaking out of reverse detectors without being detected by such reverse detectors, a microwave detector is provided with a super-heterodyne type reception circuit for cyclically performing reception operations to receive target microwave frequencies of prescribed microwave bands, the reception circuit including a first local oscillator which can carry out a fixed oscillation at a prescribed frequency or a sweep of a prescribed frequency range established slightly outside the frequency range of the local oscillator of a reverse detector, and a plurality of second local oscillators having different oscillation frequencies, whereby the reception circuit is able to receive microwaves in the target bands and microwaves leaking out of the local oscillator of a reverse detector. | ||||||
| 38 | Apparatus and method for failure diagnosis and calibration of sensors for advanced driver assistance systems | US15202988 | 2016-07-06 | US10026239B2 | 2018-07-17 | Jun Soo Kim; Min Wook Seo; Joo Woong Yang; Sung Yun Kim; Dong Hun Yang; Bong Chul Ko; Gil Won Seo |
| An apparatus for failure diagnosis and calibration of sensors for advanced driver assistance systems (ADAS) includes a measuring unit including two or more sensors mounted in a vehicle a storage for storing characteristic data of each of the two or more sensors, and a processor for selecting one of the two or more sensors as a reference sensor and for determining whether or not a failure of the other sensor to be diagnosed is detected and whether calibration thereof is required, on the basis of error covariance information of the reference sensor. | ||||||
| 39 | System and Method of Driving a Switch Circuit | US15590443 | 2017-05-09 | US20180152188A1 | 2018-05-31 | Der Ju Hung; Yuan Wen Hsiao; Chi-Chia Huang |
| A sequential driving method for driving a switch circuit of a power converter is presented. The method has the steps of driving a switch circuit which contains a power switch, defining a driving sequence; and applying sequentially an electrical parameter to the power switch, based on the driving sequence. Defining a driving sequence includes defining a plurality of different driving levels associated with the electrical parameter and defining a plurality of time windows within a switching time period. Each time window is associated with a driving level among the plurality of driving levels. | ||||||
| 40 | PHOTOELECTRIC CONVERSION APPARATUS AND INFORMATION PROCESSING APPARATUS | US15371818 | 2016-12-07 | US20170170227A1 | 2017-06-15 | Yoichi Wada; Hajime Ikeda; Tatsuhito Goden; Keisuke Ota; Toshinori Hasegawa; Masahiro Kobayashi |
| A semiconductor apparatus includes a first photodiode arranged in a semiconductor substrate, a second photodiode arranged in the semiconductor substrate, a charge voltage conversion part connected to a cathode of the first photodiode and an anode of the second photodiode and configured to convert a charge amount in accordance with electrons generated in the first photodiode and holes generated in the second photodiode into a voltage, and a signal generation part configured to generate a signal in accordance with the voltage of the charge voltage conversion part. | ||||||
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