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 |
|---|---|---|---|---|---|---|
| 61 | Apparatus for tracing infrared ray | JP5240979 | 1979-04-27 | JPS55144565A | 1980-11-11 | TANABE HIROHARU |
| PURPOSE:To provide an apparatus for tracing infrared rays which has high tracing accuracy and no complicated output adjustments by employing a light receiver placed with a rotary disk having an opening between an objective lens and a single infrared ray detector. CONSTITUTION:A light receiver 1 has an infrared ray detector 6 located at a focal point of an objective lens 2 at one end opened at the lens 2. A rotary disk 3 is provided at the position in the vicinity of the detector 6. The central axis 31 of the disk 3 is spaced at predetermined distance R in parallel with an optical axis 8. A light recieving position detector 5 is disposed at the position of a radius R at opposite side between the position of the detector 6 and the central axis 31 of the disk 3, and a light emitting element 51 and a photodetector 52 are oppositely faced at both sides of the disk 3. Since there is one detector 6 in the apparatus, the light receiving output is regularly proportional to the intensity of the incident light. It can judge whether the light source is displaced in either direction from the optical axis 8 by providing transmitting portions 33a, 33b... at the disk 3 so as to increase the tracing accuracy and necessitate no output adjustments enabling an easy handling operation. | ||||||
| 62 | Target detector | JP2140479 | 1979-02-27 | JPS55113970A | 1980-09-02 | OKADA MINORU |
| PURPOSE:To detect only a target signal by a target detector by separating a signal responsive to a target from noise intrinsic for a CCD. CONSTITUTION:A video signal from a CCD is applied to a binary encoder 6 which produces ''1'' when the signal is higher than predetermined level and ''0'' when the signal is lower than predetermined level. The output signal from the encoder 6 is applied through a delay circuit 7 having predetermined time delay to one input of an AND gate 8. The output of the encoder 6 is applied directly to the other input of the AND gate 8. The AND gate 8 thus produces a signal responsive to a target signal only. | ||||||
| 63 | Rotation change-over mechanism | JP16085778 | 1978-12-22 | JPS5585268A | 1980-06-27 | YAMANAKA CHIYAKI |
| PURPOSE:To carry out the accurate change-over of a support shaft and a driving shaft of a driven member whose angular position is to be changed by interposing therebetween a link mechanism defined by a guide groove. CONSTITUTION:A support shaft 87 and a drive shaft 81 of a condensing lens system holder 1 are separately provided, and both shafts are connected by means of a link mechanism 8. In this link mechanism 8, the back-lash of a retarding device 3 or the like is absorbed. In accordance with the rotation of a driving member 82, a sliding shaft 84 makes reciprocating motions within a guide groove. The movement of the sliding shaft 84 is further transmitted through a second movable member 85 to a driven member 86 thereby to rotate the support shaft 87 of a condensing lens system holder 1 at a predetermined angle and to carry out the change-over of the shafts. | ||||||
| 64 | Guiding device | JP13694878 | 1978-11-07 | JPS5563771A | 1980-05-14 | YASUDA KENTAROU |
| PURPOSE:To provide a signal for guiding an object to be guided by so constructing that, reflecting mirrors rotatable around the optical axis as the center are provided in the optical pass in an optical system so that an electric signal corresponding to a two dimensional image may be obtained when it is desired to change the optical axis direction while the detector is being fixed. CONSTITUTION:The optical system consists of the lens 6, the reflecting mirrors 7, 8 fixed to the gyro, and the movable mirror 9 supported by the movable controlled 10. The optical system thus forms on the scanning type sensor 11 an image which rotates corresponding to the rotation of the gyro center 1. The controller 10 has a capability for a definetely defined image to be focused on the sensor 11 even when the optical axis 3 is not perpendicular to the face of the sensor 11. To do so, the controller 10 permits the induced voltage by magnets N and S crossing the sensor coil B to be shifted by 90 deg. by the phase shifter 28 to cause the signal which controls the movable mirror 9 to be properly inclined. The scanning type sensor 11 outputs the image signal. | ||||||
| 65 | Travel locus measuring apparatus | JP6524278 | 1978-05-30 | JPS54156564A | 1979-12-10 | ONO HIROMI |
| PURPOSE:To display and record loci with high accuracy and in real time by operating the positions of a moving object continuously from the angle information obtainable with a plurality of angle tracers which are capable of automatically tracing the light source which is installed to the moving object and becomes a target thereby obtaining the travel loci. CONSTITUTION:A light source 2 mounted to a moving object 1 generates modulated light from a lamp 3 by its oscillator 4 and modulator 5. The modulated light from the light source 2 is automatically traced by the reflecting mirrors 7 of two units of angle tracers 6, 6' which are installed at the predetermined spacing. The abovementioned tracer 6 condenses the modulated light from the light source 2 in an optical system 8, converts this to an electric signal with a photoelectric transducer 9, sends this through a signal processor 10 and feeds the same back to the reflecting mirror 7 through servo amplifier 11 and servo mechanism 12, thereby letting the reflecting mirror 7 trace the light source 2. The output of the processor 10 is digitized by an A/D converter 13 and at the same time the both of this and the output of an angle detector 14 indicating the angle from the reference line of the reflecting mirror 7 are inputted to a code translator 15. A CPU 17 calculates the position of the moving body 1 from the spacing of two units of the tracers 6, 6' and the angle output of the detector 14 in real time and displayes and records the same. | ||||||
| 66 | Solar angle determining device for satellite | JP4569678 | 1978-04-18 | JPS54137372A | 1979-10-25 | INAGAWA YOSHIYUKI |
| PURPOSE:To obtain all the necessary information for positioning a satellite without any use of a solar sensor by using a special satellite sensor. CONSTITUTION:There is prepared a satellite sensor 5, in which a different is established between the sensor output levels from the day and night sides of a satellite and by which the reflected light from those sides by the action of the solar light is discriminated. The satellite sensor 5 is connected with an A/D converter 6 and a circuit 7 for determining the width of the earth and a spin rate. As a result, the output of the sensor 5 is differentiated by a determing circuit 7 into leading edge signals and into trailing edge signals. The pulse generation is accomplished in response to the former signals whereas the pulse interruption is accomplished in response to the latter signals. Thus, the width of the satellite and the pulse train are expressed to generate an output B. And, pulse output A for determining the width of the satellite at the day (and night) sides is generated. As a result, it is possible to determine the solar angle merely by attaching the two satellite sensors 5 in the reference directions of + and - sides to the normal plane of a spin stabilizing type satellite. | ||||||
| 67 | Steering signal converting system | JP11259976 | 1976-09-20 | JPS5337458A | 1978-04-06 | KOBAYASHI ATSUHIRO |
| PURPOSE:To direct a flying body toward the target by matching the steering signals being received to the coordinates of the revolving flying body thereby performing coordinate exchanging in the revolving guided flying bofy which receives the steering signals being intermittently transmitted. | ||||||
| 68 | METHOD FOR DETERMINING POSITION ACCURACY OF A MODULAR SHELVING | US16116623 | 2018-08-29 | US20190064309A1 | 2019-02-28 | Danika Goecke; Nicholaus A. Jones; Harika Valluripalli |
| A laser beam is transmitted from a laser system to a shelving system by pointing the laser beam towards at least one label attached to the shelving system, by a computer system, using angular information of the laser beam relative to a reference frame. An angle between the laser system on the ceiling of the store to the position of the shelving system is determined by the computer system using the position of the laser system and the position of the shelving system. The laser beam is then transmitted from the laser system to the shelving system and pointed using the determined angle between the laser system on the ceiling of the store to the position of the shelving system. The laser is aimed at the x, y location where a label should be displayed, for example, according to the planogram for the store layout. If the label is not detected at the specified location, the discrepancy may be noted, for example, with a visual or other notification. | ||||||
| 69 | DEVICE FOR LIFTING AND RECOVERING SEABED RESOURCE | US15775230 | 2016-11-11 | US20180298754A1 | 2018-10-18 | Takatoshi KODAIRA; Takamoto KODAIRA |
| The present invention relates to a system for collecting, lifting, and recovering seabed mineral resources, specifically, a device wherein hydrogen gas is evolved on the seabed, resources are lifted by the buoyancy of the gas to the sea surface, and the hydrogen gas which has become an excess buoyancy source during the lifting and recovering is absorbed into an organic substance including toluene, thereby yielding hydrogenated compounds including cyclomethylhexane to recover the energy required for hydrogen gas production. | ||||||
| 70 | COMPREHENSIVE SYSTEM AND METHOD OF UNIVERSAL REAL-TIME LINKING OF REAL OBJECTS TO A MACHINE, NETWORK, INTERNET, OR SOFTWARE SERVICE | US16005193 | 2018-06-11 | US20180293865A1 | 2018-10-11 | Pooya H. Kazerouni |
| A system for detecting placement or misplacement of an object, comprising: a wireless tag; a first set of instructions which cause a first electronic device (“FED”) associated with the tag to automatically detect signals from the tag, determine a position of the FED, transmit the position and status to an external electronic device (“EED”) in response to the status indicating that the tag and the FED are within a predetermined range, and transmit the position and status to the EED in response to the status indicating that the tag and the FED are outside of the predetermined range; a second set of instructions which cause a second electronic device (“SED”) that is unassociated with the tag to automatically detect signals from the tag, determine a position of the SED, determine an identifier for the tag using the signals, and transmit the position and the identifier to the EED. | ||||||
| 71 | Imagers with depth sensing capabilities | US14966045 | 2015-12-11 | US10014336B2 | 2018-07-03 | Gennadiy Agranov; Dongqing Cao; Junichi Nakamura; Richard Scott Johnson |
| An imager may include depth sensing pixels that provide an asymmetrical angular response to incident light. The depth sensing pixels may each include a substrate region formed from a photosensitive portion and a non-photosensitive portion. The depth sensing pixels may include mechanisms that prevent regions of the substrate from receiving incident light. Depth sensing pixel pairs may be formed from depth sensing pixels that have different asymmetrical angular responses. Each of the depth sensing pixel pairs may effectively divide the corresponding imaging lens into separate portions. Depth information for each depth sensing pixel pair may be determined based on the difference between output signals of the depth sensing pixels of that depth sensing pixel pair. The imager may be formed from various combinations of depth sensing pixel pairs and color sensing pixel pairs arranged in a Bayer pattern or other desired patterns. | ||||||
| 72 | Comprehensive system and method of universal real-time linking of real objects to a machine, network, internet, or software service | US15156726 | 2016-05-17 | US09997043B2 | 2018-06-12 | Pooya H. Kazerouni |
| Methods of connecting or linking real objects to machines or the virtual world in real time utilizing a device are disclosed. In one embodiment, a wireless tag attached to an object in communication with an electronic device, such as a cellular phone, tablet computer, laptop computer, or watch, monitors and updates the position of a wireless tag locally and on a machine/network/cloud. Methods of using a wireless tag in safety, loss/theft prevention, healthcare, tracking, advertising and marketing, education, games, finance, payment, and athletic are disclosed. In another embodiment, methods of providing an application programming interface and/or a software development kit based on the devices are provided, allowing software developers the ability to create their own programs or applications on top of the disclosed system is disclosed. Methods of allowing developers to distribute and/or monetize applications developed through the application programming interface and/or a software development kit are also disclosed. | ||||||
| 73 | Detection of oncoming vehicles with IR light | US15260583 | 2016-09-09 | US09984567B2 | 2018-05-29 | David Karl Bidner; Timothy Joseph Clark |
| Infrared light is detected in a vehicle computer via an infrared sensor from a source outside the host vehicle. The computer can further determine that the infrared light was generated from a source in a second vehicle, detect the second vehicle based at least partly on the detected infrared light and possibly also partly on input from a host vehicle collision detection sensor. | ||||||
| 74 | SENSOR ARRANGEMENT AND METHOD FOR OPERATING A SENSOR ARRANGEMENT | US15811473 | 2017-11-13 | US20180081022A1 | 2018-03-22 | David MEHRL; Kerry GLOVER |
| A sensor arrangement comprises at least a first, a second, and a third light sensor. A three-dimensional framework comprises at least a first, a second, and a third connection means which are connected to the at least first, second, and third light sensor, respectively. The first, the second, and the third connection means are configured to align the at least first, second, and third light sensor along a first, second, and third face of a polyhedron-like volume, respectively, such that the sensor arrangement encloses the polyhedron-like volume. The invention also relates to a method for operating the sensor arrangement. | ||||||
| 75 | Aircraft Laser Detector | US15151045 | 2016-05-10 | US20170328986A1 | 2017-11-16 | Kurt M. Chankaya; Mike Ivor Jones |
| In certain embodiments, an apparatus comprises a laser detector, a lens, a Global Positioning System (“GPS”) receiver, a digital ground map, a tilt measurement device, and one or more processors. The laser detector is operable to detect a laser light emitted from a laser source, the lens is operable to pass the laser light to the laser detector, the GPS receiver is operable to determine a GPS location of an aircraft, and the tilt measurement device is operable to determine a tilt angle of the aircraft. The one or more processors of the apparatus are operable to determine a line of sight based on the detected laser light, the GPS location, and the tilt angle. The one or more processors are further operable to determine a location of the laser source from an intersection of the line of sight and the digital ground map. | ||||||
| 76 | Systems and methods for detecting light | US14643386 | 2015-03-10 | US09689956B2 | 2017-06-27 | Mark Joseph Clemen, Jr. |
| A light detection system may include a light detecting assembly including a plurality of light detectors. Each light detector may include a substrate, a mirror coupled to the substrate, and a light-receiving tube coupled to the substrate. The light-receiving tube may include a sensor positioned at a first end, a light-transmissive opening at a second end that is opposite from the first end, and a plurality of partitions that are configured to block transmission of light energy. A central light path extends through the light-receiving tube. The system may also include a control unit in communication with the light detecting assembly. The control unit is configured to determine one or more of a direction of light emitted from a light source, a position of the light source, or an intensity of light emitted from the light source based on one or more light detection signals received from the light detecting assembly. | ||||||
| 77 | Electromagnetic sensor and optical detection system for detecting angle of arrival of optical signals and a range of a source of the optical signals | US14218607 | 2014-03-18 | US09671489B1 | 2017-06-06 | Olaleye A. Aina; Tom Pierce; Ayub M. Fathimulla |
| An optical detection system for detecting an incident optical signal is described. The system includes an optical package adapted to collect the incident optical signal and directed it to a detector array that is coupled thereto. The array outputs electrical signals to be analyzed by a processor. The processor is adapted to iterate algorithms using the signals to calculate an incident angle of arrival for the incident optical signal and a range of the source of the optical signal to the system based on the angle of arrival calculation. The processor is further configured to discriminate the optical signal spectrally to calculate wavelengths thereof for false alarm rejection. | ||||||
| 78 | Non-contact fiber optic localization and tracking system | US14253093 | 2014-04-15 | US09599697B2 | 2017-03-21 | Leo R. Gauthier, Jr. |
| A system for detecting and tracking one or more of direction, orientation and position of one or more light sources includes one or more optical fiber sensors configured to receive light from the one or more light sources and to generate a plurality of cones of light according to relative positions of the one or more optical fiber sensors relative to the one or more light sources. The system includes light data processing circuitry configured to detect characteristics of the plurality of cones of light and to determine one or more of direction, orientation, or position of the one or more light sources relative to the one or more optical fibers. | ||||||
| 79 | Methods and systems for use in tracking targets for use in direction finding systems | US13473963 | 2012-05-17 | US09523758B2 | 2016-12-20 | Benjamin Alan Stensland; Kevin Luke Mace; David Mark McClelland |
| A first user device transmits a first signal, and a second user device transmits a second signal. A processing unit receives the first signal and the second signal. The processing unit identifies the first user device as an active target and the second user device as an active tracking device based on a predefined rule set including a plurality of selection criteria. | ||||||
| 80 | TRACKING DEVICE FOR PORTABLE ASTROPHOTOGRAPHY OF THE NIGHT SKY | US14728905 | 2015-06-02 | US20160360096A1 | 2016-12-08 | ALAN HOLMES |
| A tracking device for use when performing astrophotography comprises a guider camera and at least one tilt stage, with the topmost of the tilt stages arranged to support an astrophotography camera and the guider camera. Actuators are coupled to the tilt stages such that the astrophotography and guider cameras can be tilted about three axes. The guider camera and actuators are connected to electronics which include a computer programmed to operate in a calibration mode and a tracking mode. In calibration mode, a calibration procedure determines the effect of each actuator on the positions of at least two objects within the field-of-view (FOV) of the guider camera. In tracking mode, the actuators are operated as needed to maintain the positions of the at least two objects constant within the said FOV. | ||||||
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