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    • 11. 发明专利
    • SERVER REMOTE CONTROLLER
    • JP2002157146A
    • 2002-05-31
    • JP2000352473
    • 2000-11-20
    • NIPPON TELEGRAPH & TELEPHONE
    • HIRAGA TAKAICHIKATAYAMA ATSUSHI
    • G06F11/30G06F11/22
    • PROBLEM TO BE SOLVED: To maintain a controlled server from a remote place even if an OS of the controlled server crashes. SOLUTION: In this server remote controller maintaining and managing the server installed in a remote place by a server hosting service or the like, a CPU 15 executes and controls at least programs for screen contents transmission and operation contents transmission or the operating system of the server remote controller, an HDD 19 allows free writing and reading and stores at least the programs or the operating system, a bridge 11 connects a bus inside the server remote controller ad a bus inside the controlled server, an input/ output emulator 13 executes and controls an input/output means of the controlled server, and a communication means 12 communicates the server remote controller with a terminal of a remote maintenance manager. In the case that the HDD 19 is used as a storage means common to plural server remote control boards each having the CPU 15, the bridge 11 and the communication means 12, the plural servers can be managed.
    • 12. 发明专利
    • RANGE MEASURING DEVICE
    • JPH11211460A
    • 1999-08-06
    • JP1534898
    • 1998-01-28
    • NIPPON TELEGRAPH & TELEPHONE
    • NAKAYAMA JOJIKATAYAMA ATSUSHI
    • G01B11/00G01C3/06
    • PROBLEM TO BE SOLVED: To provide a range measuring device capable of performing a highly precise range finding even if a secondary multiple reflected light is present. SOLUTION: This device is provided with a light source 1; a one-dimensional photodetector 9 for converting a received light energy into an electric signal according to the position and intensity of the light; an imaging means for imaging the reflected light of the optical beam from the light source reflected by the surface of a matter to be measured on the light receiving surface of the photodetector 9 as a light spot; a first projection control means for controlling the optical beam emitted from the light source to a first axial direction by a first rotating mirror 13; a second projection control means for controlling the light leaving the first projection control means to a second axial direction by a second rotating mirror 12; and a light receiving control means for controlling the imaging of the light spot formed in a position where the optical beam from the light source 1 is emitted to the matter to be measured onto the photodetector by a third rotating mirror 14 synchronized with the second rotating mirror 12 of the second projection control means.
    • 13. 发明专利
    • IC CARD TERMINAL EQUIPMENT
    • JPH05153212A
    • 1993-06-18
    • JP34173091
    • 1991-12-02
    • NIPPON TELEGRAPH & TELEPHONE
    • KATAYAMA ATSUSHIMABUCHI HIROSHINISHI HIROYUKI
    • G06K17/00H04M1/00
    • PURPOSE:To automatically start the special function of a private exchange only by means of inserting an IC card by comparing the content of an instruc tion procedure storage memory in the IC card with the content of respective instruction storage memories provided for terminal equipments. CONSTITUTION:The special function start instruction procedure of the private exchange 20 is previously stored in the instruction procedure storage memory 2 in the IC card. An instruction means is composed by combining a hooking signal generation instruction, a PB signal generation instruction, a tone signal detection instruction and a silent period generation instruction. When the IC card is mounted, the instruction procedures stored in the instruction procedure storage memory 2 are sequentially read in an IC card read part 3, and they are compared with respective memories stored in the respective memories 6-9 in an instruction comparison circuit 5. The circuit corresponding to the discriminated instruction in a hooking signal generation circuit 10, a PB signal generation circuit 11, a tone signal detection circuit 12 and a silent period generation circuit 13. The signals are sequentially transmitted to the private exchange 20 so as to execute a necessary operation.
    • 17. 发明专利
    • SHAPE-MEASURING APPARATUS
    • JP2001264030A
    • 2001-09-26
    • JP2000069996
    • 2000-03-14
    • NIPPON TELEGRAPH & TELEPHONE
    • KATAYAMA ATSUSHINAKAYAMA JOJI
    • G01B11/24
    • PROBLEM TO BE SOLVED: To provide a shape-measuring apparatus filling for both the need to search for an object measurement before succeeding in shape recognition, and the need to measure the shape of the object, after succeeding in shape recognition. SOLUTION: This instrument is equipped with a light source, a light-scanning means for scanning with a light beam in the direction of a first axis, a photoelectric transducing means for transducing the energy of received light into an electrical signal, corresponding to the position and intensity of the light, a focusing means for focusing laser light emitting from the source and reflected by a surface of the object to a light spot on the transducing means, a focusing position calculating means, for calculating at what position of the transducing mean the spot is focused from the signal outputted from the transducing means, and a distance calculating means for calculating the distance to the object from the output of the position calculating means. IT is further equipped with a shape recognizing means for collecting distance outputs of the distance calculating means for a fixed period of time, to recognize the shape of the object from the colleted outputs, a waveform-generating means for changing a generated waveform, when the recognizing means succeeds in shape recognition, and a driving means for driving the scanning means, based on the output of the generating means.
    • 18. 发明专利
    • MEASURING APPARATUS FOR DISTANCE
    • JP2000146521A
    • 2000-05-26
    • JP31269298
    • 1998-11-04
    • NIPPON TELEGRAPH & TELEPHONE
    • KATAYAMA ATSUSHINAKAYAMA JOJI
    • G01B11/00G01C3/06
    • PROBLEM TO BE SOLVED: To prevent the lowering of the precision of distance measurement caused by the intensity change of a reflected light without damaging a high- speed property, by controlling the emission of a laser beam source by the intensity of the received reflected light, in distance measurement by a laser beam. SOLUTION: A distance measuring apparatus is provided with a laser beam source 11, a pulse width controlled laser beam source driver 12, a comparator 13, an integrator 14, a photodiode 15, and a half mirror 17. A part of a reflected light 7 reflected by the surface of an object 21 enters the photodiode 15 by the half mirror 17. The output of the photodiode 15 is integrated by the integrator 14. If the integrated value reaches a predetermined threshold value Vh, the comparator 13 detects it, and stops emission of the laser beam source 11 by the source driver 12. Consequently, the quantity of a received light of a CCD sensor 18 becomes constant regardless of the intensity of the reflected light 7. A laser device does not break even if high-speed switching is performed, by performing control with the time duration of lighting of the beam source 11.
    • 19. 发明专利
    • SHAPE MEASURING APPARATUS
    • JPH10148512A
    • 1998-06-02
    • JP30606096
    • 1996-11-18
    • NIPPON TELEGRAPH & TELEPHONE
    • KANEKO TORUKATAYAMA ATSUSHINAKAYAMA JOJI
    • G01B11/24
    • PROBLEM TO BE SOLVED: To obtain a shape measuring apparatus by which an alignment operation can be performed easily and by which the influence of background noise light can be reduced by forming a one-dimensional slit in the image formation position of a spot image so as to be imaged by a two-dimensional light-receiving element via an optical system, and computing a three-dimensional position by triangulation. SOLUTION: A projected beam 1 is deflected by a rotating mirror 5 so as to be a projected beam 1', light spot images P'-1 to P'-3 are formed by the existing position of an object, to be measured, in an optical path, and the images are formed on an image formation line 4 via the rotating mirror 5 and a light-receiving lens 3. They are passed through a rotating mirror 8 by a relay lens system 6, and light spot images R'-1 to R'-3 are formed on an image formation line 7'. When the rotating mirrors 5, 8 are rocked synchronously, the image formation line 7' is moved to a direction at right angles to the shaft of the rotating mirror 8. A two-dimensional light-receiving element 10 is installed along the movement face of the image formation line 7', and the track of a light spot image is imaged. The axis, on one side, of the image of the track is used as the deflection direction of the light-projecting beam 1', its axis, on the other side, at right angles is used as an axis which expresses a parallax, the axes are computed by triangulation in every direction, and the coordinates of the position of every point are computed.
    • 20. 发明专利
    • DISTANCE MEASURING METHOD AND DEVICE
    • JPH10111106A
    • 1998-04-28
    • JP26290596
    • 1996-10-03
    • NIPPON TELEGRAPH & TELEPHONE
    • KATAYAMA ATSUSHI
    • G01B11/00G01C3/06
    • PROBLEM TO BE SOLVED: To enable the measurement of distance with high accuracy by rotating a light source about the optical axis of light beam and continuously detecting displacement for a longer period of time than the light source is rotated one turn. SOLUTION: A light source 1 is fixed to the tip of the rotating shaft 24 of a motor 23 and rotated about the optical axis of its light beam 2. A control measuring means 21 drives the motor 23, and the light beam 2 generates a light spot Q on the surface of an object to be measured 3. Its reflecting light 7 is brought to form an image on the light receiving plane 10 of a light receiving element 9 and continuously detected for a longer period of time than the light source 1 is rotated one turn. The point of intersection of a line which passes through the center O of a light receiving lens 8 and is in parallel to the light receiving plane 10 and the light beam 2 is taken as a reference point P. The distance y from the reference point P to the light spot Q satisfies the following equation from the principle of similarity of triangles; y=AB/x (A: distance from the point of intersection R of a line which passes through the center O and is in parallel to the light beam 2 and an extended line of the light receiving plane 10 to the center O, x: distance from R to an image-forming location S). As the distance A and B is constant, and it is possible to calculate y from x in the control measuring means 21.