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    • 81. 发明专利
    • EVALUATOR OF AUTONOMIC NERVE FUNCTION
    • JPH09215664A
    • 1997-08-19
    • JP2504996
    • 1996-02-13
    • NIPPON COLIN CO LTD
    • INUKAI HIDEKATSUSAKAI HIROSHI
    • A61B5/0205A61B5/0245A61B5/0402A61B5/145A61B5/1455A61B5/14
    • PROBLEM TO BE SOLVED: To enable handy and inexpensive evaluation of an autonomic nerve function of an organism. SOLUTION: This apparatus evaluates the function of an autonomic nerve of an organism based on a first fluctuation component HFC comprising a frequency component almost equal to a respiration frequency of an organism which is extracted from a fluctuation of a pulse cycle TRR of the organism as detected continuously and a second fluctuation component LFC comprising a specified frequency component lower than the respiration frequency of the organism extracted from changes in the blood pressure value of the organism as detected continuously. A time difference TDRP is continuously calculated by a time difference calculation means 64 up to the maximum inclination point of a photoelectric pulse of the organism which is detected by a photoelectric pulse detection probe 12 sequentially from an R wave of an electrocardio induction wave of the organism detected sequentially by an electrocardio induction device 48. Changes in the inverse of the time difference TDPP are estimated by a blood pressure change estimation means 66 as changes in the blood pressure value.
    • 83. 发明专利
    • BLOOD PRESSURE MONITOR
    • JPH09168515A
    • 1997-06-30
    • JP33207695
    • 1995-12-20
    • NIPPON COLIN CO LTD
    • INUKAI HIDEKATSUSAKAI HIROSHI
    • A61B5/0245A61B5/022
    • PROBLEM TO BE SOLVED: To reduce the frequency of blood pressure measurement using a cuff and load on a human body, by actuating blood pressure measurement motion using a cuff when the change trend of the reciprocal of the phase difference between a pressure pulse wave and an electrocardiac induction wave and the change of monitored blood pressure are different. SOLUTION: When an electrocardiac induction wave is detected by an electrocardiac induction device 60 and a pressure pulse wave generated in an artery of a human body is detected by a pressure wave sensor 46, the phase difference between both waves is calculated by a phase difference calculation means 76 and the change value of the reciprocal of the phase difference is calculated by a phase difference reciprocal change value calculation means 78. On the other hand, when a monitored blood pressure value is determined by a monitored blood pressure value determination means 74 based on a pressure pulse wave, a change value of the maximum blood pressure value at the monitored blood pressure value is calculated by a monitored blood pressure change value calculation means 80. When a comparison value between the change value of the reciprocal of the phase difference and the change value of the maximum blood pressure value exceeds a prescribed standard value, blood pressure motion using a cuff according to a blood pressure measurement means 70 is actuated by an actuating means 82.
    • 85. 发明专利
    • ANESTHETIC DEPTH DETECTOR
    • JPH08322824A
    • 1996-12-10
    • JP13694895
    • 1995-06-02
    • NIPPON COLIN CO LTD
    • NOMURA HISAFUMITSUDA SHUICHI
    • A61B5/0205A61B5/16A61M16/01
    • PURPOSE: To make it possible to objectively detect the anesthetic depth of a living body. CONSTITUTION: A first heart beat period fluctuation signal HFCRR which is the fluctuation component of the heartbeat period generated in approximately synchronization with the respiration of the living body from the fluctuations in the heartbeat periods of the living body detected continuously from a heartbeat period detecting means 50 and the second heartbeat period fluctuation signal LFCRR consisting of the prescribed frequency component lower than this first heartbeat period fluctuation signal HFCRR are extracted by a heartbeat period fluctuation signal extracting means 52. The anesthetic depth DRR of the living body is determined in accordance with the ratio (LFCRR/BFCRR) between the first heartbeat period fluctuation signal HFCRR and the second heartbeat period fluctuation signal LFCRR. Then, the objective or quantitative determination of the anesthetic depth of the living body is made possible and the anesthetic depth of the living body is exactly detected without requiring skill, etc.
    • 86. 发明专利
    • MEASURING DEVICE FOR PULSE WAVE PROPAGATION VELOCITY
    • JPH08257002A
    • 1996-10-08
    • JP6727495
    • 1995-03-27
    • NIPPON COLIN CO LTD
    • OKA SUSUMUSAKAI HIROSHI
    • A61B5/0245
    • PURPOSE: To provide a measuring device for pulse wave propagation velocity by which pulse wave propagation velocity can be obtained with good accuracy. CONSTITUTION: Transmission velocity VM of a pulse wave in artery is calculated based on a time differential TDRP in a propagation velocity calculating means 82, when the time differential TDRP from a specified site at which an electrocardiograpahic induction waveform detected by an electrocardiographic induction device 60 is generated periodically to the specified site at which the pulse wave detected by a pressure pulse wave sensor 46 is generated periodically is calculated by a time differential calculating means 80. This propagation velocity VM is calculated based on the distance including propagation in the aorta connected to a heat, therefore the pulse wave propagation velocity is obtained with high accuracy in comparison with that in the conventional case which is calculated base on a little time differential, because the propagation distance is long and the propagation time, in order words the time differential TDRP is prolonged due to low pulse wave propagation velocity in artery as a diameter of the aorta is large.
    • 87. 发明专利
    • MYOCARDIAL ISCHEMIA EVALUATOR
    • JPH08238224A
    • 1996-09-17
    • JP4469395
    • 1995-03-06
    • NIPPON COLIN CO LTD
    • OKA SUSUMUTSUDA SHUICHI
    • A61B5/022A61B5/0245
    • PURPOSE: To perform relatively accurate noninvasive evaluation of myocardial ischemia of a heart by extracting a blood pressure change low frequency signal from changes in pressure values detected continuously to display blood pressure change low frequency signals or the like obtained before or after the application of a specified dynamic load to an organism in such a manner as to be comparable mutually. CONSTITUTION: A cuff blood pressure measuring means 62 measures the maximum blood pressure value and the minimum blood pressure value of an organism based on changes in the size of a pulse wave obtained as pressure vibration of a blood pressure cuff 10. Besides, a pressure pulse wave sensor 46 detects a pressure pulse wave generated at a part on the down stream side of the artery from the part where the blood pressure cuff 10 of a patient is mounted. A continuous blood pressure measuring means 64 determines a corresponding relationship between a pressure pulse wave and the blood pressure value to measure a blood pressure value based on the pressure pulse wave. A blood pressure change frequency analysis means 70 executes a frequency analysis of the fluctuation of the blood pressure values detected continuously. Moreover, a display means 76 displays a blood pressure change low frequency signal obtained before or after the application of a specified dynamic load to the organism or a target value calculated based on the signal on a screen of a display in such a manner as to be comparable mutually.
    • 88. 发明专利
    • BLOOD PRESSURE MONITOR APPARATUS
    • JPH08191803A
    • 1996-07-30
    • JP480695
    • 1995-01-17
    • NIPPON COLIN CO LTD
    • SHINODA MASAYUKI
    • A61B5/022
    • PURPOSE: To provide a blood pressure monitor apparatus capable of monitoring blood pressure without pressing load upon a living body too much. CONSTITUTION: When the phase difference DCP between the pulse waves detected by a pair of pulse wave sensors is calculated by a phase difference calculation means 80, the phase difference blood pressure corresponding relation between the phase differenece DCP and a blood pressure value is determined in a phase difference blood pressure corresponding relation determining means 82. When the difference between the phase difference DM obtained based on the monitor blood pressure value MBP determined by a monitor blood pressure determining means 76 from the phase difference blood pressure corresponding relation and the phase difference DCP obtained by the phase difference calculation means 80 is within a preset judge reference value αat the start time of the measurement of blood pressure by a blood pressure measuring means 72, the measurement of blood pressure is completed by a blood pressure completion means 82. Therefore, in a state reduced in the shift of pressure pulse wave blood pressure corresponding relation, it is eliminated that the measurement of blood pressure for re-determining the pressure pulse wave blood pressure corresponding relation is unnecessarily executed and blood pressure measuring frequency using a cuff is reduced and the load on a living body is reduced.
    • 90. 发明专利
    • MEDICAL LIVING BODY MONITORING DEVICE
    • JPH08164116A
    • 1996-06-25
    • JP31309494
    • 1994-12-16
    • NIPPON COLIN CO LTD
    • NUNOME TOMOHIRO
    • A61B5/00
    • PURPOSE: To provide a medical living body monitoring device capable of automatically reading and displaying medical information described on a chart. CONSTITUTION: When an image displayed on the chart 14 is read optically by an optical type image signal output device 12 and an image signal SG in accordance with the image is outputted, a character described on the chart 14 is recognized by a signal conversion means 50 based on the image signal SG, and a character signal SC representing the character is outputted. A record described on the chart 14 is displayed on a display 28 by a control means 52 based on the character signal SC outputted from the signal conversion means 50. Therefore, since it is not required to copy the medical information described on the chart 14 manually on a bulletin board, or to perform an input operation from a keyboard, no error due to handwriting or the input operation exists in the display content of the medical information, which accurately transmits the medical information of a living body to a person engaged in medical service, and also, no complicated work is required.