Abstract: An abdomen width determiner determines an abdomen width of a subject. A shape index calculator calculates a shape index corresponding to a cross-sectional shape of an abdomen of the subject. An obesity evaluator evaluates whether an obesity degree of the subject is high or low. An obesity index calculator calculates an obesity index corresponding to the abdomen width using a first equation if the obesity evaluator evaluates that the obesity degree is low, and calculates an obesity index corresponding to the abdomen width and the shape index using a second equation different from the first equation if the obesity evaluator evaluates that the obesity degree is high.

Abstract: An index calculating section calculates an edema index value indicating the level of edema at a target portion of the body of a human subject, according to a bioelectric impedance of the target portion. An edema evaluation section identifies the edema stage corresponding to the edema index value calculated by the index calculating section from among a plurality of edema stages indicating the degrees of progress of edema symptoms. A result reporting section reports the edema stage identified by the edema evaluation section to the user.

Abstract: A biological signal processor includes a sensor unit 2 that is usable with a mattress, measures biological displacement of a subject on the mattress, and outputs a measurement signal indicative of a measurement result, a signal processing unit 7 that amplifies the measurement signal with a plurality of different gains and outputs respective output signals, an AD converting unit 8 that performs AD conversion on the respective output signals to obtain level values and outputs the respective level values, and a determining unit 90 that determines that the sensor unit 2 is in an abnormal condition in case where a variation measure indicative of variation degree in level value corresponding to an output signal amplified with a minimum gain among the respective level values is equal to or less than a predetermined value.

Abstract: A health data generation system has a measuring apparatus and a user terminal. The measuring apparatus transmits to the user terminal function type information indicating function of the measuring apparatus. The user terminal selects a desired function based on the received function type information and transmits the selected function as function designation information to measuring apparatus. The measuring apparatus transmits to the user terminal parameter specifying information designating the types of parameters necessary for performing the function specified by the function designation information. The user terminal prompts a user to input individual data to the parameters and registers the individual data together with the function designation information as registration information R.

Abstract: A sleep measurement system including a sleep monitor for measuring biometric data relating to user's sleep, an external terminal for displaying a state of said user's sleep, a first server for storing first data received from said sleep monitor and providing the first data to said external terminal, and a second server for analyzing said user's sleep on the basis of second data received from said sleep monitor and providing an analysis result to said external terminal. The sleep monitor processes the biometric information in each unit interval, sends a processing result of said biometric information in each unit interval to said first server as the first data, and sends said biometric data accumulated during said user's sleep and said processing result of said biometric information in each said unit interval to said second server as said second data.

Abstract: A blood pressure measurement apparatus includes a blood pressure measurement unit, a bio-information acquisition unit, a depth calculation unit, a storage unit and a decision unit. The bio-information acquisition unit continuously acquires bio-information of a subject. The depth calculation unit repeatedly calculates depth indices each indicating a sleep stage of the subject on the basis of the acquired bio-information. The storage unit stores the calculated depth indices. The decision unit decides whether the sleep stage of the subject in sleep satisfies a starting condition, on the basis of a first depth index stored in the storage unit and a second depth index calculated by the depth calculation unit. The blood pressure measurement unit measures blood pressure data of the subject when the sleep stage is decided to satisfy the starting condition.

Abstract: The invention provides a biometric apparatus which is able to determine the orientation of a measured person irrespective of the orientation of the measured person on the biometric apparatus or irrespective of the orientation of arrangement of the biometric apparatus and hence flow an electric current constantly through the same route and measure the voltage generated in the route, thereby providing accurate and reliable biometric data.

Abstract: A present-on-bed determination apparatus includes: a sensor unit usable with a bottom bedding and configured to measure biological displacement of a human subject on the bottom bedding so as to output a measurement signal showing a measurement result; a first signal processing unit configured to amplify the measurement signal with a first gain so as to output a first output signal; a first A/D conversion unit configured to output a plurality of first level values obtained by A/D conversion of the first output signal; and a determination unit configured to determine whether or not the human subject is present on the bottom bedding in accordance with a dispersion indicator that indicates dispersion degree of the plurality of the first level values.

Abstract: A condition information processing apparatus (100A) includes: an obtaining section (31) that obtains information relating to a bioelectrical impedance measured by means of impressing an alternating current of a predetermined frequency to a body surface of a user. An operating section (38) calculates an index relating to a body condition on the basis of the information relating to the bioelectrical impedance.

Abstract: A biometric measurement apparatus has a measurement unit for measuring bioelectric impedance of different parts of a body and hematocrit. The measurement unit has impedance calculators (IPG1, IPG2) for measuring the impedance of tissues and blood of a living body with a first frequency to output as a first impedance (Z1), and for measuring the impedance of the tissues and blood of the living body with a second frequency to output as a second impedance (Z2), and has pulse wave analyzing units (MS1 and MS2) for analyzing differences of the first impedance between a first time and a second time and difference (?ZH) of the second impedance between the first time and the second time, and a hematocrit calculator (245) for calculating hematocrit based on the difference (?ZL) of the first impedance and the difference (?ZH) of the second impedance.

Abstract: The invention provides a biometric apparatus having a display which allows a measured person to recognize biometric data easily and reliably irrespective of whether the measured person is on a platform or not. The biometric apparatus for measuring biometric data of the measured person includes the platform on which the measured person gets on, a sensor unit for acquiring the biometric data of the measured person; a display for displaying the biometric data acquired by the sensor unit; and a control unit for determining whether the measured person is on the platform or not on the basis of a signal from the sensor unit and changes the display mode to display the biometric data on the display according to the determination thereof.

Abstract: A water quality analyzer comprises: sensor electrodes 1a, 1b made of different metals from each other, the electrodes in a liquid of inspecting object generating a sense voltage in proportion to the liquid's impurities concentration; an operational amplifier OP1 amplifying the sense voltage without inverting to provide for a CPU 3; a resistor R0 whose one end is connected to the electrode 1a; and a voltage divider 2 applying a voltage obtained by dividing the sense voltage by a prescribed division ratio to R0's another end. The CPU 3 calculates input signal from OP1 to obtain chlorine concentration and displays the calculated result on a LCD 4 in a measurement mode, and sets the division ratio of the divider 2 so that sense voltage across electrodes 1a, 1b soaked in a liquid including prescribed concentration chloride approximately agrees with a reference voltage of prescribed concentration in a sense-voltage calibration mode.

Abstract: An AD conversion apparatus includes a shift signal generating portion configured to generate n shift signals (n is a natural number greater than one) of which amplitudes are different from each other; a shift signal controlling portion configured to control the shift signal generating portion; a compounding portion configured to compound input analog signal and the n shift signals sequentially into n first signals; an AD converting portion configured to execute AD conversion to convert the n first signals into n second signals; and a signal processing portion configured to calculate an average of the n second signals to generate output digital signal.

Abstract: A CPU (134) of a body composition measuring apparatus (100) drives a navel position indicator (118) so that it emits light. The height of a frame (114) is adjusted so that a beam of light from navel position indicator (118) irradiates the navel of a human subject. Plural sensors (106) are mounted on the frame (114), and each sensor measures a distance from the sensor to a position to be measured, whereby the abdominal width (X) of the human subject is determined. Subsequently, CPU (134) obtains measured values of weight (W) and bioelectrical impedance (Z). CPU (134) then reads an equation for calculating the visceral fat area and estimates the visceral fat area (Y) based on the measured abdominal width (X), weight (W), bioelectrical impedance (Z), and the equation.

Abstract: A blood sugar condition is estimated by measuring a urine sugar value, discriminating whether it is less than a discriminating method classification boundary value, when it is less, obtaining an averaged value of measured urine sugar values during a past predetermined period of time, measured at the same time of day as the latest measurement, calculating the difference between the averaged and measured urine sugar values, when the difference is not less than a positive discriminating reference difference, discriminating as being a blood sugar value decrease, when the measured value is not less than the discriminating method classification boundary value, obtaining an averaged value of all measured values during the past predetermined period of time, calculating a ratio between the measured and averaged values, and, when the ratio is not greater than a first discriminating reference ratio, discriminating as being the blood sugar value decrease.