Abstract: An input interface is configured to receive a signal corresponding to vital information that exhibits temporal variation. When at least one instruction stored in a memory is executed by a processor, waveform information (W) is generated based on the signal; a value of a profile factor of the waveform information (W) is obtained every time a predetermined time period is elapsed; and the value is displayed on the display section (15). The profile factor includes at least one of a rising angle, a top portion angle, a falling angle, a rising velocity, an absolute value of the rising velocity, a top portion velocity, an absolute value of the top portion velocity, a falling velocity, an absolute angle of the falling velocity, an under-waveform area, a rising-falling time interval, a falling-rising time interval, a rising-rising time interval and a falling-falling time interval.

Abstract: A gas monitoring system for artificial ventilation includes: a sensor that is configured to produce a signal corresponding to a concentration of a predetermined gas in a portion which is in a respiratory circuit of an artificial ventilator, and through which both an inspiratory gas and an expiratory gas pass; a displaying apparatus that is communicable with the sensor; a processor; and a memory that is configured to store a command which is readable by the processor. When, during high-frequency oscillatory ventilation performed by the artificial ventilator, the command is executed by the processor, the processor is to configured to calculate a measurement value of the concentration based on the signal, and is configured to display at least one of a waveform corresponding to the signal and the measurement value on the displaying apparatus.

Abstract: A nasal adapter includes a first portion and a second portion. The first portion includes a mouth exhalation guide portion having a facing portion facing a mouth of a living body and formed with a mouth-side guide path for guiding exhaled breath exhaled from the mouth to the facing portion, a base portion disposed above the mouth exhalation guide portion with respect to the living body, and a cuttable portion integrally formed with the mouth exhalation guide portion and the base portion. The cuttable portion disconnectably connects the mouth exhalation guide portion to the base portion. The base portion is fixed to the second portion. The first portion is detachably connected to the second portion at a connecting section below the cuttable portion with respect to the living body.

Abstract: A physiological signal processing apparatus for converting a physiological signal into sampling data having a predetermined frequency that is set according to the physiological signal includes an A/D converter and a computation unit. The A/D converter is configured to convert the physiological signal into high-speed sampling data by sampling the physiological signal at a frequency that is higher than the predetermined frequency. The computation unit is configured to convert the high-speed sampling data into sampling data having the predetermined frequency by setting time windows for the high-speed sampling data and calculating one representative value for each of the windows on the basis of high-speed sampling data in the window.

Abstract: A power supply device includes: a power supply circuit configured to supply power to a vital sensor; a capacitor electrically connected to the power supply circuit; a connector configured to supply power for charging the capacitor; and a shield case covering at least the power supply circuit and the capacitor to shield an electromagnetic wave.

Abstract: An input interface is configured to receive a signal corresponding to vital information that exhibits temporal variation. When at least one instruction stored in a memory is executed by a processor, waveform information (W) is generated based on the signal; a value of a profile factor of the waveform information (W) is obtained every time a predetermined time period is elapsed; and the value is displayed on the display section (15). The profile factor includes at least one of a rising angle, a top portion angle, a falling angle, a rising velocity, an absolute value of the rising velocity, a top portion velocity, an absolute value of the top portion velocity, a falling velocity, an absolute angle of the falling velocity, an under-waveform area, a rising-falling time interval, a falling-rising time interval, a rising-rising time interval and a falling-falling time interval.

Abstract: An input interface is configured to receive a signal corresponding to vital information that exhibits temporal variation. When at least one instruction is executed by a processor, waveform information (W) is generated based on the signal; normalized waveform information (WN) is generated based on the waveform information for a predetermined time period; and temporal variation of the waveform information (W) is displayed on a display section (15) together with the normalized waveform information (WN).

Abstract: A biological information monitor includes: a measuring section which is configured to measure biological information having a periodically changing value; a sound outputting section which is configured to output a sound including a first sound and a second sound, in synchronization with a period of the biological information; and a sound controlling section which is configured to cause the second sound to be output in succession to the first sound, and which is configured to change the second sound in accordance with a value of the biological information.

Abstract: A gas monitoring system for artificial ventilation includes: a sensor that is configured to produce a signal corresponding to a concentration of a predetermined gas in a portion which is in a respiratory circuit of an artificial ventilator, and through which both an inspiratory gas and an expiratory gas pass; a displaying apparatus that is communicable with the sensor; a processor; and a memory that is configured to store a command which is readable by the processor. When, during high-frequency oscillatory ventilation performed by the artificial ventilator, the command is executed by the processor, the processor is to configured to calculate a measurement value of the concentration based on the signal, and is configured to display at least one of a waveform corresponding to the signal and the measurement value on the displaying apparatus.

Abstract: A biological information monitoring apparatus includes: a measurer which is configured to measure biological information of a subject; a display on which a measurement value of the biological information measured by the measurer is displayed; a calibration controller which, when a predetermined condition is satisfied, is configured to perform a calibration process on the measurer; a time measurer which is configured to acquire a remaining time before the calibration process is ended; and a display controller which is configured to cause an index indicating the remaining time to be displayed on the display.

Abstract: A respiratory waveform analyzer, operable to analyze a respiratory waveform, which is generated based on a temporal change of a concentration of a component in respiratory gas of a subject, includes: a respiratory gas concentration generator which generates a concentration signal based on an output signal from a sensor that is placed to measure the concentration of the component; a flatness calculator which calculates a flatness indicative of flat degree of the respiratory waveform based on a temporal change of the concentration signal; and a reliability calculator which calculates a reliability of the respiratory waveform based on the flatness and the concentration signal.

Abstract: The present invention provides a device for displaying respiratory conditions of a subject on a monitor having a first parameter acquisition unit (11) for acquiring a first respiration parameter representing a respiratory condition of the subject; a second parameter acquisition unit (12) for acquiring a second respiration parameter representing a respiratory condition of the subject, said second respiration parameter differing from said first respiration parameter; and a display controlling unit (13) for displaying, on the monitor, a chart representing a relationship between the first respiration parameter acquired by said first parameter acquisition unit and the second respiration parameter acquired by said second parameter acquisition unit; wherein the chart represents the relationship between the first respiration parameter and the second respiration parameter in each respiration cycle, and a plurality of charts for preceding respiration cycles and charts for subsequent respiration cycles are displayed so

Abstract: A respiratory waveform analyzer, operable to analyze a respiratory waveform, which is generated based on a temporal change of a concentration of a component in respiratory gas of a subject, includes: a respiratory gas concentration generator which generates a concentration signal based on an output signal from a sensor that is placed to measure the concentration of the component; a flatness calculator which calculates a flatness indicative of flat degree of the respiratory waveform based on a temporal change of the concentration signal; and a reliability calculator which calculates a reliability of the respiratory waveform based on the flatness and the concentration signal.

Abstract: A CO2 sensor includes: a sensing portion operable to change in color in accordance with a CO2 partial pressure in expiration from at least one of nares and a mouth of a living body; and a mounting member adapted to hold the sensing portion at a position where the expiration from the at least one of the nares and the mouth impinges on the sensing portion.

Abstract: A physiological information measuring apparatus includes: a display controller that, based on information indicating a respiration interval of a patient, is configured to produce a respiration interval graph in which a first axis indicates time information, and a second axis indicates a length of the respiration interval, and that is configured to control a displaying section to display the respiration interval graph, the display controller that is configured to reset a value of the second axis of the respiration interval graph, at each time when the respiration interval starts.

Abstract: The present invention provides a device for displaying respiratory conditions of a subject on a monitor having a first parameter acquisition unit (11) for acquiring a first respiration parameter representing a respiratory condition of the subject; a second parameter acquisition unit (12) for acquiring a second respiration parameter representing a respiratory condition of the subject, said second respiration parameter differing from said first respiration parameter; and a display controlling unit (13) for displaying, on the monitor, a chart representing a relationship between the first respiration parameter acquired by said first parameter acquisition unit and the second respiration parameter acquired by said second parameter acquisition unit; wherein the chart represents the relationship between the first respiration parameter and the second respiration parameter in each respiration cycle, and a plurality of charts for preceding respiration cycles and charts for subsequent respiration cycles are displayed so

Abstract: A non-particulate organic porous material with optical resolution capability, the non-particulate organic porous material having a continuous pore structure, which comprises macropores and mesopores, the macropores being interconnected forming mesopores with a radius of 0.01-100 ?m in the interconnected parts, and optically active groups uniformly introduced therein possesses high physical stability, can be used under wide separating conditions, and has a large capacity for separating optically active substances (enantiometers).

Abstract: A biological information monitor includes: a measuring section which is configured to measure biological information having a periodically changing value; a sound outputting section which is configured to output a sound including a first sound and a second sound, in synchronization with a period of the biological information; and a sound controlling section which is configured to cause the second sound to be output in succession to the first sound, and which is configured to change the second sound in accordance with a value of the biological information.

Abstract: A non-particulate organic porous material with optical resolution capability, the non-particulate organic porous material having a continuous pore structure, which comprises macropores and mesopores, the macropores being interconnected forming mesopores with a radius of 0.01-100 ?m in the interconnected parts, and optically active groups uniformly introduced therein possesses high physical stability, can be used under wide separating conditions, and has a large capacity for separating optically active substances (enantiometers).

Abstract: A non-particulate organic porous material with optical resolution capability, the non-particulate organic porous material having a continuous pore structure, which comprises macropores and mesopores, the macropores being interconnected forming mesopores with a radius of 0.01-100 ?m in the interconnected parts, and optically active groups uniformly introduced therein possesses high physical stability, can be used under wide separating conditions, and has a large capacity for separating optically active substances (enantiometers).