Abstract: A wearable physiological measurement apparatus comprises a base, a bridge member, and a first and second support members movably coupled to the base and the bridge member to surround size-variable an opening for accommodating a care giver's finger therein. A measurement device is coupled to the base and with a probe projecting toward the opening for contacting the finger for vital sign measurement and monitoring. Resilient members are coupled between the base, the bridge member and the first and second support members to bias the base, the bridge member and the first and second support members moving toward each other to grip the finger to maintain proper contact of the probe to the finger.

Abstract: A wearable physiological measurement apparatus comprises a base, a bridge member, and a first and second support members movably coupled to the base and the bridge member to surround size-variable an opening for accommodating a care giver's finger therein. A measurement device is coupled to the base and with a probe projecting toward the opening for contacting the finger for vital sign measurement and monitoring. Resilient members are coupled between the base, the bridge member and the first and second support members to bias the base, the bridge member and the first and second support members moving toward each other to grip the finger to maintain proper contact of the probe to the finger.

Abstract: A blood pressure (BP) detection apparatus and method based on an arteriolar photoplethysmogram (APPG) is disclosed. The BP detection apparatus includes a ring structure, a photoplethysmogram (PPG) detection unit, a temperature sensing unit, a pressure sensing unit and a microcontroller unit (MCU) provided at a bottom of the ring structure, and spring control units respectively provided at two inner sides of the ring structure. Under an adjustment amount of the spring control unit determined according to a pressure, the MCU calculates an APPG according to a PPG detected by the PPG detection unit, and a temperature detected by the temperature sensing unit, and detects a BP according to the APPG. The BP detection apparatus has a simple structure and a simple operation, and makes an obtained signal achieve a high signal-to-noise ratio (SNR) and a high accuracy.

Abstract: A chest non-invasive blood pressure detecting probe based on pulse wave transit time and a device thereof are provided. The detecting probe is attached closely to the skin surface of the human chest, and includes a probe body and a patch, which are of split type. The patch is attached and mounted, in a male-female fastener form, on the probe body for use, so that when the patch needs to be replaced, the patch is directly removed and replaced with a new patch, which is convenient for use. The detecting probe is portable and used for continuous dynamic real-time acquiring of the human aortic blood pressure, which is free from the constraints of lead wires, small and comfortable, and high in measuring precision.

Abstract: A wearable physiological measurement apparatus comprises a base, a bridge member, and a first and second support members movably coupled to the base and the bridge member to surround size-variable an opening for accommodating a care giver's finger therein. A measurement device is coupled to the base and with a probe projecting toward the opening for contacting the finger for vital sign measurement and monitoring. Resilient members are coupled between the base, the bridge member and the first and second support members to bias the base, the bridge member and the first and second support members moving toward each other to grip the finger to maintain proper contact of the probe to the finger.

Abstract: An electrode multiplexing physiological parameter monitoring ring, comprising a built-in power supply (2), a microprocessor module (1), an electrocardiogram monitoring analog front end (3), a skin conductance monitoring module (4), a first electrode (6), and a second electrode (7). The microprocessor module (1) is connected to the electrocardiogram monitoring analog front end (3) and the skin conductance monitoring module (4). The first electrode (6) and the second electrode (7) are connected to the electrocardiogram monitoring analog front end (3), and the electrocardiogram monitoring analog front end (3) processes electrocardiogram signals collected by the first electrode (6) and the second electrode (7). The first electrode (6) and the second electrode (7) are further connected to the skin conductance monitoring module (4), and the skin conductance monitoring module (4) processes skin impedance signals collected by the first electrode (6) and the second electrode (7).

Abstract: A chest non-invasive blood pressure detecting probe based on pulse wave transit time and a device thereof are provided. The detecting probe is attached closely to the skin surface of the human chest, and includes a probe body and a patch, which are of split type. The patch is attached and mounted, in a male-female fastener form, on the probe body for use, so that when the patch needs to be replaced, the patch is directly removed and replaced with a new patch, which is convenient for use. The detecting probe is portable and used for continuous dynamic real-time acquiring of the human aortic blood pressure, which is free from the constraints of lead wires, small and comfortable, and high in measuring precision.

Abstract: An electrode multiplexing physiological parameter monitoring ring, comprising a built-in power supply (2), a microprocessor module (1), an electrocardiogram monitoring analog front end (3), a skin conductance monitoring module (4), a first electrode (6), and a second electrode (7). The microprocessor module (1) is connected to the electrocardiogram monitoring analog front end (3) and the skin conductance monitoring module (4). The first electrode (6) and the second electrode (7) are connected to the electrocardiogram monitoring analog front end (3), and the electrocardiogram monitoring analog front end (3) processes electrocardiogram signals collected by the first electrode (6) and the second electrode (7). The first electrode (6) and the second electrode (7) are further connected to the skin conductance monitoring module (4), and the skin conductance monitoring module (4) processes skin impedance signals collected by the first electrode (6) and the second electrode (7).

Abstract: The present invention discloses an elastic photoelectric sensor module, which is mainly used for monitoring of physiological parameters such as human heart rate, blood oxygen saturation and a blood pressure based on optical inspection. The module includes a sensor structural part (1), an elastic telescopic unit (2), a sensor window group (3), and a photoelectric sensor (4). The sensor structural part (1) provides structural support for the sensor device, and the elastic telescopic unit (2) provides elastic force for the device. The sensor window group (3) is a signal path, and the photoelectric sensor (4) is a basic signal detection unit.

Abstract: A expandable multi-physiological parameter monitoring ring, comprising a microprocessor module (1) and an internal sensor module (3) connected to the microprocessor module (1), and further comprising an external module interface (4) detachably connected to the microprocessor module (1) and used for connecting an external sensor module (5). The microprocessor module (1) is configured to: when the external module interface (4) is connected to the external sensor module (5), obtain measurement signals from the external sensor module (5) and the internal sensor module (3), and process the measurement signals to obtain a difference between a measurement signal of the external sensor module (5) and a measurement signal of the internal sensor module (3); and when the external module interface (4) is not connected to the external sensor module (5), calibrate, according to the difference, a physiological parameter obtained by the internal sensor module (3).

Abstract: The present invention discloses a dual optical path sensor module for collect human physiological signals based on photoplethysmography. The module includes a base, and a photoelectric receiver and two light source modules mounted on the base. The two light source modules are symmetrically disposed on two sides of the photoelectric receiver, and each light source module includes light sources with at least two wavelengths. A light shielding portion is further disposed on the base, the light shielding portion surrounds the photoelectric receiver, and there is an opening at the top of the light shielding portion, so that light emitted from the light source is received by the photoelectric receiver after the light is diffusely reflected by the human body tissue.

Abstract: Disclosed is a ring-type pulse oximeter, including a rigid ring body (1). A measurement unit (2) is arranged inside the rigid ring body (1), and an elastic device (3), a photodiode (4), and at least one light emitting diode (5) are protrudingly disposed on an inner circumferential surface of the rigid ring body (1). When the ring-type pulse oximeter is worn, the elastic device (3) is pressed, so that the photodiode (4) and the at least one light emitting diode (5) fit with a finger, light emitted by the light emitting diode (5) is attenuated by the finger, then received by the photodiode (4) and processed by the measurement unit (2) to calculate blood oxygen saturation. The ring-type pulse oximeter exerts a force on a portion of the finger, such that the finger maintains a tight fit to the photodiode (4) and the light-emitting diode (5), thereby providing a comfortable wearing experience as well as adaptability to different finger shapes, and improving measurement accuracy.

Abstract: A flexible continuous pulse oximeter (6) comprises the following components connected by means of a flexible circuit: a light-emitting diode (LED) array (1, 101, 102, 103) configured to emit testing light; at least one optoelectronic receiving diode (2) configured to receive the testing light and convert the same into an electrical signal; a signal processing unit (3) configured to process the electrical signal and extract a continuous pulse oximetric signal; and power supplies (4, 5) configured to supply power to the entire oximeter.