Separable body surface physiological parameter acquisition and transmitting device

Abstract

The invention discloses a separable body surface physiological parameter acquisition and transmitting device which comprises a signal acquisition and processing and transmitting body and a fixing body used for fixing the signal acquisition and processing and transmitting body on the surface of an organism, wherein the signal acquisition and processing and transmitting body is composed of a physiological signal acquisition module, a signal processing module, a communication module and a power module, the fixing body is composed of any one of a separable bonding body, a cover-sleeve-shaped sleeve body and a bag-sleeve-shaped sleeve body or composed of the separable bonding body and the cover-sleeve-shaped sleeve body or composed of the separable bonding body and the bag-sleeve-shaped sleeve body, and the separable bonding body, the cover-sleeve-shaped sleeve body or the bag-sleeve-shaped sleeve body is connected and fixed with the signal acquisition and processing and transmitting body in a separable mode and is provided with an opening used for the physiological signal acquisition module to acquire physiological signals on a body surface. The separable body surface physiological parameter acquisition and transmitting device enables the signal acquisition and processing and transmitting body to acquire the signals steadily through the opening of the fixing body and can be separated from the body surface without being damaged and used repeatedly, and therefore detection results are enabled to be real and reliable.

Description

technical field [0001] The invention relates to a body surface physiological parameter acquisition and emission device, in particular to a detachable body surface physiological parameter acquisition and emission device. Background technique [0002] Today's Internet of Things technology is developing rapidly. The innovation of wireless mobile devices and related software related to various detection and monitoring of living body functions is the focus of global health science research. All wireless Internet of Things technologies related to the monitoring of living body functions Some functional indicators and parameters of the living body must be received by various sensors fixed on the body surface to receive body signals such as electrocardiographic signals, body temperature signals, arterial pulse mechanical signals, muscle tension signals, photoelectric reflection signals, and thoracic respiratory muscle movement signals. , airway breath sound signal, EEG signal, blood ...

AI Technical Summary

Problems solved by technology

[0003] In the existing technology, some technical solutions are to make the physiological parameter collection and emission device into a watch-like structure and fix it on the wrist, and rely on the strap to fix the device. Since the sensing surface and the skin part have no direct adhesive layer, they cannot be stably and consistently adhered to each other. , easy to move, so that the test results lack accuracy, and some parts of the body surface cannot be fixed with a watch, such as the chest, abdomen, back, etc.

Some other technical solutions are to connect the existing products with long belts, and fix them on the arms and trunk through the fastening of the two ends of the long belts. Since there is no direct adhesive layer between the sensing surface and the skin, it cannot be stable and consistent. Adhere to each other, easy to move, so that the test results lack accuracy, and some parts of the body surface should not be fixed with Velcro, such as the chest, abdomen, back, etc.

Another technical solution is to paste a gasket or a fixed layer on the skin, and then paste a clip on the gasket or the fixed layer, fix the wireless physiological parameter detection device in the clip, and feel the part or the electrode wire through the clip. The clip is in contact with the skin through the gasket. This clip-type fixation is a rigid structure, which is very hard, has poor flexibility and comfort, and has poor connection stability with the body surface, which affects the accuracy of monitoring.

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