Abstract: A system of a wireless physiological signal integration is provided. The system includes a wireless transmission sensor chip and a drug delivering system, wherein the wireless transmission sensor chip includes a sensor sensing a physiological signal of a patient, a signal conversion module converting the physiological signal into a converted signal, and a wireless transmission module wirelessly transmitting the converted signal, and the drug delivering system determines a dose of a drug and a timing for providing the drug according to the converted signal.

Abstract: A flexible dry electrode and the manufacturing method thereof are provided. The electrode has an electroplated uneven surface and at least one hole and is made of porous material.

Abstract: A differential voltage sensing method for achieving input impedance matching comprises the steps of: providing a first bio-potential signal to a first variable resistor for generating a first signal; providing a second bio-potential signal to a second variable resistor for generating a second signal; differentially amplifying first and second signals for generating a third signal; selecting an operation band of the third signal for generating first and second logic signals; and dynamically adjusting one of the impedances of the first and second variable resistors according to the first and second logic signals, wherein each of the first and second bio-potential signals has a common signal voltage level and a differential signal voltage level.

Abstract: A differential voltage sensing method for achieving input impedance matching comprises the steps of: providing a first bio-potential signal to a first variable resistor for generating a first signal; providing a second bio-potential signal to a second variable resistor for generating a second signal; differentially amplifying first and second signals for generating a third signal; selecting an operation band of the third signal for generating first and second logic signals; and dynamically adjusting one of the impedances of the first and second variable resistors according to the first and second logic signals, wherein each of the first and second bio-potential signals has a common signal voltage level and a differential signal voltage level.

Abstract: A physiological signal sensing device for examination of human is provided. The physiological signal sensing device includes a light emitting fiber and a light receiving fiber. The light emitting fiber includes a plurality of light emitting portions, wherein the light emitting fiber provides a plurality of sensing beams, and the sensing beams are respectively emitted through the light emitting portions. The light receiving fiber includes a plurality of light receiving portions. The light receiving fiber corresponds to the light emitting fiber. The sensing beams are emitted through the light emitting portions, reflected or refracted by the human. And then the sensing beams are received by the light receiving portions.

Abstract: A flexible biomonitor comprises: a flexible substrate having a circuit apparatus, a hybrid sensor, a plurality of IC devices, a central processing module, a RF transmitter circuit, an antenna, and a power supply. Thereupon the flexible biomonitor can be plastered on the skin where the human body needs to be monitored to achieve the purposes of reducing occupied area, providing comfortable wear and achieve compactness, module expansion and EMI shielding. Besides, it is capable of remote real-time monitoring this signal to achieve the purpose of home care.

Abstract: A differential voltage sensing method for achieving input impedance matching comprises the steps of: providing a first bio-potential signal to a first variable resistor for generating a first signal; providing a second bio-potential signal to a second variable resistor for generating a second signal; differentially amplifying first and second signals for generating a third signal; selecting an operation band of the third signal for generating first and second logic signals; and dynamically adjusting one of the impedances of the first and second variable resistors according to the first and second logic signals, wherein each of the first and second bio-potential signals has a common signal voltage level and a differential signal voltage level.

Abstract: A differential voltage sensing method for achieving input impedance matching comprises the steps of: providing a first bio-potential signal to a first variable resistor for generating a first signal; providing a second bio-potential signal to a second variable resistor for generating a second signal; differentially amplifying first and second signals for generating a third signal; selecting an operation band of the third signal for generating first and second logic signals; and dynamically adjusting one of the impedances of the first and second variable resistors according to the first and second logic signals, wherein each of the first and second bio-potential signals has a common signal voltage level and a differential signal voltage level.

Abstract: A physiological signal sensing device for examination of human is provided. The physiological signal sensing device includes a light emitting fiber and a light receiving fiber. The light emitting fiber includes a plurality of light emitting portions, wherein the light emitting fiber provides a plurality of sensing beams, and the sensing beams are respectively emitted through the light emitting portions. The light receiving fiber includes a plurality of light receiving portions. The light receiving fiber corresponds to the light emitting fiber. The sensing beams are emitted through the light emitting portions, reflected or refracted by the human. And then the sensing beams are received by the light receiving portions.

Abstract: A flexible dry electrode and the manufacturing method thereof are provided. The electrode has an electroplated uneven surface and at least one hole and is made of porous material.

Abstract: A system of a wireless physiological signal integration is provided. The system includes a wireless transmission sensor chip and a drug delivering system, wherein the wireless transmission sensor chip includes a sensor sensing a physiological signal of a patient, a signal conversion module converting the physiological signal into a converted signal, and a wireless transmission module wirelessly transmitting the converted signal, and the drug delivering system determines a dose of a drug and a timing for providing the drug according to the converted signal.

Abstract: A bio-monitoring apparatus is disclosed in the present invention which is characterized in that a bio-sensing electrode without a stud member or male portion of a snap fastener is directly integrated with a signal processing module through a conductive layer formed therebetween so as to form the bio-monitoring apparatus functions to transcutaneously sense physiological statuses of a being. In a preferred embodiment of the present invention, the structure of the bio-sensing electrode is further simplified to a contacting layer coupled to the signal processing module through the conductive layer so as to reduce attenuation of signal intensity during signal transmitting. Meanwhile, without the stud member disposed in the electrode, not only the thickness of the electrode is certainly reduced, but also the feeling of comfort is capable of being improved while the electrode is adapted to contact a being.

Abstract: A bio-monitoring apparatus is disclosed in the present invention which is characterized in that a bio-sensing electrode without a stud member or male portion of a snap fastener is directly integrated with a signal processing module through a conductive layer formed therebetween so as to form the bio-monitoring apparatus functions to transcutaneously sense physiological statuses of a being. In a preferred embodiment of the present invention, the structure of the bio-sensing electrode is further simplified to a contacting layer coupled to the signal processing module through the conductive layer so as to reduce attenuation of signal intensity during signal transmitting. Meanwhile, without the stud member disposed in the electrode, not only the thickness of the electrode is certainly reduced, but also the feeling of comfort is capable of being improved while the electrode is adapted to contact a being.

Abstract: A waterproof electrical power connector is provided. The male member of the connector includes magnetic core surrounded with a winding, and the female member of the connector includes a winding and has a hollow for receiving the male member. As the male member is inserted into the female member and a current passes through the male member winding, the induced magnetic flux is coupled to the female member winding, which accordingly induces current in the female member.