Abstract: A physiological signal detecting device includes a carrier, an electrode layer fixed on the carrier for receiving a physiological signal, and a signal transmitter buckled on the electrode layer and the carrier. The signal transmitter includes a transmitting member and an external connector. The transmitting member includes a first sheet, a column extending from the first sheet, and a thorn curvedly extending from the first sheet. The external connector includes a ring-shaped second sheet and a hollow protrusion extending from an inner edge of the second sheet. The thorn has a sharp end piercing into the electrode layer, the column passes through the electrode layer and the carrier, and a free end portion of the column exposes from the carrier. The protrusion is sleeved at and fastened to the free end portion so that the carrier and the electrode layer are sandwiched between the first and second sheets.

Abstract: A physiological signal detection clamp for being detachably disposed on a fabric worn by a living body, the physiological signal detection clamp includes: a body, two electrode units, a processing unit and a wireless transmission unit. Each of the two opposite side surfaces of the body has a fixing unit. The body is configured to clamp on the fabric by the two fixing unit. When the body is clamped on the fabric, the sensing surfaces of the two electrode units are correspondingly exposed on the outer side surface of the body and attach to the body surface of the living body for detecting the micro electric signal on the body surface of the living body. The processing unit transfers the micro electric signal detected by the electrode unit into a wireless transmission signal, and the wireless transmission unit outputs the wireless transmission signal.

Abstract: A snap button includes a male retaining member and a female retaining member. The male retaining member includes a base, a hollow cylinder, and at least one protrusion portion. The hollow cylinder is disposed on the base, the at least one protrusion portion is disposed on the base and at a periphery of the hollow cylinder. The female retaining member includes a main body which has a hollow tube body. The hollow cylinder is housed through the hollow tube body.

Abstract: A physiological signal detecting device includes a carrier, an electrode layer fixed on the carrier for receiving a physiological signal, and a signal transmitter buckled on the electrode layer and the carrier. The signal transmitter includes a transmitting member and an external connector. The transmitting member includes a first sheet, a column extending from the first sheet, and a thorn curvedly extending from the first sheet. The external connector includes a ring-shaped second sheet and a hollow protrusion extending from an inner edge of the second sheet. The thorn has a sharp end piercing into the electrode layer, the column passes through the electrode layer and the carrier, and a free end portion of the column exposes from the carrier. The protrusion is sleeved at and fastened to the free end portion so that the carrier and the electrode layer are sandwiched between the first and second sheets.

Abstract: A physiological signal detection clamp for being detachably disposed on a fabric worn by a living body, the physiological signal detection clamp includes: a body, two electrode units, a processing unit and a wireless transmission unit. Each of the two opposite side surfaces of the body has a fixing unit. The body is configured to clamp on the fabric by the two fixing unit. When the body is clamped on the fabric, the sensing surfaces of the two electrode units are correspondingly exposed on the outer side surface of the body and attach to the body surface of the living body for detecting the micro electric signal on the body surface of the living body. The processing unit transfers the micro electric signal detected by the electrode unit into a wireless transmission signal, and the wireless transmission unit outputs the wireless transmission signal.

Abstract: Disclosed is a wearable device which includes a tape-like fabric body, at least one electrically conductive unit, at least one electric signal detection unit, and a data transmission unit. The electric signal detection unit and the data transmission unit are arranged on two opposite surfaces of the tape-like fabric body, and are electrically connected to each other by the electrically conductive unit. The electric signal detection unit includes a sensing portion and a connection portion, wherein the sensing portion is configured to come in contact with a body surface of a living body to detect its physiological signals, and the connection portion is configured to transmit the physiological signals to the data transmission unit. At least one of the tape-like fabric body and the sensing portion includes a heat accumulating fiber for blocking heat dissipated from the body surface of the living body to increase detection efficiency.

Abstract: Disclosed is a wearable device which includes a tape-like fabric body, at least one electrically conductive unit, at least one electric signal detection unit, an anti-slip structure, and a data transmission unit. The electrically conductive unit includes at least one conductive member arranged to pass through a first surface and a second surface of the tape-like fabric body. The electric signal detection unit and the data transmission unit are arranged on the first and second surfaces respectively. The electric signal detection unit includes a sensing portion configured to contact a body surface of a living body to detect micro electric signals and a connection portion configured to be electrically connected to the conductive member and transmit the micro electric signals to a terminal device via the data transmission unit. The anti-slip structure is configured to come in contact with the body surface together with the sensing portion.

Abstract: A physiological signal monitoring belt includes a belt-shaped unit and an electrode unit. The electrode unit is disposed on a surface of the belt-shaped unit and includes a base layer, an intermediate layer, and a conductive layer. The intermediate layer has a first surface and a second surface. The base layer is disposed on the first surface, and the conductive layer is disposed on the second surface. The electrode unit is disposed on the surface of the belt-shaped unit through the base layer.

Abstract: A snap button includes a male retaining member and a female retaining member. The male retaining member includes a base, a hollow cylinder, and at least one protrusion portion. The hollow cylinder is disposed on the base, the at least one protrusion portion is disposed on the base and at a periphery of the hollow cylinder. The female retaining member includes a main body which has a hollow tube body. The hollow cylinder is housed through the hollow tube body.

Abstract: A sternum supporting harness includes a carrying strap structure and a chest strap structure surroundingly disposed thereon. The carrying strap structure includes a main body, a shoulder portion, including a left shoulder strap and a right shoulder strap, a flank portion, and an adjustment portion. One end of the left shoulder strap and one end of the right shoulder strap are connected to two upper end portions of the main body respectively. Another end of the left shoulder strap and another end of the right shoulder strap are both connected to the flank portion. The adjustment portion is connected to the flank portion. The chest strap structure includes a grabbing unit and a belt-like unit connected thereto. The grabbing unit includes a first grabbing portion, a second grabbing portion, and a base portion.

Abstract: A sensor module for mounting on a rear fork of a bicycle includes a housing, a spool piece, a spool cap, and a sensing element. A switch member is arranged on one end of the housing, while a mounting seat is recessed on another end thereof. The spool piece is received by the mounting seat. The spool cap is arranged on the edge portion of the mounting seat. The sensing element is connected to the spool piece by a cable. The cable can be rewound into the spool piece. The distance between the sensing element and the housing is adjustable by extending or retracting the cable. The adjustability allows the sensor module to be adoptable by bicycles with different wheel sizes and rear fork structures. Accordingly, various cycling parameters can be measured.

Abstract: A sensor module for mounting on a rear fork of a bicycle includes a housing, a spool piece, a spool cap, and a sensing element. A switch member is arranged on one end of the housing, while a mounting seat is recessed on another end thereof. The spool piece is received by the mounting seat. The spool cap is arranged on the edge portion of the mounting seat. The sensing element is connected to the spool piece by a cable. The cable can be rewound into the spool piece. The distance between the sensing element and the housing is adjustable by extending or retracting the cable. The adjustability allows the sensor module to be adoptable by bicycles with different wheel sizes and rear fork structures. Accordingly, various cycling parameters can be measured.

Abstract: A wireless cardiogram signal diagnostic instrument includes a band, a signal transmitting device, two sets of connecting pieces, and a conductive assembly. The band has two opposite mounting portions separated by a distance. The two mounting portions are provided with the conductive assembly having a first conductive piece and a second conductive piece. The signal transmitting device is provided with a third conductive piece. The two sets of connecting pieces each have a first connecting piece that is conductive provided on the mounting portion of the band and a second connecting piece that is conductive provided on the signal transmitting device. The first connecting piece is correspondingly assembled with the second connecting piece, so that the signal transmitting device can be detachably assembled on the band. Via the above arrangement, the instrument can be worn on a user's chest to collect and measure the variation values of cardiogram voltages.

Abstract: An elastic cloth device with a function of physiological detection includes two elastic bodies, two fastening elements, and a connecting strap. The two elastic bodies are aligned with an interval in-between and each includes an elastic cloth strap woven with at least one strain sensing unit; wherein the strain sensing unit has a surface emerging from the elastic cloth strap. Each fastening element is combined with one end of the corresponding elastic body and electrically coupled with the corresponding strain sensing unit. The connecting strap is connected with the ends of the elastic bodies so that the elastic bodies are spacedly connected in series. Accordingly, when a physiological strain reaction has an effect on the elastic cloth straps, the straps drive the strain sensing units to produce a physiological strain signal which is electrically transmitted to the fastening elements, thereby the function of physiological detection is achieved.

Abstract: A wireless cardiogram signal diagnostic instrument includes a band, a signal transmitting device, two sets of connecting pieces, and a conductive assembly. The band has two opposite mounting portions separated by a distance. The two mounting portions are provided with the conductive assembly having a first conductive piece and a second conductive piece. The signal transmitting device is provided with a third conductive piece. The two sets of connecting pieces each have a first connecting piece that is conductive provided on the mounting portion of the band and a second connecting piece that is conductive provided on the signal transmitting device. The first connecting piece is correspondingly assembled with the second connecting piece, so that the signal transmitting device can be detachably assembled on the band. Via the above arrangement, the instrument can be worn on a user's chest to collect and measure the variation values of cardiogram voltages.

Abstract: An apparatus of an improvement on the structure of chest cardiogram sensor fastened directly on the user's chest combines from shell{grave over ( )}electric board{grave over ( )}two fixed belts{grave over ( )}two or multiple pieces of independent electric conductivity rubber plate, by which electric board fitted in the shell contains electricity measurement circuits and emitter circuits, whereas measurement circuits could send measured cardiogram messages to the receiver through the emitter circuits by means of cable or cableless device, and meets the requirement of monitor the user's cardiogram.

Abstract: A heart rate transmitter comprising a strap and a body. The strap is in long belt shape, a hole is in the center of the strap, a conducting rubber plate each is on both ends of the hole, a contacting tip stretches out from the conducting rubber plate to the inner side of the hole. The body is installed inside the hole of the strap; two contacting points are on both ends of the body. When the body is inserted into the hole of the strap, two contacting points are pressed to contact the contacting tips of the conducting rubber plate inside the hole of the strap; the conducting rubber plate contacts human body to measure the heartbeat rate.

Abstract: A heart rate transmitter comprising a strap and a body. The strap is in long belt shape, a hole is in the center of the strap, a conducting rubber plate each is on both ends of the hole, a contacting tip stretches out from the conducting rubber plate to the inner side of the hole. The body is installed inside the hole of the strap; two contacting points are on both ends of the body. When the body is inserted into the hole of the strap, two contacting points are pressed to contact the contacting tips of the conducting rubber plate inside the hole of the strap; the conducting rubber plate contacts human body to measure the heartbeat rate.

Abstract: Accordingly, the object of the present invention is to provide a pulse meter comprising a pen body installed with a counting microprocessor, and a liquid crystal display (LCD) and a counter are installed on the proper position of the pen body. The counting microprocessor is connected with the LCD and the counting key. One hand may press a tested person or a patient for sensing the beat of the pulse thereof, and the other hand serves to press a counting key to count the times of the pulse, and thus the frequency of the pulse can be input into the counting microprocessor. Next, the counting microprocessor can derive the pulse number per minute and then display the result in the LCD. Since only a short period of pulse beat is necessary to be input the counting microprocessor. Thus the pulse frequency can be derived in a very short time and much time is saved.

Abstract: An improvement of heart beat transmitter includes a circuit board, a pair of conductive rubber posts, a housing, a pair of fastening straps and a pair of conductive rubber plates. The housing is provided with a metal plate and installs the conductive rubber plate jointly with the fastening strap. The underside of the circuit board is provided with conductive spring plate or rubber post to establish a conducting loop with the metal plate to avoid the manufacturing difficulty. On the other hand, the conduction therebetween is enhanced. The conductive rubber plate is provided with an insulating layer to reduce the contacting area with skin. Accordingly, the noise interference is reduced and the performance is increased.