Abstract: A biological signal detection system includes a pair of electrodes, adapted to be attached on a living body; a transmitter, adapted to be attached on the living body, and including an electric circuit operable to process the biological signal and to telemeter the processed signal; and a biological signal inputting apparatus. The system may also include a receiver-transmitter operable to receive the processed signal telemetered from the transmitter and to telemeter the processed signal to the biological signal inputting apparatus by way of a wide area network; and a storage for storing the processed signal telemetered from the transmitter as biological signal data and for inputting the biological signal data to the biological signal inputting apparatus. Also, the system may include a storage for storing the processed signal telemetered from the transmitter as biological signal data and for inputting the biological signal data to the biological signal inputting apparatus.

Abstract: A copper plate 2 is mounted on a titanium electrode element 1 by spot welding, and a lead wire 3a is attached to the copper plate 2 by solder 4.

Abstract: An electrode 4 for detecting a biological signal and a loop antenna 3 are integrally mounted on a support 2 placed on the surface of a living body and a transmitter 5 is placed on the support 2. A biological signal detected on the electrode 4 is input through a connector 11 to electric circuitry 10 of the transmitter 5 and an electric signal processed by the electric circuitry 10 is output through connectors 12 and 13 to both ends of the loop antenna 3 from which the biological signal is emitted to a receiver. At this time, the opening face of the loop antenna 3 is in a direction almost perpendicular to the surface of a living body for improving sensitivity.

Abstract: A communication system has a Holter electrocardiograph having a biological signal detection apparatus having a transmitter 10 for processing and telemetering signals detected by a plurality of electrodes supported on supports for detecting biological signals, a receiver 14 for receiving the signal telemetered from the transmitter, demodulating the received signal, and outputting the demodulated signal to a biological signal input section of required record means, and a recorder 16 having record means for recording the demodulated signal by the receiver. The recorder of the Holter electrocardiograph has transmitting and receiving means 17 for telemetering the signal stored in the record means, receiving an external transmission signal, and telemetering some or all of the signals stored in the record means as instructed by the external transmission signal.

Abstract: An electrode 4 for detecting a biological signal and a loop antenna 3 are integrally mounted on a support 2 placed on the surface of a living body and a transmitter 5 is placed on the support 2. A biological signal detected on the electrode 4 is input through a connector 11 to electric circuitry 10 of the transmitter 5 and an electric signal processed by the electric circuitry 10 is output through connectors 12 and 13 to both ends of the loop antenna 3 from which the biological signal is emitted to a receiver. At this time, the opening face of the loop antenna 3 is in a direction almost perpendicular to the surface of a living body for improving sensitivity.

Abstract: A communication system has a Holter electrocardiograph having a biological signal detection apparatus having a transmitter 10 for processing and telemetering signals detected by a plurality of electrodes supported on supports for detecting biological signals, a receiver 14 for receiving the signal telemetered from the transmitter, demodulating the received signal, and outputting the demodulated signal to a biological signal input section of required record means, and a recorder 16 having record means for recording the demodulated signal by the receiver. The recorder of the Holter electrocardiograph has transmitting and receiving means 17 for telemetering the signal stored in the record means, receiving an external transmission signal, and telemetering some or all of the signals stored in the record means as instructed by the external transmission signal.

Abstract: A conductive composition for a biological electrode is capable of reducing the impedance between the electrode and the skin. A conductive gel composition for a biological electrode which is capable of electrically and physically connecting a living body to an electrode element and is composed of at least the following components: (1) a radical-polymerizable unsaturated compound; (2) a moisturizer serving as a plasticizer and functioning to supplementing and promoting the physiological humidifying function of the horny layer; (3) a polymerization initiator; and (4) a crosslinking agent. This moisturizer serves also as a plasticizer and, furthermore, elevates the moisture content in the horny layer at the application of this composition. The above-mentioned composition may further contain a plasticizer selected from among polyhydric alcohols, amines and ethers.

Abstract: A biological electrode includes an electrode element having electroconductivity with respect to a living body, the biological electrode used by disposing said electrode element at a predetermined position, and the electrode element being made of biodegradable material.

Abstract: A core 5 is composed of a J-shaped front core portion 1, a J-shaped rear core portion 2, a U-shaped left core portion 3, and a U-shaped right core portion 4. These core portions 1 to 4 have one-side end portions which are substantially directed in one and the same direction and which are fixed to one another to thereby form a center portion 6. A coil 7 is wound on the center portion 6. The core 5 is attached to a core support member attached closely to a patient. In use, the coil apparatus is made close or near to the patient. When the coil 7 is supplied with a pulse current, pulse-like magnetic flux is generated in the purdendal nerve and pelvic floor muscle group of the patient so that an eddy current is induced. The patient in the region where magnetic flux is generated and an eddy current is generated, is stimulated sufficiently, so that urinary incontinence treatment is performed.

Abstract: A core (5) is composed of a J-shaped front core portion (1), a J-shaped rear core portion (2), a U-shaped left core portion (3), and a U-shaped right core portion (4). These core portions (1 to 4) have one-side end portions which are substantially directed in one and the same direction and which are fixed to one another to thereby form a center portion (6). A coil (7) is wound on the center portion (6). The core (5) is attached to a core support member attached closely to a patient. In use, the coil apparatus is made close or near to the patient. When the coil (7) is supplied with a pulse current, pulse-like magnetic flux is generated in the purdendal nerve and pelvic floor muscle group of the patient so that an eddy current is induced. The patient in the region where magnetic flux is generated and an eddy current is generated, is stimulated sufficiently, so that urinary incontinence treatment is performed.

Abstract: A core (20) is housed in a box (10) in which a box upper board (11) is electrically insulative and nonmagnetic. The core has front and rear side legs (23) directed toward the box upper board (11). A coil (26) is wound around the core (20). An air way (12a) is formed in a box bottom board (12). A blower (16) is attached to the air way. Other air ways which cooperate with the air way (12a) to form air pathways passing over the coil (26) are formed in box side boards (13). Pulse current or alternating current is supplied to the coil (26) to generate magnetic fluxes toward a region from a front of the urethral orifice to a rear of the anus, so that urinary incontinence is treated by eddy currents induced in the living body.

Abstract: A conductive composition for a biological electrode is capable of reducing the impedance between the electrode and the skin. A conductive gel composition for a biological electrode which is capable of electrically and physically connecting a living body to an electrode element and is composed of at least the following components: (1) a radical-polymerizable unsaturated compound; (2) a moisturizer serving as a plasticizer and functioning to supplementing and promoting the physiological humidifying function of the horny layer; (3) a polymerization initiator; and (4) a crosslinking agent. This moisturizer serves also as a plasticizer and, furthermore, elevates the moisture content in the horny layer at the application of this composition. The above-mentioned composition may further contain a plasticizer selected from among polyhydric alcohols, amines and ethers.

Abstract: A copper plate 2 is mounted on a titanium electrode element by spot welding, and a lead wire 3a is attached to the copper ate 2 by solder 4.

Abstract: A method for magnetically stimulating biological body to make treatment or diagnosis by applying a time-varying magnetic field to nerve, muscle or disease part, wherein alternate frequency, inductance, pulse width, peak value of current, and stimulation frequency are set appropriately for the disease part, and a litz wire coil is used to produce the time-varying magnetic field. Hence, the effective A.C. resistance with the skin effect can be reduced and the power consumption efficiency can be increased. Moreover, the heat generation of coil can be decreased. Also, a magnetically stimulating device uses acoustic insulation or noise absorbing material for reducing noise caused by contact between wound coil parts.

Abstract: A biological electrode includes an electrode element having electroconductivity with respect to a living body, the biological electrode used by disposing said electrode element at a predetermined position, and the electrode element being made of biodegradable material.

Abstract: A core 5 is composed of a J-shaped front core portion 1, a J-shaped rear core portion 2, a U-shaped left core portion 3, and a U-shaped right core portion 4. These core portions 1 to 4 have one-side end portions which are substantially directed in one and the same direction and which are fixed to one another to thereby form a center portion 6. A coil 7 is wound on the center portion 6. The core 5 is attached to a core support member attached closely to a patient. In use, the coil apparatus is made close or near to the patient. When the coil 7 is supplied with a pulse current, pulse-like magnetic flux is generated in the purdendal nerve and pelvic floor muscle group of the patient so that an eddy current is induced. The patient in the region where magnetic flux is generated and an eddy current is generated, is stimulated sufficiently, so that urinary incontinence treatment is performed.

Abstract: A seat face part 20 of a chair 1 is provided with a stimulating coil 3. A projection 10 is made on the top of the stimulating coil 3. When a treated patient sits in the chair 1, the anus of the treated patient is placed on the top of the projection 10, whereby the treated patient can be made to sit at the optimum position for urinary incontinence treatment relative to the stimulating coil 3.

Abstract: A magnetic stimulus type urinary incontinence treatment coil apparatus for generating flux for generating eddy current in a physiological body by providing a coil having an upper surface curved in a concave manner at least in a longitudinal direction such that the coil is fitted to at least part of an area from a front face region of a urethra opening to a rear face region of an anus, the coil wound around the area; and a support for supporting the coil at a position at which the coil is fitted to a patient.

Abstract: A method for treating urinary incontinence which consists of delivering a train of current pulses through one or more magnetic stimulation coils to induce a train of magnetic flux pulses, which then induce an eddy current within the body, thereby to stimulate a group of pelvic floor muscles, the pudendal nerve, the external urethral sphincter, or the tibial nerve.

Abstract: The stimulating apparatus (1) for preventing urinary incontinence according to the invention includes an event switch (4) for inputting plural sets of urinary incontinence information; a stimulation condition setting unit (5) for setting a condition of stimulation on a living body to an arbitrary value, a stimulation intensity setting unit (3) for adjusting stimulation intensity to an arbitrary level, a central processing unit (6) having an event input judging unit (6d) for judging the plural sets of urinary incontinence information, and a storage unit (6b) for storing the urinary incontinence information, the stimulation conditions, and stimulation history information of a stimulation signal which is output, and a displaying device (7) for displaying the urinary incontinence information, the stimulation conditions, and the stimulation history information.