Abstract: A method for manufacturing an implantable micro-biosensor includes the steps of: a) providing a substrate, b) forming on a first surface of the substrate a first working electrode which at least includes a first sensing section including a first conductive material, c) forming on the first surface of the substrate at least one second working electrode which at least includes a second sensing section disposed proximate to at least one side of the first sensing section, and d) forming a chemical reagent layer which at least covers the first conductive material of the first sensing section and which reacts with the analyte to produce a product.

Abstract: An insertion device includes an upper casing, a lower casing and an insertion module. When the lower casing is coupled to the upper casing, an abutment portion of the lower casing limits movement of a casing engaging structure of the upper casing, such that the upper casing cannot move downwardly so as to prevent unintentional insertion operation of the insertion device.

Abstract: A health management supply organizer is disclosed. The health management supply organizer includes a closeable body adapted to receive a plurality of health monitoring supplies. The plurality of health monitor supplies include at least a transmitter container for receiving a transmitter, a charger for the transmitter and a splitter for splitting a used sensor module and the transmitter. The closeable body includes a first leaf, a second leaf and an end portion connecting the first leaf and the second leaf, wherein the first leaf and the second leaf are foldable about the end portion. The first leaf has a plurality of compartments adapted to receive the plurality of health monitoring supplies respectively.

Abstract: A physiological signal monitoring device includes a base including a base body that has a bottom plate and an opening, a biosensor mounted to the base, and a transmitter removably mounted to the base body. The base further includes a first coupling structure disposed on a top surface of the bottom plate, and the transmitter includes a second coupling structure coupled to the first coupling structure when the transmitter is mounted to the base body. When the first and second coupling structures are coupled to each other, they are disposed to be distal from a periphery cooperatively defined by the base and the transmitter. They are uncoupled from each other when an external force is applied through the opening of the base body to separate the transmitter from the base.

Abstract: A subcutaneous glucose monitoring system is disclosed. The subcutaneous glucose monitoring system includes a glucose measurement device that includes a sensor having a predetermined usage time length, and a reader comprising a processor, a wireless communication module, a memory, and a user interface configured to couple with the one or more processors and be operated by the user to set the pre-grace period and display the data.

Abstract: The present invention provides a measuring method for prolonging a usage lifetime of a biosensor to measure a physiological signal representative of a physiological parameter associated with an analyte in a biofluid. The biosensor includes two working electrodes at least partially covered by a chemical reagent and two counter electrodes having silver and a silver halide, and each silver halide has an initial amount.

Abstract: A disassembling device of a physiological parameter monitoring device comprises a base seat and a disassembling unit. The base seat has an accommodating recess, and the accommodating recess has an inner side end and an open end. The physiological parameter monitoring device is slidably disposed in the accommodating recess. The disassembling unit includes at least one abutment member connected to the base seat, and the abutment member extends from the inner side end toward the open end. When the physiological parameter monitoring device is slidably disposed in the accommodating recess of the base seat, the abutment member may be inserted between a transmitter and a bottom seat to thereby separate the transmitter and the bottom seat from each other, so as to achieve an effect of recycling and then reusing the transmitter.

Abstract: A disassembling accessory for disassembling a physiological signal monitoring device includes a base seat having an accommodating space, and a cover body connected to the base seat and movable between covering and open states. The physiological signal monitoring device includes a sensor kit having an through hole, and a transmitter removably mounted to and covering the sensor kit. The cover body has a button being movable and a pushing member connected co-movably to the button. When the cover body is in the covering state, the button is operable to drive the pushing member to move such that the pushing member extends through the through hole to push the transmitter for disassembling the transmitter from the sensor kit.

Abstract: An implant device for a biosensor comprises a housing unit, an implant module, a bottom seat and a sensor component. The implant module is disposed in an accommodating space of the housing unit. The implant module includes a main body unit, a guiding set, an implant seat, a first elastic member, a needle withdrawal seat, a second elastic member, and a needle implant member. When the housing unit is pressed downwardly, the implant seat is displaced downwardly to perform automatic needle implantation by virtue of an resilient force of the first elastic member; when the needle implantation is completed, a limiting relationship of the implant seat and the needle withdrawal seat is released, so the needle withdrawal seat completes automatic needle withdrawal by releasing a resilient force of the second elastic member.

Abstract: A disassembling accessory for disassembling a physiological signal monitoring device that includes a sensor kit having a through hole at a bottom portion thereof, and a transmitter removably coupled to the sensor kit. The disassembling accessory includes first and second housings movable relative each other between covering and open states. The first housing has an accommodating space. The second housing is connected to one side of the first housing, and has a pushing member. When the first and second housings are in the open state, the accommodating space opens toward the physiological signal monitoring device with the transmitter facing the accommodating space and being received in one of the first and second housings. When the first and second housings are in the covering state, the pushing member extends through the through hole to push the transmitter for disassembling the transmitter from the sensor kit.

Abstract: A charging device for a physiological signal transmitter used to receive a physiological signal from the subcutaneous tissue of a living body and having a first electrical connecting port is disclosed. The charging device includes a transmitter placing seat and a charging module. The transmitter placing seat includes a bearing surface for placing the physiological signal transmitter and an opening configured to align with the first electrical connection port of the physiological signal transmitter. The charging module includes a second electrical connecting port, a third electrical connecting port, a circuit assembly and a control module. The second electrical connecting port is disposed in the opening, and driven to move between a first position and a second position. The third electrical connecting port connects to a power source.

Abstract: An implantation device for prompt subcutaneous implantation of a sensor to measure a physiological signal of an analyte in a biofluid of a living body is disclosed. The implantation includes a housing, an implantation module, a detachable module and a bottom cover. The housing has a bottom opening, the implantation module including an implanting device and a needle extracting device, the detachable module includes the sensor configured to be detachably engaged with the implantation module and a base configured to mount the sensor thereon, wherein the base is separated from the sensor before sensor implantation; and the bottom cover configured to be detachably coupled to the bottom opening so that the housing and the bottom cover together form an accommodating space. The base includes an adhesive pad, and a release layer is attached to the adhesive pad.

Abstract: A insertion module includes a main body, an auxiliary insertion seat, an insertion needle assembly and a sensor assembly. The main body has a plurality of slide grooves. The auxiliary insertion seat has a base portion, and a plurality of wing portions. The insertion needle assembly is fixed through the interference between the wing portions and wall surfaces of the slide grooves, such that the insertion needle is prevented from being oblique to an insertion direction before the insertion needle is inserted into a host.

Abstract: A test strip code reader is provided. The test strip code reader includes a test strip carrier for accommodating a test strip, a first conductive element for decoding a code of the test strip, a second conductive element configured to be in a contact state or a separation state with the first conductive element, and an activation element having a body and a plurality of protrusions, wherein the body is used to prevent the first conductive element from being contaminated, and according to whether the plurality of protrusions are actuated by the test strip, the contact state or the separation state between the first conductive element and the second conductive element is determined to decode the code of the test strip.

Abstract: An implantable micro-biosensor includes at least one counter electrode, a first working electrode, a chemical reagent layer, and at least one second working electrode. The chemical reagent layer reacts with an analyte to product a product, such that a first sensing section of the first working electrode is driven to perform a measurement action. A second sensing section of the second working electrode is driven to perform an interference-eliminating action to consume interference. The second working electrode cooperates with the counter electrode to permit the counter electrode to be driven to perform a regeneration action to regenerate silver halide.

Abstract: The present invention provides a micro biosensor for reducing a measurement interference when measuring a target analyte in the biofluid, including: a substrate; a first working electrode configured on the surface, and including a first sensing section; a second working electrode configured on the surface, and including a second sensing section which is configured adjacent to at least one side of the first sensing section; and a chemical reagent covered on at least a portion of the first sensing section for reacting with the target analyte to produce a resultant. When the first working electrode is driven by a first working voltage, the first sensing section measures a physiological signal with respect to the target analyte. When the second working electrode is driven by a second working voltage, the second conductive material can directly consume the interferant so as to continuously reduce the measurement inference of the physiological signal.

Abstract: A physiological signal monitoring device includes a biosensor, and a transmitter including a bottom casing, a processing unit and a battery. The bottom casing has a first stepped section, a second stepped section, and a riser section interconnecting the first stepped section and the second stepped section. The processing unit corresponds in position to the first stepped section. The battery corresponds in position to the first stepped section, and is configured not to overlap the processing unit in a direction of a first axis so as to reduce a thickness of the transmitter.

Abstract: An implantable micro-biosensor a substrate, a first electrode, a second electrode, a third electrode, and a chemical reagent layer. The first electrode is disposed on the substrate and used as a counter electrode. The second electrode is disposed on the substrate and spaced apart from the first electrode. The third electrode is disposed on the substrate and used as a working electrode. The chemical reagent layer at least covers a sensing section of the third electrode so as to permit the third electrode to selectively cooperate with the first electrode or the first and second electrodes to measure a physiological signal in response to the physiological parameter of the analyte.

Abstract: An implantable micro-biosensor a substrate, a first electrode, a second electrode, a third electrode, and a chemical reagent layer. The first electrode is disposed on the substrate and used as a counter electrode. The second electrode is disposed on the substrate and spaced apart from the first electrode. The third electrode is disposed on the substrate and used as a working electrode. The chemical reagent layer at least covers a sensing section of the third electrode so as to permit the third electrode to selectively cooperate with the first electrode or the first and second electrodes to measure a physiological signal in response to the physiological parameter of the analyte.