Abstract: A physiological sensing device for reading an elongated test strip having an insertion end, a test strip width and a test strip length is provided. The physiological sensing device includes a housing, a test strip slot and a first protruding portion. The housing has a front surface, a rear surface opposite to the front surface, and a lateral surface. The test strip slot is disposed on the lateral surface, and having a first slot wall adjacent to the front surface; a second slot wall adjacent to the rear surface, and disposed opposite to the first slot wall; and a slot opening having a slot width, formed between the first slot wall and the second slot wall for accommodating the elongated test strip, and allowing the insertion end to enter the housing through the slot opening.

Abstract: A method for dynamic analysis of a physiological parameter of a user includes: generating a first event label corresponding to a first measurement value of the physiological parameter measured at a first time point; generating a second event label corresponding to a second measurement value of the physiological parameter measured at a second time point; calculating a time difference between the first and second time points; calculating a measurement value difference between the first and second measurement values when a time difference between the first and second time points is smaller than a time length threshold; and providing an analysis outcome based on the first and second event labels and the measurement value difference.

Abstract: A system for monitoring a physiological condition of a user includes a first measuring apparatus for personal use, a second measuring apparatus for use by medical professionals, and a server. The first measuring apparatus measures a first physiological parameter of the user. The second measuring apparatus measures a second physiological parameter of the user. The server receives the first and second physiological parameters measured by the first and second measuring apparatuses. The measured values of the first and second physiological parameters are associated with a disease condition, a health condition, a nutrient intake condition, a fitness condition or an exercise condition of the user.

Abstract: A biosensing device includes a sensor module and an electric signal transducer. The sensor module includes a biosensor adapted for measuring a biosignal of a host, and a fixed seat including a conducting member that is electrically connected to the biosensor. The electric signal transducer is for receiving and sending the biosignal measured by the biosensor, is coupled to the sensor module, and includes an electric signal unit electrically connected to the conducting member, and a battery connected to the electric signal unit. The electric signal unit has two electrical contacts that cooperatively define a switch. The battery provides power supply to the biosensor when the electric signal transducer is coupled to the sensor module.

Abstract: A method for data transmission between a sensor device and an electronic device includes: broadcasting, by the sensor device, a beacon dataset and a sensor dataset associated with the beacon dataset; in receipt of the beacon dataset, determining, by the electronic device, whether to receive the sensor dataset associated with the beacon dataset; and when it is determined to receive the sensor dataset associated with the beacon dataset, operating, by the electronic device, in a scan mode so as to receive the sensor dataset associated with the beacon dataset.

Abstract: A biosensor strip includes a strip body, a working electrode and a chemical reagent layer, wherein the strip body has a conductive portion and a reaction channel. The partial wall that forms the reaction channel is a partial or an entire surface layer of the conductive portion. The reaction channel has an opening that receives the sample fluid and an electrode hole. The working electrode is embedded in the electrode hole. The chemical reagent is configured in the reaction channel and generates an electrochemical reaction with the analyte. Therefore, after the sample fluid covers the reaction channel and the working electrode via the opening, the conductive portion and the working electrode on the wall of the reaction channel generate sensing currents and output the signals via the first and second signal output sides to determine an analyte concentration in the sample fluid.

Abstract: A test strip reader is disclosed. The test strip reader comprises a module main body and a circuit board. The module main body includes an upper cover, a grounding element and at least one operation hole containing a first operation movement assembly and a second operation movement assembly, wherein the upper cover and the module main body are formed integrally, and a condition of one of a contact status and a separation status between the second operation movement assembly and the grounding element determines a read signal.

Abstract: An elastic physiological patch includes a patch assembly and an implant assembly. The patch assembly includes an electronic device, and a soft patch body defining a chamber for receiving the electronic device. The implant assembly is mountable to the electronic device and includes an implant which is capable of being driven to partially pass through the patch body and which is adapted to be implanted in the skin of a subject. The implant and the patch body cooperatively seal the chamber.

Abstract: The present invention relates to a method for estimating a distribution of a sample flowed from a first electrode toward a second electrode of an electrochemical test strip. A working voltage is provided between the first electrode and the second electrode for obtaining a first and a second currents, where a ratio of the first current to the second current is applied to estimate the distribution of the sample on the first and the second electrodes and an effectiveness of a measurement of a target analyte of the sample.

Abstract: A test strip reader is disclosed. The test strip reader comprises a module main body and a circuit board. The module main body includes an upper cover, a grounding element and at least one operation hole containing a first operation movement assembly and a second operation movement assembly, wherein the upper cover and the module main body are formed integrally, and a condition of one of a contact status and a separation status between the second operation movement assembly and the grounding element determines a read signal.

Abstract: An electronic device includes a casing, first and second batteries and a conductive plate. The first and second batteries are disposed in a battery slot of the casing. The conductive plate is clamped between the first and second batteries, and has a mounting portion that is mounted pivotally into a mounting groove of the casing such that the conductive plate is pivotable between a clamped position where a conductive body of the conductive plate is clamped between the first and second batteries, and an unclamped position where the conductive body is spaced apart from the first and second batteries for removal and installment of one of the first and second batteries.

Abstract: A method for measuring a physiological parameter is disclosed. The method includes providing an electronic device having a radio reader transmitting and receiving a radio signal; providing a physiological parameter measurement device configured with an energy storage module, a transmission module and a strip port for receiving a strip; energy storage in the physiological parameter measurement device in response to a radio energy storage signal transmitted from the electronic device until it reaches a sufficient energy status; and applying a sensing voltage to the strip via the strip port, receiving a sensing signal from the strip, and converting the sensing signal into a physiological parameter measurement signal by the physiological parameter measurement device under the sufficient energy status.

Abstract: The present invention relates to a method for estimating a distribution of a sample flowed from a first electrode toward a second electrode of an electrochemical test strip. A working voltage is provided between the first electrode and the second electrode for obtaining a first and a second currents, where a ratio of the first current to the second current is applied to estimate the distribution of the sample on the first and the second electrodes and an effectiveness of a measurement of a target analyte of the sample.

Abstract: A biological testing device includes a housing body having a meter storage compartment, and a testing meter that is disposed in the meter storage compartment and that operates with a biosensor strip which is disposed after being used. The housing body further has a waste storage compartment that is separated from the meter storage compartment and that has a waste take-out opening, and an insertion hole for inserting the used biosensor strip into the waste storage compartment. The waste take-out opening is larger than the insertion hole. The waste take-out opening is normally closed and is openable for permitting taking out of the used biosensor strip from the waste storage compartment.

Abstract: A blood lancing device includes a housing unit and a cap. When the cap is disposed at an initial position, a second drive element is blocked by a first drive element from forward movement relative to the first drive element. When the cap is moved from the initial position to a retracted position, the first drive element pushes the second drive element so that the second drive element is deviated from the first drive element when a holder holding a lancet is moved to a trigger position, thereby allowing for a high speed movement of the holder from the trigger position to a pricking position by virtue of biasing action of a first biasing member.