Abstract: A circuit check method and an electronic apparatus applicable to a to-be-tested circuit are provided. The to-be-tested circuit has one or more first nodes related to a gate voltage of one or more transistor devices and a plurality of second nodes. The circuit check method includes: setting endpoint voltages of a plurality of input interface ports of the to-be-tested circuit; obtaining a first node voltage of the first node according to a conduction path of the to-be-tested circuit and the gate voltage of the transistor device; obtaining a second node voltage of each second node according to the conduction path, the endpoint voltages, and the first node voltage; and performing circuit static check on the to-be-tested circuit by applying the first node voltage and the second node voltage.

Abstract: A semiconductor package structure and a method for manufacturing a semiconductor package structure are provided. The semiconductor package structure includes a device package and a shielding layer. The device package includes an electronic device unit and has a first surface, a second surface opposite to the first surface, and a third surface connecting the first surface to the second surface. The shielding layer is disposed on the first surface and the second surface of the device package. A common edge of the second surface and the third surface includes a first portion exposed from the shielding layer by a first length, and a common edge of the first surface and the third surface includes a second portion exposed from the shielding layer by a second length that is different from the first length.

Abstract: A transistor includes a first semiconductor layer, a second semiconductor layer, a semiconductor nanosheet, a gate electrode and source and drain electrodes. The semiconductor nanosheet is physically connected to the first semiconductor layer and the second semiconductor layer. The gate electrode wraps around the semiconductor nanosheet. The source and drain electrodes are disposed at opposite sides of the gate electrode. The first semiconductor layer surrounds the source electrode, the second semiconductor layer surrounds the drain electrode, and the semiconductor nanosheet is disposed between the source and drain electrodes.

Abstract: A method for presenting data of blood-pressure measurement includes: calculating blood-pressure index values based on entries of data of blood-pressure measurement; and presenting a blood-pressure trend interface that includes index level regions, and for each of the blood-pressure index values, an index level markers disposed in one of the index level regions. The blood-pressure trend interface is presented in a manner that the index level markers corresponding respectively to the blood-pressure index values cooperatively indicate a trend in the blood pressure.

Abstract: A method includes steps of: applying a first voltage signal on a blood sample so as to obtain a preliminary value regarding an analyte in the blood sample; applying on the blood sample, a second voltage signal that includes cycles of a pulse and that has a voltage value alternating between high and low levels; measuring a physical quantity resulting from application of the second voltage signal on the blood sample at a time point in one of the cycles of the pulse of the second voltage signal so as to generate a calibration value; and calibrating the preliminary value based on the calibration value so as to obtain a calibrated value of the analyte in the blood sample which serves as a result of measurement of the analyte.

Abstract: A voltage balance control method applicable to a three-phase DC-AC inverter is provided, the voltage balance control method including: multiplying, by a first multiplier, an actual value of a line capacitance voltage by a sine function to generate a first voltage; capturing, by a first filter, a DC part of the first voltage to generate an error DC component; subtracting, by a first subtractor, the error DC component from a target voltage amplitude to generate a second voltage; adjusting, by a first proportional-integral controller, the second voltage to generate an amplitude error compensation value; and adding, by an adder, the amplitude error compensation value with the target voltage amplitude to generate an amplitude reference value. A voltage balance control device applicable to a three-phase DC-AC inverter is also provided.

Abstract: A method includes steps of: applying a first voltage signal on a blood sample so as to obtain a preliminary value regarding an analyte in the blood sample; applying on the blood sample, a second voltage signal that includes cycles of a pulse and that has a voltage value alternating between high and low levels; measuring a physical quantity resulting from application of the second voltage signal on the blood sample at a time point in one of the cycles of the pulse of the second voltage signal so as to generate a calibration value; and calibrating the preliminary value based on the calibration value so as to obtain a calibrated value of the analyte in the blood sample which serves as a result of measurement of the analyte.

Abstract: A voltage balance control method applicable to a three-phase DC-AC inverter is provided, the voltage balance control method including: multiplying, by a first multiplier, an actual value of a line capacitance voltage by a sine function to generate a first voltage; capturing, by a first filter, a DC part of the first voltage to generate an error DC component; subtracting, by a first subtractor, the error DC component from a target voltage amplitude to generate a second voltage; adjusting, by a first proportional-integral controller, the second voltage to generate an amplitude error compensation value; and adding, by an adder, the amplitude error compensation value with the target voltage amplitude to generate an amplitude reference value. A voltage balance control device applicable to a three-phase DC-AC inverter is also provided.

Abstract: The wrist sphygmomanometer includes a wristband, an inflatable bladder, a measuring unit and a pressure sensing unit. The wristband has an inner surface that is adapted to contact a human wrist. The inflatable bladder is mounted inside the wristband, and has a measurement point adapted to correspond in position to a point of radial pulse on the human wrist. The measuring unit is mounted on an outer surface of the wristband and is connected to the inflatable bladder. The pressure sensing unit includes a pressure sensor mounted at the measurement point of the inflatable bladder, and a wire electrically interconnecting the measuring unit and the pressure sensor.

Abstract: The present invention provides a biosensing device, comprising an input unit, an analysis unit, a process unit, and a set unit for storing resulting data values as the basis for calibrating the biosensing device, to set up the calibration parameters of a strip of the biosensing device.

Abstract: A voice-assisted biomedical measurement apparatus is revealed. The voice-assisted biomedical measurement apparatus allows users to get measurement results of biological signals and other assistant information in aural form. The voice-assisted biomedical measurement apparatus consists of a sensing unit, a control unit, a voice module and a speaker. The voice-assisted biomedical measurement apparatus further includes a display unit, an operation unit, a memory unit and a data transmission unit. The voice-assisted biomedical measurement apparatus features on that the voice module combines at least one first voice data to form a sentence according to at least one first grammar data when a first control signal is sent from the control unit to the voice module. Moreover, the voice-assisted biomedical measurement apparatus gets at least one second voice data and at least one second grammar data from an external data system through a data transmission unit.

Abstract: A system for biomedical measurement with a voice notification feature includes a biomedical measurement device that generates a command based on at least one of a physiological signal obtained by the biomedical measurement device as a result of a measured physiological condition of a user, and an operation phase of the biomedical measurement device, and a mobile device that is coupled to and separate from the biomedical measurement device. The mobile device receives the command from the biomedical measurement device, generates a voice notification signal according to the command and pre-established voice data, and outputs audibly the voice notification signal.

Abstract: An instrument parameter setting device and an instrument parameter setting method are provided. The instrument parameter setting device has a parameter-setting card combined with a biological detection instrument. The parameter-setting card includes a strip area and a first set of block areas. Each block area in the first set of block areas is connected to the strip area respectively. The instrument detects data represented by a logical change of the block areas, so as to set parameters. In addition, it is convenient to input the data into the instrument through an external setting of the instrument. Accordingly, the characteristic parameters of a detection specimen are conveniently input into the instrument, thereby increasing the yield of specimen production, establishing a self-owned technology, and reducing the cost.

Abstract: The present invention provides a biosensing device, comprising an input unit, an analysis unit, a process unit, and a set unit for storing resulting data values as the basis for calibrating the biosensing device, to set up the calibration parameters of a strip of the biosensing device.

Abstract: The present invention discloses a physiological test device, which is used to test multiple physiological parameters in vitro and able to indicate the current test item with lights, sounds, images, text or a combination thereof lest the user be confused by the multiple functions of the test device or different test results thereof. The present invention can prevent the user from mistaking the test type or test result, and thus can overcome the conventional problems that the multiple functions of a single test device confuse the user. Thus, the user will not take a wrong test piece or obtain a wrong test result.

Abstract: An instrument parameter setting device and an instrument parameter setting method are provided. The instrument parameter setting device has a parameter-setting card combined with a biological detection instrument. The parameter-setting card includes a strip area and a first set of block areas. Each block area in the first set of block areas is connected to the strip area respectively. The instrument detects data represented by a logical change of the block areas, so as to set parameters. In addition, it is convenient to input the data into the instrument through an external setting of the instrument. Accordingly, the characteristic parameters of a detection specimen are conveniently input into the instrument, thereby increasing the yield of specimen production, establishing a self-owned technology, and reducing the cost.

Abstract: An inspecting device with an identification function is provided to identify and analyze different types of test specimens. (The test specimens include information to be measured and/or identification information.) In order to enable the inspecting device to identify the test specimen, an appropriate electrode pattern corresponding to an electrode in a specimen connection port of the inspecting device is arranged on one end of the test specimen. During a process of inserting the test specimen from an open end of the specimen connection port to reach a bottom end thereof, a logic change based on the electrode pattern detected by the connection port is utilized to identify the type of the specimen or read the information to be measured. A method for identifying different types of test specimens and a multifunctional test specimen is also provided.

Abstract: The present invention provides a biosensing device, comprising an input unit, an analysis unit, a process unit, and a set unit, to set up the calibration parameters of a strip in the device so that the calibration can be completed at a lower cost and be more user friendly.

Abstract: This present invention is a biological sensing meter and data communicating method thereof, applying an informative tag of the radio frequency identification technique to express the test item, the shelf expired date, the opening expired date, the sensing predetermined value, the number of test times as well as the test chip examination parameter and other calibration data under different test configurations. With the informative tag of the radio frequency identification technique, the test configuration can be set for testing different items, controlling the expired date of the test chip, and restoring test results of different test items.

Abstract: The present invention discloses a management system and method for a biostrip. The management method is applicable to a biomedical measurement device to manage at least one biostrip. The management method comprises the following steps: inputting at least one piece of setting data of the biostrip; generating a count reference value based on the time of the inputted setting data, data content or combinations thereof; monitoring the expiration date of the biostrip corresponding to the count of the count reference value, and it further comprises displaying the current date, the expiration date of the biostrip, the amount of strips, the first opening date or combinations thereof. When the expiration date of the biostrip has passed, a user is then reminded to avoid using the expired biostrip.