Abstract: Provided is a blood glucose measurement device and method. The blood glucose measurement device may determine a blood glucose unit to be provided to a user based on a user input and a region in which the device is positioned, and provide blood glucose data to the user using the determined blood glucose unit through a display.

Abstract: Disclosed are a microneedle patch, a realtime blood sugar monitoring device, and a realtime blood sugar monitoring method using the realtime blood sugar monitoring device. The realtime blood sugar monitoring device causes a different color to be reversibly expressed according to the concentration of sugar included in the skin of a human body, and, thus, if the device is utilized, the concentration of the sugar in the human body can be measured in realtime in a minimally invasive manner. Also, the present invention shows the measured concentration of the sugar by connecting to a wearable device and, thereby, allows a user to more conveniently check changes in the concentration of the sugar in realtime.

Abstract: Disclosed is a blood glucose measuring device, method, and system. In response to a connection of a blood glucose measuring module to a socket of the blood glucose measuring device being detected, the blood glucose measuring device may receive a data signal from the blood glucose measuring module and read a bit of the data signal based on a period of data signal.

Abstract: Disclosed is a biological analyte monitoring device including a strip inserter in which a test strip is to be inserted, and a processor configured to read a code sequence based on an element detected from an index region, a first code region, and a second code region of the test strip in response to the test strip being inserted in the strip inserter, wherein the processor is further configured to determine a target interval in which an index element formed in the index region is detected while the test strip is being inserted in the strip inserter, detect a first code element formed in the first code region in the target interval and detect a second code element formed in the second code region in the target interval, and identify the code sequence based on a result of detecting the first code element and the second code element.

Abstract: A medicine injection device includes a header including a first connector configured to receive an electrical signal associated with a target analyte from a needle and configured to be connected to the needle, a medicine storage configured to be connected to the needle when the needle and the header are connected and store a medicine, a driver configured to apply an external force to the medicine storage, a controller configured to control the driver to measure an amount of the target analyte based on the received electrical signal, determine an injection amount in response to the measuring being completed, and inject the determined injection amount, and a notifier configured to receive, from the controller, measurement information associated with the amount of the target analyte and injection information associated with the injection amount and provide a user with the received measurement information and injection information.

Abstract: Disclosed is a blood glucose measuring device, method, and system. In response to a connection of a blood glucose measuring module to a socket of the blood glucose measuring device being detected, the blood glucose measuring device may receive a data signal from the blood glucose measuring module and read a bit of the data signal based on a period of data signal.

Abstract: Disclosed is a biological analyte monitoring device including a strip inserter in which a test strip is to be inserted, and a processor configured to read a code sequence based on an element detected from an index region, a first code region, and a second code region of the test strip in response to the test strip being inserted in the strip inserter, wherein the processor is further configured to determine a target interval in which an index element formed in the index region is detected while the test strip is being inserted in the strip inserter, detect a first code element formed in the first code region in the target interval and detect a second code element formed in the second code region in the target interval, and identify the code sequence based on a result of detecting the first code element and the second code element.

Abstract: Disclosed herein is a four-pole plug for connection to a PCB. The four-pole plug includes a plug body unit (10) which has a long cylindrical shape and is connected to a jack of an acoustic apparatus, a connection terminal unit (20) which is coupled to an end of the plug body unit, and a terminal housing (30) which receives the connection terminal unit therein and has an opening at a predetermined position so that a portion of the connection terminal unit protrudes from the terminal housing through the opening.

Abstract: The present invention relates to a method of automatically setting a unit of measurement of a bio-data measuring device. The bio-data measuring device automatically sets a country belonging to a corresponding location as location information is determined, and automatically selects a unit of measurement of the set country depending on automatic setting for countries. When bio-data is measured by measurement means, operation means calculates a bio-data measurement value depending on a reference unit and a calculation formula, and determines whether the automatically selected unit of measurement of the set country is identical to the reference unit. If the automatically selected unit of measurement is not identical to the reference unit, the operation means converts the calculated bio-data measurement value into a numerical value based on the automatically selected unit of measurement of the set country. The converted numerical value and the automatically selected unit of measurement are displayed.

Abstract: The present invention provides a time synchronization method for a diagnostic strip analysis apparatus. When a user sets time of the diagnostic strip analysis apparatus, time setting information is stored in a storage unit of the diagnostic strip analysis apparatus. Biological information is measured using the diagnostic strip analysis apparatus. The time setting information and measured amounts and measurement times of the biological information are simultaneously stored in the storage unit. The time setting information, the measured amounts and the measurement times, together with transmission times, are transmitted to a management medium. A control unit of the management medium determines whether time of the diagnostic strip analysis apparatus has been set. If the time of the diagnostic strip analysis apparatus has been set, the time setting information, the measured amounts, the measurement times, and the transmission times are stored in a storage unit of the management medium.

Abstract: Disclosed herein is a test strip analyzing apparatus having a wheel ejector. The test strip analyzing apparatus having a wheel ejector includes a body, a measurement unit, and an ejector. The measurement unit is disposed on one side of the body. The ejector is disposed in the measurement unit, and selectively inserts and discharges a test strip. Furthermore, the ejector includes a wheel that is rotatably mounted in the measurement unit so that a part of the wheel is exposed outside a top portion of the measurement unit and that selectively inserts and discharges the test strip using frictional force.

Abstract: Disclosed herein are a blood glucose measurement module, a smart phone combinable with the blood glucose measurement module, and a blood glucose measurement method using the same. The blood glucose measurement module includes a body, a strip reception slit, and a plug. The body includes a blood glucose measurement unit for measuring a blood glucose level of blood absorbed into a test strip and a CPU for calculating and transmitting the results of the measurement of the blood glucose level. The strip reception slit is formed in a part of the body, and receives the test strip. The plug is formed on one end surface of the body, and is easily fitted into the socket of a smart phone.

Abstract: The present invention provides a blood glucose measurement method using a blood glucose meter having a step counter function. In the blood glucose measurement method, a blood glucose level is measured in blood glucose measurement mode. The measured blood glucose level is configured in a form of data, the data is stored in a control unit, and the measured blood glucose level is displayed on a display unit under control of the control unit. Current mode is switched to step counting operation mode. The number of steps taken by a user is counted in the step counting operation mode and a count result is displayed on the display unit. Accordingly, the blood glucose measurement method is advantageous in that the amount of exercise and the blood glucose level can be selectively measured by the blood glucose meter, thus enabling the blood glucose measurement method to be conveniently used.

Abstract: Disclosed herein is a method of correcting erroneous measurement results in a biosensor. The method includes the steps of: (a) applying a first voltage from a voltage generator 12 to a test strip 10 when a blood sample is applied on the test strip 10, and measuring an electric current generated from the test strip within one second of applying the first voltage by a microcontroller unit (MCU), and then calculating a hematocrit value of the blood sample using the measured electric current value! (b) applying a second voltage from the voltage generator to the test strip after calculating the hematocrit value of the blood sample, and measuring an electric current generated from the test strip within a predetermined time of applying the second voltage, and then calculating a glucose level using the measured electric current value; and (c) correcting the glucose level in (b) by using the calculated hematocrit value in (a).

Abstract: Disclosed herein is a method of correcting erroneous measurement results in a biosensor. The method includes the steps of: (a) applying a first voltage from a voltage generator 12 to a test strip 10 when a blood sample is applied on the test strip 10, and measuring an electric current generated from the test strip within one second of applying the first voltage by a microcontroller unit (MCU), and then calculating a hematocrit value of the blood sample using the measured electric current value! (b) applying a second voltage from the voltage generator to the test strip after calculating the hematocrit value of the blood sample, and measuring an electric current generated from the test strip within a predetermined time of applying the second voltage, and then calculating a glucose level using the measured electric current value; and (c) correcting the glucose level in (b) by using the calculated hematocrit value in (a).