Multifunctional biochemical check meter

Abstract

The utility model relates to a multifunctional biochemical check meter which comprises a host and a plurality of measuring modules, the host comprises a casing, a display panel and a plurality of ports in signal connection with the display panel. The casing is provided with a display port for arranging the display panel and a plurality of arranging grooves. Each port is located in each setting groove. Each measuring module is detachably arranged in each setting groove. Each measuring module comprises a shell, a measuring wafer and a signal connecting piece. Each measuring wafer is arranged in each shell, each shell is provided with a signal outlet and a test piece inlet which are used for arranging signal connecting pieces, and each signal connecting piece can be detachably inserted into each port. When a person to be detected needs to detect different physiological parameters at the same time, different detection test pieces can be placed in the test piece inlets, and the test pieces can be placed in the test piece inlets to detect the physiological parameters of the person to be detected at the same time. The measured data of each physiological parameter value can be obtained through detection of each measuring wafer and displayed on the display panel only by sampling blood once and distributing the sampled blood to different detection test pieces.

Description

Technical Field

[0001] This utility model relates to a biochemical testing instrument, and more particularly to a multifunctional biochemical testing instrument. Background Technology

[0002] Currently, obtaining multiple blood test results simultaneously involves drawing blood and then processing it using a biochemical analyzer. However, these analyzers are bulky and expensive, making them unsuitable for typical home or individual use. Home analyzers used to measure physiological parameters such as blood sugar, uric acid, cholesterol, heme, and lactate typically use finger-prick blood sampling with one test strip per test, providing only one result at a time. To perform tests on different physiological parameters, a different analyzer or different test strips must be used, requiring repeated finger-prick blood sampling – a time-consuming process that is also uncomfortable due to multiple punctures.

[0003] As explained above, improving the structure of biochemical analyzers so that a single blood sample from a finger can yield results for various physiological parameters is a problem that needs to be solved by professionals in the relevant technical field. Utility Model Content

[0004] The primary objective of this invention is to provide a multifunctional biochemical analyzer that allows the test subject to obtain the results of various physiological parameters with only one blood sample taken from a finger.

[0005] This utility model relates to a multifunctional biochemical analyzer, comprising a main unit and multiple measurement modules. The main unit includes a housing, a display panel, and multiple ports for signal connection to the display panel. The housing has a display port for mounting the display panel and multiple mounting slots. Each port is located correspondingly in its respective mounting slot. Each measurement module is detachable and correspondingly mounted in its respective mounting slot. Each measurement module includes a housing, a measurement chip, and a signal connector for connecting signals to the measurement chip. Each measurement chip is housed within its corresponding housing. Each housing has a signal outlet and a sample inlet for mounting the signal connector, and each signal connector is detachable and correspondingly inserted into its respective port.

[0006] In this multifunctional biochemical analyzer, the signal outlets and sample inlets of each casing are located at different positions within the casing.

[0007] The multifunctional biochemical analyzer of this utility model has each setting slot extending from one side of the housing toward the display port, and each port being adjacent to the display port; the signal outlet and the test piece inlet of each housing are located at opposite ends of the housing.

[0008] This utility model discloses a multifunctional biochemical analyzer, in which each measuring module further includes an adjustment assembly located within the sample inlet of its corresponding housing. Each housing also has a surrounding wall and a flange protruding inward from one end of the surrounding wall, and each flange defines the sample inlet of its corresponding housing. Each adjustment assembly has an elastic element and an L-shaped plate. Each L-shaped plate has a sliding section capable of reciprocating on its corresponding flange, and a stopping section extending from the end of the sliding section opposite to the surrounding wall toward its corresponding signal outlet. One end of each elastic element is fixed to the stopping section of its corresponding L-shaped plate.

[0009] The second objective of this invention is to provide another multifunctional biochemical testing instrument.

[0010] Another multifunctional biochemical analyzer of this utility model includes a main unit, a secondary unit, a signal transmission line, and multiple measurement modules. The main unit includes a main housing and a display panel. The main housing has a display port for mounting the display panel and a signal input port. The secondary unit includes a secondary housing and multiple ports. The secondary housing has a signal output port and multiple mounting slots. Each port is located between its corresponding mounting slot and the signal output port. The signal transmission line is detachably connected to the signal input port of the main housing and the signal output port of the secondary housing, and provides signal connection to each port. The measurement modules are detachable and each is correspondingly mounted in its mounting slot. Each measurement module includes a housing, a measurement chip, and a signal connector for connecting a signal to the measurement chip. Each measurement chip is mounted within its corresponding housing. Each housing has a signal outlet and a sample inlet for mounting the signal connector, and each signal connector is detachable and correspondingly inserted into its respective port.

[0011] Another type of multifunctional biochemical analyzer of this utility model has signal outlets and test strip inlets located at different positions on each of the outer casings.

[0012] Another multifunctional biochemical analyzer of this utility model has a signal output port of the secondary housing adjacent to the signal input port of the main housing, and each of the setting slots extends from one side of the secondary housing toward the signal output port; the signal outlets and test piece inlets of each housing are located at opposite ends of the housing.

[0013] Another multifunctional biochemical analyzer of this utility model includes adjustment components located within the sample inlet of their respective housings for each measurement module. Each housing also has a surrounding wall and a flange protruding inward from one end of the surrounding wall, and each flange defines the sample inlet of its respective housing. Each adjustment component has an elastic element and an L-shaped plate. Each L-shaped plate has a sliding section capable of reciprocating on its respective flange, and a stop section extending from the end of the sliding section opposite to the surrounding wall toward its respective signal outlet. One end of each elastic element is fixed to the stop section of its respective L-shaped plate.

[0014] The third objective of this invention is to provide yet another multifunctional biochemical testing instrument.

[0015] Another multifunctional biochemical analyzer of this utility model includes a main unit, a measuring mechanism, and a signal transmission line.

[0016] The main unit includes a main housing and a display panel. The main housing has a display port for mounting the display panel and a signal input port. The measurement mechanism includes a housing and a plurality of measurement modules spaced apart from each other within the housing. The housing has a signal output port and a plurality of test piece inlets spaced apart from each other. Each measurement module has a measurement chip, and the position of each measurement chip corresponds to the respective test piece inlet of the housing. The signal transmission line is detachably connected to the signal input port of the main housing and the signal output port of the housing, and is signal-connected to each measurement chip.

[0017] In another example of this utility model, the signal output port of the outer casing is adjacent to the signal input port of the main casing, and the signal output port of the outer casing and the test piece inlet are located at opposite ends of the outer casing.

[0018] The beneficial effects of this utility model are as follows: the host and the measurement module are signal connected to each other through the signal connector and the port, or through the signal transmission line. Once the person to be tested needs to test different physiological parameters at the same time, he / she can put the test strips of different biochemical tests into the test strip inlet of the measurement module. Only one blood sample is needed to send the collected blood to the test strips of different biochemical tests. The measurement data of different physiological parameter values ​​can be obtained by the measurement chip and displayed on the display panel. Attached Figure Description

[0019] Other features and effects of this utility model will be clearly presented in the embodiments with reference to the drawings, wherein:

[0020] Figure 1 This is a partial exploded three-dimensional view illustrating a first embodiment of the multifunctional biochemical analyzer of this utility model;

[0021] Figure 2 It is a partial exploded perspective view illustrating the detailed structure of a measurement module of the first embodiment of this utility model;

[0022] Figure 3A This is a top view schematic diagram illustrating the usage state of the measurement module of the first embodiment of this utility model when a four-electrode test paper is inserted;

[0023] Figure 3B yes Figure 3A A partially enlarged view illustrates the relationship between an adjustment component of the measurement module and the four-electrode test piece in the first embodiment of this utility model.

[0024] Figure 3C This is a top view schematic diagram illustrating the usage state of the measurement module of the first embodiment of this utility model when a six-electrode test piece is placed inside;

[0025] Figure 4 This is a partial exploded perspective view illustrating a second embodiment of the multifunctional biochemical analyzer of this utility model; and

[0026] Figure 5 This is a three-dimensional diagram illustrating a third embodiment of the multifunctional biochemical analyzer of this utility model. Detailed Implementation

[0027] Before this utility model is described in detail, it should be noted that similar elements are represented by the same reference numerals in the following description.

[0028] See Figure 1 and Figure 2 The first embodiment of this utility model of a multifunctional biochemical analyzer is mainly used to test physiological parameters such as blood glucose, uric acid, cholesterol, heme, lactic acid, and triglycerides in blood. It includes a main unit 2 and multiple measurement modules 3.

[0029] The host 2 includes a housing 21, a display panel 22, and a plurality of ports 23 for signal connection to the display panel 22. The housing 21 has a display port 211 for mounting the display panel 22 and a plurality of mounting slots 212 arranged at intervals between each other. The ports 23 are arranged at intervals between each other on the housing 21 and are respectively located in the respective mounting slots 212.

[0030] See Figure 2 And refer to Figure 3A , Figure 3B and Figure 3CThe measurement modules 3 are detachable and each is correspondingly disposed in the mounting slot 212. Each measurement module 3 includes a housing 31, a measurement chip 32, and a signal connector 33 for connecting a signal to the measurement chip 32. Each measurement chip 32 is disposed within its corresponding housing 31. Each housing 31 has a signal outlet 3110 for mounting the signal connector 33 and a signal output 3110 for connecting a signal to the mounting slot 212. Figure 3B The four-electrode test piece 91 shown is as follows: Figure 3C The six-electrode test piece 92 shown is inserted into the test piece inlet 3120. Each signal connector 33 is detachable and correspondingly inserted into each port 23, and the signal outlet 3110 and test piece inlet 3120 of each housing 31 are located at different positions within the housing 31. In this first embodiment of the present invention, each mounting slot 212 of the host 2 housing 21 extends from one side of the housing 21 towards the display port 211, and each port 23 of the host 2 is adjacent to the display port 211; the signal outlet 3110 and test piece inlet 3120 of each housing 31 are located at opposite ends of the housing 31. Furthermore, in this first embodiment of the present invention, each port 23 and each signal connector 33 are described using a USB-C interface and a USB-C adapter as examples, but are not limited thereto.

[0031] See Figure 3A and Figure 3B Each measurement module 3 further includes an adjustment assembly 34 located within the test piece inlet 3120 of its corresponding housing 31. Each housing 31 also has a wall 311 and a flange 312 extending radially inward from one end of the wall 311 away from the signal outlet 3110, with each flange 312 defining the test piece inlet 3120 of its corresponding housing 31. Each adjustment assembly 34 has an elastic element 341 and an L-shaped plate 342. Each L-shaped plate 342 has a sliding section 3421 capable of reciprocating on its corresponding flange 312, a stop section 3422 extending from one end of the sliding section 3421 away from the wall 311 towards its corresponding signal outlet 3110, and a protrusion 3423 extending from the stop section 3422 towards the wall 311. One end of each elastic element 341 is fixed to a protrusion 3423 on the stop section 3422 of its corresponding L-shaped plate 342. In this first embodiment of the present invention, each elastic element 341 is described using a compression spring as an example, but is not limited thereto. It should be noted that when the person to be tested needs to undergo biochemical testing, the four-electrode test piece 91 (see [reference]) only needs to be inserted into the test piece inlet 3120 of the outer shell 31 of one of the measurement modules 3. Figure 3B ) or the six-electrode test piece 92 (see Figure 3CThe elastic element 341 of the adjustment component 34 located inside the specimen inlet 3120 of the outer shell 31 of one of the measurement modules 3 can push the stop section 3422 of the L-shaped plate 342 according to the width of the specimen, so that it is displaced on the flange 312, thereby adjusting the width of the specimen inlet 3120 of the outer shell 31 of one of the measurement modules 3 to accommodate specimens of various widths.

[0032] In detail, the host 2 can set the time and date, transmit and receive data, display measurement data and error messages, manage data memory, and provide power to the measurement modules 3. Each measurement module 3 can automatically identify the type of test piece, measure the test piece signal, and transmit data to the host 2. That is, the host 2 and the measurement modules 3 transmit signals through interconnected signal connectors 33 and their corresponding ports 23. When the host 2 is powered on, it automatically checks the number of currently connected measurement modules 3 and supplies power to the connected measurement modules 3 through the signal connectors 33. When the four-electrode test piece 91 and the six-electrode test piece 92 are respectively placed into the test piece inlet 3120 of the connected measurement module 3, the connected measurement chip 32 can automatically identify the test piece type (e.g., blood glucose, uric acid, cholesterol, heme, lactic acid, triglycerides, etc.) and perform measurements to obtain measurement data. After the measurement is completed, the connected signal connector 33 transmits the measurement data to the host 2 for display on the display panel 22. It is worth mentioning that when it is necessary to test blood glucose, uric acid, cholesterol and triglycerides at the same time, the person to be tested can place the test strips for the above four biochemical tests into the test strip inlet 3120 respectively, and only one blood sample is needed to send the collected blood to the test strips for the above four biochemical tests. The measurement module 3's measurement chip 32 can detect and obtain the measurement data of the four physiological parameters, namely blood glucose, uric acid, cholesterol and triglycerides, and display them on the display panel 22 of the host 2.

[0033] See Figure 4 A second embodiment of the multifunctional biochemical analyzer of this utility model is generally the same as the first embodiment, except that the detailed structure of the main unit 2 in the second embodiment is different. Specifically, the second embodiment includes the main unit 2, a primary main unit 4, a signal transmission line 5, and the measurement module 3.

[0034] The host 2 includes a host housing 24 and a display panel 22. The host housing 24 has a display port 211 for mounting the display panel 22 and a signal input port 241.

[0035] The secondary host 4 includes a primary housing 41 and the aforementioned ports 23. The secondary housing 41 has a signal output port 411 and spaced-apart mounting slots 212. Each port 23 is spaced apart from the other on the secondary housing 41 and located between its corresponding mounting slot 212 and the signal output port 411. In this second embodiment of the present invention, the signal output port 411 of the secondary housing 41 is adjacent to the signal input port 241 of the primary housing 24, and each mounting slot 212 extends from one side of the secondary housing 41 toward the signal output port 411.

[0036] The signal transmission line 5 can be detachably connected to the signal input port 241 of the main housing 24 and the signal output port 411 of the secondary housing 41, and can be signal connected to each port 23.

[0037] See Figure 5 A third embodiment of the multifunctional biochemical analyzer of this utility model is generally the same as the second embodiment, except that the measurement module 3 of the third embodiment has a more detailed structure. Specifically, the functional biochemical analyzer of the third embodiment includes the host 2, a measurement mechanism 30, and a signal transmission line 5.

[0038] The measurement mechanism 30 includes a housing 35 and measurement modules 3 spaced apart from each other within the housing 35. The housing 35 has a signal output port 411 and a test piece inlet 3120. The test piece inlets 3120 are spaced apart on one side 351 of the housing 35. Each measurement module 3 has its corresponding measurement chip 32, and the position of each measurement chip 32 corresponds to the respective test piece inlet 3120 of the housing 35.

[0039] The signal transmission line 5 can be detachably connected to the signal input port 241 of the main housing 24 and the signal output port 411 of the mechanism housing 35, and can also be signal connected to the various measurement chips 32.

[0040] The signal output port 411 of the housing 35 is adjacent to the signal input port 241 of the main housing 24, and the signal output port 411 of the housing 35 and the test piece inlet 3120 are located at opposite ends of the housing 35.

[0041] In summary, the host 2 and the measurement module 3 of this utility model multifunctional biochemical analyzer are signal connected to each other via the signal connector 33 and the port 23, or via the signal transmission line 5. When the person to be tested needs to test different physiological parameters simultaneously, they can place the test strips for different biochemical tests into the test strip inlet 3120 of the measurement module 3 respectively. Only one blood sample is needed to distribute the collected blood to the test strips for different biochemical tests. The measurement data of different physiological parameter values ​​can be obtained by the measurement chip 32 of the measurement module 3 and displayed on the display panel 22 of the host 2. Therefore, the purpose of this utility model can indeed be achieved.

[0042] However, the above description is merely an embodiment of this utility model and should not be construed as limiting the scope of this utility model. Any simple equivalent changes and modifications made in accordance with the claims and description of this utility model shall still fall within the scope of this utility model patent.

Claims

1. A multifunctional biochemical analyzer, characterized in that: Include: The host includes a housing, a display panel and multiple ports for signal connection to the display panel. The housing has a display port for setting the display panel and multiple setting slots, with each port corresponding to a specific setting slot. and Multiple measurement modules are detachable and each is correspondingly disposed in the mounting slot. Each measurement module includes a housing, a measurement chip, and a signal connector for connecting a signal to the measurement chip. Each measurement chip is disposed in its corresponding housing. Each housing has a signal outlet and a test piece inlet for mounting the signal connector, and each signal connector is detachable and correspondingly inserted into its respective port.

2. The multifunctional biochemical analyzer according to claim 1, characterized in that: The signal outlets and test piece inlets of each housing are located at different positions within the housing.

3. The multifunctional biochemical analyzer according to claim 2, characterized in that: Each of the mounting slots extends from one side of the housing toward the display port, and each of the ports is adjacent to the display port; the signal outlets and test piece inlets of each housing are located at opposite ends of the housing.

4. The multifunctional biochemical analyzer according to claim 3, characterized in that: Each measurement module also includes an adjustment assembly located within the specimen inlet of its corresponding housing. Each housing also has a wall and a flange extending inward from one end of the wall, and each flange defines the specimen inlet of its corresponding housing. Each adjustment assembly has an elastic element and an L-shaped plate. Each L-shaped plate has a sliding section that can reciprocate on its corresponding flange and a stop section extending from one end of the sliding section away from the wall toward its corresponding signal outlet. One end of each elastic element is fixed to the stop section of its corresponding L-shaped plate.

5. A multifunctional biochemical analyzer, characterized in that: Include: The main unit includes a main unit housing and a display panel. The main unit housing has a display port for setting the display panel and a signal input port. The secondary host includes a secondary housing and multiple ports. The secondary housing has a signal output port and multiple setting slots. Each port is located between its corresponding setting slot and the signal output port. The signal transmission line is detachably connected to the signal input port of the main housing and the signal output port of the secondary housing, and provides signal connection to each port. and Multiple measurement modules are detachable and each is correspondingly disposed in the mounting slot. Each measurement module includes a housing, a measurement chip, and a signal connector for connecting a signal to the measurement chip. Each measurement chip is disposed in its corresponding housing. Each housing has a signal outlet and a test piece inlet for mounting the signal connector, and each signal connector is detachable and correspondingly inserted into its respective port.

6. The multifunctional biochemical analyzer according to claim 5, characterized in that: The signal outlets and test piece inlets of each housing are located at different positions within the housing.

7. The multifunctional biochemical analyzer according to claim 6, characterized in that: The signal output port of the secondary housing is adjacent to the signal input port of the main housing, and each of the mounting slots extends from one side of the secondary housing toward the signal output port; the signal outlet and test piece inlet of each housing are located at opposite ends of the housing.

8. The multifunctional biochemical analyzer according to claim 7, characterized in that: Each measurement module also includes an adjustment assembly located within the specimen inlet of its corresponding housing. Each housing also has a wall and a flange extending inward from one end of the wall, and each flange defines the specimen inlet of its corresponding housing. Each adjustment assembly has an elastic element and an L-shaped plate. Each L-shaped plate has a sliding section that can reciprocate on its corresponding flange and a stop section extending from one end of the sliding section away from the wall toward its corresponding signal outlet. One end of each elastic element is fixed to the stop section of its corresponding L-shaped plate.

9. A multifunctional biochemical analyzer, characterized in that: Include: The main unit includes a main unit housing and a display panel. The main unit housing has a display port for setting the display panel and a signal input port. The measurement mechanism includes a housing and a plurality of measurement modules spaced apart from each other within the housing. The housing has a signal output port and a plurality of test piece inlets spaced apart from each other. Each measurement module has a measurement chip, and the position of each measurement chip corresponds to the respective test piece inlet of the housing. and The signal transmission line is detachably connected to the signal input port of the main housing and the signal output port of the outer casing, and is also connected to the various measurement chips.

10. The multifunctional biochemical analyzer according to claim 9, characterized in that: The signal output port of the housing is adjacent to the signal input port of the main housing, and the signal output port of the housing and the test piece inlet are located at opposite ends of the housing.

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