Abstract: A medical tested object auto-ejection structure comprises a detection instrument and a tested object (1). An insertion port is formed in the detection instrument. When the tested object (1) is inserted in the instrument through the insertion port, the bottom end of the tested object (1) presses a bulge (21) used for rebounding, and a raised step (11) arranged on the surface of one side of the tested object (1) is locked on a clamping buckle (31) arranged at a position corresponding to the step on the instrument simultaneously, and after a test is finished, the instrument releases the locking of the clamping buckle (31) for the tested object (1) by a transmission device, and the tested object (1) is ejected from the instrument in time under the action of the bulge (21) used for rebounding, thus solving the problem of forgetting to pull the tested object out or inability to pull it out in time, and improving the reliability of the product.

Abstract: Disclosed are a linkage control device and a blood gas analyzer adopting the linkage control device. The linkage control device comprises a power unit and a rotating component (4) provided with bosses (41, 42). The power unit generates power to drive the rotating component (4) to rotate. The linkage control device further comprises valve components (5, 6, 7, 8), a signal control unit, sensing switches, and sensing pins (43, 44, 45, 46). The valve components (5, 6, 7, 8) are matched with the bosses (41, 42) of the rotating component (4) in a pushing manner. The signal control unit controls the start or stop of the power unit. The sensing switches are connected to the signal control unit via signals. The sensing pins (43, 44, 45, 46) are arranged in pair with the sensing switches and are arranged on the rotating component (4).

Abstract: A self-calibration temperature control method and device includes a temperature feedback and control unit, a precise temperature measurement unit, and a temperature calibration unit. The temperature feedback and control unit has a negative temperature coefficient thermistor and an analog feedback control circuit that are connected with a controlled heating element. The temperature calibration unit includes a CPU, a data latch circuit with an input end connected with the CPU through a bus, and a digital potentiometer connected with the temperature feedback and control unit, an output end of the data latch circuit being connected with the digital potentiometer through the bus.

Abstract: The present invention relates to a recognition and calibration method for the blood gas chemistry analytic system, which comprises the following steps: getting reagent information recorded in the two-dimension code glued to or printed on the test card or reagent package; extracting the basic information of the test card from the reagent information, examining the correctness of the usage of the test card and feeding back the error messages and exiting the test if the usage is incorrect; if the usage is correct, extracting the feature information of the test card from the reagent information, obtaining the feature parameters of the test card and setting them as the feature parameters of the present test; collecting the present test signals and processing the operation of computation and adjustment for the signals according to the feature parameters of the present test and thus, obtaining the test results.

Abstract: The present invention relates to a detection system for improving accuracy of hematocrit measurement and an operation control method. The detection system for hematocrit measurement comprises a central processing unit, an excitation source unit, a blood sample unit, a precise measurement circuit unit and a signal collecting unit. The present invention has the beneficial effects that the HCT measurement precision is improved by generating a sine wave by the excitation source unit and performing control by the central processing unit; the detection system of the present invention is simple and reliable, and implements precise measurement; and the measurement precision in the present invention is far greater than that of a conventional measurement technology and can be within 0.2%. Furthermore, due to a self-detection function, the measurement is quite reliable without the risk of resulting incorrect measurement data from a circuit failure.

Abstract: A medical tested object auto-ejection structure comprises a detection instrument and a tested object (1). An insertion port is formed in the detection instrument. When the tested object (1) is inserted in the instrument through the insertion port, the bottom end of the tested object (1) presses a bulge (21) used for rebounding, and a raised step (11) arranged on the surface of one side of the tested object (1) is locked on a clamping buckle (31) arranged at a position corresponding to the step on the instrument simultaneously, and after a test is finished, the instrument releases the locking of the clamping buckle (31) for the tested object (1) by a transmission device, and the tested object (1) is ejected from the instrument in time under the action of the bulge (21) used for rebounding, thus solving the problem of forgetting to pull the tested object out or inability to pull it out in time, and improving the reliability of the product.

Abstract: Disclosed are a linkage control device and a blood gas analyzer adopting the linkage control device. The linkage control device comprises a power unit and a rotating component (4) provided with bosses (41, 42). The power unit generates power to drive the rotating component (4) to rotate. The linkage control device further comprises valve components (5, 6, 7, 8), a signal control unit, sensing switches, and sensing pins (43, 44, 45, 46). The valve components (5, 6, 7, 8) are matched with the bosses (41, 42) of the rotating component (4) in a pushing manner. The signal control unit controls the start or stop of the power unit. The sensing switches are connected to the signal control unit via signals. The sensing pins (43, 44, 45, 46) are arranged in pair with the sensing switches and are arranged on the rotating component (4).

Abstract: The side container includes one oblong under-frame; one oblong upper-frame; corner posts be installed on the four corners between under-frame and upper-frame; top surface panel, front end panel, back end panel and two side panels installed on the corner posts. The side panel has two side doors. At least one turnable locking bar should be installed on the upper area of the side door, and a latch hook should be installed on the bottom area of each locking bar. Cam keepers will be fixed on the under-frame. There is a cant hook installed between two permanent seats. When the under-frame is in a horizontal position, the cant hook is located above the latch hook. The side container can be fully open on an oblong side, while the side doors and the under-frame can still be securely locked, when the under-frame deforms downward during a full load condition.

Abstract: A self-calibration temperature control method and device includes a temperature feedback and control unit, a precise temperature measurement unit, and a temperature calibration unit. The temperature feedback and control unit has a negative temperature coefficient thermistor and an analog feedback control circuit that are connected with a controlled heating element. The temperature calibration unit includes a CPU, a data latch circuit with an input end connected with the CPU through a bus, and a digital potentiometer connected with the temperature feedback and control unit, an output end of the data latch circuit being connected with the digital potentiometer through the bus.

Abstract: The side container includes one oblong under-frame; one oblong upper-frame; corner posts be installed on the four corners between under-frame and upper-frame; top surface panel, front end panel, back end panel and two side panels installed on the corner posts. The side panel has two side doors. At least one turnable locking bar should be installed on the upper area of the side door, and a latch hook should be installed on the bottom area of each locking bar. Cam keepers will be fixed on the under-frame. There is a cant hook installed between two permanent seats. When the under-frame is in a horizontal position, the cant hook is located above the latch hook. The side container can be fully open on an oblong side, while the side doors and the under-frame can still be securely locked, when the under-frame deforms downward during a full load condition.