Medical inspection equipment management system and medical inspection equipment management method

Abstract

The embodiment of the invention discloses a medical inspection equipment management system and a medical inspection equipment management method. In the system, a plurality of inspection devices can perform first communication connection with an LIS system, the plurality of inspection devices transmit first data to a communication link corresponding to the first communication connection through the first communication connection, the first data is data uploaded to the LIS system by the inspection devices, and a transparent transmission tool obtains the first data in the communication link and transmits the first data to the LIS system. And extracting second data from the first data, transmitting the second data to the centralized management device, and managing the plurality of inspection devices based on the second data by the centralized management device. The transparent transmission tool further transmits the first data to the LIS system. According to the invention, the data uploaded to the LIS system by a plurality of inspection devices does not need to be manually collected by a person, and the data uploaded by the inspection devices can be obtained by the unvarnished transmission tool, so that the integrity of the data is ensured, the data inaccuracy caused by data missing and omission is avoided, and the collection efficiency of the data of the inspection devices is improved.

Description

Technical Field

[0001] The embodiments of the present application relate to the field of medical equipment, and specifically to a medical testing equipment management system and a medical testing equipment management method. Background Art

[0002] The quality control of hospital testing equipment is very important, which is directly related to the quality of patients' health tests and the quality of medical services. The relevant quality control analysis and evaluation system can generate a quality control evaluation report based on the daily quality control data of the testing equipment, providing an important basis for the quality control of hospital testing equipment.

[0003] Hospitals usually send staff to manually collect and integrate quality control data from different testing equipment, but this method is cumbersome and prone to errors, which can easily lead to inaccurate quality control data collected, and also requires manpower and time costs. Summary of the invention

[0004] The embodiments of the present application provide a medical testing equipment management system and a medical testing equipment management method, which are used to improve the data collection efficiency of the testing equipment and facilitate the centralized management of the data of the testing equipment.

[0005] The first aspect of the embodiment of the present application provides a medical testing equipment management system, including: a plurality of testing equipment, a transparent transmission tool and a centralized management device, wherein:

[0006] The plurality of testing devices may be in a first communication connection with a laboratory information management system LIS;

[0007] The multiple testing devices are used to transmit first data to the communication link corresponding to the first communication connection through the first communication connection, the first data is the data uploaded by the testing device to the laboratory information management system LIS, and the first data at least includes patient information, sample test results of patient samples, and indoor quality control information based on quality control products;

[0008] The transparent transmission tool is used to obtain the first data in the communication link, extract second data from the first data, and transmit the second data to the centralized management device, so that the centralized management device can manage the multiple inspection devices based on the second data;

[0009] The transparent transmission tool is also used to transmit the first data to the laboratory information management system LIS.

[0010] A second aspect of the embodiments of the present application provides a medical testing equipment management system, including: a plurality of testing equipment and a quality evaluation device;

[0011] The plurality of testing devices may be in a first communication connection with a laboratory information management system LIS;

[0012] The multiple testing devices are used to transmit first data to the communication link corresponding to the first communication connection through the first communication connection, the first data is the data uploaded by the testing device to the laboratory information management system LIS, and the first data includes indoor quality control information based on the quality control product;

[0013] The inspection device is configured with a transmission interface, and the inspection device establishes a communication link with the quality evaluation device based on the transmission interface;

[0014] The inspection device is further used to send the first data to the quality evaluation device through the communication link established by the transmission interface;

[0015] The quality evaluation device is used to evaluate the quality of the sample test results of the inspection equipment in the laboratory based at least on the indoor quality control information.

[0016] A third aspect of the embodiment of the present application provides a medical testing equipment management method, the method is applied to a medical testing equipment management system, the medical testing equipment management system includes a plurality of testing equipment, a transparent transmission tool and a centralized management device, the plurality of testing equipment can be connected to a laboratory information management system LIS for a first communication;

[0017] The method comprises:

[0018] The multiple testing devices transmit first data to the communication link corresponding to the first communication connection through the first communication connection, wherein the first data is the data uploaded by the testing device to the laboratory information management system LIS, and the first data at least includes patient information, sample test results of the patient sample, and indoor quality control information based on the quality control product;

[0019] The transparent transmission tool obtains the first data in the communication link, extracts second data from the first data, and transmits the second data to the centralized management device, so that the centralized management device can manage the multiple inspection devices based on the second data;

[0020] The transparent transmission tool also transmits the first data to the laboratory information management system LIS.

[0021] A fourth aspect of the embodiments of the present application provides a medical testing equipment management method, the method is applied to a medical testing equipment management system, the medical testing equipment management system includes a plurality of testing equipment and a quality evaluation device; the plurality of testing equipment can be firstly communicated with a laboratory information management system LIS;

[0022] The inspection device is configured with a transmission interface, and the inspection device establishes a communication link with the quality evaluation device based on the transmission interface;

[0023] The method comprises:

[0024] The multiple testing devices transmit first data to the communication link corresponding to the first communication connection through the first communication connection, wherein the first data is data uploaded by the testing device to the laboratory information management system LIS, and the first data includes indoor quality control information based on the quality control product;

[0025] The inspection device also sends the first data to the quality evaluation device through the communication link established by the transmission interface;

[0026] The quality evaluation device evaluates the quality of the sample test results of the inspection equipment in the laboratory based at least on the indoor quality control information.

[0027] It can be seen from the above technical solutions that the embodiments of the present application have the following advantages:

[0028] The transparent transmission tool can obtain data uploaded to the LIS system by multiple testing devices, and send the data uploaded to the LIS system by multiple testing devices to the centralized management device for centralized management. There is no need for personnel to manually collect data uploaded to the LIS system by multiple testing devices, and the data uploaded by the testing devices can all be obtained by the transparent transmission tool, ensuring the integrity of the data and avoiding inaccurate data caused by missing and missing data, thereby improving the efficiency of data collection from testing devices and saving data collection costs. BRIEF DESCRIPTION OF THE DRAWINGS

[0029] Figure 1 A schematic diagram of a communication interaction method between the testing equipment and the LIS system in the relevant scheme;

[0030] Figure 2 A schematic diagram of a network architecture of a medical testing equipment management system in an embodiment of the present application;

[0031] Figure 3 A schematic diagram of a communication method between the testing equipment and the LIS system in the relevant scheme;

[0032] Figure 4 A schematic diagram of a communication method between a testing device and an LIS system based on a transparent transmission tool in an embodiment of the present application;

[0033] Figure 5 A schematic diagram of another communication method between the testing equipment and the LIS system in the relevant scheme;

[0034] Figure 6 It is a schematic diagram of another communication method between the testing device and the LIS system based on the transparent transmission tool in the embodiment of the present application;

[0035] Figure 7 A schematic diagram of another communication method between the testing equipment and the LIS system in the relevant scheme;

[0036] Figure 8 It is a schematic diagram of another communication method between the testing device and the LIS system based on the transparent transmission tool in the embodiment of the present application;

[0037] Fig. 9 In the embodiments of this application, based on Figure 2 The network architecture shown is an exemplary schematic diagram of the functions and connection relationships of the components of the transparent transmission tool;

[0038] Fig.10 This is another network architecture diagram of the medical testing equipment management system in the embodiment of the present application;

[0039] Fig.11 A flowchart of a medical testing equipment management method in an embodiment of the present application;

[0040] Fig.12 This is another flowchart of the medical testing equipment management method in the embodiment of the present application. DETAILED DESCRIPTION

[0041] The terms "first", "second", "third", "fourth", etc. (if any) in the specification and claims of the present application and the above-mentioned drawings are used to distinguish similar objects, and are not necessarily used to describe a specific order or sequence. It should be understood that the data used in this way can be interchangeable where appropriate, so that the embodiments described herein can be implemented in an order other than that illustrated or described herein. In addition, the terms "including" and "having" and any variations thereof are intended to cover non-exclusive inclusions, for example, a process, method, system, product or device that includes a series of steps or units is not necessarily limited to those steps or units that are clearly listed, but may include other steps or units that are not clearly listed or inherent to these processes, methods, products or devices.

[0042] In the relevant scheme, the hospital department includes a laboratory information management system (LIS) and an equipment system. The laboratory information management system LIS is a laboratory information management system designed specifically for the hospital's laboratory department. It can network laboratory instruments and computers to realize complex operations such as patient sample entry, laboratory data storage and access, report review, printing and distribution, and laboratory data statistical analysis. The equipment system includes testing equipment, which is mainly used to perform tests on samples and upload the test results to the laboratory information management system LIS. In actual applications, the above two systems interact with each other to realize intelligent, automated and standardized sample data management. The communication and interaction methods between the hospital department's testing equipment and the laboratory information management system LIS are as follows: Figure 1 The testing equipment sends data to the LIS system through the communication link with the LIS system. This data can be sample test results, quality control information, etc. The LIS system can also send data to the testing equipment through the communication link with the testing equipment. This data can be instructions, data processing results, etc.

[0043] However, based on the above communication architecture, since hospitals usually use testing equipment from different manufacturers, these devices may use different communication protocols for data transmission and different data formats for data encapsulation, which leads to decentralized data management, such as decentralized management of quality control data, making it difficult to integrate and compare quality control data from different devices.

[0044] Secondly, based on the above communication architecture, in order to achieve unified management, hospital staff need to manually collect and integrate data from different testing equipment. However, this method is cumbersome and prone to errors, which can easily lead to inaccurate quality control data collected, and also requires manpower and time costs.

[0045] Some testing equipment will be equipped with a transmission interface connected to the computer used to manage the testing equipment. The testing equipment can send relevant data to the computer through the transmission interface. However, this method requires the configuration of expensive hardware or complex integration, which increases the cost of the hospital. Moreover, as the size of the hospital expands or the number of equipment increases, this method is difficult to expand to adapt to the expansion of the hospital size and the increase of equipment.

[0046] In order to solve the above-mentioned technical problems, the embodiments of the present application propose a medical testing equipment management system and a medical testing equipment management method, which are used to improve the data collection efficiency of the testing equipment and facilitate the centralized management of the data of the testing equipment.

[0047] In one embodiment of the medical testing equipment management system in the present application, the structure of the medical testing equipment management system is as follows: Figure 2As shown. As shown in the figure, the medical testing equipment management system includes multiple testing equipment. Due to the length of the figure, only two testing equipment are shown, but the management system may include two or more testing equipment; or, the management system may include only one testing equipment. The testing equipment is a device that tests biological samples to obtain sample test results, for example, it can be a sample analyzer. A sample analyzer refers to an instrument used to detect and analyze a sample to be tested to obtain the test results of the sample to be tested, which can specifically be a sample analysis instrument such as a hematology analyzer, a film reader, a biochemical analyzer, an immunoassay analyzer, a blood analyzer, etc.

[0048] In addition, the medical testing equipment management system also includes a transparent transmission tool and a centralized management device. The multiple testing equipment of the medical testing equipment management system can respectively establish a first communication connection with the laboratory information management system LIS. Then, the multiple testing equipment can transmit the first data to the communication link corresponding to the first communication connection through the first communication connection. The first data is the data uploaded by the testing equipment to the laboratory information management system LIS. The first data includes at least patient information, sample test results of patient samples, and indoor quality control information based on quality control products.

[0049] The transparent transmission tool can obtain the first data in the communication link corresponding to the first communication connection, extract the second data from the first data, and transmit the second data to the centralized management device, so that the centralized management device can manage multiple testing devices of the medical testing equipment management system based on the second data.

[0050] In addition, the transparent transmission tool can also transmit the first data to the laboratory information management system LIS to ensure that daily communication and daily data interaction between each testing device and the LIS system can proceed as usual.

[0051] Therefore, the transparent transmission tool can obtain data uploaded to the LIS system by multiple testing devices, and send the data uploaded to the LIS system by multiple testing devices to the centralized management device for centralized management. There is no need for personnel to manually collect data uploaded to the LIS system by multiple testing devices, and the data uploaded by the testing devices can all be obtained by the transparent transmission tool, ensuring the integrity of the data and avoiding data inaccuracy caused by missing and omissions, thereby improving the efficiency of data collection on testing devices and saving data collection costs.

[0052] Among them, the transparent transmission tool transmits the first data to the LIS system, which may be sent by transparent transmission. Transparent transmission refers to the complete transmission of data packets to the target device during the communication process. Similarly, the data sent by the LIS system to the testing device can also be transmitted to the communication link corresponding to the first communication connection between the testing device and the LIS system, and the transparent transmission tool can obtain the data sent by the LIS system to the testing device from the communication link, and then transparently transmit the data to the testing device, thereby ensuring two-way information interaction between the testing device and the LIS system. Therefore, through transparent transmission, it can be ensured that the daily communication and daily information interaction between the testing device and the LIS system proceed as usual, and the original communication between the testing device and the LIS system proceeds normally, while also ensuring the integrity of the communication content between the testing device and the LIS system.

[0053] In this embodiment, the data transmitted between the testing device and the LIS system can be any data. In an application scenario, the data transmitted between the testing device and the LIS system may include patient information, including patient-related information such as the patient's gender, age, and diagnosis information; it may also include test request information, specifically including test items, request time, sample type, and other test-related information; it may also include sample information, specifically including sample number, sampling time, sampler information, and other sample-related information; it may also include test results, specifically including test items, test results, reference ranges for normal test results, result identifiers, and other information; it may also include sample test report information, specifically including report generation time, report sending time, receiving time, report content, and other information. This embodiment does not limit the type and content of data transmitted between the testing device and the LIS system.

[0054] In a preferred implementation of this embodiment, the multiple testing devices of the medical testing equipment management system include testing devices of multiple manufacturers in the same laboratory. Alternatively, the multiple testing devices of the medical testing equipment management system include testing devices of the same manufacturer or different manufacturers in multiple laboratories, and the multiple laboratories are multiple laboratories in the same area or multiple laboratories in different areas. For example, the same area can be the same hospital, and the different areas can be different hospitals; or, the same area can be the same sub-area in a hospital, and the different areas can be different sub-areas in the hospital, such as the outpatient department area, the emergency department area, the inpatient department area, etc. in the hospital.

[0055] Therefore, no matter whether the multiple testing devices of the medical testing equipment management system come from different manufacturers or the same manufacturer, or the multiple testing devices come from the same laboratory or from different laboratories, or even the multiple testing devices are distributed in the same area or different areas, the network architecture of this embodiment can be used to realize data collection and centralized management of multiple testing devices. There is no need to pay manpower costs or software and hardware configuration costs to collect data from the testing devices, which improves data collection efficiency and saves data collection costs, making the network architecture of this embodiment extremely scalable and adaptable.

[0056] In this embodiment, the centralized management device may be a quality evaluation device for evaluating the quality control of multiple testing devices, or a sample management device for centralized management of sample test results of multiple testing devices, or a device for performing other management on the data of multiple testing devices. Specifically, the centralized management device may be a device with data processing capabilities such as a computer.

[0057] Therefore, in a preferred embodiment, the centralized management device may be a quality evaluation device, the second data may be indoor quality control information based on the quality control product, and the quality evaluation device may evaluate the quality of sample test results of multiple inspection devices in the laboratory based at least on the indoor quality control information and the inter-laboratory quality evaluation EQA data;

[0058] The EQA data may be inter-laboratory quality evaluation data input into the quality evaluation device by a user; or, the EQA data may be inter-laboratory quality evaluation data acquired by the quality evaluation device from a third-party platform.

[0059] Among them, internal quality control (IQC) is a function that can be realized in the quality control of sample testing in the LIS system. It is a series of inspection and control measures taken by each laboratory to monitor and evaluate the quality of its work and determine whether routine test reports can be issued. External quality assessment (EQA) is a process in which multiple laboratories analyze the same sample, and users or third-party platforms collect and feedback the results reported by the laboratories to evaluate laboratory operations. Comparison between laboratories can determine the calibration and detection capabilities of the laboratory and monitor its continuous capabilities.

[0060] Therefore, the testing equipment can upload the indoor quality control information to the communication link connected to the first communication of the LIS system, so that the transparent transmission tool obtains the indoor quality control information from the communication link and transmits it to the quality evaluation device. The quality evaluation device can evaluate the quality of the sample test results of multiple testing equipment in the laboratory based on the indoor quality control information and the inter-laboratory quality evaluation EQA data, and then output the quality control evaluation results.

[0061] Specifically, the quality evaluation device can determine the quality evaluation index result for the testing equipment based at least on the indoor quality control information and the inter-laboratory quality evaluation EQA data, and compare the quality evaluation index result with the preset index value to obtain the quality control evaluation result of the testing equipment.

[0062] Among them, the quality evaluation index result may include the results of one or more quality evaluation indicators of coefficient of variation (CV), fault handling rate and plan execution rate. That is to say, the quality evaluation device can determine the index results of indicators such as coefficient of variation, fault handling rate or plan execution rate based on indoor quality control information and inter-laboratory quality evaluation EQA data, and compare the index results with preset index values, such as comparing the index result of the coefficient of variation with the preset index value of the coefficient of variation to determine whether the index result of the coefficient of variation exceeds the threshold range. If it exceeds the threshold range, it is determined that the quality of the sample test result of the inspection equipment does not meet the laboratory management requirements.

[0063] Therefore, the quality control data of multiple testing equipment, including indoor quality control information and other quality control data, are collected by the transparent transmission tool and transmitted to the quality evaluation device, realizing the collection of quality control data of multiple testing equipment. Even the testing equipment of different laboratories can be uniformly collected by the transparent transmission tool, without the need to manually collect the quality control data of multiple testing equipment from multiple laboratories, thus improving the data collection efficiency. The quality evaluation device directly receives the quality control data transmitted by the transparent transmission tool and evaluates the quality of the sample test results of multiple testing equipment based on this quality control data, which can improve the efficiency of quality control evaluation and realize inter-laboratory quality evaluation of different laboratories.

[0064] In another preferred embodiment, the centralized management device may be a sample management device, and the second data may be a sample test result of a patient sample. Then, the sample management device may manage the patient sample according to the sample test results of multiple testing devices. For example, the sample test results of the patient sample may be summarized and displayed, such as the biochemical analysis results of the patient sample by a biochemical analyzer (such as the analysis results of biochemical indicators such as enzymes, sugars, and lipids), and the immune test results of the patient sample by an immune analyzer (such as the immune test results such as the virus antigen test results and the virus antibody test results). The sample management device may summarize the above results and display them in a centralized manner, which may be displayed by printing a report, or displayed on a screen, or further sent to a terminal used by the patient.

[0065] Among them, the management of patient samples can be that the sample management device determines the sample test turnaround time (TAT) of the patient samples based on the sample test results of multiple testing equipment. TAT time refers to the time from sample collection to report results, including sample transfer time, necessary sample pretreatment time before analysis, analysis time and time for delivering the results to the ordering department.

[0066] Alternatively, the management of patient samples may also be to determine abnormal test items in which the test results of patient samples from multiple testing devices exceed a preset threshold range, and display abnormal alarm information to prompt the user of the abnormal test items, so that doctors can quickly determine the abnormal items of patient samples present in multiple testing devices, such as abnormal items such as high blood sugar and insufficient enzyme activity.

[0067] Therefore, through the centralized management of sample test results by the sample management device, doctors can quickly obtain the test status of patient samples and issue timely alarms when abnormal items are identified. At the same time, the patient's sample test results can be quickly summarized and reports can be quickly generated, thereby shortening the department's TAT ​​time and optimizing department management.

[0068] In a related solution, the communication method between the testing equipment and the LIS system is to communicate through a network connection. Figure 3 As shown, the equipment where the testing equipment and the LIS system are located are both equipped with network ports, and the two establish a network connection based on the network port, such as establishing a TCP connection, and then exchange information through the communication link corresponding to the network connection. However, for each data uploaded by the testing equipment to the LIS system, the staff needs to collect it one by one, which is a huge workload and may miss data during collection, resulting in inaccurate data, and low data collection efficiency.

[0069] In view of the above communication mode, this embodiment proposes an improvement to the communication mode. Figure 4As shown, the transparent transmission tool includes a transparent transmission repeater, and the test device, the transparent transmission repeater and the LIS system are all configured with a network port, and the test device and the LIS system perform the first communication connection based on the network port. The test device can transmit the first data to the communication link corresponding to the first communication connection through the network port configured therein, and the transparent transmission repeater receives the first data in the communication link through the network port configured therein, and transmits the first data to the LIS system through the network port configured therein.

[0070] Similarly, the data sent by the LIS system to the testing device can also be transmitted to the communication link corresponding to the first communication connection between the testing device and the LIS system through the network port configured by the LIS system, and the transparent transmission forwarder obtains the data sent by the LIS system to the testing device from the communication link through its configured network port, and then transparently transmits the data to the testing device through its configured network port, thereby ensuring two-way information interaction between the testing device and the LIS system.

[0071] Among them, network ports include ports in communication protocols such as TCP / IP protocol.

[0072] Figure 4 In the embodiment, the transparent transmission repeater is integrated with the LIS system on the same LIS interface program PC; of course, the transparent transmission repeater can also be independently set up with the LIS system, that is, set up on different devices, which is not limited here.

[0073] Therefore, the data uploaded by each testing device to the LIS system can be collected by the transparent transmission forwarder. The transparent transmission tool obtains the data uploaded by multiple testing devices to the LIS system through the transparent transmission forwarder, thereby realizing data collection from multiple testing devices. There is no need to spend a lot of manpower to collect the data of the testing devices, and the data uploaded by the testing devices can be obtained by the transparent transmission tool, ensuring the integrity of the data and avoiding data inaccuracy caused by data missing and omissions, thereby improving the data collection efficiency of the testing equipment and saving data collection costs.

[0074] In a related solution, another communication method between the testing equipment and the LIS system is serial communication. Figure 5 As shown in the figure, the equipment where the testing equipment and the LIS system are located are both equipped with physical serial ports, and the two establish a communication connection based on the physical serial port, and then exchange information through the communication link corresponding to the communication connection. However, for each data uploaded by the testing equipment to the LIS system, the staff needs to collect it one by one, which is a huge workload and may miss data during collection, resulting in inaccurate data and low data collection efficiency.

[0075] In view of the above communication mode, this embodiment proposes an improvement to the communication mode. Figure 6As shown, the transparent transmission tool includes a transparent transmission forwarder, the transparent transmission forwarder and the testing device are both configured with a physical serial port, and the LIS system is configured with a virtual serial port. The first communication connection is made between the LIS system and the testing device based on the virtual serial port of the LIS system and the physical serial port of the testing device. The testing device can transmit the first data to the communication link corresponding to the first communication connection through the physical serial port configured therein, and the transparent transmission forwarder receives the first data in the communication link through its corresponding physical serial port, and forwards the first data to the virtual serial port of the LIS system, so that the virtual serial port of the LIS system transmits the first data to the LIS system, so that the LIS system obtains the data uploaded by the testing device.

[0076] Among them, a virtual serial port is a software-based serial communication interface that creates a virtual serial port device in a computer system by simulating the functions and characteristics of a physical serial port. One or more virtual serial port devices can be created on a computer. The operation and use of a virtual serial port are similar to those of an actual physical serial port, and data can be sent, received, and controlled.

[0077] Figure 6 In the communication mode shown, the LIS system has a pair of virtual serial ports, and the transparent forwarder can forward the first data to one of the virtual serial ports, and the virtual serial port will transmit the first data to the other virtual serial port, and the other virtual serial port will transmit the first data to the LIS system.

[0078] Similarly, the data sent by the LIS system to the testing device can also be transmitted to the communication link corresponding to the first communication connection between the testing device and the LIS system through the virtual serial port configured by the LIS system, and the transparent forwarder obtains the data sent by the LIS system to the testing device from the communication link, and then transparently transmits the data to the testing device through its corresponding physical serial port, and the testing device receives the data through its physical serial port, thereby ensuring two-way information interaction between the testing device and the LIS system.

[0079] Figure 6 In the embodiment, the transparent transmission repeater is integrated with the LIS system on the same LIS interface program PC; of course, the transparent transmission repeater can also be independently set up with the LIS system, that is, set up on different devices, which is not limited here.

[0080] Therefore, the data uploaded by each testing device to the LIS system can be collected by the transparent transmission forwarder. The transparent transmission tool obtains the data uploaded by multiple testing devices to the LIS system through the transparent transmission forwarder, thereby realizing data collection from multiple testing devices. There is no need to spend a lot of manpower to collect the data of the testing devices, and the data uploaded by the testing devices can be obtained by the transparent transmission tool, ensuring the integrity of the data and avoiding data inaccuracy caused by data missing and omissions, thereby improving the data collection efficiency of the testing equipment and saving data collection costs.

[0081] In a related solution, the communication method between the testing equipment and the LIS system is to communicate through shared files. Figure 7 As shown, the test equipment and the equipment where the LIS system is located share a file directory, and the file directory includes a device-to-LIS directory and a LIS-to-device directory. The test equipment can write data to the device-to-LIS directory, and the LIS system reads the data from the directory and deletes the data to indicate to the test equipment that the LIS system has read the data; the LIS system can also write data to the LIS-to-device directory, and the test equipment reads the data from the directory and deletes the data to indicate to the LIS system that the test equipment has read the data. Among them, the file directory can be configured on the test equipment, or on the LIS system, or on a third computer. However, for each data uploaded by the test equipment to the LIS system, the staff needs to collect it one by one, which is a huge workload and data may be missed during collection, resulting in inaccurate data, and low data collection efficiency.

[0082] In view of the above communication mode, this embodiment proposes an improvement to the communication mode. Figure 8 As shown, both the testing device and the LIS system have corresponding shared directories, and the testing device and the LIS system establish the first communication connection based on the shared directory. The testing device can write the first data into the shared directory corresponding to the testing device, so that the first data is transmitted to the communication link corresponding to the first communication connection. The transparent transmission tool includes a transparent transmission forwarder, which reads the first data from the shared directory corresponding to the testing device and writes the read first data into the shared directory corresponding to the LIS system, so that the LIS system can read the first data from its shared directory.

[0083] Among them, after the transparent forwarder reads the first data from the shared directory corresponding to the testing device, it can delete the first data in the shared directory to prompt the testing device that the transparent forwarder has read the data; similarly, after the LIS system reads the first data from its corresponding shared directory, it can delete the first data in the shared directory to prompt the transparent forwarder that the LIS system has read the data.

[0084] Similarly, the data sent by the LIS system to the testing equipment can also be written into its corresponding shared directory, and the transparent forwarder reads the data in the shared directory of the LIS system and writes the read data into the shared directory corresponding to the testing equipment. The testing equipment reads the data in its shared directory, thereby obtaining the data sent by the LIS system and realizing two-way information interaction between the testing equipment and the LIS system.

[0085] Among them, the shared directory corresponding to the testing device can be configured on the testing device or on other computer devices; the shared directory corresponding to the LIS system can be configured on the LIS system or on other computer devices, which is not limited here.

[0086] Therefore, the data uploaded by each testing device to the LIS system can be collected by the transparent transmission forwarder. The transparent transmission tool obtains the data uploaded by multiple testing devices to the LIS system through the transparent transmission forwarder, thereby realizing data collection from multiple testing devices. There is no need to spend a lot of manpower to collect the data of the testing devices, and the data uploaded by the testing devices can be obtained by the transparent transmission tool, ensuring the integrity of the data and avoiding data inaccuracy caused by data missing and omissions, thereby improving the data collection efficiency of the testing equipment and saving data collection costs.

[0087] In a preferred implementation of this embodiment, the testing device and the LIS system can also establish a first communication connection based on a database, that is, the testing device can write first data to the database, and then the LIS system reads the first data from the database, so that the testing device uploads data to the LIS system. Similarly, the LIS system can also write data that needs to be sent to the testing device to the database, and then the testing device reads the data written by the LIS system from the database, so that the LIS system sends data to the testing device. At the same time, when multiple testing devices write the first data to the database, the transparent transmission tool can read the first data of multiple testing devices from the database, and transmit the read first data to the centralized management device, so that the centralized management device manages multiple testing devices based on the first data of multiple testing devices.

[0088] Therefore, by reading the first data written by the inspection device in the database, the data of multiple inspection devices can be easily collected, which greatly reduces the cost of manual data collection. At the same time, it can also ensure that the collected data is complete and will not be inaccurate due to omissions or missing data, thereby improving the data collection efficiency of the inspection equipment.

[0089] In related solutions, different communication protocols are used between multiple testing devices and the LIS system, and different data formats are used to encapsulate data, resulting in different data formats or data structures for the data collected by multiple testing devices, which affects data processing and also leads to decentralized data management. For example, decentralized management of quality control data makes it difficult to integrate and compare quality control data from different devices.

[0090] To this end, in a preferred implementation manner of this embodiment, as Fig. 9As shown, the transparent transmission tool includes a data parser, a communication protocol converter and a communication interface. When the transparent transmission tool obtains the first data of the test device, the data parser can obtain a copy of the first data, and parse the copy of the first data according to the communication protocol between the test device and the LIS system to obtain parsed content data; the communication protocol converter is used to encapsulate the parsed content data according to the protocol data format preset by the centralized management device to obtain the second data, and the communication interface sends the second data to the centralized management device based on a network communication protocol such as the TCP protocol or the HTTP protocol.

[0091] The data parser can perform data parsing for different data communication protocols. For example, a certain testing device performs data communication with the LIS system based on the HL7 protocol (Health Level 7). When the transparent transmission tool obtains the first data transmitted by the testing device to the communication link corresponding to the first communication connection of the LIS system, the data parser can parse the copy of the first data based on the HL7 protocol to obtain the parsed content data, and the communication protocol converter encapsulates the parsed content data according to the protocol data format preset by the centralized management device, that is, encapsulates the parsed content data into a data structure that can be recognized by the centralized management device to facilitate the centralized management device to process the data.

[0092] Similarly, if a certain testing device communicates data with the LIS system based on the ASTM protocol, when the transparent transmission tool obtains the first data transmitted by the testing device to the communication link corresponding to the first communication connection of the LIS system, the data parser can parse the copy of the first data based on the ASTM protocol. By analogy, no matter what communication protocol the testing device and the LIS system use for data communication, the data parser can parse the copy of the data uploaded by the testing device to the LIS system according to the communication protocol used by the testing device, so that the network architecture of this embodiment is compatible with most testing devices on the market. Therefore, the medical testing equipment management system of this embodiment has strong universality and can be widely used in various scenarios.

[0093] At the same time, the data analysis and packaging of the inspection equipment also facilitates the data processing of the centralized management device and facilitates data management. For quality control data, the analysis and packaging of quality control data in different data formats into the same data format also facilitates the integration of quality control data of multiple inspection equipment and the comparison of quality control conditions of multiple inspection equipment.

[0094] In a preferred embodiment, the transparent transmission tool may also include a transparent transmission forwarder and a data buffer. The transparent transmission forwarder is used to obtain the first data transmitted by the inspection device to the communication link corresponding to the first communication connection of the LIS system, and generate a copy of the first data. The data buffer is used to cache the copy of the first data generated by the transparent transmission forwarder. The data parser can obtain the copy of the first data generated by the transparent transmission forwarder from the data buffer.

[0095] The transparent forwarder obtains the first data based on Figure 4 , 6 , obtain the first data by any one of the communication methods shown in 8, or by reading the first data written by the verification device in the database, and copying the first data to generate a copy of the first data.

[0096] The data buffer can be configured with bit stream buffer and object buffer, based on Figure 4 , 6 , and the copy of the first data obtained by the communication method shown in 8 can be cached in the bit stream cache; by reading the first data written by the verification device in the database and obtaining a copy of the first data, it can be cached in the object cache. The object cache is used to store the database query result, so that when the result is needed later, the result can be extracted from the object cache without having to repeatedly query the database.

[0097] Therefore, by setting up a data buffer, when a large amount of first data needs to be parsed and converted into a data format, it can be first cached in the data buffer and queued for processing, thereby avoiding the generation of a large number of data processing tasks and occupying processing resources at the same time.

[0098] Of course, if the computing power and processing resources of the transparent transmission tool are sufficient, there is no need to set up a data buffer, but the transparent transmission forwarder directly transmits a copy of the first data to the data parser, which is not limited here.

[0099] In a preferred implementation of this embodiment, the inspection device may be configured with a transmission interface, and the inspection device establishes a communication link with the centralized management device based on the transmission interface. Therefore, multiple inspection devices can also send first data to the centralized management device through the communication link established by the transmission interface, so that the centralized management device manages the multiple inspection devices according to the first data of the multiple inspection devices.

[0100] Therefore, this method can realize the direct connection between the inspection equipment and the centralized management device. The data of the inspection equipment is directly transmitted to the centralized management device without passing through an intermediate device, and the transmission efficiency is higher.

[0101] In order to solve the technical problems of decentralized management of inspection equipment and difficulty in data collection, in addition to proposing Figure 2In addition to the embodiment of the medical testing equipment management system shown in FIG. 1 , the present application embodiment also proposes another embodiment of the medical testing equipment management system. In this other embodiment, the structure of the medical testing equipment management system is as follows: Fig.10 As shown. As shown in the figure, the medical testing equipment management system includes: multiple testing equipment and a quality evaluation device. The multiple testing equipment can establish a first communication connection with the laboratory information management system LIS. The multiple testing equipment is used to transmit the first data to the communication link corresponding to the first communication connection through the first communication connection. The first data is the data uploaded by the testing equipment to the laboratory information management system LIS, and the first data includes indoor quality control information based on the quality control product. The testing equipment is configured with a transmission interface, and the testing equipment establishes a communication link with the quality evaluation device based on the transmission interface. The testing equipment is also used to send the first data to the quality evaluation device through the communication link established by the transmission interface. The quality evaluation device is used to evaluate the quality of the sample test results of the testing equipment in the laboratory based on at least the indoor quality control information.

[0102] The testing device transmits the first data to the communication link corresponding to the first communication connection through the first communication connection. The testing device may directly establish a communication connection with the LIS system and send the first data to the LIS system based on the communication connection; or Figure 2 In the network architecture shown, the first data transmitted by the testing device to the communication link corresponding to the first communication connection is acquired by the transparent transmission tool, and the transparent transmission tool transmits the first data to the LIS system. This embodiment does not limit the communication method between the testing device and the LIS system.

[0103] Similarly, the data sent by the LIS system to the testing device can also be transmitted to the communication link corresponding to the first communication connection between the testing device and the LIS system, and the testing device obtains the data sent by the LIS system from the communication link. The LIS system can directly establish a communication connection with the testing device and send data to the testing device based on the communication connection; it can also be based on Figure 2 In the network architecture shown, the data transmitted by the LIS system to the communication link corresponding to the first communication connection is acquired by the transparent transmission tool, and the transparent transmission tool transmits the data to the testing device. This embodiment does not limit the communication method between the testing device and the LIS system.

[0104] Therefore, the quality evaluation device can obtain the quality control data sent by multiple testing devices, without the need for personnel to manually collect the quality control data of multiple testing devices, thereby realizing centralized management of quality control data. Moreover, the quality control data sent by the testing equipment can all be obtained by the quality evaluation device, ensuring the integrity of the data and avoiding inaccurate data due to missing and omissions, thereby improving the data collection efficiency of the testing equipment and saving data collection costs.

[0105] In a preferred implementation of this embodiment, the quality evaluation device can evaluate the quality of sample test results of multiple testing devices in the laboratory based at least on the indoor quality control information and the external quality evaluation EQA data;

[0106] The EQA data may be inter-laboratory quality evaluation data input into the quality evaluation device by a user; or, the EQA data may be inter-laboratory quality evaluation data acquired by the quality evaluation device from a third-party platform.

[0107] Therefore, the testing equipment can transmit the indoor quality control information to the quality evaluation device, and the quality evaluation device can evaluate the quality of the sample test results of multiple testing equipment in the laboratory based on the indoor quality control information and the inter-laboratory quality evaluation EQA data, and then output the quality control evaluation results.

[0108] Specifically, the quality evaluation device can determine the quality evaluation index result for the testing equipment based at least on the indoor quality control information and the inter-laboratory quality evaluation EQA data, and compare the quality evaluation index result with the preset index value to obtain the quality control evaluation result of the testing equipment.

[0109] Among them, the quality evaluation index result may include the results of one or more quality evaluation indicators of coefficient of variation (CV), fault handling rate and plan execution rate. That is to say, the quality evaluation device can determine the index results of indicators such as coefficient of variation, fault handling rate or plan execution rate based on indoor quality control information and inter-laboratory quality evaluation EQA data, and compare the index results with preset index values, such as comparing the index result of the coefficient of variation with the preset index value of the coefficient of variation to determine whether the index result of the coefficient of variation exceeds the threshold range. If it exceeds the threshold range, it is determined that the quality of the sample test result of the inspection equipment does not meet the laboratory management requirements.

[0110] Therefore, the quality control data of multiple testing equipment, including various quality control data such as indoor quality control information, can be directly transmitted to the quality evaluation device, realizing the collection of quality control data of multiple testing equipment. Even the testing equipment of different laboratories can be uniformly collected by the quality evaluation device and the quality evaluation of sample test results can be uniformly performed. There is no need to manually collect the quality control data of multiple testing equipment from multiple laboratories, thereby improving the efficiency of data collection. The quality evaluation device directly receives the quality control data transmitted by the testing equipment and evaluates the quality of the sample test results of multiple testing equipment based on this quality control data, which can improve the efficiency of quality control evaluation and realize inter-laboratory quality evaluation of different laboratories.

[0111] Furthermore, this method can realize direct connection between the inspection equipment and the quality evaluation device. The data of the inspection equipment is directly transmitted to the quality evaluation device without passing through an intermediate device, and the transmission efficiency is higher.

[0112] Based on the above Figure 2 The structure of the medical testing equipment management system shown in the figure takes the medical testing equipment management system as the description object and further describes the medical testing equipment management method implemented by the medical testing equipment management system. Fig.11 In the embodiment of the present application, one embodiment of the medical testing equipment management method includes:

[0113] 101. Multiple testing devices transmit first data to a communication link corresponding to the first communication connection through a first communication connection, where the first data is data uploaded by the testing device to a laboratory information management system (LIS), and the first data includes at least patient information, sample test results of a patient sample, and indoor quality control information based on a quality control product;

[0114] The method of this embodiment can be applied to Figure 2 The medical testing equipment management system shown includes multiple testing equipment, a transparent transmission tool and a centralized management device. The multiple testing equipment can establish a first communication connection with the laboratory information management system LIS.

[0115] 102. The transparent transmission tool obtains the first data in the communication link, extracts the second data from the first data, and transmits the second data to the centralized management device, so that the centralized management device can manage the multiple inspection devices based on the second data;

[0116] 103. The transparent transmission tool further transmits the first data to the laboratory information management system LIS;

[0117] In this embodiment, the specific operations performed by the multiple testing devices, transparent transmission tools, centralized management devices, LIS systems and other devices have been described above. Figure 2 The illustrated embodiment and its various preferred implementations are described in detail and will not be repeated here.

[0118] Therefore, in this embodiment, the transparent transmission tool can obtain data uploaded to the LIS system by multiple testing devices, and send the data uploaded to the LIS system by multiple testing devices to the centralized management device for centralized management. There is no need for personnel to manually collect data uploaded to the LIS system by multiple testing devices, and the data uploaded by the testing devices can all be obtained by the transparent transmission tool, ensuring the integrity of the data and avoiding data inaccuracy caused by missing and missing data, thereby improving the efficiency of data collection from testing devices and saving data collection costs.

[0119] In a preferred implementation of this embodiment, the transparent transmission tool includes a transparent transmission repeater; the testing equipment, the transparent transmission repeater and the laboratory information management system LIS are all configured with a network port;

[0120] The testing device and the laboratory information management system LIS perform the first communication connection based on a network port;

[0121] The transparent transmission repeater receives the first data in the communication link through the network port of the transparent transmission repeater, and transmits the first data to the laboratory information management system LIS through the network port of the transparent transmission repeater.

[0122] In a preferred implementation of this embodiment, the transparent transmission tool includes a transparent transmission repeater; the transparent transmission repeater and the inspection device are both configured with a physical serial port;

[0123] The laboratory information management system LIS is configured with a virtual serial port, and the laboratory information management system LIS and the testing device perform the first communication connection based on the virtual serial port and the physical serial port of the testing device;

[0124] The transparent transmission forwarder receives the first data in the communication link through the physical serial port of the transparent transmission forwarder; and forwards the first data to the virtual serial port, so that the virtual serial port transmits the first data to the laboratory information management system LIS.

[0125] In a preferred implementation of this embodiment, the testing device and the laboratory information management system LIS both have corresponding shared directories, and the testing device and the laboratory information management system LIS perform the first communication connection based on the shared directory;

[0126] The inspection device writes the first data into a shared directory corresponding to the inspection device, so that the first data is transmitted to a communication link corresponding to the first communication connection;

[0127] The transparent transmission tool includes a transparent transmission forwarder, which reads the first data from the shared directory corresponding to the testing device; and writes the read first data into the shared directory corresponding to the laboratory information management system LIS, so that the laboratory information management system LIS reads the first data from its shared directory.

[0128] In a preferred implementation of this embodiment, the testing device and the laboratory information management system LIS perform the first communication connection based on a database;

[0129] The multiple inspection devices write the first data to the database, the transparent transmission tool reads the first data from the database, and transmits the read first data to the centralized management device, so that the centralized management device manages the multiple inspection devices based on the first data.

[0130] In a preferred implementation of this embodiment, the transparent transmission tool includes a data parser, a communication protocol converter and a communication interface;

[0131] The data parser obtains a copy of the first data, and parses the copy of the first data according to a communication protocol between the testing device and the laboratory information management system LIS to obtain parsed content data;

[0132] The communication protocol converter encapsulates the parsed content data according to the protocol data format preset by the centralized management device to obtain the second data;

[0133] The communication interface sends the second data to the centralized management device.

[0134] In a preferred implementation of this embodiment, the transparent transmission tool further includes a transparent transmission forwarder and a data buffer, and the transparent transmission forwarder obtains the first data in the communication link and generates a copy of the first data;

[0135] The data buffer caches a copy of the first data generated by the transparent transmission forwarder;

[0136] The data parser obtains a copy of the first data generated by the transparent forwarder from the data buffer.

[0137] In a preferred implementation of this embodiment, the multiple testing devices include testing devices from multiple manufacturers in the same laboratory; or, the multiple testing devices include testing devices from the same manufacturer or different manufacturers in multiple laboratories, and the multiple laboratories are multiple laboratories in the same area or multiple laboratories in different areas.

[0138] In a preferred implementation of this embodiment, the centralized management device is a quality evaluation device, and the second data is indoor quality control information based on quality control products;

[0139] The quality evaluation device evaluates the quality of the sample test results of the inspection equipment in the laboratory based at least on the indoor quality control information and the external quality evaluation EQA data;

[0140] The EQA data is inter-laboratory quality evaluation data input into the quality evaluation device by a user; or, the EQA data is inter-laboratory quality evaluation data acquired by the quality evaluation device from a third-party platform.

[0141] In a preferred implementation of this embodiment, the quality evaluation device determines the quality evaluation index result for the inspection equipment based at least on the indoor quality control information and the inter-laboratory quality evaluation EQA data, and compares the quality evaluation index result with the preset index value to obtain the quality control evaluation result of the inspection equipment.

[0142] In a preferred implementation manner of this embodiment, the quality evaluation index result includes the results of one or more quality evaluation indicators of coefficient of variation CV, fault handling rate and plan execution rate.

[0143] In a preferred implementation of this embodiment, the centralized management device is a sample management device, and the second data is a sample test result of a test on a patient sample;

[0144] The sample management device manages patient samples according to the sample test results of the multiple testing devices.

[0145] In a preferred implementation of this embodiment, the sample management device determines the sample test turnaround time TAT of the patient sample according to the sample test results of the multiple testing devices; or,

[0146] Determine the abnormal test items in which the item test results of the patient samples in the sample test results of the multiple testing devices exceed the preset threshold range, and display abnormal alarm information to prompt the user of the abnormal test items.

[0147] In a preferred implementation manner of this embodiment, the inspection device is configured with a transmission interface, and the inspection device establishes a communication link with the centralized management device based on the transmission interface;

[0148] The multiple inspection devices also send the first data to the centralized management device through the communication link established by the transmission interface, so that the centralized management device manages the multiple inspection devices according to the first data of the multiple inspection devices.

[0149] For detailed explanations of various preferred implementations of this embodiment, please refer to Figure 2 The explanation of the corresponding preferred implementation modes in the illustrated embodiments will not be repeated here.

[0150] Based on the above Fig.10The structure of the medical testing equipment management system shown in the figure takes the medical testing equipment management system as the description object and further describes the medical testing equipment management method implemented by the medical testing equipment management system. Fig.12 In the embodiment of the present application, one embodiment of the medical testing equipment management method includes:

[0151] 201. A plurality of testing devices transmit first data to a communication link corresponding to the first communication connection through a first communication connection, where the first data is data uploaded by the testing device to a laboratory information management system LIS, and the first data includes indoor quality control information based on a quality control product;

[0152] The method of this embodiment can be applied to Fig.10 The medical testing equipment management system shown includes testing equipment and quality evaluation devices, and the multiple testing equipment can be firstly communicated with the laboratory information management system LIS. The testing equipment is equipped with a transmission interface, and the testing equipment establishes a communication link with the centralized management device based on the transmission interface.

[0153] 202. The inspection device also sends the first data to the quality evaluation device through the communication link established by the transmission interface;

[0154] 203. The quality evaluation device evaluates the quality of the sample test results of the inspection equipment in the laboratory based at least on the indoor quality control information;

[0155] In this embodiment, the specific operations performed by the multiple testing devices, quality evaluation devices, LIS system and other devices have been described above. Fig.10 The illustrated embodiment and its various preferred implementations are described in detail and will not be repeated here.

[0156] Therefore, in this embodiment, the quality evaluation device can obtain the quality control data sent by multiple testing devices, without the need for personnel to manually collect the quality control data of multiple testing devices, thereby realizing centralized management of quality control data, and the quality control data sent by the testing devices can all be obtained by the quality evaluation device, ensuring the integrity of the data and avoiding data inaccuracy caused by missing and omissions, thereby improving the data collection efficiency of the testing equipment and saving data collection costs.

[0157] Furthermore, this method can realize direct connection between the inspection equipment and the quality evaluation device. The data of the inspection equipment is directly transmitted to the quality evaluation device without passing through an intermediate device, and the transmission efficiency is higher.

[0158] In a preferred implementation of this embodiment, the quality evaluation device evaluates the quality of the sample test results of the inspection equipment in the laboratory based at least on the indoor quality control information and the external quality evaluation EQA data;

[0159] The EQA data is inter-laboratory quality evaluation data input into the quality evaluation device by a user; or, the EQA data is inter-laboratory quality evaluation data acquired by the quality evaluation device from a third-party platform.

[0160] In a preferred implementation of this embodiment, the quality evaluation device determines the quality evaluation index result for the inspection equipment based at least on the indoor quality control information and the inter-laboratory quality evaluation EQA data, and compares the quality evaluation index result with the preset index value to obtain the quality control evaluation result of the inspection equipment.

[0161] For detailed explanations of various preferred implementations of this embodiment, please refer to Fig.10 The explanation of the corresponding preferred implementation modes in the illustrated embodiments will not be repeated here.

[0162] Those skilled in the art can clearly understand that, for the convenience and brevity of description, the specific working processes of the systems, devices and units described above can refer to the corresponding processes in the aforementioned method embodiments and will not be repeated here.

[0163] In the several embodiments provided in the present application, it should be understood that the disclosed systems, devices and methods can be implemented in other ways. For example, the device embodiments described above are only schematic. For example, the division of the units is only a logical function division. There may be other division methods in actual implementation, such as multiple units or components can be combined or integrated into another system, or some features can be ignored or not executed. Another point is that the mutual coupling or direct coupling or communication connection shown or discussed can be an indirect coupling or communication connection through some interfaces, devices or units, which can be electrical, mechanical or other forms.

[0164] The units described as separate components may or may not be physically separated, and the components shown as units may or may not be physical units, that is, they may be located in one place or distributed on multiple network units. Some or all of the units may be selected according to actual needs to achieve the purpose of the solution of this embodiment.

[0165] In addition, each functional unit in each embodiment of the present application may be integrated into one processing unit, or each unit may exist physically separately, or two or more units may be integrated into one unit. The above-mentioned integrated unit may be implemented in the form of hardware or in the form of software functional units.

[0166] If the integrated unit is implemented in the form of a software functional unit and sold or used as an independent product, it can be stored in a computer-readable storage medium. Based on this understanding, the technical solution of the present application is essentially or the part that contributes to the prior art or all or part of the technical solution can be embodied in the form of a software product, and the computer software product is stored in a storage medium, including a number of instructions to enable a computer device (which can be a personal computer, a server, or a network device, etc.) to perform all or part of the steps of the method described in each embodiment of the present application. The aforementioned storage medium includes: U disk, mobile hard disk, read-only memory (ROM, read-only memory), random access memory (RAM, random access memory), disk or optical disk and other media that can store program code.

Claims

1. A medical testing equipment management system, characterized in that: include: Multiple inspection equipment, transmission tools and centralized management devices, including: The plurality of testing devices may be in a first communication connection with a laboratory information management system LIS; The multiple testing devices are used to transmit first data to the communication link corresponding to the first communication connection through the first communication connection, the first data is the data uploaded by the testing device to the laboratory information management system LIS, and the first data at least includes patient information, sample test results of patient samples, and indoor quality control information based on quality control products; The transparent transmission tool is used to obtain the first data in the communication link, extract second data from the first data, and transmit the second data to the centralized management device, so that the centralized management device can manage the multiple inspection devices based on the second data; The transparent transmission tool is also used to transmit the first data to the laboratory information management system LIS.

2. The system according to claim 1, characterized in that The transparent transmission tool includes a transparent transmission repeater; the testing equipment, the transparent transmission repeater and the laboratory information management system LIS are all configured with a network port; The testing device and the laboratory information management system LIS perform the first communication connection based on a network port; The transparent transmission repeater is specifically used to receive the first data in the communication link through the network port of the transparent transmission repeater, and transmit the first data to the laboratory information management system LIS through the network port of the transparent transmission repeater.

3. The system according to claim 1, characterized in that The transparent transmission tool includes a transparent transmission repeater; the transparent transmission repeater and the inspection device are both configured with a physical serial port; The laboratory information management system LIS is configured with a virtual serial port, and the laboratory information management system LIS and the testing device perform the first communication connection based on the virtual serial port and the physical serial port of the testing device; The transparent transmission repeater is specifically used to receive the first data in the communication link through the physical serial port of the transparent transmission repeater; And, forwarding the first data to the virtual serial port, so that the virtual serial port transmits the first data to the laboratory information management system LIS.

4. The system according to claim 1, characterized in that The testing device and the laboratory information management system LIS both have corresponding shared directories, and the testing device and the laboratory information management system LIS perform the first communication connection based on the shared directory; The inspection device is specifically used to write the first data into a shared directory corresponding to the inspection device, so that the first data is transmitted to a communication link corresponding to the first communication connection; The transparent transmission tool includes a transparent transmission forwarder, and the transparent transmission forwarder is used to read the first data from the shared directory corresponding to the inspection device; And, writing the read first data into a shared directory corresponding to the laboratory information management system LIS, so that the laboratory information management system LIS reads the first data from its shared directory.

5. The system according to claim 1, characterized in that The testing device and the laboratory information management system LIS perform the first communication connection based on a database; The multiple inspection devices are specifically used to write the first data into the database, and the transparent transmission tool is specifically used to read the first data from the database and transmit the read first data to the centralized management device, so that the centralized management device manages the multiple inspection devices based on the first data.

6. The system according to any one of claims 1 to 5, characterized in that: The transparent transmission tool includes a data analyzer, a communication protocol converter and a communication interface; The data parser is used to obtain a copy of the first data, and parse the copy of the first data according to the communication protocol between the testing device and the laboratory information management system LIS to obtain parsed content data; The communication protocol converter is used to encapsulate the parsed content data according to the protocol data format preset by the centralized management device to obtain the second data; The communication interface is used to send the second data to the centralized management device.

7. The system according to claim 6, characterized in that The transparent transmission tool further includes a transparent transmission forwarder and a data buffer, wherein the transparent transmission forwarder is used to obtain the first data in the communication link and generate a copy of the first data; The data buffer is used to cache a copy of the first data generated by the transparent transmission forwarder; The data parser is specifically configured to obtain a copy of the first data generated by the transparent transmission forwarder from the data buffer.

8. The system according to claim 1, characterized in that The multiple testing devices include testing devices from multiple manufacturers in the same laboratory; or, the multiple testing devices include testing devices from the same manufacturer or different manufacturers in multiple laboratories, and the multiple laboratories are multiple laboratories in the same area or multiple laboratories in different areas.

9. The system according to claim 1, characterized in that The centralized management device is a quality evaluation device, and the second data is indoor quality control information based on quality control products; The quality evaluation device evaluates the quality of the sample test results of the inspection equipment in the laboratory based at least on the indoor quality control information and the external quality evaluation EQA data; The EQA data is the inter-laboratory quality evaluation data input into the quality evaluation device by a user; or, the EQA data is the inter-laboratory quality evaluation data acquired by the quality evaluation device from a third-party platform.

10. The system according to claim 9, characterized in that The quality evaluation device is specifically used to determine the quality evaluation index result for the inspection equipment based at least on the indoor quality control information and the inter-laboratory quality evaluation EQA data, and compare the quality evaluation index result with the preset index value to obtain the quality control evaluation result of the inspection equipment.

11. The system according to claim 10, characterized in that The quality evaluation index result includes the result of one or more quality evaluation indexes of coefficient of variation CV, fault handling rate and plan execution rate.

12. The system according to claim 1, characterized in that The centralized management device is a sample management device, and the second data is a sample test result of a test on a patient sample; The sample management device is used to manage patient samples according to the sample test results of the multiple testing devices.

13. The system according to claim 12, characterized in that The sample management device is specifically used to determine the sample test turnaround time TAT of the patient sample according to the sample test results of the multiple testing devices; or, Determine the abnormal test items in which the item test results of the patient samples in the sample test results of the multiple testing devices exceed the preset threshold range, and display abnormal alarm information to prompt the user of the abnormal test items.

14. The system according to any one of claims 1 to 13, characterized in that: The inspection device is configured with a transmission interface, and the inspection device establishes a communication link with the centralized management device based on the transmission interface; The multiple inspection devices are also used to send the first data to the centralized management device through the communication link established by the transmission interface, so that the centralized management device manages the multiple inspection devices according to the first data of the multiple inspection devices.

15. A medical testing equipment management system, characterized in that: include: Multiple inspection equipment and quality assessment devices; The plurality of testing devices may be in a first communication connection with a laboratory information management system LIS; The multiple testing devices are used to transmit first data to the communication link corresponding to the first communication connection through the first communication connection, the first data is the data uploaded by the testing device to the laboratory information management system LIS, and the first data includes indoor quality control information based on the quality control product; The inspection device is configured with a transmission interface, and the inspection device establishes a communication link with the quality evaluation device based on the transmission interface; The inspection device is further used to send the first data to the quality evaluation device through the communication link established by the transmission interface; The quality evaluation device is used to evaluate the quality of the sample test results of the inspection equipment in the laboratory based at least on the indoor quality control information.

16. The system according to claim 15, characterized in that The quality evaluation device evaluates the quality of the sample test results of the inspection equipment in the laboratory based at least on the indoor quality control information and the external quality evaluation EQA data; The EQA data is the inter-laboratory quality evaluation data input into the quality evaluation device by a user; or, the EQA data is the inter-laboratory quality evaluation data acquired by the quality evaluation device from a third-party platform.

17. The system according to claim 16, characterized in that The quality evaluation device is specifically used to determine the quality evaluation index result for the inspection equipment based at least on the indoor quality control information and the inter-laboratory quality evaluation EQA data, and compare the quality evaluation index result with the preset index value to obtain the quality control evaluation result of the inspection equipment.

18. A medical testing equipment management method, characterized in that: The method is applied to a medical testing equipment management system, which includes a plurality of testing equipment, a transparent transmission tool and a centralized management device, and the plurality of testing equipment can be connected to a laboratory information management system LIS for a first communication; The method comprises: The multiple testing devices transmit first data to the communication link corresponding to the first communication connection through the first communication connection, wherein the first data is the data uploaded by the testing device to the laboratory information management system LIS, and the first data at least includes patient information, sample test results of the patient sample, and indoor quality control information based on the quality control product; The transparent transmission tool obtains the first data in the communication link, extracts second data from the first data, and transmits the second data to the centralized management device, so that the centralized management device can manage the multiple inspection devices based on the second data; The transparent transmission tool also transmits the first data to the laboratory information management system LIS.

19. A medical testing equipment management method, characterized in that: The method is applied to a medical testing equipment management system, which includes a plurality of testing equipment and a quality evaluation device; The plurality of testing devices may be in a first communication connection with a laboratory information management system LIS; The inspection device is configured with a transmission interface, and the inspection device establishes a communication link with the quality evaluation device based on the transmission interface; The method comprises: The multiple testing devices transmit first data to the communication link corresponding to the first communication connection through the first communication connection, wherein the first data is data uploaded by the testing device to the laboratory information management system LIS, and the first data includes indoor quality control information based on quality control products; The inspection device also sends the first data to the quality evaluation device through the communication link established by the transmission interface; The quality evaluation device evaluates the quality of the sample test results of the inspection equipment in the laboratory based at least on the indoor quality control information.

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