Information processing device and method for blood sample detection

Abstract

The invention discloses an information processing device and method for blood sample detection, belongs to the technical field of information of blood sample detection, and aims to overcome the defect of poor function of executing transmission on scanning data and improve the performance of executing transmission on the scanning data by transmitting scanning messages to be transmitted which are scanned by different objective chromatographic scanners. In contrast to the present different tomographic scanners defining the same transmission weight, the present invention digitizes a plurality of parameters corresponding to the data transmission weight through a predefined scanning transmission message within a previous time interval, just if a transmission aggregation amount is greater than a transmission stationary amount, and if the transmission aggregation amount is greater than the transmission stationary amount, the transmission stationary amount is greater than the transmission stationary amount, the transmission stationary amount is greater than the transmission stationary amount. In this way, the transmission weights corresponding to the tomographic scanners of different purposes are actively matched and digitized, so that the function of executing transmission on the scanning data later is improved.

Description

Technical Field

[0001] The present invention belongs to the field of information technology for blood sample detection, and in particular relates to an information processing device and method for blood sample detection. Background Art

[0002] The purpose of animal blood sample testing is to promptly detect and diagnose animal health problems, monitor treatment effectiveness, and evaluate health status to ensure the overall health of the animal.

[0003] In animal blood sample testing, antibody testing is particularly important. As mentioned in the prior art solution with patent publication number "CN107870236A", the blood sample containing antibodies to be tested is dripped into the sample loading hole of the test card, and then the test card is scanned using a chromatographic scanner. The chromatographic scanner wirelessly transmits the scan data to the client, and the client calculates the antibody content in the blood sample to be tested based on the scan data and the preset antibody standard curve.

[0004] Currently, for centralized control, several tomography scanners are often wirelessly connected to a client. When the scanned data scanned by several tomography scanners are transmitted, the same transmission weight is often defined for the scanned data scanned by different tomography scanners, and the scanned data scanned by several tomography scanners are transmitted sequentially.

[0005] However, when transmitting scan data scanned by multiple tomography scanners, if different tomography scanners define the same transmission weight, there will be the following defects:

[0006] During the use of the tomography scanner, due to performance degradation and other reasons, different tomography scanners often have different transmission errors during data transmission. In actual situations, in order to avoid the situation where a large amount of transmitted data is erroneous data when the wireless transmission channel performance is poor and only a small amount of data can be transmitted, it is often necessary to first transmit the data scanned by the tomography scanner with a small error probability. Therefore, if different tomography scanners define the same transmission weights, the data transmission function is often poor. Summary of the invention

[0007] In order to solve the defects in the prior art, the present invention proposes an information processing device and method for blood sample detection, which transmits the scanned information to be transmitted through different target chromatographic scanners, overcomes the defect of poor transmission function of the scanned data, and improves the performance of the transmission of the scanned data. Compared with the current different chromatographic scanners that define the same transmission weight, the present invention digitizes several parameters corresponding to the data transmission weight through the scanning transmission information within a pre-defined past time interval, such as the transmission concentration and the transmission stability, so as to actively match and digitize the corresponding transmission weights of different target chromatographic scanners, thereby improving the subsequent transmission function of the scanned data.

[0008] The present invention uses the following technical solutions.

[0009] A method for information management of load control, comprising:

[0010] Drop the blood sample containing the antibody into the sample well of the test card, and then use the chromatographic scanner to scan the test card. The chromatographic scanner transmits the scan data wirelessly to the client, and the client calculates the antibody content in the blood sample based on the scan data and the preset antibody standard curve;

[0011] The method for a tomographic scanner to wirelessly transmit scan data to a client comprises:

[0012] Step 1: Obtain the scan transmission messages of each target tomography scanner in each pre-defined past time interval and the scan messages to be transmitted by each target tomography scanner in the current time interval;

[0013] Step 2: According to the transmission time corresponding to each transmission service contained in each scanning transmission message, the time interval between adjacent transmission services and the number of transmission services, the transmission aggregation amount corresponding to each scanning transmission message is determined;

[0014] Step 3: Select various types of retransmission services from each scanning transmission message, and determine the transmission stability corresponding to each scanning transmission message according to the corresponding transmission time of each retransmission service in the same type of retransmission services contained in each scanning transmission message;

[0015] Step 4: Determine the transmission weight of each target scan according to the transmission concentration and transmission stability of each target scan in all pre-defined past time intervals;

[0016] Step 5: According to the corresponding transmission weight of each destination tomography scanner, the scanning message to be transmitted by each destination tomography scanner in the current time interval is transmitted.

[0017] Further, in Step 1, the destination tomography scanner is a tomography scanner used to scan and transmit scan data; the current time interval is the time interval for performing scan data transmission, and the end time point of the current time interval is the current time point, and the scan transmission message is a message related to the scan data within a pre-defined past time interval.

[0018] Furthermore, in Step 1, the scan transmission message includes: transmission service, transmission time corresponding to the transmission service, transmission start time, transmission end time and transmission main memory pointer. The transmission service is the scanning data of each secondary transmission, and the scanning message to be transmitted includes the scanning data to be transmitted in the current time interval.

[0019] Furthermore, Step 1 specifically includes:

[0020] Step 1-1: Obtain the scanning transmission message of each target tomography scanner in each pre-defined past time interval, that is, identify any target tomography scanner as a marker tomography scanner, identify any pre-defined past time interval as a marker time interval, and obtain scanning data by scanning the detection card through the marker tomography scanner in the marker time interval, and transmit each scanning data obtained by scanning to the client through the wireless channel, and form a scanning transmission message by combining the transmission service obtained by the marker tomography scanner in the marker time interval with its corresponding transmission time, transmission start time point, transmission end time point and transmission main memory pointer;

[0021] Step 1-2: Obtain the scanning message to be transmitted by each target tomography scanner in the current time interval, that is, identify any target tomography scanner as a marker tomography scanner, and obtain scanning data by scanning the detection card through the marker tomography scanner in the current time interval, and form the scanning data obtained by scanning through the marker tomography scanner in the current time interval into the scanning message to be transmitted.

[0022] Furthermore, Step 2 specifically includes:

[0023] Step 2-1: The average of the transmission times corresponding to all transmission services included in each scanning transmission message is determined as the average of the transmission times corresponding to each scanning transmission message;

[0024] Step 2-2: The average of the time intervals between all adjacent transmission services included in each scanning transmission message is determined as the average transmission interval corresponding to each scanning transmission message;

[0025] Step 2-3: The standard deviation of the transmission start time points of all transmission services included in each scanning transmission message is determined as the transmission arrangement coefficient of each scanning transmission message;

[0026] Step 2-4: According to the number of transmission services included in each scanning transmission message, and its corresponding average transmission time, average transmission interval and transmission arrangement coefficient, determine the corresponding transmission aggregation amount of each scanning transmission message.

[0027] Further, in Step 2, the equation corresponding to the transmission aggregation amount corresponding to the scan transmission message is determined to be:

[0028]

[0029] Here, b j is the transmission aggregation corresponding to the j-th scan transmission message, j is the sequence code defined by the scan transmission message, To use the Z-score method Execute standardization, T j is the number of transmission services contained in the j-th scan transmission message, e is the Euler number, ε j is the transmission arrangement coefficient corresponding to the j-th scan transmission message, U j is the average transmission time corresponding to the j-th scan transmission message, Δu j The average transmission interval corresponding to the j-th scan transmission message.

[0030] Furthermore, in Step 3, the retransmission services of the same type in the transmission message are scanned, and the retransmission services are the same as the continuously transmitted data and are the transmission services with transmission errors.

[0031] Furthermore, Step 3 specifically includes:

[0032] Step 3-1: According to the corresponding transmission time of each retransmission service in each retransmission service included in each scanning transmission message, the corresponding transmission cost coefficient of each retransmission service included in each scanning transmission message is determined;

[0033] Step 3-2: The total value of the transmission cost coefficients corresponding to all types of retransmission services contained in each scanning transmission message is determined as the transmission stability corresponding to each scanning transmission message.

[0034] Furthermore, Step 3-1 specifically includes:

[0035] Step 3-1-1: The average of the transmission times corresponding to all retransmission services in each type of retransmission service included in each scanning transmission message is determined as the average of the retransmission times corresponding to each type of retransmission service included in each scanning transmission message;

[0036] Step 3-1-2: The average of the transmission times corresponding to all transmission services included in each scanning transmission message is determined as the average of the transmission times corresponding to each scanning transmission message;

[0037] Step 3-1-3: According to the corresponding average retransmission time of each type of retransmission service included in each scanning transmission message and the corresponding average transmission time of each scanning transmission message, the corresponding transmission cost coefficient of each type of retransmission service included in each scanning transmission message is determined.

[0038] Further, in Step 3, it is determined that the corresponding equation for the transmission cost coefficient of the retransmission service included in the scan transmission message is:

[0039] θ jk =1-BZ(M jk *(BU jk -U j )); Here, θ jk is the transmission cost coefficient corresponding to the k-th type of retransmission service contained in the j-th scan transmission message, BZ(M jk *(BU jk -U j )) is to use the Z-score method to analyze M jk *(BU jk -U j ) performs standardization, M jk is the number of retransmission services in the kth type of retransmission service contained in the jth scan transmission message, BU jk is the average retransmission time corresponding to the k-th type of retransmission service contained in the j-th scan transmission message, U j The average transmission time corresponding to the j-th scan transmission message.

[0040] Furthermore, Step 4 specifically includes:

[0041] Step 4-1: According to the transmission concentration and transmission stability of each scanning transmission message, determine the starting weight corresponding to each scanning transmission message;

[0042] Step 4-2: Determine the transmission weight of each destination scan scanner according to the corresponding starting weight of the scan transmission message of each destination scan scanner in all pre-defined past time intervals.

[0043] Furthermore, in Step 4-1, the transmission aggregation amount corresponding to each scanning transmission message is multiplied by the transmission stability amount, and the obtained amount is determined as the starting weight corresponding to each scanning transmission message.

[0044] Furthermore, in Step 4-2, the average of the corresponding starting weights of the scan transmission messages of each destination tomography scanner in all pre-defined past time intervals is determined as the corresponding transmission weight of each destination tomography scanner.

[0045] Furthermore, in Step 5, all the destination tomography scanners are arranged in descending order according to their corresponding transmission weights, and the scan messages to be transmitted by the destination tomography scanners in the current time interval are transmitted to the client in sequence according to the arrangement order.

[0046] An information processing device for blood sample detection, comprising:

[0047] A plurality of tomography scanners are wirelessly connected to a client;

[0048] The information processing device for blood sample detection also includes:

[0049] A message module, which is used to obtain the scan transmission messages of each target chromatographic scanner in each pre-defined past time interval and the scan messages to be transmitted by each target chromatographic scanner in the current time interval;

[0050] An aggregation module, which is used to determine the transmission aggregation amount corresponding to each scanning transmission message according to the transmission time corresponding to each transmission service contained in each scanning transmission message, the time interval between adjacent transmission services and the number of transmission services;

[0051] A stabilization module, which is used to select various types of retransmission services from each scanning transmission message, and determine the transmission stabilization amount corresponding to each scanning transmission message according to the corresponding transmission time of each retransmission service in the same type of retransmission services contained in each scanning transmission message;

[0052] A recognition module, which is used to recognize the transmission weight corresponding to each target scan scanner according to the transmission concentration and transmission stability corresponding to the scan transmission message of each target scan scanner in all pre-defined past time intervals;

[0053] The transmission module is used to transmit the scanning message to be transmitted by each target tomography scanner in the current time interval according to the corresponding transmission weight of each target tomography scanner.

[0054] The beneficial effects of the present invention are that, compared with the prior art, the technical effects of the present invention include:

[0055] The transmission of scan messages to be transmitted through different target tomography scanners overcomes the defect of poor transmission function for scanning data and improves the performance of transmitting scanning data. Compared with the current different tomography scanners that define the same transmission weights, the present invention digitizes a number of parameters corresponding to the data transmission weights through the scan transmission messages within a pre-defined past time interval, such as the transmission aggregation amount and the transmission stability amount, so as to actively match and digitize the corresponding transmission weights of different target tomography scanners, thereby improving the subsequent transmission function for scanning data. When the corresponding transmission aggregation amount of the scan transmission message is higher, it often means that the scanning data transmitted by the target tomography scanner that scans the scan transmission message in the pre-defined past time interval is more concentrated, which often means that the target tomography scanner that scans the scan transmission message is used more frequently, which often means that the target tomography scanner that scans the scan transmission message is used more frequently in the present The more concentrated the scan data to be transmitted in a time interval, the less suitable it is to always use the main memory of the destination scanner of the scan transmission message. Therefore, a larger transmission weight should be defined for the destination scanner of the scan transmission message. When the corresponding transmission stability of the scan transmission message is higher, it means that the destination scanner of the scan transmission message has transmitted less erroneous data in the pre-defined past time intervals, which means that the performance of the destination scanner of the scan transmission message is better, which means that the destination scanner of the scan transmission message will have less erroneous data in the current time interval. Therefore, a larger transmission weight should be defined for the destination scanner of the scan transmission message. BRIEF DESCRIPTION OF THE DRAWINGS

[0056] Figure 1 It is a partial flow chart of the information processing method for blood sample detection described in the present invention;

[0057] Figure 2 It is a partial structural schematic diagram of the information processing device for blood sample detection in the present invention. DETAILED DESCRIPTION

[0058] In order to make the purpose, technical solution and advantages of the present invention clearer, the technical solution of the present invention will be clearly and completely expressed in combination with the drawings in the embodiments of the present invention. The embodiments expressed in this application are only some embodiments of the present invention, not all embodiments. According to the spirit of the present invention, other embodiments obtained by ordinary technicians in this field without creative work are all within the protection scope of the present invention.

[0059] like Figure 1 As shown, the information processing method for blood sample detection described in the present invention includes:

[0060] Drop the blood sample containing antibodies into the sample well of the test card, chromatograph for 15 minutes, and then use a chromatography scanner to scan the test card. The chromatography scanner transmits the scan data wirelessly to the client. The client calculates the antibody content in the blood sample based on the scan data and the preset antibody standard curve; the antibody is the small ruminant virus antibody, and the blood sample to be tested is the sheep serum to be tested.

[0061] The method for a tomographic scanner to wirelessly transmit scan data to a client comprises:

[0062] Step 1: Obtain the scan transmission messages of each target tomography scanner in each pre-defined past time interval and the scan messages to be transmitted by each target tomography scanner in the current time interval;

[0063] In a preferred but non-limiting embodiment of the present invention, in Step 1, the target tomography scanner is a tomography scanner used for scanning and transmitting scanning data; the pre-defined past time interval is a pre-defined past time period (time interval is a time period), and the end time point of the latest pre-defined past time interval corresponding to the time point in this application is the starting time point of the current time interval, the current time interval is the time interval for performing scanning data transmission, and the end time point of the current time interval is the current time point, and the scanning transmission message is a message related to the scanning data within the pre-defined past time interval.

[0064] In a preferred but non-limiting embodiment of the present invention, in Step 1, the scan transmission message includes: transmission service, transmission time corresponding to the transmission service, transmission start time point, transmission end time point and transmission main memory pointer. The transmission service is the scanning data of each secondary transmission, and the scanning message to be transmitted includes the scanning data to be transmitted in the current time interval.

[0065] In a preferred but non-limiting embodiment of the present invention, Step 1 specifically comprises:

[0066] Step 1-1: obtain the scanning transmission message of each target tomography scanner in each pre-defined past time interval, that is, identify any target tomography scanner as a marker tomography scanner, identify any pre-defined past time interval as a marker time interval, in the marker time interval, scan the detection card through the marker tomography scanner to obtain the scanning data, and transmit each scanning data obtained by scanning to the client through the wireless channel between the tomography scanner and the client. Because the scanning data needs to be transmitted to the client, the scanning data transmitted each time can be regarded as a transmission service; the time used for each transmission of the scanning data is regarded as the corresponding transmission time of the transmission service; the starting time point and the ending time point of each transmission of the scanning data are respectively regarded as the corresponding transmission starting time point and transmission ending time point of the transmission service; the main memory pointer of the main memory where each scanning data to be transmitted is located is regarded as the corresponding transmission main memory pointer of the transmission service, and the transmission service obtained through the marker tomography scanner in the marker time interval is combined with its corresponding transmission time, transmission starting time point, transmission ending time point and transmission main memory pointer to form a scanning transmission message;

[0067] Here, the client may be an industrial computer.

[0068] Under normal circumstances, scanning data often have transmission errors during transmission. For the scanning data with transmission errors, its source data often needs to be re-transmitted to ensure that the scanning data finally received is correct. Therefore, the scanning data with transmission errors is often repeatedly transmitted until it is transmitted correctly. Just as, during the period when each tomography scanner performs real-time scanning data transmission in the form of a message, a constant ratio code is added to the message to detect occasional errors in the scanning data during transmission. If the acquired scanning data is detected to be wrong based on the constant ratio code, the tomography scanner will be required to transmit the scanning data again. Therefore, the transmission business is often more than the scanning data. Just as, if the scanning data is erroneous in the first two transmissions and is not transmitted until the third time, it means that there can be three transmission businesses for the scanning data.

[0069] Step 1-2: Obtain the scanning message to be transmitted by each target tomography scanner in the current time interval, that is, identify any target tomography scanner as a marker tomography scanner, and obtain scanning data by scanning the detection card through the marker tomography scanner in the current time interval, and form the scanning data obtained by scanning through the marker tomography scanner in the current time interval into the scanning message to be transmitted.

[0070] Step 2: According to the transmission time corresponding to each transmission service contained in each scanning transmission message, the time interval between adjacent transmission services and the number of transmission services, the transmission aggregation amount corresponding to each scanning transmission message is determined;

[0071] When the corresponding transmission concentration of the scan transmission message is higher, it often means that the scan data transmitted by the target scan scanner of the scan transmission message in the pre-defined past time interval is more concentrated, it often means that the target scan scanner of the scan transmission message is used more frequently, it often means that the scan data to be transmitted by the target scan scanner of the scan transmission message in the current time interval is more concentrated, it often means that it is less appropriate to always use the main memory of the target scan scanner of the scan transmission message. Therefore, it is often necessary to define a large transmission weight for the target scan scanner of the scan transmission message.

[0072] In a preferred but non-limiting embodiment of the present invention, Step 2 specifically comprises:

[0073] Step 2-1: The average of the transmission times corresponding to all transmission services included in each scanning transmission message is determined as the average of the transmission times corresponding to each scanning transmission message;

[0074] Step 2-2: The average of the time intervals between all adjacent transmission services included in each scanning transmission message is determined as the average transmission interval corresponding to each scanning transmission message;

[0075] Step 2-3: The standard deviation of the transmission start time points of all transmission services included in each scanning transmission message is determined as the transmission arrangement coefficient of each scanning transmission message;

[0076] Step 2-4: According to the number of transmission services included in each scanning transmission message, and its corresponding average transmission time, average transmission interval and transmission arrangement coefficient, determine the corresponding transmission aggregation amount of each scanning transmission message.

[0077] Here, the average transmission time, the average transmission spacing and the transmission arrangement coefficient can be inversely proportional to the transmission aggregation amount, and the number of transmission services can be proportional to the transmission aggregation amount.

[0078] In a preferred but non-limiting embodiment of the present invention, in Step 2, the equation for determining the transmission aggregation amount corresponding to the scan transmission message is:

[0079]

[0080] Here, b j is the transmission aggregation corresponding to the j-th scan transmission message, j is the sequence code defined by the scan transmission message, To use the Z-score method Execute standardization, T j is the number of transmission services contained in the j-th scan transmission message, e is the Euler number, ε jis the transmission arrangement coefficient corresponding to the j-th scan transmission message, U j is the average transmission time corresponding to the j-th scan transmission message, Δu j The average transmission interval corresponding to the j-th scan transmission message.

[0081] In T j The higher the value, the larger the amount of scan data transmitted by the target tomography scanner of the j-th scan transmission message in the predefined past time interval. The higher the value, the more concentrated the scan data transmitted by the target tomography scanner of the j-th scan transmission message in the predefined past time interval. j The lower the value, the more consistent the scanning data transmitted by the target tomography scanner of the j-th scanning transmission message in the predefined past time interval, which means that the transmission response is more concentrated. j *Δu j The lower the value, the higher the efficiency of the target tomography scanner for scanning the j-th scan transmission message in transmitting the scan data in the predefined past time interval, and the more concentrated the transmission of the scan data in the predefined past time interval is. j The higher it is, it often means that the transmission response of the scan data of the destination machine for the j-th scan transmission message in the pre-defined past time interval is more concentrated, it often means that the destination machine for the j-th scan transmission message is used more frequently, it often means that it is less appropriate to always use the main memory of the destination machine for the j-th scan transmission message. At this time, it is often necessary to define a large transmission weight for the destination machine for the j-th scan transmission message.

[0082] Step 3: Select various types of retransmission services from each scanning transmission message, and determine the transmission stability corresponding to each scanning transmission message according to the corresponding transmission time of each retransmission service in the same type of retransmission services contained in each scanning transmission message;

[0083] In a preferred but non-limiting embodiment of the present invention, in Step 3, the retransmission service in the same type of retransmission service in the scan transmission message is the same as the data being continuously transmitted, and is a transmission service with transmission errors. Because data transmission errors often require retransmission, the same type of retransmission service can also be regarded as a continuous service with the same transmission main memory pointer, just as, if the scan data is transmitted incorrectly for the first two times and the transmission is completed for the third time, then the scan data is retransmitted, and the transmission service for transmitting the scan data is regarded as a retransmission service, and the transmission service representing the first transmission of the scan data, the transmission service representing the last transmission of the scan data, and the transmission service representing the last transmission of the scan data form the same type of retransmission service.

[0084] When the corresponding transmission stability of the scan transmission message is higher, it often means that the destination tomography scanner scanning the scan transmission message transmits erroneous data more often in the pre-defined past time interval, which often means that the performance of the destination tomography scanner scanning the scan transmission message is good, which often means that the destination tomography scanner scanning the scan transmission message transmits erroneous data more often in the current time interval. Therefore, it is often necessary to define a large transmission weight for the destination tomography scanner scanning the scan transmission message.

[0085] In a preferred but non-limiting embodiment of the present invention, Step 3 specifically includes:

[0086] Step 3-1: According to the corresponding transmission time of each retransmission service in each retransmission service included in each scanning transmission message, the corresponding transmission cost coefficient of each retransmission service included in each scanning transmission message is determined;

[0087] In a preferred but non-limiting embodiment of the present invention, Step 3-1 specifically includes:

[0088] Step 3-1-1: The average of the transmission times corresponding to all retransmission services in each type of retransmission service included in each scanning transmission message is determined as the average of the retransmission times corresponding to each type of retransmission service included in each scanning transmission message;

[0089] Step 3-1-2: The average of the transmission times corresponding to all transmission services included in each scanning transmission message is determined as the average of the transmission times corresponding to each scanning transmission message;

[0090] Step 3-1-3: According to the corresponding average retransmission time of each type of retransmission service included in each scanning transmission message and the corresponding average transmission time of each scanning transmission message, the corresponding transmission cost coefficient of each type of retransmission service included in each scanning transmission message is determined.

[0091] In a preferred but non-limiting embodiment of the present invention, in Step 3, the equation corresponding to the transmission cost coefficient corresponding to the retransmission service included in the scan transmission message is:

[0092] θ jk =1-BZ(M jk *(BU jk -U j )); Here, θ jk is the transmission cost coefficient corresponding to the k-th type of retransmission service contained in the j-th scanning transmission message, j is the sequence code of the scanning transmission message, k is the type sequence code of the retransmission service contained in the j-th scanning transmission message, BZ(M jk *(BU jk -U j)) is to use the Z-score method to analyze M jk *(BU jk -U j ) performs standardization, M jk is the number of retransmission services in the kth type of retransmission service contained in the jth scan transmission message, BU jk is the average retransmission time corresponding to the k-th type of retransmission service contained in the j-th scan transmission message, U j The average transmission time corresponding to the j-th scan transmission message.

[0093] BU jk is the average transmission time of the kth type of retransmission service included in the jth scan transmission message, U j is the average transmission time of all transmission services contained in the j-th scan transmission message, BU jk -U j is the average transmission time loss cost of the k-th retransmission service included in the j-th scan transmission message. The higher its value is, the higher the average transmission time of the k-th retransmission service is than the average transmission time of the overall transmission service. It also means that the destination tomography scanner scanning the j-th scan transmission message will incur less transmission time loss when a transmission error occurs. Therefore, M jk *(BU jk -U j ) is the total transmission time loss cost of the k-th retransmission service included in the j-th scan transmission message. The higher its value is, the less transmission time loss will be caused when a transmission error occurs to the destination layer scanning the j-th scan transmission message, which means that a smaller transmission weight should be defined for the destination layer scanning the j-th scan transmission message. Therefore, in θ jk The higher it is, the more it often means that a larger transmission weight must be defined for the destination tomography scanner that scans the j-th scan transmission message.

[0094] Step 3-2: The total value of the transmission cost coefficients corresponding to all types of retransmission services contained in each scanning transmission message is determined as the transmission stability corresponding to each scanning transmission message.

[0095] When the corresponding transmission stability of the scan transmission message is lower, it often means that the destination scanner of the scan transmission message will have more retransmission services when a transmission error occurs, resulting in a lot of transmission time loss, which often means that a smaller transmission weight should be defined for the destination scanner of the scan transmission message.

[0096] Step 4: Determine the transmission weight of each target scan according to the transmission concentration and transmission stability of each target scan in all pre-defined past time intervals;

[0097] In a preferred but non-limiting embodiment of the present invention, Step 4 specifically includes:

[0098] Step 4-1: According to the transmission concentration and transmission stability of each scanning transmission message, determine the starting weight corresponding to each scanning transmission message;

[0099] Here, both the transmission concentration and the transmission stability are proportional to the initial weight.

[0100] In a preferred but non-limiting embodiment of the present invention, in Step 4-1, the transmission aggregation amount corresponding to each scanning transmission message is multiplied by the transmission stability amount, and the amount obtained is determined as the starting weight corresponding to each scanning transmission message.

[0101] Step 4-2: Determine the transmission weight of each destination scan scanner according to the corresponding starting weight of the scan transmission message of each destination scan scanner in all pre-defined past time intervals.

[0102] Here, the starting weight is proportional to the transmission weight.

[0103] In a preferred but non-limiting embodiment of the present invention, in Step 4-2, the average of the corresponding starting weights of the scan transmission messages of each destination tomography scanner in all pre-defined past time intervals is determined as the corresponding transmission weight of each destination tomography scanner.

[0104] Step 5: According to the corresponding transmission weight of each destination tomography scanner, the scanning message to be transmitted by each destination tomography scanner in the current time interval is transmitted.

[0105] In a preferred but non-limiting embodiment of the present invention, in Step 5, all target tomography scanners are arranged in order from high to low according to their corresponding transmission weights, and the scanning messages to be transmitted by the target tomography scanners in the current time interval are transmitted to the client in sequence according to the arrangement order.

[0106] During transmission, the next scan data can often be transmitted only after the previous scan data has been transmitted. Therefore, when the transmission stability of the scan data of a layer of tomography scanner is not good, that is, when its corresponding transmission stability is not large, the required scan data transmission cost is often not small, which often causes channel congestion. Therefore, all tomography scanners are arranged in order from high to low according to the transmission weight. When transmitting the scan data scanned by each tomography scanner in the current time interval, the client can traverse each tomography scanner in order from high to low according to the weight, ensuring that the tomography scanner with a high weight is read first, so as to avoid the situation where the response time of some tomography scanners is not long, resulting in poor transmission performance of the global scan data.

[0107] like Figure 2 As shown, the information processing device for blood sample detection according to the present invention comprises:

[0108] A plurality of tomography scanners are wirelessly connected to a client;

[0109] A plurality of tomography scanners are wirelessly connected to a client;

[0110] The information processing device for blood sample detection also includes:

[0111] A message module, which is used to obtain the scan transmission messages of each target chromatographic scanner in each pre-defined past time interval and the scan messages to be transmitted by each target chromatographic scanner in the current time interval;

[0112] An aggregation module, which is used to determine the transmission aggregation amount corresponding to each scanning transmission message according to the transmission time corresponding to each transmission service contained in each scanning transmission message, the time interval between adjacent transmission services and the number of transmission services;

[0113] A stabilization module, which is used to select various types of retransmission services from each scanning transmission message, and determine the transmission stabilization amount corresponding to each scanning transmission message according to the corresponding transmission time of each retransmission service in the same type of retransmission services contained in each scanning transmission message;

[0114] A recognition module, which is used to recognize the transmission weight corresponding to each target scan scanner according to the transmission concentration and transmission stability corresponding to the scan transmission message of each target scan scanner in all pre-defined past time intervals;

[0115] The transmission module is used to transmit the scanning message to be transmitted by each target tomography scanner in the current time interval according to the corresponding transmission weight of each target tomography scanner.

[0116] The beneficial effects of the present invention are that, compared with the prior art, the technical effects of the present invention include:

[0117] The transmission of scan messages to be transmitted through different target tomography scanners overcomes the defect of poor transmission function for scanning data and improves the performance of transmitting scanning data. Compared with the current different tomography scanners that define the same transmission weights, the present invention digitizes a number of parameters corresponding to the data transmission weights through the scan transmission messages within a pre-defined past time interval, such as the transmission aggregation amount and the transmission stability amount, so as to actively match and digitize the corresponding transmission weights of different target tomography scanners, thereby improving the subsequent transmission function for scanning data. When the corresponding transmission aggregation amount of the scan transmission message is higher, it often means that the scanning data transmitted by the target tomography scanner that scans the scan transmission message in the pre-defined past time interval is more concentrated, which often means that the target tomography scanner that scans the scan transmission message is used more frequently, which often means that the target tomography scanner that scans the scan transmission message is used more frequently in the present The more concentrated the scan data to be transmitted in a time interval, the less suitable it is to always use the main memory of the destination scanner of the scan transmission message. Therefore, a larger transmission weight should be defined for the destination scanner of the scan transmission message. When the corresponding transmission stability of the scan transmission message is higher, it means that the destination scanner of the scan transmission message has transmitted less erroneous data in the pre-defined past time intervals, which means that the performance of the destination scanner of the scan transmission message is better, which means that the destination scanner of the scan transmission message will have less erroneous data in the current time interval. Therefore, a larger transmission weight should be defined for the destination scanner of the scan transmission message.

[0118] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention rather than to limit it. Although the present invention has been described in detail with reference to the above embodiments, ordinary technicians in the relevant field should understand that the specific implementation methods of the present invention can still be modified or replaced by equivalents, and any modifications or equivalent replacements that do not deviate from the spirit and scope of the present invention should be covered within the protection scope of the claims of the present invention.

Claims

1. An information processing method for blood sample detection, characterized in that: include: Drop the blood sample containing the antibody into the sample well of the test card, and then use the chromatographic scanner to scan the test card. The chromatographic scanner transmits the scan data wirelessly to the client, and the client calculates the antibody content in the blood sample based on the scan data and the preset antibody standard curve; The method for a tomographic scanner to wirelessly transmit scan data to a client comprises: Step 1: Obtain the scan transmission messages of each target tomography scanner in each pre-defined past time interval and the scan messages to be transmitted by each target tomography scanner in the current time interval; Step 2: According to the transmission time corresponding to each transmission service contained in each scanning transmission message, the time interval between adjacent transmission services and the number of transmission services, the transmission aggregation amount corresponding to each scanning transmission message is determined; Step 3: Select various types of retransmission services from each scanning transmission message, and determine the transmission stability corresponding to each scanning transmission message according to the corresponding transmission time of each retransmission service in the same type of retransmission services contained in each scanning transmission message; Step 4: Determine the transmission weight of each target scan according to the transmission concentration and transmission stability of each target scan in all pre-defined past time intervals; Step 5: According to the corresponding transmission weight of each destination tomography scanner, the scanning message to be transmitted by each destination tomography scanner in the current time interval is transmitted.

2. The information processing method for blood sample detection according to claim 1, characterized in that: In Step 1, the target tomography scanner is a tomography scanner used for scanning and transmitting scan data; the current time interval is the time interval for performing scan data transmission, and the end time point of the current time interval is the current time point; the scan transmission message is a message related to the scan data within a predefined past time interval; In Step 1, the scan transmission message includes: transmission service, transmission time corresponding to the transmission service, transmission start time point, transmission end time point and transmission main memory pointer. The transmission service is the scanning data of each secondary transmission. The scanning message to be transmitted includes the scanning data to be transmitted in the current time interval.

3. The information processing method for blood sample detection according to claim 2, characterized in that: Step 1 specifically includes: Step 1-1: Obtain the scanning transmission message of each target tomography scanner in each pre-defined past time interval, that is, identify any target tomography scanner as a marker tomography scanner, identify any pre-defined past time interval as a marker time interval, and obtain scanning data by scanning the detection card through the marker tomography scanner in the marker time interval, and transmit each scanning data obtained by scanning to the client through the wireless channel, and form a scanning transmission message by combining the transmission service obtained by the marker tomography scanner in the marker time interval with its corresponding transmission time, transmission start time point, transmission end time point and transmission main memory pointer; Step 1-2: Obtain the scanning message to be transmitted by each target tomography scanner in the current time interval, that is, identify any target tomography scanner as a marker tomography scanner, and obtain scanning data by scanning the detection card through the marker tomography scanner in the current time interval, and form the scanning data obtained by scanning through the marker tomography scanner in the current time interval into the scanning message to be transmitted.

4. The information processing method for blood sample detection according to claim 3, characterized in that: Step 2 specifically includes: Step 2-1: The average of the transmission times corresponding to all transmission services included in each scanning transmission message is determined as the average of the transmission times corresponding to each scanning transmission message; Step 2-2: The average of the time intervals between all adjacent transmission services included in each scanning transmission message is determined as the average transmission interval corresponding to each scanning transmission message; Step 2-3: The standard deviation of the transmission start time points of all transmission services included in each scanning transmission message is determined as the transmission arrangement coefficient of each scanning transmission message; Step 2-4: According to the number of transmission services included in each scanning transmission message, and its corresponding average transmission time, average transmission interval and transmission arrangement coefficient, determine the corresponding transmission aggregation amount of each scanning transmission message.

5. The information processing method for blood sample detection according to claim 4, characterized in that: In Step 2, the equation corresponding to the transmission aggregation amount corresponding to the scan transmission message is: Here, b j is the transmission aggregation corresponding to the j-th scan transmission message, j is the sequence code defined by the scan transmission message, To use the Z-score method Execute standardization, T j is the number of transmission services contained in the j-th scan transmission message, e is the Euler number, ε j is the transmission arrangement coefficient corresponding to the j-th scan transmission message, U j is the average transmission time corresponding to the j-th scan transmission message, Δu j The average transmission interval corresponding to the j-th scan transmission message.

6. The information processing method for blood sample detection according to claim 5, characterized in that: In step 3, the retransmission services of the same type in the transmission message are scanned, and the retransmission services are the same as the continuously transmitted data and are the transmission services with transmission errors; Step 3 specifically includes: Step 3-1: According to the corresponding transmission time of each retransmission service in each retransmission service included in each scanning transmission message, the corresponding transmission cost coefficient of each retransmission service included in each scanning transmission message is determined; Step 3-2: The total value of the transmission cost coefficients corresponding to all types of retransmission services included in each scanning transmission message is determined as the transmission stability corresponding to each scanning transmission message; Step 3-1 specifically includes: Step 3-1-1: The average of the transmission times corresponding to all retransmission services in each type of retransmission service included in each scanning transmission message is determined as the average of the retransmission times corresponding to each type of retransmission service included in each scanning transmission message; Step 3-1-2: The average of the transmission times corresponding to all transmission services included in each scanning transmission message is determined as the average of the transmission times corresponding to each scanning transmission message; Step 3-1-3: According to the corresponding average retransmission time of each type of retransmission service included in each scanning transmission message and the corresponding average transmission time of each scanning transmission message, the corresponding transmission cost coefficient of each type of retransmission service included in each scanning transmission message is determined.

7. The information processing method for blood sample detection according to claim 6, characterized in that: In Step 3, the corresponding equation for the transmission cost coefficient of the retransmission service included in the scan transmission message is: θ jk =1-BZ(M jk *(BU jk -U j )); Here, θ jk is the transmission cost coefficient corresponding to the k-th type of retransmission service contained in the j-th scan transmission message, BZ(M jk *(BU jk -U j )) is to use the Z-score method to analyze M jk *(BU jk -U j ) performs standardization, M jk is the number of retransmission services in the kth type of retransmission service included in the jth scan transmission message, BU jk is the average retransmission time corresponding to the k-th type of retransmission service contained in the j-th scan transmission message, U j The average transmission time corresponding to the j-th scan transmission message.

8. The information processing method for blood sample detection according to claim 7, characterized in that: Step 4 specifically includes: Step 4-1: According to the transmission concentration and transmission stability of each scanning transmission message, determine the starting weight corresponding to each scanning transmission message; Step 4-2: Determine the transmission weight of each destination scan scanner according to the corresponding starting weight of the scan transmission message of each destination scan scanner in all pre-defined past time intervals; In Step 4-1, the transmission aggregation amount corresponding to each scanning transmission message is multiplied by the transmission stability amount, and the amount is determined as the starting weight corresponding to each scanning transmission message; In Step 4-2, the average of the starting weights corresponding to the scan transmission messages of each destination scan scanner in all pre-defined past time intervals is determined as the transmission weight corresponding to each destination scan scanner.

9. The information processing method for blood sample detection according to claim 8, characterized in that: In step 5, all the destination scans are arranged in descending order according to their corresponding transmission weights, and the scan messages to be transmitted by the destination scans in the current time interval are transmitted to the client in sequence according to the arrangement order.

10. An information processing device for blood sample detection, characterized in that: include: A plurality of tomography scanners are wirelessly connected to a client; The information processing device for blood sample detection also includes: A message module, which is used to obtain the scan transmission messages of each target chromatographic scanner in each pre-defined past time interval and the scan messages to be transmitted by each target chromatographic scanner in the current time interval; An aggregation module, which is used to determine the transmission aggregation amount corresponding to each scanning transmission message according to the transmission time corresponding to each transmission service contained in each scanning transmission message, the time interval between adjacent transmission services and the number of transmission services; A stabilization module, which is used to select various types of retransmission services from each scanning transmission message, and determine the transmission stabilization amount corresponding to each scanning transmission message according to the corresponding transmission time of each retransmission service in the same type of retransmission services contained in each scanning transmission message; A recognition module, which is used to recognize the transmission weight corresponding to each target scan scanner according to the transmission concentration and transmission stability corresponding to the scan transmission message of each target scan scanner in all pre-defined past time intervals; The transmission module is used to transmit the scanning message to be transmitted by each target tomography scanner in the current time interval according to the corresponding transmission weight of each target tomography scanner.

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