Medical information interaction platform system

Abstract

The invention relates to the technical field of information processing, and discloses a medical information interaction platform system which is composed of a patient bracelet management module, a bed management module, a medicine management module, an information reading module, a hospital server module and a fault detection and elimination module.

Description

Technical Field

[0001] The present invention relates to the field of information processing technology, and in particular to a medical information interaction platform system. Background Art

[0002] As people's quality of life and health needs gradually improve, people's requirements for medical services are getting higher and higher, the medical model is constantly changing, and the medical and health industry is also developing continuously. It is urgent to help people relieve the intensity of diagnosis, treatment and nursing work through information technology and high-tech products. Under high-intensity working conditions, work pressure is bound to increase. In addition, relying entirely on traditional manual verification methods to ensure medical safety has already had loopholes. For example, when performing treatment operations such as infusion on hospitalized patients, doctors or nurses first need to manually check the personal information, bed information and drug information of hospitalized patients. Only when the verification is correct will the hospitalized patients be treated. Due to the slow speed of manual information verification and the large error rate, the current treatment operation has the problem of low efficiency and accuracy.

[0003] The prior art publication number is CN 106055876 A, which is a medical information interaction system, including a wristband, a bed, a medicine, an information reading device and a hospital server. The information reading device is used to read the identification information set on the wristband, the bed and the medicine respectively; the hospital server is used to determine whether the identification information on the wristband, the bed and the medicine matches according to the identification information received on the wristband, the bed and the medicine, and if it matches, a signal of successful matching is sent to the information reading device. The present invention sets identification information on the wristband, the bed and the medicine issued to each inpatient, and determines whether the treatment operation is correct based on the correlation between the identification information of the three, thereby avoiding the use of manual information verification, thereby improving the efficiency and correctness of the treatment operation. In addition, the medical information interaction system of the present invention also displays various information on the display device next to the bed, and displays the operation notification on multiple display screens.

[0004] However, although the system is designed to reduce errors, reading errors or mismatches may still occur. If the identification information of a bracelet, bed or medicine is incorrectly read or recognized, it will lead to incorrect judgments. The complexity of the system makes troubleshooting and maintenance difficult. Once a problem occurs, it can only be repaired with the intervention of professional technicians. Summary of the invention

[0005] Technical issues solved: In view of the deficiencies in the prior art, the present invention provides a medical information interaction platform system, which has the advantages of being able to detect erroneous identification information during interaction and simple troubleshooting, thereby solving the above-mentioned technical problems.

[0006] Technical solution: To achieve the above-mentioned purpose, the present invention provides the following technical solutions: a medical information interaction platform system, the system is composed of a patient wristband management module, a bed management module, a drug management module, an information reading module, a hospital server module and a fault detection and troubleshooting module; The patient wristband management module is used to manage the identification information of the patient wristband, including the generation, storage and update of QR codes, barcodes and RFID tags, and interact with the information reading device module to provide reading and verification of wristband identification information; The bed management module is used to manage the identification information of the beds, ensure that each bed is correctly associated with the corresponding patient wristband, interact with the information reading device module and the hospital server module, and update the bed status and patient allocation information; The drug management module is used to manage the identification information of drugs, including drug name, dosage, and usage method, and interacts with the information reading device module and the hospital server module; The information reading module is used to read various identification information on wristbands, beds and medicines, and perform preliminary verification and error detection, interact with the patient wristband management module, bed management module, medicine management module and hospital server module, and transmit the read identification information; The hospital server module is used to process and store the identification information received from the information reading device module, perform matching verification, and manage the data of the entire system, interact with the information reading device module, the display device module and the fault detection and troubleshooting module, and provide data processing and error handling services; The fault detection and troubleshooting module is used to monitor the system operation status, automatically detect errors and faults, and provide troubleshooting guidance or support remote diagnosis, interact with the hospital server module and the information reading device module, and obtain system status and error information.

[0007] Preferably, the QR code generation calculation in the patient wristband management module is: let the content of the QR code be the string , through the function Generate a QR code: .

[0008] Preferably, the RFID tag generation calculation in the patient wristband management module is: Let the content of the RFID tag be a string , through a function Generate RFID tags:

[0009] Assume that the identification information of the patient's wristband is a QR code , barcode and RFID tags A set of I defines a comprehensive management function M(I) to manage the generation, storage and update of this information: .

[0010] Preferably, the association between the bed and the patient's wristband in the bed management module is calculated as follows: Assume that each bed has a unique identifier Each patient's wristband also has a unique identifier ; The association between the bed and the patient's wristband is represented as a mapping relationship , where B is the set of all beds, It is a collection of all patient bracelets

[0011] Indicates bed With patient wristband are associated.

[0012] Preferably, the bed status update calculation of the bed management module is: Bed status collection To represent, each element Representative bed The states include occupied, idle, and repaired. When the bed status changes, the corresponding elements Also updates:

[0013]

[0014] The update calculation of the patient allocation information in the bed management module is: Patient allocation information using mapping relationships To indicate that is the set of all patients. When a new patient is assigned to a bed, this mapping relationship will be updated:

[0015] Indicates bed Now assigned to the patient .

[0016] Preferably, the drug identification information in the drug management module is calculated as: Assume that each drug has a unique identifier , the drug identification information includes the drug name ,dose and how to use it , represented as a tuple :

[0017] The management of drug information is represented as a collection , where each element Represents the identification information of a drug: .

[0018] Preferably, the information reading module reads three types of identification information: patient wristband W, bed B and medicine D. The reading process is represented by a function R(T), where T is the type of identification information: .

[0019] Preferably, the receiving calculation of the hospital server module identification information is: Assume that the identification information received by the hospital server module is represented as a set P, where each element Represents an identification message: .

[0020] Preferably, the system status monitoring in the fault detection and elimination module is: Let the system state be represented as a vector , where each si represents a state parameter of a system; Errors and failures detected are: The fault detection module needs to detect the system state vector The outlier value in the fault detection function is , which returns a Boolean value indicating whether a failure was detected: .

[0021] Preferably, the interaction between the hospital server module and the information reading module in the fault detection and elimination module is represented as follows: The fault detection and troubleshooting module needs to obtain system status and error information from the hospital server module and the information reading device module. Assume that the function for obtaining the status is G(), which returns the system status S; ; The core steps of the fault detection and troubleshooting module are: S1, through the function Get the system state vector ; S2, through the function Check whether the system has any malfunction; S3, if a fault is detected, through the function Provides troubleshooting guidance.

[0022] Compared with the prior art, the present invention provides a medical information interaction platform system, which has the following beneficial effects: 1. The present invention uses an information reading module to read various identification information on patient bracelets, beds and medicines, such as QR codes, bar codes and RFID tags, and performs preliminary verification and error detection on this information. Through preliminary verification, the system can find erroneous identification information in the early stages of information interaction to prevent erroneous information from entering the subsequent processing flow. The hospital server module is responsible for processing and storing the identification information received from the information reading module, and performing matching verification and error handling. Through matching verification, the system can further confirm the correctness of the identification information to prevent erroneous information from affecting the normal operation of the system. The error handling mechanism ensures that erroneous information can be discovered and corrected in a timely manner; the fault detection and troubleshooting module is responsible for monitoring the system operation status, automatically detecting errors and faults, and providing troubleshooting guidance, achieving the beneficial effect that the system can find erroneous identification information while interacting.

[0023] 2. The present invention uses a fault detection and troubleshooting module to monitor the system operating status in real time, automatically detect errors and faults, and ensure that faults can be discovered in the first time, providing a basis for subsequent troubleshooting. The fault detection and troubleshooting module determines whether the system has a fault by detecting abnormal values ​​in the system state vector. No human intervention is required, which greatly simplifies the complexity of fault detection. The information reading module transmits the read identification information to the hospital server module, and the hospital server module then transmits this information to the fault detection and troubleshooting module. The flow of information ensures a smooth and efficient fault detection and troubleshooting process, achieving the beneficial effect of simple troubleshooting. BRIEF DESCRIPTION OF THE DRAWINGS

[0024] Figure 1 It is a schematic diagram of the system of the present invention; DETAILED DESCRIPTION

[0025] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0026] See also Figure 1 , a medical information interaction platform system, the system consists of a patient wristband management module, a bed management module, a drug management module, an information reading module, a hospital server module and a fault detection and troubleshooting module; The patient wristband management module is used to manage the identification information of the patient wristband, including the generation, storage and update of QR codes, barcodes and RFID tags, and interact with the information reading device module to provide reading and verification of wristband identification information; The bed management module is used to manage the identification information of the beds, ensure that each bed is correctly associated with the corresponding patient wristband, interact with the information reading device module and the hospital server module, and update the bed status and patient allocation information; The drug management module is used to manage the identification information of drugs, including drug name, dosage, and usage method, and interacts with the information reading device module and the hospital server module; The information reading module is used to read various identification information on wristbands, beds and medicines, and perform preliminary verification and error detection, interact with the patient wristband management module, bed management module, medicine management module and hospital server module, and transmit the read identification information; The hospital server module is used to process and store the identification information received from the information reading device module, perform matching verification, and manage the data of the entire system, interact with the information reading device module, the display device module and the fault detection and troubleshooting module, and provide data processing and error handling services; The fault detection and troubleshooting module is used to monitor the system operation status, automatically detect errors and faults, and provide troubleshooting guidance or support remote diagnosis, interact with the hospital server module and the information reading device module, and obtain system status and error information.

[0027] The fault detection and troubleshooting module is responsible for real-time monitoring of the system operation status and automatic detection of errors and faults. This function ensures that faults can be discovered in the first place, providing a basis for subsequent troubleshooting.

[0028] The fault detection and elimination module determines whether the system has a fault by detecting abnormal values ​​in the system state vector. The whole process is automated and does not require human intervention, which greatly simplifies the complexity of fault detection.

[0029] If the fault detection and troubleshooting module detects a fault, it will provide specific troubleshooting guidance, which is text instructions, operating steps or graphical interfaces to help users quickly locate and solve the problem, thereby simplifying the troubleshooting process.

[0030] The fault detection and troubleshooting module also supports remote diagnosis function, which means that technical experts can remotely access the system through the network to obtain detailed system status and error information, and perform more advanced fault diagnosis and troubleshooting, which not only reduces the workload of on-site technicians but also improves the efficiency of troubleshooting.

[0031] The collaboration between modules is also an important factor in achieving simple troubleshooting. For example, the information reading module transmits the identification information it reads to the hospital server module, and the hospital server module then transmits this information to the fault detection and troubleshooting module. This information flow ensures the smoothness and efficiency of the fault detection and troubleshooting process.

[0032] Preferably, the QR code generation calculation in the patient wristband management module is: let the content of the QR code be the string , through the function Generate a QR code: .

[0033] Preferably, the RFID tag generation calculation in the patient wristband management module is: Let the content of the RFID tag be a string , through a function Generate RFID tags:

[0034] Assume that the identification information of the patient's wristband is a QR code , barcode and RFID tags A set of I defines a comprehensive management function M(I) to manage the generation, storage and update of this information: .

[0035] Preferably, the association between the bed and the patient's wristband in the bed management module is calculated as follows: Assume that each bed has a unique identifier Each patient's wristband also has a unique identifier ; The association between the bed and the patient's wristband is represented as a mapping relationship , where B is the set of all beds, It is a collection of all patient bracelets

[0036] Indicates bed With patient wristband are associated.

[0037] Preferably, the bed status update calculation of the bed management module is: Bed status collection To represent, each element Representative bed The states include occupied, idle, and repaired. When the bed status changes, the corresponding elements Also updates:

[0038]

[0039] The update calculation of the patient allocation information in the bed management module is: Patient allocation information using mapping relationships To indicate that is the set of all patients. When a new patient is assigned to a bed, this mapping relationship will be updated:

[0040] Indicates bed Now assigned to the patient .

[0041] Preferably, the drug identification information in the drug management module is calculated as: Assume that each drug has a unique identifier , the drug identification information includes the drug name ,dose and how to use it , represented as a tuple :

[0042] The management of drug information is represented as a collection , where each element Represents the identification information of a drug: .

[0043] Preferably, the information reading module reads three types of identification information: patient wristband W, bed B and medicine D. The reading process is represented by a function R(T), where T is the type of identification information: .

[0044] Preferably, the receiving calculation of the hospital server module identification information is: Assume that the identification information received by the hospital server module is represented as a set P, where each element Represents an identification message: .

[0045] Preferably, the system status monitoring in the fault detection and elimination module is: Let the system state be represented as a vector , where each si represents a state parameter of a system; Errors and failures detected are: The fault detection module needs to detect the system state vector The outlier value in the fault detection function is , which returns a Boolean value indicating whether a failure was detected: .

[0046] Preferably, the interaction between the hospital server module and the information reading module in the fault detection and elimination module is represented as follows: The fault detection and troubleshooting module needs to obtain system status and error information from the hospital server module and the information reading device module. Assume that the function for obtaining the status is G(), which returns the system status S; ; The core steps of the fault detection and troubleshooting module are: S1, through the function Get the system state vector ; S2, through the function Check whether the system has any malfunction; S3, if a fault is detected, through the function Provides troubleshooting guidance.

[0047] The information reading module is responsible for reading various identification information on patient wristbands, beds and medicines, such as QR codes, barcodes and RFID tags, and performing preliminary verification and error detection on these information. Through preliminary verification, the system can find incorrect identification information in the early stage of information interaction and prevent the incorrect information from entering the subsequent processing flow.

[0048] The hospital server module is responsible for processing and storing the identification information received from the information reading module, and performing matching verification and error handling. Through matching verification, the system can further confirm the correctness of the identification information to prevent erroneous information from affecting the normal operation of the system. The error handling mechanism ensures that erroneous information can be discovered and corrected in a timely manner.

[0049] The fault detection and troubleshooting module is responsible for monitoring the system operation status, automatically detecting errors and faults, and providing troubleshooting guidance. By monitoring the system status in real time, the module can promptly detect errors and faults in operation. Troubleshooting guidance ensures that errors can be quickly fixed to avoid affecting the normal interaction of the system.

[0050] The modules interact with each other to realize information transmission and error detection. The information reading module interacts with the patient bracelet management module, bed management module, drug management module and hospital server module to transmit the read identification information. The hospital server module interacts with the fault detection and troubleshooting module to obtain system status and error information. The fault detection and troubleshooting module interacts with the hospital server module and the information reading module to obtain system status and error information.

[0051] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and alterations may be made to the embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A medical information interaction platform system, characterized in that: The system consists of a patient wristband management module, a bed management module, a drug management module, an information reading module, a hospital server module, and a fault detection and troubleshooting module; The patient wristband management module is used to manage the identification information of the patient wristband, including the generation, storage and update of QR codes, barcodes and RFID tags, and interact with the information reading device module to provide reading and verification of wristband identification information; The bed management module is used to manage the identification information of the beds, ensure that each bed is correctly associated with the corresponding patient wristband, interact with the information reading device module and the hospital server module, and update the bed status and patient allocation information; The drug management module is used to manage the identification information of drugs, including drug name, dosage, and usage method, and interacts with the information reading device module and the hospital server module; The information reading module is used to read various identification information on wristbands, beds and medicines, and perform preliminary verification and error detection, interact with the patient wristband management module, bed management module, medicine management module and hospital server module, and transmit the read identification information; The hospital server module is used to process and store the identification information received from the information reading device module, perform matching verification, and manage the data of the entire system, interact with the information reading device module, the display device module and the fault detection and troubleshooting module, and provide data processing and error handling services; The fault detection and troubleshooting module is used to monitor the system operation status, automatically detect errors and faults, and provide troubleshooting guidance or support remote diagnosis, interact with the hospital server module and the information reading device module, and obtain system status and error information.

2. A medical information interaction platform system according to claim 1, characterized in that: The calculation for generating the QR code in the patient wristband management module is: Let the content of the QR code be a string , through the function Generate a QR code: .

3. A medical information interaction platform system according to claim 1, characterized in that: The RFID tag generation calculation in the patient wristband management module is: Let the content of the RFID tag be a string , through a function Generate RFID tags: ； Assume that the identification information of the patient's wristband is a QR code , barcode and RFID tags A set of I defines a comprehensive management function M(I) to manage the generation, storage and update of this information: 。 4. A medical information interaction platform system according to claim 1, characterized in that: The association between the bed and the patient's wristband in the bed management module is calculated as: Assume that each bed has a unique identifier Each patient's wristband also has a unique identifier ; The association between the bed and the patient's wristband is represented as a mapping relationship , where B is the set of all beds, It is a collection of all patient bracelets Indicates bed With patient wristband are associated.

5. A medical information interaction platform system according to claim 1, characterized in that: The update calculation of the bed status of the bed management module is: Bed status collection To represent, each element Representative bed The states include occupied, idle, and repaired. When the bed status changes, the corresponding elements Also updates: The update calculation of the patient allocation information in the bed management module is: Patient allocation information using mapping relationships To indicate that is the set of all patients. When a new patient is assigned to a bed, this mapping relationship will be updated: Indicates bed Now assigned to the patient .

6. A medical information interaction platform system according to claim 1, characterized in that: The drug identification information in the drug management module is calculated as: Assume that each drug has a unique identifier , the drug identification information includes the drug name ,dose and how to use it , represented as a tuple : The management of drug information is represented as a collection , where each element Represents the identification information of a drug: .

7. A medical information interaction platform system according to claim 1, characterized in that: The information reading module reads three types of identification information: patient wristband W, bed B and medicine D. The reading process is represented by a function R(T), where T is the type of identification information: .

8. A medical information interaction platform system according to claim 1, characterized in that: The receiving calculation of the hospital server module identification information is: Assume that the identification information received by the hospital server module is represented as a set P, where each element Represents an identification message: .

9. A medical information interaction platform system according to claim 1, characterized in that: The system status monitoring in the fault detection and elimination module is: Let the system state be represented as a vector , where each si represents a state parameter of a system; Errors and failures detected are: The fault detection module needs to detect the system state vector The outlier value in the fault detection function is , which returns a Boolean value indicating whether a failure was detected: .

10. A medical information interaction platform system according to claim 1, characterized in that: The interaction between the hospital server module and the information reading module in the fault detection and elimination module is represented as follows: The fault detection and troubleshooting module needs to obtain system status and error information from the hospital server module and the information reading device module. Assume that the function for obtaining the status is G(), which returns the system status S; ； The core steps of the fault detection and troubleshooting module are: S1, through the function Get the system state vector ; S2, through the function Check whether the system has any malfunction; S3, if a fault is detected, through the function Provides troubleshooting guidance.

Images