An emergency pre-examination and triage system

Abstract

The present invention provides an emergency pre-examination and triage system, and relates to the technical field of emergency comprehensive triage systems. The emergency pre-examination and triage system includes an on-site video recording module, which transmits the patient's real-time condition to the hospital through the on-site video recording module after the patient makes a call and the medical staff arrive at the scene, and a transmission module, which collects the content collected by the on-site video recording module, re-encodes it, and then sends it. After the ambulance arrives at the designated location, the medical staff first gives first aid to the patient, and then a medical staff opens the on-site video recording module to shoot it, and establishes real-time transmission through the transmission module, and transmits the on-site situation to the position of the patient's condition recording port. At the same time, the treating physician makes a preliminary observation through the video. After arriving at the emergency center, if the patient's injury condition is level one, he or she directly enters the emergency room for first aid.

Description

Technical Field

[0001] The invention relates to the technical field of emergency comprehensive triage systems, in particular to an emergency pre-examination triage system. Background Art

[0002] Emergency refers to the emergency department of a hospital, which means treatment in emergency situations. It is divided into emergency treatment and rescue. Its existence ensures that we can get professional and scientific treatment in the shortest time when we have sudden illness or accidental injury.

[0003] The existing emergency pre-examination and triage system generally requires waiting for medical staff to arrive at the emergency center before gradually starting to use the system through various functions of the system. However, time is very precious in emergency situations. Emergency physicians also need to understand the patient's medical history and clinical condition before performing rescue. If they wait until the patient arrives at the hospital before observing him, a large part of the rescue time may be wasted, resulting in untimely rescue. Summary of the invention

[0004] The purpose of the invention provided by the present invention is to provide an emergency pre-examination and triage system to solve the problems in the above-mentioned background technology.

[0005] To achieve the above objectives, the present invention is implemented through the following technical solutions: an emergency pre-examination and triage system, including a patient condition entry port, the patient condition entry port is wirelessly connected to a transmission module through a local area network, the transmission module is signal-connected to an on-site video entry module through a wire, the patient condition entry port is signal-connected to an emergency center telephone terminal through a wire, the patient condition entry port is electrically connected to an alarm module through a wire, the patient condition entry port is electrically connected to an injury and illness priority grading module through a local area network, the injury and illness priority grading module is electrically connected to the alarm module through a wire, the injury and illness priority grading module is wirelessly connected to a patient case data center through a local area network, the patient case data center is electrically connected to an emergency information module through a wire, the injury and illness priority grading module is electrically connected to an outpatient center and a waiting area through a wire, and the outpatient center is wirelessly connected to a medicine collection area through a local area network.

[0006] On-site video recording module, when the patient makes a call and the medical staff arrives at the scene, the on-site video recording module transmits the patient's real-time situation to the hospital;

[0007] The transmission module collects the content collected by the on-site video recording module, re-encodes it, and then sends it;

[0008] A patient condition input port, which can receive the content transmitted by the transmission module and can also input patient data that is not very urgent;

[0009] An injury and illness priority classification module, which can classify the conditions of the injured and then notify the operating room or outpatient department to rescue or treat the patient;

[0010] An alarm module, which will sound an alarm when encountering two situations: one is when a first-level patient or a second-level patient enters the emergency center, the alarm module will sound an alarm to prepare the emergency room to avoid wasting the golden six minutes;

[0011] Information module, the emergency information module displays the patient information on the screen and prints it. After printing, the medical staff sends the printed medical records to the attending physician;

[0012] Patient case data center, which stores the patient's previous medical records. When the patient's case is extracted, the data is transferred to the emergency information module and displayed through the emergency information module;

[0013] Outpatient centers will receive patients with level 3 or 4 diseases, and doctors in the outpatient centers will diagnose them. If the level 3 disease is found to be serious by doctors, they need to be sent to the operating room for surgery.

[0014] The emergency center telephone terminal will notify the patient's condition to the patient's condition input port, so that the medical staff of the emergency center can be prepared and can directly rescue the patient after the patient arrives, avoiding wasting rescue time;

[0015] The waiting area can accommodate level 4 patients. Level 4 patients can wait directly in the waiting area during the medical consultation process, wait for notification from the diagnostic physician in the outpatient center, and then undergo examination.

[0016] The above technical solution is adopted: first, after the patient dials 120, if the situation is too urgent, a connection is established between the emergency center telephone terminal and the patient's condition input port, so that the emergency center can make certain preparations. When the ambulance arrives at the designated location, the medical staff first gives first aid to the patient, and then a medical staff opens the on-site video input module to shoot it, and establishes real-time transmission through the transmission module to transmit the on-site situation to the location of the patient's condition input port. At the same time, the treating physician conducts a preliminary observation through the video. After arriving at the emergency center, if the patient's injury or illness is level one, he or she will directly enter the emergency room for first aid. High fever accompanied by convulsions, deep coma; convulsions, acute respiratory distress; respiratory arrest or frequency, cardiac arrest; severe arrhythmia; shock, severe abdominal distension are all level one rescue states, and after entering the hospital, he or she will directly enter the emergency room for treatment.

[0017] Furthermore, the transmission module includes a network receiver, a GCC, a bit rate distributor, a sending module, and a video encoder.

[0018] Furthermore, the network receiver is responsible for accessing the network, and sending the real-time images of the scene to the patient's condition entry port through the network, so that the treating physician can have a preliminary understanding of the patient's condition. The GCC is a congestion control algorithm based on delay estimation and packet loss. The algorithm is divided into two parts: performing Kalman algorithm estimation at the receiving end and returning to the sending end for bit rate adjustment. The two algorithms can solve network congestion to a certain extent, thereby reducing the probability of network packet loss and making the image transmission more stable. The bit rate distributor will reallocate the bit rate of the video, and then import the divided bit rate into the video encoder. After receiving the data from the bit rate distributor, the video encoder re-encodes the video. The sending module, after the video encoder re-encodes the video, imports the data into the sending module, and sends the video to the patient's condition entry port through the sending module;

[0019] The network receiver is wirelessly connected to the GCC via a local area network, the GCC is wirelessly connected to the sending module via a local area network, the bit rate distributor is wirelessly connected to the video encoder via a wire, and the bit rate distributor is electrically connected to the sending module via a wire.

[0020] The above technical solution is adopted: the network receiver is responsible for accessing the network, and sending the real-time picture of the scene to the patient's condition entry port through the network, so that the treating physician can have a preliminary understanding of the patient's condition. GCC is a congestion control algorithm based on delay estimation and packet loss. The algorithm is divided into two parts: performing Kalman algorithm estimation at the receiving end and returning to the sending end for bit rate adjustment. The two algorithms can solve network congestion to a certain extent, thereby reducing the probability of network packet loss and making the picture transmission more stable. The bit rate distributor will reallocate the bit rate of the video, and then import the divided bit rate into the video encoder. After receiving the data from the bit rate distributor, the video encoder re-encodes the video and sends the data to the sending module. After the video encoder re-encodes the video, it imports the data into the sending module, and sends the video to the patient's condition entry port through the sending module, directly transmitting the real-time picture to the emergency center, saving a certain amount of emergency time.

[0021] Further, the action module is electrically connected to the distance module through a wire, the distance module is electrically connected to the situation module through a wire, the situation module is electrically connected to the environment module through a wire, and the environment module is electrically connected to the summary module through a wire.

[0022] Furthermore, the injury and illness priority classification module includes a processing module, a secondary emergency output port, a tertiary emergency output port, and a tertiary sub-acute and non-emergency output port.

[0023] Furthermore, the processing module determines the patient's injury level through the operation of medical staff. After receiving the data, the second-level emergency output port will directly send instructions to the alarm module. When the alarm module receives the instruction, it will sound an alarm. At the same time, the emergency room begins to prepare and rescue the second-level patients. After receiving the instruction, the third-level emergency output port will directly arrange the third-level patients to the outpatient center for treatment. After receiving the instruction, the fourth-level sub-emergency or non-emergency output port will arrange the patients to the waiting area to wait for the doctor in the outpatient center to diagnose.

[0024] The above technical solution is adopted: the processing module determines the patient's injury and illness level through the operation of medical staff. After the second-level emergency output port receives the data, it will directly send an instruction to the alarm module. When the alarm module receives the instruction, it will issue an alarm. At the same time, the emergency room begins to prepare and rescue the second-level patients. After the third-level emergency output port receives the instruction, it will directly arrange the third-level patients to the outpatient center for treatment. After receiving the instruction, the fourth-level sub-urgent or non-urgent output port will arrange the patients to the waiting area to wait for the doctor in the outpatient center to diagnose, distinguish between non-urgent and urgent patients, and save medical resources.

[0025] Furthermore, the second-level emergency output port is electrically connected to the processing module and the alarm module through wires, the third-level emergency output port is electrically connected to the processing module and the outpatient center through wires, and the fourth-level sub-urgent and non-emergency output port is electrically connected to the outpatient center, the processing module and the waiting area through wires.

[0026] 1. In the present invention, after the patient dials 120, if the situation is too urgent, a connection is established between the emergency center telephone terminal and the patient's condition input port, so that the emergency center can make certain preparations. When the ambulance arrives at the designated location, the medical staff first gives first aid to the patient, and then a medical staff opens the on-site video input module to shoot it, and establishes real-time transmission through the transmission module to transmit the on-site situation to the position of the patient's condition input port. At the same time, the treating physician conducts preliminary observation through the video. After arriving at the emergency center, if the patient's injury or illness is level one, he or she will directly enter the emergency room for first aid. High fever accompanied by convulsions, deep coma; convulsions, acute respiratory distress; respiratory arrest or frequency, cardiac arrest; severe arrhythmia; shock, severe abdominal distension are all level one rescue conditions. After entering the hospital, he or she will directly enter the emergency room for first aid. The conditions of the rest of the patients are entered into the injury priority classification module through the patient condition entry port, and the nurse on duty analyzes the situation and then issues instructions through the processing module in the injury priority classification module. If the patient's injury condition is level two, an instruction is issued to the alarm module through the level two emergency and severe output port, and then the patient enters the intensive care unit for first aid. The level two conditions of the patients include drowsiness, light coma; severe headache; irritability; acute paralysis, moderate breathing difficulty; obvious shortness of breath; oxygen saturation <95%; hemoptysis; severe asthma attack; obvious wheezing, severe arrhythmia with stable circulation; acute tachycardia, etc. If the patient is in the first or second level state, the specific data will be directly retrieved through the patient case data center, and then the data will be transmitted to the emergency information module and printed.

[0027] 2. If the patient's condition is judged to be level three, a command is issued through the level three emergency output port, and the doctor in the outpatient center diagnoses the patient and observes whether surgery is needed. If surgery is needed, the patient goes to the emergency room for first aid. If first aid is not needed, the patient goes directly to the medication area and can leave the hospital only after taking the medication according to the doctor's order. If the patient's injury level is level four, a notification is issued through the level four sub-urgent or non-urgent output port, so that the patient enters the waiting area first and waits for the level three patient to complete the outpatient clinic before the outpatient doctor examines him.

[0028] 3. In the transmission module, Internet support is provided by a network receiver, and then the video will be re-bite-distributed and encoded through a bit rate distributor and a video encoder to reduce the size of the video for easy transmission. GCC is a congestion control algorithm based on delay prediction and packet loss. The algorithm is divided into two parts: the Kalman algorithm is used for estimation at the receiving end and the bit rate is adjusted after returning to the sending end. The two algorithms can solve network congestion to a certain extent and prevent packet loss during transmission. BRIEF DESCRIPTION OF THE DRAWINGS

[0029] Figure 1 is a system diagram of the present invention;

[0030] Figure 2 It is a system diagram of the transmission module of the present invention;

[0031] Figure 3 This is a system diagram of the injury priority grading module of the present invention.

[0032] Legend:

[0033] 1. On-site video input module; 2. Transmission module; 201. Network receiver; 202. GCC; 203. Bit rate distributor; 204. Sending module; 205. Video encoder; 3. Patient condition input port; 4. Injury and disease priority classification module; 401. Processing module; 402. Level 2 emergency output port; 403. Level 3 emergency output port; 404. Level 4 sub-emergency and non-emergency output port; 5. Alarm module; 6. Emergency information module; 7. Patient case data center; 8. Outpatient center; 9. Emergency center telephone terminal; 10. Waiting area; 11. Medication collection area. DETAILED DESCRIPTION

[0034] like Figure 1-3As shown: an emergency pre-examination and triage system, including a patient condition input port 3, the patient condition input port 3 is wirelessly connected to the transmission module 2 through a local area network, the transmission module 2 is signal-connected to the on-site video input module 1 through a wire, the patient condition input port 3 is signal-connected to the emergency center telephone terminal 9 through a wire, the patient condition input port 3 is electrically connected to the alarm module 5 through a wire, the patient condition input port 3 is electrically connected to the injury and disease priority classification module 4 through the local area network, the injury and disease priority classification module 4 is electrically connected to the alarm module 5 through a wire, the injury and disease priority classification module 4 is wirelessly connected to the patient case data center 7 through the local area network, the patient case data center 7 is electrically connected to the emergency information module 6 through a wire, the injury and disease priority classification module 4 is electrically connected to the outpatient center 8 and the waiting area 10 through a wire, the outpatient center 8 is wirelessly connected to the on-site video input module 1 through the local area network with the medicine collection area 11, and the on-site video input module 1 transmits the patient's real-time condition to the hospital through the on-site video input module 1 after the patient dials 120 and the medical staff arrives at the scene;

[0035] Transmission module 2, the function of transmission module 2 is to collect the content collected by the on-site video recording module 1, re-encode it, and then send it. Transmission module 2 includes network receiver 201, GCC202, code rate distributor 203, sending module 204, and video encoder 205. Network receiver 201 is responsible for accessing the network and sending the real-time picture of the scene to the patient condition recording port 3 through the network, so that the treating physician can have a preliminary understanding of the patient's condition. GCC202 belongs to a congestion control algorithm based on delay estimation and packet loss. The algorithm is divided into two parts: Kalman algorithm estimation at the receiving end and returning to the sending end for code rate adjustment. The two algorithms can solve network congestion to a certain extent, thereby reducing the probability of network packet loss. , making the image transmission more stable, the bit rate distributor 203 will redistribute the bit rate of the video, and then import the divided bit rate into the video encoder 205. After receiving the data from the bit rate distributor 203, the video encoder 205 re-encodes the video, and the sending module 204. After the video encoder 205 re-encodes the video, it imports the data into the sending module 204, and the video is sent to the patient condition entry port 3 through the sending module 204. The network receiver 201 is wirelessly connected to the GCC202 through the local area network, and the GCC202 is wirelessly connected to the sending module 204 through the local area network. The bit rate distributor 203 is wirelessly connected to the video encoder 205 through a wire, and the bit rate distributor 203 is electrically connected to the sending module 204 through a wire.

[0036] Patient condition input port 3, which can receive the content transmitted by the transmission module 2, and can also input the patient data which is not very urgent;

[0037] The injury and illness priority classification module 4 can classify the conditions of the injured, and then notify the operating room or outpatient department to rescue or treat the patient. The injury and illness priority classification module 4 includes a processing module 401, a secondary emergency output port 402, a tertiary emergency output port 403, and a quaternary sub-urgent or non-urgent output port 404. The processing module 401 determines the patient's injury and illness level through the operation of medical staff. After receiving the data, the secondary emergency output port 402 directly sends a command to the alarm module 5. When the alarm module 5 receives the command, it issues an alarm. At the same time, the emergency room begins to prepare. For second-level patients, the third-level emergency output port 403 will directly arrange the third-level patients to the outpatient center 8 for treatment after receiving the command. The fourth-level sub-urgent or non-urgent output port 404 will arrange the patients to the waiting area 10 after receiving the command, waiting for the doctors of the outpatient center 8 to diagnose. The second-level emergency output port 402 is electrically connected to the processing module 401 and the alarm module 5 through wires, the third-level emergency output port 403 is electrically connected to the processing module 401 and the outpatient center 8 through wires, and the fourth-level sub-urgent or non-urgent output port 404 is electrically connected to the outpatient center 8, the processing module 401 and the waiting area 10 through wires.

[0038] Alarm module 5, alarm module 5, will sound an alarm when encountering two situations. One is when a first-level patient or a second-level patient enters the emergency center, the alarm module 5 will sound an alarm to prepare the emergency room to avoid wasting the golden six minutes;

[0039] Information module 6, emergency information module 6, the patient information is displayed on the screen through the emergency information module 6, and is printed. After printing is completed, the printed medical record is sent to the attending physician by medical staff;

[0040] Patient case data center 7, which stores the patient's previous medical records. After the patient's case is extracted, the data is transmitted to the emergency information module 6 and displayed through the emergency information module 6;

[0041] Outpatient center 8: Outpatient center 8 will receive patients of level 3 or level 4, and doctors in outpatient center 8 will diagnose them. If some level 3 patients are diagnosed as serious by doctors, they need to be sent to the operating room for surgery;

[0042] The emergency center telephone terminal 9 will notify the patient's condition to the patient condition input port 3, so that the medical staff of the emergency center can be prepared, so that the patient can be directly rescued after arriving, avoiding wasting rescue time;

[0043] Waiting area 10, which can accommodate level 4 patients. Level 4 patients can wait directly in the waiting area 10 during the consultation process, wait for notification from the diagnostic physician in the outpatient center 8, and then undergo examination;

[0044] Medicine dispensing area 11: When a level 3 or 4 patient has finished seeing a doctor, he or she enters medicine dispensing area 11 to get the medicine and the doctor's visit is over;

[0045] The on-site video recording module 1 is electrically connected to the transmission module 2 through a wire, the sending module 204 in the transmission module 2 is wirelessly connected to the patient condition recording port 3 through a local area network, the patient condition recording port 3 is electrically connected to the alarm module 5 through a wire, the patient condition recording port 3 is electrically connected to the injury and illness priority grading module 4 through a wire, the injury and illness priority grading module 4 is electrically connected to the alarm module 5 through a wire, the injury and illness priority grading module 4 is electrically connected to the patient case data center 7 through a wire, the patient case data center 7 is electrically connected to the emergency information module 6 through a wire, the injury and illness priority grading module 4 is electrically connected to the outpatient center 8 through a wire, the outpatient center 8 is electrically connected to the medicine collection area 11 through a wire, and the emergency center telephone terminal 9 is wirelessly connected to the patient condition recording port 3 through the local area network.

[0046] Working principle: First, after the patient dials 120, if the situation is too urgent, a connection is established between the emergency center telephone terminal 9 and the patient condition input port 3, so that the emergency center can make certain preparations. When the ambulance arrives at the designated location, the medical staff will first give first aid to the patient, and then a medical staff will open the on-site video input module 1 to shoot it, and establish real-time transmission through the transmission module 2, and transmit the on-site situation to the patient condition input port 3. At the same time, the treating physician will make a preliminary observation through the video. After arriving at the emergency center, if the patient's injury is level one, he will directly enter the emergency room for first aid, high fever with convulsions, deep coma; convulsions, acute respiratory distress; respiratory arrest or frequency, Cardiac arrest; severe arrhythmia; shock, severe abdominal distension are all classified as first-level emergency rescue conditions. After entering the hospital, the patient will be directly sent to the emergency room for treatment. The rest of the patient's condition will be entered into the injury priority classification module 4 through the patient's condition input port 3. The on-duty nurse will analyze the situation and then issue a command through the processing module 401 in the injury priority classification module 4. If the patient's injury condition is second-level, a command will be issued to the alarm module 5 through the second-level emergency output port 402, and then the patient will enter the intensive care unit for emergency treatment. The second-level conditions of the patient are drowsiness, light coma; severe headache; irritability; acute paralysis, moderate breathing difficulty; obvious shortness of breath; oxygen saturation <95%; hemoptysis; severe Asthma attack; obvious wheezing, severe arrhythmia with stable circulation; acute tachycardia and many other conditions. If the patient is in the first or second level state, the specific data will be directly retrieved through the patient case data center 7, and then the data will be transmitted to the emergency information module 6 and printed. If the patient's condition is judged to be level three, an instruction will be issued through the level three emergency output port 403, and the doctor of the outpatient center 8 will diagnose the patient and observe whether surgery is needed. If surgery is needed, the doctor will enter the emergency room for first aid. If first aid is not needed, he will directly enter the medicine collection area 11 and leave the hospital only after the medicine is collected according to the doctor's order. If the patient's injury level is If it is level 4, a notification is made through the level 4 sub-urgent or non-urgent output port 404, so that the patient enters the waiting area 10 first, and waits for the level 3 patients to complete the outpatient clinic before the outpatient physician examines them. In the transmission module 2, Internet support is provided through the network receiver 201, and then the video will be re-bite-distributed and encoded through the bit rate distributor 203 and the video encoder 205 to reduce the size of the video for easy transmission. GCC202 is a congestion control algorithm based on delay prediction and packet loss. The algorithm is divided into two parts: Kalman algorithm prediction at the receiving end and returning to the sending end for bit rate adjustment. The two algorithms can solve network congestion to a certain extent and prevent packet loss during transmission.

[0047] Various parts of the present invention can be implemented by hardware, software, firmware or a combination thereof. In the above-mentioned embodiment, multiple steps or methods can be implemented by software or firmware stored in a memory and executed by a suitable instruction execution system. For example, if implemented by hardware, as in another embodiment, it can be implemented by any one of the following technologies known in the art or a combination thereof: a discrete logic circuit having a logic gate circuit for implementing a logical function on a data signal, a dedicated integrated circuit having a suitable combination of logic gate circuits, a programmable gate array (PGA), a field programmable gate array (FPGA), etc.

[0048] The above are only preferred embodiments of the present invention. It should be pointed out that a person skilled in the art can make several modifications and improvements without departing from the inventive concept of the present invention, and these all fall within the protection scope of the present invention.

Claims

1. An emergency pre-examination and triage system, characterized in that: The system comprises a patient condition input port (3), wherein the patient condition input port (3) is wirelessly connected to a transmission module (2) via a local area network, the transmission module (2) is signal-connected to a live video input module (1) via a wire, the patient condition input port (3) is signal-connected to a telephone terminal (9) of an emergency center via a wire, the patient condition input port (3) is electrically connected to an alarm module (5) via a wire, the patient condition input port (3) is electrically connected to an injury and disease priority classification module (4) via a local area network, the injury and disease priority classification module (4) is electrically connected to an alarm module (5) via a wire, the injury and disease priority classification module (4) is wirelessly connected to a patient case data center (7) via a local area network, the patient case data center (7) is electrically connected to an emergency information module (6) via a wire, the injury and disease priority classification module (4) is electrically connected to an outpatient center (8) and a waiting area (10) via a wire, and the outpatient center (8) is wirelessly connected to a medication collection area (11) via a local area network; An on-site video recording module (1), wherein when the patient dials (120) and medical staff arrive at the scene, the on-site video recording module (1) transmits the patient's real-time situation to the hospital through the on-site video recording module (1); A transmission module (2), wherein the function of the transmission module (2) is to collect the content collected by the on-site video recording module (1), re-encode it, and then send it. The transmission module (2) includes a network receiver (201), a GCC (202), a code rate distributor (203), a sending module (204), and a video encoder (205). The network receiver (201) is responsible for accessing the network and sending the real-time picture of the scene to the patient condition recording port (3) through the network, so that the treating physician has a preliminary understanding of the patient's condition. The GCC (202) belongs to a congestion control algorithm based on delay estimation and packet loss. The algorithm is divided into two parts: performing Kalman algorithm estimation at the receiving end and returning to the sending end for code rate adjustment. The two algorithms are used to solve network congestion, thereby reducing the probability of network packet loss and stabilizing the transmission of the picture. The bit rate distributor (203) redistributes the bit rate of the video, and then imports the divided bit rate into the video encoder (205). After receiving the data from the bit rate distributor (203), the video encoder (205) re-encodes the video. After the video encoder (205) re-encodes the video, the sending module (204) imports the data into the sending module (204), and the video is sent to the patient condition input port (3) through the sending module (204). The network receiver (201) is wirelessly connected to the GCC (202) through a local area network, and the GCC (202) is wirelessly connected to the sending module (204) through a local area network. The bit rate distributor (203) is wirelessly connected to the video encoder (205) through a wire, and the bit rate distributor (203) is electrically connected to the sending module (204) through a wire. A patient condition input port (3), wherein the patient condition input port (3) receives the content transmitted by the transmission module (2) and also inputs patient data that is not very urgent; an injury and illness priority classification module (4), wherein the injury and illness priority classification module (4) classifies the condition of the injured patient and then notifies the operating room or outpatient department to rescue or treat the patient, wherein the injury and illness priority classification module (4) comprises a processing module (401), a second-level emergency output port (402), a third-level emergency output port (403), and a fourth-level sub-urgent or non-urgent output port (404); An alarm module (5), wherein the alarm module (5) will sound an alarm when encountering two situations: one is when a first-level patient or a second-level patient enters the emergency center, the alarm module (5) will sound an alarm to prepare the emergency room so as to avoid wasting the golden six minutes; An information module (6), wherein the emergency information module (6) displays the patient information on a screen and prints the information. After printing, the medical staff delivers the printed medical record to the attending physician; A patient case data center (7), wherein the patient case data center (7) stores the patient's previous medical records. When the patient's case is extracted, the data is transmitted to the emergency information module (6), and the emergency information module (6) displays the data; Outpatient center (8), the outpatient center (8) will receive patients of level 3 or level 4, and doctors in the outpatient center (8) will diagnose them. If some level 3 patients are diagnosed as serious by doctors, they need to be sent to the operating room for surgery; The emergency center telephone terminal (9) notifies the patient's condition to the patient's condition input port (3), so that the medical staff of the emergency center can be prepared to directly rescue the patient upon arrival, thereby avoiding wasting rescue time; A waiting area (10), wherein the waiting area (10) receives level 4 patients. Level 4 patients wait directly in the waiting area (10) during the consultation process, waiting to be notified by the diagnostic physician in the outpatient center (8), and then undergo examination; The medicine dispensing area (11) is where the third-level or fourth-level patient enters the medicine dispensing area (11) to dispensing medicine after completing the consultation.

2. An emergency pre-examination and triage system according to claim 1, characterized in that: The processing module (401) determines the patient's injury or illness level through the operation of medical staff. After receiving the data, the second-level emergency output port (402) directly sends a command to the alarm module (5). When the alarm module (5) receives the command, it issues an alarm. At the same time, the emergency room begins to prepare to rescue the second-level patient. After receiving the command, the third-level emergency output port (403) directly arranges the third-level patient to the outpatient center (8) for treatment. After receiving the command, the fourth-level sub-emergency or non-emergency output port (404) arranges the patient to the waiting area (10) to wait for the doctor of the outpatient center (8) to diagnose.

3. An emergency pre-examination and triage system according to claim 2, characterized in that: The secondary emergency output port (402) is electrically connected to the processing module (401) and the alarm module (5) through a wire, the tertiary emergency output port (403) is electrically connected to the processing module (401) and the outpatient center (8) through a wire, and the tertiary sub-urgent and non-urgent output port (404) is electrically connected to the outpatient center (8), the processing module (401) and the waiting area (10) through a wire.

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