Airway remote live broadcast training system

Abstract

The invention belongs to the technical field of medical training. The invention discloses an airway remote live broadcast training system which comprises an initiating terminal, a receiving terminal, an image processor and a camera which are communicated with one another and used for information interaction. The initiating terminal is used for initiating a consultation request and collecting, processing and displaying airway pressure data, circulating monitoring data and multi-source medical data; the receiving terminal and the initiating terminal are in remote communication to implement synchronous interaction so as to realize remote live broadcast, training and consultation; the image processor is used for receiving data, processing the data and synchronizing a processing result to the initiating terminal for display; the camera is used for capturing multi-source medical data and synchronizing the multi-source medical data to the initiating terminal for display. The system has the advantages that various key physiological data and multi-source medical data of the patient can be collected, processed and synchronously displayed in real time so that remote participants can check the data and provide training or consultation guidance.

Description

Technical Field

[0001] This invention relates to the field of medical training technology, and more specifically, to a remote live-streaming airway training system. Background Technology

[0002] Airway management is a crucial aspect of clinical medicine, especially in fields such as anesthesiology, emergency medicine, and critical care medicine. With advancements in medical technology, advanced airway management techniques are constantly being updated, placing higher demands on the training and skills development of medical personnel. However, due to the uneven distribution of medical resources among hospitals, primary care hospitals often lack experienced expert guidance in complex airway management and must rely on the professional technical support of higher-level hospitals. While existing telemedicine technologies are widely used in several medical fields, such as remote airway placement consultation systems and 5G network-based remote ultrasound consultation systems, these systems still have significant shortcomings in airway management training and consultation.

[0003] First, most existing remote airway management consultation systems and 5G network-based remote ultrasound consultation systems lack specific designs for airway management, failing to meet the unique needs of airway management training and consultation. These systems often focus solely on video image transmission, neglecting the real-time acquisition and synchronous display of critical physiological parameters such as airway pressure and circulatory monitoring data. These parameters are crucial for assessing patient conditions, but existing remote systems cannot comprehensively and in real-time collect and display this data, hindering accurate judgments and guidance from remote experts. Second, existing remote consultation systems typically process only limited medical data sources, such as imaging data, which is far from sufficient for airway management, limiting the accuracy of remote consultations. It is necessary to comprehensively display imaging data such as ultrasound and X-rays along with airway management-related data to provide accurate medical advice.

[0004] How to solve the above-mentioned technical difficulties has become an urgent technical problem to be solved. Summary of the Invention

[0005] The technical problem to be solved by the present invention is to provide an airway remote live training system that can collect, process and display in real time various key physiological data and multi-source medical data of patients for remote participants to view and provide training or consultation guidance.

[0006] To achieve the above objectives, the present invention provides the following technical solution:

[0007] This invention provides a remote live training system for airway communication, comprising an initiating terminal, a receiving terminal, an image processor, and a camera that are interconnected for information interaction;

[0008] The initiating terminal is used to initiate consultation requests, as well as to collect, process, and display airway pressure data from anesthesia equipment, circulatory monitoring data from visual medical devices, and multi-source medical data.

[0009] The receiving terminal and the initiating terminal communicate remotely to achieve synchronous interaction in order to realize remote live streaming, training, and consultation.

[0010] The image processor is used to receive data acquired by the visual medical device, process it, and synchronize the processing results to the initiating terminal for display.

[0011] The camera is used to capture multi-source medical data, including the surgical foreground and the clinical doctor's hand operations, and synchronize them to the initiating terminal for display.

[0012] It also includes the following method steps:

[0013] S1. The relevant participants initiate a consultation request to the receiving terminal through the initiating terminal to carry out remote communication interaction;

[0014] S2. Medical equipment consisting of anesthesia equipment synchronizes the acquired airway pressure data to the initiating terminal, and visual medical devices consisting of monitors, ultrasound equipment, and X-ray equipment synchronize the acquired circulatory monitoring data to the initiating terminal. Cameras synchronize multi-source medical data, including surgical foreground images and clinical doctor hand operations, to the initiating terminal. The initiating terminal collects and processes the above-mentioned received data to obtain processed data, and displays the processed data in image form on the display end of the initiating terminal as needed, switching and scaling it as required.

[0015] S3. The processing data is synchronously transmitted from the initiating terminal to the receiving terminal and displayed on the display of the receiving terminal for remote participants to view, for use in providing training or consultation guidance.

[0016] Preferably, both the initiating terminal and the receiving terminal are intelligent terminals with a highly integrated design capable of realizing functions such as digital acquisition, image acquisition, audio and video acquisition, audio and video encoding and decoding, audio and video processing, video recording, video on demand, live video streaming, video directing, and video conferencing.

[0017] Preferably, the initiating terminal and the receiving terminal are connected via Internet communication to achieve real-time data transmission and synchronized video information interaction.

[0018] Preferably, the camera is a high-definition surgical field camera with a universal arm for easy adjustment and control to perform video acquisition.

[0019] Preferably, the camera and the initiating terminal are connected by wired or wireless means to achieve data transmission.

[0020] Preferably, in step S2, the airway pressure data acquired by the medical device consisting of anesthesia equipment includes key parameters such as peak airway pressure, plateau pressure, and positive end-expiratory pressure used to assess the patient's airway condition.

[0021] Preferably, the medical device consisting of anesthesia equipment is connected to the initiating terminal via wired or wireless means to achieve data transmission.

[0022] Preferably, in step S2, the circulatory monitoring data acquired by the visual medical device consisting of a monitor, an ultrasound device, and an X-ray device includes vital signs data such as heart rate, blood pressure, and blood oxygen saturation, as well as ultrasound images and X-ray images.

[0023] Preferably, the visual medical device consisting of a monitor, ultrasound equipment, and X-ray equipment is connected to the image processor and initiating terminal via wired or wireless means to achieve data transmission.

[0024] Compared with the prior art, the present invention has the following beneficial effects:

[0025] In this invention, relevant participants initiate a consultation request to a receiving terminal via an initiating terminal to implement remote communication interaction; medical equipment, consisting of anesthesia equipment, synchronizes the acquired airway pressure data of the patient to the initiating terminal; visual medical devices, consisting of monitors, ultrasound equipment, and X-ray equipment, synchronize the acquired circulatory monitoring data of the patient to the initiating terminal; a camera captures multi-source medical data, including the surgical foreground and the clinician's hand operations, and synchronizes it to the initiating terminal; the initiating terminal processes the received data according to preset standards to obtain processed data, and displays the processed data in image form, switching and scaling as needed. On the display end of the initiating terminal, the processed data is synchronously transmitted to the receiving terminal and displayed on the display end of the receiving terminal. This allows the processed data to be displayed synchronously on both the initiating and receiving terminals in real time for remote participants to view and conduct remote consultations. This facilitates remote participants to fully understand the patient's condition, improves the accuracy of assessment and diagnosis, overcomes the problem of poor remote consultation effects in existing technologies, and provides training and consultation guidance. Therefore, this invention has the advantage of being able to collect, process, and synchronously display various key physiological data and multi-source medical data of patients in real time for remote participants to view for training or consultation guidance. Attached Figure Description

[0026] The present invention will be further described below with reference to the accompanying drawings and embodiments.

[0027] Figure 1 This is a structural connection block diagram of the airway remote live training system described in this invention;

[0028] Figure 2This is a flowchart of the control method for the airway remote live training system described in this invention.

[0029] Explanation of reference numerals in the attached diagram: 1. Initiating terminal, 2. Receiving terminal, 3. Image processor, 4. Camera. Detailed Implementation

[0030] The technical solutions of the present invention will be clearly and completely described below with reference to the accompanying drawings of the embodiments of the present invention. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments.

[0031] See Figures 1 to 2 As shown, this embodiment provides a remote airway live training system, including an initiating terminal 1, a receiving terminal 2, an image processor 3, and a camera 4 that are interconnected for information interaction;

[0032] The initiating terminal 1 is used to initiate consultation requests, as well as to collect, process, and display airway pressure data from anesthesia equipment, circulatory monitoring data from visual medical devices, and multi-source medical data.

[0033] The receiving terminal 2 and the initiating terminal 1 communicate remotely to achieve synchronous interaction in order to realize remote live streaming, training and consultation.

[0034] The image processor 3 is used to receive data acquired by the visual medical device, process it, and synchronize the processing results to the initiating terminal 1 for display.

[0035] The camera 4 is used to capture multi-source medical data, including the surgical foreground and the clinical doctor's hand operations, and synchronize them to the initiating terminal 1 for display.

[0036] It also includes the following method steps:

[0037] S1. The relevant participants initiate a consultation request from the initiating terminal 1 to the receiving terminal 2 to carry out remote communication interaction;

[0038] S2. The medical equipment consisting of anesthesia equipment synchronizes the acquired airway pressure data to the initiating terminal 1, and the visual medical device consisting of a monitor, ultrasound equipment, and X-ray equipment synchronizes the acquired circulatory monitoring data to the initiating terminal 1. The camera 4 synchronizes the captured multi-source medical data, including the surgical foreground image and the clinical doctor's hand operation, to the initiating terminal 1. The initiating terminal 1 collects and processes the above-mentioned received data according to the preset standard to obtain processed data, and displays the processed data in image form on the display end of the initiating terminal 1 as needed by switching and scaling.

[0039] S3. The processing data is synchronously transmitted from the initiating terminal 1 to the receiving terminal 2 and displayed on the display of the receiving terminal 2 for remote participants to view, for use in providing training or consultation guidance.

[0040] In this embodiment, the initiating terminal 1 sends a consultation request to the receiving terminal 2 to achieve remote communication. The clinician at the initiating terminal 1 performs airway procedures, such as endotracheal intubation and fiberoptic bronchoscopy. Simultaneously, the initiating terminal 1 receives data collected by medical equipment and the video medical device camera 4, integrates and processes multiple video signals and medical data according to preset standards, and displays the predetermined integrated result data on its own display screen. This data is also simultaneously transmitted to the receiving terminal 2 and displayed on its own display screen. This allows the expert at the receiving terminal 2 to observe the clinician's operation process, as well as the patient's vital signs and airway pressure data, in real time. This facilitates real-time communication and professional advice or guidance between the expert at the receiving terminal 2 and the clinician at the initiating terminal 1. This method enables experienced experts to participate in consultations remotely, assess patient conditions, and guide on-site clinicians. It also provides a convenient tool for medical education, enabling more medical personnel to learn professional airway management skills.

[0041] In this embodiment, multiple cameras 4 can be selected as needed, including one camera 4 for capturing panoramic views and another camera 4 for capturing the doctor's hand operations. These two cameras 4 capture the medical scene from different angles. The camera 4 capturing panoramic views can capture the entire operating room or treatment room environment, while the camera 4 capturing the doctor's hand operations focuses on capturing the doctor's fine movements during airway manipulation, ensuring that remote participants can clearly see key operational details. The initiating terminal 1 is also connected to a visual medical device via the image processor 3. The camera end of the visual medical device is directly installed on medical devices such as endotracheal intubation equipment or fiberoptic bronchoscopes to transmit images of the patient's airway in real time, enabling remote participants to intuitively observe the patient's airway condition for assessment, judgment, and to provide training and consultation guidance.

[0042] In this embodiment, multiple receiving terminals 2 can be designed as needed, all of which are communicatively connected to the initiating terminal 1. Each receiving terminal 2 has its own display screen, and the image displayed on the display screen of the receiving terminal 2 is synchronized with the image displayed on the initiating terminal 1. The receiving terminal 2 can receive panoramic images, doctor's hand operation images, internal images of visual medical devices, and various monitoring data transmitted by the initiating terminal 1 in real time. Users of the receiving terminal 2 can be remote participants who can view the real-time images through the receiving terminal 2 and conduct two-way communication with the initiating terminal 1.

[0043] In this embodiment, a preset real-time communication technology is used to ensure that the latency of image and data transmission between the initiating terminal 1 and the receiving terminal 2 is minimized, thus ensuring the timeliness and effectiveness of remote consultation; and the communication connection adopts an encrypted transmission protocol to protect patient privacy and medical data security.

[0044] In this embodiment, both the initiating terminal 1 and the receiving terminal 2 are intelligent terminals with a highly integrated design that can realize functions such as digital acquisition, image acquisition, audio and video acquisition, audio and video encoding and decoding, audio and video processing, video recording, video on demand, live video streaming, video directing, and video conferencing.

[0045] In this embodiment, the initiating terminal 1 and the receiving terminal 2 are connected by Internet communication to achieve real-time data transmission and synchronized video information interaction.

[0046] In this embodiment, the camera 4 is a high-definition surgical field camera with a universal arm for easy adjustment and control to perform video acquisition.

[0047] In this embodiment, the camera 4 and the initiating terminal 1 are connected via wired or wireless means to achieve data transmission. Employing both wired and wireless data transmission methods improves the flexibility and applicability of use, enabling it to adapt to different medical environment needs.

[0048] In this embodiment, in step S2, the airway pressure data acquired by the medical device consisting of anesthesia equipment includes key parameters such as peak airway pressure, plateau pressure, and positive end-expiratory pressure used to assess the patient's airway condition.

[0049] In this embodiment, the medical device, which consists of anesthesia equipment, is connected to the initiating terminal 1 via a wired or wireless connection to achieve data transmission. Employing both wired and wireless data transmission methods improves the flexibility and applicability of use, enabling it to adapt to different medical environment needs.

[0050] In this embodiment, in step S2, the circulatory monitoring data acquired by the visual medical device consisting of a monitor, ultrasound equipment, and X-ray equipment includes vital signs data such as heart rate, blood pressure, and blood oxygen saturation, as well as ultrasound images and X-ray images, which can provide a more comprehensive diagnostic basis for remote consultation.

[0051] In this embodiment, the visual medical device, consisting of a monitor, ultrasound equipment, and X-ray equipment, is connected to the image processor 3 and the initiating terminal 1 via wired or wireless connections to achieve data transmission. Employing both wired and wireless data transmission methods improves flexibility and applicability, enabling it to adapt to different medical environment needs.

[0052] In this embodiment, remote participants can be telemedicine experts.

[0053] In this specific implementation, firstly, the participants initiate a consultation request to the receiving terminal 2 via the initiating terminal 1 to conduct remote communication interaction. Secondly, medical equipment consisting of anesthesia equipment acquires the patient's airway pressure data and transmits it synchronously to the initiating terminal 1. Visual medical devices consisting of monitors, ultrasound equipment, and X-ray equipment acquire the patient's circulatory monitoring data and transmit it synchronously to the initiating terminal 1 via the image processor 3. The camera 4 captures multi-source medical data, including the surgical foreground and the clinician's hand operations, and transmits it synchronously to the initiating terminal 1. Then, the initiating terminal 1 integrates and processes the received data according to preset standards to obtain the processed data with the predetermined integration result. The processed data is then displayed on the display of the initiating terminal 1 in image form, switching and scaling as needed. Finally, the initiating terminal 1 synchronously transmits the processed data to the receiving terminal 2 and displays it on the display of the receiving terminal 2 for remote participants to view for evaluation, judgment, training, and consultation guidance.

[0054] In summary, the system described above, as used in this invention, has the advantage of being able to collect, process, and simultaneously display various key physiological data and multi-source medical data of patients in real time for remote participants to view and provide training or consultation guidance.

[0055] The above specific embodiments are merely several preferred embodiments of the present invention. Based on the technical solutions of the present invention and the relevant teachings of the above embodiments, those skilled in the art can make various alternative improvements and combinations to the above specific embodiments.

Claims

1. A remote live-streaming training system for airways, comprising an initiating terminal (1), a receiving terminal (2), an image processor (3), and a camera (4) interconnected for information interaction; characterized in that: The initiating terminal (1) is used to initiate consultation requests, as well as to collect, process, and display airway pressure data on anesthesia equipment, circulatory monitoring data on visual medical devices, and multi-source medical data; The receiving terminal (2) and the initiating terminal (1) communicate remotely to implement synchronous interaction in order to realize remote live broadcasting, training and consultation; The image processor (3) is used to receive data acquired by the visual medical device, process it, and synchronize the processing results to the initiating terminal (1) for display. The camera (4) is used to capture multi-source medical data, including the surgical foreground and the clinical doctor's hand operations, and synchronize them to the initiating terminal (1) for display. It also includes the following method steps: S1. The relevant participants initiate a consultation request from the initiating terminal (1) to the receiving terminal (2) to carry out remote communication interaction; S2. The medical equipment consisting of anesthesia equipment synchronizes the acquired airway pressure data to the initiating terminal (1), and the visual medical device consisting of a monitor, ultrasound equipment, and X-ray equipment synchronizes the acquired circulatory monitoring data to the initiating terminal (1). The camera (4) synchronizes the captured multi-source medical data, including the surgical foreground image and the clinical doctor's hand operation, to the initiating terminal (1). The initiating terminal (1) performs acquisition and processing on the above-mentioned received data to obtain processed data, and displays the processed data in image form on the display end of the initiating terminal (1) according to the requirements of switching and scaling. S3. The processing data is synchronously transmitted from the initiating terminal (1) to the receiving terminal (2) and displayed on the display end of the receiving terminal (2) for remote participants to view, and is used to provide training or consultation guidance.

2. The airway remote live training system according to claim 1, characterized in that: Both the initiating terminal (1) and the receiving terminal (2) are intelligent terminals with highly integrated design that can realize digital acquisition, image acquisition, audio and video acquisition, audio and video encoding and decoding, audio and video processing, video recording, video on demand, live video streaming, video directing, and video conferencing functions.

3. The airway remote live training system according to claim 2, characterized in that: The initiating terminal (1) and the receiving terminal (2) are connected to each other via Internet communication to achieve real-time data transmission and synchronized screen information interaction.

4. The airway remote live training system according to claim 1, characterized in that: The camera (4) is a high-definition surgical field camera with a universal arm for easy adjustment and control to perform video acquisition.

5. The airway remote live training system according to claim 4, characterized in that: The camera (4) and the initiating terminal (1) are connected by wired or wireless means to achieve data transmission.

6. The airway remote live training system according to any one of claims 1 to 5, characterized in that: In step S2, the airway pressure data acquired by the medical device, which is composed of anesthesia equipment, includes key parameters such as peak airway pressure, plateau pressure, and positive end-expiratory pressure used to assess the patient's airway condition.

7. The airway remote live training system according to claim 6, characterized in that: The medical device consisting of anesthesia equipment and the initiating terminal (1) are connected by wired or wireless means to realize data transmission.

8. The airway remote live training system according to any one of claims 1 to 5, characterized in that: In step S2, the circulatory monitoring data acquired by the visual medical device consisting of a monitor, ultrasound equipment, and X-ray equipment includes vital signs data such as heart rate, blood pressure, and blood oxygen saturation, as well as ultrasound images and X-ray images.

9. The airway remote live training system according to claim 8, characterized in that: The visual medical device consisting of a monitor, ultrasound equipment, and X-ray equipment, along with the image processor (3) and the initiating terminal (1), are connected to each other via wired or wireless means to achieve data transmission.

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