Monitoring system and component display method of monitoring system human-machine interface

Abstract

This application provides a monitoring system and a component display method for the human-computer interaction interface of the monitoring system, which improves the convenience and efficiency of displaying data to meet user operation. In this application embodiment, the processor of the monitoring system performs the following steps: acquiring physiological data collected by at least one physiological parameter sensor connected to the object to be monitored, and processing the physiological data to obtain physiological parameter information; displaying at least a first physiological parameter display component and a second physiological parameter display component on the human-computer interaction interface; acquiring a first operation for any display component, and activating any display component according to the first operation; acquiring a second operation for any display component, and moving any display component to another display component according to the second operation; acquiring a third operation for any display component, and superimposing any display component with another display component according to the third operation.

Description

Technical Field

[0001] This application relates to the field of data display technology for monitoring systems, and in particular to a monitoring system and a method for displaying components of the human-computer interaction interface of a monitoring system. Background Technology

[0002] In clinical disease diagnosis and treatment, patient life support and monitoring devices act as "decoders" for patients' conditions, playing a crucial role in helping doctors assess their condition and formulate treatment strategies. However, patients are all different, and their conditions vary greatly. Therefore, doctors have diverse needs for the data information that different patients require attention. Even with the same device, when connected to different patients, doctors need to adjust the interface to display the necessary monitoring data according to the patient's condition.

[0003] To meet different data presentation requirements, traditional monitoring systems typically require users to navigate through deep settings menus to configure the displayed data, or to click multiple buttons to configure the data. While these methods may satisfy user needs, the overall operation is cumbersome, resulting in low efficiency in meeting user requirements for the displayed data. Summary of the Invention

[0004] This invention provides a monitoring system and a method for displaying components of the monitoring system's human-computer interaction interface. The method allows for direct adjustment of the display mode of interface components in the display interface based on operations detected by the interactive device, thereby improving the convenience and efficiency of the interface display data in meeting user needs.

[0005] A first aspect of the present invention provides a monitoring system, comprising:

[0006] At least one physiological parameter sensor is used to connect to the object to be detected in order to obtain physiological data of the object to be detected;

[0007] Display device for displaying human-computer interaction interface;

[0008] Interactive devices are used to detect user actions on the human-computer interaction interface;

[0009] Processor; and

[0010] A computer program, when executed by a processor, performs the following steps:

[0011] Physiological data collected by at least one physiological parameter sensor connected to the object to be detected is acquired, and the physiological data is processed to obtain the physiological parameter information of the object to be detected.

[0012] The display device displays at least a first physiological parameter display component and a second physiological parameter display component on the human-computer interaction interface. The first physiological parameter display component and the second physiological parameter display component are respectively used to display physiological parameter information of different parts of the object to be tested, or to display physiological parameter information of the same part of the object to be tested at different times.

[0013] The interactive device detects a first operation targeting either the first physiological parameter display component or the second physiological parameter display component, and activates the display component according to the operation instruction corresponding to the first operation.

[0014] The interaction device detects a second operation targeting any of the display components, and moves the display component to another display component between the first physiological parameter display component and the second physiological parameter display component according to the operation instruction of the second operation, so that the display component and the other display component overlap.

[0015] The third operation detected by the interactive device for any of the display components is obtained, and the display component is superimposed on the other display component according to the operation instruction of the third operation.

[0016] A second aspect of the present invention provides a monitoring system, comprising:

[0017] At least one physiological parameter sensor is used to connect to the object to be detected in order to obtain physiological data of the object to be detected;

[0018] Display device for displaying human-computer interaction interface;

[0019] Interactive devices are used to detect user actions on the human-computer interaction interface;

[0020] Processor; and

[0021] A computer program, when executed by a processor, performs the following steps:

[0022] Physiological data collected by at least one physiological parameter sensor connected to the object to be detected is acquired, and the physiological data is processed to obtain the physiological parameter information of the object to be detected.

[0023] The physiological parameter display component is displayed on the human-computer interaction interface through the display device. The physiological parameter display component is used to display physiological parameter information obtained by physiological sensors.

[0024] The first operation detected by the interactive device for the physiological parameter display component is obtained, and the physiological parameter display component is activated according to the operation instruction of the first operation.

[0025] The interactive device detects a second operation targeting the physiological parameter display component. Based on the operation instruction of the second operation, the display range of selected data in the physiological parameter display component is adjusted. When adjusting the display range of the selected data, the image resolution of the selected data is adjusted from a first resolution to a second resolution, wherein the second resolution is greater than the first resolution or less than the first resolution.

[0026] In this embodiment, a first operation on either the first physiological parameter display component or the second physiological parameter display component can be detected directly through an interactive device. Based on the first operation, the first physiological parameter display component is activated. Then, a second operation on the first physiological parameter display component is detected, and based on the second operation, the first physiological parameter display component or the second physiological parameter display component is moved to another display component, causing them to overlap. After the overlap, based on a third operation on the first physiological parameter display component, the first physiological parameter display component or the second physiological parameter display component is superimposed on the other display component. This allows the user to directly superimpose the first physiological parameter display component and the second physiological parameter display component on the monitoring system's display device via an interactive device. This avoids the problem in the prior art where setting display data requires navigating to a deep settings menu, and correspondingly improves the convenience of setting display components. Attached Figure Description

[0027] Figure 1 This is a schematic diagram of the monitoring system architecture in the embodiments of this application;

[0028] Figure 2 This is a flowchart illustrating a processor in an embodiment of this application;

[0029] Figure 3 This is a schematic diagram illustrating the process of overlaying and displaying components A and B in an embodiment of this application;

[0030] Figure 4 This is a schematic diagram illustrating the process of splitting and displaying component A and component B in an embodiment of this application;

[0031] Figure 5 This is a schematic diagram illustrating the process of overlaying the secondary physiological parameter display component and the primary physiological parameter display component in an embodiment of this application;

[0032] Figure 6 This is a schematic diagram illustrating the process of separating and displaying the secondary physiological parameter display component and the primary physiological parameter display component in an embodiment of this application;

[0033] Figure 7 This is a schematic diagram showing the superimposed display of the electrocardiogram of the object to be tested at a first moment and the electrocardiogram of the object to be tested at a second moment in an embodiment of this application;

[0034] Figure 8 This is a schematic diagram showing the superimposed display of the invasive blood pressure monitoring waveform of the subject at the first moment and the invasive blood pressure monitoring waveform of the subject at the second moment in an embodiment of this application.

[0035] Figure 9 This is a schematic diagram showing the superimposed display of the invasive blood pressure monitoring waveform of the subject under test at the first moment and the central venous pressure waveform of the subject under test at the first moment in an embodiment of this application;

[0036] Figure 10 This is a schematic diagram showing the superposition of the electrocardiogram of the subject under test at the first moment and the central venous pressure waveform of the subject under test at the first moment in an embodiment of this application;

[0037] Figure 11 This is a schematic diagram showing the superposition of the motion scan cardiac or lung ultrasound image of the subject under test at the first moment and the electrocardiogram of the subject under test at the first moment in an embodiment of this application;

[0038] Figure 12 This is a schematic diagram showing the superposition of the motion scan cardiac or lung ultrasound image of the subject at the first moment and the invasive blood pressure monitoring waveform of the subject at the first moment in the embodiments of this application;

[0039] Figure 13 This is a schematic diagram showing the superimposed display of the motion scan type cardiac or pulmonary ultrasound image of the subject under test at the first moment and the end-tidal carbon dioxide waveform of the subject under test at the first moment in the embodiments of this application;

[0040] Figure 14 This is a schematic diagram illustrating an interactive guide displayed via a help menu in an embodiment of this application;

[0041] Figure 15 This is a schematic diagram illustrating the interactive guidance displayed in a real-world operational scenario, as described in the embodiments of this application.

[0042] Figure 16 This is another schematic diagram of the processor in an embodiment of this application;

[0043] Figure 17 This is a schematic diagram of an embodiment of determining selected data based on a two-finger zoom operation in this application.

[0044] Figure 18This is a schematic diagram of another embodiment of determining selected data based on a two-finger zoom operation in this application.

[0045] Figure 19 This is a schematic diagram illustrating how the display dimension of selected data is adjusted from two-dimensional to three-dimensional in an embodiment of this application. Detailed Implementation

[0046] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0047] The terms “first,” “second,” “third,” “fourth,” etc. (if present) in the specification, claims, and accompanying drawings of this invention are used to distinguish similar objects and are not necessarily used to describe a particular order or sequence. It should be understood that such data can be interchanged where appropriate so that the embodiments described herein can be implemented in orders other than those illustrated or described herein. Furthermore, the terms “comprising” and “having,” and any variations thereof, are intended to cover a non-exclusive inclusion; for example, a process, method, system, product, or apparatus that comprises a series of steps or units is not necessarily limited to those steps or units explicitly listed, but may include other steps or units not explicitly listed or inherent to such processes, methods, products, or apparatus.

[0048] For ease of understanding, the monitoring system in the embodiments of this application will be described below. Please refer to [link / reference]. Figure 1 The monitoring system in this application embodiment includes: at least one physiological parameter sensor 10, a display device 20, an interaction device 30, a processor 40, and a memory 50;

[0049] In this embodiment, the physiological parameter sensor 10 and the processor 40 can communicate via wired or wireless means. Specifically, the wired connection is made through a cable, which includes, but is not limited to, power cables, plug-in box cables, slave screen cables, USB connection cables, network signal cables, etc. The wireless connection includes, but is not limited to, WiFi connection, Bluetooth connection, Zigbee connection, etc. The physiological parameter sensor can be any device that collects physiological data of the object to be tested, such as various sensors that collect heart rate, blood oxygen, pulse, blood flow parameters, carbon dioxide parameters, and ultrasound images. There is no specific limitation on the type of physiological parameter sensor 10. Furthermore, the number of physiological parameter sensors in this embodiment can also be customized according to clinical needs. For example, in an emergency scenario, three, four, or five physiological parameter sensors can be set simultaneously to collect various physiological data of the patient. There is no specific limitation on the number of physiological parameter sensors.

[0050] Optionally, the display device 20 in the monitoring system can be a touch screen, liquid crystal display, or the like integrated into the physiological parameter sensor 10; or the display device 20 can be an independent display device such as a liquid crystal display or a television, separate from the physiological parameter sensor 10; or the display device 20 can be the screen of an electronic device such as a smartphone or tablet, etc. The number of display devices 20 can be one or more.

[0051] Optionally, the memory 50 can be a flash memory card, solid-state storage, hard disk, etc. It can be volatile and / or non-volatile memory, removable memory and / or non-removable memory, etc.

[0052] Optionally, the processor 40 may be implemented by software, hardware, firmware, or any combination thereof, and may use circuits, one or more application-specific integrated circuits (ASICs), one or more general-purpose integrated circuits, one or more microprocessors, one or more programmable logic devices, or any combination of the foregoing circuits and / or devices, or other suitable circuits or devices, so that the processor 40 can perform the corresponding steps of the methods in the various embodiments of this specification.

[0053] It should be understood that Figure 1The components included in the monitoring system shown are merely illustrative and may include more components, such as output devices like printers. Corresponding external input / output ports can be wireless communication modules, wired communication modules, or a combination of both. External input / output ports may also be implemented based on USB, bus protocols such as CAN, and / or wired network protocols. This invention is not limited in this respect.

[0054] The monitoring system in the embodiments of this application will now be described in detail:

[0055] At least one physiological parameter sensor 10 in this application embodiment is used to connect to a target object to obtain physiological data of the target object. The target object is a living organism, such as a human or animal. The physiological parameter sensor 10 can be attached to the target object to obtain different physiological data. The physiological parameter sensor 10 includes, but is not limited to, electrocardiogram (ECG) sensors, non-invasive blood pressure sensors, respiration sensors, blood oxygen sensors, temperature sensors, CO2 sensors, cardiac output sensors, and central venous pressure (CVP) sensors, to obtain physiological parameter information such as heart rate, blood pressure, respiratory rate, blood oxygen saturation, ECG, body temperature, and cardiac output. Data is collected by physiological parameter sensors 10 attached or clipped to corresponding parts of the subject being tested. In other embodiments, the physiological parameter sensors 10 may not directly contact the subject's body. For example, an infrared camera can capture an infrared image of the subject to obtain its body temperature information, or an optical camera can capture images of the subject's body and movements to obtain information such as the subject's activity level. These devices can also be used as physiological parameter sensors 10 to transmit the collected physiological data signals to the monitoring system via wired or wireless connections, and display them on the human-computer interaction interface of the monitoring system display device 20 through a physiological parameter display component.

[0056] The display device 20 in this application can display a human-computer interaction interface to enable interaction between the user and the monitoring system. Furthermore, the human-computer interaction interface can accommodate different components in different application scenarios. These components can be program display windows, widgets, parts, plug-ins, cards, application shortcuts, files, folders, etc. These components can be an independent application, or a display window of an application. Depending on the application, it can be a single display window of an application, a single display window among multiple display windows of an application, or an element embedded in other applications or the operating system desktop. These components have their corresponding display objects or functions. The principles and functions of the components in different embodiments can vary depending on the specific application scenario and implementation method. Commonly, the human-computer interaction interface of a monitoring system typically includes a physiological parameter display component and other components. The monitoring system displays physiological parameter information such as electrocardiogram, blood oxygen, and pulse through the physiological parameter display component on the screen, and displays other content besides physiological parameter information or completes other interactive functions through other components.

[0057] The interactive device 30 in this application embodiment may be a mouse, keyboard, encoder, touchpad, microphone, motion sensing device, camera, etc. in different embodiments, wherein:

[0058] The mouse enables user interaction with the human-computer interface through click operations. In some embodiments, the display range of components can be adjusted by operating the mouse connected to the monitoring system. For example, components can be selected by clicking or double-clicking, or by clicking and pressing the mouse button and moving the mouse to select components; components can be moved by clicking and holding down the mouse button and moving the mouse; components can be scaled by stretching the edges or diagonals of selected components; or components can be scaled by double-clicking.

[0059] The keyboard enables users to interact with the human-computer interface through typing operations. In some embodiments, the keyboard connected to the monitoring system is used to select components. For example, certain components can be selected by entering a first shortcut key command, and the component can be triggered to display more related information by entering a second shortcut key command, such as triggering the component to display attribute information or triggering the component to display a help menu.

[0060] The encoder enables user interaction with the human-computer interface through operations such as pressing. In some embodiments, the interaction device is an encoder, such as a rotary encoder commonly found in medical devices. This encoder allows users to select appropriate menu items by rotating it, and to perform selection and confirmation operations by pressing it. In these embodiments, the operation instructions are generated by detecting operations performed on the encoder. Examples include selecting components by rotating the encoder; confirming selection by pressing the encoder; and moving or scaling components by rotating the encoder.

[0061] Touchpads enable user interaction with the human-computer interface by detecting contact with the touchpad. In some embodiments, touchpads are also commonly used human-computer interaction devices. Touchpad operation can be similar to that of a touch-sensitive display screen. Users can use fingers or styluses to touch the touchpad and perform human-computer interaction through gestures such as clicking and moving. For example, a component that needs to be adjusted can be selected by clicking; a component can be moved by moving the contact point with the touchpad; a component can be scaled by pinching or pulling the finger in contact with the touchpad, or the component can be scaled by stretching its corners.

[0062] The microphone generates operation commands based on detected sound signals, and enables user interaction with the human-computer interface based on these commands. In some embodiments, users can select, zoom, or move components using voice commands. Voice interaction has unique advantages in certain situations, such as when doctors are performing surgery or in other situations where their hands are not free, or when they are concerned about contaminating the device with germs or contaminating it. In these cases, using voice for contactless human-computer interaction is advantageous.

[0063] Motion-sensing devices generate operation commands based on detected body movements, and enable user interaction with the human-computer interface based on these commands. In some embodiments, motion-sensing interaction technology interacts with computers through natural human movements, voice, vision, etc. It senses human movements, postures, gestures, touch, and other body actions, converting these signals into computer-recognizable commands to achieve interaction with the computer. This technology allows users to communicate and interact with computers more naturally, improving the efficiency and convenience of interaction. Currently, motion-sensing interaction has applications in fields such as virtual reality games and smart homes. Similar to the microphone embodiment mentioned above, this embodiment of the interaction device is a motion-sensing device, which can flexibly adapt to numerous application scenarios, offering users a larger and more flexible space for interaction.

[0064] The camera generates operation commands based on the captured images. In some embodiments, the computer-based technologies for facial recognition and motion recognition are already available. Applying these technologies to the embodiments of this application can also flexibly adapt to numerous application scenarios, providing users with a larger interactive space and more flexible interaction methods. For example, by recognizing the motion of the images captured by the camera, components can be selected and moved or zoomed.

[0065] When processor 40 executes a computer program stored in memory 50, it performs the following processes, please refer to [link to relevant documentation]. Figure 2 :

[0066] 201. Acquire physiological data collected by at least one physiological parameter sensor connected to the object to be detected, and process the physiological data to obtain physiological parameter information of the object to be detected;

[0067] Specifically, in the embodiments of this application, the physiological data collected by the physiological parameter sensor can be directly transmitted to the processor in real time for processing, or the physiological data collected by the physiological parameter sensor can be stored in the memory first, and then the processor can retrieve it from the memory and process the physiological data retrieved from the memory to obtain physiological parameter information.

[0068] Optionally, in the embodiments of this application, when the processor processes physiological data, it may perform calculations on the collected discrete physiological data through a preset algorithm to obtain the processed results, or it may perform data preprocessing on the collected physiological data (such as deleting invalid data and / or performing normalization processing on the data) and then obtain physiological parameter information displayed in the form of waveform graphs, line graphs, or curve graphs.

[0069] 202. The control display device displays at least a first physiological parameter display component and a second physiological parameter display component on the human-computer interaction interface. The first physiological parameter display component and the second physiological parameter display component are respectively used to display physiological parameter information of different parts of the object to be tested, or to display physiological parameter information of the same part of the object to be tested at different times.

[0070] After the processor processes the acquired physiological data to obtain physiological parameter information, it can control the display device to display at least the first physiological parameter display and the second physiological parameter display components in the human-computer interaction interface. Here, the components can be program display windows, cards, plug-ins, or display elements, etc., and there are no specific restrictions on the external appearance of the components.

[0071] Specifically, the first and second physiological parameter display components are used to display physiological parameter information of different parts of the object being tested. For example, the first physiological parameter display component can be used to display the electrocardiogram (ECG) of object A, while the second physiological parameter display component can be used to display the blood oxygen parameters of object A. Alternatively, the first physiological parameter display component can be used to display the ECG of object A in January 2022, while the second physiological parameter display component can be used to display the ECG of object A in February 2022. This allows users to simultaneously view the physiological parameter information displayed by the first and second physiological parameter display components. Of course, the above examples are only an explanation of the content displayed by the first and second physiological parameter display components, not a limitation. No specific restrictions are placed on the content displayed by the first and second physiological parameter display components here.

[0072] 203. Obtain the first operation detected by the interactive device for any one of the first physiological parameter display components and the second physiological parameter display components, and activate any one of the display components according to the operation instruction corresponding to the first operation;

[0073] In this embodiment of the application, in order to facilitate the comparison and viewing of the content displayed by the first physiological parameter display component and the content displayed by the second physiological parameter display component, when a first operation of the interactive device on either the first physiological parameter display component or the second physiological parameter display component is detected, the display component can be activated according to the operation instruction corresponding to the first operation. That is, when a first operation of the interactive device on the first physiological parameter display component is detected, the first physiological parameter display component is activated according to the operation instruction of the first operation, and when a second operation of the interactive device on the second physiological parameter display component is detected, the second physiological parameter display component is activated according to the operation instruction of the second operation.

[0074] Specifically, the first operation in this application embodiment can be selected according to different interactive devices. For example, when the interactive device is a mouse, the first operation can be a single click or double click; when the interactive device is a touchpad, the first operation can be a long press; when the interactive device is an encoder, the first operation can be a press operation; when the interactive device is a microphone, the first operation can be a specific voice command; when the interactive device is a motion sensing device, the first operation can be a specific action command, etc. There is no specific limitation on the type of the first operation here.

[0075] 204. Obtain the second operation detected by the interactive device for any display component, and move the display component to another display component between the first physiological parameter display component and the second physiological parameter display component according to the operation instruction of the second operation, so that the display component and the other display component overlap.

[0076] When either the first physiological parameter display component or the second physiological parameter display component is activated, and the interactive device detects a second operation on either display component, the device moves the display component to the other display component of the first and second physiological parameter display components according to the second operation, so that the display component overlaps with the other display component. This overlap can be partial or complete. There is no specific limitation on the size of the overlap between the first and second physiological parameter display components. For example, the first and second physiological parameter display components can overlap by 2%, or 20%, 50%, or 100%, etc.

[0077] Specifically, the second operation varies depending on the interaction device. When the interaction device is a mouse, the second operation can be a drag operation. When the interaction device is a touchpad, the second operation can be a swipe operation. When the interaction device is an encoder, the second operation can also be a swipe operation. When the interaction device is a microphone, the second operation can be a specific voice command (such as overlaying component A and component B). When the interaction device is a motion-sensing device, the second operation can be a swipe gesture or a swipe body posture, etc.

[0078] 205. Obtain a third operation detected by the interactive device for any display component, and display any display component superimposed on another display component according to the operation instruction of the third operation.

[0079] When the first physiological parameter display component and the second physiological parameter display component overlap, a third operation is detected targeting either the first or second physiological parameter display component. Based on the third operation, the first and second physiological parameter display components are superimposed and displayed. Specifically, the third operation varies depending on the interaction device. For example, when the interaction device is a mouse, the third operation can be a single click or double click. When the interaction device is a touchpad, the third operation can be a move away from the interaction device or a superposition command in the operation menu that pops up from either display component. When the interaction device is an encoder, the third operation can be a press operation. When the interaction device is a microphone, the third operation is a specific voice command. When the interaction device is a motion sensor, the third operation is a specific action command, such as moving away from the interaction device or pressing the motion sensor.

[0080] Furthermore, as an optional embodiment, the interactive device and display device in this application embodiment can be integrated into a touch-sensitive display screen. The first operation, the second operation, and the third operation are touch operations generated by contact with the touch-sensitive display screen, which reduces the hardware devices of the monitoring system on the one hand, and improves the convenience of user operation on the other.

[0081] For ease of understanding, Figure 3 A schematic diagram is provided illustrating the process of overlaying components A and B.

[0082] Specifically, in Figure 3 In this scenario, assuming the human-computer interaction interface is a touch screen, the user can long-press component A to activate it, then move component A to component B so that component A and component B at least partially overlap. After the user's hand leaves the touch screen, component A and component B will be displayed on top of each other.

[0083] In this embodiment, a first operation on either the first physiological parameter display component or the second physiological parameter display component can be detected directly through the interactive device. Based on the first operation, the first physiological parameter display component is activated. Then, a second operation on the first physiological parameter display component is detected, and based on the second operation, the first physiological parameter display component or the second physiological parameter display component is moved to another display component, causing them to overlap. After the overlap, based on a third operation on the first physiological parameter display component, the first physiological parameter display component or the second physiological parameter display component is superimposed on the other display component. This allows the user to directly adjust the display mode of the interface display components through the operation detected by the interactive device within the monitoring system's display device. This avoids the problem in the prior art where setting display data requires navigating to a deep settings menu, and correspondingly improves the convenience and efficiency of the interface display data in meeting user needs.

[0084] As an optional embodiment, in order to assist the user in determining whether the first operation was successfully performed when the user performs the first operation on either the first physiological parameter display component or the second physiological parameter display component, this embodiment of the application may also display visual feedback at a preset position of either display component when the first operation is performed on either of the above-mentioned display components. This visual feedback method can help the user intuitively obtain the success rate of the first operation, thereby improving the intuitiveness of the user in the process of performing the first operation.

[0085] Optionally, the visual feedback in this application embodiment includes bubbling, gradually increasing concentric circles, or selection reminders for any display component. Specifically, it can be text reminders, component display shape reminders, or voice reminders. There are no specific restrictions on the method of visual feedback here. However, this kind of vivid visual feedback in this application embodiment can more intuitively assist users in judging the effectiveness of the first operation.

[0086] As an optional embodiment, for the sake of intuitiveness of the second operation, this embodiment of the application may also display the movement path for any display component during the process of moving any one of the first physiological parameter display component and the second physiological parameter display component to another display component according to the second operation, thereby realizing the visualization of the movement process of any display component.

[0087] As an optional embodiment, in order to prevent accidental operation of the superposition operation of the first physiological parameter display component and the second physiological parameter display component, this embodiment of the application may further trigger the step of superimposing the first physiological parameter display component and the second physiological parameter display component with the other display component when the interaction device detects that the overlap time between any display component of the first physiological parameter display component and the other display component exceeds the first preset time after the interaction device detects the third operation.

[0088] Because this application embodiment detects the overlap time between the first physiological parameter display component and the second physiological parameter display component, and triggers the step of superimposing any one of the first physiological parameter display components and the second physiological parameter display component with the other display component after the overlap time exceeds the first preset duration, it avoids misoperation of the first physiological parameter display component and the second physiological parameter display component.

[0089] based on Figure 2 In an optional embodiment, after superimposing the first physiological parameter display component and the second physiological parameter display component, the processor in this embodiment can further obtain a fourth operation on the superimposed first physiological parameter display component and the second physiological parameter display component through an interactive device, activate the superimposed first physiological parameter display component and the second physiological parameter display component according to the fourth operation; obtain a fifth operation detected by the interactive device on the superimposed first physiological parameter display component and the second physiological parameter display component, and split the superimposed first physiological parameter display component and the second physiological parameter display component into independently displayed first physiological parameter display component and independently displayed second physiological parameter display component according to the fifth operation.

[0090] Optionally, the fourth and fifth operations can vary depending on the type of interactive device. For example, when the interactive device is a mouse, the fourth operation can be a long press, and the fifth operation can be a single click or double click. When the interactive device is a touchpad or a touch-sensitive screen, the fourth operation can be a long press, or triggering a split command in the operation menu that pops up after the first and second physiological parameter display components are overlaid. The fifth operation can be a confirmation operation to leave the touchpad. When the interactive device is a microphone, a motion sensor, or a camera, the processor can split the overlaid first and second physiological parameter display components into independently displayed first and second physiological parameter display components based solely on the fourth operation detected by the interactive device. Specifically, when the interactive device is a microphone, the fourth operation can be a statement related to the split command; when the interactive device is a motion sensor, the fourth operation can be any gesture operation pre-associated with the split command; and when the interactive device is a camera, the fourth operation can be any screen operation pre-associated with the split command.

[0091] For ease of understanding, Figure 4 A schematic diagram is provided illustrating the process of splitting the superimposed component A (representing the first physiological parameter display component) and component B (representing the second physiological parameter display component) into independently displayed components A and B. Figure 4 In this scenario, assuming the interactive device is a touch-sensitive screen, after long-pressing the superimposed A and B components, the superimposed A and B components can be activated, and then a visual feedback showing that the A and B components can be separated can be displayed. After the hand is removed, it can be confirmed that the superimposed A and B components have been separated into independently displayed A and B components.

[0092] In this embodiment of the application, after the first physiological parameter display component and the second physiological parameter display component are superimposed and displayed, the fourth operation and the fifth operation for the superimposed first physiological parameter display component and the second physiological parameter display component are detected, and the superimposed first physiological parameter display component and the second physiological parameter display component are split and displayed according to the fourth operation and the fifth operation, thereby improving the simplicity and convenience of splitting and displaying the superimposed first physiological parameter display component and the second physiological parameter display component.

[0093] Furthermore, embodiments of this application can also set different operation types for the fourth operation according to the type of interactive device, thereby improving the convenience of splitting the superimposed first physiological parameter display component and the independently displayed second physiological parameter display component into a first physiological parameter display component and an independently displayed second physiological parameter display component in scenarios with different types of interactive devices.

[0094] As an optional embodiment, in order to avoid erroneous operation of the first and second physiological parameter display components after overlay display, this embodiment of the application may further trigger the step of activating the first and second physiological parameter display components according to the fourth operation after detecting the fourth operation on the first and second physiological parameter display components after overlay display for a second preset duration (e.g., 5s).

[0095] Because the embodiments of this application can detect the operation duration of the fourth operation, and trigger the step of activating the first physiological parameter display component and the second physiological parameter display component that are superimposed and displayed according to the fourth operation after the operation duration of the fourth operation exceeds the second duration, thereby avoiding misoperation of the first physiological parameter display component and the second physiological parameter display component that are superimposed and displayed.

[0096] As an optional embodiment, the first physiological parameter display component and the second physiological parameter display component in this application embodiment include at least one of the following: a real-time waveform display component for vital signs, a real-time physiological parameter display component for vital signs, a historical physiological parameter display component for vital signs, an image and measurement parameter display component for human organ parts, and any chart display component generated based on clinical data of vital signs.

[0097] Specifically, the real-time vital signs waveform display component can be a heart rate waveform display component or a respiratory waveform display component; the real-time vital signs physiological parameter display component can be a blood oxygen parameter display component or a cardiac pumping volume parameter display component; the historical vital signs physiological parameter display component can be a historical blood pressure parameter display component or a historical blood oxygen saturation parameter limiting component; and the human organ imaging and measurement parameter display component can be an ultrasound image or an electroencephalogram image, etc. There are no specific restrictions on the parameter content displayed by the above components.

[0098] As an optional embodiment, when both the first physiological parameter display component and the second physiological parameter display component include a real-time vital signs physiological parameter display component, the first physiological parameter display component may include a primary physiological parameter display component, and the second physiological parameter display component may include at least one secondary physiological parameter display component. Here, the primary physiological parameter display component is the parameter component that the user mainly focuses on in the monitoring scenario, and the primary physiological parameters in the primary physiological parameter display component need to be observable from a great distance away from the display device. The secondary physiological parameters displayed in the secondary physiological parameter component are auxiliary parameters used to assist in observing the primary physiological parameters. For example, in the blood oxygen saturation parameters, the blood oxygen saturation parameter SpO2 is the primary physiological parameter, while the perfusion index PI and pulse rate PR are secondary physiological parameters.

[0099] The following describes the process by which the processor overlays and splits the display of primary and secondary physiological parameters when the first physiological parameter display component is the primary physiological parameter display component and the second physiological parameter display component is at least one secondary physiological parameter display component:

[0100] Specifically, the processor can acquire a second operation detected by the interactive device for at least one secondary physiological parameter display component, move the at least one secondary physiological parameter display component to the first display area of ​​the primary physiological parameter display component according to the second operation, acquire a third operation detected by the interactive device for at least one secondary physiological parameter display component, and reduce the display size of the at least one secondary physiological parameter display component in the first display area of ​​the primary physiological parameter display component according to the third operation.

[0101] For ease of understanding, Figure 5 A schematic diagram is provided showing the process of overlaying the secondary physiological parameter display components (perfusion index PI display component and pulse rate PR display component) with the primary physiological parameter display component (SpO2 parameter display component).

[0102] Specifically, in Figure 5 In the process, when a first operation (such as a long press) is detected on the secondary parameters PI and RP through the interactive device, the secondary parameter PI display component and the RP display component are activated according to the first operation. Then, a second operation (such as a drag operation) is obtained on the secondary parameter PI display component and the RP display component, and the secondary parameter PI display component and the RP display component are moved to the first display area of ​​the Sp02 parameter display component according to the second operation. Then, a third operation (such as an off-screen operation) is obtained on the secondary parameter PI display component and the RP display component, and the secondary parameter PI display component and the RP display component are superimposed and shrunk at the first display area of ​​the Sp02 parameter display component according to the third operation, thereby realizing the superimposed display of the secondary parameter PI display component and the RP display component and the primary parameter Sp02 display component.

[0103] In this embodiment of the application, when the first parameter display component is the primary parameter display component and the second parameter display component is the secondary parameter display component, the secondary parameter display component is simultaneously scaled down while the secondary parameter display component and the primary parameter display component are overlaid. This achieves the simultaneous viewing of the secondary parameter display component without affecting the viewing of the primary parameter display component.

[0104] As an optional embodiment, the following describes the process of separating the primary and secondary physiological parameter display components after superimposed display when the first physiological parameter display component is the primary physiological parameter display component and the second physiological parameter display component is the secondary physiological parameter display component:

[0105] Specifically, such as Figure 6 As shown, when the processor detects a fourth operation (such as a long press operation) on at least one secondary physiological parameter display component (such as a secondary parameter PI display component and a secondary parameter RP display component) through an interactive device (such as a touch screen), it activates the superimposed display of the primary physiological parameter display component (Sp02 display component) and at least one secondary physiological parameter display component (such as a secondary parameter PI display component and a secondary parameter RP display component) according to the fourth operation; it acquires a fifth operation (such as a drag operation) on at least one physiological parameter display component (such as a secondary parameter PI display component and a secondary parameter RP display component) detected by the interactive device, and moves at least one secondary physiological parameter display component to a second display area at a preset distance from the primary physiological parameter display component according to the fifth operation; it acquires a sixth operation (such as a leave operation) on at least one secondary physiological parameter display component (such as a secondary parameter PI display component and a secondary parameter RP display component) detected by the interactive device, and separates and enlarges the at least one secondary physiological parameter display component (such as a secondary parameter PI display component and a secondary parameter RP display component) from the primary physiological parameter display component (Sp02 display component) in the second display area according to the sixth operation.

[0106] In this embodiment, when the screen size is sufficient, or when the user needs to simultaneously focus on primary and secondary physiological parameters, the secondary physiological parameter display component, which is displayed in a smaller size, can be split and displayed separately from the primary physiological parameter display component. The split secondary physiological parameter display component can then be enlarged and displayed simultaneously, thereby improving the convenience for the user to view the primary and secondary physiological parameter display components at the same time.

[0107] As an optional embodiment, this application embodiment may also display, after superimposing the first physiological parameter display component and the second physiological parameter display component, a prompt message associated with the physiological parameter information in either the first physiological parameter display component or the second physiological parameter display component. Here, the prompt message may be the physical quantity of the physiological parameter itself, or a prompt message about whether the physiological parameter value is normal after comparing the material quantity with the normal range value. The specific content of the prompt message is not specifically limited here.

[0108] For ease of understanding, a detailed description is provided below:

[0109] Optionally, if the first physiological parameter display component is used to display the electrocardiogram of the subject under test at a first moment, and the second physiological parameter display component is used to display the electrocardiogram of the subject under test at a second moment, then the processor is specifically used to: display prompt information related to the electrocardiogram of the subject under test in relation to the superimposed electrocardiogram of the subject under test at the first moment and the electrocardiogram of the subject under test at the second moment.

[0110] The embodiments of this application can directly provide prompts indicating whether the electrocardiogram is abnormal after it is overlaid and displayed, thereby improving the intuitiveness and convenience of comparing electrocardiograms.

[0111] For ease of understanding, Figure 7 The diagram shows the overlay of the ECG of the subject at the first moment and the ECG at the second moment. For the overlay ECG, the processor can display prompts regarding the sinus P wave, PR interval, QRS complex, ST segment, and / or T wave. Specifically:

[0112] 1. P wave: Represents changes in atrial depolarization potential; normal P wave duration is <0.12 seconds.

[0113] 2. PR interval: The PR interval refers to the time from the start of the P wave to the start of the QRS complex, representing the time from the start of atrial depolarization to the start of ventricular depolarization. The normal range is 0.12-0.20 seconds. If it is >0.20 seconds, it may indicate first-degree atrioventricular block.

[0114] 3. QRS wave: Represents the change in ventricular depolarization potential; the normal duration is 0.06-0.10 seconds.

[0115] 4. ST segment: From the end of the QRS wave to the beginning of the T wave, the normal ST segment is mostly an isoelectric line. If the ST segment is elevated or depressed, it is an abnormal situation.

[0116] 5. T wave: Represents the potential changes during rapid ventricular repolarization. Changes in the T wave can also indicate possible heart disease.

[0117] Optionally, if the first physiological parameter display component is used to display the invasive blood pressure monitoring waveform (IBP waveform) of the subject under test at a first moment, and the second physiological parameter display component is used to display the invasive blood pressure monitoring waveform of the subject under test at a second moment, then the processor is specifically used to: display prompt information related to the invasive blood pressure monitoring waveform of the subject under test in relation to the superimposed invasive blood pressure monitoring waveform of the subject under test at the first moment and the invasive blood pressure monitoring waveform of the subject under test at the second moment.

[0118] For ease of understanding, Figure 8A schematic diagram is provided showing the superimposed display of the invasive blood pressure monitoring waveform (IBP waveform) of the subject at the first moment and the invasive blood pressure monitoring waveform (IBP waveform) of the subject at the second moment. Figure 8 In this system, users can overlay invasive blood pressure monitoring waveforms from different times and display the diastolic blood pressure (the lowest point in the waveform), systolic blood pressure (the peak point in the waveform), and the boundary between diastolic and systolic blood pressure in the overlaid invasive blood pressure monitoring waveform. This allows users to judge the myocardial contractility and hemodynamic status of the subject by observing changes in the arterial waveform, thus providing a data basis for doctors' auxiliary judgment in medicine.

[0119] Optionally, if the first physiological parameter display component is used to display the invasive blood pressure monitoring waveform (IBP waveform) of the subject at the first moment, and the second physiological parameter display component is used to display the central venous pressure waveform (CVP waveform) of the subject at the first moment, then the processor is specifically configured to: display the pressure difference between the peak value of the invasive blood pressure monitoring waveform and the peak value of the central venous pressure waveform for the superimposed invasive blood pressure monitoring waveform and the central venous pressure waveform of the subject at the first moment; and display prompt information related to the blood circulation status of the subject based on the pressure difference; and / or display the time difference between the peak value of the invasive blood pressure monitoring waveform and the peak value of the central venous pressure waveform; and display prompt information related to the blood flow transmission status of the subject based on the time difference.

[0120] For ease of understanding, Figure 9 A schematic diagram is provided showing the superimposed display of the invasive blood pressure monitoring waveform (IBP waveform) and the central venous pressure waveform (CVP waveform) of the subject at the first moment. Figure 9 In this process, the peak value of the IBP waveform at point a can be compared with the peak value of the CVP waveform at point a′, and the pressure difference between the peak values ​​at points a and a′ can be obtained. This pressure difference is then compared with the normal reference range to determine whether the blood circulation of the subject under test is normal. Furthermore, the time t corresponding to the peak value of the IBP waveform at point a can be compared with the time t′ corresponding to the peak value of the CVP waveform at point a′ to obtain the time difference between t and t′. Based on this time difference, the time it takes for blood to travel from the heart to the limbs can be assessed to obtain information about the blood flow transmission status of the subject under test.

[0121] Optionally, if the first physiological parameter display component is used to display the electrocardiogram of the subject under test at a first moment, and the second physiological parameter display component is used to display the central venous pressure waveform of the subject under test at a first moment, then the processor is specifically used to: display prompt information related to the amount of blood output by the subject under test within one cardiac cycle for the superimposed display of the electrocardiogram and the central venous pressure waveform of the subject under test at a first moment.

[0122] For ease of understanding, Figure 10 A schematic diagram is provided showing the overlay of the subject's electrocardiogram (ECG) at the first moment and the subject's central venous pressure (CVP) waveform at the first moment. Figure 10 In the study, it can be seen that changes in central venous pressure are strongly correlated with cardiac activity. Figure 10 By comparing the A wave, C wave, X wave, V wave, and Y wave with different cycles of the electrocardiogram waveform, it is possible to see the relevant situation of the heart's blood output within a cardiac cycle, thereby enabling an assessment of the hemodynamic status of the subject being tested.

[0123] Optionally, if the first physiological parameter display component is used to display the motion scan cardiac or lung ultrasound image of the subject under test at a first moment, and the second physiological parameter display component is used to display the electrocardiogram of the subject under test at a first moment, then the processor is specifically used to: display prompt information related to the cardiac cycle of the subject under test for the superimposed display of the motion scan cardiac or lung ultrasound image of the subject under test at a first moment and the electrocardiogram of the subject under test at a first moment.

[0124] For ease of understanding, Figure 11 A schematic diagram is provided showing the overlay of the subject's motion-guided echocardiogram or lung ultrasound image (i.e., M-mode echocardiogram) at the first moment with the subject's electrocardiogram at the first moment. Figure 11 In motion-guided echocardiography (HACE) of the heart or lungs, the blood flow in the inferior vena cava is visualized and used to measure blood flow-related parameters. Without overlay with an electrocardiogram (ECG), the cardiac cycle can only be estimated by roughly determining the timing of systole and diastole based on the fluctuations in the image, leading to inaccurate estimations. However, when HACE and ECG are overlaid at the same moment, they are presented in the same time dimension, allowing for precise and clear visualization of the heart's systole and diastole points. This enables more accurate measurement of the duration of a cardiac cycle (e.g., systole and diastole). Figure 11 The interval between 'a' and 'b' in the equation represents one cardiac cycle.

[0125] Optionally, if the first physiological parameter display component is used to display the motion scan cardiac or lung ultrasound image of the subject under test at a first moment, and the second physiological parameter display component is used to display the invasive blood pressure monitoring waveform of the subject under test at a first moment, then the processor is specifically used to: display prompt information related to the myocardial contraction and pumping capacity of the subject under test within at least one cardiac cycle for the superimposed display of the motion scan cardiac or lung ultrasound image of the subject under test at a first moment and the invasive blood pressure monitoring waveform of the subject under test at a first moment.

[0126] For ease of understanding, Figure 12 A schematic diagram is provided showing the overlay of a motion-based cardiac or lung ultrasound image of the subject at the first moment and an invasive blood pressure monitoring waveform of the subject at the first moment. Figure 12 Similar to overlaying ECG waveforms, in clinical practice, doctors may need to overlay different waveforms to simultaneously view ultrasound measurements within the same time period. For example, IBP waveforms assess the myocardial contraction and pumping capacity within a cardiac cycle from a hemodynamic perspective. By overlaying these waveforms, doctors can more accurately identify the corresponding cardiac cycle and observe the corresponding clinical parameter values ​​measured at the ultrasound imaging sites within that cycle.

[0127] Optionally, if the first physiological parameter display component is used to display the motion scan cardiac or lung ultrasound image of the subject at the first moment, and the second physiological parameter display component is used to display the end-expiratory carbon dioxide waveform of the subject at the first moment, then the processor is specifically used to: display prompt information related to the respiratory cycle of the subject at the first moment for the superimposed display of the motion scan cardiac or lung ultrasound image and the end-expiratory carbon dioxide waveform of the subject at the first moment.

[0128] For ease of understanding, Figure 13 A schematic diagram is provided showing the superposition of a motion-scan ultrasound image of the subject's heart or lungs at the first moment and the subject's end-tidal carbon dioxide waveform at the first moment. Figure 13 Similar to ECG waveform overlay, in clinical practice, doctors may need to overlay different waveforms to simultaneously view ultrasound measurements within the same time period. For example, the ETCO2 waveform assesses hemodynamics from the perspective of the respiratory cycle, through the blood vessels associated with the lungs. By overlaying these waveforms, doctors can more accurately identify the hemodynamic status within a respiratory cycle, thereby observing the corresponding clinical parameter values ​​measured at the ultrasound imaging sites during that cycle.

[0129] To facilitate users' understanding of the operation methods and corresponding commands when performing the first, second, third, or fourth operations through the interactive device, the processor in this embodiment can also display interactive guidance in the following ways:

[0130] As an optional implementation, users can obtain interactive guidance through the help menu. For ease of understanding, Figure 14 A schematic diagram is provided showing interactive guidance through the help menu.

[0131] Specifically, in Figure 14 In the process, the processor can trigger the display device to display a help menu based on the seventh operation detected by the interactive device. The help menu is used to display interactive guidance based on the interactive device. The interactive guidance includes the operation mode based on the interactive device and the operation instructions generated corresponding to the operation mode.

[0132] Specifically, the seventh operation here can be any operation associated with the help menu, and the type of operation can vary depending on the type of interactive device. For example, when the interactive device is a mouse, the seventh operation can be a single click or double click; when the interactive device is a keyboard, the seventh operation can be any shortcut key operation that triggers the display of the help menu; when the interactive device is a touchpad, the seventh operation can be a touch operation that triggers the display of the help menu; when the interactive device is a microphone, the seventh operation can be a voice command that triggers the display of the help menu; when the interactive device is a motion sensor, the seventh operation can be any gesture that triggers the display of the help menu; and when the interactive device is a camera, the seventh operation can be any screen that triggers the display of the help menu. There are no specific restrictions on the type of the seventh operation here.

[0133] Specifically, the interactive guidance includes at least the operation mode based on the interactive device, and the operation instructions corresponding to the operation mode. For example, when the interactive device is a touchpad or a touch-sensitive screen, when displaying the interactive guidance, at least the operation modes of performing the first operation, the second operation, the third operation, the fourth operation, the fifth operation, and the sixth operation using the touchpad or touch-sensitive screen are displayed, as well as the operation instructions corresponding to the first operation, the second operation, the third operation, the fourth operation, the fifth operation, and the sixth operation.

[0134] To make it easier to understand, the following example is provided:

[0135] Assuming the first operation is a long press, the interaction guide will display the operation details (e.g., long-pressing an object for more than 5 seconds) and the corresponding operation instructions. For example, if the first physiological parameter display component is long-pressed for more than 5 seconds, the first physiological parameter display component will be activated. If the second operation is a drag, the interaction guide will display the drag operation details (e.g., dragging an object from point A to point B) and the corresponding operation instructions. For example, dragging an object from point A to point B will move the object from point A to point B. If the third operation is a release operation... When the image is manipulated, the operation content of the third operation will be displayed (such as showing the hand leaving a certain object), as well as the corresponding operation instructions for the third operation. For example, when the hand leaves a certain object, it will confirm that the object is placed at point B. When the fourth operation is a long press operation, the operation content and corresponding operation instructions for the long press operation will be similar to the description of the first operation. When the fifth operation is a drag operation, the description of the fifth operation will be similar to the description of the second operation. When the sixth operation is a leave operation, the description of the sixth operation will be similar to the description of the third operation. These will not be repeated here.

[0136] Before a user performs any of the first to sixth operations on any physiological parameter display component, the embodiments of this application display interactive guidance for the interactive device through a help menu, thereby providing intuitive guidance to the user and improving the convenience of operating the interactive device.

[0137] As an optional implementation, interactive guidance can also be displayed in actual operation scenarios for ease of understanding. Figure 15 A schematic diagram illustrating the interactive guidance in a real-world operational scenario is provided.

[0138] Specifically, in Figure 15 In this process, when the processor detects a first operation, a second operation, a third operation, a fourth operation, or a fifth operation through the interactive device, it can trigger the display device to display interactive guidance. The interactive guidance includes the operation mode of the first operation, the operation mode of the second operation, the operation mode of the third operation, the operation mode of the fourth operation, or the operation mode of the fifth operation, as well as the operation instructions corresponding to the first operation, the operation instructions corresponding to the second operation, the operation instructions corresponding to the third operation, the operation instructions corresponding to the fourth operation, and the operation instructions corresponding to the fifth operation.

[0139] Specifically, in this embodiment, when each operation is detected by the interactive device, an interactive guide for each operation is displayed. For example, when the first operation is detected by the interactive device, an interactive guide for the first operation is displayed, and when the second operation is detected by the interactive device, an interactive guide for the second operation is displayed. This method of displaying interactive guides for each operation when each operation is detected improves the intuitiveness and convenience for users to obtain interactive guides in actual operation scenarios.

[0140] As an optional embodiment, this application embodiment may also detect the operation frequency for the first operation, the second operation, the third operation, the fourth operation, or the fifth operation, and trigger the display device to display interactive guidance when the operation frequency for any operation is greater than a preset frequency. The interactive guidance includes the operation mode of the operation greater than the preset frequency, and the operation command corresponding to the operation greater than the preset frequency.

[0141] Specifically, the processor counts the frequency of the first, second, third, fourth, and fifth operations detected by the interactive device. If the frequency of any operation exceeds a preset frequency (which can be customized according to the actual application scenario, such as exceeding 50 or 30 times per unit time), interactive guidance for that operation is displayed. For example, if the frequency of the first operation detected by the interactive device exceeds 50 times, interactive guidance for the first operation is displayed. The content of the interactive guidance for each operation depends on the type of interactive device and the specific operation method. There are no specific restrictions on the content of the interactive guidance for each operation here.

[0142] In this embodiment of the application, when the frequency of any operation is detected by the interactive device to be greater than a preset frequency, the corresponding interactive guidance content for that operation is displayed, thereby improving the convenience for users to obtain interactive guidance for an operation when they are not familiar with it (because users may be unfamiliar with the operation, which leads to frequent execution of the operation).

[0143] The following describes another embodiment of the monitoring system in this application. Specifically, the monitoring system in this application includes at least one physiological parameter sensor 10, a display device 20, an interaction device 30, a processor 40, and a memory 50.

[0144] At least one physiological parameter sensor 10 is used to connect to the object to be detected in order to obtain the physiological data of the object to be detected. The specific functional form of the physiological parameter sensor 10 is similar to that described in the foregoing section, and will not be repeated here.

[0145] Display device 20 is used to display a human-computer interaction interface;

[0146] Interactive device 30 is used to detect operations on the human-computer interaction interface;

[0147] Processor 40, when executing a computer program stored in memory 50, is used to perform, for example... Figure 16 The method steps are as follows:

[0148] 1601. Acquire physiological data collected by at least one physiological parameter sensor connected to the object to be detected, and process the physiological data to obtain physiological parameter information of the object to be detected;

[0149] Specifically, in the embodiments of this application, the physiological data collected by the physiological parameter sensor can be directly transmitted to the processor in real time for processing, or the physiological data collected by the physiological parameter sensor can be stored in the memory first, and then the processor can retrieve it from the memory and process the physiological data retrieved from the memory to obtain physiological parameter information.

[0150] Optionally, in the embodiments of this application, when the processor processes physiological data, it may perform calculations on the collected discrete physiological data through a preset algorithm to obtain the processed results, or it may perform data preprocessing on the collected physiological data (such as deleting invalid data and / or performing normalization processing on the data) and then obtain physiological parameter information displayed in the form of waveform graphs, line graphs, or curve graphs.

[0151] 1602. The control display device displays a physiological parameter display component on the human-computer interaction interface, the physiological parameter display component being used to display physiological parameter information obtained through physiological sensors;

[0152] After the processor processes the acquired physiological data to obtain physiological parameter information, it can control the display device to display the physiological parameter display component in the human-machine interface. The physiological parameter display component is used to display the physiological parameter information obtained in the above steps. The physiological parameter display component can be a program display window, card, plug-in, or display element, etc. There are no specific restrictions on the external appearance of the physiological parameter display component.

[0153] Specifically, the physiological parameter information displayed by the physiological parameter display component can be text information, waveform information, image information and / or chart information, etc. There are no restrictions on the specific content of the physiological parameter information displayed by the physiological parameter display component.

[0154] 1603. Obtain the first operation detected by the interactive device for the physiological parameter display component, and activate the physiological parameter display component according to the operation instruction of the first operation;

[0155] To facilitate viewing the physiological parameter information displayed in the physiological parameter display component in different scenarios (such as when the doctor is far from the display device, or when the doctor is close to the display device, or when the doctor is more concerned about the physiological parameters in a certain physiological parameter display component), the embodiments of this application can adjust the display range of the physiological parameter display component to adapt to viewing the physiological parameters displayed in the physiological parameter display component in different application scenarios.

[0156] Specifically, in order to adjust the display range of the physiological parameter display component, the physiological parameter display component needs to be activated first. In this embodiment, the first operation on the physiological parameter display component can be detected by the interactive device, and the physiological parameter display component can be activated according to the first operation. The operation type of the first operation varies depending on the type of interactive device.

[0157] For example, when the interaction device is a mouse, the first operation can be a single click or double click; when the interaction device is a touchpad or touch-sensitive screen, the first operation can be a long press; when the interaction device is an encoder, the first operation can be a press operation; when the interaction device is a microphone, the first operation can be a specific voice command; and when the interaction device is a motion-sensing device, the first operation can be a specific action command, etc. There are no specific restrictions on the type of the first operation here.

[0158] 1604. Obtain the second operation detected by the interactive device for the physiological parameter display component, adjust the display range of selected data in the physiological parameter display component according to the operation instruction of the second operation, and adjust the image resolution of the selected data from a first resolution to a second resolution when adjusting the display range of the selected data, wherein the first resolution is greater than the second resolution, or the first resolution is less than the second resolution.

[0159] When the physiological parameter display component is activated according to the first operation, the second operation detected by the interactive device for the physiological parameter display component is obtained, and the display range of the selected data in the physiological parameter display component is adjusted according to the operation instruction of the second operation. When adjusting the display range of the selected data, the image resolution of the selected data is adjusted from the first resolution to the second resolution. Here, the second resolution can be greater than the first resolution or less than the first resolution.

[0160] It is easy to understand that when the display range of the selected data is increased, that is, when the display range of the selected data is enlarged, the second resolution is greater than the first resolution, and when the display range of the selected data is decreased, that is, when the display range of the selected data is reduced, the second resolution is less than the first resolution.

[0161] Specifically, the operation type of the second operation in the embodiments of this application also varies depending on the interactive device. For example, when the interactive device is a mouse, the second operation can be a double-click on an image or a single click to zoom in or out of the image; when the interactive device is a touchpad or a touch-sensitive screen, the second operation can be a two-finger zoom operation or a two-finger pinch operation; when the interactive device is an encoder, the second operation can be a pressing operation on the encoder; when the interactive device is a microphone, the second operation can be a specific voice command to zoom in or out of an image; and when the interactive device is a motion-sensing device, the second operation can be a specific gesture operation to zoom in or out of an image.

[0162] In this embodiment of the application, the display range of selected data in the physiological parameter display component can be adjusted according to the second operation for the physiological parameter display component, and when adjusting the display range of the selected data, the image resolution of the selected data is adjusted from the first resolution to the second resolution, where the second resolution is greater than the first resolution or less than the first resolution.

[0163] Because when adjusting the display range of selected data in this embodiment, not only is the display range of selected data adjusted, but the image resolution of selected data is also adjusted from the first resolution to the second resolution. This allows for the acquisition of more image and data details when the display range of the image is increased, while reducing the amount of data in the image when the display range of the image is decreased, thereby saving the memory usage of the image.

[0164] The following description uses the second operation, which is a two-finger zoom-in operation, as an example to illustrate the process of adjusting the selected data display range and changing the image resolution of the selected data from the first resolution to the second resolution:

[0165] As an optional embodiment, when adjusting the display range of an image using a two-finger zoom operation, the two contact points between the two fingers and the interactive device before the two-finger zoom operation can be obtained through the interactive device. A circle is drawn with the distance between the two contact points as the diameter. Data points within the area of ​​the circle that are displayed overlappingly at a preset distance from the circumference are selected as data. The image of the selected data is displayed on the display interface of the physiological parameter display component at a preset magnification. Based on the magnification, the amount of data of the selected data is supplemented so that the supplemented data is adapted to the second resolution.

[0166] For ease of understanding, Figure 17 A schematic diagram illustrating the process of determining the selected data based on the two-finger zoom operation is provided. Figure 17In this example, assuming points A and B in the waveform are the two contact points with the interactive device, a circle is drawn with the distance between points A and B as its diameter (assuming the radius of this circle is r). Data points within the circle's area that are displayed overlappingly at a preset distance from the circumference (e.g., r, r / 3, or r / 2) are selected as the data. The image of the selected data is then displayed on the physiological parameter display component's interface at a preset magnification. Based on this magnification, the selected data is supplemented to fit the magnified image. Specifically, the preset magnification is related to the distance between the two fingers and the two contact points on the interactive device after a two-finger magnification operation. For example, if the distance between the two fingers and the interactive device after the two-finger magnification operation is N times the distance before the operation, then the magnification is N times, where N > 1. Specifically, when N is 3, the magnification is 3 times; when N is 3.5, the magnification is 3.5 times.

[0167] As another optional embodiment, when adjusting the display range of an image using a two-finger zoom operation, the two interactive touch points between the two fingers and the interactive device after the two-finger zoom operation can be obtained; the distance between the two interactive touch points is used as the diagonal to determine a quadrilateral; the data within the quadrilateral is determined as the selected data; the image of the selected data is displayed on the display interface of the physiological parameter display component at a preset magnification, wherein the preset magnification is related to the distance between the two interactive touch points between the two fingers and the interactive device after the two-finger zoom operation; and the amount of data of the selected data is supplemented according to the magnification so that the supplemented data is adapted to the magnified image.

[0168] For ease of understanding, Figure 18 A schematic diagram illustrating the process of determining the selected data based on the two-finger zoom operation is provided. Figure 18 In this example, assuming points A and B in the waveform are the two contact points with the interactive device, a quadrilateral is defined with the distance between points A and B as its diagonal. The data within this quadrilateral is designated as the selected data. The image of the selected data is displayed on the physiological parameter display component's interface at a preset magnification. Based on this magnification, the selected data is supplemented to fit the magnified image. Specifically, the preset magnification is related to the distance between the two contact points between the two fingers and the interactive device after a two-finger magnification operation. For example, if the distance between the two fingers and the interactive device after the two-finger magnification operation is N times the distance before the operation, then the magnification is N times, where N > 1. Specifically, when N is 3, the magnification is 3 times; when N is 3.5, the magnification is 3.5 times.

[0169] In the above embodiments, when magnifying and adjusting the resolution of an image, the selected data is determined based on the distance between the two fingers and the screen contact point before the two-finger magnification operation, and the magnification factor is determined based on the distance between the two fingers and the screen contact point after the two-finger magnification operation. The image is then magnified based on the magnification factor, and the amount of selected data is supplemented based on the magnification factor. This improves the resolution of the data in the image while magnifying the display range of the image, allowing the user to obtain more image details.

[0170] As another optional embodiment, when adjusting the display range of an image using a two-finger zoom operation, the interaction point between the two fingers and the interaction device before the two-finger zoom operation can also be obtained, as detected by the interaction device. Based on the interaction point, the user's historical zoom records at the interaction point are queried. The data range and zoom level selected in the historical zoom records are determined as the currently selected data and the current zoom level. The currently selected data is displayed in the display interface of the physiological parameter display component at the current zoom level. Based on the current zoom level, the data volume of the currently selected data is supplemented so that the supplemented data volume is adapted to the magnified image.

[0171] Specifically, if the coordinates of the interaction points between the two fingers and the interaction device before the two-finger magnification operation are detected by the interactive device as (x1, y1) and (x2, y2), then the historical records are queried to determine the historical magnification records for (x1, y1) and (x2, y2). Then, the selected data range and magnification factor in the historical magnification record are determined. For example, if the data range determined for the contact points (x1, y1) and (x2, y2) in the historical records is data point 1 to data point 50, and the magnification factor is 3, then the historical selected data (data point 1 to data point 50) and the magnification factor 3 are determined as the current selected data and the current magnification factor. Based on the magnification factor 3, the image of the selected data (data point 1 to data point 50) is magnified and displayed. In addition, based on the magnification factor 3, the original 50 data points are supplemented so that the supplemented data volume is adapted to the magnified image.

[0172] In this embodiment, selected data and magnification related to the contact point of the two-finger magnification operation are determined from historical records. Based on the selected data and magnification, the image of the selected data is magnified, and the data volume of the selected data is supplemented, thereby improving the convenience of magnifying the image and correspondingly improving the convenience of obtaining more image details.

[0173] Based on the above operation of magnifying image data using the two-finger zoom-in technique, the following describes the process of supplementing selected quantities:

[0174] Specifically, after determining the magnification factor, the display size of the selected data after magnification is further calculated. Then, based on the magnified display size, the amount of data adapted to the resolution of that display size is obtained. Finally, based on the amount of data adapted to the resolution of that display size, the amount of data of the selected data is supplemented.

[0175] In the above embodiment, when the magnification factor is determined to be 3, and the original display size is 1cm, the magnified display size is 3cm. Based on the magnified display size of 3cm, the amount of data adapted to the 3cm resolution is obtained. Assuming that the amount of data adapted to the 3cm resolution is 80, the amount of data selected is supplemented based on this amount of data. For example, if the amount of data before magnification is 50, then 30 more data are added on the basis of the 50 data, so that the amount of data after supplementation is 80.

[0176] In this embodiment of the application, the process of supplementing the selected data volume is described in detail, thereby improving the convenience of supplementing the selected data volume.

[0177] Furthermore, based on the process of magnifying and displaying data based on the two-finger magnification operation described in the above embodiments, in order to avoid image abrupt changes when magnifying the image, the embodiments of this application may also control the image of the selected data to be magnified proportionally before supplementing the data amount of the selected data, and trigger the supplementation of the data amount of the selected data when the interactive device detects that the two fingers have moved to a preset distance, so that the supplemented data amount is adapted to the magnified image.

[0178] Specifically, if the contact points between the two fingers and the interactive device are points A and B before the two-finger zoom operation, and points A′ and B′ after the two-finger zoom operation, assuming the distance between A and A′ is S1 and the distance between B and B′ is S2, then before point A moves to S1 / 3 and point B moves to S2 / 3, the image of the selected data can be proportionally enlarged. Then, when point A moves to S1 / 3 and point B moves to S2 / 3, the amount of data of the selected data can be supplemented so that the supplemented data is adapted to the enlarged image, thereby avoiding the abruptness caused by the sudden change in the image of the selected data and improving the smoothness of the image zoom process.

[0179] Furthermore, when adjusting the display range of selected data in the physiological parameter display component based on the two-finger zoom operation described in the above embodiments, if the physiological parameter information in the physiological parameter display component includes at least three display dimensions, but the physiological parameter display component only displays two dimensions of physiological parameter information, the processor is also used to adjust the display dimensions of the selected data from two display dimensions to at least three display dimensions when adjusting the display range of the selected data according to the second operation.

[0180] For ease of understanding, Figure 19 This paper presents a schematic diagram illustrating how the display dimension of selected data is adjusted from two-dimensional to three-dimensional when the display area of ​​the selected data image is magnified. Figure 19 In this context, when adjusting the display range of selected data, if it is determined that the data on both the X-axis and Y-axis are related to the time dimension, the image of the selected data can be adjusted from a two-dimensional display to a three-dimensional display that includes the time dimension, thereby improving the intuitiveness and convenience for users to view selected data in multiple dimensions.

[0181] As an optional embodiment, when adjusting the image of selected data from a two-dimensional display to a three-dimensional display, the coordinate meanings of the three display dimensions can be interchanged. For example, the original X-axis can be converted to the Y-axis, the original Y-axis can be converted to the Z-axis, and the newly added third display dimension can be used as the X-axis. Of course, the above coordinate replacement process is only an explanation of the process of replacing coordinates with each other and not a limitation. All kinds of replacement schemes of coordinate axes between the three display dimensions are within the protection scope of this application.

[0182] As an optional embodiment, when displaying the third dimension, it can be displayed as a tab in the physiological parameter display component, thereby improving the intuitiveness of viewing the third display dimension.

[0183] The process of zooming in on the selected data image has been described in detail above. The process of zooming out on the zoomed-in image will be described below:

[0184] Optionally, after magnifying the display range of the selected data, the processor can also acquire a third operation detected by the interactive device for the magnified image, reduce the display range of the magnified image according to the operation instruction of the third operation, and adjust the resolution of the image from the second resolution to the first resolution when reducing the display range of the magnified image.

[0185] Optionally, the third operation includes a two-finger pinch operation. When reducing the size of the magnified image, the magnified image can be reduced to its original size before magnification. Based on the original size, the amount of data adapted to the resolution of the original size is obtained. Based on the amount of data adapted to the resolution of the original size, the resolution of the reduced image is adjusted from the second resolution to the first resolution.

[0186] Specifically, if the enlarged display size is 3cm and the original display size is 1cm, then based on the original display size of 1cm, the amount of data adapted to the 1cm resolution is obtained. Assuming that the amount of data adapted to the 1cm resolution is 50, then based on the amount of data at the 3cm resolution (assuming that the amount of data is 80), the amount of data of the selected data is reduced. For example, if the enlarged data amount is 80, then based on the 80 data, 30 more are reduced, so that the reduced data amount is 50.

[0187] Optionally, in the process of shrinking the enlarged image to its original size, in order to avoid the problem of abrupt image changes, the embodiments of this application may first control the enlarged image to be shrunk proportionally, and then trigger the step of obtaining the amount of data adapted to the original size resolution based on the original size when the interactive device detects that two fingers are pinched to a preset distance.

[0188] Optionally, when shrinking a magnified image based on a two-finger pinch operation, if the magnified image is adjusted from its original two display dimensions to at least three display dimensions, the processor can also adjust the shrunk image from at least three display dimensions back to its original two display dimensions based on the two-finger pinch operation. This further reduces the display size of the image.

[0189] The process of shrinking the enlarged image by pinching with two fingers is the opposite of the process of enlarging the original image by pinching with two fingers, and will not be described in detail here.

[0190] To facilitate users' understanding of the operation methods and corresponding commands when performing the first, second, or third operation through the interactive device, the processor in this embodiment can also display interactive guidance in the following ways:

[0191] As an optional embodiment, the user can obtain interactive guidance through a help menu. The processor can trigger the display device to display the help menu based on the fourth operation detected by the interactive device. The help menu is used to display interactive guidance based on the interactive device. The interactive guidance includes the operation mode based on the interactive device and the operation instructions generated corresponding to the operation mode.

[0192] The specific description of this interactive guidance method and Figure 14 The descriptions in the text are similar and can be used for reference; further details will not be provided here.

[0193] In this embodiment of the application, before the user performs the first, second, or third operation on any physiological parameter display component, an interactive guide for the interactive device is displayed through a help menu, thereby providing the user with intuitive guidance and improving the ease of operation of the interactive device.

[0194] As an optional embodiment, interactive guidance can also be displayed in actual operation scenarios. Specifically, when the processor detects the first operation or the second operation through the interactive device, it can trigger the display device to display interactive guidance. The interactive guidance includes the operation mode of the first operation, the operation mode of the second operation, and the operation instructions corresponding to the first operation and the operation instructions corresponding to the second operation.

[0195] The specific description of this interactive guidance method and Figure 15 The descriptions in the text are similar and can be used for reference; further details will not be provided here.

[0196] Specifically, in this embodiment, when each operation is detected by the interactive device, an interactive guide for each operation is displayed. For example, when the first operation is detected by the interactive device, an interactive guide for the first operation is displayed, and when the second operation is detected by the interactive device, an interactive guide for the second operation is displayed. This method of displaying interactive guides for each operation when each operation is detected improves the intuitiveness and convenience for users to obtain interactive guides in actual operation scenarios.

[0197] As an optional embodiment, this application embodiment may also detect the operation frequency for the first operation or the second operation, and trigger the display device to display interactive guidance when the operation frequency for either operation is greater than a preset frequency. The interactive guidance includes the operation mode of the operation greater than the preset frequency, and the operation command corresponding to the operation greater than the preset frequency.

[0198] The description of this embodiment is similar to that of the embodiments described above, and they can be referred to each other. It will not be repeated here.

[0199] In this embodiment of the application, when the frequency of any operation is detected by the interactive device to be greater than a preset frequency, the corresponding interactive guidance content for that operation is displayed, thereby improving the convenience for users to obtain interactive guidance for an operation when they are not familiar with it (because users may be unfamiliar with the operation, which leads to frequent execution of the operation).

[0200] The above-described embodiments are only used to illustrate the technical solutions of the present invention, and are not intended to limit it. Although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art should understand that modifications can still be made to the technical solutions described in the foregoing embodiments, or equivalent substitutions can be made to some of the technical features. Such modifications or substitutions do not cause the essence of the corresponding technical solutions to deviate from the spirit and scope of the technical solutions of the embodiments of the present invention.

Claims

1. A monitoring system, characterized by include: At least one physiological parameter sensor is used to connect to the object to be detected in order to obtain physiological data of the object to be detected; Display device for displaying human-computer interaction interface; Interactive devices are used to detect user actions on the human-computer interaction interface; processor; as well as A computer program, when executed by a processor, performs the following steps: Physiological data collected by at least one physiological parameter sensor connected to the object to be detected is acquired, and the physiological data is processed to obtain the physiological parameter information of the object to be detected. The display device displays at least a first physiological parameter display component and a second physiological parameter display component on the human-computer interaction interface. The first physiological parameter display component and the second physiological parameter display component are respectively used to display physiological parameter information of different parts of the object to be tested, or to display physiological parameter information of the same part of the object to be tested at different times. The interactive device detects a first operation targeting either the first physiological parameter display component or the second physiological parameter display component, and activates the display component according to the operation instruction corresponding to the first operation. The interaction device detects a second operation targeting any of the display components, and moves the display component to another display component between the first physiological parameter display component and the second physiological parameter display component according to the operation instruction of the second operation, so that the display component and the other display component overlap. The third operation detected by the interactive device for any of the display components is obtained, and the display component is superimposed on the other display component according to the operation instruction of the third operation.

2. The monitoring system of claim 1, wherein, When the processor detects the first operation for any of the display components via the interaction device, the display device is further configured to: Visual feedback is displayed at a preset position on any of the display components.

3. The monitoring system of claim 2, wherein, The visual feedback includes at least one of bubbling, gradually increasing concentric circles, and selection reminders for any of the display components, and the preset position includes the projection of any of the display components or a position at a first distance from any of the display components.

4. The monitoring system of claim 1, wherein, When the processor detects the second operation for any of the display components via the interaction device, the display device is further configured to: Displays the movement path for any of the display components.

5. The monitoring system of claim 1, wherein, The first operation includes a long press operation, the second operation includes a drag operation, and the third operation includes an operation to leave the interactive device, or an operation to trigger an operation menu popped up by any of the display components to overlay a command.

6. The monitoring system of claim 1, wherein, The processor is also used for: If the interaction device detects that the overlap time between any display component and the other display component exceeds a first preset time, and then detects the third operation, the step of overlaying the any display component and the other display component according to the third operation is triggered.

7. The monitoring system of claim 1, wherein, The processor is also used for: The interactive device detects a fourth operation for the overlaid first physiological parameter display component and the second physiological parameter display component, and activates the overlaid first physiological parameter display component and the second physiological parameter display component according to the fourth operation; The interaction device detects a fifth operation for the superimposed first physiological parameter display component and the second physiological parameter display component, and according to the operation instruction of the fifth operation, the superimposed first physiological parameter display component and the second physiological parameter display component are split into independently displayed first physiological parameter display component and independently displayed second physiological parameter display component.

8. The monitoring system of claim 7, wherein, The fourth operation includes a long press operation, or the operation of the split command in the operation menu that pops up after the first physiological parameter display component and the second physiological parameter display component are overlaid.

9. The monitoring system of claim 8, wherein, If the fourth operation includes the long press operation, then the processor is further configured to: If the interactive device detects that the operation time of the fourth operation exceeds the second preset time, then the step of activating the superimposed display of the first physiological parameter display component and the second physiological parameter display component according to the fourth operation is triggered.

10. The monitoring system of any one of claims 1 to 9, wherein, The display device and the interaction device are integrated in a touch-sensitive display screen, and the operation command is an operation command generated by detecting contact with the touch-sensitive display screen.

11. The monitoring system according to claim 1, characterized in that, The interactive device is a mouse, and the first operation, the second operation, and the third operation are clicking and / or moving the mouse; or... The interactive device is a keyboard, and the first operation, the second operation, and the third operation are typing operations via the keyboard; or, The interactive device is an encoder, and the first operation, the second operation, and the third operation are encoding operations performed by the encoder; or, The interactive device is a touchpad, and the first operation, the second operation, and the third operation are touch operations performed via the touchpad; or, The interactive device is a microphone, and the first operation, the second operation, and the third operation are operations that trigger the microphone to emit sound. or, The interactive device is a motion-sensing device, and the first operation, the second operation, and the third operation trigger limb movements of the motion-sensing device. or The interactive device is a camera, and the first operation, the second operation, and the third operation are operations performed on the images captured by the camera.

12. The monitoring system of claim 1, wherein, The first physiological parameter display component and the second physiological parameter display component include at least one of the following: a real-time waveform display component for vital signs, a real-time physiological parameter display component for vital signs, a historical physiological parameter display component for vital signs, a vital sign imaging parameter display component, and any chart display component generated based on clinical data of vital signs.

13. The monitoring system of claim 1, wherein, The processor is also used for: For any one of the display components and the other display component after being overlaid, a prompt message related to the physiological parameter information in any one of the display components is displayed.

14. The monitoring system of claim 13, wherein, If the first physiological parameter display component is used to display the electrocardiogram of the subject under test at a first moment, and the second physiological parameter display component is used to display the electrocardiogram of the subject under test at a second moment, then the processor is specifically used for: For the superimposed ECG of the subject under test at the first moment and the ECG of the subject under test at the second moment, display prompt information related to the ECG of the subject under test; If the first physiological parameter display component is used to display the invasive arterial blood pressure monitoring waveform of the subject at a first moment, and the second physiological parameter display component is used to display the invasive arterial blood pressure monitoring waveform of the subject at a second moment, then the processor is specifically used for: For the superimposed invasive arterial blood pressure monitoring waveforms of the subject under test at the first moment and the subject under test at the second moment, a prompt message related to the invasive arterial blood pressure monitoring waveform of the subject under test is displayed.

15. The monitoring system of claim 13, wherein, If the first physiological parameter display component is used to display the invasive arterial blood pressure monitoring waveform of the subject under test at a first moment, and the second physiological parameter display component is used to display the central venous pressure waveform of the subject under test at the first moment, then the processor is specifically used for: For the superimposed display of the invasive arterial blood pressure monitoring waveform and the central venous pressure waveform of the subject under test at the first moment, the pressure difference between the peak value of the invasive arterial blood pressure monitoring waveform and the peak value of the central venous pressure waveform, and / or the time difference between the peak value of the invasive arterial blood pressure monitoring waveform and the peak value of the central venous pressure waveform are displayed. Based on the pressure difference, display prompt information related to the blood circulation status of the object being tested; And / or, Based on the time difference, display a prompt message related to the blood flow transmission status of the object to be detected.

16. The monitoring system of claim 13, wherein, If the first physiological parameter display component is used to display the electrocardiogram of the subject under test at a first moment, and the second physiological parameter display component is used to display the central venous pressure waveform of the subject under test at a first moment, then the processor is specifically used for: Based on the superimposed display of the electrocardiogram and central venous pressure waveform of the subject under test at the first moment, a prompt message related to the blood output of the subject under test within one cardiac cycle is displayed.

17. The monitoring system of claim 13, wherein, If the first physiological parameter display component is used to display the motion scan cardiac or lung ultrasound image of the subject under test at a first moment, and the second physiological parameter display component is used to display the electrocardiogram of the subject under test at a first moment, then the processor is specifically used for: For the superimposed display of the motion scan cardiac or lung ultrasound image of the subject under test at the first moment and the electrocardiogram of the subject under test at the first moment, a prompt message related to the cardiac cycle of the subject under test is displayed.

18. The monitoring system of claim 13, wherein, If the first physiological parameter display component is used to display the motion scan cardiac or lung ultrasound image of the subject under test at a first moment, and the second physiological parameter display component is used to display the invasive blood pressure monitoring waveform of the subject under test at a first moment, then the processor is specifically used for: Based on the superimposed display of the motion scan cardiac or lung ultrasound image of the subject under test at the first moment and the invasive blood pressure monitoring waveform of the subject under test at the first moment, suggestive information related to the myocardial contraction and pumping capacity of the subject under test during at least one cardiac cycle is displayed.

19. The monitoring system of claim 13, wherein, If the first physiological parameter display component is used to display the motion scan cardiac or lung ultrasound image of the subject under test at a first moment, and the second physiological parameter display component is used to display the end-tidal carbon dioxide waveform of the subject under test at a first moment, then the processor is specifically used for: Based on the superimposed display of the motion scan-type cardiac or lung ultrasound image of the subject under test at the first moment and the end-expiratory carbon dioxide waveform of the subject under test at the first moment, prompt information related to the respiratory cycle of the subject under test is displayed.

20. The monitoring system of claim 12, wherein, If both the first physiological parameter display component and the second physiological parameter display component include the real-time physiological parameter display component for vital signs, then the first physiological parameter display component includes a primary physiological parameter display component, and the second physiological parameter display component includes at least one secondary physiological parameter display component. The processor is specifically used for: The interactive device detects a first operation targeting the at least one secondary physiological parameter display component, and activates the at least one secondary physiological parameter display component according to the operation instruction corresponding to the first operation. The interactive device detects a second operation for the at least one secondary physiological parameter display component, and moves the at least one secondary physiological parameter display component to the first display area of ​​the primary physiological parameter display component according to the second operation; The interactive device detects a third operation targeting the at least one secondary physiological parameter display component, and the at least one secondary physiological parameter display component is displayed in a reduced size in the first display area of ​​the primary physiological parameter display component according to the third operation.

21. The monitoring system of claim 20, wherein, Following the third operation, the processor is further configured to: The interaction device detects a fourth operation for the at least one secondary physiological parameter display component, and activates the superimposed display of the primary physiological parameter display component and the at least one secondary physiological parameter display component according to the fourth operation. The interactive device detects a fifth operation targeting the at least one secondary physiological parameter display component. Based on the fifth operation, the at least one secondary physiological parameter display component is moved to a second display area at a preset distance from the primary physiological parameter display component. The interaction device detects a sixth operation for the at least one secondary physiological parameter display component, and according to the sixth operation, the at least one secondary physiological parameter display component is separated from the primary physiological parameter display component and enlarged for display in the second display area.

22. The monitoring system of claim 1, wherein, Before acquiring the first operation detected by the interactive device for either the first physiological parameter display component or the second physiological parameter display component, the processor is further configured to: The seventh operation detected by the interactive device triggers the display device to display a help menu, wherein the help menu is used to display an interactive guide based on the interactive device, wherein the interactive guide includes an operation mode based on the interactive device and an operation instruction generated corresponding to the operation mode.

23. The monitoring system of claim 1, wherein, The processor is also used for: When the first operation, the second operation, or the third operation is detected by the interactive device, the display device is triggered to display an interactive guide, wherein the interactive guide includes the operation mode of the first operation, the second operation, or the third operation, corresponding to the operation instruction of the first operation, the second operation, or the third operation.

24. The monitoring system of claim 1, wherein, The processor is also used for: Detect the operating frequency of the first operation, the second operation, and / or the third operation; If the frequency of any operation is greater than a preset frequency, the display device is triggered to display interactive guidance, wherein the interactive guidance includes the operation mode of the operation greater than the preset frequency, and the operation instruction corresponding to the operation greater than the preset frequency.

25. A monitoring system, characterized by include: At least one physiological parameter sensor is used to connect to the object to be detected in order to obtain physiological data of the object to be detected; Display device for displaying human-computer interaction interface; Interactive devices are used to detect user actions on the human-computer interaction interface; processor; as well as A computer program, when executed by a processor, performs the following steps: Physiological data collected by at least one physiological parameter sensor connected to the object to be detected is acquired, and the physiological data is processed to obtain the physiological parameter information of the object to be detected. The physiological parameter display component is displayed on the human-computer interaction interface through the display device. The physiological parameter display component is used to display physiological parameter information obtained by physiological sensors. The first operation detected by the interactive device for the physiological parameter display component is obtained, and the physiological parameter display component is activated according to the operation instruction of the first operation. The interactive device detects a second operation targeting the physiological parameter display component. Based on the operation instruction of the second operation, the display range of selected data in the physiological parameter display component is adjusted. When adjusting the display range of the selected data, the image resolution of the selected data is adjusted from a first resolution to a second resolution, wherein the second resolution is greater than the first resolution or less than the first resolution.

26. The monitoring system of claim 25, wherein, The first operation includes a long press operation, and the second operation includes a two-finger zoom operation or a two-finger pinch operation.

27. The monitoring system according to claim 25, characterized in that, If the second operation includes a two-finger zoom operation, then when the processor adjusts the display range of selected data in the physiological parameter display component according to the operation instruction of the second operation, and adjusts the image resolution of the selected data from a first resolution to a second resolution while adjusting the display range of the selected data, it is specifically used for: Acquire the two interactive touch points between the two fingers and the interactive device before the two-finger zoom operation detected by the interactive device; Draw a circle with the distance between the two interactive contact points as its diameter; The selected data are the data points that are within the area of ​​the circle and are displayed overlappingly, and whose distance from the circumference is within a preset range. The selected data image is displayed in the display interface of the physiological parameter display component at a preset magnification, wherein the preset magnification is related to the distance between the two interactive contact points between the two fingers and the interactive device after the two-finger magnification operation. Based on the magnification factor, the amount of data in the selected data is supplemented so that the supplemented data is adapted to the magnified image.

28. The monitoring system according to claim 25, characterized in that, If the second operation includes a two-finger zoom operation, then when the processor adjusts the display range of selected data in the physiological parameter display component according to the operation instruction of the second operation, and adjusts the image resolution of the selected data from a first resolution to a second resolution while adjusting the display range of the selected data, it is specifically used for: Acquire the two interactive touch points between the two fingers and the interactive device after the two-finger zoom operation detected by the interactive device; The quadrilateral is defined by using the distance between the two interactive contact points as its diagonal. The data within the quadrilateral is determined as the selected data; The selected data image is displayed on the display interface of the physiological parameter display component at a preset magnification, wherein the preset magnification is related to the distance between the two interactive contact points between the two fingers and the interactive device after the two-finger magnification operation. Based on the magnification factor, the amount of data in the selected data is supplemented so that the supplemented data is adapted to the resolution of the magnified image.

29. The monitoring system according to claim 25, characterized in that, If the second operation includes a two-finger zoom operation, then when the processor adjusts the display range of selected data in the physiological parameter display component according to the operation instruction of the second operation, and adjusts the image resolution of the selected data from a first resolution to a second resolution while adjusting the display range of the selected data, it is specifically used for: The interactive touch points between the two fingers and the interactive device before the two-finger zoom operation are detected by the interactive device. Based on the interactive touchpoint, query the user's historical zoom-in records at the interactive touchpoint; The selected data range and magnification in the historical magnification record are determined as the currently selected data and the current magnification. The image of the currently selected data is displayed at the current magnification within the display interface of the physiological parameter display component; Based on the current magnification, the amount of data in the currently selected data is supplemented so that the supplemented data is adapted to the magnified image.

30. The monitoring system according to any one of claims 27 to 29, characterized in that, When supplementing the data volume, the processor is specifically used for: Calculate the display size of the selected data after magnification based on the magnification factor; Based on the display size, obtain the amount of data adapted to the resolution of the display size; The amount of data selected is supplemented based on the amount of data adapted to the display size resolution.

31. The monitoring system according to any one of claims 27 to 29, characterized in that, Before supplementing the data to make the supplemented data size suitable for the resolution of the enlarged image, the processor is further configured to: First, control the image of the selected data to be enlarged proportionally; When the interactive device detects that two fingers have moved to a preset distance, it triggers a step to supplement the data so that the supplemented data is adapted to the resolution of the magnified image.

32. The monitoring system according to any one of claims 27 to 29, characterized in that, When adjusting the display range of selected data in the physiological parameter display component according to the operation instruction of the second operation, if the physiological parameter information in the physiological parameter display component includes at least three display dimensions, and the physiological parameter display component only displays physiological parameter information in two dimensions, the processor is further configured to: When adjusting the display range of the selected data according to the second operation, the display dimensions of the selected data are adjusted from two display dimensions to at least three display dimensions.

33. The monitoring system according to claim 32, characterized in that, The processor is also used for: The third display dimension of the selected data is displayed in the form of tabs in the physiological parameter display component.

34. The monitoring system according to claim 32, characterized in that, When adjusting the display dimensions of the selected data from two display dimensions to at least three display dimensions, the processor is further configured to: The coordinate meanings of the at least three display dimensions are interchanged with each other.

35. The monitoring system according to any one of claims 27 to 29, characterized in that, After supplementing the selected data according to the magnification factor so that the supplemented data is adapted to the resolution of the magnified image, the processor is further configured to: The third operation detected by the interactive device for the magnified image is obtained, and the display range of the magnified image is reduced according to the operation instruction of the third operation. When reducing the display range of the magnified image, the resolution of the image is adjusted from the second resolution to the first resolution.

36. The monitoring system according to claim 35, characterized in that, The third operation includes a two-finger pinch operation. When the display area of ​​the magnified image is reduced according to the operation command of the two-finger pinch operation, and when the resolution of the image is adjusted from the second resolution to the first resolution while reducing the display area of ​​the magnified image, the processor is specifically used for: The enlarged image is then reduced to its original size before enlargement. Based on the original size, obtain the amount of data adapted to the resolution of the original size; Based on the amount of data adapted to the original size resolution, the resolution of the scaled-down image is adjusted from the second resolution to the first resolution.

37. The monitoring system according to claim 35, characterized in that, When reducing the display range of the magnified image according to the operation instruction of the third operation, if the magnified image is adjusted from the original two display dimensions to at least three display dimensions, the processor is further configured to: The image is reduced from at least three display dimensions to the original two display dimensions based on the two-finger pinch operation.

38. The monitoring system according to claim 36, characterized in that, When reducing the magnified image to its original size before magnification, the processor is specifically used for: First, control the magnified image to be scaled down proportionally; When the interactive device detects that two fingers are pinched to a preset distance, the step of obtaining the amount of data adapted to the resolution of the original size is triggered.

39. The monitoring system according to claim 25, characterized in that, Before acquiring the first operation detected by the interactive device for the physiological parameter display component, the processor is further configured to: The fourth operation detected by the interactive device triggers the display device to display a help menu, wherein the help menu is used to display an interactive guide based on the interactive device, wherein the interactive guide includes an operation mode based on the interactive device and an operation instruction generated corresponding to the operation mode.

40. The monitoring system according to claim 25, characterized in that, The processor is also used for: When the first operation, the second operation, or the third operation is detected by the interactive device, the display device is triggered to display an interactive guide, wherein the interactive guide includes the operation mode of the first operation, the second operation, or the third operation, corresponding to the operation instruction of the first operation, the second operation, or the third operation.

41. The monitoring system according to claim 25, characterized in that, The processor is also used for: Detect the operating frequency of the first operation and / or the second operation; If the frequency of any operation is greater than a preset frequency, the display device is triggered to display interactive guidance, wherein the interactive guidance includes the operation mode of the operation greater than the preset frequency, and the operation instruction corresponding to the operation greater than the preset frequency.

42. A method for displaying components of a human-computer interaction interface for a monitoring system, characterized in that, When the method is executed by a processor in the monitoring system, it is used to implement the steps implemented when the computer program in the monitoring system as described in any one of claims 1 to 41 is executed by a processor.

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