An infant care apparatus and an interface display method thereof
By integrating the terminal device interface onto the display screen of infant care equipment, the problem of information silos in existing technologies is solved, thereby improving the work efficiency of medical staff.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- SHENZHEN MINDRAY BIO MEDICAL ELECTRONICS CO LTD
- Filing Date
- 2025-01-22
- Publication Date
- 2026-07-24
Smart Images
Figure CN122450397A_ABST
Abstract
Description
Technical Field
[0001] This invention relates to the field of medical devices, specifically to an infant care device and its interface display method. Background Technology
[0002] The display interface of existing baby care equipment, such as Figure 1 As shown, the system typically displays only a few physiological parameters of the infant and a few parameters of the care equipment. While this meets the daily care needs of medical staff, in the NICU, when the infant uses other devices, medical staff usually need to check the information displayed on each device (including the care equipment) to understand the infant's current condition, which is very inconvenient. Therefore, the efficiency with which medical staff can monitor the infant's condition needs to be improved. Summary of the Invention
[0003] This invention provides an infant care device and its interface display method, aiming to improve the efficiency of medical staff in understanding the current situation of infants through the care device.
[0004] One embodiment provides a method for displaying the interface of an infant care device, comprising:
[0005] Acquire parameter information and status information; the parameter information includes the infant's physiological parameter information and / or the equipment parameter information of the childcare equipment, and the status information includes the infant's status information and / or the equipment status information;
[0006] The first display interface of the conservation equipment is displayed on the screen; wherein the first display interface displays the parameter information and the status information presented in a visual manner;
[0007] When the preset conditions for switching the instruction interface are met, the second display interface of the terminal device is obtained, and the second display interface of the terminal device and the third display interface of the conservation device are simultaneously displayed on the display screen; wherein, the third display interface displays the parameter information but does not display the visually presented status information; the third display interface is smaller than the first display interface to free up display space for the second display interface to display.
[0008] One embodiment provides a method for displaying the interface of an infant care device, comprising:
[0009] The first display interface of the conservation equipment is displayed on the screen;
[0010] If the preset conditions for switching the interface are met, the second display interface of the terminal device is obtained;
[0011] Based on the type of the terminal device and the preset correspondence between terminal device type and display mode, the display mode of the second display interface of the terminal device is determined, and the second display interface is displayed on the display screen according to the determined display mode;
[0012] The preset correspondence between terminal device types and display methods includes at least two of the following three types:
[0013] The display method corresponding to the first type of terminal device includes: the second display interface of the first type of terminal device is displayed in the form of a pop-up window, and the pop-up window at least covers a portion of the first display interface of the conservation device;
[0014] The display method corresponding to the second type of terminal device includes: shrinking the first display interface of the conservation device to free up display space, and displaying the second display interface in the freed-up display space;
[0015] The display method corresponding to the third type of terminal device includes: removing part of the content in the first display interface of the conservation device to obtain a third display interface, the third display interface being smaller than the first display interface to free up display space, and the second display interface being displayed in the freed-up display space.
[0016] One embodiment provides a method for displaying the interface of an infant care device, comprising:
[0017] Acquire parameter information and status information; the parameter information includes the infant's physiological parameter information and / or the equipment parameter information of the childcare equipment, and the status information includes the infant's status information and / or the equipment status information;
[0018] The first display interface of the conservation equipment is displayed on the screen; wherein the first display interface displays the parameter information and the status information presented in a visual manner;
[0019] When the preset conditions for switching the instruction interface are met, the second display interface of the parameter monitoring device is obtained; the parameter monitoring device is used to monitor at least one physiological parameter; the second display interface displays the physiological parameter.
[0020] The first display interface of the conservation equipment is reduced in size to free up display space, and the second display interface is displayed in the freed-up display space.
[0021] One embodiment provides an infant care device, comprising:
[0022] A cabinet with a temperature control device;
[0023] Display screen;
[0024] A processor is used to execute programs to implement the methods described above.
[0025] One embodiment provides a computer-readable storage medium storing a program that can be executed by a processor to implement the method described above.
[0026] According to the infant care device and its interface display method described in the above embodiments, when the care device is used independently in daily life, it can acquire parameter information and status information, and display a first display interface of the care device on the screen. The first display interface displays parameter information and visually presented status information. When preset conditions for switching interfaces are met, a second display interface of the terminal device is acquired, and both the second display interface and the third display interface of the care device are simultaneously displayed on the screen. The third display interface displays parameter information but does not display visually presented status information; the third display interface is smaller than the first display interface to free up display space for the second display interface. In this way, medical staff can not only see the various parameters and statuses displayed by the care device through its screen, but also see the second display interface of the terminal device with which it is communicatively connected, thus eliminating the need to go to the terminal device to check, improving the efficiency of medical staff in understanding the infant's current condition. Attached Figure Description
[0027] Figure 1 This is a display interface for existing conservation equipment;
[0028] Figure 2 This is a structural block diagram of an embodiment of the conservation equipment of the present invention;
[0029] Figure 3 This is a schematic diagram of the structure of an embodiment of the conservation equipment of the present invention;
[0030] Figure 4 This is a flowchart of an embodiment of the childcare equipment interface display method of the present invention;
[0031] Figure 5 This is a schematic diagram of the display screen of the conservation equipment of the present invention when it is not connected to a terminal device. Figure 1 ;
[0032] Figure 6 This is a schematic diagram of the display screen of the conservation equipment of the present invention when it is not connected to a terminal device. Figure 2 ;
[0033] Figure 7 This is a schematic diagram of the display screen interface when the conservation equipment of the present invention is connected to a first type of terminal equipment;
[0034] Figure 8 This is a schematic diagram of the display screen interface when the conservation equipment of the present invention is connected to a second type of terminal equipment;
[0035] Figure 9 This is a schematic diagram of the display screen interface when the conservation equipment of the present invention is connected to a third type of terminal equipment;
[0036] Figure 10 This is a schematic diagram of the display screen interface when the conservation equipment of the present invention is connected to a camera;
[0037] Figure 11 This is a schematic diagram of the display screen interface when the conservation equipment of the present invention is connected to a camera and a single-parameter monitoring device;
[0038] Figure 12 This is a schematic diagram of the display screen interface when the conservation equipment of the present invention is connected to a camera and a multi-parameter monitoring device;
[0039] Figure 13 This is a flowchart of another embodiment of the childcare equipment interface display method of the present invention;
[0040] Figure 14 A flowchart of another embodiment of the childcare equipment interface display method of the present invention;
[0041] Figure 15 This is a schematic diagram of the first display interface of the conservation equipment of the present invention. Figure 1 ;
[0042] Figure 16 This is a schematic diagram of the first display interface of the conservation equipment of the present invention. Figure 2 ;
[0043] Figure 17 This is a schematic diagram of the first display interface of the conservation equipment of the present invention. Figure 3 ;
[0044] Figure 18 This is a schematic diagram of the first display interface of the conservation equipment of the present invention. Figure 4 ;
[0045] Figure 19 This is a schematic diagram of the first display interface of the conservation equipment of the present invention. Figure 5 ;
[0046] Figure 20 This is a schematic diagram of the first display interface of the conservation equipment of the present invention. Figure 6 ;
[0047] Figure 21 This is a schematic diagram of the first display interface of the conservation equipment of the present invention. Figure 7 . Detailed Implementation
[0048] The present invention will now be described in further detail with reference to specific embodiments and accompanying drawings. Similar elements in different embodiments are referred to by associated similar element reference numerals. In the following embodiments, many details are described to facilitate a better understanding of this application. However, those skilled in the art will readily recognize that some features may be omitted in different situations, or may be replaced by other elements, materials, or methods. In some cases, certain operations related to this application are not shown or described in the specification. This is to avoid obscuring the core parts of this application with excessive description. For those skilled in the art, detailed description of these related operations is not necessary; they can fully understand the related operations based on the description in the specification and general technical knowledge in the art.
[0049] Furthermore, the features, operations, or characteristics described in the specification can be combined in any suitable manner to form various embodiments. At the same time, the steps or actions in the method description can be rearranged or adjusted in a manner obvious to those skilled in the art. Therefore, the various orders in the specification and drawings are only for the clear description of a particular embodiment and do not imply a necessary order, unless otherwise stated that a particular order must be followed.
[0050] The serial numbers assigned to components in this document, such as "first" and "second," are used only to distinguish the described objects and have no sequential or technical meaning. The terms "connection" and "linkage" used in this application, unless otherwise specified, include both direct and indirect connections (linkages).
[0051] The infant care device and its interface display method provided by this invention, under the condition of meeting preset conditions for indicating interface switching, can merge the display interfaces of the care device and the terminal device in different ways according to different connected terminal devices, thereby displaying the terminal device's interface on the care device's screen. Medical staff can also adjust the size of the interface area of different devices through gesture operations, improving the efficiency of medical staff in understanding the infant's current condition.
[0052] Optionally, the preset conditions for indicating interface switching in various embodiments may include: when a communication connection is established between the terminal device and the conservation equipment, and / or when a user inputs an interface switching command. Specifically, once a communication connection is established between the terminal device and the conservation equipment, the terminal device's interface can be acquired and displayed on the conservation equipment's screen. Alternatively, the terminal device's interface can be displayed upon receiving a user input of an interface switching command (e.g., an operation on a touchscreen button or physical button).
[0053] For example, when a single-parameter monitoring device or a multi-parameter monitoring device is inserted into the conservation equipment, it means that a communication connection has been established between the conservation equipment and the monitoring device. Therefore, once the monitoring device is inserted, the monitoring interface will appear. If the camera is connected to the incubator's Type-C interface, the video window can be opened by clicking the video hotkey on the right. The video window can also be closed by the user.
[0054] Optionally, the terminal device in the various embodiments of this application can be any one of the following: ultrasound imaging equipment, phototherapy equipment, medical ventilation equipment, monitor, camera, single-parameter monitoring device, and multi-parameter monitoring device. In other words, the terminal device here can be a medical device or a non-medical device.
[0055] The following detailed description is provided through some examples.
[0056] like Figure 2 and 3 As shown, the infant care device provided by the present invention includes: a housing 140 with a temperature control device 30, a processor 20, a human-computer interaction device 40, and a communication module 60.
[0057] The temperature control device 30 is used to control the temperature inside the chamber 140, for example, to keep the temperature inside the chamber 140 within a certain range, or to keep the baby's body temperature within a certain range.
[0058] The human-computer interaction device 40 is used for human-computer interaction, specifically for outputting visual information and receiving user input. The human-computer interaction device 40 includes a display screen for outputting visual information; it may also include an input device for receiving user input. The input device may include various buttons, a touchscreen on the display screen, etc., as long as it can receive user input, and is not limited thereto.
[0059] The communication module 60 is used to communicate with terminal devices, and it can be a wired communication module or a wireless communication module, etc. Furthermore, it can communicate with multiple terminal devices, with different types of communication modules used for different terminal devices.
[0060] The processor 20 is used to control the infant care equipment, thereby performing various functions of the infant care equipment. This invention focuses on how the processor 20 controls the interface display content of the infant care equipment's screen; the specific process is as follows: Figure 4 As shown, it includes the following steps:
[0061] Step 1: The processor 20 displays the first display interface of the childcare device on the screen of the human-computer interaction device 40. The first display interface is the interface when the childcare device is not connected to other terminal devices, displaying parameter information and status information of the childcare device and / or the infant. In this embodiment, the processor 20 can acquire parameter information and status information and then display them on the first display interface. To better facilitate human-computer interaction and present the status of the device and the infant that medical staff want to monitor, the status information can be visualized, that is, presented graphically. Specifically, the first display interface displays the acquired parameter information and the visualized status information.
[0062] The parameter information may include the infant's physiological parameters and / or the equipment parameters of the childcare device; this embodiment uses both as an example. The status information may include the infant's status information and / or the device's status information; similarly, this embodiment uses both as an example.
[0063] Specifically, the processor 20 can acquire at least one first physiological parameter information and infant status information of the infant placed in the care device. The first physiological parameter information may include the first physiological parameter and / or the trend of change of the first physiological parameter (such as an upward or downward trend, a change curve, etc.), and the trend of change of the first physiological parameter can be obtained based on the first physiological parameters at multiple different times (such as historical data). The at least one first physiological parameter information may include at least one of the following: infant core temperature, infant core temperature trend, infant peripheral temperature, infant peripheral temperature trend, temperature difference between infant core temperature and infant peripheral temperature, temperature difference trend, infant weight, and infant weight trend. This embodiment uses the infant core temperature, infant peripheral temperature, and temperature difference as examples for illustration. For example, the infant care device also includes a temperature detector 50, which is used to detect the infant core temperature, the infant peripheral temperature, and can also be used to detect the temperature inside the box 140 (box temperature), which can be detected by one or more temperature sensors. The processor 20 can obtain the baby's core temperature and peripheral temperature inside the enclosure 140 through the temperature detector 50, and calculate the difference between these two temperatures to obtain the temperature difference between the baby's core temperature and peripheral temperature. The baby's core temperature is usually the temperature of the baby's chest and / or abdomen, while the baby's peripheral temperature is usually the temperature of the limbs.
[0064] The infant status information includes at least one abnormal infant status. This abnormal infant status refers to any unusual condition affecting the infant, and can be further categorized into specific abnormality types, such as: abnormal infant temperature, abnormal infant breathing, abnormal infant blood oxygenation, abnormal infant blood pressure, abnormal infant heart rate, and sensor detachment. The sensor can be one that detects blood oxygenation, blood pressure, or heart rate. This embodiment uses five physiological abnormalities—abnormal infant temperature, abnormal infant breathing, abnormal infant blood oxygenation, abnormal infant blood pressure, and abnormal infant heart rate—as an example for illustration. In some embodiments, the infant status information may also include the infant's normal status.
[0065] The processor 20 can acquire infant status information in various ways, and several examples are given below.
[0066] In the first method, the processor 20 obtains infant state information based on the at least one first physiological parameter information. For example, the processor determines whether at least one of the infant's core temperature, infant's peripheral temperature, and the temperature difference between the infant's core temperature and infant's peripheral temperature is abnormal; if so, it obtains infant state information indicating abnormal infant temperature.
[0067] In a second approach, the processor 20 acquires at least one second physiological parameter information of the infant and obtains infant status information based on this information, or obtains infant status information based on at least one first physiological parameter information and at least one second physiological parameter information. The second physiological parameter information differs from the first physiological parameter information. For example, the second physiological parameter information includes respiratory parameters, such as the infant's respiratory rate, respiratory depth, and / or respiratory pattern. The infant protection device may also include a respiratory detector used to detect the infant's respiratory rate, respiratory depth, and / or respiratory pattern. The processor 20 obtains the respiratory parameters through the respiratory detector and determines whether the respiratory parameters are abnormal. If so, it obtains the status information of abnormal infant breathing, which may specifically include apnea or asphyxia. For example, the second physiological parameter information includes blood oxygen saturation. The infant protection device may also include a blood oxygen saturation detector used to detect the infant's blood oxygen saturation. The processor 20 obtains the infant's blood oxygen saturation through the blood oxygen saturation detector and determines whether the blood oxygen saturation is abnormal. If so, it obtains the status information of abnormal infant blood oxygen. The processor 20 can also determine whether the blood oxygen saturation detector has detached based on the infant's blood oxygen saturation value. For example, if the blood oxygen saturation value suddenly drops to 0 or no blood oxygen saturation value is received, the processor 20 obtains the status information that the infant's sensor has detached. Another example is blood pressure, a second physiological parameter. The infant protection device can also include a blood pressure detector to monitor the infant's blood pressure. The processor 20 obtains the infant's blood pressure from the blood pressure detector and determines whether the blood pressure is abnormal; if so, it obtains the status information that the infant's blood pressure is abnormal. The processor 20 can also determine whether the blood pressure detector has detached based on the infant's blood pressure value. For example, if the blood pressure value suddenly drops to 0 or no blood pressure value is received, the processor 20 obtains the status information that the infant's sensor has detached. Another example is heart rate, a second physiological parameter. The infant protection device can also include a heart rate detector to monitor the infant's heart rate. The processor 20 obtains the infant's heart rate from the heart rate detector and determines whether the heart rate is abnormal; if so, it obtains the status information that the infant's heart rate is abnormal. The processor 20 can also determine whether the heart rate detector has fallen off by the baby's heart rate value. For example, if the heart rate value suddenly becomes 0 or no heart rate value is received, then the state that the baby's sensor has fallen off is obtained.
[0068] The third method involves a communication connection between the childcare equipment and a monitor, which is used to monitor the infant and obtain information about the infant's status. The processor 20 can obtain this infant status information from the monitor, which is connected to the childcare equipment.
[0069] The processor 20 can acquire equipment parameter information and equipment status information of the conservation equipment. The equipment status information may include at least one of the following: the position status of the first equipment component in the conservation equipment, the operating status of the second equipment component in the conservation equipment, and the abnormal status of the conservation equipment.
[0070] The equipment parameter information of the nursery equipment may include equipment parameters and / or trends in equipment parameter changes (such as upward or downward trends, change curves, etc.). The trends in equipment parameter changes can be obtained based on equipment parameters at multiple different times (such as historical data). Specifically, the equipment parameter information of the nursery equipment may include at least one of the following: internal temperature, internal temperature trend, internal humidity, internal humidity trend, internal oxygen concentration, internal oxygen concentration trend, bed board angle, bed board angle trend, noise level, internal brightness, internal brightness trend, and thermal radiation power trend. The processor 20 can obtain the internal temperature through the temperature detector 50. The nursery equipment may also include a humidity detector, which is used to detect the humidity inside the enclosure 140 (internal humidity), and the processor 20 can obtain the internal humidity through the humidity detector. The nursery equipment may also include an oxygen concentration detector, which is used to detect the oxygen concentration inside the enclosure 140 (internal oxygen concentration), and the processor 20 can obtain the internal oxygen concentration through the oxygen concentration detector. A bed board is also installed inside the enclosure 140, and the angle of the bed board is adjustable. The childcare equipment may also include an angle detector for detecting the angle of the bed board, and the processor 20 can obtain the angle of the bed board through the angle detector. The childcare equipment may also include a noise detector for detecting noise within the incubator, and the processor 20 can obtain the noise level through the noise detector. The childcare equipment may also include a light intensity detector for detecting the brightness (light intensity) of light within the incubator, and the processor 20 can obtain the brightness within the incubator through the light intensity detector. In some embodiments, the childcare equipment may include a radiant lamp 110, which functions as both a radiant warming table and an incubator. The radiant lamp 110 is used to output thermal radiation, that is, radiant heat, thereby keeping the infant warm. The processor 20 can obtain the thermal radiation power through the radiant lamp 110. Of course, in some embodiments, the childcare equipment may not have a radiant lamp 110, for example, a childcare equipment that is an infant incubator without a radiant lamp 110. The childcare equipment of this embodiment has a radiant lamp 110, so it can be used as both a radiant warming table and an infant incubator.
[0071] The equipment status information includes at least one of the following: the position status of the first equipment component in the conservation equipment, the operating status of the second equipment component in the conservation equipment, and the abnormal status of the conservation equipment.
[0072] The abnormal states of the conservation equipment can include at least one of the following: abnormal noise, abnormal brightness, abnormal radiant heating, abnormal internal temperature, abnormal internal humidity, and abnormal internal oxygen concentration. The processor 20 can determine whether the equipment parameter information is abnormal; if so, it identifies the abnormal equipment state. For example, the processor 20 can determine whether the noise level is too high (exceeding a preset value); if so, it identifies the abnormal noise state. Similarly, the processor 20 can determine whether the internal brightness is too high (exceeding a preset value); if so, it identifies the abnormal brightness state. The processor 20 can determine whether radiant heating is abnormal based on the thermal radiation power; if so, it identifies the abnormal radiant heating state. The processor 20 can determine whether the internal temperature is abnormal; if so, it identifies the abnormal internal temperature state. Furthermore, the processor 20 can determine whether the internal humidity is abnormal; if so, it identifies the abnormal internal humidity state. Finally, the processor 20 can determine whether the internal oxygen concentration is abnormal; if so, it identifies the abnormal internal oxygen concentration state.
[0073] The positional state of the first equipment component in the childcare equipment may include at least one of the following: the open / closed state of the enclosure cover, the open / closed state of the radiant lamp, the open / closed state of the enclosure window, and the tilted state of the bed board. The childcare equipment also includes an enclosure cover 120 and a first detection device for detecting the open / closed state of the enclosure cover, which may be a proximity switch, etc. The enclosure cover 120 is adapted to the enclosure body 140 and can normally cover the enclosure body 140 (enclosure cover 120 closed), and can be opened when needed. The processor 20 can obtain the open / closed state of the enclosure cover 120 through the first detection device. The childcare equipment may also include a base 160, on which the enclosure body 140 is mounted. Multiple wheels (such as casters) may also be provided at the bottom of the base 160. The enclosure body 140 is also provided with one or more enclosure windows 130, and the childcare equipment may also include a second detection device for detecting the open / closed state of the enclosure windows 130. The processor 20 can obtain the open / closed state of the enclosure windows 130 through the second detection device. The processor 20 can obtain the tilt state of the bed board through the angle detector.
[0074] The operation status of the second equipment component in the childcare equipment may include at least one of the following: humidification water level, hypothermia treatment, on / off status of radiant lamp 110, preheating status of radiant lamp 110, and infant weighing. The processor 20 can obtain the on / off status and preheating status of radiant lamp 110 through radiant lamp 110.
[0075] The processor 20 displays the first display interface of the childcare equipment on the screen, such as... Figure 5As shown, the first display interface displays the infant's physiological parameters (the numbers shown on the left side of the figure) and device parameters (the numbers shown on the right side of the figure), as well as visualized infant and device status information. In this embodiment, the visualized infant status information is specifically displayed as an infant diagram a; the visualized device status information is specifically displayed as a device diagram b. Infant diagram a and device diagram b can be static or dynamic. Infant diagram a is used at least to visualize the infant's abnormal state when the infant status information includes at least one abnormal infant state. Figure 6 The exclamation mark in the diagram is a visual representation of an abnormal infant core temperature. Diagram b is used at least to visualize equipment status information and its changes. Diagram b in the figure visualizes the closed state of the enclosure 120, the closed state of the radiant lamp 110, the closed state of the enclosure window 130, and the state where the bed board is not tilted.
[0076] Step 2: When the preset conditions for switching interfaces are met, the processor 20 obtains the second display interface of the terminal device. In this embodiment, the second display interface of the terminal device is the interface currently displayed on the terminal device's monitor. Specifically, the processor 20 can communicate with the terminal device through the communication module 60 to synchronize the current display interface of the terminal device to the conservation device. The conservation device can also pre-store display interfaces (operating systems) of various types of terminal devices. According to the type of terminal device connected to the communication module 60, the pre-stored display interface of that type of terminal device is retrieved. Of course, there are other ways to obtain the currently displayed interface of the terminal device, which are not limited here.
[0077] Some terminal devices have a display interface (secondary display interface) primarily used to provide users with an interactive interface for controlling the terminal device, such as medical ventilation equipment. Other terminal devices primarily display the various data they acquire, such as patient monitors. Still other terminal devices have a display interface that combines both functions; that is, the secondary display interface is used to control the terminal device and / or display the data acquired by the terminal device.
[0078] Step 3: The processor 20 determines the display mode of the second display interface of the terminal device according to the type of the terminal device and the preset correspondence between the terminal device type and the display mode, and displays the second display interface on the display screen according to the determined display mode.
[0079] The preset correspondence between terminal device types and display methods includes at least two of the following three types:
[0080] The display methods corresponding to the first type of terminal equipment include: the second display interface of the first type of terminal equipment is displayed in the form of a pop-up window, and the pop-up window at least covers a part of the first display interface of the conservation equipment;
[0081] The display methods corresponding to the second type of terminal equipment include: reducing the first display interface of the conservation equipment to free up display space, and displaying the second display interface in the freed-up display space;
[0082] The display method corresponding to the third type of terminal equipment includes: removing part of the content in the first display interface of the conservation equipment to obtain a third display interface, the third display interface being smaller than the first display interface to free up display space, and the second display interface being displayed in the freed-up display space.
[0083] This embodiment of the conservation equipment uses the three types mentioned above as examples for explanation. The processor 20 communicates with the terminal device via the communication module 60 to determine the type of the terminal device; of course, the type of the terminal device can also be manually determined by the user. In short, the type of the terminal device is known.
[0084] When the terminal device connected to the communication module 60 is a type 1 terminal device, the processor 20 determines that the display mode of the currently connected terminal device is: the second display interface of the type 1 terminal device is displayed as a pop-up window, and the pop-up window at least covers a portion of the first display interface of the conservation equipment. Therefore, Figure 7 As shown, the processor 20 displays the second display interface A3 of the currently connected terminal device as a pop-up window on the screen, while the background behind the pop-up window is the first display interface A of the conservation equipment. In other words, the pop-up window at least partially covers the first display interface A of the conservation equipment. This display method allows the user to focus their attention on the pop-up window and facilitates user operation of the terminal device and data viewing through the pop-up window. Figure 7 The pop-up window shown is the display interface of the ultrasound imaging device; that is, the first type of terminal device includes ultrasound imaging equipment. Infants in nurseries are usually small, and may even be premature. The most frequently used devices are handheld ultrasound imaging devices (also known as portable ultrasound imaging devices). These devices typically have small screens, making it inconvenient to view ultrasound images. Nursery devices, on the other hand, are larger, with larger screens. Therefore, displaying the handheld ultrasound imaging device's interface as a pop-up window on the nursery device's screen allows the ultrasound images acquired by the handheld device to be displayed more clearly, facilitating both diagnosis and operation.
[0085] When the terminal device connected to the communication module 60 is a type II terminal device, the processor 20 determines that the display mode of the currently connected terminal device is: to shrink the first display interface of the conservation device to free up display space, and the second display interface is displayed in the freed-up display space. Therefore, as follows Figure 8 As shown, the processor 20 shrinks the first display interface A of the conservation device to free up display space, and displays the second display interface A3 of the currently connected terminal device in the freed-up display space. (Comparison) Figure 5 and Figure 8 As can be seen from the first display interface A, before and after connecting the second type of terminal device, the first display interface A becomes smaller, but the displayed content does not decrease. In this way, the display screen of the childcare device shows various information from both the childcare device and the second type of terminal device, allowing users to easily monitor the baby's current situation from multiple perspectives.
[0086] The processor 20 can reduce the size of the first display interface A of the childcare device in several ways. For example, the processor 20 can reduce the font size of the parameter information displayed on the first display interface A, reduce the size of the visually presented status information (such as the baby illustration a, the device illustration b, etc.), and / or reduce the blank area of the first display interface A. Figure 5 and Figure 8 As can be seen, in this embodiment, the size of the first display interface A is mainly reduced by decreasing the area of the blank area of the first display interface A.
[0087] The second type of terminal equipment may include single-parameter monitoring devices and / or multi-parameter monitoring devices. A single-parameter monitoring device monitors a single physiological parameter, and its corresponding second display interface A3 displays that physiological parameter. For example, a single-parameter monitoring device is a blood oxygen monitoring device used to monitor blood oxygen saturation (SpO2), and its second display interface A3 is as follows: Figure 8 As shown, the display shows the numerical value and waveform of blood oxygen saturation, and can also display pulse rate (PR) and perfusion index (PI). For example, a single-parameter monitoring device is used to monitor carbon dioxide concentration; its second display interface shows the numerical value of carbon dioxide concentration in the patient's exhaled breath. Another example is an electrocardiogram (ECG) monitoring device used to monitor ECG signals; its second display interface displays ECG-related physiological parameters, such as heart rate and ECG waveform. In other words, the second display interface of the second type of terminal device does not need to occupy a large area (occupying less than 50% of the area, preferably less than 60%) for display; it can be displayed by shrinking the original interface.
[0088] Multi-parameter monitoring devices are used to monitor two or more physiological parameters, and their corresponding second display interface shows the two or more monitored physiological parameters. The difference between multi-parameter monitoring devices and single-parameter monitoring devices is that multi-parameter monitoring devices can monitor more types of physiological parameters; otherwise, they are basically the same, so they will not be described in detail.
[0089] Since single-parameter and multi-parameter monitoring devices monitor fewer physiological parameters and require less data to be displayed, they are suitable for use with... Figure 8 The display method shown is used to display data from conservation equipment and monitoring devices together.
[0090] like Figure 8 As shown, the scaled-down first display interface A and second display interface A3 can be arranged horizontally on the screen. In some embodiments, they can also be arranged vertically, or in irregular shapes. Considering that the screen may be horizontal or vertical, in this embodiment, the two display interfaces are arranged along the long side of the screen. This not only conforms to the habits of most people, but also frees up more display space along the long side of the screen.
[0091] When the terminal device connected to the communication module 60 is a third-class terminal device, the processor 20 determines that the display mode of the currently connected terminal device is: to remove part of the content in the first display interface A of the conservation device to obtain a third display interface, the third display interface being smaller than the first display interface to free up display space, and the second display interface being displayed in the freed-up display space. Therefore, as follows... Figure 9 As shown, the processor 20 removes part of the content from the first display interface A of the conservation equipment to obtain the third display interface A4, which is then compared to... Figure 5 and 9 It can be seen that the third display interface A4 is smaller than the first display interface A to free up display space, allowing the second display interface A3 of the currently connected terminal device to be displayed within that freed-up space. The processor 20 removes some content from the first display interface A of the childcare device to obtain the third display interface; specifically, it can remove the visually presented status information (such as the baby illustration a, device illustration b, etc.) from the first display interface A to obtain the third display interface A4. (Comparison) Figure 5 and Figure 9As can be seen from the first display interface A, after connecting the third type of terminal device, the baby illustration a and device illustration b in the first display interface are removed, thus saving a lot of space. After removing this saved space, a smaller third display interface A4 is formed. In this way, there is extra space on the display screen to display the terminal device's display interface. In some embodiments, in order to make more space for the second display interface A3, the processor 20 can not only remove part of the content in the first display interface A of the childcare device, but also shrink the first display interface A of the childcare device as described above, thereby obtaining the third display interface. Shrinking the first display interface A of the childcare device can also be achieved by shrinking the font of the parameter information displayed in the first display interface A, shrinking the visually presented status information (such as baby illustration a, device illustration b, etc.), and / or shrinking the blank area of the first display interface A, etc. Therefore, the maximum font size of the parameter information displayed in the third display interface A4 is smaller than the maximum font size of the parameter information displayed in the first display interface A. It is evident that this display method preserves the important data of the conservation equipment while maximizing display space for the second display interface, ensuring the data display of the third type of terminal equipment and facilitating user operation of the third type of terminal equipment.
[0092] The third category of terminal equipment may include at least one of the following: phototherapy equipment, medical ventilation equipment, monitors, cameras, single-parameter monitoring devices, and multi-parameter monitoring devices. Figure 9 The image shows the second display interface of the monitor. Typically, the display interface of a third-type terminal device displays more content than that of a second-type terminal device; therefore, the second display interface of a third-type terminal device shown on the childcare equipment screen is larger than that of a second-type terminal device.
[0093] like Figure 9 As shown, the third display interface A4 and the second display interface A3 can be arranged horizontally on the display screen. Of course, in some embodiments, they can also be arranged vertically, or in irregular shapes. Considering that the display screen may be horizontal or vertical, in this embodiment, the two display interfaces are arranged along the long side of the display screen. This not only conforms to the habits of most people, but also frees up more display space along the long side of the display screen.
[0094] In some embodiments, the third display interface A4 can be smaller than the second display interface A3, but it is best not to be too small. The area ratio of the third display interface A3 to the display screen can be no less than a preset ratio to ensure readability: medical staff can clearly see the parameter information displayed on the third display interface A4 from about 1 meter in front of the childcare equipment. The preset ratio can be set as needed, for example, (1 - golden ratio), which is about 0.382.
[0095] Some neonatal intensive care units (NICUs) are equipped with cameras or video monitoring devices for remote monitoring of infants. The communication module 60 of the childcare equipment can establish a communication connection with the camera. Then, the processor 20 acquires the video captured by the camera through the communication module 60, removes a portion of the content from the first display interface A of the childcare equipment to obtain a third display interface A4, freeing up display space. The video captured by the camera is then displayed in the freed-up display space, such as... Figure 10 As shown. Video surveillance equipment typically includes a camera and a monitor, with the monitor displaying the video captured by the camera. The communication module 60 of the conservation equipment can also establish a communication connection with the video surveillance equipment. Then, the processor 20 obtains the display interface of the video surveillance equipment's monitor (mainly the video captured by the camera) through the communication module 60, removes part of the content in the first display interface A of the conservation equipment to obtain the third display interface A4, freeing up display space, and displays the display interface of the video surveillance equipment's monitor in the freed-up display space. In other words, when the conservation equipment is connected to camera-related devices, its display method is the same as when it is connected to a third type of terminal device.
[0096] When the conservation equipment is connected to multiple terminal devices, a second display interface of each terminal device and a third display interface of the conservation equipment can be simultaneously displayed on the screen. The third display interface is obtained by removing a portion of the content from the first display interface of the conservation equipment.
[0097] The secondary display interfaces of multiple terminal devices can be arranged horizontally or vertically within the freed-up display space. For example... Figure 11 As shown, when the childcare equipment is connected to multiple terminal devices, including other medical devices and cameras or video surveillance equipment, the processor 20 can display the second display interfaces of the other medical devices and the display interfaces of the cameras or video surveillance equipment within the freed-up display space. Specifically, considering that the display interface of terminal devices such as single-parameter monitoring devices displays relatively little data, their display interfaces and the video footage captured by the camera / video surveillance equipment can be displayed simultaneously and entirely within the freed-up display space. For example... Figure 11 As shown, the processor 20 acquires video footage captured by the camera / video surveillance device via the communication module 60, and also acquires the display interface of the single-parameter monitoring device; it removes part of the content from the first display interface A of the conservation equipment to obtain the third display interface A4, thus freeing up display space; the video footage captured by the camera / video surveillance device and the display interface of the single-parameter monitoring device are simultaneously displayed in the freed-up display space. The video footage captured by the camera / video surveillance device and the display interface of the single-parameter monitoring device can be arranged horizontally or vertically, meaning that the video footage captured by the camera / video surveillance device and the display interface of the single-parameter monitoring device do not overlap. Figure 11As can be seen, the video footage and the physiological parameters detected by the single-parameter monitoring device are presented very clearly, making it convenient for medical staff to view.
[0098] Multiple terminal devices' secondary display interfaces can be stacked and displayed in the freed-up display space. For example, considering the large amount of data displayed on the display interface of a multi-parameter monitoring device, its relatively less important data can be obscured by video footage captured by cameras / video surveillance equipment, allowing important data and video footage to be displayed simultaneously in the freed-up display space. Figure 12 As shown, the processor 20 acquires video footage captured by the camera / video monitoring device via the communication module 60, and also acquires the display interface of the multi-parameter monitoring device. It removes a portion of the content from the first display interface A of the childcare device to obtain the third display interface A4, freeing up display space. The video footage from the camera / video monitoring device and the display interface of the multi-parameter monitoring device are simultaneously displayed in the freed-up display space. The video footage from the camera / video monitoring device partially obscures the display interface of the multi-parameter monitoring device; for example, the video obscures part or all of the waveform display area of the multi-parameter monitoring device's display interface. This is equivalent to displaying the second display interface of the multi-parameter monitoring device in the freed-up display space, and then overlaying the video footage from the camera / video monitoring device onto the waveform display area of the second display interface. This display method allows medical staff to simultaneously see the infant's real-time image and important physiological parameters.
[0099] Furthermore, the video captured by the camera / video surveillance equipment is superimposed on the second display interface of the third-type terminal device. This is equivalent to the video obscuring at least a part of the second display interface of the third-type terminal device, and the user can manually adjust the position of the video if they want to view the second display interface.
[0100] As can be seen, when the infant care device of this invention is connected to different terminal devices (such as multi-parameter monitoring devices, single-parameter monitoring devices, ultrasound equipment, monitors, cameras, phototherapy equipment, medical ventilation equipment, etc.), its display screen presents a fused interface. When no terminal device is connected, the display screen shows the individual interface of the care device, such as parameter information and visualization information. When a terminal device is connected, the original care device's display interface is processed for different terminal devices using pop-up windows, reducing the parameter area, or removing visualization graphics, thereby freeing up display space. The processed care device display interface is then combined with the terminal device's display interface to form a fused interface. Specifically, the appropriate method of freeing up display space is selected based on the characteristics of the connected terminal device. The more content displayed on the terminal device's display interface, the more display space is freed up on the care device's display interface. This is equivalent to achieving adaptive adjustment of terminal device access and interface display, eliminating the need for manual user operation. It boasts a high degree of automation and intelligence, allowing users to easily view and operate both devices using the care device's display screen, thus improving user efficiency.
[0101] like Figure 5-12 As shown, a function key bar A5 is displayed on one side of the screen, including multiple function keys a51. Under preset conditions for switching interfaces, at least one function key a51 can be used to trigger both the childcare device and the terminal device to jointly execute the function corresponding to that function key a51, which is shared by both. When the childcare device is not connected to the terminal device, function key a51 is used to trigger the childcare device to execute the function corresponding to that function key a51 independently. Regardless of whether the childcare device and the terminal device are connected, the position of the function key bar A5 remains unchanged, and the size of the function keys a51 remains unchanged. This effectively integrates the common functions of the childcare device and the terminal device through function keys a51. Furthermore, the position and size of function keys a51 are independent of whether a second display interface of the terminal device is displayed, allowing users to operate without changing their habits, thus facilitating user operation and saving valuable screen space.
[0102] In this embodiment, the display screen of the conservation equipment is a touch screen, so it is very convenient for users to select function button a5 on the display screen and to perform related control and setting operations on the display interface.
[0103] Taking the function buttons a5 shown in the diagram as an example, the "Adaptor Pause" button pauses the alarm, meaning that when this button is triggered, the childcare equipment and terminal device (if connected) will pause the alarm, at least temporarily stopping the alarm sound output. The "Alarm Setup" button sets alarm limits, meaning that when this button is triggered, the display shows the interface for setting the alarm limits for both the childcare equipment and the terminal device (if connected), allowing the user to adjust the alarm range for both. The "Review" button provides a review function, meaning that when this button is triggered, the display shows historical data for both the childcare equipment (such as parameter trend graphs, tables, and information from connected terminal devices over a period of time) and the terminal device (if connected), allowing the user to review previous data on the baby and the equipment. The "View" button corresponds to the family interface. When triggered, the display will reduce the font size of various parameters, show more detailed information about the baby, and add comforting images to alleviate parental anxiety. The "Timer" button activates the timer function. When triggered, the caregiver and terminal device (if connected) will start a timer. This is useful for healthcare professionals, such as when assessing infant asphyxia. The "Camera" button activates the camera function. When triggered, the display will show video images taken by the caregiver's camera, the terminal device's camera, and / or a camera connected to the caregiver. The "Lock" button locks the screen. When triggered, the screens of the caregiver and terminal device (if connected) will be locked, preventing accidental input. The "Setup" button is for setting up the device. When this button is pressed, the display will show the settings menu for both the conservation equipment and the terminal device (if the terminal device is connected), allowing the user to configure the various functions within the menus.
[0104] The function keys a5 in the function key bar A5 can be added or removed. For example, after receiving an instruction to add a function key and a function key selected by the user, the processor 20 adds the selected function key to the function key bar A5. After receiving an instruction to remove a function key and a function key selected by the user, the processor 20 removes the selected function key from the function key bar A5.
[0105] Of course, as a childcare device, some functions are unique to it. Therefore, as shown in the figure, both the first display interface A and the third display interface A4 display multiple dedicated buttons d for the childcare device. The dedicated buttons d displayed on the first display interface A and the third display interface A4 are in different positions but the same size, so that users can easily find the dedicated buttons d when switching between the first display interface A and the third display interface A4. The dedicated buttons d are used to trigger the childcare device to perform a dedicated function of the childcare device. For example, after the dedicated button "Sepical tool" is triggered, the processor 20 displays multiple working modes on the childcare device's display interface (first display interface A or third display interface A4) for the user to switch between. After the dedicated button "Weigh" is triggered, the processor 20 displays text and / or illustrations on the childcare device's display interface to guide medical staff in weighing the infant. After the dedicated button "SSC" is triggered, the processor 20 controls the childcare device to enter the skin contact care state. The buttons here can be customized.
[0106] The various display interfaces on the screen can also be resized. For example, users can adjust the size and position of the display interfaces through gesture operations. The processor 20 receives the gesture operation input by the user on the touch screen, and in response to the gesture operation, adjusts the size of the second display interface A3 or the third display interface A4 selected by the gesture operation, or adjusts the position of the second display interface A3 or the third display interface A4 selected by the gesture operation.
[0107] Specifically, the processor 20 can receive a first gesture input by the user on the touch screen, and in response to the first gesture, increase the size of one of the selected second display interface A3 and third display interface A4, while decreasing the size of the other display interface. The processor 20 can also receive a second gesture input by the user on the touch screen, and in response to the second gesture, decrease the size of one of the selected second display interface A3 and third display interface A4, while increasing the size of the other display interface. The processor 20 can also receive a third gesture input by the user on the touch screen, and in response to the third gesture, swap the positions of the second display interface A3 and the third display interface A4. Therefore, gesture operations can easily adjust the displayed interface to the size and position required by the user.
[0108] As described above, the infant care device provided by this invention, when connected to different terminal devices (such as multi-parameter monitoring devices, single-parameter monitoring devices, ultrasound equipment, and cameras), displays a fused interface. When no terminal devices are connected, it displays a separate care device interface, including parameter information and visual information. When terminal devices are connected, the fused interface uses pop-ups or reduces the parameter area and removes visual graphics to combine them into a fused interface for different terminal devices. Reducing the area occupied by the care device interface is achieved by removing visual graphics, shrinking visual indicators, and reducing the parameter area. The display screen shows both dedicated button areas for each terminal device and a common button area for shared functions. The common button area can remain in its position, while the dedicated button areas adjust their positions according to changes in the display screen size. The fused interface can also be adjusted in size using gestures. All of these features facilitate medical staff in efficiently monitoring the infant's current condition through the care device.
[0109] In one embodiment, the interface display method of the infant care device may include, for example: Figure 13 The following steps are shown:
[0110] Step 1': Processor 20 acquires parameter information and status information. The parameter information includes the infant's physiological parameters and / or the equipment parameters of the childcare device, and the status information includes the infant's status information and / or the equipment status information.
[0111] Step 2': The processor 20 displays the first display interface A of the conservation equipment on the display screen; wherein, the first display interface A displays parameter information and visually presented status information. Steps 1' and 2' are the same as step 1 in the aforementioned embodiments, and the specific process is described in the aforementioned embodiments, and will not be repeated here.
[0112] Step 3': When the preset conditions for indicating interface switching are met, the processor 20 acquires the second display interface A3 of the terminal device and simultaneously displays the second display interface A3 of the terminal device and the third display interface A4 of the childcare device on the display screen. The third display interface A4 displays parameter information but not the visually presented status information. The third display interface A4 is smaller than the first display interface A to free up display space for the second display interface A3. In some embodiments, the third display interface A4 can be obtained by reducing the size of the first display interface A after removing the baby and device diagrams. In one embodiment, specifically, when the preset conditions for indicating interface switching are met, the processor 20 can acquire the second display interface A3 of the terminal device, remove part of the content from the first display interface of the childcare device to obtain the third display interface, which is smaller than the first display interface to free up display space, and the second display interface is displayed within the freed-up display space.
[0113] Figure 13 The display method shown is the same as... Figure 4 Compared to the display method shown, this is equivalent to not needing to select the display method based on the type of terminal device. Instead, regardless of the type of terminal device connected to the conservation equipment, the display is displayed according to the display method corresponding to the third type of terminal device mentioned above. This display method has been described in detail in the previous embodiments and will not be repeated here.
[0114] In another embodiment, the interface display method of the infant care device may include, for example: Figure 14 The following steps are shown:
[0115] Step 1: The processor 20 acquires parameter information and status information. The parameter information includes the infant's physiological parameters and / or the equipment parameters of the childcare device, and the status information includes the infant's status information and / or the equipment status information.
[0116] Step 2”: The processor 20 displays the first display interface of the conservation equipment on the display screen; wherein, the first display interface displays parameter information and visually presented status information. Steps 1” and 2” are the same as step 1 in the previous embodiment, and the specific process is described in the previous embodiment, and will not be repeated here.
[0117] Step 3: When the preset conditions for switching interfaces are met, the processor 20 acquires the second display interface of the parameter monitoring device; it shrinks the first display interface of the conservation equipment to free up display space, and displays the second display interface in the freed-up display space. The parameter monitoring device is used to monitor at least one physiological parameter, and its second display interface displays the monitored physiological parameter. The parameter monitoring device can be a single-parameter monitoring device, which monitors only one physiological parameter. The parameter monitoring device can also be a multi-parameter monitoring device, which can monitor multiple physiological parameters.
[0118] Figure 14 The display method shown is the same as... Figure 4 Compared to the display method shown, this is equivalent to not needing to select the display method according to the type of terminal device. Instead, after the conservation equipment is connected to the parameter monitoring device, the display method corresponding to the second type of terminal device is directly used. This display method has been described in detail in the previous embodiments and will not be repeated here.
[0119] In steps 1, 2', and 2", the first display interface graphically displays the status information, allowing users to easily identify the corresponding infant status and device status, resulting in high human-computer interaction efficiency. This will be explained in detail below through some embodiments.
[0120] like Figure 5 and 6As shown, the processor 20 displays an infant diagram (a) and at least one first physiological parameter in a first area A1 of the first display interface A, and displays device parameter information and a corresponding device diagram (b) in a second area A2 of the first display interface A. The first area A1 displays three first physiological parameters: the infant's central temperature, the infant's peripheral temperature, and the difference between these two temperatures, thus visualizing the infant's key vital signs. In the first area A1, the various first physiological parameters can be displayed in columns; in some embodiments, the column containing the key first physiological parameters has the largest area, occupying approximately 50% of the entire first area A1. This makes the key first physiological parameters more prominent, allowing medical personnel to see them even from a distance. Similarly, in the second area A2, the various device parameter information can also be displayed in columns, with the column containing the key device parameters having the largest area, occupying approximately 50% of the entire second area A2.
[0121] The infant diagram a is used at least to visualize the infant abnormality when the infant status information includes at least one abnormal infant status. Figure 6 The exclamation mark in the diagram is a visual representation of an abnormal infant core temperature. Diagram b is used at least to visualize equipment status information and its changes. Diagram b in the figure visualizes the closed state of the enclosure 120, the closed state of the radiant lamp 110, the closed state of the enclosure window 130, and the state where the bed board is not tilted.
[0122] Neonatal wards typically have many newborns in incubators. Medical staff need to inspect each incubator to check the infants' information, which is very time-consuming and inconvenient for daily monitoring. However, from... Figure 5 and 6 As can be seen, the childcare device of this invention displays infant-related information and status separately from device-related information and status, allowing medical staff to focus more effectively when viewing infant information and status, and to see the information and status of the infant and device from a greater distance, which is beneficial for daily monitoring. Furthermore, the normal and abnormal states of the infant and the status of the device are presented graphically, allowing medical staff to view them from a greater distance. This eliminates the need for medical staff to inspect every childcare device; a brief inspection is sufficient to identify infants with abnormal conditions. Especially since childcare devices are usually located in the NICU (Intensive Care Unit), medical staff can see the schematic diagrams on the display interfaces of each childcare device through the glass outside the NICU, thus understanding the status of the infant and device, without needing to enter the NICU. All of these improvements enhance human-computer interaction efficiency and the work efficiency of medical staff.
[0123] When the infant's status information changes, the processor 20 updates the infant schematic diagram a displayed in the first area A1; when the device status information changes, it updates the device schematic diagram b displayed in the second area A2. These steps can be performed in real time, thus enabling real-time updates of the infant schematic diagram a, the first physiological parameter information, the device parameter information, and the device schematic diagram b on the first display interface A.
[0124] In one embodiment, the first region A1 and the second region A2 are arranged horizontally on the display interface, compared to Figure 1 Compared with the prior art shown, the display interface of the present invention is significantly simpler, making it easier for medical staff to quickly obtain information of interest from the display interface.
[0125] Please refer to the following: Figure 15 In one embodiment, the background color of the first region A1 is different from the background color of the second region A2. As shown in the figure, the background color of the first region A1 is blue, and the background color of the second region A2 is green. This facilitates medical staff in distinguishing information about the infant and the equipment from a greater distance. The background colors of the first region A1 and the second region A2 can be customized. For example, after a user selects the first region A1 and performs a custom background color operation, the processor 20 uses the user-defined background color as the background color of the first region A1 based on the user's selection of the first region A1 and the custom background color operation. Similarly, after a user selects the second region A2 and performs a custom background color operation, the processor 20 uses the user-defined background color as the background color of the second region A2 based on the user's selection of the second region A2 and the custom background color operation.
[0126] In one embodiment, the first region A1 and the second region A2 occupy the same area in the display interface, which is equivalent to the two regions being symmetrically set, making it more aesthetically pleasing.
[0127] In one embodiment, the total occupancy ratio of the first region A1 and the second region A2 on the display interface is any ratio between 60% and 95%. It is evident that these two regions occupy a large or even the vast majority of the display interface, meaning that as much information about the infant and the device as possible is displayed, making it easy for medical personnel to quickly access and view from a greater distance.
[0128] like Figure 16 As shown, when the first area A1 displays the first physiological parameter and its changing trend (these two first physiological parameters can be different), if the number of first physiological parameters displayed in the first area A1 decreases (for example, some first physiological parameters cannot be collected, or the user has turned off the display of some first physiological parameters), then the processor 20 will increase the area of the column displaying the changing trend of the first physiological parameter, that is, increase the display area of the changing trend of the first physiological parameter. Figure 17As shown, the area displayed by the curve of the baby's weight change in the graph has increased, thus achieving adaptive adjustment of the trend graph. This method also applies to the second area A2. That is, when the second area A2 displays device parameters and their changing trends (these two device parameters can be different), if the number of device parameters displayed in the second area A2 decreases (for example, some device parameters cannot be collected, or the user has turned off the display of some device parameters), the processor 20 will increase the area of the column displaying the changing trends of the device parameters, that is, increase the display area of the changing trends of the device parameters, thereby achieving adaptive adjustment of the trend graph.
[0129] In one embodiment, the arrangement of at least one first physiological parameter information and the infant schematic diagram a in the first region A1 is consistent with the arrangement of device parameter information and the device schematic diagram b in the second region A2. This is more organized and makes it easier for users to view information of interest.
[0130] As shown in the figure, the infant diagram a in the normal state and the infant diagram a in the abnormal state are different, which makes it easier for medical staff to distinguish the current state of the infant from a distance and more quickly. In this embodiment, when the current infant state information obtained by the processor 20 includes the infant's normal state, the infant diagram a displayed in the first area A1 is the basic infant diagram, such as... Figure 5 As shown, when the current infant status information acquired by the processor 20 includes at least one abnormal infant status, the image identifier a1 corresponding to the abnormal infant status is marked on the basic infant diagram. In this way, medical staff can easily identify the abnormal infant status simply by looking at the image identifier a1 on the basic infant diagram.
[0131] Furthermore, the position of the image identifier a1 corresponding to the abnormal infant condition on the basic infant diagram is the part of the infant where the abnormal condition occurs or the part of the infant where the abnormal condition is detected. Figure 6The diagram shows an abnormal core temperature in the infant, so the corresponding image identifier a1 is located on the infant's chest and abdomen on the basic infant diagram. This allows medical staff to quickly identify the location of the abnormality using the diagram, which is very convenient. Existing childcare equipment displays only for the interaction of a single device, meaning medical staff are assumed to be viewing the equipment from its location. Therefore, the information on these displays is often disorganized and overwhelming, making it difficult to understand. Furthermore, it's impossible for a nurse to care for every infant in a ward; on-duty nurses often need to care for many infants. Nurses must frequently patrol each childcare facility to check for any abnormalities and address them promptly. The display interface of this invention fully considers the needs of nurses caring for many infants. Through the aforementioned technical means, nurses can access key information about infants and equipment (such as various abnormalities) from a distance, eliminating the need to patrol each facility, significantly reducing workload and saving nurses' time.
[0132] Because there are various abnormal conditions in infants, their corresponding image symbols are different (different locations also represent different conditions). This will be explained in detail below.
[0133] When the infant's abnormal condition includes an excessively high core temperature, the processor 20 can change the color of the infant's abdominal area in the basic infant diagram to the color corresponding to the excessively high temperature (e.g., ...). Figure 6 The red color shown indicates that the infant's core temperature is too high. This color in the abdominal area is an image marker for high temperature. Of course, you can also add an image marker for high temperature to the infant's abdomen in the basic infant diagram (e.g., ...). Figure 6 (Exclamation mark with orange background shown). Similarly, when the infant's abnormal condition includes hypothermia, the processor 20 can change the color of the infant's abdomen in the basic infant diagram to the color corresponding to hypothermia (e.g., blue-purple). Of course, it can also add an image marker corresponding to hypothermia (e.g., an exclamation mark with a blue-purple background) to the infant's abdomen in the basic infant diagram.
[0134] When the infant's abnormal condition includes hyperthermia (excessive peripheral temperature), the processor 20 can change the color of the infant's limbs in the basic infant diagram to the color corresponding to hyperthermia (e.g., red). This color of the limbs serves as the visual identifier for hyperthermia. Alternatively, the processor 20 can also add visual identifiers for hyperthermia (e.g., exclamation marks on orange backgrounds) to the infant's limbs in the basic infant diagram. Similarly, when the infant's abnormal condition includes hypothermia (excessive peripheral temperature), the processor 20 can change the color of the infant's limbs in the basic infant diagram to the color corresponding to hypothermia (e.g., bluish-purple). Again, the processor 20 can add visual identifiers for hypothermia (e.g., exclamation marks on bluish-purple backgrounds) to the infant's limbs in the basic infant diagram.
[0135] As can be seen, when an infant has an abnormal temperature, this way of presenting the infant diagram allows medical staff to intuitively see the location of the abnormal temperature and whether it is too high or too low, making it very easy to distinguish and thus able to pay attention even from a distance.
[0136] When the infant's abnormal condition includes abnormal infant breathing, the processor 20 can change the color of the basic infant diagram to the color corresponding to the infant's abnormal breathing (such as cyan) and / or image markers (such as filling the basic infant diagram with elements such as dots and lines).
[0137] When the infant's abnormal condition includes abnormal blood pressure, the processor 20 can display a cuff icon corresponding to the abnormal blood pressure at the infant's arm position in the basic infant diagram. This graphical display method can intuitively and clearly illustrate the infant's abnormal blood pressure.
[0138] When the infant's abnormal condition includes an abnormal infant heart rate, the processor 20 can display a heart rate icon corresponding to the abnormal infant heart rate at the infant's chest position in the basic infant diagram, thereby guiding medical staff to pay attention to the infant's heart rate.
[0139] When an infant has one or more abnormalities, add corresponding image labels to the basic infant diagram to facilitate timely attention by medical staff.
[0140] When the infant's status information includes at least one abnormal condition, the processor 20 can also change the facial expression in the basic infant diagram to a dynamic crying expression, and can also change the hands and feet in the basic infant diagram to erratic animated images. This dynamic alert method can more clearly indicate infant abnormalities to medical staff, allowing them to detect abnormalities earlier. Of course, when the infant is normal, since the basic infant diagram is displayed, medical staff can also see the condition at a glance. The above method achieves a visual representation of various infant states.
[0141] The childcare equipment provided by this invention offers multiple operating modes for users to choose from. Considering the large number of infants under the care of medical staff during shift changes, users may need to know the current operating mode of the childcare equipment at any time. However, inspecting each childcare device individually to obtain the current operating mode is time-consuming and laborious. This invention also helps users solve this problem through a graphical interface.
[0142] The processor 20 displays skin temperature operating mode and chamber temperature operating mode on the display screen, allowing the user to select one. Figure 5 and 6In this embodiment, selecting the "Skin Mode" button selects the skin temperature working mode, and selecting the "Air Mode" button selects the chamber temperature working mode. This example uses a touchscreen display on the human-computer interaction device 40. This allows users to directly select and switch working modes on the screen, which is very convenient.
[0143] After the user selects the skin temperature working mode, the processor 20 displays a differentiated image of the first area A1 to indicate to the user that the childcare device is currently in skin temperature working mode. There are various ways to differentiate the first area A1, such as different background colors, different areas, or different font sizes. This differentiation can be a comparison with the second area A2, or a difference in the first area A1 before and after selection. Several differentiated display methods are illustrated below.
[0144] In one approach, the processor 20 can adjust the background color of at least a portion of the first region A1 to make it more prominent, for example, by displaying the background color in at least a portion of the first region A1 while the second region A2 does not display the background color. (Comparison) Figure 5 and Figure 15 As can be seen, after selecting the skin temperature working mode, the top area of the first region A1 displays a blue background. More prominent areas indicate higher saturation and / or higher contrast, whereas when the skin temperature working mode is not selected... Figure 5 In the first area, A1, the top has only a tiny bit of blue background, or almost no background color, when the skin temperature working mode is selected. Figure 15 The medium-blue background has a large area, high saturation, and high contrast. This allows medical staff to clearly understand the current working mode of the childcare equipment even when they are far away from it, making it suitable for scenarios involving the management of many childcare facilities.
[0145] In another approach, the processor can increase the area occupied by the first region A1 on the display interface and decrease the area occupied by the second region A2. This allows the current operating mode to be clearly seen from a distance based on the size difference between the two regions, making it suitable for scenarios involving the management of numerous childcare devices.
[0146] In another embodiment, the processor can increase the font size of the at least one first physiological parameter information displayed in the first area A1 and / or decrease the font size of the device parameter information displayed in the second area A2. This difference in font size between the two areas allows for a clear indication of the current operating mode from a distance, making it suitable for scenarios involving the management of numerous childcare devices.
[0147] The methods listed above can be implemented simultaneously, or multiple methods can be implemented simultaneously.
[0148] The skin temperature mode is used to adjust the temperature control device of the childcare equipment based on the monitored infant temperature, so that the infant's temperature is maintained at a preset target infant temperature. In other words, when the skin temperature mode is selected, the processor 20 adjusts the temperature control device 30 according to the monitored infant temperature to maintain the infant's temperature at the preset target infant temperature. This mode primarily maintains a constant infant body temperature.
[0149] Accordingly, after the user selects the chamber temperature operating mode, the processor 20 displays a differentiated information in the second area A2 to indicate to the user that the incubator is currently in chamber temperature operating mode. There are various ways to differentiate the second area A2, such as different background colors, different areas, or different font sizes. This differentiation can be a comparison with the first area A1, or a difference between the second area A2 before and after selection. Several differentiated display methods are illustrated below.
[0150] In one approach, the processor 20 can adjust the background color of at least a portion of the second region A2 to make it more prominent, for example, by displaying the background color in at least a portion of the second region A2 while the first region A1 does not display the background color.
[0151] In another approach, the processor can increase the area occupied by the second region A2 in the display interface and decrease the area occupied by the first region A1 in the display interface.
[0152] In another embodiment, the processor may decrease the font size of the at least one first physiological parameter information displayed in the first region A1 and / or increase the font size of the device parameter information displayed in the second region A2.
[0153] The methods listed above can be implemented simultaneously, or multiple methods can be implemented simultaneously.
[0154] The incubator temperature control mode adjusts the temperature control device of the incubator based on the monitored incubator temperature, maintaining the incubator temperature at the preset target temperature. In other words, once the incubator temperature control mode is selected, the processor 20 adjusts the temperature control device 30 according to the monitored incubator temperature, ensuring the incubator temperature remains at the preset target temperature. This mode primarily maintains a constant incubator temperature, keeping the infant in a constant-temperature environment.
[0155] In some embodiments, the conservation equipment also has a manual operating mode, which can be automatically activated when the enclosure 120 and / or the radiation lamp 110 are turned on. Of course, the manual operating mode can also be manually activated by the user.
[0156] After the enclosure 120 and / or the radiation lamp 110 are turned on by the user, the processor 20 switches the operating mode of the childcare equipment to manual operating mode. Figure 18The system will update the device parameter information and device diagram b displayed in the second area A2 (Manual Mode). Since the nursery equipment primarily functions as a radiant warmer in manual mode, the device parameter information differs between manual mode and skin temperature mode and chamber temperature mode. For example... Figure 18 As shown, in manual operation mode, the equipment parameter information displayed in the second area A2 includes thermal radiation power and may also include the bed board angle. The equipment schematic diagram b displayed in manual operation mode shows the equipment with the enclosure 120 and / or radiant lamp 110 in the open state. As shown, the enclosure 120 is open and located at the top, and the radiant lamp 110 is also turned on and radiating heat. And as... Figure 5 and 6 As shown, the device diagram b displayed in skin temperature and chamber temperature operating modes is a diagram of the device with the enclosure 120 and / or radiant lamp 110 in the off state. Thus, users can quickly identify the manual operating mode based on device diagram b. Furthermore, when switching to manual operating mode, device diagram b can be updated using animation. For example, the diagram can dynamically change from the skin temperature and chamber temperature operating modes to the manual operating mode diagram, such as dynamically showing the opening process of the enclosure 120 and the activating process of the radiant lamp 110, making the process more vivid and engaging.
[0157] The childcare equipment provided by this invention can also visualize the care status. Care can include skin-to-skin care and bed care, which will be described separately below. Skin-to-skin care involves the mother acting as the caregiver to provide warmth to the infant, placing the infant in the mother's arms. Skin-to-skin care may last for minutes or hours, depending on the infant's actual condition. In skin-temperature mode, the temperature control device 30 controls the temperature to maintain the infant's temperature at a target infant temperature. This target infant temperature can be adjusted by the user. To avoid temperature differences between the infant and the enclosure 140 before and after skin-to-skin care, the user-adjusted temperature function can be paused during skin-to-skin care. Specifically, after the user selects the skin-temperature mode, the first area A1 also displays the target infant temperature (e.g., ...). Figure 15 As shown in “37.3”, the target infant temperature can be displayed next to the detected infant temperature, and the target infant temperature can be adjusted by the user. After the user adjusts the target infant temperature, the processor 20 adjusts the temperature control device 30 according to the monitored infant temperature to maintain the infant temperature at the current target infant temperature (adjusted target infant temperature).
[0158] like Figure 19As shown, the processor 20 receives a skin contact care instruction, and in response to the instruction, changes the infant illustration a displayed in the first area A1 to a skin contact care illustration c to visually represent the need for skin contact care of the infant, and sets the target infant temperature to be non-adjustable. Figure 15 As shown, the display interface also displays a dedicated button 'd' to trigger the skin contact care function. When the user triggers this dedicated button 'd', it is equivalent to issuing a skin contact care command, and the display interface will change from... Figure 15 It became Figure 19 Not only has the baby illustration a displayed in the first area A1 changed to a skin contact care illustration c, but the temperature parameter has also become unadjustable. In this case, the processor 20 can still time the skin contact care process, and the duration of the timer can be displayed on this dedicated button d (e.g., ...). Figure 19 The "00:50" indicator helps users understand the care situation. When the user presses this dedicated button d again, a command to end skin contact care is issued. In response to this command, the processor 20 changes the skin contact care diagram c displayed in the first area A1 to the infant diagram a, and restores the target infant temperature to adjustable. It is evident that the infant's environment remains unchanged before and after skin contact care.
[0159] Similarly, in the incubator temperature operating mode, the temperature control device 30 maintains the incubator temperature at a target level. This target incubator temperature can also be adjusted by the user. To prevent changes in the environment inside the incubator 140 after skin contact care, the user-adjusted temperature function can be paused during skin contact care. Specifically, after the user selects the incubator temperature operating mode, the second area A2 also displays the target incubator temperature (e.g., ...). Figure 16 As shown in "32.2"), the humidity inside the target chamber (such as...) Figure 16 (as shown by "55") and / or the oxygen concentration in the target chamber (e.g., Figure 16As shown in "22"), the target chamber temperature, target chamber humidity, and target chamber oxygen concentration can be displayed next to each other. The target chamber temperature, target chamber humidity, and / or target chamber oxygen concentration can be adjusted by the user. After the user adjusts the target chamber temperature, the processor 20 adjusts the temperature control device 30 according to the monitored chamber temperature to maintain the chamber temperature at the current target chamber temperature (adjusted target chamber temperature). The conservation equipment may also include a humidity control device for adjusting the humidity inside the chamber. After the user adjusts the target chamber humidity, the processor 20 adjusts the humidity control device according to the monitored chamber humidity to maintain the chamber humidity at the current target chamber humidity (adjusted target chamber humidity). The conservation equipment may also include an oxygen concentration control device for adjusting the oxygen concentration inside the chamber. After the user adjusts the target chamber oxygen concentration, the processor 20 adjusts the oxygen concentration control device according to the monitored chamber oxygen concentration to maintain the chamber oxygen concentration at the current target chamber oxygen concentration (adjusted target chamber oxygen concentration).
[0160] Similarly, processor 20 receives a skin contact care instruction and, in response, changes the infant illustration a displayed in the first area A1 to a skin contact care illustration c to visually indicate that skin contact care is required for the infant. It also sets the target chamber temperature, target chamber humidity, and / or target chamber oxygen concentration to be non-adjustable. In this case, processor 20 can also time the skin contact care, and the duration of the timer can be displayed on the dedicated skin contact care button d, allowing the user to easily monitor the care progress.
[0161] When the user presses button d again, a command to end skin contact care is issued. In response to this command, processor 20 changes the skin contact care diagram c displayed in the first area A1 to an infant diagram a, and restores the target chamber temperature, humidity, and / or oxygen concentration to adjustable levels. It is evident that the infant's environment remains unchanged before and after skin contact care.
[0162] The equipment diagram is used at least to visually represent the equipment status information and its changes, and the equipment status information may include the positional status of the first equipment component in the conservation equipment. The positional status of the first equipment component can have several variations, some of which are illustrated below.
[0163] In one scenario, the positional state of the first device component may include the tilt state of the bed board. For example... Figure 20As shown in the diagram, the device schematic b corresponding to the tilted state displays a bed board icon e. The tilt angle of bed board icon e reflects the tilt state of the bed board. For example, the tilt angle of bed board icon e in device schematic b is equal to the actual tilt angle of the bed board. Users can adjust the angle of the bed board using the corresponding buttons on the childcare device, and bed board icon e updates in real time. When the baby lies on the bed board, the bed board needs to be leveled before weighing. The bed board icon e displayed in device schematic b clearly shows the current state of the bed board, allowing users to know whether the bed board needs to be leveled before weighing the baby.
[0164] In one scenario, the positional state of the first device component may also include the open state of the enclosure 120. For example... Figure 18 As shown in the diagram, the equipment schematic b corresponding to the open state of the cover 120 displays an icon f indicating that the cover is open. This serves to inform medical staff of the current open status of the cover 120.
[0165] In one scenario, the positional status of the first device component may also include the open state of the window 130. The device schematic b corresponding to the open state of the window 130 shows an icon indicating that the window is open. Thus, medical personnel can know the open state of the window 130 through its screen without needing to approach the childcare equipment.
[0166] Equipment status information can also include the operational status of the second equipment component within the conservation equipment. The operational status of the second equipment component can also present various scenarios, some of which are illustrated below.
[0167] In one scenario, the humidity control device may include a water bag for storing the moisture needed for humidification, and a water level detection device for detecting the water level in the water bag. The operational status of the second device component may include the humidification water level. For example... Figure 18 As shown in the diagram, the device schematic b, corresponding to the humidification water level, includes a water bag icon h. The water bag icon h indicates the humidification water level. Users can easily determine whether water needs to be added to the water bag via the water bag icon h.
[0168] In one scenario, the operation of the second device component may also include infant weighing. For example, after receiving a weighing command, the processor 20 knows that the operation of the second device component includes infant weighing, and the corresponding device schematic b displays a weighing icon. The weighing icon could be, for example, a scale icon, thus indicating to the user that weighing is currently in progress. After receiving the weighing command, the processor 20 also displays a pop-up window on the display interface, containing text and / or illustrations to guide medical personnel in weighing the infant.
[0169] In one scenario, the operation of the second device component may also include hypothermia treatment. For example, after receiving a hypothermia treatment command, the processor 20 knows that the operation of the second device component includes hypothermia treatment, and the processor 20 can adjust the temperature inside the chamber to the temperature required for hypothermia treatment via the temperature control device 30. In the schematic diagram of the equipment corresponding to hypothermia treatment, the color of the area inside the incubator is the color corresponding to hypothermia treatment.
[0170] In one scenario, the operational status of the second device component may also include the on / off state of the radiation lamp 110. For example... Figure 18 As shown in the diagram, the device schematic b corresponding to the on / off state of the radiation lamp 110 shows an icon g indicating the presence of light. It is clear from a distance whether the radiation lamp 110 is on or off.
[0171] In one scenario, the operation of the second device component may also include the preheating state of the radiant lamp 110. Preheating can be manually initiated; for example, after the radiant lamp 110 is turned on, the processor 20 receives a user-input command to start preheating via a human-machine interface, thus determining that the radiant lamp 110 is currently in the preheating state. Preheating can also be automatically initiated; for example, after the radiant lamp 110 is turned on, it automatically enters the preheating state. The device schematic b corresponding to the preheating state of the radiant lamp 110 displays an icon g indicating the presence of light, and icon g flashes. It may also display the character "preheat," which flashes simultaneously with icon g. This clearly indicates the preheating status.
[0172] Abnormal conditions of conservation equipment can include at least one of the following: abnormal noise, abnormal radiant heating, abnormal internal temperature, abnormal internal humidity, abnormal internal oxygen concentration, and abnormal water level. The equipment diagram (b) corresponding to the abnormal condition displays warning icons for that abnormal condition, such as... Figure 21 The system displays a warning icon corresponding to an abnormal water level (shown by an exclamation mark inside the water bag icon h). The processor 20 can also display alarm messages indicating abnormal device status on the display interface. Similarly, if an infant is in an abnormal condition, an alarm message indicating the infant's abnormal condition can also be displayed on the display interface, thus combining graphical and textual prompts.
[0173] As can be seen from the above embodiments, the childcare equipment provided by the present invention has a graphical display method that allows users to easily identify the corresponding parameters and status. In scenarios where multiple childcare devices need to be managed in a department, users do not need to inspect each childcare device one by one. They only need to scan the display screen of each childcare device to know which babies or childcare devices have abnormalities that need to be dealt with, which is very convenient and quick.
[0174] This document describes various exemplary embodiments with reference to them. However, those skilled in the art will recognize that changes and modifications can be made to the exemplary embodiments without departing from the scope of this document. For example, various operational steps and components for performing operational steps can be implemented in different ways depending on the specific application or considering any number of cost functions associated with the operation of the system (e.g., one or more steps can be deleted, modified, or combined with other steps).
[0175] Furthermore, as those skilled in the art will understand, the principles herein can be reflected in a computer program product on a computer-readable storage medium pre-loaded with computer-readable program code. Any tangible, non-transitory computer-readable storage medium may be used, including magnetic storage devices (hard disks, floppy disks, etc.), optical storage devices (CD-ROMs, DVDs, Blu-ray discs, etc.), flash memory, and / or the like. These computer program instructions may be loaded onto a general-purpose computer, a special-purpose computer, or other programmable data processing apparatus to form a machine, such that instructions, which execute on the computer or other programmable data processing apparatus, can generate means for performing a specified function. These computer program instructions may also be stored in a computer-readable storage medium that can instruct the computer or other programmable data processing apparatus to operate in a particular manner, such that instructions stored in the computer-readable storage medium can form an article of manufacture, including means for implementing the specified function. The computer program instructions may also be loaded onto a computer or other programmable data processing apparatus to perform a series of operational steps on the computer or other programmable apparatus to produce a computer-implemented process, such that instructions, which execute on the computer or other programmable apparatus, can provide steps for implementing the specified function.
[0176] While the principles herein have been illustrated in various embodiments, numerous modifications to the structure, arrangement, proportions, elements, materials, and components, particularly suited to specific environmental and operational requirements, may be used without departing from the principles and scope of this disclosure. These modifications and other alterations or alterations will be included within the scope of this document.
[0177] The foregoing specific descriptions have been described with reference to various embodiments. However, those skilled in the art will recognize that various modifications and changes can be made without departing from the scope of this disclosure. Therefore, considerations for this disclosure are to be illustrative rather than restrictive, and all such modifications are to be included within its scope. Similarly, advantages, other advantages, and solutions to problems with respect to various embodiments have been described above. However, benefits, advantages, solutions to problems, and any elements that produce these, or make them more explicit, should not be construed as critical, essential, or necessary. The term “comprising” and any other variations thereof as used herein are non-exclusive inclusion, meaning that a process, method, article, or apparatus that includes a list of elements includes not only those elements but also other elements not expressly listed or not part of the process, method, system, article, or apparatus. Furthermore, the term “coupled” and any other variations thereof as used herein refer to physical connections, electrical connections, magnetic connections, optical connections, communication connections, functional connections, and / or any other connections.
[0178] Those skilled in the art will recognize that many changes can be made to the details of the above embodiments without departing from the basic principles of the invention. Therefore, the scope of the invention should be determined according to the following claims.
Claims
1. A method for displaying the interface of an infant care device, characterized in that, include: Acquire parameter information and status information; the parameter information includes the infant's physiological parameter information and / or the equipment parameter information of the childcare equipment, and the status information includes the infant's status information and / or the equipment status information; The first display interface of the conservation equipment is displayed on the screen; wherein the first display interface displays the parameter information and the status information presented in a visual manner; When the preset conditions for switching the instruction interface are met, the second display interface of the terminal device is obtained, and the second display interface of the terminal device and the third display interface of the conservation equipment are simultaneously displayed on the display screen; wherein, there is a communication connection between the terminal device and the conservation equipment, the third display interface displays the parameter information but does not display the visually presented status information; the third display interface is smaller than the first display interface to free up display space for the second display interface to display.
2. The method as described in claim 1, characterized in that, The display screen has a function key bar on one side, which includes multiple function keys. After the conservation device and the terminal device establish a communication connection, at least one of the function buttons can be used to trigger both the conservation device and the terminal device to jointly execute the function corresponding to the function button that both have; when the conservation device does not establish a communication connection with the terminal device, the function button is used to trigger the conservation device to execute the function corresponding to the function button alone. Regardless of whether the conservation equipment and the terminal equipment establish a communication connection, the position of the function key bar remains unchanged, and the size of the function keys remains unchanged.
3. The method as described in claim 1, characterized in that, The display screen is a touch screen; the method further includes: The system receives a gesture input from a user on the touchscreen display and, in response to the gesture, adjusts the size of the second or third display interface selected by the gesture, or adjusts the position of the second or third display interface selected by the gesture.
4. The method as described in claim 3, characterized in that, The step of receiving a user's gesture input on the touch screen and adjusting the size of the second or third display interface selected by the gesture in response to the gesture includes: The system receives a first gesture input from a user on the touchscreen display. In response to the first gesture, it increases the size of one of the selected second and third display interfaces, while simultaneously decreasing the size of the other of the selected third and second display interfaces; or... The system receives a second gesture input from the user on the touch screen. In response to the second gesture, it shrinks the size of one of the second and third display interfaces selected by the second gesture, while simultaneously increasing the size of the other of the third and second display interfaces.
5. The method as described in claim 3, characterized in that, Receiving a gesture input by a user on the touchscreen display, and adjusting the position of the second or third display interface selected by the gesture input in response to the gesture input, includes: The system receives a third gesture input from the user on the touch screen and, in response to the third gesture, swaps the positions of the second and third display interfaces.
6. The method as described in claim 1, characterized in that, The maximum font size of the parameter information displayed on the third display interface is smaller than that displayed on the first display interface.
7. The method as described in claim 1, characterized in that, Both the first and third display interfaces show multiple dedicated buttons for the conservation equipment. The dedicated buttons displayed on the first and third display interfaces are in different positions but are the same size. The dedicated buttons are used to trigger the conservation equipment to perform a dedicated function of the conservation equipment.
8. The method as described in claim 1, characterized in that, The second and third display interfaces are arranged horizontally or vertically on the display screen.
9. The method as described in claim 1, characterized in that, The area ratio of the third display interface to the display screen is not less than a preset ratio, which is (1 - the golden ratio).
10. The method as described in claim 1, characterized in that, The second display interface of the terminal device is the interface currently displayed on the display of the terminal device, and the second display interface is used to control the terminal device and / or display the data acquired by the terminal device.
11. The method as described in claim 1, characterized in that, The infant status information includes at least one abnormal infant status, which includes at least one of the following: abnormal infant temperature, abnormal infant breathing, abnormal infant blood oxygen, abnormal infant blood pressure, and abnormal infant heart rate; the equipment status information includes at least one of the following: the position status of the first equipment component in the childcare equipment, the operating status of the second equipment component in the childcare equipment, and the abnormal equipment status of the childcare equipment.
12. The method according to claims 1-11, characterized in that, The preset conditions for the instruction to switch interfaces include at least one of the following: When a communication connection is detected between the terminal device and the conservation equipment; When a user inputs a command to switch interfaces.
13. A method for displaying the interface of an infant care device, characterized in that, include: The first display interface of the conservation equipment is displayed on the screen; Under the condition that the preset conditions for switching the instruction interface are met, the second display interface of the terminal device is obtained, and there is a communication connection between the terminal device and the conservation equipment; Based on the type of the terminal device and the preset correspondence between terminal device type and display mode, the display mode of the second display interface of the terminal device is determined, and the second display interface is displayed on the display screen according to the determined display mode; The preset correspondence between terminal device types and display methods includes at least two of the following three types: The display method corresponding to the first type of terminal device includes: the second display interface of the first type of terminal device is displayed in the form of a pop-up window, and the pop-up window at least covers a portion of the first display interface of the conservation device; The display method corresponding to the second type of terminal device includes: shrinking the first display interface of the conservation device to free up display space, and displaying the second display interface in the freed-up display space; The display method corresponding to the third type of terminal device includes: removing part of the content in the first display interface of the conservation device to obtain a third display interface, the third display interface being smaller than the first display interface to free up display space, and the second display interface being displayed in the freed-up display space.
14. The method as described in claim 13, characterized in that, Also includes: Acquire parameter information and status information; the parameter information includes the infant's physiological parameter information and / or the equipment parameter information of the childcare equipment, and the status information includes the infant's status information and / or the equipment status information; the first display interface displays the parameter information and the status information in a visual presentation.
15. The method as described in claim 13, characterized in that, The first type of terminal equipment includes ultrasound imaging equipment; the second type of terminal equipment includes single-parameter monitoring devices / multi-parameter monitoring devices; and the third type of terminal equipment includes at least one of phototherapy equipment, medical ventilation equipment, monitors, cameras, single-parameter monitoring devices, and multi-parameter monitoring devices.
16. The method as described in claim 14, characterized in that, The first display interface of the reduced-size conservation equipment includes: Reduce the font size of the parameter information displayed on the first display interface, reduce the size of the status information presented in the visualization, and / or reduce the blank area of the first display interface.
17. The method as described in claim 14, characterized in that, The process of removing a portion of the content from the first display interface of the conservation equipment to obtain the third display interface includes: The third display interface is obtained by removing the status information of the visualization presentation of the first display interface.
18. The method as described in claim 13, characterized in that, The preset conditions for the instruction to switch interfaces include at least one of the following: When a communication connection is detected between the terminal device and the conservation equipment; When a user inputs a command to switch interfaces.
19. A method for displaying the interface of an infant care device, characterized in that, include: Acquire parameter information and status information; the parameter information includes the infant's physiological parameter information and / or the equipment parameter information of the childcare equipment, and the status information includes the infant's status information and / or the equipment status information; The first display interface of the conservation equipment is displayed on the screen; wherein the first display interface displays the parameter information and the status information presented in a visual manner; When the preset conditions for switching the instruction interface are met, the second display interface of the parameter monitoring device is obtained; there is a communication connection between the terminal device and the parameter monitoring device, and the parameter monitoring device is used to monitor at least one physiological parameter; the second display interface displays the physiological parameter. The first display interface of the conservation equipment is reduced in size to free up display space, and the second display interface is displayed in the freed-up display space.
20. The method as described in claim 19, characterized in that, The parameter monitoring device includes an electrocardiogram monitoring device for monitoring electrocardiogram signals, a carbon dioxide monitoring device for monitoring carbon dioxide concentration, or a blood oxygen monitoring device for monitoring blood oxygen saturation.
21. The method as described in claim 19, characterized in that, The preset conditions for the instruction to switch interfaces include at least one of the following: When a communication connection is detected between the terminal device and the conservation equipment; When a user inputs a command to switch interfaces.
22. An infant care device, characterized in that, include: A cabinet with a temperature control device; Display screen; A processor for executing a program to implement the method as described in any one of claims 1-21.
23. A computer-readable storage medium, characterized in that, The medium stores a program that can be executed by a processor to implement the method as described in any one of claims 1-21.