A pet system

Abstract

The application provides a pet system, comprising: a container for accommodating a pet; a regulating device installed on the container for regulating environmental parameters in the container; an audio and video monitor installed on the container and capable of acquiring pet image signals and pet sound signals in the container; a control circuit installed on the container, the control circuit being connected with the regulating device and the audio and video monitor; a communication circuit connected with the control circuit, the control circuit being used for communicating with external electronic devices through the communication circuit; and the regulating device comprising at least one of the following: an oxygen machine capable of regulating oxygen concentration in the container; an atomizer capable of generating atomized medium and inputting the atomized medium into the container; a temperature regulator capable of regulating temperature in the container; and a humidity regulator capable of regulating humidity in the container. The pet system of the application integrates multiple functions, effectively improving the integration and use convenience of the device.

Description

Technical Field

[0001] This application relates to the field of pet care technology, and more particularly to a pet system. Background Technology

[0002] Existing pet monitoring and care devices are relatively limited in function, mostly offering only basic environmental adjustment capabilities. They struggle to simultaneously meet the diverse needs of pets, including environmental control, status monitoring, and information interaction. When users require multiple functions for their pets, they typically need to configure multiple independent devices. These devices operate independently and cannot work collaboratively, resulting in high purchase costs, inconvenient operation, and significant space requirements. Therefore, a more integrated pet system is urgently needed. Summary of the Invention

[0003] This application provides a pet system that integrates multiple functions such as environmental regulation, audio and video monitoring, and remote communication, effectively improving the integration and ease of use of the device.

[0004] This application provides a pet system, including: Containers for holding pets; A regulating device, installed in the container, is used to regulate environmental parameters within the container; An audio-visual monitor is installed in the container and is capable of acquiring pet image signals and pet sound signals inside the container; A control circuit is installed in the container and is connected to the adjustment device and the audio / video monitor. A communication circuit is connected to the control circuit, wherein the control circuit is used to communicate with an external electronic device through the communication circuit; The regulating device includes at least one of the following: An oxygen generator is used to regulate the oxygen concentration inside the container; An atomizer is capable of generating an atomizing medium and inputting the atomizing medium into the container; A temperature regulator is provided to regulate the temperature inside the container. A humidity regulator is used to regulate the humidity inside the container.

[0005] Optionally, the pet system also includes: A wearable device for being installed on the pet and for acquiring the pet's body parameters; the wearable device is connected to the communication circuit. The wearable device includes at least one of a body temperature sensor, a heart rate sensor, a blood glucose sensor, a blood pressure sensor, a motion sensor, a position sensor, a first microphone, and a first speaker.

[0006] Optionally, the audio / video monitor has a sleep state and an operating state, and the audio / video monitor can switch between the sleep state and the operating state. The power of the audio / video monitor in the sleep state is less than the power of the audio / video monitor in the operating state; and / or, The pet system also includes a memory connected to the audio / video monitor, the memory being capable of storing the pet image signals and pet sound signals captured by the audio / video monitor; and / or, The pet system also includes a prompter connected to the audio / video monitor or control circuit, which issues a prompt message based on at least one of the pet image signal and the pet sound signal; and / or, The pet system further includes a power supply circuit, which is connected to the audio / video monitor, the adjustment device, the control circuit, and the communication circuit, and supplies power to the audio / video monitor, the adjustment device, the control circuit, and the communication circuit; the power supply circuit is connected to an external power source, and / or the power supply circuit includes a battery.

[0007] Optionally, the pet system further includes a detection sensor, which includes at least one of the following: An oxygen sensor is installed in the container and is used to collect the concentration of oxygen inside the container; A temperature sensor is installed in the container and used to collect the temperature inside the container; A humidity sensor is installed in the container and is used to collect the humidity inside the container; A fog sensor is installed in the container and is used to collect the concentration of fog inside the container.

[0008] Optionally, the pet system further includes an alarm connected to the detection sensor and triggering an alarm based on environmental parameters detected by the detection sensor; and / or, The alarm is connected to the wearable device and issues an alarm based on the body parameters detected by the wearable device.

[0009] Optionally, the pet system further includes a display and a second speaker, both of which are connected to the control circuit and the communication circuit. The display can display externally input images through the control circuit and the communication circuit, and the second speaker can emit externally input sounds through the control circuit and the communication circuit.

[0010] Optionally, the pet system also includes: A cloud server is connected to the communication circuit, and the cloud server is able to acquire at least one of environmental parameters, body parameters, pet image signals, and pet sound signals through the communication circuit. The cloud server processes at least one of environmental parameters, body parameters, pet image signals, and pet sound signals to obtain a feedback signal, and sends the feedback signal to at least one of a communication circuit and a mobile terminal.

[0011] Optionally, the cloud server acquires pet image signals, and when the pet's agitation in the pet image signal exceeds a first preset time, the cloud server generates a feedback signal indicating that the pet is abnormal; and / or, The cloud server acquires pet sound signals, and when the excessive barking in the pet's sound signals exceeds a second preset time, the cloud server generates a feedback signal indicating that the pet is experiencing an abnormality; and / or, The cloud server generates feedback signals indicating abnormalities in the pet, and the cloud server stores the corresponding environmental parameters and physical parameters.

[0012] Optionally, the pet system further includes a mobile terminal connected to the communication circuit, the mobile terminal being able to acquire at least one of environmental parameters, body parameters, pet image signals, and pet sound signals through the communication circuit; The mobile terminal processes at least one of environmental parameters, body parameters, pet image signals, and pet sound signals to obtain control commands, and sends the control commands to the communication circuit, so that the control circuit controls at least one of the adjustment device, the audio / video monitor, and the wearable device according to the control commands; and / or, The mobile terminal includes a first mobile terminal and a second mobile terminal, which have different permissions; the first mobile terminal and the second mobile terminal can acquire environmental parameters, body parameters, and health parameters through communication circuits and control circuits; the first mobile terminal can control at least one of the adjustment device, the monitor, and the wearable device through communication circuits and control circuits.

[0013] Optionally, the pet system also includes: A cloud server is connected to the communication circuit, and the cloud server is able to acquire at least one of environmental parameters, body parameters, pet image signals, and pet sound signals through the communication circuit. A mobile terminal is connected to at least one of the cloud server and the communication circuit, and acquires at least one of environmental parameters, body parameters, pet image signals, and pet sound signals; The cloud server can generate briefing information based on the environmental parameters, body parameters, pet image signals, and pet sound signals; the mobile terminal can receive the briefing information; the briefing information includes at least one of the following: the number of times the pet exhibited abnormal agitation, the duration of each agitation, the duration of activity, the duration of sleep, the time period of abnormal behavior distribution, the average value of body parameters, and abnormal values ​​of body parameters; and / or, The cloud server can generate a depth report based on the environmental parameters, body parameters, pet image signals, and pet sound signals; the mobile terminal can receive the depth report; the depth report includes at least one of the following: number of times the pet exhibits abnormal agitation, duration of each agitation, activity duration, sleep duration, distribution period of abnormal behavior, average value of body parameters, abnormal value of body parameters, activity level change curve, sleep quality change curve, the pet's main behavioral patterns, health score, personalized care suggestions, and information comparing with historical data.

[0014] The pet system provided in this application integrates at least one of an oxygen concentrator, a nebulizer, a temperature regulator, a humidity regulator, an audio / video monitor, a control circuit, and a communication circuit into a single container, enabling multiple functions such as environmental regulation, audio / video monitoring, and remote communication to be achieved in a single device. The various components integrated into the container are uniformly managed by the control circuit. Based on preset parameters or control commands from external electronic devices, the control circuit automatically controls the operating status of each configured regulating device, maintaining the oxygen concentration, temperature, humidity, and nebulization status within the container within the required range. The control circuit communicates with external electronic devices via the communication circuit. On one hand, the audio / video monitor collects image and sound signals from the pet and uploads them to the external electronic device through the control and communication circuits. Users can remotely view the pet's real-time status through the external electronic device, monitoring the pet's condition without on-site supervision. On the other hand, users can remotely send control commands to the control circuit through the external electronic device. Upon receiving the control commands, the control circuit adjusts the environmental parameters within the container or controls the operating status of the audio / video monitor, allowing for various operations of the pet system without physical presence, thus achieving two-way interaction between the user and the pet system. Therefore, users can achieve multiple functions without configuring multiple independent devices, effectively reducing equipment purchase costs and space occupation, and improving user convenience and user experience. Attached Figure Description

[0015] To more clearly illustrate the technical solutions in the embodiments of this application, the accompanying drawings used in the description of the embodiments will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this application. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0016] To gain a more complete understanding of this application and its beneficial effects, the following description will be provided in conjunction with the accompanying drawings, wherein the same reference numerals in the following description denote the same parts.

[0017] Figure 1 This is a schematic diagram of a first structure of a pet cabin provided in an embodiment of this application.

[0018] Figure 2 This is a schematic diagram of a second structure for a pet cabin provided in an embodiment of this application.

[0019] Figure 3 This is a schematic diagram of a third structure for a pet cabin provided in an embodiment of this application.

[0020] Figure 4 This is a schematic diagram of a first structure of a pet system provided in an embodiment of this application.

[0021] Figure 5 This is a schematic diagram of a second structure of a pet system provided in an embodiment of this application.

[0022] Figure 6 This is a schematic diagram of a third structure of the pet system provided in an embodiment of this application.

[0023] Figure 7 This is a sixth structural schematic diagram of a pet cabin provided in an embodiment of this application.

[0024] Figure 8 This is a schematic diagram of a fourth structure of the pet system provided in an embodiment of this application.

[0025] Explanation of reference numerals in the attached figures: 1. Pet system; 10. Pet cabin; 11. Container; 12. Regulating device; 121. Oxygen generator; 122. Nebulizer; 123. Temperature regulator; 124. Humidity regulator; 13. Audio and video monitor; 14. Circuit board; 141. Control circuit; 142. Communication circuit; 15. Wearable device; 161. Memory; 162. Alarm; 163. Alarm; 164. Second speaker; 165. Button; 17. Power circuit; 18. Detection sensor; 19. Display. 3. Cloud server; 5. Mobile terminal; 51. First mobile terminal; 52. Second mobile terminal. Detailed Implementation

[0026] The technical solutions of the embodiments of this application will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of this application, and not all embodiments. The following description of at least one exemplary embodiment is merely illustrative and is in no way intended to limit this application or its application or use. All other embodiments obtained by those skilled in the art based on the embodiments of this application without creative effort are within the protection scope of this application.

[0027] Please see Figure 1 , Figure 1 This is a schematic diagram of a first structure of a pet cabin provided in an embodiment of this application. This application provides a pet system including a pet cabin 10. The pet cabin 10 includes a container 11, an adjustment device 12, an audio / video monitor 13, a control circuit 141, and a communication circuit 142. The container 11 is used to house a pet; the adjustment device 12 is installed in the container 11 and is used to adjust environmental parameters within the container 11; the audio / video monitor 13 is installed in the container 11 and is capable of acquiring image and sound signals of the pet within the container 11; the control circuit 141 is installed in the container 11 and is connected to the adjustment device 12 and the audio / video monitor 13; the communication circuit 142 is connected to the control circuit 141, and the control circuit 141 is used to communicate with external electronic devices through the communication circuit 142.

[0028] The regulating device 12 includes at least one of an oxygen generator 121, a nebulizer 122, a temperature regulator 123, and a humidity regulator 124. The oxygen generator 121 regulates the oxygen concentration within the container 11; the nebulizer 122 generates an atomizing medium and introduces it into the container 11; the temperature regulator 123 regulates the temperature within the container 11; and the humidity regulator 124 regulates the humidity within the container 11. The oxygen generator 121, nebulizer 122, temperature regulator 123, and humidity regulator 124 can be flexibly selected according to actual usage needs. Users can choose one or more of these devices based on the specific care needs of their pets. For example, only the oxygen generator 121 can be configured when only oxygen supply is required; both oxygen generator 121 and nebulizer 122 can be configured when both oxygen supply and nebulization are needed; and all four regulating devices 12 can be configured when comprehensive environmental control is required, enabling this application to adapt to the diverse needs of different pets and different care scenarios. In addition, users can flexibly select and configure the corresponding adjustment equipment 12 modules according to the specific care needs of their pets. When care needs change, other modules can be flexibly added on the basis of the existing equipment without replacing the entire equipment, which further reduces the long-term use cost for users.

[0029] In this embodiment, container 11 is a cabin structure with a receiving cavity for accommodating a pet. The cabin has an opening for the pet to enter and exit, and a door for closing the opening. The cabin may be at least partially made of transparent material to allow observation of the pet's condition inside the receiving cavity from the outside. The cabin may be a sealed structure to maintain stable environmental parameters within the receiving cavity. The cabin has reserved mounting positions for integrating and installing adjustment equipment 12, audio / video monitor 13, control circuit 141, and communication circuit 142.

[0030] In addition, the enclosure is equipped with a pressure relief safety structure and a breathable and quiet structure. The pressure relief safety structure is used to automatically release pressure when the air pressure inside the containment cavity is abnormal, so as to avoid the pet being harmed by excessive pressure inside the containment cavity; the breathable and quiet structure is used to reduce airflow noise while ensuring gas exchange inside and outside the containment cavity, providing a quiet treatment or resting environment for the pet.

[0031] The regulating device 12 is used to create a suitable environment for pets to stay in the cabin cavity. The regulating device 12 includes at least one of an oxygen generator 121, a nebulizer 122, a temperature regulator 123, and a humidity regulator 124.

[0032] The oxygen generator 121 includes an oxygen generating unit and a circulating oxygen supply duct. The oxygen generating unit is used to produce oxygen, and the circulating oxygen supply duct is connected to the oxygen generating unit to evenly deliver oxygen to all parts of the receiving cavity.

[0033] The nebulizer 122 includes an ultrasonic nebulizing component, an independent medicine cup, and a nebulization mixing duct. The independent medicine cup has a space for holding the substance to be nebulized. The ultrasonic nebulizing component atomizes the substance in the medicine cup into fine particles. One end of the nebulization mixing duct connects to the ultrasonic nebulizing component, and the other end connects to the receiving cavity, for delivering the atomized particles into the receiving cavity. For example, the nebulization mixing duct is connected to the circulating oxygen supply duct of the oxygen concentrator 121. The atomized gas generated by the nebulizer 122 and the oxygen supplied by the oxygen concentrator 121 are uniformly mixed in the nebulization mixing duct and then enter the receiving cavity together. The substance to be nebulized can be a medicated liquid, saline solution, or distilled water, etc. The specific type can be selected according to the pet's care or treatment needs, and this application does not limit this.

[0034] The temperature regulator 123 includes a heating component and a heat dissipation component. The heating component is used to heat the air inside the container 11, and the heat dissipation component is used to dissipate heat or cool the air inside the container 11. The heating component may include one or more of the following: a resistance wire heater, a ceramic heater, a graphene heater, a heating lamp, an electromagnetic heater, and a fan heater. The heat dissipation component may include at least one of the following: a fan, a heat sink, a TEC cooling plate, and an aluminum water-cooled radiator.

[0035] The humidity regulator 124 includes a humidification component and a dehumidification component. The humidification component is used to increase the humidity inside the container 11, and the dehumidification component is used to reduce the humidity inside the container 11.

[0036] The audio / video monitor 13 may include a camera and a microphone. The camera is used to capture images of the pet inside the enclosure, and the microphone is used to capture sounds from the pet inside the enclosure. The audio / video monitor 13 can support all-weather audio and video capture, and also supports high-definition recording, real-time audio recording, and two-way video calls. Optionally, the camera can be an anti-fog high-definition camera to reduce the impact of lens fogging caused by temperature and humidity changes inside the enclosure on image clarity, ensuring that the captured pet images are clearly visible; the microphone can be a high-sensitivity microphone to accurately capture subtle sounds such as the pet's barks and movements, improving the sensitivity and fidelity of sound capture.

[0037] For example, the audio / video monitor 13 has a sleep state and an operating state, and the audio / video monitor 13 can switch between the sleep state and the operating state. The power of the audio / video monitor 13 in the sleep state is less than the power of the audio / video monitor 13 in the operating state.

[0038] When the audio / video monitor 13 is in operation, both the camera and microphone are on. The monitor 13 captures real-time images and sounds of the pet inside the enclosure and uploads the captured audio / video data to an external electronic device via the communication circuit 142. When the monitor 13 is in sleep mode, the camera and / or microphone are turned off or the sampling frequency is reduced to decrease the power consumption of the monitor 13.

[0039] The audio / video monitor 13 enters a sleep state during idle periods or when monitoring is not required to reduce unnecessary power consumption. In sleep state, when the control circuit 141 receives a wake-up command from an external electronic device via the communication circuit 142 (e.g., a wake-up command sent by a user via a mobile app), the control circuit 141 controls the audio / video monitor 13 to switch to working mode. The audio / video monitor 13 then starts audio / video acquisition and uploads the acquired audio / video data to the external electronic device via the communication circuit 142 for remote viewing by the user.

[0040] By setting sleep and working states for the audio and video monitor 13, the overall energy consumption of the device can be reduced while meeting the user's need for remote viewing on demand. This is especially suitable for scenarios that do not require continuous monitoring, such as long-term pet boarding or nighttime monitoring, which helps to extend the device's lifespan and reduce operating costs.

[0041] The control circuit 141 can be the main control circuit board, which is electrically connected to the oxygen generator 121, the nebulizer 122, the temperature regulator 123, the humidity regulator 124, the audio and video monitor 13, and the communication circuit 142.

[0042] Please see Figure 2 , Figure 2 This is a second structural schematic diagram of a pet cabin provided in an embodiment of this application. In some embodiments, the pet system further includes a detection sensor 18, which includes at least one of an oxygen sensor, a temperature sensor, a humidity sensor, and a fog sensor. The oxygen sensor is installed in the container 11 and is used to collect the oxygen concentration inside the container 11; the temperature sensor is installed in the container 11 and is used to collect the temperature inside the container 11; the humidity sensor is installed in the container 11 and is used to collect the humidity inside the container 11; the fog sensor is installed in the container 11 and is used to collect the fog concentration inside the container 11.

[0043] The detection sensors 18 can be set independently of their corresponding regulating devices 12. Specifically, the oxygen sensor is set independently of the oxygen generator 121, the temperature sensor is set independently of the temperature regulator 123, the humidity sensor is set independently of the humidity regulator 124, and the mist sensor is set independently of the nebulizer 122. That is, each detection sensor 18 is installed as an independent component in the container 11 and connected to the control circuit 141 through an independent signal line. Alternatively, the detection sensors 18 can also be integrated with their corresponding regulating devices 12. That is, each detection sensor 18 is part of its corresponding regulating device 12 and is connected to the control circuit 141 through the interface of the regulating device 12. For example, the oxygen sensor is integrated into the oxygen generator 121, the temperature sensor is integrated into the temperature regulator 123, the humidity sensor is integrated into the humidity regulator 124, and the mist sensor is integrated into the nebulizer 122.

[0044] In some cases, the temperature regulator 123 and the humidity regulator 124 can be integrated together or set up independently.

[0045] The control circuit 141 can acquire the detection data collected by the detection sensor 18 and output a control signal to the corresponding regulating device 12 based on the detection data to adjust the environmental parameters inside the container 11. Specifically, the control circuit 141 compares the oxygen concentration detected by the oxygen sensor with a preset target oxygen concentration. When the detected oxygen concentration deviates from the target oxygen concentration, the control circuit 141 outputs a control signal to the oxygen generator 121 to adjust the start / stop or output power of the oxygen generating unit to restore the oxygen concentration to the target oxygen concentration range; and / or, the control circuit 141 compares the temperature detected by the temperature sensor with a preset target temperature. When the detected temperature deviates from the target temperature, the control circuit 141 outputs a control signal to the temperature regulator 123 to control the heating component to start heating or control the temperature. The heat dissipation component starts to dissipate heat, restoring the temperature to the target temperature range; and / or, the control circuit 141 compares the humidity detected by the humidity sensor with the preset target humidity. When the detected humidity deviates from the target humidity, the control circuit 141 outputs a control signal to the humidity regulator 124 to control the humidification component to start humidification or control the dehumidification component to start dehumidification, restoring the humidity to the target humidity range; and / or, the control circuit 141 outputs a control signal to the atomizer 122 according to the preset atomization duration, atomization level, and timed start / stop parameters, to control the start, stop, or atomization level switching of the atomizer 122.

[0046] In addition, the oxygen generator 121 supports timed start-stop oxygen supply. The control circuit 141 automatically controls the start or stop of the oxygen generating unit according to the preset oxygen supply start time and oxygen supply stop time to achieve timed oxygen supply. The oxygen generator 121 also supports high pressure regulation. The control circuit 141 adjusts the output pressure of the oxygen generating unit according to the preset target pressure value to maintain the oxygen pressure in the containment chamber within the required range. The nebulizer 122 also supports timed nebulization. The control circuit 141 automatically controls the start or stop of the ultrasonic nebulization component according to the preset nebulization start time and nebulization stop time.

[0047] The control circuit 141 is also used to send control signals to the audio-visual monitor 13 to control the operating state and / or operating parameters of the audio-visual monitor 13. For example, the control circuit 141 controls the audio-visual monitor 13 to switch between a sleep state and an operating state; and / or, the control circuit 141 controls the audio-visual monitor 13 to start recording, stop recording, enable two-way audio, or disable two-way audio according to the control instructions of an external electronic device; and / or, when the control circuit 141 detects that at least one of the oxygen concentration, temperature, and humidity exceeds the corresponding preset threshold range, the control circuit 141 automatically controls the audio-visual monitor 13 to switch from a sleep state to an operating state and start recording.

[0048] The communication circuit 142 may include at least one of a WiFi communication unit and a Bluetooth communication unit. The control circuit 141 communicates with external electronic devices through the communication circuit 142. The control circuit 141 uploads environmental parameters collected by each detection sensor 18 and audio / video data collected by the audio / video monitor 13 to the external electronic devices through the communication circuit 142; the control circuit 141 receives control commands from the external electronic devices through the communication circuit 142 and executes corresponding control operations according to the control commands.

[0049] Optionally, when the audio-visual monitor 13 is awakened from the sleep state and switched to the working state, the control circuit 141 also simultaneously uploads the oxygen concentration currently detected by the oxygen sensor, the temperature currently detected by the temperature sensor, the humidity currently detected by the humidity sensor, and the current working status of the atomizer 122 to the external electronic device through the communication circuit 142. This allows the user to remotely wake up the monitor to view the pet's real-time status while also knowing the current environmental parameters and atomization working status inside the containment cavity.

[0050] Please see Figure 3 , Figure 3 This is a schematic diagram of a third structure of the pet cabin provided in this application embodiment. In some embodiments, the control circuit 141 may also be connected to a button 165 and a display 19. The display 19 is used to display the oxygen concentration detected by the oxygen sensor, the temperature detected by the temperature sensor, the humidity detected by the humidity sensor, and the current working status of the nebulizer 122. Thus, the user can intuitively view the current environmental parameters and nebulization status inside the container 11 at the equipment site. The button 165 is used for the user to set and adjust the working parameters of the adjustment device 12. In response to the user's operation of the button 165, the control circuit 141 updates the local preset parameters and outputs control signals to the corresponding adjustment device 12 according to the updated preset parameters to control the environmental parameters and nebulization working status inside the container 11.

[0051] In some embodiments, the pet system further includes a wearable device 15. The wearable device 15 is worn on the pet's body and acquires the pet's physical parameters. The wearable device 15 is connected to a communication circuit 142 and can continuously or intermittently acquire physical parameters while the pet is active or resting within its enclosure, and transmit the acquired physical parameters to a control circuit 141 or an external device via the communication circuit 142. The wearable device 15 can be worn on the pet's neck, chest, abdomen, back, or limbs.

[0052] Exemplarily, the wearable device 15 includes at least one of a body temperature sensor, a heart rate sensor, a blood glucose sensor, a blood pressure sensor, a motion sensor, a position sensor, a first microphone, and a first speaker. The body temperature sensor detects the pet's body temperature, the heart rate sensor detects the pet's heart rate, the blood glucose sensor detects the pet's blood glucose level, and the blood pressure sensor detects the pet's blood pressure. The motion sensor detects the pet's activity level to reflect its movement status. The position sensor detects the pet's location information. The first microphone collects sounds emitted by the pet, and the first speaker plays audio signals, such as the owner's voice to soothe the pet. Furthermore, the user can also engage in two-way voice communication with the pet through the first microphone and first speaker of the wearable device 15, further enhancing the ability for remote interaction.

[0053] By setting up wearable device 15, users can view their pet's video and listen to its voice through audio-visual monitor 13, while also remotely monitoring their pet's physiological indicators such as body temperature, heart rate, blood pressure, and blood sugar. They can also engage in two-way voice interaction with their pet. This allows users to gain a more comprehensive understanding of their pet's physical and mental state, making it particularly suitable for applications requiring continuous monitoring of physiological indicators, such as post-operative recovery or disease care.

[0054] Optionally, depending on actual needs, the wearable device 15 can also be equipped with a blood oxygen monitoring module, a weight monitoring module, etc., to detect vital signs such as blood oxygen saturation and weight changes in pets. These multidimensional vital signs, combined with parameters such as body temperature, blood pressure, blood sugar, and heart rate, can more comprehensively reflect the pet's physical condition, providing richer data support for pet health assessment and disease diagnosis.

[0055] Please combine Figure 4 , Figure 4 This is a schematic diagram of a first structure of a pet system provided in an embodiment of this application. In some embodiments, the external electronic device may include a mobile terminal 5, which is connected to a communication circuit 142. The mobile terminal 5 can acquire at least one of environmental parameters, body parameters, pet image signals, and pet sound signals through the communication circuit 142. The mobile terminal 5 processes the environmental parameters, body parameters, pet image signals, and pet sound signals to obtain control commands, and sends the control commands to the communication circuit 142, so that the control circuit 141 controls at least one of the adjustment device 12, audio and video monitor 13, and wearable device 15 according to the control commands.

[0056] For example, the mobile terminal 5 can be a mobile phone with an app running on it. The app displays environmental parameters (including oxygen concentration, temperature, and humidity), physical parameters (including pet's body temperature, heart rate, blood pressure, and blood sugar), as well as pet image and sound signals in real time, allowing users to remotely view the pet's real-time status and current environmental conditions.

[0057] Users can remotely preset and instantly control the pet system via an app. For remote presets, users can access the parameter setting interface through the app to remotely set the target oxygen concentration, oxygen supply duration, and timed start / stop parameters for the oxygen generator 121; the target temperature for the temperature regulator 123; the target humidity for the humidity regulator 124; and the nebulizer 122's nebulization duration, nebulization level, and timed start / stop parameters. After setting, the app sends the preset parameters to the control circuit 141 via the communication circuit 142. The control circuit 141 stores the preset parameters and controls the corresponding regulating device 12 to operate according to the preset parameters. Users can also modify and update the preset parameters at any time via the app. The modified preset parameters are also received and stored by the control circuit 141 to replace the original parameters.

[0058] In terms of real-time control, the user operates the APP based on the real-time information presented on the APP. The APP generates control commands in response to the user's operations and sends the control commands to the control circuit 141 via the communication circuit 142. After receiving and parsing the control commands, the control circuit 141 outputs control signals to the corresponding adjustment device 12 or audio / video monitor 13 to execute the operations indicated by the control commands. The control commands include at least one of parameter adjustment commands, wake-up commands, start / stop commands, and video call commands. Parameter adjustment commands are used to adjust the oxygen concentration of the oxygen machine 121, the nebulization duration or nebulization level of the nebulizer 122, the target temperature of the temperature regulator 123, or the target humidity of the humidity regulator 124. Wake-up commands are used to switch the audio / video monitor 13 from sleep mode to working mode. Start / stop commands are used to start or stop the oxygen machine 121, nebulizer 122, temperature regulator 123, or humidity regulator 124. Video call commands are used to establish an audio / video data transmission channel between the mobile terminal 5 and the audio / video monitor 13 to realize two-way video calls between the user and the pet.

[0059] For example, when a user sees that the current oxygen concentration is low through the APP, they can input an operation to increase the oxygen concentration on the APP. The APP generates an oxygen concentration adjustment command based on the operation and sends the oxygen concentration adjustment command to the communication circuit 142. After receiving the oxygen concentration adjustment command through the communication circuit 142, the control circuit 141 controls the oxygen generator 121 to increase its output power in order to increase the oxygen concentration in the container 11.

[0060] In this way, after viewing the pet system's environmental parameters, physical parameters, and pet audio-visual data via mobile terminal 5, users can manually input control operations based on real-time data. This causes mobile terminal 5 to generate corresponding control commands and send them to communication circuit 142. Control circuit 141 then executes the corresponding control actions based on the control commands, enabling users to remotely control adjustment device 12, audio-visual monitor 13, and wearable device 15. Even when users are not physically present at the equipment, they can flexibly adjust the equipment's operating parameters based on the pet's real-time status, improving the pet system's ease of use and interactive experience.

[0061] Please combine Figure 5 and Figure 6 , Figure 5 This is a schematic diagram of a second structure of the pet system provided in an embodiment of this application. Figure 6 This is a schematic diagram of a third structure of the pet system provided in an embodiment of this application. In some embodiments, the external electronic device may include a cloud server 3, which is connected to a communication circuit 142. The cloud server 3 can acquire at least one of environmental parameters, body parameters, pet image signals, and pet sound signals through the communication circuit 142. The cloud server 3 processes the environmental parameters, body parameters, pet image signals, and pet sound signals to obtain a feedback signal, and sends the feedback signal to at least one of the communication circuit 142 and the mobile terminal 5.

[0062] After receiving the above data, the cloud server 3 performs intelligent AI analysis and processing on the data according to a preset recognition model or algorithm. For example, the cloud server 3 identifies the pet's movement state based on the pet's image signal, and determines whether the pet has abnormal movement behaviors such as continuous walking, restlessness, repeated climbing, or continuous random movements; and / or, the cloud server 3 identifies the pet's sound state based on the pet's sound signal, and determines whether the pet has abnormal sound states such as continuous barking or frequent abnormal noises; and / or, the cloud server 3 determines whether the oxygen concentration, temperature, or humidity exceeds the corresponding preset threshold range based on environmental parameters; and / or, the cloud server 3 determines whether the pet's body temperature, heart rate, blood pressure, or blood sugar exceeds the corresponding preset threshold range based on body parameters.

[0063] The cloud server 3 generates a feedback signal based on the judgment result and sends the feedback signal to at least one of the communication circuit 142 and the mobile terminal 5. For example, when the cloud server 3 detects abnormal movement behavior or abnormal sound in the pet, the feedback signal includes a wake-up command. The control circuit 141 controls the audio / video monitor 13 to switch from a sleep state to an operating state based on the wake-up command, thereby initiating audio / video acquisition. The feedback signal may also include an adjustment command. The control circuit 141 controls at least one of the oxygen generator 121, nebulizer 122, temperature regulator 123, and humidity regulator 124 to adjust its operating parameters to regulate the oxygen concentration, nebulization status, temperature, or humidity within the container 11. The feedback signal may also include alarm information. The control circuit 141 controls the alarm 163 to issue an alarm based on the alarm information.

[0064] By setting up the aforementioned data interaction mechanism in the pet system, the local device transmits the collected data to the cloud server 3. The cloud server 3 then utilizes its powerful computing capabilities to analyze and process the data, returning the processing results to the local device as feedback signals. The local device then executes corresponding control operations. Therefore, the pet system can achieve intelligent environmental control and pet status monitoring without requiring high-performance computing resources locally, reducing the hardware cost of the local device. Simultaneously, it allows for remote updates and upgrades of the data processing algorithms, facilitating continuous optimization and expansion of system functions.

[0065] In some embodiments, the cloud server 3 acquires a pet image signal, and when the pet's agitation in the pet image signal exceeds a first preset time, the cloud server 3 generates a feedback signal indicating that the pet is abnormal; and / or, the cloud server 3 acquires a pet sound signal, and when the barking in the pet sound signal exceeds a second preset time, the cloud server 3 generates a feedback signal indicating that the pet is abnormal.

[0066] After acquiring the pet image signal uploaded by the audio-visual monitor 13 through the communication circuit 142, the cloud server 3 performs frame-by-frame analysis or interval sampling analysis on the pet image signal to identify the pet's limb movements and displacement trajectory. When the displacement amplitude of the pet within the containment cavity exceeds a preset amplitude threshold and / or the displacement frequency exceeds a preset frequency threshold, the cloud server 3 determines that the pet is exhibiting agitated behavior and starts timing. If the agitated behavior continues, when the timing reaches a first preset time, the cloud server 3 determines that the pet is in an abnormal state and generates a feedback signal indicating that the pet is in an abnormal state. The first preset time can be adjusted as needed; for example, the first preset time can be different for different types and sizes of pets. The first preset time can also be set or adjusted by the administrator or pet owner.

[0067] After cloud server 3 receives the pet sound signal uploaded by audio / video monitor 13 through communication circuit 142, it performs spectrum analysis and volume analysis on the pet sound signal to identify the frequency and volume characteristics of the pet's barking. When the frequency and / or volume characteristics of the pet's barking match a preset barking characteristic model, cloud server 3 determines that the pet is barking excessively and starts timing. If the barking continues, when the timing reaches a second preset time, cloud server 3 determines that the pet is in an abnormal state and generates a feedback signal indicating that the pet is in an abnormal state. The second preset time can be adjusted as needed, and can also be set or adjusted by the administrator or pet owner.

[0068] Using the methods described above, cloud server 3, based on pet image and sound signals and combined with duration determination logic, can automatically identify whether the pet is exhibiting abnormal behavior such as continuous agitation or persistent barking, and generate a feedback signal upon confirmation of the abnormality. The first and second preset time settings of cloud server 3 effectively avoid false alarms caused by brief pet activity or barking, improving the accuracy and reliability of the alarm.

[0069] For example, in a pet boarding scenario at a pet store or pet hospital, mobile terminal 5 includes mobile terminal 5 logged in with an administrator account and mobile terminal 5 logged in with a pet owner account. The administrator account is used by the store administrator, and the pet owner account is used by the owner of the pet being boarded. Cloud server 3 pushes feedback signals to both the administrator account and the pet owner account simultaneously via an app. The feedback signals can be pushed in at least one of the following forms: pop-up notifications and message notifications.

[0070] Optionally, various push notification methods can be added. For example, in addition to app pop-up pushes and message notifications, feedback signals can also be pushed to users via SMS, WeChat official accounts, or mini-programs, enabling users to receive feedback signals through multiple channels. Even when the app is not open or the network signal is poor, users can still be informed of their pet's abnormal status in a timely manner, further improving the reach and reliability of feedback signals.

[0071] Therefore, when a pet exhibits abnormal behavior such as persistent agitation or excessive barking, both the store manager and the pet owner can simultaneously receive feedback signals on their respective mobile devices (5), achieving dual-terminal synchronous notification. Upon receiving the alarm notification, the store manager can immediately dispatch personnel to check and handle the situation; upon receiving the alarm notification, the pet owner can promptly contact the store to inquire about the pet's condition or remotely view real-time monitoring footage via their mobile device (5) to confirm the pet's status. Through this dual-terminal synchronous alarm mechanism, stores can promptly detect pet abnormalities without constant human supervision, and pet owners can be informed of their pet's abnormal condition immediately without frequent proactive checks, effectively reducing the burden of manual monitoring and simultaneously improving the safety and security level during pet boarding or treatment.

[0072] Furthermore, the anomaly detection capabilities of cloud server 3 can be further expanded to include more types of identification. For example, cloud server 3 can add the identification of a pet's breathing posture, determining whether breathing is abnormal by analyzing the frequency and amplitude of the pet's chest and abdomen movements; add the identification of abnormal lying postures, determining whether the pet is uncomfortable by analyzing whether it maintains an abnormal lying posture for a long time or remains motionless for an extended period; and add the identification of prolonged immobility, classifying a pet as abnormally still when it moves almost no distance within a preset time. These expanded identification types complement those for agitation and excessive barking, enabling monitoring of a pet's abnormal state from multiple dimensions and further enhancing the comprehensiveness of monitoring.

[0073] In some embodiments, cloud server 3 generates feedback signals indicating abnormalities in the pet, and cloud server 3 stores the corresponding environmental parameters and physical parameters.

[0074] When the cloud server 3 generates a signal indicating that the pet is in an abnormal state and generates a feedback signal, the cloud server 3 records the time when the abnormality occurs and obtains the environmental parameters and body parameters corresponding to the time when the abnormality occurs from the data uploaded by the communication circuit 142.

[0075] Cloud server 3 associates and stores at least one of the following—the time of the anomaly, environmental parameters, and physical parameters—with the pet's abnormal event, forming a bound data log. Each pet abnormal event record in the bound data log corresponds to a timestamp, environmental parameters within container 11 at the time of the event, and the pet's physical parameters. The bound data log is stored in the data repository of cloud server 3. The bound data log can be remotely queried and viewed by mobile terminal 5 via an app.

[0076] The bound data logs can also be used to generate pet behavior analysis reports. Based on multiple bound data logs stored over a period of time, the cloud server 3 counts the frequency of abnormal pet behaviors and the peak periods of abnormal behaviors. Combined with the changing trends of environmental and physical parameters during the same period, it analyzes the correlation between environmental factors or changes in physical condition and abnormal pet behaviors, generates analysis reports, and pushes them to the mobile terminal 5.

[0077] By synchronously storing and binding data logs, all relevant data for each pet abnormal event is fully recorded and archived, providing objective data support for users to trace the cause of the abnormality, assess the pet's recovery progress, and adjust oxygen therapy or care plans. By viewing the bound data logs and combining them with environmental parameters and the pet's physical parameters at the time of the abnormality, users can more accurately determine the pet's recovery status and thus develop more targeted treatment or care plans.

[0078] Please continue reading. Figure 2 or Figure 3 The pet system also includes a memory 161, which is connected to the audio and video monitor 13 and is used to store pet image signals and pet sound signals collected by the audio and video monitor 13.

[0079] By configuring the memory 161, the audio and video data collected by the audio and video monitor 13 can be locally saved. Users can retrieve and play back historical audio and video data stored in the memory 161 at any time via external electronic devices. This allows users to not only remotely view real-time monitoring footage but also review the pet's status at other times, facilitating the tracing of the cause of abnormal pet behavior or assessing the pet's recovery progress. Users can also send commands via external electronic devices to delete expired or no longer needed audio and video data from the memory 161 to free up storage space.

[0080] In some embodiments, the pet system further includes a prompter 162, which is connected to the audio / video monitor 13 or the control circuit 141 and issues a prompt message based on at least one of the pet image signal and the pet sound signal.

[0081] For example, when the pet image signal collected by the audio-visual monitor 13 shows that the pet is exhibiting abnormal movement behaviors such as continuous walking, constant restlessness, repeated climbing, or continuous random movements, and / or when the pet sound signal collected by the audio-visual monitor 13 shows that the pet is exhibiting abnormal sound states such as continuous barking or frequent unusual noises, the prompter 162 issues a prompt message based on the pet image signal and / or pet sound signal. For example, the prompter 162 can be at least one of the following: an audible and visual alarm 163, a buzzer, an indicator light, or a display screen, and the prompt message includes at least one of the following: flashing light, audible alarm, text prompt, or icon prompt.

[0082] In addition, the prompter 162 is also connected to the communication circuit 142. The prompt information issued by the prompter 162 is also transmitted to an external electronic device via the communication circuit 142 to provide a synchronous prompt to the user of the external electronic device.

[0083] By setting up a notification device 162 in the pet system, when a pet exhibits abnormal behavior or makes unusual noises, the notification device 162 can promptly issue a notification message, reminding nearby staff or pet owners to pay attention to the pet's condition and take timely action, thus further enhancing the pet system's monitoring capabilities.

[0084] In some embodiments, the pet system further includes a power supply circuit 17, which is connected to the audio / video monitor 13, the adjustment device 12, the control circuit 141, and the communication circuit 142, and supplies power to the audio / video monitor 13, the adjustment device 12, the control circuit 141, and the communication circuit 142; the power supply circuit 17 is connected to an external power source, or the power supply circuit 17 includes a battery.

[0085] Exemplarily, the power supply circuit 17 includes a power input interface for connecting to an external power source, which can be AC ​​mains power, such as AC 220V±10%, 50 / 60Hz wide voltage input. The power supply circuit 17 may also include an EMI filter circuit, a surge protection circuit, and an AC / DC switching power supply module. The EMI filter circuit suppresses electromagnetic interference from the external power input, and the surge protection circuit absorbs surge voltages generated by lightning or power grid fluctuations to protect the various electrical modules of the pet system from damage. The AC / DC switching power supply module converts the externally input AC power into the DC power required by each electrical module.

[0086] The power supply circuit 17 may also include a battery. The battery is used to supply power to each power module when an external power source cannot be connected. The battery is a rechargeable battery, such as a lithium battery. The power supply circuit 17 also includes a charging management unit, which is used to charge the battery when the power supply circuit 17 is connected to an external power source, and automatically switch to battery power supply after the external power source is disconnected.

[0087] By providing a power circuit 17 for the pet system, the audio / video monitor 13, adjustment device 12, control circuit 141, and communication circuit 142 can obtain stable operating power. Furthermore, the power circuit 17 supports both external power supply and battery power, allowing the pet system to maintain normal operation for a certain period when external power is unavailable, thus improving the pet system's safety.

[0088] In some embodiments, the pet system further includes an alarm 163, which is connected to a detection sensor 18 and alarms based on environmental parameters detected by the detection sensor 18; and / or, the alarm 163 is connected to a wearable device 15 and alarms based on body parameters detected by the wearable device 15.

[0089] Specifically, the environmental parameters include the oxygen concentration detected by the oxygen sensor, the temperature detected by the temperature sensor, and the humidity detected by the humidity sensor. The alarm 163 has preset threshold ranges for oxygen concentration, temperature, and humidity. When the oxygen concentration detected by the oxygen sensor exceeds the preset oxygen concentration threshold range, the alarm 163 issues an alarm; when the temperature detected by the temperature sensor exceeds the preset temperature threshold range, the alarm 163 issues an alarm; and when the humidity detected by the humidity sensor exceeds the preset humidity threshold range, the alarm 163 issues an alarm.

[0090] The alarm 163 can also be connected to the wearable device 15. The body parameters include at least one of the pet's body temperature, heart rate, blood pressure, and blood sugar detected by the wearable device 15. The alarm 163 has preset threshold ranges corresponding to each body parameter. When at least one of the pet's body temperature, heart rate, blood pressure, and blood sugar detected by the wearable device 15 exceeds the corresponding preset threshold range, the alarm 163 issues an alarm.

[0091] Optionally, the alarm 163 is connected to the communication circuit 142. Alarm information emitted by the alarm 163 is transmitted to an external electronic device via the communication circuit 142, and simultaneously pushed to the administrator account and the account of the user on the external electronic device. The alarm information can be pushed via at least one of the following methods: app pop-up notification and message notification.

[0092] For example, the alarm 163 can also be an audible and visual alarm 163, installed on the outer wall of the container 11. When the alarm 163 issues an alarm signal, the audible and visual alarm 163 simultaneously emits an audible alarm and / or flashes a light to alert on-site personnel to handle the situation promptly.

[0093] Optionally, the alarm 163 is also connected to the control circuit 141. The alarm 163 has pre-set equipment operation status monitoring logic. When the control circuit 141 detects an abnormal operation of at least one of the following: oxygen generator 121, nebulizer 122, temperature regulator 123, humidity regulator 124, or communication circuit 142, the alarm 163 issues an alarm message. Exemplarily, abnormal equipment operation status includes at least one of the following: oxygen supply failure, nebulizer 122 not working, heating or heat dissipation component failure, humidification or dehumidification component failure, and communication connection disconnection.

[0094] By setting up alarm 163, when the oxygen concentration, temperature, or humidity inside container 11 exceeds the set range, or when the pet's physiological parameters such as body temperature, heart rate, blood pressure, and blood sugar become abnormal, or when the equipment malfunctions, alarm 163 can promptly issue an alarm message and simultaneously push it to the administrator and the recipient. This allows both the store administrator and the pet owner to be aware of the abnormal situation immediately and take timely action, further enhancing the safety of pet monitoring.

[0095] Optionally, the alarm 163 also includes an alarm log module. The alarm log module is used to record the trigger time, trigger reason, and corresponding environmental and / or physical parameters for each alarm, and to generate a historical alarm log. The historical alarm log is uploaded to an external electronic device via the communication circuit 142 for user query and management.

[0096] It is understood that the aforementioned alert device 162 and alarm device 163 can be set up independently in the pet system, or they can be set up simultaneously in the pet system. When the pet system includes both the alert device 162 and the alarm device 163, the two work together to provide alerts and alarms on abnormal pet states from different dimensions, further improving the timeliness of the pet system's response and the comprehensiveness of notifications in abnormal situations.

[0097] In some embodiments, the pet system further includes a display 19 and a second speaker 164, both of which are connected to a control circuit 141 and a communication circuit 142. The display 19 can display externally input images through the control circuit 141 and the communication circuit 142, and the second speaker 164 can emit externally input sounds through the control circuit 141 and the communication circuit 142.

[0098] The display 19 can face the interior of the container cavity so that the pet can see the image displayed on the display 19 while inside the container cavity. When the user initiates a video call request via an external electronic device, the control circuit 141 receives the video call request via the communication circuit 142, controls the display 19 to display the real-time image from the external electronic device (e.g., a mobile app), and controls the second speaker 164 to play the real-time sound from the external electronic device. Simultaneously, the camera and microphone of the audio / video monitor 13 capture the pet's real-time image and sound, respectively, and upload them to the external electronic device via the control circuit 141 and the communication circuit 142, allowing the user to view the pet's real-time image and hear the pet's real-time sound on the external electronic device. Thus, the user can view the pet's real-time image and hear the pet's real-time sound on the external electronic device, and the pet inside the container 11 can also see the user's real-time image through the display 19 and hear the user's real-time sound through the second speaker 164. The display 19, the second speaker 164, and the camera and microphone of the audio / video monitor 13 work together to achieve two-way video calls and two-way voice interaction between the user and the pet.

[0099] When a pet shows signs of distress or anxiety within container 11, the user can remotely initiate a video call via an external electronic device. The pet's real-time image and sound can be transmitted to the user's device, while the user's image and sound can also be presented to the pet through monitor 19 and second speaker 164, thus helping to soothe the pet's emotions. During pet boarding or treatment, the owner can interact with the pet face-to-face even when not physically present, enhancing the humanized experience of the pet system 1.

[0100] In addition, the display 19 can also be a touch screen. The second speaker 164 can be a separate speaker unit or a speaker integrated into the display 19, and the user can also view or operate parameters locally on the device through the display 19.

[0101] Please combine Figure 7 and Figure 8 , Figure 7 This is a schematic diagram of the sixth structure of the pet cabin provided in the embodiments of this application. Figure 8 This is a schematic diagram of a fourth structure of the pet system provided in an embodiment of this application. In some embodiments, the communication circuit 142, the cloud server 3, and the mobile terminal 5 communicate via message / video data streams. The message / video data streams include environmental parameters, body parameters, pet image signals, and pet sound signals from the communication circuit 142, as well as information and instructions sent by the cloud server 3 and the mobile terminal 5.

[0102] Mobile terminal 5 includes a first mobile terminal 51 and a second mobile terminal 52, which have different permissions; the first mobile terminal 51 and the second mobile terminal 52 can acquire environmental parameters and physical parameters through communication circuit 142 and control circuit 141; the first mobile terminal 51 can control at least one of the adjustment device 12, monitor, and wearable device 15 through communication circuit 142 and control circuit 141.

[0103] The app corresponding to Pet System 1 includes an administrator account and a user account, with different control permissions for each. The first mobile terminal 51 is logged in using the administrator account, and the second mobile terminal 52 is logged in using the user account. The first mobile terminal 51 has full device control permissions, while the permissions of the second mobile terminal 52 are configured by the first mobile terminal 51.

[0104] Both the first mobile terminal 51 and the second mobile terminal 52 can acquire environmental parameters, body parameters, and pet image signals through the communication circuit 142 and the control circuit 141. For example, both the first mobile terminal 51 and the second mobile terminal 52 can view the oxygen concentration detected by the oxygen sensor, the temperature detected by the temperature sensor, and the humidity detected by the humidity sensor in real time; they can also view the pet's body temperature, heart rate, blood pressure, and blood sugar detected by the wearable device 15 in real time; and they can view the pet's video footage captured by the audio-visual monitor 13 and listen to the pet's sounds in real time. The communication circuit 142 and the control circuit 141 can be integrated on the circuit board 14, which is connected to the cloud server 3 and the mobile terminal 5.

[0105] The first mobile terminal 51 can also control at least one of the regulating device 12, the audio / video monitor 13, and the wearable device 15 via the communication circuit 142 and the control circuit 141. For example, the first mobile terminal 51 can send parameter adjustment commands to the control circuit 141 via the communication circuit 142. The control circuit 141 then controls the oxygen generator 121 to adjust the oxygen concentration, controls the nebulizer 122 to adjust the nebulization duration or nebulization level, controls the temperature regulator 123 to adjust the target temperature, or controls the humidity regulator 124 to adjust the target humidity, according to the parameter adjustment commands. The first mobile terminal 51 can also send start / stop commands to the control circuit 141 via the communication circuit 142 to start or stop the oxygen generator 121, the nebulizer 122, the temperature regulator 123, or the humidity regulator 124. The first mobile terminal 51 can also send a wake-up command to the control circuit 141 via the communication circuit 142 to control the audio / video monitor 13 to switch between sleep and working states. The second mobile terminal 52 does not have the authority to modify the operating parameters of the regulating device 12.

[0106] The first mobile terminal 51 is also used to manage the permissions of the second mobile terminal 52. The first mobile terminal 51 adds or deletes shared users through the APP to generate the corresponding second mobile terminal 52; the first mobile terminal 51 also configures the permission scope of the second mobile terminal 52 through the APP. For example, the first mobile terminal 51 can set whether the second mobile terminal 52 has wake-up permission, video call permission, and permission to view historical data, etc.

[0107] By setting up a first mobile terminal 51 and a second mobile terminal 52 with different permissions on the mobile terminal 5, the pet system 1 achieves multi-level permission management. The user of the first mobile terminal 51 can be the owner of the pet store or the equipment administrator, responsible for unified management; the user of the second mobile terminal 52 can be the pet owner or other authorized user, who can only view the pet's real-time status and receive feedback information, but does not have the permission to modify the device parameters. Thus, in pet boarding or treatment scenarios, pet owners can remotely view the pet's status through the second mobile terminal 52, but cannot modify the device's operating parameters, thereby effectively avoiding pet safety risks caused by misoperation by non-professionals and improving the security and reliability of the pet system 1 in multi-user scenarios.

[0108] In some embodiments, the pet system 1 further includes a cloud server 3 and a mobile terminal 5. The cloud server 3 is connected to a communication circuit 142 and can acquire at least one of environmental parameters, body parameters, pet image signals, and pet sound signals through the communication circuit 142. The mobile terminal 5 is connected to at least one of the cloud server 3 and the communication circuit 142 and acquires at least one of environmental parameters, body parameters, pet image signals, and pet sound signals.

[0109] Therefore, the pet system 1 can be divided into a three-layer architecture. The first layer is the local hardware acquisition and control layer, which includes various hardware modules set on the container 11, such as the adjustment device 12, the audio and video monitor 13, the control circuit 141, the communication circuit 142, and the wearable device 15. The control circuit 141 uploads the environmental parameters collected by the detection sensor 18, the body parameters collected by the wearable device 15, and the pet image and sound signals collected by the audio and video monitor 13 to the cloud server 3 through the communication circuit 142, and receives control commands issued by the cloud server 3 to execute corresponding control operations.

[0110] The second layer is the cloud server 3 processing layer. The cloud server 3 is used to receive and store various data uploaded by the communication circuit 142, and provides hierarchical permission management services, AI behavior recognition and anomaly judgment services, and alarm push distribution services.

[0111] The hierarchical access control service manages user accounts and their operational permissions corresponding to different mobile terminals 5. Specifically, the service stores an account information database containing account information for administrators and shared users, along with their corresponding permission configuration data. When a mobile terminal 5 initiates a login or operation request, the service verifies the account information corresponding to the mobile terminal 5 and determines whether to allow the operation request based on the permission configuration data recorded in the account information database. The service also supports administrators initiating account management operations via mobile terminal 5, including creating and adding shared user accounts through QR code sharing or password binding, configuring the permission scope of shared user accounts, and revoking or canceling the permissions of shared user accounts. In response to these administrator operations, the service creates, modifies, or deletes the corresponding account information and permission configuration data in the account information database.

[0112] The AI ​​behavior recognition and anomaly detection service is used to identify and determine abnormal pet behaviors based on pet image and sound signals. The service deploys a pre-trained behavior recognition model, which is pre-trained based on a large amount of pet behavior sample data, including pet image samples and pet sound samples labeled with abnormal behaviors. The behavior recognition model learns the characteristic patterns of abnormal movement behaviors and abnormal sound states from the sample data using deep learning algorithms. After receiving the pet image signal uploaded by the communication circuit 142, the AI ​​behavior recognition and anomaly detection service inputs the pet image signal into the behavior recognition model for frame-by-frame or interval sampling analysis. The behavior recognition model outputs the pet's movement state recognition result, determining whether the pet exhibits abnormal movement behaviors such as continuous walking, constant agitation, repeated climbing, or continuous random movements. Upon receiving the pet sound signal, the service inputs the pet sound signal into the behavior recognition model for spectrum and volume analysis. The behavior recognition model outputs the pet's sound state recognition result, determining whether the pet exhibits abnormal sound states such as continuous barking or frequent unusual noises. Upon detecting abnormal movement or sound, the AI ​​behavior recognition and anomaly detection service initiates a timer. If the duration of the abnormal behavior exceeds a preset time threshold, the pet is deemed to be in an abnormal state, and a feedback signal is generated. The preset time threshold can be configured and adjusted according to different pet species and sizes. During use, the behavior recognition model can be continuously optimized and updated based on actual recognition results and user feedback. Specifically, the cloud server 3 obtains user confirmations or corrections of the recognition results as new training data to incrementally train or fine-tune the behavior recognition model, continuously improving recognition accuracy.

[0113] The alarm push distribution service is used to push feedback signals to the corresponding mobile terminal 5. After receiving the feedback signal generated by the AI ​​behavior recognition and anomaly judgment service, the feedback signal is pushed to the mobile terminal 5 corresponding to both the administrator account and the shared user account simultaneously through at least one of the following methods: APP pop-up push and message notification, to achieve synchronous alarm on both ends.

[0114] The cloud server 3 also houses a data repository for storing environmental parameters, physical parameters, pet image signals, pet sound signals, historical alarm logs, and behavior analysis reports. This data repository provides data support for the aforementioned services. For example, the hierarchical access control service reads account configuration information from the data repository; the AI ​​behavior recognition and anomaly detection service obtains historical behavior data and user feedback data from the data repository for model optimization; and the alarm push and distribution service writes alarm records to the data repository for subsequent querying and analysis. The data stored in the data repository can also be remotely accessed and viewed by the mobile terminal 5, allowing users to review their pet's status information and historical alarm records at any time.

[0115] The third layer is the mobile terminal layer. Mobile terminal 5 includes the administrator account terminal and the pet owner sharing terminal.

[0116] The administrator account terminal is logged in with an administrator account and has full control over the devices. The administrator account terminal can view real-time video streams and vital sign data, adjust device parameters and perform start / stop operations, view historical behavior records and historical data and reports including vital sign trends, and export behavior analysis reports. In addition, the administrator account terminal also provides shared user management functions; administrators can use this terminal to add or manage shared users, and configure or revoke the permissions of shared users.

[0117] The pet owner sharing terminal is logged in by the account of the person being shared with and only has real-time monitoring viewing permissions. The pet owner sharing terminal can view real-time video streams and vital sign data, receive abnormal alarm push notifications, and view historical behavior records, but it does not have device parameter adjustment permissions. It cannot modify any operating parameters of device 12, nor can it start or stop device 12. The permissions of the pet owner sharing terminal are configured by the administrator account terminal through calling the hierarchical permission management service of the cloud server 3.

[0118] Optionally, a dedicated veterinarian account can be added at the mobile terminal level. This dedicated account is configured by the administrator's terminal. For example, after logging in with this account, the veterinarian can remotely view the pet's historical behavioral data, vital sign trends, behavioral analysis reports and in-depth reports, and view detailed records in the bound data logs. Through these dedicated veterinarian permissions, veterinarians can obtain complete rehabilitation data of their pets without being physically present, enabling remote medical data consultation and providing a basis for developing or adjusting treatment plans. This is particularly suitable for applications requiring continuous tracking and evaluation, such as post-operative recovery and respiratory disease care.

[0119] Through the coordinated operation of the three-layer architecture described above, the data flow of the pet system 1 forms a complete closed-loop link from local hardware data acquisition and uploading, cloud-based intelligent analysis and processing, mobile terminal 5 viewing and control, cloud command issuance, to local hardware execution. The local hardware acquisition and control layer uploads the collected environmental parameters, body parameters, and audio / video data to the cloud server 3. The cloud server 3 stores, analyzes, and processes the received data, and issues or pushes information such as real-time video streams, vital sign data, historical reports, and alarm notifications to the mobile terminal 5. The mobile terminal 5 generates control commands based on user operations and sends them to the cloud server 3, which then issues the control commands to the local hardware acquisition and control layer for execution. In addition, users can also view environmental parameters and device operating status locally on the device via the local button 165 and / or display 19 located on the outer wall of the container 11, and locally set and adjust the operating parameters of the adjustment device 12, thereby achieving complementary local and remote control.

[0120] It is understood that the cloud server 3 and the mobile terminal 5 can be set up independently or simultaneously in the pet system 1 according to actual needs. The cloud server 3 can be any of the cloud server 3 in the above embodiments, and the mobile terminal 5 can be any of the mobile terminal 5 in the above embodiments.

[0121] In some embodiments, the cloud server 3 can generate briefing information based on environmental parameters, body parameters, pet image signals, and pet sound signals; the briefing information includes at least one of the following: number of abnormal agitation episodes, duration of each agitation episode, activity duration, sleep duration, distribution period of abnormal behavior, average value of body parameters, and abnormal value of body parameters; the mobile terminal 5 can receive the briefing information.

[0122] The cloud server 3 identifies the pet's movement status based on pet image signals, counts the number of abnormal agitations and the duration of each agitation within a preset time period (e.g., one day), calculates the pet's activity and sleep duration, and analyzes the periods when abnormal behaviors are concentrated. The cloud server 3 also calculates the average values ​​of the pet's body temperature, heart rate, blood pressure, and blood sugar within the preset time period based on the body parameters detected by the wearable device 15, and identifies abnormal values ​​exceeding corresponding preset threshold ranges. The cloud server 3 also acquires the operating parameters of the oxygen concentrator 121 during the same period, including the oxygen concentration setpoint and actual measured values. The cloud server 3 integrates the above statistical data and the operating parameters of the oxygen concentrator 121 to generate a simplified analysis report containing the number of abnormal agitations, the duration of each agitation, activity duration, sleep duration, the distribution periods of abnormal behaviors, the average values ​​of body parameters, abnormal values ​​of body parameters, and the operating parameters of the oxygen concentrator 121 during the same period. This report serves as a briefing. The cloud server 3 pushes the briefing information to the mobile terminal 5, allowing users to view the report through an app on the mobile terminal 5 and quickly understand the pet's overall status within the preset time period.

[0123] In some embodiments, the cloud server 3 can generate a depth report based on environmental parameters, body parameters, pet image signals, and pet sound signals; the depth report includes at least one of the following: number of times the pet exhibits abnormal agitation, duration of each agitation, activity duration, sleep duration, distribution period of abnormal behavior, average value of body parameters, abnormal value of body parameters, activity level change curve, sleep quality change curve, the pet's main behavior patterns, health score, personalized care suggestions, and information comparing with historical data; the mobile terminal 5 can receive the depth report.

[0124] Based on the briefing information, Cloud Server 3 further performs trend analysis and comparative analysis on accumulated data from multiple days or weeks. Cloud Server 3 generates activity level and sleep quality change curves based on activity and sleep duration data over several consecutive days, displaying the trends in pet activity and sleep quality over time. Based on a comprehensive analysis of pet image and sound signals, Cloud Server 3 summarizes the pet's main behavioral patterns within a preset period, such as active periods, rest periods, and periods with a high incidence of abnormal behavior. Cloud Server 3 comprehensively scores the pet's overall health status from multiple dimensions, including activity level, sleep quality, emotional stability, frequency of abnormal behavior, body temperature, and heart rate. Based on the scoring results and data analysis, Cloud Server 3 also generates personalized care suggestions, such as adjusting oxygen therapy duration, increasing comforting interaction, and adjusting environmental temperature and humidity. Cloud Server 3 compares the current period's data with historical data (e.g., the same period last week or last month) to generate change comparison information, reflecting the improvement or deterioration trend of the pet's condition. Cloud Server 3 integrates all the above information into a comprehensive report and pushes it to mobile terminal 5.

[0125] After receiving the in-depth report, the user can view the complete report through the app and share it with veterinarians or other relevant personnel to obtain professional diagnostic opinions and treatment suggestions.

[0126] Understandably, cloud server 3 can generate briefing information and in-depth reports, and push these to mobile terminal 5. Pet system 1 can provide users with data-driven pet status assessment tools. Briefing information allows users to quickly grasp the pet's short-term status overview, while in-depth reports allow users to gain a deeper understanding of the pet's long-term trends and overall health status.

[0127] In the pet system 1 provided in this application, firstly, by integrating the oxygen generator 121, nebulizer 122, temperature regulator 123, humidity regulator 124, audio / video monitor 13, control circuit 141, and communication circuit 142 into the same container 11, multiple functions such as oxygen supply, nebulization, temperature and humidity control, and audio / video monitoring are no longer independent but are managed and coordinated through the control circuit 141, effectively improving the integration of the equipment. Users do not need to purchase and operate multiple independent devices to meet multiple usage needs simultaneously, reducing the equipment cost and space occupation of pet stores and simplifying the operation process. At the same time, the control circuit 141 automatically adjusts the working status of each regulating device 12 according to the environmental parameters fed back in real time by the detection sensor 18, so that the oxygen concentration, temperature, humidity, and nebulization working status in the container 11 are maintained within the required range, realizing the closed-loop automatic maintenance of a constant temperature and humidity environment.

[0128] By setting up wearable device 15, which is worn on the pet's body, the device acquires the pet's body temperature, heart rate, blood pressure, blood sugar, and other physical parameters, and uploads these parameters to cloud server 3 via communication circuit 142. Users can remotely view the pet's video and listen to its sounds through audio-visual monitor 13, while also remotely obtaining the pet's physiological indicators, achieving a comprehensive understanding of the pet's condition and helping to detect any abnormalities in the pet's health in a timely manner.

[0129] The audio-visual monitor 13, installed inside container 11, collects image and sound signals from the pet and uploads them to an external electronic device via communication circuit 142. Users can remotely view the pet's real-time video and listen to its audio through this external device, allowing them to monitor their pet's status without on-site supervision. This achieves remote, fully visualized monitoring. Pet owners can check their pet's real-time status anytime, anywhere via a mobile app, ensuring they are aware of their pet's situation even when not physically present. This significantly enhances the monitoring experience and provides peace of mind, effectively solving the problem of insufficient intelligent monitoring of pet behavior in existing technologies. The audio-visual monitor 13 has sleep and working states. In sleep mode, it reduces power consumption. Upon receiving an external wake-up command, it switches to working state and begins audio and video acquisition, enabling one-click active wake-up monitoring via the app, thus addressing both energy-saving and on-demand monitoring needs. When the audio-visual monitor 13 is awakened from sleep mode and switches to working mode, the control circuit 141 simultaneously uploads the oxygen concentration, temperature, and humidity data detected by the oxygen sensor, temperature sensor, and humidity sensor, as well as the current working status of the nebulizer 122, to the external electronic device. This allows the user to remotely wake up the monitor to view the pet's real-time status while also knowing the current environmental parameters and nebulizer working status inside the container 11, achieving data linkage with synchronized video and environmental data presentation. Simultaneously, the audio-visual monitor 13 also supports two-way video calls, allowing users to remotely interact with the pet inside the container 11 via external electronic devices and soothe the pet when it shows signs of distress or anxiety.

[0130] The cloud server 3 acquires pet image and sound signals from the audio / video monitor 13, and uses AI to identify the pet's condition. When abnormal behaviors such as continuous walking, restlessness, repeated climbing, or continuous erratic movement are detected, along with / or abnormal sounds such as continuous barking or frequent unusual noises, and these abnormal behaviors persist for more than a set time, a pet abnormality is identified, and a feedback signal is generated. This AI-automated identification replaces the traditional 24-hour human monitoring model, enabling timely detection of abnormal pet conditions and significantly reducing the burden of manual monitoring. Simultaneously, the time threshold-based judgment logic effectively avoids false alarms caused by brief pet activity or barking, improving the accuracy and reliability of alarms. After generating the feedback signal, the cloud server 3 simultaneously pushes it to both the administrator's account and the recipient's account via the app. Both the store manager and the pet owner can be informed of the pet's abnormal condition immediately and take timely action, achieving simultaneous notification from both ends. In addition, when generating feedback signals, the cloud server 3 also records the time of the anomaly, the oxygen concentration, temperature, humidity, atomization status and pet's physical parameters in container 11 at the time of the anomaly, forming a bound data log, which provides complete data support for tracing the cause of the anomaly and assessing the pet's recovery process.

[0131] By setting up an alarm 163 connected to the detection sensor 18 and / or wearable device 15, the alarm 163 will issue an alarm message when the oxygen concentration detected by the oxygen sensor, the temperature detected by the temperature sensor, or the humidity detected by the humidity sensor exceeds the corresponding preset threshold range; and / or, when the pet's body temperature, heart rate, blood pressure, or blood sugar detected by the wearable device 15 exceeds the corresponding preset threshold range; and / or, when the control circuit 141 or cloud server 3 detects abnormal operating status of devices such as the oxygen generator 121, nebulizer 122, temperature regulator 123, humidity regulator 124, or communication circuit 142, the alarm 163 will issue an alarm message. The alarm information is pushed to the administrator account and the shared user account of the external electronic device via the communication circuit 142, enabling store administrators and pet owners to be promptly informed and handle abnormal environmental parameters, abnormal pet health parameters, or equipment malfunctions. This achieves a multi-dimensional alarm system, further enhancing the comprehensiveness and safety of pet monitoring.

[0132] By setting up administrator and shared user accounts on external electronic devices and configuring different operating permissions, the administrator account has full control over the device, while the shared user account's permissions are configured by the administrator account and does not have the permission to modify the device's operating parameters. The administrator can flexibly manage shared users through QR code sharing and permission revocation. In multi-user scenarios such as pet stores, the store administrator centrally manages the device parameters, while pet owners can only remotely view their pets' real-time status and cannot modify critical care parameters such as oxygen concentration and nebulization parameters. This multi-level permission design fundamentally avoids the risk of oxygen poisoning caused by ordinary users accidentally adjusting the oxygen concentration too high, or the safety hazards of inappropriate medication dosage due to accidental modification of nebulization parameters, effectively ensuring the safety of pets during care.

[0133] The cloud server 3 also automatically calculates the number of times a pet exhibits abnormal agitation, the duration of each agitation episode, the duration of activity, the duration of sleep, and the time periods during which abnormal behaviors occur, based on environmental parameters, physical parameters, and pet behavior data stored over a period of time. Combined with the operating parameters of the oxygen concentrator 121 (including the setpoint and actual oxygen concentration values) and the average and abnormal values ​​of vital signs such as body temperature, heart rate, blood pressure, and blood sugar, it generates daily briefings, allowing users to quickly grasp the pet's short-term condition. Building on this, the cloud server 3 further generates in-depth reports by analyzing trends in multi-day or multi-week data and comparing historical data. These reports include curves showing changes in activity levels and sleep quality, the pet's main behavioral patterns, health scores, and personalized care recommendations. This assists veterinarians in assessing the pet's recovery status after surgery or respiratory illnesses, enabling the integration and analysis of behavioral and nursing data, and providing objective data support for pet rehabilitation evaluation.

[0134] In summary, the pet system 1 provided in this application highly integrates multiple functions such as oxygen supply, nebulization, constant temperature and humidity control, audio and video monitoring, wearable vital sign monitoring, remote communication, AI behavior recognition, multi-level permission management, multi-dimensional alarms, monitoring wake-up, and behavior data analysis into one system. Users do not need to configure multiple independent devices separately; a single device can simultaneously meet the needs of environmental adjustment, status monitoring, and information interaction. The various functional modules cooperate through control circuit 141, communication circuit 142, cloud server 3, and mobile terminal 5. It can be widely used in professional medical care scenarios such as postoperative recovery and respiratory disease care in pet hospitals and pet stores. At the same time, it meets the needs of pet owners to remotely monitor the recovery status of their pets. It effectively overcomes the shortcomings of existing technologies such as fragmented functions, lack of intelligent monitoring of pet behavior, single alarm mechanism, lack of hierarchical permission management, and lack of active wake-up monitoring and behavior data analysis, thereby improving the intelligence level, safety, and user experience of pet care.

[0135] In the above embodiments, the descriptions of each embodiment have their own emphasis. Parts not described in detail in a particular embodiment can be referred to in the relevant descriptions of other embodiments. The embodiments, implementation methods, and related technical features of this application can be combined and substituted for each other without conflict.

[0136] The embodiments provided in this application have been described in detail above. Specific examples have been used to illustrate the principles and implementation methods of this application. The description of the above embodiments is only for the purpose of helping to understand the method and core ideas of this application. At the same time, for those skilled in the art, there will be changes in the specific implementation methods and application scope based on the ideas of this application. Therefore, the content of this specification should not be construed as a limitation of this application.

Claims

1. A pet system, characterized in that, include: Containers for holding pets; A regulating device, installed in the container, is used to regulate environmental parameters within the container; An audio-visual monitor is installed in the container and is capable of acquiring pet image signals and pet sound signals inside the container; A control circuit is installed in the container and is connected to the adjustment device and the audio / video monitor. A communication circuit is connected to the control circuit, wherein the control circuit is used to communicate with an external electronic device through the communication circuit; The regulating device includes at least one of the following: An oxygen generator is used to regulate the oxygen concentration inside the container; An atomizer is capable of generating an atomizing medium and inputting the atomizing medium into the container; A temperature regulator is provided to regulate the temperature inside the container. A humidity regulator is used to regulate the humidity inside the container.

2. The pet system according to claim 1, characterized in that, The pet system also includes: A wearable device for being installed on the pet and for acquiring the pet's body parameters; the wearable device is connected to the communication circuit. The wearable device includes at least one of a body temperature sensor, a heart rate sensor, a blood glucose sensor, a blood pressure sensor, a motion sensor, a position sensor, a first microphone, and a first speaker.

3. The pet system according to claim 1, characterized in that, The audio and video monitor has a sleep state and an operating state, and the audio and video monitor can switch between the sleep state and the operating state. The power of the audio and video monitor in the sleep state is less than the power of the audio and video monitor in the operating state. And / or, The pet system also includes a memory connected to the audio and video monitor, which is capable of storing the pet image signals and pet sound signals collected by the audio and video monitor. And / or, The pet system also includes a prompter connected to the audio / video monitor or control circuit, which issues a prompt message based on at least one of the pet image signal and the pet sound signal; and / or, The pet system also includes a power supply circuit, which is connected to the audio-visual monitor, the adjustment device, the control circuit, and the communication circuit, and supplies power to the audio-visual monitor, the adjustment device, the control circuit, and the communication circuit. The power supply circuit is connected to an external power source, and / or the power supply circuit includes a battery.

4. The pet system according to claim 1, characterized in that, The pet system also includes a detection sensor, which includes at least one of the following: An oxygen sensor is installed in the container and is used to collect the concentration of oxygen inside the container; A temperature sensor is installed in the container and used to collect the temperature inside the container; A humidity sensor is installed in the container and is used to collect the humidity inside the container; A fog sensor is installed in the container and is used to collect the concentration of fog inside the container.

5. The pet system according to claim 4, characterized in that, The pet system also includes an alarm connected to the detection sensor, which triggers an alarm based on environmental parameters detected by the detection sensor; and / or, The alarm is connected to the wearable device and issues an alarm based on the body parameters detected by the wearable device.

6. The pet system according to claim 1, characterized in that, The pet system also includes a display and a second speaker, both of which are connected to the control circuit and the communication circuit. The display can display externally input images through the control circuit and the communication circuit, and the second speaker can emit externally input sounds through the control circuit and the communication circuit.

7. The pet system according to any one of claims 2-6, characterized in that, The pet system also includes: A cloud server is connected to the communication circuit, and the cloud server is able to acquire at least one of environmental parameters, body parameters, pet image signals, and pet sound signals through the communication circuit. The cloud server processes at least one of environmental parameters, body parameters, pet image signals, and pet sound signals to obtain a feedback signal, and sends the feedback signal to at least one of a communication circuit and a mobile terminal.

8. The pet system according to claim 7, characterized in that, The cloud server acquires pet image signals, and when the pet's agitation in the image signal exceeds a first preset time, the cloud server generates a feedback signal indicating that the pet is abnormal; and / or, The cloud server acquires pet sound signals, and when the excessive barking in the pet's sound signals exceeds a second preset time, the cloud server generates a feedback signal indicating that the pet is experiencing an abnormality; and / or, The cloud server generates feedback signals indicating abnormalities in the pet, and the cloud server stores the corresponding environmental parameters and physical parameters.

9. The pet system according to any one of claims 2-8, characterized in that, The pet system also includes a mobile terminal, which is connected to the communication circuit. The mobile terminal is able to acquire at least one of environmental parameters, body parameters, pet image signals, and pet sound signals through the communication circuit. The mobile terminal processes at least one of environmental parameters, body parameters, pet image signals, and pet sound signals to obtain control commands, and sends the control commands to the communication circuit, so that the control circuit controls at least one of the adjustment device, the audio / video monitor, and the wearable device according to the control commands; and / or, The mobile terminal includes a first mobile terminal and a second mobile terminal, which have different permissions; the first mobile terminal and the second mobile terminal can acquire environmental parameters, body parameters, and health parameters through communication circuits and control circuits; the first mobile terminal can control at least one of the adjustment device, the monitor, and the wearable device through communication circuits and control circuits.

10. The pet system according to any one of claims 2-8, characterized in that, The pet system also includes: A cloud server is connected to the communication circuit, and the cloud server is able to acquire at least one of environmental parameters, body parameters, pet image signals, and pet sound signals through the communication circuit. A mobile terminal is connected to at least one of the cloud server and the communication circuit, and acquires at least one of environmental parameters, body parameters, pet image signals, and pet sound signals; The cloud server can generate briefing information based on the environmental parameters, body parameters, pet image signals, and pet sound signals; the mobile terminal can receive the briefing information; the briefing information includes at least one of the following: the number of times the pet exhibited abnormal agitation, the duration of each agitation, the duration of activity, the duration of sleep, the time period of abnormal behavior distribution, the average value of body parameters, and abnormal values ​​of body parameters; and / or, The cloud server can generate a depth report based on the environmental parameters, body parameters, pet image signals, and pet sound signals; the mobile terminal can receive the depth report; the depth report includes at least one of the following: number of times the pet exhibits abnormal agitation, duration of each agitation, activity duration, sleep duration, distribution period of abnormal behavior, average value of body parameters, abnormal value of body parameters, activity level change curve, sleep quality change curve, the pet's main behavioral patterns, health score, personalized care suggestions, and information comparing with historical data.

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