Multimode monitor

Abstract

The present invention relates to the technical field of monitoring, and discloses a multimode monitor, comprising an FHSS monitor display device, at least one FHSS camera device, and at least one FHSS sensor device. The FHSS sensor device is communicationally connected to the FHSS camera device via an FHSS network. The FHSS camera device is communicationally connected to the FHSS monitor display device via the FHSS network. The FHSS camera device further comprises a WiFi wireless module. The WiFi wireless module is communicationally connected to a mobile terminal device via the Internet. By means of the FHSS camera device, data acquired by the FHSS sensor device is transmitted to both the FHSS monitor display device and the mobile terminal for display, or is transmitted to the FHSS monitor display device or the mobile terminal for display. According to the present invention, a wireless sensor device and a monitor display device can be used simultaneously, and the communication distance between an FHSS sensor device and an FHSS camera device is longer, thereby adapting to application scenarios requiring longer communication distances.

Description

Multimode monitor

[0001] This application claims priority to the Chinese patent application filed with the China Patent Office on March 29, 2024, with application number 202410378798.7 and invention name “Multi-mode Monitor”, the entire contents of which are incorporated by reference into this application. Technical Field

[0002] The present invention relates to the technical field of monitors, and in particular to a multi-mode monitor. Background Art

[0003] There are three types of baby monitors available today. The first type is a sensor-free baby monitor that includes a camera and a monitor display. The camera transmits captured baby video or audio data to the monitor display via an FHSS radio frequency module, enabling baby monitoring. The second type is a wired baby monitor that includes a camera and a wired sensor device. The camera includes a Wi-Fi wireless module and a sensor data input interface for connecting to the wired sensor device. The Wi-Fi wireless module transmits data to a mobile phone (or tablet) via the internet. Once the wired sensor device is connected to the camera's data input interface, the captured data is transmitted via a data cable to the camera device. The camera's Wi-Fi then transmits the data to the mobile phone or tablet via the internet. The third type of baby monitor is a BLE sensor device. These include a camera and a BLE sensor. The camera includes a Wi-Fi wireless module and a BLE (Bluetooth Low Energy) wireless module. The BLE wireless module is used to transmit data between the BLE sensor and the camera, while the Wi-Fi module connects to the internet to communicate with a mobile phone app (or tablet). Data collected by the BLE sensor is transmitted to the camera via BLE, and then transmitted via the camera's Wi-Fi to the mobile phone app or tablet app via the internet.

[0004] The inventors discovered the following problems with the aforementioned baby monitors: First, wireless sensor devices cannot be used in conjunction with monitor display devices. Second, wired sensor devices are cumbersome to install and require a specific installation environment, and the data transmission cable makes them inconvenient to use. Third, wireless sensor devices use BLE communication, which has a short range and is unsuitable for applications requiring long-distance communication. Therefore, resolving these issues is a pressing technical challenge. Technical issues

[0005] One of the main objectives of the present invention is to provide a multi-mode monitor that addresses the following technical issues: first, wireless sensor devices cannot be used with monitor display devices; second, wired sensor devices are cumbersome to install and require a specific installation environment, and are inconvenient to use due to the data transmission cables; and third, wireless sensor devices use BLE communication, which has a short communication range and is unsuitable for applications requiring remote work. Technical Solutions

[0006] The main purpose of the present invention is to provide a multi-mode monitor to solve the above-mentioned technical problems.

[0007] In order to achieve the above-mentioned purpose of the invention, the first aspect of the present invention proposes a multi-mode monitor, including: an FHSS monitor display device, at least one FHSS camera device and at least one FHSS sensor device; the FHSS sensor device and the FHSS camera device are connected to each other through an FHSS network communication, the FHSS camera device and the FHSS monitor display device are connected to each other through the FHSS network communication, the FHSS camera device also includes a WIFI wireless module, and the WIFI wireless module is connected to a mobile terminal device through the Internet; wherein, the data collected by the FHSS sensor device is transmitted to the FHSS monitor display device and the mobile terminal simultaneously through the FHSS camera device for display, or is transmitted to the FHSS monitor display device or the mobile terminal separately for display.

[0008] Furthermore, the FHSS sensor device includes at least one sensor, a first micro control unit and a first FHSS RF wireless module; the first FHSS RF wireless module and the sensor are electrically connected to the first FHSS RF wireless module respectively; the sensor is used to collect data and transmit the collected data to the first micro control unit for processing, the first micro control unit is used to transmit the processed data to the first FHSS RF wireless module, and the first FHSS RF wireless module is used to send the data processed by the first micro control unit to the FHSS camera device.

[0009] Furthermore, the FHSS camera device includes a WIFI wireless module, a second FHSS RF wireless module and a second micro control unit; the WIFI wireless module and the second FHSS RF wireless module are electrically connected to the second micro control unit respectively; the second FHSS RF wireless module is used to receive data sent by the FHSS sensor device through the first FHSS RF wireless module and transmit the received data to the second micro control unit for processing, the second micro control unit transmits the processed data to the WIFI wireless module and / or the second FHSS RF wireless module, the second FHSS RF wireless module is used to transmit the data processed by the second micro control unit to the FHSS monitor display device, and the WIFI wireless module is used to transmit the data processed by the second micro control unit to the mobile terminal.

[0010] Furthermore, the FHSS monitor display device includes a third FHSS RF wireless module, a display screen and a third micro control unit; the third FHSS RF wireless module and the display screen are electrically connected to the third micro control unit respectively; the third FHSS RF wireless module is used to receive data sent by the FHSS camera device through the second FHSS RF wireless module and transmit the received data to the third micro control unit for processing, and the third micro control unit is used to display the processed data on the display screen.

[0011] Furthermore, the sensor includes one or more of an audio data collector, an ambient temperature sensor, an ambient illumination sensor, a piezoelectric film sensor, an ambient humidity sensor, a heart rate sensor, a blood oxygen sensor, a respiratory rate sensor, a body temperature sensor, a snoring sensor, a movement sensor, a flip sensor, a fall sensor, a sleeping position sensor, a standing position sensor, a sitting position sensor, a switch sensor and a switch socket.

[0012] Furthermore, when the FHSS sensor device includes multiple devices, the sensor types used by different FHSS sensor devices are the same or different.

[0013] Furthermore, within the same FHSS network, one FHSS monitor display device can be networked with M FHSS camera devices, M FHSS camera devices can be networked with a total of N FHSS sensor devices, and one FHSS sensor device can only be networked with one FHSS camera device. After being networked, one FHSS monitor display device, M FHSS camera devices, and N FHSS sensor devices can work simultaneously to complete the transmission of audio, video, data, and control signals.

[0014] Furthermore, the data collected by the FHSS sensor device is separately transmitted to the FHSS monitor display device through the FHSS camera device for display as the single-mode working mode of the multi-mode monitor. In the single-mode working mode, during the data transmission between the FHSS camera device and the FHSS monitor display device, the data is switched to the FHSS sensor device every second during the communication gap with the FHSS monitor display device to perform one transmission cycle of communication to complete the data transmission, and then the FHSS camera device transmits the data to the FHSS monitor display device.

[0015] Furthermore, the data collected by the FHSS sensor device is simultaneously transmitted to the FHSS monitor display device and the mobile terminal through the FHSS camera device to be displayed in the dual-mode working mode of the multi-mode monitor. In the dual-mode working mode, during the data transmission between the FHSS camera device and the FHSS monitor display device, the data is switched to the FHSS sensor device every second during the communication gap with the FHSS monitor display device to perform one transmission cycle of communication to complete the data transmission; while the FHSS camera device transmits the data to the FHSS monitor display device through the FHSS network, the FHSS camera device is connected to the Internet through a WIFI wireless module to communicate with the cloud server, and after processing by the cloud server, the cloud server transmits the data to the mobile terminal through the Internet.

[0016] Furthermore, the FHSS monitor display device is also used to send data to the FHSS sensor device via the FHSS camera device.

[0017] Furthermore, the FHSS sensor device is also directly connected to the FHSS monitor display device for communication, and the FHSS sensor device is also used to directly transmit data to the FHSS monitor display device.

[0018] Furthermore, the FHSS monitor display device is also used to send the data received from the FHSS sensor device to the FHSS camera device, the FHSS camera device forwards the data to the cloud via WIFI, and the cloud sends the data to the mobile terminal. Beneficial effects

[0019] The FHSS camera device is a camera device that includes an FHSS radio frequency wireless module, and the FHSS sensor device is a sensor device that includes an FHSS radio frequency wireless module. The FHSS radio frequency wireless module is a wireless communication module using frequency hopping / spread spectrum technology. Therefore, the FHSS sensor device can wirelessly communicate with the FHSS camera device through the FHSS radio frequency wireless module, and the FHSS camera device can wirelessly communicate with the FHSS monitor display device through the FHSS radio frequency wireless module. The multi-mode monitor of the embodiment of the present application includes an FHSS wireless sensor device, an FHSS camera device, and an FHSS monitor display device, and the FHSS wireless sensor device is networked with the FHSS camera device, and the FHSS camera device is networked with the FHSS monitor display device, and the network is connected to the same FHSS network, so that the wireless sensor device and the monitor display device can be used simultaneously. In addition, the FHSS camera device also includes a WIFI wireless module, which is used to communicate with the mobile terminal via the Internet to complete the transmission of data or control signals, so that the data collected by the FHSS sensor device can be displayed separately or simultaneously on the FHSS monitor display device and the mobile terminal. Furthermore, FHSS sensors are wireless devices, which require no wiring, making installation easier and adaptable to various scenarios. Furthermore, the communication distance between FHSS sensors and FHSS cameras is greater than that between existing BLE sensors and BLE cameras, making them suitable for applications requiring longer communication distances. Furthermore, communication with FHSS sensors is accomplished using the camera's existing FHSS RF wireless module, saving costs. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] FIG1 is a communication link diagram of a multi-mode monitor provided by an embodiment of the present invention;

[0021] FIG2 is a schematic structural diagram of an FHSS sensor device provided in one embodiment of the present invention;

[0022] FIG3 is a schematic structural diagram of an FHSS camera device provided by an embodiment of the present invention;

[0023] FIG4 is a schematic diagram of the structure of a FHSS monitor display device provided by an embodiment of the present invention.

[0024] FIG5 is a communication link diagram of a multi-mode monitor in a single-mode operating mode according to an embodiment of the present invention;

[0025] FIG6 is a communication link diagram of a multi-mode monitor in a dual-mode operating mode according to an embodiment of the present invention;

[0026] FIG7 is a communication diagram of the FHSS monitor display device and each FHSS camera device provided in an embodiment of the present application.

[0027] First microcontroller unit; 305, first FHSS radio frequency wireless module; 306, sensor; 307, first speaker; 308, first button; 309, first power manager; 310, first charging manager;

[0028] First power adapter; 104, WIFI wireless module; 105, second FHSS radio frequency wireless module; 106, second button; 107, motor control module; 108, second speaker; 109, first microphone; 116, second micro control unit; 117, temperature sensor; 118, image capture device; 119, light intensity sensor; 122, night vision module; 123, second power manager; 126, second power adapter; 201, display screen; 202, third micro control unit; 205, third FHSS radio frequency wireless module; 2 06. Second microphone; 207. Third speaker; 208. Third button; 209. Third power manager; 210. Second charging manager; 211. Second battery; 220. Third power adapter; 401. First FHSS sensor device; 402. Second FHSS sensor device; 404. First FHSS camera device; 405. Second FHSS camera device; 406. FHSS network; 407. Mobile terminal; 408. Internet; 409. Cloud server; 410. Third FHSS sensor device. Best Mode for Carrying Out the Invention

[0029] [Corrected 17.03.2025 according to Rule 26] As shown in Figure 1, an embodiment of the present application provides a multi-mode monitor, including: an FHSS monitor display device, at least one FHSS camera device and at least one FHSS sensor device; the FHSS sensor device and the FHSS camera device are communicatively connected via an FHSS network, the FHSS camera device and the FHSS monitor display device are communicatively connected via the FHSS network, and the FHSS camera device further includes a WIFI wireless module, which is communicatively connected to a mobile terminal device via the Internet; wherein, the data collected by the FHSS sensor device is simultaneously transmitted to the FHSS monitor display device and the mobile terminal through the FHSS camera device for display, or is transmitted separately to the FHSS monitor display device or the mobile terminal for display. In FIG1 , the solid arrows represent the communication link between the FHES sensor device and the FHES camera device, the dotted arrows represent the communication link between the FHSS sensor device and the FHSS monitor display device, and the dashed arrows represent the communication link between the FHSS camera device and the mobile terminal via the Internet.

[0030] In the embodiments of the present application, the multi-mode monitor can be used for infant care, child care, elderly care, care for special groups, pet care, vehicle monitoring, and security protection. The multi-mode monitor can also be understood as a multi-mode monitoring system. The FHSS monitor display device is a monitor display device that includes an FHSS radio frequency wireless module. The monitor display device can be a mobile phone, computer, tablet, television, or any display device with a display screen. The mobile terminal can be any device that can install an application (APP), including but not limited to mobile phones, tablets, etc. The FHSS camera device is a camera device that includes an FHSS radio frequency wireless module. The FHSS sensor device is a sensor device that includes an FHSS radio frequency wireless module. The FHSS (Frequency-Hopping Spread Spectrum) radio frequency wireless module is a wireless communication module using frequency hopping / spread spectrum technology. Therefore, the FHSS sensor device can wirelessly communicate with the FHSS camera device via the FHSS radio frequency wireless module, and the FHSS camera device can wirelessly communicate with the FHSS monitor display device via the FHSS radio frequency wireless module. The multi-mode monitor of the present embodiment includes an FHSS wireless sensor device, an FHSS camera device, and an FHSS monitor display device. The FHSS wireless sensor device and the FHSS camera device are networked together, and the FHSS camera device and the FHSS monitor display device are networked together, both on the same FHSS network. This allows the wireless sensor device and the monitor display device to be used simultaneously. Furthermore, the FHSS camera device includes a Wi-Fi wireless module that communicates with a mobile terminal via the internet to transmit data or control signals. This allows data collected by the FHSS sensor device to be displayed separately or simultaneously on the FHSS monitor display device and the mobile terminal (specifically, on an application (APP) on the mobile terminal). Furthermore, the FHSS sensor device is a wireless sensor device, requiring no wiring, making installation more convenient and adaptable to various scenarios. Furthermore, the communication distance between the FHSS sensor device and the FHSS camera device is longer than that between conventional BLE sensors and BLE camera devices, making it suitable for applications requiring longer communication distances. In addition, the existing FHSS RF wireless module of the camera device is used to complete the communication with the FHSS sensor device, saving costs.

[0031] It's important to note that in actual applications, FHSS cameras are installed close to the people, objects, or environments being monitored, while FHSS sensors collect data from them. Therefore, both are installed close to the people, objects, or environments being monitored, keeping a relatively fixed and close distance between them. FHSS sensors may also set their transmission power to a lower level depending on the product application, shortening the communication distance. FHSS monitors and displays are not fixed in place and are portable. Based on this, our design involves transmitting the data collected by the FHSS sensors to the FHSS camera, which then transmits it to the FHSS monitor via the camera's FHSS module.

[0032] As shown in Figure 2, in one embodiment, the FHSS sensor device includes at least one sensor 306, a first micro control unit 302 and a first FHSS RF wireless module 305; the first FHSS RF wireless module 305 and the sensor are electrically connected to the first FHSS RF wireless module 305 respectively; the sensor 306 is used to collect data and transmit the collected data to the first micro control unit 302 for processing, the first micro control unit 302 is used to transmit the processed data to the first FHSS RF wireless module 305, and the first FHSS RF wireless module 305 is used to send the data processed by the first micro control unit 302 to the FHSS camera device.

[0033] In an embodiment of the present application, specifically, as shown in Figure 2, the FHSS sensor device includes a sensor 306, a first micro control unit 302 (the first micro control unit 302 is an MCU) and a first FHSS RF wireless module 305. The sensor 306 and the first FHSS RF wireless module 305 are electrically connected to the first micro control unit 302 respectively; the sensor 306 is used to collect data and transmit the collected data to the first micro control unit 302 for processing, the first micro control unit 302 is used to transmit the processed data to the first FHSS RF wireless module 305, and the first FHSS RF wireless module 305 is used to send the processed data to the FHSS camera device.

[0034] In one embodiment, as shown in FIG2 , the FHSS sensor device further includes a first button 308 , which is electrically connected to the first microcontroller unit 302 . The first button 308 is used for, including but not limited to, starting pairing and factory settings.

[0035] In one embodiment, as shown in FIG2 , the FHSS sensor device further includes a first speaker 307, which is electrically connected to the first microcontroller unit 302. The first speaker 307 is configured to play one or more of music pre-stored in the FHSS sensor device or downloaded online, a signal trigger value alarm, or a warning tone.

[0036] In one embodiment, as shown in Figure 2, the FHSS sensor device also includes a first power manager 309, which is electrically connected to a first power adapter 320, and the first power adapter 320 is connected to the mains; the first micro control unit 302 and the first FHSS RF wireless module 305 are respectively electrically connected to the first power manager 309.

[0037] In one embodiment, as shown in FIG2 , the FHSS sensor device further includes a first charging manager 310 and a first battery, the first power manager 309 is electrically connected to the first charging manager 310 , the first charging manager 310 is electrically connected to the first battery, and the first micro control unit 302 and the first FHSS RF wireless module 305 are electrically connected to the first battery, respectively.

[0038] This application provides two power supply methods, one of which is battery-powered. In this way, when the mains power is cut off, the battery can be used as a power source to provide electricity to ensure the normal operation of the multi-mode monitoring system.

[0039] As shown in Figures 2 and 3, in one embodiment, the FHSS camera device includes a WIFI wireless module 104, a second FHSS RF wireless module 105 and a second micro control unit 116; the WIFI wireless module 104 and the second FHSS RF wireless module 105 are electrically connected to the second micro control unit 116 respectively; the second FHSS RF wireless module 105 is used to receive data sent by the FHSS sensor device through the first FHSS RF wireless module 305 and transmit the received data to the second micro control unit 116 for processing, the second micro control unit 116 transmits the processed data to the WIFI wireless module 104 and / or the second FHSS RF wireless module 105, the second FHSS RF wireless module 105 is used to transmit the data processed by the second micro control unit 116 to the FHSS monitor display device, and the WIFI wireless module 104 is used to transmit the data processed by the second micro control unit 116 to the mobile terminal.

[0040] In the embodiment of the present application, specifically, as shown in Figures 2 and 3, the FHSS camera device includes a WIFI wireless module 104, a second FHSS RF wireless module 105 and a second micro control unit 116 (the second micro control unit 116 is an MCU); the second FHSS RF wireless module 105 and the WIFI wireless module 104 are electrically connected to the second micro control unit 116 respectively; the second FHSS RF wireless module 105 is used to receive the data sent by the FHSS sensor device through the first FHSS RF wireless module 305 and transmit the received data to the second micro control unit 116 for processing. The processing can be performed according to the requirements of different data, such as analog-to-digital conversion or quantization processing, or other After processing, the second micro control unit 116 transmits the processed data to the WIFI wireless module 104, and the WIFI wireless module 104 transmits the data to the mobile terminal, specifically to the application (APP) of the mobile terminal, or transmits the processed data to the second FHSS RF wireless module 105, and the second FHSS RF wireless module 105 transmits the data to the FHSS monitor display device, or transmits the processed data to the WIFI wireless module 104 and the second FHSS RF wireless module 105, and the WIFI wireless module 104 and the second FHSS RF wireless module 105 transmit the data to the mobile terminal and the FHSS monitor display device respectively.

[0041] In one embodiment, as shown in Figure 3, the FHSS camera device includes an image capturer 118, which is used to capture images and transmit the captured images to the second micro control unit 116 for processing into digital video data; the second micro control unit 116 is also used to transmit the digital video data to the WIFI wireless module 104 and / or the second FHSS RF wireless module 105, the WIFI wireless module 104 is also used to transmit the digital video data to the mobile terminal, and the second FHSS RF wireless module 105 is also used to transmit the digital video data to the FHSS monitor display device.

[0042] The image capturer 118 can be specifically used to capture monitored infants, children, elderly people or special groups of people who need to be monitored.

[0043] In one embodiment, as shown in Figure 3, the FHSS camera device also includes a temperature sensor 117, which is used to collect the ambient temperature and transmit the collected ambient temperature to the second micro control unit 116 for processing. The second micro control unit 116 is also used to transmit the processed ambient temperature to the WIFI wireless module 104 and / or the second FHSS RF wireless module 105. The WIFI wireless module 104 is also used to transmit the processed ambient temperature to the FHSS monitor display device, and the second FHSS RF wireless module 105 is also used to transmit the processed ambient temperature to the mobile terminal.

[0044] In the embodiment of the present application, the temperature sensor 117 is provided on the FHSS camera device to collect the temperature of the baby's environment and provide it to the user for viewing, so that the user can understand the temperature of the baby's environment in real time.

[0045] In one embodiment, as shown in FIG3 , the FHSS camera device further includes a second button 106 , which is electrically connected to the second microcontroller unit 116 , and the second button 106 is used for, including but not limited to, starting pairing and factory settings.

[0046] In one embodiment, as shown in Figure 3, the FHSS camera device also includes a first microphone 109, which is electrically connected to the second micro control unit 116; the first microphone 109 is used to collect audio data and transmit the collected audio data to the second micro control unit 116 for processing, and the second micro control unit 116 is also used to transmit the processed audio data to the WIFI wireless module 104 and / or the second FHSS RF wireless module 105. The WIFI wireless module 104 is also used to transmit the processed audio data to the FHSS monitor display device, and the second FHSS RF wireless module 105 is also used to transmit the audio data to the mobile terminal.

[0047] In one embodiment, the FHSS camera device further includes a second speaker 108, which is electrically connected to the second microcontroller unit 116. The second speaker is configured to play one or more of the following: music pre-stored in the camera device or downloaded from the Internet, signal trigger value alarms, warning tones, and sound signals from a microphone on the FHSS monitor display device.

[0048] In one embodiment, the FHSS camera device also includes a light intensity sensor 119 and a night vision module 122; the light intensity sensor is used to collect the ambient light intensity Lux value, and send the ambient light intensity Lux value to the second micro control unit 116 for judgment, and turn on or off the night vision module 122 according to the judgment result.

[0049] In one embodiment, the second microcontroller unit 116 is further used to transmit the ambient light illuminance Lux value to the WIFI wireless module 104 and / or the second FHSS radio frequency wireless module 105, the WIFI wireless module 104 is further used to transmit the ambient light illuminance Lux value to the monitor display device, and the second FHSS radio frequency wireless module 105 is further used to transmit the ambient light illuminance Lux value to the mobile terminal.

[0050] By transmitting the ambient light Lux value to a monitor display device and / or a mobile terminal for display, the user can promptly understand the light intensity conditions of the monitored person, such as the infant.

[0051] In one embodiment, the image capture device is used to capture an image, and the second micro control unit is further used to calculate the ambient light illumination using the captured image.

[0052] In the embodiment of the present application, the ambient light intensity is calculated by using the image captured by the image capture device, without using the light intensity sensor 119 to detect the ambient light intensity, which simplifies the structural design. In addition, since no light intensity sensor is needed, cost can be saved.

[0053] In one embodiment, as shown in FIG3 , the FHSS camera device further includes a motor control module 107 , and the motor control module 107 is used to control the FHSS camera device to rotate left and right and up and down.

[0054] In one embodiment, as shown in FIG3 , the FHSS camera device further includes a second power manager 123 , which is electrically connected to a second power adapter 126 , which is connected to AC power; the second microcontroller unit 116 , the second FHSS RF wireless module 105 , the WIFI wireless module 104 , the image capturer 118 , the temperature sensor 117 , the light intensity sensor 119 , the night vision module 122 , and the motor control module 107 are electrically connected to the second power manager 123 , respectively (the connection relationship between the second power manager 123 and other components is not shown in FIG3 ).

[0055] In one embodiment, as shown in Figures 3 and 4, the FHSS monitor display device includes a third FHSS RF wireless module 205, a display screen 201 and a third micro control unit 202; the third FHSS RF wireless module 205 and the display screen 201 are electrically connected to the third micro control unit 202 respectively; the third FHSS RF wireless module 205 is used to receive data sent by the FHSS camera device through the second FHSS RF wireless module 105 and transmit the received data to the third micro control unit 202 for processing, and the third micro control unit 202 is used to display the processed data on the display screen 201.

[0056] In the embodiment of the present application, as shown in Figures 3 and 4, the FHSS monitor display device includes a third FHSS radio frequency wireless module 205, a display screen 201 and a third micro control unit 202. The third FHSS radio frequency wireless module 205 and the display screen 201 are electrically connected to the third micro control unit 202 respectively. The display screen 201 can be specifically an LCD (Liquid Crystal Display). The third FHSS RF wireless module 205 is further wirelessly connected to the second FHSS RF wireless module 105. The third FHSS RF wireless module 205 is configured to receive data sent by the FHSS camera device via the second FHSS RF wireless module 105, and transmit the received data to the third microcontroller unit 202 for processing, so as to display the data sent by the FHSS camera device via the display screen 201. The data sent by the FHSS camera device includes but is not limited to images and videos, audio data, ambient temperature, ambient illumination, ambient humidity, heart rate, blood oxygen, respiratory rate, body temperature, snoring, movement, flipping, falling, sleeping position, standing position, sitting position, switches, and turning lights on and off. These data are displayed on the display screen 201 to provide visual indications or prompts via any recognizable graphics or symbols.

[0057] 4 , the FHSS monitor display device further includes a third button 208, which is electrically connected to the third micro control unit 202. The second button 106 is used for, but not limited to, starting pairing and factory settings.

[0058] In one embodiment, as shown in FIG. 4 , the FHSS monitor display device further includes a second microphone 206 , and the second microphone 206 is electrically connected to the third micro control unit 202 .

[0059] In one embodiment, as shown in FIG4 , the FHSS monitor display device further includes a third speaker 207, which is electrically connected to the third microcontroller unit 202. The third speaker 207 is used to generate one or more of the following: a signal trigger value alarm, a warning tone, and a sound signal from a microphone of the camera device.

[0060] In one embodiment, as shown in Figure 4, the FHSS monitor display device also includes a third power manager 209, which is electrically connected to a third power adapter 220, and the third power adapter 220 is connected to the AC power; the third micro control unit 202, the third FHSS RF wireless module 205, and the display screen 201 are respectively electrically connected to the third power manager 209.

[0061] In one embodiment, as shown in Figure 4, the FHSS sensor device also includes a second charging manager 210 and a second battery 211, the third power manager 209 is electrically connected to the second charging manager 210, the second charging manager 210 is electrically connected to the second battery 211, and the third micro control unit 202, the third FHSS RF wireless module 205 and the display screen 201 are respectively electrically connected to the second battery 211.

[0062] In one embodiment, the sensor includes one or more of an audio data collector, an ambient temperature sensor, an ambient illumination sensor, an ambient humidity sensor, a heart rate sensor, a blood oxygen sensor, a respiratory rate sensor, a body temperature sensor, a snoring sensor, a movement sensor, a flip sensor, a fall sensor, a sleeping position sensor, a standing position sensor, a sitting position sensor, a switch sensor, and a switch socket.

[0063] In an embodiment of the present application, the FHSS sensor device includes at least one sensor. When the FHSS sensor device has only one sensor, the sensor may be an audio data collector, an ambient temperature sensor, an ambient illumination sensor, a piezoelectric film sensor, an ambient humidity sensor, a heart rate sensor, a blood oxygen sensor, a respiratory rate sensor, a body temperature sensor, a snoring sensor, a movement sensor, a flip sensor, a fall sensor, a sleeping position sensor, a standing position sensor, a sitting position sensor, a volume detector, a switch sensor, or a switch socket. It should be noted that the sensors listed above are only examples, and the present invention is not limited to using only these sensors, and other sensors may also be used. When the FHSS sensor device includes multiple sensors, the sensors may be any two or more of an audio data collector, an ambient temperature sensor, an ambient illumination sensor, an ambient humidity sensor, a heart rate sensor, a blood oxygen sensor, a respiratory rate sensor, a body temperature sensor, a snoring sensor, a movement sensor, a flip sensor, a fall sensor, a sleeping position sensor, a standing position sensor, a sitting position sensor, a switch sensor, and a switch socket. It should be noted that the sensors listed above are only examples, and the present invention is not limited to using only these sensors, and other sensors may also be used.

[0064] In one embodiment, when the FHSS sensor device comprises multiple devices, the sensor types used by different FHSS sensor devices are the same or different.

[0065] In an embodiment of the present application, when the multi-mode monitor includes multiple FHSS sensor devices, the sensor types used by the different FHSS sensor devices may be the same or different. For example, the multi-mode monitor may include two FHSS sensor devices with ambient humidity sensors, one FHSS sensor device with an ambient humidity sensor and one FHSS sensor device with a heart rate sensor, two FHSS sensor devices with ambient humidity sensors and one FHSS sensor device with a heart rate sensor, and so on.

[0066] In one embodiment, the data collected by the FHSS sensor device is separately transmitted to the FHSS monitor display device through the FHSS camera device for display as a single-mode working mode of the multi-mode monitor. In the single-mode working mode, during the data transmission between the FHSS camera device and the FHSS monitor display device, the data is switched to the FHSS sensor device every second during the communication gap with the FHSS monitor display device to perform one transmission cycle of communication to complete the data transmission, and then the FHSS camera device transmits the data to the FHSS monitor display device.

[0067] The embodiments of the present application utilize separate transmissions between the FHSS sensor device and the FHSS camera device to reduce interference and conflicts, thereby improving the stability of data transmission. By switching to the FHSS sensor device for one transmission cycle per second, the data transmission frequency is high, achieving high real-time performance and enabling timely display of collected data. By switching to the FHSS sensor device for data transmission during communication gaps, time is fully utilized, improving data transmission efficiency. The embodiments of the present application can provide stable, real-time, and efficient data transmission.

[0068] In one embodiment, the data collected by the FHSS sensor device is simultaneously transmitted to the FHSS monitor display device and the mobile terminal through the FHSS camera device for display as a dual-mode working mode of the multi-mode monitor. In the dual-mode working mode, during the data transmission between the FHSS camera device and the FHSS monitor display device, the data is switched to the FHSS sensor device every second during the communication gap with the FHSS monitor display device to perform one transmission cycle of communication to complete the data transmission; while the FHSS camera device transmits the data to the FHSS monitor display device through the FHSS network, the FHSS camera device is connected to the Internet through a WIFI wireless module to communicate with the cloud server. After processing by the cloud server, the cloud server transmits the data to the mobile terminal through the Internet.

[0069] The FHSS monitor display device and mobile terminal of the embodiment of the present application can simultaneously display the data collected by the FHSS sensor device, provide a variety of display methods, and be more user-friendly. By switching to the FHSS sensor device for communication with one transmission cycle per second, the frequency of data transmission is high, and a high real-time performance can be achieved, and the collected data can be displayed in a timely manner. By switching to the FHSS sensor device for data transmission during the communication gap, time can be fully utilized and the efficiency of data transmission can be improved. The embodiment of the present application can provide stable, real-time and efficient data transmission. By connecting to the cloud server, the FHSS camera device can upload data to the cloud for processing and storage, realizing more complex data analysis and applications.

[0070] In one embodiment, the FHSS monitor display device is further configured to display a volume level.

[0071] It should be noted that products in the prior art can only provide visual sound level indication through a group of several connected LEDs. When designing the product's appearance, a fixed appearance position needs to be reserved for placing the LEDs for acoustic indication, which limits the appearance design. When designing the structure, special attention needs to be paid to the problems of light crosstalk or light leakage between LEDs. The control of the LEDs in the electronic part requires the MCU to provide more I / O control ports and external control circuits. Therefore, the additional processing of the structural part and the dedicated electronic control circuit lead to increased costs. However, the FHSS monitor display device of the present invention is also used to display the volume level.

[0072] The appearance design is made simpler and more flexible, the structural design is made simpler, the LED control circuit and this group of LEDs can be eliminated, thereby reducing the cost of the product, making the product more cost-effective and competitive. More importantly, the user can more intuitively know that the prompt represents the sound level indication by displaying it on the LCD in the form of graphics or symbols.

[0073] In one embodiment, within the same FHSS network, one FHSS monitor display device can be networked with M FHSS camera devices, M FHSS camera devices can be networked with a total of N FHSS sensor devices, one FHSS sensor device can only be networked with one FHSS camera device, and one FHSS monitor display device, M FHSS camera devices, and N FHSS sensor devices can work simultaneously after being networked to complete the transmission of audio, video, data, and control signals; wherein N is greater than M.

[0074] In the embodiment of the present application, the implementation and working principle of pairing one FHSS monitor display device with multiple FHSS camera devices are as follows:

[0075] The physical layer address (RF (Radio Frequency) mother code) of the FHSS monitor display device and multiple FHSS camera devices is the same. Therefore, data frames sent by the FHSS monitor display device can be received by all FHSS camera devices, but only FHSS camera devices with the same subcode will send reply data frames. When the FHSS monitor display device is paired with multiple FHSS camera devices, it will transmit data with the paired FHSS camera devices in different time periods. After receiving the reply data frame from the corresponding FHSS camera device, the RF frequency hops to the next channel and transmits a data frame with the subcode of the FHSS camera device. If no reply frame is received from the FHSS camera device, the transmission will continue on the next RF hopping channel. The communication diagram is shown in Figure 7, where CH0, CH1, ..., CH4, and CH38 are RF communication channels.

[0076] Specifically,

[0077] When configuring the network, the FHSS monitor display device will assign the same mother code address to each paired FHSS camera device. Therefore, the mother code address of the FHSS monitor display device and the FHSS camera device in the same FHSS network is the same. At the same time, a different sub-code address will be assigned to each camera device. The mother code address is used for the FHSS monitor display device and the FHSS camera device to register in the same FHSS network, and the sub-code address is used for the FHSS monitor display device to request communication with the FHSS camera device with the same corresponding sub-code address (the sub-code address of each FHSS camera device is different for multiple FHSS camera devices).

[0078] The data frame sent by the FHSS monitor display device contains the mother code address and the sub code address. All paired camera devices can receive data, but only the camera device with the same sub code address will send a reply data frame to the monitor display device.

[0079] When an FHSS monitor display device is paired with multiple FHSS camera devices, it will transmit data with the paired FHSS camera devices in different time periods. After receiving the data frame replied by the corresponding FHSS camera device, the FHSS monitor display device will hop to the next channel to send the data frame of the camera device with another subcode address, and so on, until the data transmission of the camera device with the last subcode address is completed, and then it will return to the camera device with the starting subcode address, and the cycle will continue.

[0080] During the data transmission process, if the FHSS monitor display device does not receive a reply frame from the FHSS camera device, it will continue to retransmit the original data on the next RF frequency hopping channel. If it does not receive a reply frame from the FHSS camera device after hopping multiple channels, the FHSS monitor display device will send the data of the next FHSS camera device. The transmission diagram is shown in Figure 7:

[0081] Example 1: How an FHSS monitor display device is paired with an FHSS camera device:

[0082] When an FHSS monitor display device is paired with an FHSS camera device, it will assign a mother code address and a sub-code address to the FHSS camera device. After the pairing is successful, the FHSS monitor display device sends a data request frame with the mother code address and sub-code address to the FHSS camera device. After receiving the data, the FHSS camera device will first analyze whether it corresponds to the mother code address. If so, it will then analyze whether it corresponds to the sub-code address. If so, it will perform the corresponding operation on the FHSS camera device based on the received data analysis and return the requested data to the FHSS monitor display device.

[0083] Example 2: How an FHSS monitor displays two FHSS camera devices pairing:

[0084] When the FHSS monitor display device pairs with two FHSS camera devices (FHSS camera device 1, FHSS camera device 2), it will assign the same mother code address and two different sub-code addresses to the two FHSS camera devices. After the pairing is successful, the FHSS monitor display device sends data with the mother code address and sub-code address to the FHSS camera device. After receiving the data, the two FHSS camera devices will first analyze whether it corresponds to the mother code address. If so, they will then analyze whether it corresponds to the sub-code address. Assuming that FHSS camera device 1 is the FHSS camera device with the corresponding sub-code address, FHSS camera device 1 will perform corresponding operations on FHSS camera device 1 based on the received data. At the same time, the requested data is returned to the FHSS monitor display device. After completion, the RF of the FHSS monitor display device will hop to the next channel to send the data of the subcode address FHSS camera device 2. Both FHSS camera devices will receive the data to parse whether it corresponds to the mother code address and the subcode address. At this time, FHSS camera device 2 is the FHSS camera device corresponding to the subcode address. FHSS camera device 2 will perform corresponding operations on FHSS camera device 2 according to the received data analysis, and return the requested data to the FHSS monitor display device. After completion, the RF of the FHSS monitor display device will hop to the next channel to send the data of the subcode address FHSS camera device 1, and the cycle will continue.

[0085] In the embodiment of the present application, the working principle of multiple FHSS sensor devices is as follows:

[0086] Multiple FHSS sensor devices can be paired in the same FHSS network and can work simultaneously. The pairing information of the FHSS sensor device is stored on the FHSS monitor display device. The location where the FHSS sensor device is paired and stored on the FHSS monitor display device has a unique MAC address code. During pairing, the FHSS monitor display device will write this MAC address code into the paired FHSS sensor device. After the FHSS sensor device completes pairing with the FHSS monitor display device, operations in the FHSS monitor display device will assign the FHSS sensor device to the camera device that has been paired with the FHSS monitor display device. For pairing of the FHSS camera device and the FHSS monitor display device, refer to the implementation and working principle of pairing one FHSS monitor display device with multiple FHSS camera devices described above.

[0087] The transmission of FHSS sensor device data. During normal use, the FHSS sensor device communicates with the FHSS camera device. The data collected by the FHSS sensor device is transmitted to the FHSS camera device through the FHSS network. The FHSS camera device then transmits the data to the FHSS monitor display device through the FHSS network or transmits the data to the Internet via WIFI and then to the APP device of the mobile terminal.

[0088] FHSS sensor devices receive data from FHSS monitors or mobile apps. During normal use, the FHSS sensor devices communicate with FHSS camera devices over the FHSS network. The FHSS monitors send data to the FHSS camera devices, which in turn send data to the FHSS sensor devices. Upon receiving the data, the FHSS sensor devices interpret the data and perform corresponding operations. The mobile app sends data to the FHSS camera devices over Wi-Fi, which in turn send data to the FHSS sensor devices over the FHSS network. Upon receiving the data, the FHSS sensor devices interpret the data and perform corresponding operations.

[0089] Regarding the communication between FHSS sensor devices and FHSS camera devices:

[0090] During the communication interval, the FHSS camera device sends the data command frame of the assigned FHSS sensor device to the FHSS monitor display device and / or to the mobile terminal APP every 1 second.

[0091] Communication frequency and MAC address: If an FHSS camera device is assigned an FHSS sensor device and is transmitting video data with an FHSS monitor display device, it will switch to the sensor device assigned to the FHSS camera device every second during the communication interval with the FHSS monitor display to perform one transmission cycle of communication. A group of FHSS network (one FHSS monitor display device and M FHSS camera devices) can be equipped with N FHSS sensor devices. The MAC addresses and frequencies of these N FHSS sensor devices are calculated based on the MAC address of the network, so they are all fixed.

[0092] The frequency and MAC address algorithm is as follows:

[0093] For example, the original network address MAC = 0x5543a895; the MAC address of the sensor device is incremented by 0x1800000; the frequency point is the remainder of the number of frequency points obtained by adding 0x0D to the last byte of the MAC.

[0094] MAC address of sensor device 0: 0x5543a895 + 0x1800000 = 0x6D43a895

[0095] MAC address of sensor device 1: 0x6D43a895 + 0x1800000 = 0x8543a895

[0096] ......

[0097] RF frequency of sensor device 0: 0x95 + 0x0D = 0xA2 0xA2%38 = 10

[0098] RF frequency of sensor device 1: 10 + 0x0D = 23 23%38=23

[0099] ......

[0100] In one embodiment, M is four and N is ten, that is, within the same FHSS network, one FHSS monitor display device can be networked with four FHSS camera devices, and four FHSS camera devices can be networked with a total of ten FHSS sensor devices. In other words, one FHSS camera device can select any one (up to ten) FHSS sensor devices networked with the same FHSS network to communicate with it, and can also simultaneously select any one (ten in total) FHSS sensor devices networked with the same network from one / two / three or four FHSS camera devices to communicate with the corresponding camera device (note that one FHSS sensor device can only be selected by one FHSS camera device).

[0101] [Corrected 17.03.2025 in accordance with Rule 26] In one example, as shown in FIG5 , FIG5 is a schematic diagram illustrating the single-mode operation of multiple FHSS devices on the same FHSS network. The multimode monitor shown in FIG5 includes multiple FHSS sensor devices, multiple FHSS camera devices, an FHSS monitor display device 403, and an FHSS network 406. The FHSS sensor devices include a first FHSS sensor device 401, a second FHSS sensor device 402, and a third FHSS sensor device 410, and the FHSS camera devices include a first FHSS camera device 404 and a second FHSS camera device 405. In FIG5 , solid arrows represent communication links between FHSS sensor devices and FHSS camera devices, and dotted arrows represent communication links between FHSS sensor devices and FHSS monitor display devices.

[0102] Example 1: When data from a first FHSS sensor device 401 needs to be transmitted to an FHSS monitor display device 403 via a first FHSS camera device 404, the first FHSS sensor device 401 needs to be selected in advance in the first FHSS camera device 404 and assigned to the first FHSS camera device 404. That is, a communication connection needs to be established in advance between the first FHSS sensor device 401 and the first FHSS camera device 404. Then, during data transmission (including audio and / or video data) between the first FHSS camera device 404 and the FHSS monitor display device 403, the communication between the first FHSS sensor device 401 and the first FHSS camera device 404 is switched every second within the communication gap with the FHSS monitor display device 403 to perform one transmission cycle of communication with the first FHSS sensor device 401 and the first FHSS camera device 404 to complete the data transmission.

[0103] Example 2: When it is necessary to transmit the data of the first FHSS sensor device 401 and the second FHSS sensor device 402 to the FHSS monitor display device 403 through the first FHSS camera device 404 for display to the user, and at the same time, it is necessary to transmit the data of the third FHSS sensor device 410 to the FHSS monitor display device 403 through the second FHSS camera device 405 for display to the user, it is necessary to select the first FHSS sensor device 401 and the second FHSS sensor device 402 in advance on the first FHSS camera device 404, and transmit the data of the third FHSS sensor device 410 to the FHSS monitor display device 403 through the second FHSS camera device 405 for display to the user. The sensor device 402 is assigned to the first FHSS camera device 404, and the third FHSS sensor device 410 is selected by the second FHSS camera device 405 and the third FHSS sensor device 410 is assigned to the second FHSS camera device 405, that is, a communication connection is established between the first FHSS sensor device 401 and the first FHSS camera device 404, a communication connection is established between the second FHSS sensor device 402 and the first FHSS camera device 404, and a communication connection is established between the third FHSS sensor device 410 and the second FHSS camera device 405. Then, during data transmission (including audio and / or video data) between the first FHSS camera device 404 and the FHSS monitor display device 403, the first FHSS sensor device 401 and the first FHSS camera device 404, and the second FHSS sensor device 402 and the first FHSS camera device 404 are switched every second during communication intervals with the FHSS monitor display device 403. The first FHSS camera device 404 then transmits the data to the FHSS monitor display device 403. During audio and video transmission between the second FHSS camera device 405 and the FHSS monitor display device 403, the third FHSS sensor device 410 and the second FHSS camera device 405 are switched every second during communication intervals with the FHSS monitor display device 403. The data transmission is completed after one transmission cycle. The second FHSS camera device 405 then transmits the data to the FHSS monitor display device 403. It should be noted that after the FHSS monitor display device 403 is networked with multiple FHSS camera devices, the FHSS monitor display device 403 will perform data transmission with each of the networked FHSS camera devices in different time periods.

[0104] [Corrected 17.03.2025 in accordance with Rule 26] In one embodiment, as shown in FIG6 , FIG6 is a schematic diagram illustrating the dual-mode operation of multiple FHSS devices on the same FHSS network. In this example, the multi-mode monitor includes multiple FHSS sensor devices, multiple FHSS camera devices, an FHSS monitor display device, an FHSS network 406, an Internet network 408, a mobile terminal 407, and a cloud server 409. The FHSS sensor devices include a first FHSS sensor device 401, a second FHSS sensor device 402, and a third FHSS sensor device 410. The FHSS camera devices include a first FHSS camera device 404 and a second FHSS camera device 405. In FIG6 , solid arrows represent communication links between FHSS sensor devices and FHSS camera devices, dotted arrows represent communication links between FHSS sensor devices and FHSS monitor display devices, and dashed arrows represent communication links between FHSS camera devices and mobile terminals via the Internet.

[0105] In one example, when data from the first FHSS sensor device 401 needs to be transmitted to the FHSS monitor display device 403 and the mobile terminal 407 through the first FHSS camera device 404 for display to the user, it is necessary to pre-pair the first FHSS camera device 404 with the APP of the mobile terminal 407, select the first FHSS sensor device 401 in the first FHSS camera device 404, assign the first FHSS sensor device 401 to the first FHSS camera device 404, and then transmit the data (including audio and / or video) between the first FHSS camera device 404 and the FHSS monitor display device 403. During the transmission of data (such as data), in the communication gap with the FHSS monitor display device 403, the first FHSS sensor device 401 and the first FHSS camera device 404 are switched every second to perform a transmission cycle of communication to complete the data transmission. Then, the first FHSS camera device 404 transmits the data to the FHSS monitor display device 403 through the FHSS network 406. At the same time, the first FHSS camera device 404 connects to the Internet 408 through the WIFI wireless module to communicate with the cloud server 409. After processing by the cloud server 409, the cloud server 409 transmits the data to the mobile terminal 407 through the Internet 408.

[0106] In one example, when it is necessary to transmit data from the first FHSS sensor device 401 and the second FHSS sensor device 402 to the FHSS monitor display device 403 and the mobile terminal 407 via the first FHSS camera device 404 for display to the user, and at the same time, it is necessary to transmit data from the third FHSS sensor device 410 to the FHSS monitor display device 403 and the mobile terminal 407 via the second FHSS camera device 405 for display to the user, it is necessary to pre-pair the first FHSS camera device 404 and the second FHSS camera device 405 to the APP of the mobile terminal 407. (Or, the first FHSS camera device 404 and the second FHSS camera device 405 may be paired with different mobile terminals.) Furthermore, the first FHSS camera device 404 selects the first FHSS sensor device 401 and the second FHSS sensor device 402 and assigns them to the first FHSS camera device 404. The second FHSS camera device 405 selects the third FHSS sensor device 410 and assigns it to the second FHSS camera device 405. Then, during data transmission (including audio and / or video data) between the first FHSS camera device 404 and the FHSS monitor display device 403, within the communication gaps with the FHSS monitor display device 403, communication switches are performed between the first FHSS sensor device 401 and the first FHSS camera device 404, and between the second FHSS sensor device 402 and the first FHSS camera device 404, each for one transmission cycle each, to complete the data transmission. The first FHSS camera device 404 then transmits data to the FHSS monitor display device 403 via the FHSS network. Simultaneously, the first FHSS camera device 404 connects to the internet via a Wi-Fi wireless module to communicate with a cloud server 409. After processing by the cloud server 409, the data is then transmitted to the mobile terminal 407 via the internet. During data transmission (including audio and / or video data) between the second FHSS camera device 405 and the FHSS monitor display device 403, the second FHSS camera device 405 switches to the third FHSS sensor device 410 and the second FHSS camera device 405 every second during the communication intervals with the FHSS monitor display device 403, completing the data transmission cycle. Simultaneously, the second FHSS camera device 405 transmits data to the FHSS monitor display device 403 via the FHSS network. Simultaneously, the second FHSS camera device 405 connects to the internet via a Wi-Fi wireless module to communicate with the cloud server 409. After processing by the cloud server 409, the data is then transmitted to the mobile terminal 407 via the internet.It should be noted that after the FHSS monitor display device 403 is networked with multiple FHSS camera devices, the FHSS monitor display device 403 will perform data transmission with each of the networked FHSS camera devices in different time periods.

[0107] In some embodiments, the FHSS monitor display device is further configured to send data to the FHSS sensor device via a FHSS camera device, and the mobile terminal is further configured to send data to the FHSS sensor device via a FHSS camera device.

[0108] In an embodiment of the present application, specifically, an FHSS sensor device receives data from an FHSS monitor display device or a mobile terminal app. During normal use, the FHSS sensor device communicates with an FHSS camera device via an FHSS network. The FHSS monitor display device sends data via the FHSS network to the FHSS camera device, which in turn sends data to the FHSS sensor device via the FHSS network. After receiving the data, the FHSS sensor device interprets the data and performs corresponding operations. The mobile terminal app transmits the data to the FHSS camera device via Wi-Fi internet, which in turn transmits the data to the FHSS sensor device via the FHSS network. After receiving the data, the FHSS sensor device interprets the data and performs corresponding operations.

[0109] In one embodiment, the FHSS sensor device is further directly connected to the FHSS monitor display device for communication, and the FHSS sensor device is further configured to directly transmit data to the FHSS monitor display device.

[0110] In addition to transmitting data from FHSS sensor devices to FHSS monitors and displays via FHSS cameras, it's also possible to connect FHSS sensor devices and FHSS monitors and displays directly via the FHSS network. This is particularly useful when the FHSS monitor is installed in a fixed location. Furthermore, if data from FHSS sensor devices needs to be transmitted to a mobile app, it can be transmitted to the internet via the FHSS camera's Wi-Fi module, and then to the mobile app.

[0111] In one embodiment, the FHSS monitor display device is further configured to send the data received from the FHSS sensor device to the FHSS camera device. The FHSS camera device forwards the data to the cloud via WIFI, and the cloud sends the data to the mobile terminal.

[0112] In the embodiments of the present application, the FHSS sensor device transmits data to the FHSS monitor display device, which then processes the data or directly forwards it to the FHSS camera device. The processing here is based on the data requirements, such as analog-to-digital conversion or quantization. Subsequently, the FHSS camera device forwards the data to the cloud, which then sends the data to the mobile terminal app for display. The embodiments of the present application provide an alternative path for sending FHSS sensor data to the mobile terminal for display, making product communication more flexible and reliable.

[0113] In one embodiment, in the multi-mode monitor, the wireless transmission of FHSS needs to ensure the correctness of data reception, so the communication of the multi-mode monitor also includes a retransmission mechanism for lost and erroneous frames.

[0114] It should be noted that the information involved in the embodiments of this application (including but not limited to user equipment information

[0115] information, user personal information, etc.), data (including but not limited to data used for analysis, stored data,

[0116] The data displayed, etc.) and signals are authorized by the user or fully authorized by all parties, and the relevant

[0117] The collection, use and processing of data must comply with relevant laws, regulations and standards of relevant countries and regions.

[0118] It should be noted that, in this document, the terms "comprises," "includes," or any other variations thereof are intended to encompass non-exclusive inclusion, such that a process, apparatus, article, or method comprising a series of elements includes not only those elements but also other elements not explicitly listed, or elements inherent to such process, apparatus, article, or method. In the absence of further limitations, an element defined by the phrase "comprising a ..." does not exclude the presence of other identical elements in the process, apparatus, article, or method comprising the element.

[0119] The above content is a further detailed description of the present invention in conjunction with specific preferred embodiments, and the specific implementation of the present invention cannot be considered to be limited to these descriptions. For those skilled in the art of the present invention, without departing from the concept of the present invention, several simple deductions or substitutions can be made, which should be considered to fall within the scope of protection of the present invention.

Claims

1. A multi-mode monitor, wherein: include: an FHSS monitor display device, at least one FHSS camera device, and at least one FHSS sensor device; The FHSS sensor device is connected to the FHSS camera device via an FHSS network communication connection, and the FHSS camera device is connected to the FHSS monitor display device via the FHSS network communication connection. The FHSS camera device also includes a WIFI wireless module, and the WIFI wireless module is connected to the mobile terminal device via the Internet. The data collected by the FHSS sensor device is simultaneously transmitted to the FHSS monitor display device and the mobile terminal via the FHSS camera device for display, or is transmitted separately to the FHSS monitor display device or the mobile terminal for display.

2. The multi-mode monitor according to claim 1, wherein: The FHSS sensor device includes at least one sensor, a first micro control unit and a first FHSS RF wireless module; the first FHSS RF wireless module and the sensor are electrically connected to the first FHSS RF wireless module respectively; the sensor is used to collect data and transmit the collected data to the first micro control unit for processing, the first micro control unit is used to transmit the processed data to the first FHSS RF wireless module, and the first FHSS RF wireless module is used to send the data processed by the first micro control unit to the FHSS camera device.

3. The multi-mode monitor according to claim 2, wherein: The FHSS camera device includes a WIFI wireless module, a second FHSS RF wireless module and a second micro control unit; the WIFI wireless module and the second FHSS RF wireless module are electrically connected to the second micro control unit respectively; the second FHSS RF wireless module is used to receive data sent by the FHSS sensor device through the first FHSS RF wireless module and transmit the received data to the second micro control unit for processing, the second micro control unit transmits the processed data to the WIFI wireless module and / or the second FHSS RF wireless module, the second FHSS RF wireless module is used to transmit the data processed by the second micro control unit to the FHSS monitor display device, and the WIFI wireless module is used to transmit the data processed by the second micro control unit to the mobile terminal.

4. The multi-mode monitor according to claim 3, wherein: The FHSS monitor display device includes a third FHSS RF wireless module, a display screen and a third micro control unit; the third FHSS RF wireless module and the display screen are electrically connected to the third micro control unit respectively; the third FHSS RF wireless module is used to receive data sent by the FHSS camera device through the second FHSS RF wireless module and transmit the received data to the third micro control unit for processing, and the third micro control unit is used to display the processed data on the display screen.

5. The multi-mode monitor according to claim 4, wherein: The sensors include one or more of an audio data collector, an ambient temperature sensor, an ambient illumination sensor, a piezoelectric film sensor, an ambient humidity sensor, a heart rate sensor, a blood oxygen sensor, a respiratory rate sensor, a body temperature sensor, a snoring sensor, a movement sensor, a flip sensor, a fall sensor, a sleeping position sensor, a standing position sensor, a sitting position sensor, a volume detector, a switch sensor, and a switch socket.

6. The multi-mode monitor according to claim 5, wherein: When the FHSS sensor device comprises multiple devices, the sensor types adopted by different FHSS sensor devices are the same or different.

7. The multi-mode monitor according to claim 1, wherein: Within the same FHSS network, one FHSS monitor display device can be networked with M FHSS camera devices, M FHSS camera devices can be networked with a total of N FHSS sensor devices, and one FHSS sensor device can only be networked with one FHSS camera device. After being networked, one FHSS monitor display device, M FHSS camera devices, and N FHSS sensor devices can work simultaneously to complete the transmission of audio, video, data, and control signals; where N is greater than M.

8. The multi-mode monitor according to claim 1, wherein: The data collected by the FHSS sensor device is transmitted separately to the FHSS monitor display device through the FHSS camera device for display as the single-mode working mode of the multi-mode monitor. In the single-mode working mode, during the data transmission between the FHSS camera device and the FHSS monitor display device, the data is switched to the FHSS sensor device every second during the communication gap with the FHSS monitor display device to perform one transmission cycle of communication to complete the data transmission, and then the FHSS camera device transmits the data to the FHSS monitor display device.

9. The multi-mode monitor according to claim 1, wherein: The data collected by the FHSS sensor device is simultaneously transmitted to the FHSS monitor display device and the mobile terminal through the FHSS camera device for display in the dual-mode working mode of the multi-mode monitor. In the dual-mode working mode, during the data transmission between the FHSS camera device and the FHSS monitor display device, the data is switched to the FHSS sensor device every second during the communication gap with the FHSS monitor display device to perform one transmission cycle of communication to complete the data transmission; the FHSS camera device transmits the data to the FHSS monitor display device through the FHSS network, and at the same time, the FHSS camera device connects to the Internet through the WIFI wireless module to communicate with the cloud server. After processing by the cloud server, the cloud server transmits the data to the mobile terminal through the Internet.

10. The multi-mode monitor according to claim 1, wherein: The FHSS monitor display device is further configured to send data to the FHSS sensor device via the FHSS camera device.

11. The multi-mode monitor according to claim 1, wherein: The FHSS sensor device is also directly connected to the FHSS monitor display device for communication, and the FHSS sensor device is further configured to directly transmit data to the FHSS monitor display device.

12. The multi-mode monitor according to claim 1, wherein: The FHSS monitor display device is further configured to send the data received from the FHSS sensor device to the FHSS camera device. The FHSS camera device forwards the data to the cloud via WIFI, and the cloud sends the data to the mobile terminal.

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