Whole house heating electric warmer control system and control method thereof

Abstract

The embodiment of the invention discloses a whole-house heating electric warmer control method and system, and belongs to the technical field of electric warming equipment. The control system comprises a main control power panel, a lifting heating execution module, an interaction module and a sensing module, and is also integrated with a cooking module, a lifting table module and a local heating module; and the main control unit is connected with each module, drives the double-group heating execution unit to operate independently / cooperatively, and adjusts the heating position through the lifting driving sub-module. The control method comprises the subprograms of initialization, function selection, operation control flow, matching timing, child lock, constant temperature control and the like. Whole house heating, local heating, cooking and table lifting multifunctional integration are achieved, operation is flexible, safety and energy saving are achieved, and the heating requirements of families, offices and other scenes are met. Therefore, the problems that an existing warmer is single in function, poor in control flexibility and insufficient in safety protection are solved.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of electric heating equipment, in particular to a whole-house temperature rising electric heater control system and a control method thereof. BACKGROUND

[0002] With the improvement of living standards, people have higher requirements for the comfort, safety and functionality of indoor heating in winter. The electric heaters on the market are mainly divided into two categories: one is a heater using a light-emitting and heat-emitting source (such as a resistance wire or a quartz tube), which has direct heat feeling, but the light will interfere with sleep when used in a bedroom at night; the other is a heater using a non-light-emitting and heat-emitting source (such as a PTC or an aluminum heating plate), which solves the problem of light emission, but generally relies on natural heat convection, and the heat is concentrated around the device, which has the limitation of "near heat and far cold", and cannot achieve uniform heating of the whole house, resulting in poor heating experience.

[0003] In addition, the existing heaters have single functions, usually only providing basic heating functions, and are difficult to meet the needs of users for cooking, desktop height adjustment, local targeted heating and other complex life scenes in addition to heating. In terms of control, it mainly depends on the keys of the device body or a single remote controller, which is inconvenient to operate and lacks intelligence. In terms of safety, the heating body is usually fixedly installed, which has the risk of scalding, and the temperature detection is easily disturbed by the heat source itself, resulting in inaccurate temperature control, which affects the comfort and causes energy waste.

[0004] In summary, the existing heater products have obvious deficiencies in heating effect, function integration, intelligent control and safety, and cannot meet the needs of modern families for efficient, safe, convenient and multifunctional whole-house intelligent heating solutions. SUMMARY

[0005] In view of the above-mentioned defects in the prior art, the present application aims to provide a whole-house temperature rising electric heater control system and a control method thereof, which can realize uniform and efficient temperature rising of the whole house, and integrate multiple life functions, thereby improving the convenience, safety and comfort of user use through intelligent control.

[0006] The first aspect of the embodiment of the present application discloses a whole-house temperature rising electric heater control system, which comprises: a main control power board 1, a lifting heating execution module 2, an interactive module 3, and a sensing module 4; the main control power board 1 comprises a main control unit 11 and a power supply unit 12; the power supply unit 12 is connected to the mains at the input end and provides an adaptive voltage for each module at the output end; The main control unit 11 is built-in with a microcontroller, which is electrically connected with the power supply unit 12, the lifting heating execution module 2, the interactive module 3 and the sensing module 4, respectively, for receiving input signals and outputting control instructions; The lifting heating execution module 2 comprises a heating sub-module 21 and a heating lifting driving sub-module 22 for driving the heating sub-module 21 to lift, and the heating sub-module 21 is driven by the master control unit 11 to realize power adjustment. The interaction module 3 is used for receiving user instructions and feeding back the device state. The sensing module 4 is used for collecting environmental temperature signals and transmitting them to the master control unit 11.

[0007] Preferably, the cooking function module 5, the lifting table function module 6 and the local heating module 7 are respectively electrically connected with the master power panel 1. The cooking function module 5 comprises an electromagnetic oven 51, the lifting table function module 6 comprises a table lifting motor 61 for driving the height adjustment of the table top, and the local heating module 7 comprises an electric heating pad 71, and the electromagnetic oven 51, the table lifting motor 61 and the electric heating pad 71 are respectively electrically connected with the master power panel 1. The heating sub-module 21 comprises at least a first heating execution unit 211 and a second heating execution unit 212 which are respectively electrically connected with the master power panel 1, the first heating execution unit 211 comprises a first heating body 2111 and a first fan 2112, the second heating execution unit 212 comprises a second heating body 2121 and a second fan 2122, and the two groups of heating execution units are symmetrically distributed and are electrically connected with the master control unit 11 and can be independently or cooperatively operated.

[0008] Preferably, the heating lifting driving sub-module 22 comprises a first lifting motor 221 for driving the heating sub-module 21 to lift, and the sensing module 4 comprises a limit switch 42 for detecting the highest position / lowest position of the heating sub-module 21 and feeding back to the master control unit 11. The interaction module 3 comprises a display control panel 31, an infrared remote controller 32, a wireless wall-mounted remote controller 33 and a mobile phone APP control module 34, the wireless wall-mounted remote controller 33 is provided with a temperature probe 41 and supports networking pairing, and the mobile phone APP control module 34 supports remote control and parameter setting; the display control panel 31 is provided with a touch key group 311 and an LED display screen 312. The sensing module 4 comprises the temperature probe 41 and the limit switch 42.

[0009] Preferably, in the display control panel 31 of the interaction module 3, the LED display screen 312 is arranged at the middle position, and the plurality of keys of the touch key group 311 are distributed on both sides of the LED display screen 312; the touch key group 311 includes function keys for controlling the cooking function module 5, the local heating module 7, the lifting table function module 6 and the lifting heating execution module 2, up and down keys for parameter and gear adjustment, a child lock key and a power key; the function keys at least include a cooking key, a foot heating key, a lifting key, a heating key, an energy-saving key, a comfort key, a whole-house heating key, a self-defined key, a front / rear heating switching key and a temperature setting key. The LED display screen 312 is provided with a state display area corresponding to each function module, including a lifting indicator light area, a child lock indicator light area, a cooking indicator light area, a cooking gear display area, a timing indicator light area, a timing time display area, a temperature display area, a total heating power display area, a heating mode display area and a self-defined indicator light area; the lifting indicator light area displays in different forms of marquee light when the table top is lifted, the LED display screen 312 also displays a planar graph adapted to the product structure, and is provided with a running indicator light corresponding to the heating execution unit and the local heating module at the position corresponding to the graph.

[0010] The second aspect of the embodiment of the application discloses a whole-house heating electric heater control method applied to the control system of the first aspect, and the method comprises the following steps. After the electric heater is powered on, the main control power board is started, an initialization program is entered, and a temperature detection program, a timing control program, a lifting heating control program and a child lock program are started in sequence. A power-on instruction input by a key is received, and power-on is performed. A function selection instruction input by a key is received, a to-be-executed function X is determined, the to-be-executed function X is matched with a preset function, and if the matching is successful, a corresponding function program is executed; the function program at least includes a cooking program, a local heating program, a timing program, a heating program and a table top lifting program. After a power-off instruction input by a key is received, power-off is performed.

[0011] Preferably, the timing control program comprises the following flow: S11, after power-on, the timing duration is initialized as P hours. S12, during the P hours, whether there is a key operation and whether there is an input value X1 are detected: if yes, whether X1 is a timing function instruction is judged; if yes, the input timing duration t1 is received, and the timing duration is set as t1; if no, the current timing duration or a preset default timing duration is maintained. S13, after the timing duration ends, the electric heater is controlled to enter a power-off state. The child lock program comprises the following flow: S21. After power-on, all buttons are initially in a normal working state. S22. Detect whether there is any key operation within a preset time: if not, disable all keys except the child lock key; S23. Check if the child lock button has been pressed and held for a period of time greater than or equal to the preset time: if yes, all buttons are restored to the operable state and return to the initial state of the buttons; if no, the disabled state is maintained. The heating and cooling control program includes the following steps: S31. After power-on, detect the current position of the heating submodule: S311. If the current position is a high bit, then perform the following operations: When a power-on and heating start command is received, the heating submodule is controlled to descend to activate the heating function; During the descent, monitor whether the heating submodule reaches the low position within a preset time; if so, stop the descent; if the time exceeds the preset time and the low position is not reached, report a fault. When a command to shut down or turn off the heating function is received, the heating submodule is controlled to rise from a low position; During the ascent, monitor whether the heating submodule reaches the high position within a preset time; if so, stop the ascent; if the time exceeds the preset time and the high position is not reached, report a fault. S312. If the current position is a low bit, then perform the following operation: Control the rise of the heating submodule; During the ascent, monitor whether the heating submodule reaches the high position within a preset time; if so, stop the ascent; if the time exceeds the preset time and the high position is not reached, report a fault.

[0012] Preferably, the local heating program is a foot warming function program, which includes the following process: S41. After powering on and unlocking the child lock, the electric heating pad is driven at rated power according to the command input when the foot warmer button is pressed. S42. Upon receiving the instruction that the foot warmer button has been pressed again, turn off the foot warmer function; The desktop lifting function program includes: S51. After powering on and unlocking the child lock, based on the instruction input by pressing the lift button, detect whether there is a button operation and whether there is an input value X2. S52. Determine if X2 is an upward command: If yes, control the desktop to rise and check if it has reached the highest level: If yes, stop raising or lowering; if no, continue raising. S53. If X2 is not an upward command, determine if it is a downward command: if yes, control the desktop to lower and check if it has reached the bottom: if yes, stop raising or lowering; if no, continue lowering. S54. Receive the input command from the lifting button again and stop the lifting operation.

[0013] Preferably, the cooking function control program includes the following process: S61. Receive the start command input from the cooking button, start the cooking function, and set the gear value D according to the up and down buttons; S62. Determine if D is 1: If yes, operate the induction cooker at the first level of rated power; if no, determine if D is 2: If yes, operate the induction cooker at the second level of rated power; if no, determine if D is 3: If yes, operate the induction cooker at the third level of rated power; if no, determine if D is 4: If yes, operate the induction cooker at the fourth level of rated power; if no, determine if D is 5: If yes, operate the induction cooker at rated power; if no or no input, default to operating the induction cooker at rated power. S63. Press and hold the cooking button to turn off the cooking function; wherein the first level rated power, the second level rated power, the third level rated power, and the fourth level rated power are set in percentage increments and are all less than the rated power.

[0014] Preferably, the heating function control program includes the following process: S71. Activate the heating function according to the command input on the heating button, and obtain the heating mode M according to the command input on the function button. S72. If no command is input within the preset time, the whole house heating mode will be turned on by default: the two sets of heating actuators will be driven with rated power and the two fans will be driven with rated voltage. S73. If an input command is received within the preset time and heating mode M is obtained, determine whether M is an energy-saving mode: if yes, drive two sets of heating execution units with the first ratio of rated power and drive two fans with the first level of rated voltage; if no, determine whether M is a comfort mode: if yes, drive two sets of heating execution units with the second ratio of rated power and drive two fans with the second level of rated voltage; if no, determine whether M is a whole-house heating mode: if yes, drive two sets of heating execution units with rated power and drive two fans with rated voltage; if no, determine whether M is a custom mode: if yes, divide the power of the two sets of heating elements into N levels, set the level according to the input command of the up and down buttons, and select the switch corresponding to one or two sets of heating execution units according to the input command of the front / back buttons. S74. If a temperature setting command X3 is input during the operation of the above mode, adjust the temperature value to T2 according to the input X3, and perform room temperature detection: if the room temperature is greater than T2 and the duration is greater than or equal to the preset time, turn off the heating element and turn off the fan; if the difference between the room temperature and T2 is greater than the preset temperature difference, the heating element and fan will return to the original working mode. S75. If, during heating operation, the heating button input command is received again, and it is detected that the button has been pressed for a duration greater than the preset time, the heating function is turned off.

[0015] Preferably, the functional program further includes: a wireless pairing program and an APP network control program; The wireless pairing procedure includes: after unlocking the child lock and going into standby mode, press and hold the designated button on the display control panel (31) to enter the pairing mode; the wireless wall-mounted remote control goes into pairing mode by pressing and holding the designated button in offline or standby mode, and wireless control is achieved after the two are successfully paired. The APP network control program includes: the wireless remote control presses and holds a designated button to enter the network configuration mode, the mobile APP searches for the device and enters the network information to complete the network connection, and the mobile APP can remotely control the device to start and stop, switch modes and adjust parameters.

[0016] Compared with the prior art, the beneficial effects of the present invention are: 1. In this embodiment of the invention, the main control power board enables global control and power supply adaptation for the heater, achieving high integration. Through the separate design of its main control unit and power supply unit, the power supply unit provides adaptive voltage to each module, and the main control unit, in conjunction with logic control, adjusts the power of the lifting and lowering heating execution module to support different heating power requirements. Unlike typical fixed heating modules, this invention uses a motor to drive the heating element to rise and fall, enabling low-level heating and high-level shutdown in conjunction with the main control power board. When heating is needed, the heating element descends, utilizing the low density and upward flow of hot air. When the heating submodule descends to a low position, the heat from the heating element diffuses from the low position, gradually covering the indoor space through natural convection. Simultaneously, a fan provides forced convection, further diffusing the heat released by the heating element to different areas of the room. This solves the problem of localized heating and overall lack of warmth (such as traditional high-level heating where heat is concentrated at the top and the floor temperature is low), resulting in more even heating and higher efficiency. Meanwhile, the high-level storage of the heating submodule provides a dedicated storage location when in standby mode, extending its lifespan. The multi-terminal design of the interaction module enhances ease of operation, especially with the wireless wall-mounted remote's temperature probe providing prioritized and accurate ambient temperature data for more precise temperature control. The dual detection of the sensing module ensures system safety and precise control. Temperature probes enable on-demand heating, and limit switches linked to the lifting motor ensure precise start-stop of the heating submodule, improving the reliability of the control system. Modules such as cooking, lifting table, and localized heating work collaboratively under the unified control of the main power board, forming a multi-functional heater that integrates heating with various living scenarios. Thus, this control system not only solves many problems of traditional heaters but also expands usage scenarios, delivering an efficient, safe, and convenient whole-house heating experience.

[0017] 2. In Embodiment 2 of this invention, the system integrates multiple functions such as cooking, foot warming, timer, heating, and desktop height adjustment, meeting diverse user needs in different scenarios and providing a more comprehensive and convenient experience. Specifically, through a clear function judgment sequence (cooking, foot warming, timer, heating, desktop height adjustment), the main control system can quickly respond to function selection commands input by buttons, making function switching and execution more direct for users, reducing the probability of misoperation, and improving ease of use. After power-on, temperature detection, timer control, heating and height adjustment control, and the child lock program are sequentially activated, completing the initialization of core functional modules in advance. This ensures accurate collaboration among programs during subsequent operation, reducing malfunctions caused by incomplete program readiness and improving system stability. Furthermore, this system covers multiple functions such as cooking, foot warming, heating, and desktop height adjustment, with each function activating its corresponding program through independent judgment logic. Users can flexibly select single or combined functions according to actual needs, meeting heating, cooking, and desktop height adjustment requirements for different scenarios throughout the house. Moreover, the child lock program is activated during the initialization phase, providing safety protection from the initial power-on stage, preventing children from accidentally pressing buttons and causing abnormal function activation, thus improving device safety. Furthermore, the method in this case forms a complete control loop, from power-on initialization, receiving instructions, function execution to ending all procedures after receiving shutdown instructions. This ensures that the equipment has clear operating logic and state switching mechanisms at any stage of operation, avoiding program disorder or resource waste. Attached Figure Description

[0018] Figure 1 This is a structural block diagram of the whole-house heating electric heater control system disclosed in this invention; Figure 2 This is a schematic diagram of the lifting and heating execution module descending to its lowest position and rising to its highest position in Embodiment 1 of the present invention; Figure 3 This is a schematic diagram of the layout of the display control board in Embodiment 1 of the present invention; Figure 4 This is a diagram of the button function architecture of the interaction module in Embodiment 1 of the present invention; Figure 5 It is a flowchart of the whole-house heating electric heater control method disclosed in the invention; Figure 6 This is a flowchart of the timing control program and the child lock program in Embodiment 2 of the present invention; Figure 7 This is a flowchart of the heating and cooling control program in Embodiment 2 of the present invention; Figure 8 This is a flowchart of the foot warming function program and the desktop lifting function program in Embodiment 2 of the present invention; Figure 9 This is a flowchart of the cooking function control program in Embodiment 2 of the present invention; Figure 10This is a flowchart of the heating function control program in Embodiment 2 of the present invention; Figure 11 This is a schematic diagram of a third embodiment of a control system disclosed in this invention. Detailed Implementation

[0019] The following examples further illustrate the features and other related characteristics of the present invention in detail, to facilitate understanding by those skilled in the art: Example 1 like Figure 1 and Figure 4 As shown, a whole-house heating electric heater control system includes: The main control power board 1 includes a main control unit 11 and a power supply unit 12. The power supply unit 12 is connected to the mains power at its input terminal and provides an adaptive voltage for each module at its output terminal. The main control unit 11 has a built-in microcontroller (such as an STM32 series microcontroller) that is electrically connected to the power supply unit 12, the lifting and heating execution module 2, the interaction module 3, the sensing module 4, the cooking function module 5, the lifting table function module 6, and the local heating module 7, respectively, and is used to receive input signals and output control commands. The power supply unit 12 is responsible for voltage conversion and power distribution, and includes a power adapter module to provide an adaptive voltage for each module. The lifting and heating execution module 2 is used to realize the heating function and can move up and down. It includes a heating submodule 21 and a heating lifting drive submodule 22 that drives the heating submodule 21 to move up and down. The heating submodule 21 is driven by the main control unit 11 to realize power adjustment. In a preferred embodiment, the heating submodule 21 includes a first heating execution unit 211 and a second heating execution unit 212 that are electrically connected to the main control power board 1. The first heating execution unit 211 includes a first heating element 2111 and a first fan 2112. The second heating execution unit 212 includes a second heating element 2121 and a second fan 2122. The two sets of heating execution units are symmetrically distributed and are both electrically connected to the main control unit 11. They can operate independently or in concert, and support energy-saving mode (total power 100W), comfort mode (total power 3000W / 2000W), whole-house heating mode (total power 6000W / 4000W) and 1-9 levels of custom power adjustment. In practical implementation, the control system of this case can be applied to an electric heating coffee table. Two sets of heating elements are typically installed on the coffee table, one in front and one behind. In this way, the two sets of front-and-back distributed heating elements, combined with the directional airflow of the fan, can achieve uniform heat diffusion throughout the room. The heating and lifting drive submodule 22 includes a first lifting motor 221 that drives the heating submodule 21 to move up and down. In practical implementation, the heating submodule 21 is driven to a preset high position for storage or to a preset low position to activate heating. Heat dissipation vents are provided on both sides at the low position, allowing heat to diffuse throughout the room.

[0020] The interaction module 3 is used to receive user commands and provide feedback on device status. Specifically, the interaction module 3 includes a display control board 31, an infrared remote control 32, a wireless wall-mounted remote control 33, and a mobile APP control module 34, all of which can control the operation of the heater. The mobile APP control module 34 supports remote operation and parameter setting; the display control board 31 is equipped with a touch button group 311 and an LED display screen 312; in addition, the wireless wall-mounted remote control 33 has a built-in temperature probe 41 and supports network pairing, used to collect ambient temperature signals, so as to prioritize providing ambient temperature data to the main control unit 11.

[0021] The sensing module 4 includes the temperature probe 41 and the limit switch 41. The limit switch 41 has two sets, used to detect the highest and lowest positions of the heating submodule 21 and feed back to the main control unit 11 to trigger a shutdown protection. For example, when heating is turned on, the main control power board 1 controls the first lifting motor 221 to drive the heating submodule 21 down to the lowest position. After being detected by the limit switch, feedback is sent to the main control unit 11 to trigger the two sets of fans and heating elements to start working. When heating is turned off, the main control power board 1 controls the two sets of heating elements to be powered off and controls the fans to be powered off after a preset delay time. The first lifting motor 221 is then controlled to drive the heating submodule 21 up to the highest position. After being detected by the limit switch, the main control unit 11 triggers a shutdown.

[0022] The cooking function module 5 is used to realize the cooking function, including an induction cooker 51; the induction cooker 51 is powered by the power supply unit 12 and is electrically connected to the main control unit 11. The height-adjustable desk functional module 6 includes a desktop lifting motor 61 for driving the desktop to adjust its height. The desktop lifting motor 61 is powered by the power supply unit 12 and electrically connected to the main control unit 11. The local heating module 7 includes an electric heating pad 71, used to provide local heating functions such as foot warming. The electric heating pad 71 is powered by the power supply unit 12 and is electrically connected to the main control unit 11.

[0023] As described above, the main control power board 1 enables global control and power supply adaptation for the heater, achieving a high degree of integration. Through the separate design of its main control unit 11 and power supply unit 12, the power supply unit 12 provides adaptive voltage to each module. In conjunction with the main control unit 11, it uses logic control to adjust the power of the lifting and lowering heating execution module 2 to support different heating power requirements. Unlike typical fixed heating modules, the lifting and lowering heating execution module 2 is driven by a motor to rise and fall. This, combined with the main control power board, enables low-level heating and high-level shutdown. When heating is needed, the module descends, utilizing the low density and upward flow of hot air. As the heating submodule descends, heat from the heating element diffuses from the lower position, gradually covering the indoor space through natural convection. Simultaneously, a fan provides forced convection, further dispersing the heat released by the heating element to different areas of the room. This solves the problems of localized heating and insufficient overall heating, such as the heat concentration at the top and low floor temperature in traditional high-level heating systems. The heating is more even and efficient. Meanwhile, the high-level storage of the heating submodule provides a dedicated storage location when in standby mode, extending its lifespan. The multi-terminal design of the interaction module 3 enhances ease of operation, especially with the temperature probe 41 of the wireless wall-mounted remote control 33 providing prioritized and accurate ambient temperature data for more precise temperature control. The dual detection of the sensing module 4 ensures system safety and precise control. Temperature probes enable on-demand heating, and limit switches and the lifting motor work in tandem to ensure precise start and stop of the heating submodule, improving the reliability of the control system. Modules such as cooking, lifting table, and localized heating work collaboratively under the unified control of the main power board, forming a multi-functional heater that integrates heating with various living scenarios. Thus, this control system not only solves many problems of traditional heaters but also expands its application scenarios, bringing an efficient, safe, and convenient whole-house heating experience.

[0024] As a preferred implementation, existing heaters (whether luminous or not) suffer from heat concentration around the perimeter due to their single heat source design, resulting in a significant decrease in heating efficiency once people move away. This invention, through the symmetrical distribution of the first and second heating elements, allows for installation on a coffee table, front and back, combined with independent fans for forced convection, creating a two-way heat dissipation layout: the two heating elements can operate collaboratively, with heat spreading synchronously from both sides of the device, expanding the coverage area and overcoming the limitations of single-point heat dissipation to achieve more uniform heating throughout the room.

[0025] As a preferred implementation, existing traditional heaters only have a single type of controller, which limits their operation. This invention incorporates a display control board 31, an infrared remote control 32, and a wireless wall-mounted remote control 33 into the control system, forming a multi-dimensional control system combining local and remote operation. Local operation relies on the touch button group 311 and LED display screen 312 of the display control board 31, allowing for intuitive viewing and adjustment of modes and temperatures. For short to medium distances, the infrared remote control 32 provides quick control. For longer distances or nighttime scenarios, the wireless wall-mounted remote control 33 eliminates the need to get up to operate, covering all household usage needs and offering far greater operational flexibility than traditional single controllers. Furthermore, existing heaters often rely on the device's own temperature probe, which is easily affected by its own heat, leading to significant deviations between the detected temperature and the actual ambient temperature. The wireless wall-mounted remote control 33, however, has a built-in temperature probe 41, installed closer to the human activity area (such as the center of the wall), enabling it to collect the actual ambient temperature. This data is prioritized for transmission to the main control unit 11, ensuring more accurate temperature control and preventing the problem of temperatures being met near the device but still cold at a distance, thus reducing temperature control errors and significantly improving heating comfort. Furthermore, the two limit switches 41 of the sensing module 4 accurately detect the highest / lowest position of the heating submodule 21: when heating is on, the heating element and fan are only activated after the heating submodule has dropped to the low position, avoiding the risk of heat concentration and burns caused by high-position heating; when heating is off, the system is only triggered to stop after the module has risen to the high position, preventing accidental activation or dust accumulation during standby. Simultaneously, the temperature probe 41 monitors the ambient temperature in real time and displays the temperature on the LED display screen 312 in conjunction with the main control unit 11. Thus, the interaction module 3 solves operation and temperature control issues through multiple terminals and precise temperature measurement; the sensing module 4 ensures safety and reliability through dual detection and signal linkage. Together, they enhance the overall user experience of the whole-house heating electric heater.

[0026] like Figure 3As shown, in one specific implementation, the LED display screen 312 is located in the middle, and multiple buttons of the touch button group 311 are distributed on both sides of the LED display screen 312. The touch button group 311 has a power button 101, a cooking button 102 for starting and stopping the cooking function module 5, a timer button 103 for setting the heating timer, a child lock button 104, a foot warmer button 105 for starting and stopping the local heating module 7, and a height adjustment button 106 for starting and stopping the height adjustment table function module 6. It is also equipped with an up button 107 and a down button 108. The cooking button can be pressed to adjust the level (e.g., level 1-5), and the table height can be manually adjusted by pressing the up / down button after pressing the height adjustment button. The touch button group 311 on the other side of the LED display screen 312 includes: an energy-saving button 109, a comfort button 110, a whole-house heating button 111, a heating button 112, a custom button 113, a front / rear heating switch button 114, and a temperature setting button 115. Specifically, pressing the heating button turns on heating. Users can press the energy-saving button to enter energy-saving mode, the comfort button to enter comfort mode, or the whole-house heating button to enter whole-house heating mode according to their needs. The front / rear heating switch button is used to cycle through three modes: front heating mode (e.g., only the first heating unit is activated), rear heating mode (e.g., only the second heating unit is activated), and front and rear fully activated mode (both heating units are activated). After pressing the heating button, pressing the custom button and then using the up and down buttons allows for manual adjustment of the heating level. The temperature setting button allows users to manually adjust the heating temperature using the up and down buttons.

[0027] Furthermore, the LED display screen 312 is divided into lifting indicator light areas 2 on the left and right sides. Specifically, when the table is raised, the indicator light scrolls upwards, and when the table is lowered, the indicator light scrolls downwards. The LED display screen 312 is provided with status display areas corresponding to each functional module, including a child lock indicator light area 201, a cooking indicator light area 202, a cooking level display area 203, a timer indicator light area 204, a timer display area 205, a temperature display area 206, a total heating power display area 207 (e.g., 3000 represents 3kW), a heating mode display area 208, and a custom indicator light area 209. Moreover, the LED display screen 312 generates and displays a planar graphic based on the shape and structure of the applied product, and sets corresponding front heating indicator light 210, rear heating indicator light 211, and foot warmer indicator light 212 in corresponding positions.

[0028] As described above, the control board 31 in this case features a reasonable button layout with the LED display screen centered. The buttons are distributed on both sides, allowing for more natural coordination between the user's line of sight and hand movements, reducing operational errors and improving efficiency. Through the integration of multiple function buttons, users can control multiple functional modules through a single interactive module, eliminating the need to switch between different devices or interfaces, making it convenient and fast. The mode switching button provides multiple modes to meet the user's needs in different scenarios, such as energy-saving mode suitable for long-term low-power operation, comfort mode providing a suitable temperature environment, whole-house heating mode for quickly raising the indoor temperature, and front / rear heating mode allowing selection of the heating direction according to actual needs. Multiple status display areas allow users to simultaneously obtain information on lifting status, temperature, heating mode, and function operation, providing a comprehensive understanding of the equipment's operating status. The running light display in the lifting indicator area visually shows the lifting process on the desktop, enhancing the user experience. By displaying a planar graphic adapted to the product structure and placing operation indicator lights in corresponding positions, users can clearly see the working status of each heating execution unit and local heating module, facilitating monitoring and maintenance.

[0029] Example 2 like Figure 5 As shown, a method for controlling a whole-house heating electric heater, applied to the whole-house heating electric heater control system described in Embodiment 1, includes the following steps: After the electric heater is powered on, the main control power board starts up and enters the initialization program, which then sequentially starts the temperature detection program, the timer control program, the lifting and heating control program, and the child lock program. Receive the power-on command input via keypad and execute the power-on process; S receives the function selection command input by the keypad and determines the function X to be executed; Determine the function corresponding to function X, and execute the corresponding function program: Determine if function X is a cooking function: if yes, start the cooking program; if no, proceed to the next step. Determine if function X is the foot warmer function: if yes, start the foot warmer program / local heating program; if no, proceed to the next step. Determine if function X is a timer function: if yes, enable the timer program to start working; if no, proceed to the next step. Determine if function X is a heating function: if yes, start the heating program; if no, proceed to the next step. Determine if function X is a desktop lifting function: if yes, start the desktop lifting program; if no, enter standby or end the process. Upon receiving a shutdown command input via keypad, the system will shut down and all programs will terminate.

[0030] As described above, the whole-house heating electric heater control method of Embodiment 2 integrates multiple functions such as cooking, foot warming, timer, heating, and table height adjustment, which can meet the diverse needs of users in different scenarios and provide a more comprehensive and convenient experience. Specifically, through a clear function judgment sequence (cooking, foot warming, timer, heating, table height adjustment), the main control system can quickly respond to the function selection commands input by the buttons. When the user operates, function switching and execution are more direct, reducing the probability of misoperation and improving ease of use. By sequentially starting the temperature detection, timer control, heating and height adjustment control, and child lock program after power-on, the initialization of the core functional modules is completed in advance, ensuring that each program can cooperate accurately in subsequent operation, reducing failures caused by program incompleteness, and improving system stability. Moreover, this invention covers multiple functions such as cooking, foot warming, heating, and table height adjustment, and each function starts the corresponding program through independent judgment logic. Users can flexibly select single or combined functions according to actual needs to meet the needs of heating, cooking, and table height adjustment in different scenarios throughout the house. Furthermore, the child lock program is activated during the initialization phase, providing safety protection from the initial power-on stage to prevent children from accidentally pressing buttons and causing abnormal function activation, thus improving the safety of device use. In addition, the method in this case forms a complete control loop, from power-on initialization, receiving instructions, function execution, to ending the process after receiving a power-off instruction. This ensures that the device has clear operating logic and state switching mechanisms at any stage of operation, avoiding program disorder or resource waste.

[0031] As a specific implementation method, the specific flow of each procedure is as follows: like Figure 6 As shown, the timing control program flow is as follows: S11. After powering on, the timer duration is initialized to P hours, which can be set to 3 hours. S12. During the 3-hour period, detect whether there is a key operation and an input value X1: If there is, determine whether X1 is a timer function command; if yes, receive the input timer duration t1 and set the timer duration to t1; if no, maintain the current timer duration or the preset default timer duration. S13. After the timed period ends, perform the shutdown operation.

[0032] In this way, the timer control program effectively solves the problems of users forgetting to shut down and idle power consumption by providing a dual mechanism that combines default timer and custom timer. The default timer function can automatically terminate long-term operation to ensure safety and energy saving, while the flexible custom timer allows users to accurately set the duration according to specific scenarios such as sleep or going out, realizing unattended automated management, which improves safety while taking into account ease of use and scenario adaptability.

[0033] like Figure 6 As shown, the child lock program includes the following process: S21. After power-on, all buttons are initially in a normal working state; S22. Detect whether there is any button operation within 15 seconds: if not, disable all buttons (except child lock button); S23. Detect whether the child lock button has been pressed and held for more than 3 seconds: If yes, all buttons are restored to their operable state, returning to their initial state (normal use); if not, the buttons remain disabled, and all buttons except the child lock button remain disabled. Thus, the child lock program employs an intelligent logic of automatic activation without operation and manual deactivation by pressing and holding a specific button, providing users with a protection solution that balances safety and convenience. It prevents accidental activation by children and adults, simplifies the unlocking process, and balances safety and convenience.

[0034] like Figure 7 As shown, the lifting and heating control program includes the following process: S31. After power-on, detect the current position of the heating submodule: S311. If the current position is a high bit, then perform the following operations: When a power-on and heating start command is received, the heating submodule is controlled to descend to activate the heating function; During the descent, monitor whether the heating submodule reaches the low position within a preset time; if so, stop the descent; if the time exceeds the preset time and the low position is not reached, report a fault; the preset time can be 15 seconds.

[0035] When a command to shut down or turn off the heating function is received, the heating submodule is controlled to rise from a low position; During the ascent, monitor whether the heating submodule reaches the high position within a preset time; if so, stop the ascent; if the time exceeds the preset time and the high position is not reached, report a fault. S312. If the current position is a low bit, then perform the following operation: Control the rise of the heating submodule; During the ascent, monitor whether the heating submodule reaches the high position within a preset time; if so, stop the ascent; if the time exceeds the preset time and the high position is not reached, report a fault.

[0036] As described above, the lifting and lowering heating control program achieves coordinated optimization of heating effect, safety of use, and space management by linking the lifting and lowering movement of the heating module with the start-stop logic; it makes full use of the principle of hot air rising by starting from a low position, and works with the fan to achieve uniform heating throughout the house; while the high-position storage and positioning detection and timeout protection during the movement process solve the risks of burns and motor stalling, while making the equipment compact in non-use periods, saving space and preventing dust and collisions.

[0037] like Figure 8As shown, the foot warming function program includes the following process: S41. After powering on and unlocking the child lock, the electric heating pad is driven at the rated power according to the command input when the foot warmer button is pressed. For example, if the user presses the foot warmer button, the electric heating pad is driven at the rated power. S42. Upon receiving the instruction that the foot warmer button has been pressed again, if the user presses the foot warmer button again, the foot warmer function is turned off. In this way, the foot warmer function program provides a targeted localized heating solution that can quickly compensate for heat in localized areas of the body, such as the feet in this case. Together with the main heating mode, it constructs a three-dimensional temperature control system that combines global comfort with localized enhancement, significantly improving the user's ultimate physical comfort in work and life scenarios such as sitting or working at a desk.

[0038] like Figure 8 As shown, the desktop lifting function program includes: S51. After powering on and unlocking the child lock, the user presses the lift button. Based on the instruction input by pressing the lift button, the system detects whether there is a button operation and whether there is an input value X2. S52. Determine if X2 is an up command (e.g., adjust +), that is, determine if the user has pressed the up button: if yes, control the desktop to rise, and check if it has risen to the highest point: if yes, stop raising or lowering; if no, continue raising. S53. If X2 is not an upward command (such as adjustment +), determine whether it is a downward command (such as adjustment -), that is, determine whether the user has pressed the downward button: if yes, control the desktop to lower, and check whether it has lowered to the bottom: if yes, stop raising or lowering; if no, continue lowering. S54. Upon receiving the input command from the lifting button again, the lifting operation is stopped. In this way, the desktop lifting function program upgrades the electric heater from a single heating device to a height-adjustable desk; through motor drive, the height of the desktop is adjusted, which can flexibly adapt to the needs of users in various postures and scenarios such as standing office, children studying, and entertainment and leisure, thereby improving market competitiveness and realizing the integration of heating, studying, and working.

[0039] like Figure 9 As shown, the cooking function control program includes the following process: S61. Receive the start command input from the cooking button, start the cooking function, and set the gear value D according to the up and down buttons; S62. Determine if D is 1: If yes, operate the induction cooker at the first level of rated power; if no, determine if D is 2: If yes, operate the induction cooker at the second level of rated power; if no, determine if D is 3: If yes, operate the induction cooker at the third level of rated power; if no, determine if D is 4: If yes, operate the induction cooker at the fourth level of rated power; if no, determine if D is 5: If yes, operate the induction cooker at rated power; if no or no input, default to operating the induction cooker at rated power. S63. Press and hold the cooking button to turn off the cooking function; wherein the first-level rated power, second-level rated power, third-level rated power, and fourth-level rated power are set in percentage increments and are all less than the rated power. In specific implementation, the first-level rated power, second-level rated power, third-level rated power, and fourth-level rated power are 20% of the rated power, 40% of the rated power, 60% of the rated power, and 80% of the rated power, respectively.

[0040] As described above, the cooking function control program successfully integrates cooking functions into heating equipment, further expanding the living functions of heaters using this method; users can enjoy warmth throughout the house while preparing simple meals such as boiling water and brewing tea, achieving a dual improvement in space utilization and equipment functionality, enhancing the user's home convenience and quality of life.

[0041] like Figure 10 As shown, the heating function control program is as follows: The heating function control program includes the following process: S71. The heating function is activated according to the instruction input by the heating button, and the heating mode M is obtained according to the input instruction of the function button; in specific implementation, if the user presses the function button corresponding to a certain mode, the corresponding heating mode input instruction is generated. S72. If no command is input within the preset time, the whole house heating mode will be turned on by default: the two sets of heating actuators will be driven with rated power and the two fans will be driven with rated voltage. S73. If an input command is received within a preset time and heating mode M is obtained, determine whether M is an energy-saving mode: If so, the two sets of heating actuators are driven with the first proportional rated power, and the two fans are driven with the first level proportional rated voltage; wherein, the first proportional rated power is 2% of the rated power, and the first level proportional rated voltage is 60% of the rated voltage.

[0042] If not, further determine whether M is in comfort mode: If so, the two sets of heating actuators are driven with the second proportional rated power, and the two fans are driven with the second level proportional rated voltage; wherein, the second proportional rated power is 50% of the rated power, and the second level proportional rated voltage is 80% of the rated voltage.

[0043] If not, determine whether M is in whole-house heating mode: if so, drive two sets of heating actuators with rated power and drive two fans with rated voltage; If not, determine if M is a custom mode: If so, divide the power of the two sets of heating elements into N levels, set the level according to the input command of the up and down buttons, and select one or two sets of heating execution units according to the input command of the front / back buttons. S74. If a temperature setting command X3 is input during operation in the above mode, adjust the temperature value to T2 according to the X3 input, and perform room temperature detection: If the room temperature is greater than T2 and the stabilization time is greater than or equal to the preset time, the heating element and the fan will be turned off. The preset time is usually 3 minutes. If the difference between the room temperature and T2 is greater than the preset temperature difference, the heating element and the fan will return to their original working mode. The preset temperature difference is usually 3℃.

[0044] S75. During heating operation, if the input command for the heating button is received again, and it is detected that the button is pressed for a duration greater than the preset time (e.g., 2 seconds), the heating function is turned off.

[0045] As mentioned above, the heating function control program provides multiple working modes such as energy saving, comfort, whole-house heating, and customization, and can automatically adjust the operating status according to the ambient temperature. This achieves a leap from passive heating with fixed settings or scenarios to flexible and customizable active constant temperature. The control method in this case enables the product to build a multi-mode, adaptive, and customizable intelligent temperature control controller or control system, which not only ensures the best physical comfort for users under different usage needs, but also significantly improves energy efficiency through the logic of on-demand heating.

[0046] In a preferred embodiment, the wireless pairing procedure includes the following steps: S81. When the heater is powered on, the child lock is released and the heater is in standby mode, press and hold the designated button on the display control panel to enter the pairing mode. This mode lasts for a preset time. In practice, pairing can be achieved through code matching. For example, press and hold the cooking button on the display control panel for 5 seconds until the code matching mark appears on the LED display, which means that the heater where the display control panel is located has entered the code matching mode. S82. After the wireless wall-mounted remote control is powered on, in offline or standby mode, press and hold the designated button to enter the pairing mode. This mode lasts for a preset time. In practice, pairing can be achieved by using a pairing code. For example, press and hold the up button for 5 seconds until the remote control display flashes on and off, indicating that it has entered the network pairing mode.

[0047] S83. When both the heater and the wireless wall-mounted remote control are in pairing mode, the connection and pairing will be completed automatically. After successful pairing, the wireless wall-mounted remote control can control the heater. If pairing fails, steps S81-S82 will be repeated after power is off. In specific implementation, based on step S81 above, when both the heater and the wireless wall-mounted remote control are in pairing mode, they will connect and pair. For example, the disappearance of "Offline" on the wireless wall-mounted remote control's display indicates that pairing is complete. In this way, the wireless pairing process establishes a stable and reliable communication connection between the host and the remote control, so as to facilitate convenient remote control. This process also ensures the accurate transmission of remote control commands, so that the temperature probe built into the remote control can be kept away from the device's own heat source and collect ambient temperature data that is more representative of the actual human activity area, thus providing key and reliable data for the precise constant temperature control of the entire system.

[0048] As a preferred embodiment, the APP network control program includes the following process: S91. Install the mobile app and log in; S92. Power on the wireless remote control and press and hold the designated button to enter the network pairing mode. This mode lasts for a preset time. S93. Search for nearby devices using the mobile app, select the target device and enter the network information; S94. Wait for the device to be added completely, then enter the APP control interface. You can remotely control the device to turn it on / off, switch modes, adjust the temperature, and set a timer via the APP.

[0049] In this way, the APP network control program expands the way the device is controlled, allowing users to control the heater anytime and anywhere via their mobile phones, without being limited to the vicinity of the device, thus improving the convenience and intelligence of use and adapting to the smart living needs of modern families.

[0050] Example 3 like Figure 11 As shown, this case discloses a control system that may include: Memory 601 storing executable program code; Processor 602 coupled to memory 601; Specifically, the processor 602 calls the executable program code stored in the memory 601 and executes it. Figure 1 The aforementioned method for controlling a whole-house heated electric heater.

[0051] This invention discloses a computer-readable storage medium storing a computer program, wherein the computer program causes a computer to execute... Figure 1 A method for controlling a whole-house heated electric heater.

[0052] This invention also discloses a computer program product, wherein when the computer program product is run on a computer, the computer performs some or all of the steps of the methods described in the above method embodiments.

[0053] Those skilled in the art will understand that all or part of the steps in the various methods of the above embodiments can be implemented by a program instructing related hardware. The program can be stored in a computer-readable storage medium, including read-only memory (ROM), random access memory (RAM), programmable read-only memory (PROM), erasable programmable read-only memory (EPROM), one-time programmable read-only memory (OTPROM), electrically erasable programmable read-only memory (EEPROM), compact disc read-only memory (CD-ROM) or other optical disc storage, disk storage, magnetic tape storage, or any other computer-readable medium capable of carrying or storing data.

[0054] In summary, this invention discloses a control method and system for a whole-house heating electric heater, belonging to the technical field of electric heating equipment. The control system includes a main control power board, a lifting and lowering heating execution module, an interaction module, and a sensing module, and also integrates cooking, lifting table, and localized heating modules. The main control unit connects to each module, driving the dual heating execution units to operate independently / coordinatedly, and adjusting the heating position through the lifting and lowering drive submodule. The control method includes initialization, function selection, and operation control flow, with supporting subroutines for timing, child lock, and constant temperature control. This invention achieves multi-functional integration of whole-house heating, localized heating, cooking, and lifting table functions, offering flexible operation, safety, and energy efficiency, adapting to heating needs in various scenarios such as homes and offices. Thus, it solves the problems of existing heaters having limited functionality, poor control flexibility, and insufficient safety protection.

[0055] The above provides a detailed description of a whole-house heating electric heater control system and its control method disclosed in the embodiments of the present invention. Specific examples have been used to illustrate the principles and implementation methods of the present invention. The description of the above embodiments is only for the purpose of helping to understand the method and core ideas of the present invention. 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 the present invention. Therefore, the content of this specification should not be construed as a limitation of the present invention.

Claims

1. A whole-house heating electric heater control system, characterized in that, Includes: main control power board (1), lifting and heating execution module (2), interaction module (3), and sensing module (4); the main control power board (1) includes a main control unit (11) and a power supply unit (12); the power supply unit (12) is connected to the mains power at the input end and provides an adaptation voltage for each module at the output end; The main control unit (11) has a built-in microcontroller that is electrically connected to the power supply unit (12), the lifting and heating execution module (2), the interaction module (3) and the sensing module (4) respectively, and is used to receive input signals and output control commands. The lifting and heating execution module (2) includes: a heating sub-module (21) and a heating lifting drive sub-module (22) that drives the heating sub-module (21) to lift and lower. The heating sub-module (21) is driven by the main control unit (11) to realize power regulation. The interaction module (3) is used to receive user commands and provide feedback on device status; The sensing module (4) is used to collect ambient temperature signals and transmit them to the main control unit (11).

2. The whole-house heating electric heater control system according to claim 1, characterized in that, It also includes: a cooking function module (5), a height-adjustable table function module (6), and a local heating module (7), which are electrically connected to the main control power board (1). The cooking function module (5) includes an induction cooker (51), the lifting table function module (6) includes a table lifting motor (61) for driving table height adjustment, and the local heating module (7) includes an electric heating pad (71). The induction cooker (51), the table lifting motor (61), and the electric heating pad (71) are electrically connected to the main control power board (1). The heating submodule (21) includes at least a first heating execution unit (211) and a second heating execution unit (212) that are electrically connected to the main control power board (1). The first heating execution unit (211) includes a first heating element (2111) and a first fan (2112). The second heating execution unit (212) includes a second heating element (2121) and a second fan (2122). The two sets of heating execution units are symmetrically distributed and electrically connected to the main control unit (11), and can operate independently or collaboratively.

3. The whole-house heating electric heater control system according to claim 1 or 2, characterized in that, The heating and lifting drive submodule (22) includes a first lifting motor (221) that drives the heating submodule (21) to lift; the sensing module (4) includes a limit switch (42) for detecting the highest / lowest position of the heating submodule (21) and feeding it back to the main control unit (11). The interactive module (3) includes a display control board (31), an infrared remote controller (32), a wireless wall-mounted remote controller (33), and a mobile APP control module (34). The wireless wall-mounted remote controller (33) has a built-in temperature probe (41) and supports network pairing. The mobile APP control module (34) supports remote control and parameter setting. The display control board (31) is equipped with a touch button group (311) and an LED display screen (312). The sensing module (4) includes the temperature probe (41) and the limit switch (42).

4. The whole-house heating electric heater control system according to claim 1 or 2, characterized in that, In the display control board (31) of the interactive module (3), the LED display screen (312) is located in the middle, and multiple buttons of the touch button group (311) are distributed on both sides of the LED display screen (312); the touch button group (311) includes function buttons for controlling the cooking function module (5), the local heating module (7), the lifting table function module (6) and the lifting heating execution module (2), up and down adjustment buttons for parameter and gear adjustment, child lock button and power button; the function buttons include at least the cooking button, foot warmer button, lifting button, heating button, energy saving button, comfort button, whole house heating button, custom button, front / rear heating switch button and temperature setting button; The LED display screen (312) is provided with status display areas corresponding to each functional module, including: lifting indicator area, child lock indicator area, cooking indicator area, cooking gear display area, timer indicator area, timer display area, temperature display area, total heating power display area, heating mode display area, and custom indicator area; the lifting indicator area displays different forms of running lights when the table is raised or lowered, and the LED display screen (312) also displays a planar graphic adapted to the product structure, and provides operation indicator lights corresponding to the heating execution unit and local heating module at the corresponding positions of the graphic.

5. A method for controlling a whole-house heated electric heater, using the control system described in any one of claims 1-4, characterized in that, Includes the following steps: After the electric heater is powered on, the main control power board starts up and enters the initialization program, which then sequentially starts the temperature detection program, the timer control program, the lifting and heating control program, and the child lock program. Receive the power-on command input via keypad and execute the power-on process; Receive function selection instructions from key input, determine the function to be executed X, match the function to be executed X with preset functions, and execute the corresponding function program if the match is successful. The functional program includes at least: a cooking program, a local heating program, a timer program, a heating program, and a tabletop lifting program; After receiving the power-off command input via keypad, it executes the shutdown procedure.

6. The whole-house heating electric heater control method according to claim 5, characterized in that, The timing control program includes the following steps: S11. After powering on, the timer duration is initialized to P hours; S12. During hour P, detect if there is a key operation and an input value X1: if so, determine if X1 is a timer function command; if yes, receive the input timer duration t1 and set the timer duration to t1; if no, maintain the current timer duration or the preset default timer duration. S13. After the timed period ends, control the heater to enter the off state; The child lock program includes the following steps: S21. After power-on, all buttons are initially in a normal working state. S22. Detect whether there is any key operation within a preset time: if not, disable all keys except the child lock key; S23. Check if the child lock button has been pressed and held for a period of time greater than or equal to the preset time: if yes, all buttons are restored to the operable state and return to the initial state of the buttons; if no, the disabled state is maintained. The heating and cooling control program includes the following steps: S31. After power-on, detect the current position of the heating submodule: S311. If the current position is a high bit, then perform the following operations: When a power-on and heating start command is received, the heating submodule is controlled to descend to activate the heating function; During the descent process, monitor whether the heating submodule reaches the low position within a preset time. If so, the descent will stop; if the time taken exceeds the preset time and the low position is not reached, a fault will be reported. When a command to shut down or turn off the heating function is received, the heating submodule is controlled to rise from a low position; During the ascent, monitor whether the heating submodule reaches the high position within a preset time; if so, stop the ascent; if the time exceeds the preset time and the high position is not reached, report a fault. S312. If the current position is a low bit, then perform the following operation: Control the rise of the heating submodule; During the ascent, monitor whether the heating submodule reaches the high position within a preset time; if so, stop the ascent; if the time exceeds the preset time and the high position is not reached, report a fault.

7. The whole-house heating electric heater control method according to claim 5, characterized in that, The localized heating program is a foot warming function program, which includes the following process: S41. After powering on and unlocking the child lock, the electric heating pad is driven at rated power according to the command input when the foot warmer button is pressed. S42. Upon receiving the instruction that the foot warmer button has been pressed again, turn off the foot warmer function; The desktop lifting function program includes: S51. After powering on and unlocking the child lock, based on the instruction input by pressing the lift button, detect whether there is a button operation and whether there is an input value X2. S52. Determine if X2 is an upward command: If yes, control the desktop to rise and check if it has reached the highest level: If yes, stop raising or lowering; if no, continue raising. S53. If X2 is not an upward command, determine if it is a downward command: if yes, control the desktop to lower and check if it has reached the bottom: if yes, stop raising or lowering; if no, continue lowering. S54. Receive the input command from the lifting button again and stop the lifting operation.

8. The whole-house heating electric heater control method according to claim 5, characterized in that, The cooking function control program includes the following process: S61. Receive the start command input from the cooking button, start the cooking function, and set the gear value D according to the up and down buttons; S62. Determine if D is 1: If yes, operate the induction cooker at the first level of rated power; if no, determine if D is 2: If yes, operate the induction cooker at the second level of rated power; if no, determine if D is 3: If yes, operate the induction cooker at the third level of rated power; if no, determine if D is 4: If yes, operate the induction cooker at the fourth level of rated power; if no, determine if D is 5: If yes, operate the induction cooker at rated power; if no or no input, default to operating the induction cooker at rated power. S63. Press and hold the cooking button to turn off the cooking function; wherein the first level rated power, the second level rated power, the third level rated power, and the fourth level rated power are set in percentage increments and are all less than the rated power.

9. The whole-house heating electric heater control method according to claim 5, characterized in that, The heating function control program includes the following process: S71. Activate the heating function according to the command input on the heating button, and obtain the heating mode M according to the command input on the function button. S72. If no command is input within the preset time, the whole house heating mode will be turned on by default: the two sets of heating actuators will be driven with rated power and the two fans will be driven with rated voltage. S73. If an input command is received within the preset time and heating mode M is obtained, determine whether M is an energy-saving mode: if yes, drive two sets of heating execution units with the first ratio of rated power and drive two fans with the first level of rated voltage; if no, determine whether M is a comfort mode: if yes, drive two sets of heating execution units with the second ratio of rated power and drive two fans with the second level of rated voltage; if no, determine whether M is a whole-house heating mode: if yes, drive two sets of heating execution units with rated power and drive two fans with rated voltage; if no, determine whether M is a custom mode: if yes, divide the power of the two sets of heating elements into N levels, set the level according to the input command of the up and down buttons, and select the switch corresponding to one or two sets of heating execution units according to the input command of the front / back buttons. S74. If a temperature setting command X3 is input during the operation of the above mode, adjust the temperature value to T2 according to the input X3, and perform room temperature detection: if the room temperature is greater than T2 and the duration is greater than or equal to the preset time, turn off the heating element and turn off the fan; if the difference between the room temperature and T2 is greater than the preset temperature difference, the heating element and fan will return to the original working mode. S75. If, during heating operation, the heating button input command is received again, and it is detected that the button has been pressed for a duration greater than the preset time, the heating function is turned off.

10. The method for controlling a whole-house heated electric heater according to any one of claims 5-9, characterized in that, The functional program also includes: a wireless pairing program and an APP network control program; The wireless pairing procedure includes: after unlocking the child lock and going into standby mode, press and hold the designated button on the display control panel (31) to enter the pairing mode; the wireless wall-mounted remote control goes into pairing mode by pressing and holding the designated button in offline or standby mode, and wireless control is achieved after the two are successfully paired. The APP network control program includes: the wireless remote control presses and holds a designated button to enter the network configuration mode, the mobile APP searches for the device and enters the network information to complete the network connection, and the mobile APP can remotely control the device to start and stop, switch modes and adjust parameters.

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