Omnidirectional tower type warmer

Abstract

The invention belongs to the technical field of heating equipment, and particularly relates to an omni-directional tower type heater which is used for displaying the current state, temperature setting and operation mode information of the heater through a man-machine interaction module; the sensor module comprises a temperature sensor, monitors the environment temperature in real time and feeds back the environment temperature to the system for intelligent adjustment; the motion sensor is used for detecting whether a person moves in a room so as to determine whether to turn on or turn off the warmer; the control module comprises a microcontroller and is responsible for processing sensor data, executing a user instruction and adjusting heating power; the communication module is convenient for a user to carry out remote control through a mobile phone APP or a smart home system; the intelligent adjusting module comprises a temperature control algorithm and is used for intelligently adjusting the heating power of the warmer according to the real-time temperature data; a user sets a timing switch, the system automatically controls the working state of the warmer according to the preset time, and the effects that man-machine interaction management is conducted on the warmer, and the warmer can be regulated, controlled and supervised in a palm mode in real time are achieved.

Description

Technical Field

[0001] The invention relates to the technical field of heating equipment, in particular to an omnidirectional tower heater. Background Art

[0002] At present, as people's requirements for their living environment continue to increase, using heaters in cold seasons has become a living habit, especially tower heaters, which include air vents opened on the main body, a wind wheel arranged in the main body, and a heating element.

[0003] The tower-type intelligent heater is a device that uses electricity as energy for heating. It is widely used in various civil and public buildings because of its strong radiation capacity, resource saving, and low cost. However, the existing tower-type intelligent heater has only one tower-type heating element. When it is in a house with a larger space, the radiation capacity is insufficient, resulting in poor heating effect. In addition, the heating speed of the single-tower intelligent heater is not fast enough to meet the needs of use in a large space. In order to improve the ornamental value of the heater, a simulated carbon fire electric heater in the prior art is provided with simulated carbon, a luminous body and a reflective sheet at the lower part of the main body. The reflective sheet is driven to rotate by a motor to reflect the light of the luminous body, and the simulated fire effect is achieved by the simulated carbon. Although this heater can improve the ornamental value of use, it does not have a humidification function, and it is difficult to make up for the defect of dry air when using the heater. In addition, the simulated flame effect is limited to the lower part of the main body due to the internal space of the main body, and the use experience is not good. In view of the above-mentioned technical defects, an omnidirectional tower heater solution is now proposed. Summary of the invention

[0004] In order to solve the above problems, the present invention provides the following technical solutions: an omnidirectional tower heater, a body and a control system, the body is used for heating, and the control system includes: The human-computer interaction module includes a display screen for displaying the current status of the heater, temperature setting, and operating mode information; a touch screen or a key panel, through which the user can make various settings, such as temperature adjustment, mode selection, and timer switch; and voice control, through which the user can use voice commands to control the switch and temperature adjustment functions of the heater through voice recognition technology; The sensor module includes a temperature sensor that monitors the ambient temperature in real time and feeds back to the system for intelligent adjustment; a humidity sensor that monitors the air humidity and adjusts it accordingly; and a motion sensor that detects whether there is human activity in the room, thereby deciding whether to turn the heater on or off. The control module, including the microcontroller, is responsible for processing sensor data, executing user instructions, and adjusting the heating power; the heating element control adjusts the output power of the heating element to achieve the set temperature; Communication modules, including Wi-Fi / Bluetooth modules, are used to connect to smartphones or other smart devices, allowing users to remotely control them through mobile apps or smart home systems; Zigbee / Z-Wave modules are used to connect to other smart home devices to achieve a smarter home ecosystem; Intelligent adjustment module, including temperature control algorithm, intelligently adjusts the heating power of the heater according to real-time temperature data and user settings; energy-saving mode, through intelligent algorithm, saves energy consumption while ensuring comfort; timing function, users can set the timer to turn on and off, and the system automatically controls the working state of the heater according to the preset time; The safety protection module includes overheat protection, which automatically cuts off the power when the temperature exceeds the safe range; tipping protection, which automatically cuts off the power when the heater tips over to prevent fire safety hazards; and voltage overload protection, which prevents voltage fluctuations from damaging the heater.

[0005] Furthermore, the human-computer interaction module includes: Display unit, including LED / LCD display, used to display current temperature, operating mode, and timing setting information; backlight control, automatically adjusts the brightness of the screen according to changes in ambient light to ensure readability under different lighting conditions; An input control unit, including a touch screen, through which the user can adjust the temperature, select the mode, and set the timer. The touch screen may be capacitive or resistive. A key panel, including physical keys or touch keys, is used to control the various functions of the heater. A remote control is remotely controlled through infrared or radio waves, and the user can adjust the settings of the heater within a certain distance. Voice control unit, including voice recognition, through the integrated microphone and voice recognition chip, users use voice commands to control the heater's on / off, temperature adjustment, and mode switching functions; wake-up word detection, enters voice control mode after recognizing a specific wake-up word, ensuring timely response to user voice commands when needed; Feedback unit, including sound prompt, the heater provides sound feedback through buzzer or speaker, such as key tone, prompt tone, to enhance the feedback sense of user operation; vibration feedback, the touch screen or key panel provides vibration feedback to increase the tactile feedback of user operation; The connection and communication unit, including Wi-Fi / Bluetooth, enables connection with a smartphone or tablet, allowing users to remotely control the heater and view the operating status through the APP on the mobile device; the APP interface provides an intuitive user interface, allowing users to make various settings and view the device status through the APP.

[0006] Furthermore, the sensor module includes: Ambient temperature sensor: used to detect the real-time temperature in the room and feed the data back to the control system to adjust the heating power and maintain the set temperature; Heating element temperature sensor: monitors the temperature of the heating element to prevent overheating and ensure safe operation; Air humidity sensor: detects the humidity level in the room and adjusts the heating power or starts the humidification function according to the humidity data to maintain a comfortable indoor environment; Infrared motion sensor: detects whether there is human activity in the room. When no one is in the room, the system automatically reduces the heating power or enters standby mode to save energy; Ambient light sensor: detects the light intensity in the room and adjusts the brightness of the display or activates / deactivates night mode according to the light conditions; Carbon dioxide sensor: detects indoor carbon dioxide concentration, which helps to understand air quality. Some devices are linked to air purifiers; Volatile organic compound sensor: monitors harmful gases in indoor air to help protect health; Acceleration sensor: used to detect whether the heater has fallen over. When the device falls over, the power is automatically cut off to prevent fire safety hazards; Current monitoring sensor: monitors the working current of the heater in real time to prevent damage caused by current overload and ensure safe operation of the equipment; Smoke detectors: Detect smoke in the air. When smoke is detected, the system sounds an alarm and automatically turns off the heater to prevent a fire.

[0007] Furthermore, the intelligent adjustment module includes: Temperature adjustment unit, including automatic temperature control, automatically adjusts heating power to maintain the comfortable temperature set by the user based on the data of the ambient temperature sensor; fast heating and constant temperature mode, providing multiple heating modes, such as fast heating mode and constant temperature holding mode, which can be flexibly selected according to needs; The humidity adjustment unit includes humidity maintenance, which starts or stops the humidification function based on the data of the humidity sensor to maintain a suitable humidity level indoors; a dry mode, which adjusts the heating method to assist in reducing the humidity in an environment with high humidity; Motion detection and adjustment unit, including intelligent sensing, which detects human activities in the room through infrared motion sensors and intelligently adjusts the working state of the heater. When no one is active for a long time, the heater will be in low-power standby or shut down to save energy; automatic wake-up, when human activities are detected, the preset temperature and heating mode will be automatically restored; Time control unit, including timed on / off, users can preset the on / off time of the device to realize automatic operation and reduce unnecessary energy consumption; energy-saving mode, automatically enters low power consumption mode at night or in certain time periods to reduce energy consumption; Remote control and feedback unit, including smart home integration, through Wi-Fi or Bluetooth unit, the device is connected to the smart home system, and remote control and status query are realized through mobile phone APP or voice assistant; cloud feedback and optimization, based on cloud big data and AI algorithm, optimize the device operation strategy and provide personalized usage suggestions; The learning and adaptation unit includes user habit learning, which automatically adjusts device settings to match user preferences by recording and analyzing user operating habits and environmental changes; and environmental adaptability adjustment, which dynamically adjusts the device's working mode and power output according to changes in the environment.

[0008] Furthermore, the security protection module includes: Overheat protection module, including temperature monitoring, real-time monitoring of the temperature of the heating element and the environment, automatically reducing the heating power or shutting down the heater when the temperature exceeds the safety threshold; automatic power-off, immediately cutting off the power supply when an abnormal temperature rise is detected to prevent overheating and fire; The tipping protection module includes a tipping sensor. When the heater tips over or tilts at a large angle, the power supply and heating element are immediately turned off. After the device returns to normal, the user is reminded through a prompt sound or display screen that the device has tipped over. Short-circuit protection module, including current monitoring, real-time monitoring of equipment current, when abnormal current is detected, rapid power cut-off and triggering of alarm; automatic reset, after troubleshooting, restore the normal working state of the equipment manually or automatically; Overload protection module, including power monitoring, monitoring the total power output of the equipment, automatically adjusting or shutting down some heating elements to avoid overload when the power exceeds the safety threshold; circuit breaker, equipped with built-in or external circuit breaker, cuts off the power supply in overload condition to prevent circuit damage; Voltage protection module, including overvoltage protection, when it detects that the input voltage exceeds the safe range, the device automatically cuts off the power supply or adjusts the internal circuit to prevent damage; undervoltage protection, when the input voltage is too low, the device will enter the protection mode to avoid device instability or damage caused by low voltage; Intelligent fault diagnosis and alarm module, including self-check function, the equipment performs self-check during startup and operation, automatically reports and records fault information when a fault is found; alarm system, when a fault or safety risk occurs, the user is notified through sound, display or remote control to ensure timely processing; The power-off protection module includes data preservation. In the event of a sudden power outage, the device saves the current working status and user settings, and automatically restores to the state before the power outage after power is restored; automatic restart. After the power is restored, the device decides whether to restart automatically based on the preset security policy.

[0009] Furthermore, the safety protection includes a PID control algorithm, which accurately adjusts the output power of the heater through proportional, integral and differential control to prevent the temperature from being too high or too low; including building a PID algorithm to adjust the controller in real time, as follows: ;in, is the controller output, is the proportionality coefficient, is the integration coefficient, is the differential coefficient, is the proportional output, is the integral output, It is the differential output.

[0010] Furthermore, the safety protection includes collecting and analyzing the data of the heater, and judging the working progress of the heater according to the trend of the data through data collection and analysis. The data analysis preprocessing includes data visualization, building a data discrete model based on the data collected by the data acquisition system and performing visual analysis, including ;in, represents the probability that database i selects dataset k, The decision utility value of selecting dataset k for database i, The random utility of selecting dataset k for dataset i, The decision utility value of selecting dataset j for database i, is the cumulative distribution function, is the initial distribution function.

[0011] Furthermore, the control system includes collecting ambient temperature data through a temperature sensor, removing noise using a digital filter, and processing the collected data. The calculation formula is as follows: ,in, is the current filtered temperature, is the temperature value at the past n time points.

[0012] Furthermore, the control system records historical data of temperature, current, and voltage parameters, and identifies potential safety hazards through data analysis. The data processing formula is as follows: ,in, is the standard deviation of the database data, is the data average, The data value for each point.

[0013] Compared with the prior art, the beneficial effects of the present invention are as follows: 1. In an omnidirectional tower heater of the present invention, the machine cover is used to connect the various components; the heating component is arranged in the machine cover, and the heating component is used to output hot air and provide heating; the exhaust component is arranged on the machine cover, and the exhaust component is connected to the heating component, and the exhaust component is used to discharge hot air at multiple angles and provide heating; the control system, the control system is connected to the heating component and the exhaust component, and the control system is used to intelligently monitor the heater and control the brake of the heater to monitor the working process of the heater, which has the effect of intelligently monitoring the heater; 2. In an omnidirectional tower heater of the present invention, a human-computer interaction module is used to display the current status of the heater, temperature setting, and operating mode information; the sensor module includes a temperature sensor, which monitors the ambient temperature in real time and feeds back to the system for intelligent adjustment; a motion sensor detects whether there is human activity in the room, so as to decide whether to turn the heater on or off; a control module includes a microcontroller, which is responsible for processing sensor data, executing user instructions, and adjusting the heating power; a communication module is convenient for users to remotely control the heater through a mobile phone APP or a smart home system; an intelligent adjustment module includes a temperature control algorithm, which intelligently adjusts the heating power of the heater according to real-time temperature data and user settings; the user sets the timer to turn on and off the machine, and the system automatically controls the working status of the heater according to the preset time, which has the effect of human-computer interaction management of the heater and can regulate and supervise the heater in real time on the palm of your hand. BRIEF DESCRIPTION OF THE DRAWINGS

[0014] In order to facilitate understanding by those skilled in the art, the present invention is further described below in conjunction with the accompanying drawings; Figure 1 It is a schematic diagram of the overall structure of an omnidirectional tower heater of the present invention; Figure 2 It is a schematic cross-sectional view of the central axis of an omnidirectional tower heater of the present invention; Figure 3 It is a cross-sectional schematic diagram of a rotating shaft in an omnidirectional tower heater of the present invention; Figure 4 It is a schematic diagram of the framework of a control system in an omnidirectional tower heater of the present invention; Figure 5 The present invention is a schematic diagram of the framework of a human-computer interaction module in an omnidirectional tower heater.

[0015] Figure numerals: 1, machine cover; 2, heating component; 21, heating tube; 22, heating net; 23, blower; 3, exhaust component; 31, rotating shaft; 32, fan blade; 33, stepping motor. DETAILED DESCRIPTION

[0016] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0017] like Figure 1-5 As shown, an omnidirectional tower heater includes: a machine cover 1, which is used to connect various components; a heating component 2, which is arranged in the machine cover 1, and is used to output hot air and provide heating; an exhaust component 3, which is arranged on the machine cover 1, and is connected to the heating component 2, and is used to discharge hot air at multiple angles and provide heating; a control system, which is connected to the heating component 2 and the exhaust component 3, and is used to perform intelligent supervision on the heater and control the braking of the heater to supervise the working progress of the heater.

[0018] Specifically, the heating assembly 2 includes a heating tube 21, a heating net 22 and a blower 23. The heating tube 21 is arranged in the cover 1. The heating net 22 is arranged along the outer side of the heating tube 21 and is located in the cover 1. The blower 23 is arranged along the base of the cover 1. The blower 23 is used to blow the air heated by the heating net 22 and provide heating. The exhaust assembly 3 includes a rotating shaft 31, a fan blade 32 and a stepper motor 33. The rotating shaft 31 is rotatably connected to the open end of the cover 1. The fan blade 32 is arranged along the rotating shaft 31. The stepper motor 33 is arranged on the cover 1. The output shaft of the stepper motor 33 is coaxially fixed with the rotating shaft 31. A humidifier is arranged at the open end of the cover 1. When heating is not required, the blower 23 is connected to the humidifier to perform environmental humidification.

[0019] Specifically, the control system includes: The human-computer interaction module includes a display screen for displaying the current status of the heater, temperature setting, and operating mode information; a touch screen or a key panel, through which the user can make various settings, such as temperature adjustment, mode selection, and timer switch; and voice control, through which the user can use voice commands to control the switch and temperature adjustment functions of the heater through voice recognition technology; The sensor module includes a temperature sensor that monitors the ambient temperature in real time and feeds back to the system for intelligent adjustment; a humidity sensor that monitors the air humidity and adjusts it accordingly; and a motion sensor that detects whether there is human activity in the room, thereby deciding whether to turn the heater on or off. The control module, including the microcontroller, is responsible for processing sensor data, executing user instructions, and adjusting the heating power; the heating element control adjusts the output power of the heating element to achieve the set temperature; Communication modules, including Wi-Fi / Bluetooth modules, are used to connect to smartphones or other smart devices, allowing users to remotely control them through mobile apps or smart home systems; Zigbee / Z-Wave modules are used to connect to other smart home devices to achieve a smarter home ecosystem; Intelligent adjustment module, including temperature control algorithm, intelligently adjusts the heating power of the heater according to real-time temperature data and user settings; energy-saving mode, through intelligent algorithm, saves energy consumption while ensuring comfort; timing function, users can set the timer to turn on and off, and the system automatically controls the working state of the heater according to the preset time; The safety protection module includes overheat protection, which automatically cuts off the power when the temperature exceeds the safe range; tipping protection, which automatically cuts off the power when the heater tips over to prevent fire safety hazards; and voltage overload protection, which prevents voltage fluctuations from damaging the heater.

[0020] Specifically, the human-computer interaction module includes: Display unit, including LED / LCD display, used to display current temperature, operating mode, and timing setting information; backlight control, automatically adjusts the brightness of the screen according to changes in ambient light to ensure readability under different lighting conditions; An input control unit, including a touch screen, through which the user can adjust the temperature, select the mode, and set the timer. The touch screen may be capacitive or resistive. A key panel, including physical keys or touch keys, is used to control the various functions of the heater. A remote control is remotely controlled through infrared or radio waves, and the user can adjust the settings of the heater within a certain distance. Voice control unit, including voice recognition, through the integrated microphone and voice recognition chip, users use voice commands to control the heater's on / off, temperature adjustment, and mode switching functions; wake-up word detection, enters voice control mode after recognizing a specific wake-up word, ensuring timely response to user voice commands when needed; Feedback unit, including sound prompt, the heater provides sound feedback through buzzer or speaker, such as key tone, prompt tone, to enhance the feedback sense of user operation; vibration feedback, the touch screen or key panel provides vibration feedback to increase the tactile feedback of user operation; The connection and communication unit, including Wi-Fi / Bluetooth, enables connection with a smartphone or tablet, allowing users to remotely control the heater and view the operating status through the APP on the mobile device; the APP interface provides an intuitive user interface, allowing users to make various settings and view the device status through the APP.

[0021] Specifically, the sensor module includes: Ambient temperature sensor: used to detect the real-time temperature in the room and feed the data back to the control system to adjust the heating power and maintain the set temperature; Heating element temperature sensor: monitors the temperature of the heating element to prevent overheating and ensure safe operation; Air humidity sensor: detects the humidity level in the room and adjusts the heating power or starts the humidification function according to the humidity data to maintain a comfortable indoor environment; Infrared motion sensor: detects whether there is human activity in the room. When no one is in the room, the system automatically reduces the heating power or enters standby mode to save energy; Ambient light sensor: detects the light intensity in the room and adjusts the brightness of the display or activates / deactivates night mode according to the light conditions; Carbon dioxide sensor: detects indoor carbon dioxide concentration, which helps to understand air quality. Some devices are linked to air purifiers; Volatile organic compound sensor: monitors harmful gases in indoor air to help protect health; Acceleration sensor: used to detect whether the heater has fallen over. When the device falls over, the power is automatically cut off to prevent fire safety hazards; Current monitoring sensor: monitors the working current of the heater in real time to prevent damage caused by current overload and ensure safe operation of the equipment; Smoke detectors: Detect smoke in the air. When smoke is detected, the system sounds an alarm and automatically turns off the heater to prevent a fire.

[0022] Specifically, the intelligent adjustment module includes: Temperature adjustment unit, including automatic temperature control, automatically adjusts heating power to maintain the comfortable temperature set by the user based on the data of the ambient temperature sensor; fast heating and constant temperature mode, providing multiple heating modes, such as fast heating mode and constant temperature holding mode, which can be flexibly selected according to needs; The humidity adjustment unit includes humidity maintenance, which starts or stops the humidification function based on the data of the humidity sensor to maintain a suitable humidity level indoors; a dry mode, which adjusts the heating method to assist in reducing the humidity in an environment with high humidity; Motion detection and adjustment unit, including intelligent sensing, which detects human activities in the room through infrared motion sensors and intelligently adjusts the working state of the heater. When no one is active for a long time, the heater will be in low-power standby or shut down to save energy; automatic wake-up, when human activities are detected, the preset temperature and heating mode will be automatically restored; Time control unit, including timed on / off, users can preset the on / off time of the device to realize automatic operation and reduce unnecessary energy consumption; energy-saving mode, automatically enters low power consumption mode at night or in certain time periods to reduce energy consumption; Remote control and feedback unit, including smart home integration, through Wi-Fi or Bluetooth unit, the device is connected to the smart home system, and remote control and status query are realized through mobile phone APP or voice assistant; cloud feedback and optimization, based on cloud big data and AI algorithm, optimize the device operation strategy and provide personalized usage suggestions; The learning and adaptation unit includes user habit learning, which automatically adjusts device settings to match user preferences by recording and analyzing user operating habits and environmental changes; and environmental adaptability adjustment, which dynamically adjusts the device's working mode and power output according to changes in the environment.

[0023] Specifically, the security protection module includes: Overheat protection module, including temperature monitoring, real-time monitoring of the temperature of the heating element and the environment, automatically reducing the heating power or shutting down the heater when the temperature exceeds the safety threshold; automatic power-off, immediately cutting off the power supply when an abnormal temperature rise is detected to prevent overheating and fire; The tipping protection module includes a tipping sensor. When the heater tips over or tilts at a large angle, the power supply and heating element are immediately turned off. After the device returns to normal, the user is reminded through a prompt sound or display screen that the device has tipped over. Short-circuit protection module, including current monitoring, real-time monitoring of equipment current, when abnormal current is detected, rapid power cut-off and triggering of alarm; automatic reset, after troubleshooting, restore the normal working state of the equipment manually or automatically; Overload protection module, including power monitoring, monitoring the total power output of the equipment, automatically adjusting or shutting down some heating elements to avoid overload when the power exceeds the safety threshold; circuit breaker, equipped with built-in or external circuit breaker, cuts off the power supply in overload condition to prevent circuit damage; Voltage protection module, including overvoltage protection, when it detects that the input voltage exceeds the safe range, the device automatically cuts off the power supply or adjusts the internal circuit to prevent damage; undervoltage protection, when the input voltage is too low, the device will enter the protection mode to avoid device instability or damage caused by low voltage; Intelligent fault diagnosis and alarm module, including self-check function, the equipment performs self-check during startup and operation, automatically reports and records fault information when a fault is found; alarm system, when a fault or safety risk occurs, the user is notified through sound, display or remote control to ensure timely processing; The power-off protection module includes data preservation. In the event of a sudden power outage, the device saves the current working status and user settings, and automatically restores to the state before the power outage after power is restored; automatic restart. After the power is restored, the device decides whether to restart automatically based on the preset security policy.

[0024] Specifically, the safety protection includes a PID control algorithm, which accurately adjusts the output power of the heater through proportional, integral and differential control to prevent the temperature from being too high or too low; including building a PID algorithm to adjust the controller in real time, as follows: ;in, is the controller output, is the proportionality coefficient, is the integration coefficient, is the differential coefficient, is the proportional output, is the integral output, For differential output, the PID control algorithm is used to monitor the detection data of the heating component and exhaust component in the hood, monitor the safety status of the circuit in the hood and provide real-time feedback, ensuring stable heating of the heater.

[0025] Specifically, the safety protection includes collecting and analyzing the data of the heater, and judging the working progress of the heater according to the trend of the data through data collection and analysis. The data analysis preprocessing includes data visualization, building a data discrete model based on the data collected by the data acquisition system and performing visual analysis, including ;in, represents the probability that database i selects dataset k, The decision utility value of selecting dataset k for database i, The random utility of selecting dataset k for dataset i, The decision utility value of selecting dataset j for database i, is the cumulative distribution function, It is the initial distribution function. By collecting and analyzing the data of the heater, a visual analysis is established and a report is output. Through real-time visual analysis of the heater, the working progress of the heater can be grasped in time to avoid fire.

[0026] Specifically, the control system includes collecting ambient temperature data through a temperature sensor, using a digital filter to remove noise, and processing the collected data. The calculation formula is as follows: ,in, is the current filtered temperature, is the temperature value at the past n time points.

[0027] Specifically, the control system records the historical data of temperature, current, and voltage parameters, and identifies potential safety hazards through data analysis. The data processing formula is as follows: ,in, is the standard deviation of the database data, is the data average, The data value for each point The control module includes: Microcontroller: As the core of the entire system, it is responsible for receiving sensor data, executing control algorithms, driving the display, managing communications, etc. Algorithm and logic control: Execute control logic based on sensor data and user settings to achieve functions such as temperature regulation, mode switching, and fault detection; Power control circuit: manages the power input of the heater to ensure stable power supply; Backup power supply: Provide short-term backup power supply to save critical data and shut down safely when power is interrupted; Power control unit: adjusts the output power of the heating element to achieve precise temperature control and energy saving; Safety protection circuit: includes overheat protection, short circuit protection and overload protection to ensure the safe operation of the heating element; Wireless communication unit: such as Wi-Fi and Bluetooth modules, used to communicate with smart devices and networks to achieve remote control and status monitoring; Protocol processor: responsible for processing various communication protocols to ensure the reliability and security of data transmission; User interface management: including management of input devices such as touch screens, buttons, remote controls, and control of LED / LCD displays; External interface: such as USB interface, Ethernet interface, etc., used for equipment upgrade and data transmission; Fault detection and diagnosis: real-time monitoring of equipment operating status, detection and reporting of faults, and execution of automatic protection measures; Security authentication and encryption: ensure the security of remote control and data transmission to prevent unauthorized access and operation; Non-volatile memory: saves user settings, usage records and device status to ensure that data is not lost after power failure; Temporary memory: used to store sensor data and temporary calculation results to improve system response speed.

[0028] The working principle of the omnidirectional tower heater of the present invention is as follows: a machine cover is used to connect various components; a heating component, the heating component is arranged in the machine cover, the heating component is used to output hot air and provide heating; an exhaust component, the exhaust component is arranged on the machine cover, the exhaust component is connected to the heating component, and the exhaust component is used to discharge hot air at multiple angles and provide heating; a control system, the control system is connected to the heating component and the exhaust component, the control system is used to intelligently monitor the heater and control the braking of the heater to monitor the working process of the heater, and has the effect of intelligently monitoring the heater; a human-computer interaction module is used to display the current heater status, temperature setting, and operation mode information; a sensor module includes a temperature sensor , monitor the ambient temperature in real time and feed it back to the system for intelligent adjustment; the motion sensor detects whether there is human activity in the room, so as to decide whether to turn on or off the heater; the control module, including the microcontroller, is responsible for processing sensor data, executing user instructions, and adjusting the heating power; the communication module facilitates users to remotely control through mobile phone APP or smart home system; the intelligent adjustment module, including the temperature control algorithm, intelligently adjusts the heating power of the heater according to the real-time temperature data and user settings; the user sets the timer to turn on and off, and the system automatically controls the working status of the heater according to the preset time, which has the effect of human-computer interactive management of the heater and can regulate and supervise the heater in real time on the palm of your hand.

[0029] The preferred embodiments of the present invention disclosed above are only used to help explain the present invention. The preferred embodiments do not describe all the details in detail, nor do they limit the invention to only specific implementation methods. Obviously, many modifications and changes can be made according to the content of this specification. This specification selects and specifically describes these embodiments in order to better explain the principles and practical applications of the present invention, so that those skilled in the art can understand and use the present invention well. The present invention is limited only by the claims and their full scope and equivalents.

Claims

1. An omnidirectional tower heater, comprising a body and a control system, wherein the body is used for heating, and is characterized in that: The control system comprises: The human-computer interaction module includes a display screen for displaying the current status of the heater, temperature setting, and operating mode information; a touch screen or a key panel, through which the user can make various settings, such as temperature adjustment, mode selection, and timer switch; and voice control, through which the user can use voice commands to control the switch and temperature adjustment functions of the heater through voice recognition technology; The sensor module includes a temperature sensor that monitors the ambient temperature in real time and feeds back to the system for intelligent adjustment; a humidity sensor that monitors the air humidity and adjusts it accordingly; and a motion sensor that detects whether there is human activity in the room, thereby deciding whether to turn the heater on or off. The control module, including the microcontroller, is responsible for processing sensor data, executing user instructions, and adjusting the heating power; the heating element control adjusts the output power of the heating element to achieve the set temperature; Communication modules, including Wi-Fi / Bluetooth modules, are used to connect to smartphones or other smart devices, allowing users to remotely control them through mobile apps or smart home systems; Zigbee / Z-Wave modules are used to connect to other smart home devices to achieve a smarter home ecosystem; Intelligent adjustment module, including temperature control algorithm, intelligently adjusts the heating power of the heater according to real-time temperature data and user settings; energy-saving mode, through intelligent algorithm, saves energy consumption while ensuring comfort; timing function, users can set the timer to turn on and off, and the system automatically controls the working state of the heater according to the preset time; The safety protection module includes overheat protection, which automatically cuts off the power when the temperature exceeds the safe range; tipping protection, which automatically cuts off the power when the heater tips over to prevent fire safety hazards; and voltage overload protection, which prevents voltage fluctuations from damaging the heater.

2. An omnidirectional tower heater according to claim 1, characterized in that: The human-computer interaction module comprises: Display unit, including LED / LCD display, used to display current temperature, operating mode, and timing setting information; backlight control, automatically adjusts the brightness of the screen according to changes in ambient light to ensure readability under different lighting conditions; An input control unit, including a touch screen, through which the user can adjust the temperature, select the mode, and set the timer. The touch screen may be capacitive or resistive. A key panel, including physical keys or touch keys, is used to control the various functions of the heater. A remote control is remotely controlled through infrared or radio waves, and the user can adjust the settings of the heater within a certain distance. Voice control unit, including voice recognition, through the integrated microphone and voice recognition chip, users use voice commands to control the heater's on / off, temperature adjustment, and mode switching functions; wake-up word detection, enters voice control mode after recognizing a specific wake-up word, ensuring timely response to user voice commands when needed; Feedback unit, including sound prompt, the heater provides sound feedback through buzzer or speaker, such as key tone, prompt tone, to enhance the feedback sense of user operation; vibration feedback, the touch screen or key panel provides vibration feedback to increase the tactile feedback of user operation; The connection and communication unit, including Wi-Fi / Bluetooth, enables connection with a smartphone or tablet, allowing users to remotely control the heater and view the operating status through the APP on the mobile device; the APP interface provides an intuitive user interface, allowing users to make various settings and view the device status through the APP.

3. The omnidirectional tower heater according to claim 1, characterized in that: The sensor module comprises: Ambient temperature sensor: used to detect the real-time temperature in the room and feed the data back to the control system to adjust the heating power and maintain the set temperature; Heating element temperature sensor: monitors the temperature of the heating element to prevent overheating and ensure safe operation; Air humidity sensor: detects the humidity level in the room and adjusts the heating power or starts the humidification function according to the humidity data to maintain a comfortable indoor environment; Infrared motion sensor: detects whether there is human activity in the room. When no one is in the room, the system automatically reduces the heating power or enters standby mode to save energy; Ambient light sensor: detects the light intensity in the room and adjusts the brightness of the display or activates / deactivates night mode according to the light conditions; Carbon dioxide sensor: detects indoor carbon dioxide concentration, which helps to understand air quality. Some devices are linked to air purifiers; Volatile organic compound sensor: monitors harmful gases in indoor air to help protect health; Acceleration sensor: used to detect whether the heater has fallen over. When the device falls over, the power is automatically cut off to prevent fire safety hazards; Current monitoring sensor: monitors the working current of the heater in real time to prevent damage caused by current overload and ensure safe operation of the equipment; Smoke detectors: Detect smoke in the air. When smoke is detected, the system sounds an alarm and automatically turns off the heater to prevent a fire.

4. An omnidirectional tower heater according to claim 3, characterized in that: The intelligent adjustment module comprises: Temperature adjustment unit, including automatic temperature control, automatically adjusts heating power to maintain the comfortable temperature set by the user based on the data of the ambient temperature sensor; fast heating and constant temperature mode, providing multiple heating modes, such as fast heating mode and constant temperature holding mode, which can be flexibly selected according to needs; The humidity adjustment unit includes humidity maintenance, which starts or stops the humidification function based on the data of the humidity sensor to maintain a suitable humidity level indoors; a dry mode, which adjusts the heating method to assist in reducing the humidity in an environment with high humidity; Motion detection and adjustment unit, including intelligent sensing, which detects human activities in the room through infrared motion sensors and intelligently adjusts the working state of the heater. When no one is active for a long time, the heater will be in low-power standby or shut down to save energy; automatic wake-up, when human activities are detected, the preset temperature and heating mode will be automatically restored; Time control unit, including timed on / off, users can preset the on / off time of the device to realize automatic operation and reduce unnecessary energy consumption; energy-saving mode, automatically enters low power consumption mode at night or in certain time periods to reduce energy consumption; Remote control and feedback unit, including smart home integration, through Wi-Fi or Bluetooth unit, the device is connected to the smart home system, and remote control and status query are realized through mobile phone APP or voice assistant; cloud feedback and optimization, based on cloud big data and AI algorithm, optimize the device operation strategy and provide personalized usage suggestions; The learning and adaptation unit includes user habit learning, which automatically adjusts device settings to match user preferences by recording and analyzing user operating habits and environmental changes; and environmental adaptability adjustment, which dynamically adjusts the device's working mode and power output according to changes in the environment.

5. An omnidirectional tower heater according to claim 4, characterized in that: The security protection module comprises: Overheat protection module, including temperature monitoring, real-time monitoring of the temperature of the heating element and the environment, automatically reducing the heating power or shutting down the heater when the temperature exceeds the safety threshold; automatic power-off, immediately cutting off the power supply when an abnormal temperature rise is detected to prevent overheating and fire; The tipping protection module includes a tipping sensor. When the heater tips over or tilts at a large angle, the power supply and heating element are immediately turned off. After the device returns to normal, the user is reminded through a prompt sound or display screen that the device has tipped over. Short-circuit protection module, including current monitoring, real-time monitoring of equipment current, when abnormal current is detected, rapid power cut-off and triggering of alarm; automatic reset, after troubleshooting, restore the normal working state of the equipment manually or automatically; Overload protection module, including power monitoring, monitoring the total power output of the equipment, automatically adjusting or shutting down some heating elements to avoid overload when the power exceeds the safety threshold; circuit breaker, equipped with built-in or external circuit breaker, cuts off the power supply in overload condition to prevent circuit damage; Voltage protection module, including overvoltage protection, when it detects that the input voltage exceeds the safe range, the device automatically cuts off the power supply or adjusts the internal circuit to prevent damage; undervoltage protection, when the input voltage is too low, the device will enter the protection mode to avoid device instability or damage caused by low voltage; Intelligent fault diagnosis and alarm module, including self-check function, the equipment performs self-check during startup and operation, automatically reports and records fault information when a fault is found; alarm system, when a fault or safety risk occurs, the user is notified through sound, display or remote control to ensure timely processing; The power-off protection module includes data preservation. In the event of a sudden power outage, the device saves the current working status and user settings, and automatically restores to the state before the power outage after power is restored; automatic restart. After the power is restored, the device decides whether to restart automatically based on the preset security policy.

6. An omnidirectional tower heater according to claim 5, characterized in that: The safety protection includes a PID control algorithm, which accurately adjusts the output power of the heater through proportional, integral and differential control to prevent the temperature from being too high or too low; including building a PID algorithm to adjust the controller in real time, as follows: ;in, is the controller output, is the proportionality coefficient, is the integration coefficient, is the differential coefficient, is the proportional output, is the integral output, It is the differential output.

7. An omnidirectional tower heater according to claim 6, characterized in that: The safety protection includes collecting and analyzing the data of the heater, and judging the working progress of the heater according to the trend of the data through data collection and analysis. The data analysis preprocessing includes data visualization, building a data discrete model based on the data collected by the data acquisition system and performing visual analysis, including ;in, represents the probability that database i selects dataset k, The decision utility value of selecting dataset k for database i, The random utility of selecting dataset k for dataset i, The decision utility value of selecting dataset j for database i, is the cumulative distribution function, is the initial distribution function.

8. An omnidirectional tower heater according to claim 7, characterized in that: The control system includes collecting ambient temperature data through a temperature sensor, using a digital filter to remove noise, and processing the collected data. The calculation formula is as follows: ,in, is the current filtered temperature, is the temperature value at the past n time points.

9. The omnidirectional tower heater according to claim 7, characterized in that: The control system records the historical data of temperature, current and voltage parameters, and identifies potential safety hazards through data analysis. The data processing formula is as follows: ,in, is the standard deviation of the database data, is the data average, The data value for each point.

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