Heating device and control method and control device thereof

Abstract

The invention discloses a heating device and a control method and device thereof, and the control method of the heating device comprises the steps: firstly receiving a heating mode instruction, and then determining the working mode of the heating device according to the heating mode instruction. When the working mode is the large-area heating mode, the heating assembly is controlled to work, the airflow control assembly is controlled to drive air to flow through the heating assembly, and airflow is controlled to be at least blown out from the second heat dissipation opening; when the working mode is a small-area heating mode, the heating assembly is controlled to work, airflow flows out of at least one of the first heat dissipation opening and the second heat dissipation opening, the indoor air is heated in a natural convection mode, and energy consumption of the heating device is reduced. The adaptability of the heating device to different indoor environments is improved, the heating device can adjust the indoor temperature in an energy-saving and efficient mode according to the different indoor environments, and therefore the indoor thermal environment is improved.

Description

Technical Field

[0001] The present invention relates to the technical field of heating devices, and in particular to a heating device and a control method and a control device thereof. Background Art

[0002] Thermal environment refers to the environment composed of physical factors such as solar radiation, air temperature, surface temperature of surrounding objects, relative temperature and air flow velocity, which affects people's sense of cold and heat and health. Among them, temperature is an important factor affecting thermal environment. Thermal comfort is a person's satisfaction evaluation of the surrounding thermal environment. The main evaluation indicators of thermal comfort are Bayesian scale, ASHRAE scale and ISO standard. Since people spend a considerable part of their life and work indoors, the indoor temperature will greatly affect the indoor thermal environment, which in turn affects people's comfort and health.

[0003] A heating device is an electrical appliance commonly used for indoor heating. When the indoor ambient temperature is low, it can increase the indoor temperature, thereby improving the indoor thermal environment. In the prior art, the adaptability of heating devices to different indoor environments is low. When the heating device is used in different indoor environments, it is difficult to adjust the indoor temperature in an energy-saving and efficient manner. For example, when the heating device is used in a living room or bedroom, the living room is generally larger in space and the temperature loses faster, resulting in the heating device being unable to quickly increase the indoor temperature. The bedroom is generally smaller in space and the temperature loses slower, but the heating device also requires higher energy consumption to maintain a suitable indoor temperature. Summary of the invention

[0004] The main purpose of the present invention is to provide a heating device and a control method and a control device thereof, aiming to improve the adaptability of the heating device to different indoor environments.

[0005] To achieve the above object, the present invention provides a heating device, which comprises:

[0006] A housing having a first heat dissipation opening at the top and a second heat dissipation opening at the side;

[0007] a heating component, the heating component being disposed in the housing; and

[0008] An airflow control component is disposed on the shell, and is used to drive the gas to flow through the heating component and can control the airflow to be blown out from the first heat dissipation port and / or the second heat dissipation port.

[0009] Optionally, the airflow control component includes an air group component, which is disposed on the housing, and is used to drive the gas to flow through the heating component and can control the airflow to be blown out from the first heat dissipation port and / or the second heat dissipation port;

[0010] Alternatively, the airflow control assembly comprises:

[0011] An air group component is arranged on the housing, and the air group component is used to drive the gas to flow through the heating component;

[0012] a shielding component, disposed on the housing, and used to control the opening or closing of the first heat dissipation port and / or the second heat dissipation port, so as to control the airflow generated by the fan component to be blown out from the first heat dissipation port and / or the second heat dissipation port;

[0013] Alternatively, a wind group component is arranged on the housing, and the wind group component is used to drive the gas to flow through the heating component;

[0014] The air guide assembly is arranged on the housing and is used to guide the airflow generated by the fan assembly to be blown out from the first heat dissipation port and / or the second heat dissipation port.

[0015] Optionally, a plurality of the second heat dissipation openings are provided, and the plurality of the second heat dissipation openings are evenly arranged along the circumference of the shell.

[0016] Optionally, the heating device further comprises:

[0017] A control circuit, wherein the control circuit is electrically connected to the heating component and the airflow control component respectively;

[0018] The control circuit is used to receive a heating mode instruction, and to control the power of the heating component and the airflow control component accordingly according to the heating mode instruction.

[0019] Optionally, the control circuit is specifically used to determine the working mode of the heating device according to the heating mode instruction, and the working modes include a large-area heating mode and a small-area heating mode; when the working mode is the large-area heating mode, the heating component is controlled to work and the airflow control component is controlled to drive the gas to flow through the heating component, and the airflow is controlled to blow out from at least the second heat dissipation port; when the working mode is the small-area heating mode, the heating component is controlled to work, and the airflow is made to flow out from at least one of the first heat dissipation port and the second heat dissipation port through the airflow control component.

[0020] Optionally, the heating device also includes a mode selection module, which is electrically connected to the control circuit; the mode selection module is used to generate a large-area heating mode instruction representing the large-area heating mode or a small-area heating mode instruction representing the small-area heating mode according to its triggering condition.

[0021] Optionally, the heating device further comprises:

[0022] An environmental information collection component is electrically connected to the control circuit; the environmental information collection component is used to collect environmental information in the space where the heating device is located and generate the heating mode instruction.

[0023] Optionally, the environmental information in the space where the heating device is located includes at least one of the temperature in the space where the heating device is located, the size of the space where the heating device is located, and the closed state of the space where the heating device is located;

[0024] The control circuit is specifically used for:

[0025] When at least one of the environmental information in the space where the heating device is located satisfies the large-area heating mode, a large-area heating mode instruction representing the large-area heating mode is generated;

[0026] When the temperature in the space where the heating device is located, the size of the space where the heating device is located, and the closed state of the space where the heating device is located all meet the small area heating mode, a small area heating mode instruction representing the small area heating mode is generated.

[0027] Optionally, the control circuit is specifically used for:

[0028] When the temperature in the space where the heating device is located is not greater than a first preset temperature value, determining that the large-area heating mode is satisfied;

[0029] When the size of the space where the heating device is located is not less than the first preset volume, it is determined that the large-area heating mode is satisfied;

[0030] When the space where the heating device is located is in an unclosed state, determining that the large-area heating mode is satisfied;

[0031] When the temperature in the space of the heating device is greater than the first preset temperature, the size of the space where the heating device is located is smaller than the first preset volume, and the space where the heating device is located is in a closed state, it is determined that the small area heating mode is satisfied.

[0032] Optionally, the environmental information collection component includes:

[0033] A temperature detection device, the temperature detection device is electrically connected to the control circuit; the temperature detection device is used to detect the temperature in the space where the heating device is located;

[0034] and / or,

[0035] A laser radar component, the laser radar component is electrically connected to the control circuit; the laser radar component is used to scan image information of the space where the heating device is located, and determine the size of the space where the heating device is located and / or the closed state of the space where the heating device is located;

[0036] and / or,

[0037] A camera assembly is electrically connected to the control circuit; the camera assembly is used to take pictures of the environment in the space where the heating device is located, and determine the closed state of the space where the heating device is located.

[0038] The present invention further provides a heating device control method, characterized in that the heating device control method is based on the heating device, and the method comprises the following steps:

[0039] receiving a heating mode instruction;

[0040] Determining the working mode of the heating device according to the heating mode instruction; the working mode of the heating device includes a large area heating mode and a small area heating mode;

[0041] When the working mode is a large area heating mode, the heating component is controlled to work and the airflow control component is controlled to drive the gas to flow through the heating component, and the airflow is controlled to be blown out from at least the second heat dissipation port;

[0042] When the working mode is a small area heating mode, the heating component is controlled to work, and the airflow is made to flow out from at least one of the first heat dissipation port and the second heat dissipation port through the airflow control component.

[0043] Optionally, the step of determining the working mode of the heating device according to the heating mode instruction further includes:

[0044] Determine a target temperature control range of the space where the heating device is located according to the heating mode instruction;

[0045] In the large-area heating mode and the small-area heating mode, the temperature in the space where the heating device is located is controlled to be maintained within the target temperature control range.

[0046] Optionally, in the large-area heating mode and the small-area heating mode, the steps of respectively controlling the temperature in the space where the heating device is located to maintain within the target temperature control range specifically include:

[0047] When the working mode is the large-area heating mode and the temperature in the space where the heating device is located is lower than the minimum value of the target temperature range, the heating component is controlled to operate at maximum power, the airflow control component is controlled to drive the gas to flow through the heating component at the fastest speed, and the airflow is controlled to blow out from at least the second heat dissipation port; when the working mode is the large-area heating mode and the temperature in the space where the heating device is located is within the target temperature range, the power of the heating component is controlled to be reduced, the speed at which the airflow control component drives the gas to flow through the heating component is controlled to be reduced, and the airflow is controlled to blow out from at least the second heat dissipation port;

[0048] When the working mode is the small area heating mode and the temperature in the space where the heating device is located is lower than the minimum value of the target temperature range, the heating component is controlled to operate at maximum power, and the airflow is caused to flow out from at least one of the first heat dissipation port and the second heat dissipation port through the airflow control component; when the working mode is the small area heating mode and the temperature in the space where the heating device is located is within the target temperature range, the power of the heating component is controlled to be reduced, and the airflow is caused to flow out from at least one of the first heat dissipation port and the second heat dissipation port through the airflow control component.

[0049] Optionally, before executing the step of receiving the heating mode instruction, the method includes the following steps:

[0050] Acquiring environmental information of the space where the heating device is located;

[0051] The heating mode instruction is generated according to environmental information in the space where the heating device is located.

[0052] Optionally, the environmental information in the space where the heating device is located includes at least one of the temperature in the space where the heating device is located, the size of the space where the heating device is located, and the closed state of the space where the heating device is located;

[0053] The step of generating a heating mode instruction according to the environmental information in the space where the heating device is located specifically includes:

[0054] When at least one of the environmental information in the space where the heating device is located satisfies the large-area heating mode, generating a heating mode instruction representing the large-area heating mode;

[0055] When the temperature in the space where the heating device is located, the size of the space where the heating device is located, and the closed state of the space where the heating device is located all meet the small area heating mode, a heating mode instruction representing the small area heating mode is generated.

[0056] Optionally, when the temperature value corresponding to the temperature detection signal is not greater than a first preset temperature value, it is determined that the large-area heating mode is satisfied;

[0057] When the size of the space where the heating device is located is not less than the first preset volume, it is determined that the large-area heating mode is satisfied;

[0058] When the space where the heating device is located is in an unclosed state, determining that the large-area heating mode is satisfied;

[0059] When the temperature in the space of the heating device is greater than the first preset temperature, the size of the space where the heating device is located is smaller than the first preset volume, and the space where the heating device is located is in a closed state, it is determined that the large-area heating mode is met.

[0060] The present invention further provides a control device, characterized in that the control device comprises:

[0061] Memory;

[0062] A processor, a heating device control program stored in the memory and executed by the processor, wherein the heating device control program implements the heating device control method when executed by the processor.

[0063] In the technical solution of the present invention, the heating device includes a shell, a heating component and an airflow control component, the shell has a first heat dissipation port located at the top and a second heat dissipation port located at the side, and the airflow control component is used to drive the gas to flow through the heating component, and can control the airflow to blow out from the first heat dissipation port and / or the second heat dissipation port. Through the structural design of the present invention or the above method, when a large area heating is required, the heating component can be controlled to work and the airflow control component can be controlled to drive the gas to flow through the heating component, and the airflow can be controlled to blow out from at least the second heat dissipation port; so that the heating device heats the air in the space where the heating device is located in the form of forced convection, and quickly increases the temperature in the space where the heating device is located, so that it reaches a preset temperature range; when the working mode is a small area heating mode, the heating component is controlled to work, and the airflow is made to flow out from at least one of the first heat dissipation port and the second heat dissipation port through the airflow control component, so that the heating device heats the air in the space where the heating device is located in the form of natural convection, so that its temperature reaches a preset temperature range, and when the heating component is operated in the small area heating mode, the airflow control component does not need to output power to drive the airflow movement, thereby reducing the energy consumption of the heating device. Through the technical solution of the present invention, the adaptability of the heating device to different indoor environments is improved, so that the indoor temperature can be adjusted energy-efficiently and efficiently, thereby improving the indoor thermal environment so that the indoor thermal environment reaches a thermally comfortable state. BRIEF DESCRIPTION OF THE DRAWINGS

[0064] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings required for use in the embodiments or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on the structures shown in these drawings without paying creative work.

[0065] Figure 1 It is a structural schematic diagram of an embodiment of a heating device of the present invention;

[0066] Figure 2 A schematic diagram of a method flow of an embodiment of a heating device control method of the present invention;

[0067] Figure 3A method flow diagram of another embodiment of the heating device control method of the present invention;

[0068] Figure 4 A method flow diagram of another embodiment of the heating device control method of the present invention;

[0069] Figure 5 The figure is a schematic diagram of a method flow of another embodiment of a heating device control method of the present invention.

[0070] Description of Figure Numbers:

[0071] Label name Label name 10 case 11 First heat dissipation outlet 12 Second heat dissipation port 20 Heating components 30 Fan components 40 Occlusion Components

[0072] The realization of the purpose, functional features and advantages of the present invention will be further explained in conjunction with embodiments and with reference to the accompanying drawings. DETAILED DESCRIPTION

[0073] Thermal environment refers to the environment composed of physical factors such as solar radiation, air temperature, surface temperature of surrounding objects, relative humidity and air flow speed, which affects people's sense of cold and heat and health. Among them, temperature is an important factor affecting thermal environment. Since people spend a considerable part of their life and work indoors, the indoor temperature will greatly affect people's comfort and health.

[0074] A heating device is an electrical appliance commonly used for indoor heating. When the indoor ambient temperature is low, it can increase the indoor temperature, thereby improving the indoor thermal environment. In the prior art, the adaptability of the heating device to different indoor environments is low. When the heating device is used in different indoor environments, it is difficult to adjust the indoor temperature in an energy-saving and efficient manner. For example, when the heating device is used in a living room or bedroom, the living room is generally larger in space and the temperature loses faster, resulting in the heating device being unable to quickly increase the indoor temperature. The bedroom is generally smaller in space and the temperature loses slower, but the heating device also requires higher energy consumption to maintain the bedroom temperature within a preset temperature range.

[0075] In order to solve the above problems, the present invention proposes a heating device, referring to Figure 1 , the heating device includes:

[0076] The housing 10 has a first heat dissipation opening 11 at the top and a second heat dissipation opening 12 at the side;

[0077] A heating component 20, wherein the heating component 20 is disposed in the housing 10;

[0078] An airflow control component is disposed on the housing, and is used to drive the gas to flow through the heating component 20 and can control the airflow to be blown out from the first heat dissipation port 11 and / or the second heat dissipation port 12 .

[0079] In this embodiment, the shell serves as a carrier of the first heat dissipation port 11 , the second heat dissipation port 12 and the heating assembly 20 . In this embodiment, the shape, material and whether the shell 10 is detachable are not limited.

[0080] In this embodiment, when the heating device is used in a larger space or a space connected to an environment with a lower temperature outside, where heat loss is faster, or when the heating device is used in a space with a lower temperature, the heating component is controlled to work and the airflow control component is controlled to drive the gas to flow through the heating component, and the airflow is controlled to blow out from at least the second heat dissipation port; at this time, the air heated by the heating component 20 in the housing 10 and the air in the space where the heating device is located are forced to convect, thereby increasing the temperature in the space where the heating device is located more quickly, so that the temperature in the space where the heating device is located reaches a preset temperature range. Since heat loss is slower in a closed space or a smaller space, when the heating device is used in a space with a higher temperature and slower heat loss, when the working mode is a small area heating mode, the heating component is controlled to work, and the airflow is caused to flow out from at least one of the first heat dissipation port and the second heat dissipation port through the airflow control component. After the air in the shell 10 is heated by the heating component 20, the thermal motion of the molecules is enhanced, resulting in an increase in the average distance between air molecules, thereby reducing the number of air molecules per unit volume and reducing their density, so that they can directly float up and flow out from the first heat dissipation port 11 on the top of the shell 10 or flow out from the second heat dissipation port 12 on the side of the shell 10. At this time, the air in the shell 10 heats the space where the heating device is located in the form of natural convection, so that the temperature in the space where the heating device is located reaches a preset temperature range, and because the fan component 30 stops working at this time, the energy consumption of the heating device is reduced. Through the above settings, the adaptability of the heating device to different indoor environments is improved, so that the indoor temperature can be adjusted energy-savingly and efficiently, thereby improving the indoor thermal environment so that the indoor thermal environment reaches a thermal comfort state.

[0081] In this embodiment, the heating component 20 includes at least one of an electric heating wire, an electric heating film, an electric heating tube, and a graphite heating element, which can convert electrical energy into thermal energy to heat the air in the shell 10 after being powered on.

[0082] In one embodiment of the present invention, in one embodiment of the present invention, the airflow control component includes a wind group component 30, the wind group component 30 is arranged on the shell 10, the wind group component 30 is used to drive the gas to flow through the heating component 20, and can control the airflow to blow out from the first heat dissipation port 11 and / or the second heat dissipation port 12. In this embodiment, the fan component 30 can be arranged inside the shell 10, outside the shell 10, or assembled on other components, and the specific position of the fan component 30 is not limited. In this embodiment, the fan component 30 includes an air outlet and a rotating mechanism, and the rotating mechanism is adjusted so that the position of the air outlet can be adjusted to correspond to the first heat dissipation port 11 and / or the second heat dissipation port 12, so that the fan component 30 can drive the gas to flow through the heating component 20, and control the airflow to blow out from the first heat dissipation port 11 and / or the second heat dissipation port 12.

[0083] In another embodiment of the present invention, the airflow control assembly comprises:

[0084] An air group component 30 is disposed in the housing and is used to drive the gas to flow through the heating component 20;

[0085] The shielding component 40 is disposed on the shell, and is used to control the opening or closing of the first heat dissipation port 11 and / or the second heat dissipation port 12 to control the airflow generated by the fan component to be blown out from the first heat dissipation port 11 and / or the second heat dissipation port 12.

[0086] In this embodiment, the shielding assembly 40 is movably connected to the housing 10, and the shielding assembly 40 is connected to the output shaft of the driving motor. When the driving motor is powered on, its output shaft rotates, thereby driving the shielding assembly 40 to rotate, so as to control the opening or closing of the first heat dissipation port 11 and / or the second heat dissipation port 12. Optionally, in another embodiment of the present invention, the shielding assembly 40 is movably connected to the housing 10, and the shielding assembly 40 is connected to the output shaft of the cylinder. When the driving motor is powered on, its output shaft drives the shielding assembly 40 to move, so as to control the opening or closing of the first heat dissipation port 11 and / or the second heat dissipation port 12.

[0087] In this embodiment, the fan assembly 30 includes fan blades and a drive motor. The output shaft of the drive motor is fixedly connected to the fan blades. When the drive motor is energized, its output shaft rotates to drive the fan blades to rotate, and the opening or closing of the first heat dissipation port and / or the second heat dissipation port is controlled by the shielding assembly 40, so that the heated air can be blown out from the first heat dissipation port 11 and / or the second heat dissipation port 12.

[0088] In another embodiment of the present invention, the airflow control assembly comprises:

[0089] The wind group component 30 is disposed in the housing 10 and is used to drive the gas to flow through the heating component 20;

[0090] The air guide assembly is disposed on the housing 10 and is used to guide the airflow generated by the fan assembly to be blown out from the first heat dissipation port 11 and / or the second heat dissipation port 12 .

[0091] In this embodiment, the fan assembly 30 includes a fan blade and a drive motor. The output shaft of the drive motor is fixedly connected to the fan blade. When the drive motor is powered on, its output shaft rotates to drive the fan blade to rotate to drive the airflow. The air guide assembly includes an air guide plate and an air guide plate driving mechanism. The air guide plate driving mechanism can be a cylinder, a motor, etc. The air guide plate is driven to move by the air guide plate driving mechanism, thereby forming an air duct of the fan assembly 30 corresponding to the first heat dissipation port 11 and / or the second heat dissipation port 12, so that the airflow generated by the fan assembly 30 can be guided to be blown out from the first heat dissipation port 11 and / or the second heat dissipation port 12.

[0092] In this embodiment, the housing 10, the fan assembly 30 and the shielding assembly 40 are all fireproofed to ensure the safety of the heating device during use. Optionally, in one embodiment of the present invention, the housing 10, the fan assembly 30 and the shielding assembly are all made of high-temperature resistant metals, such as iron, stainless steel, etc. In another embodiment of the present invention, a fire-retardant coating is provided on the inner wall of the housing 10, the surface of the fan assembly 30 and the surface of the shielding assembly 40 to improve their high-temperature resistance, thereby avoiding safety hazards during the use of the heating device and improving the safety of the heating device during use.

[0093] Optionally, in another embodiment of the present invention, a plurality of second heat dissipation openings 12 are provided, and the plurality of second heat dissipation openings 12 are evenly provided along the circumference of the shell 10. By the above arrangement, the corresponding second heat dissipation openings 12 can be opened or closed based on the different positions of the heating device in the space where the heating device is located. When the heating device is placed near the center of the space where the heating device is located, all the second heat dissipation openings 12 are opened at the same time, so that the heat dissipated by the heating device is more uniform, and the uneven cold and heat in the space where the heating device is located is avoided; when the heating device is placed near the side wall of the space where the heating device is located, the second heat dissipation openings 12 on the side of the heating device near the side wall are closed, and the second heat dissipation openings 12 on the side away from the side wall are opened, so that the heat dissipated by the heating device is more uniform, and the absorption of the heat dissipated by the heating device by the side wall is reduced, so as to increase the indoor temperature faster.

[0094] Optionally, in one embodiment of the present invention, the heating device also includes a control circuit, which is electrically connected to the heating component 20, the fan component 30 and the shielding component 40, respectively; the control circuit includes a processor such as a CPU, MCU, DSP or other types of control chips, which are used to receive heating mode instructions, and control the power of the heating component 20, the fan component 30 and the shielding component 40 accordingly according to the heating mode instructions.

[0095] Optionally, in one embodiment of the present invention, the control circuit is specifically used to determine the working mode of the heating device according to the heating mode instruction, and the working modes include a large-area heating mode and a small-area heating mode; when the working mode is the large-area heating mode, the heating component 20 is controlled to work and the airflow control component is controlled to drive the gas to flow through the heating component 20, and the airflow is controlled to blow out from at least the second heat dissipation port 12; when the working mode is the small-area heating mode, the heating component is controlled to work, and the airflow is made to flow out from at least one of the first heat dissipation port and the second heat dissipation port through the airflow control component.

[0096] Optionally, in another embodiment of the present invention, when the working mode is a large-area heating mode, the heating component 20 is controlled to work and the airflow control component is controlled to drive the gas to flow through the heating component 20, and the airflow is controlled to be blown out only from the second heat dissipation port 12, so that the air heated by the heating component 20 in the shell 10 is forced to convect with the air in the space where the heating device is located through the second heat dissipation port 12, thereby quickly increasing the temperature in the space where the heating device is located, so that the temperature in the space where the heating device is located reaches within a preset temperature range.

[0097] Optionally, in another embodiment of the present invention, when the working mode is the large-area heating mode, the heating component 20 is controlled to work and the airflow control component is controlled to drive the gas to flow through the heating component 20, and the airflow is controlled to be blown out from the first heat dissipation port 11 and the second heat dissipation port 12 at the same time. At this time, the fan component 30 blows out a part of the air heated by the heating component 20 in the shell 10 from the second heat dissipation port 12 on the side of the shell 10, and the other part from the first heat dissipation port 11 on the top of the shell 10, so that the air heated by the heating component 20 in the shell 10 is forced to convect with the air in the space where the heating device is located through the second heat dissipation port 12, and the air heated by the heating component 20 blown out from the first heat dissipation port 11 on the top heats the temperature in the space where the heating device is located in the form of superposition of forced convection and natural convection. Compared with only opening the second heat dissipation port 12, it can increase the temperature in the space where the heating device is located more quickly, so that the temperature in the space where the heating device is located reaches within a preset temperature range.

[0098] Optionally, in another embodiment of the present invention, when the working mode is the small area heating mode, the heating component 20 is controlled to work, and the airflow is made to flow out only from the first heat dissipation port 11 through the airflow control component. After the air in the shell 10 is heated by the heating component 20 and the temperature is increased, the thermal motion of the molecules is enhanced, resulting in an increase in the average distance between the air molecules, thereby reducing the number of air molecules per unit volume and reducing their density. The air molecules can directly float up and flow out from the first heat dissipation port 11 on the top of the shell 10 or flow out from the second heat dissipation port 12 on the side of the shell 10. At this time, the air in the shell 10 heats the space where the heating device is located in the form of natural convection, so that the temperature in the space where the heating device is located reaches within the preset temperature range, and since the fan component 30 stops working at this time, the energy consumption of the heating device is reduced.

[0099] Optionally, in another embodiment of the present invention, when the working mode is a small area heating mode, the heating component 20 is controlled to work, and the airflow is made to flow out only from the second heat dissipation port 12 through the airflow control component. At this time, the air heated by the heating component 20 in the housing 10 floats up and is blocked by the first heat dissipation port 11, so it flows out from the second heat dissipation port 12. The air in the housing 10 heats the space where the heating device is located in the form of natural convection. Since the fan component 30 stops working at this time, the energy consumption of the heating device is reduced. In this embodiment, since the air heated by the heating component 20 is blocked by the first heat dissipation port 11, the heating efficiency of the heating device is lower than when the first heat dissipation port 11 is opened and the second heat dissipation port 12 is closed.

[0100] Optionally, in another embodiment of the present invention, when the working mode is a small area heating mode, the heating component 20 is controlled to work, and the airflow is made to flow out from the first heat dissipation port 11 and the second heat dissipation port 12 at the same time through the airflow control component. At this time, the air heated by the heating component 20 in the shell 10 floats up and flows out from the first heat dissipation port 11, and the air in the shell 10 that fails to flow out from the first heat dissipation port 11 in time can flow out from the second heat dissipation port 12, so that the air in the shell 10 heats the space where the heating device is located in the form of natural convection. Since the fan component 30 stops working at this time, the energy consumption of the heating device is reduced. In this embodiment, since the air in the shell 10 that fails to flow out from the first heat dissipation port 11 in time can flow out from the second heat dissipation port 12, the heating efficiency of the heating device is higher than that when the first heat dissipation port 11 is opened and the second heat dissipation port 12 is closed.

[0101] Optionally, in one embodiment of the present invention, the heating device further comprises:

[0102] An environmental information collection component is electrically connected to the control circuit; the environmental information collection component is used to collect environmental information in the space where the heating device is located and generate a heating mode instruction.

[0103] Optionally, in an embodiment of the present invention, the environmental information in the space where the heating device is located includes at least one of the temperature in the space where the heating device is located, the size of the space where the heating device is located, and the closed state of the space where the heating device is located; when at least one of the environmental information in the space where the heating device is located satisfies the large-area heating mode, the control circuit generates a large-area heating mode instruction representing the large-area heating mode, and when the heating device receives and executes the large-area heating mode instruction, it operates in the large-area heating mode, that is, controls the heating component to work and controls the airflow control component to drive The gas flows through the heating component and controls the airflow to be blown out from at least the second heat dissipation port 12; when the temperature in the space where the heating device is located, the size of the space where the heating device is located, and the closed state of the space where the heating device is located all meet the small area heating mode, the control circuit generates a small area heating mode instruction representing the small area heating mode. When the heating device receives and executes the small area heating mode instruction, it operates in the small area heating mode, that is, controls the heating component to work, and makes the airflow flow out from at least one of the first heat dissipation port 11 and the second heat dissipation port 12 through the airflow control component.

[0104] Optionally, in another embodiment of the present invention, when the temperature in the space where the heating device is located is not greater than a first preset temperature value, the control circuit determines that the temperature in the space where the heating device is located satisfies the large-area heating mode; when the size of the space where the heating device is located is not less than a first preset volume, the control circuit determines that the size of the space where the heating device is located satisfies the large-area heating mode; when the space where the heating device is located is in an unclosed state, the control circuit determines that the space where the heating device is located satisfies the large-area heating mode; when the temperature in the space where the heating device is located is greater than the first preset temperature, the size of the space where the heating device is located is less than the first preset volume, and the space where the heating device is located is in a closed state, the control circuit determines that the temperature in the space where the heating device is located, the size of the space where the heating device is located, and the closed state of the space where the heating device is located satisfy the small-area heating mode.

[0105] Optionally, in one embodiment of the present invention, the environmental information acquisition component includes a temperature detection device, which is electrically connected to the control circuit, and the temperature detection device includes a thermocouple, an infrared thermometer, a temperature sensor, etc., which are used to detect the temperature in the space where the heating device is located; the temperature detection device detects the temperature in the space where the heating device is located and generates a corresponding temperature detection signal, and the control circuit can obtain the corresponding temperature value according to the temperature detection signal.

[0106] Optionally, in another embodiment of the present invention, the environmental information acquisition component includes a laser radar component, which is electrically connected to the control circuit; the laser radar component is used to scan the image information of the space where the heating device is located, and determine the size of the space where the heating device is located and / or the closed state of the space where the heating device is located. In this embodiment, the laser radar component can scan the environment in the space where the heating device is located, and establish a 3D image of the space where the heating device is located, thereby obtaining image information of the space where the heating device is located and generating a corresponding image signal. The control circuit can obtain the size of the space where the heating device is located and / or the closed state of the space where the heating device is located based on the image signal.

[0107] Optionally, in another embodiment of the present invention, the environmental information acquisition component includes a camera component, which is electrically connected to the control circuit; the camera component is used to take a picture of the environment in the space where the heating device is located, and determine the closed state of the space where the heating device is located. In this embodiment, the camera component includes at least one camera, which can take a picture of the environment in the space where the heating device is located and generate a corresponding picture signal, and the control circuit can obtain the closed state of the space where the heating device is located according to the picture signal.

[0108] The present invention also proposes a heating device control method, which can be implemented based on the heating device of any of the above embodiments, referring to Figure 2 In one embodiment of the present invention, the heating device control method comprises the following steps:

[0109] S10, receiving a heating mode instruction;

[0110] S20, determining the working mode of the heating device according to the heating mode instruction; the working mode of the heating device includes a large area heating mode and a small area heating mode;

[0111] S30, when the working mode is a large area heating mode, controlling the heating component to work and controlling the airflow control component to drive the gas to flow through the heating component, and controlling the airflow to be blown out from at least the second heat dissipation port;

[0112] S40: When the working mode is a small area heating mode, the heating component is controlled to work, and the airflow is made to flow out from at least one of the first heat dissipation port and the second heat dissipation port through the airflow control component.

[0113] In this embodiment, the heating mode command can be triggered by a handheld terminal such as a remote control or a mobile phone, or by a triggering part set on the shell. The triggering part can be touch, button or infrared gesture sensor, etc., or a voice control module can be set for voice control, etc., which is not limited here.

[0114] The large area heating mode and the small area heating mode are mainly set according to the heating demand, such as the size of the heating space. For example, the small area heating mode is set for rooms below 10 square meters, and the large area heating mode is set for rooms above 10 square meters. The specific room size value is not limited and can be any value or endpoint value between 10-20 square meters. In this embodiment, there are mainly two modes, large and small. Of course, in other embodiments, more modes can be set according to specific needs.

[0115] Optionally, in another embodiment of the present invention, when the working mode is a large-area heating mode, the heating component is controlled to work and the airflow control component is controlled to drive the gas to flow through the heating component, and the airflow is controlled to be blown out only from the second heat dissipation port 12. At this time, all the air heated by the heating component 20 in the shell 10 is blown out from the second heat dissipation port 12 on the side of the shell 10, so that the heating device heats the space where the heating device is located in the form of forced convection, thereby quickly increasing the temperature in the space where the heating device is located.

[0116] In an alternative embodiment of the present invention, when the working mode is a large-area heating mode, the heating component is controlled to work and the airflow control component is controlled to drive the gas to flow through the heating component, and the airflow is controlled to be blown out from at least the first heat dissipation port 11 and the second heat dissipation port 12 at the same time. At this time, a part of the air heated by the heating component 20 in the shell 10 is blown out from the second heat dissipation port 12 on the side of the shell 10, and the fan component 30 blows another part of the air heated by the heating component 20 in the shell 10 out from the first heat dissipation port 11 at the top of the shell 10. The air heated by the heating component 20 blown out from the second heat dissipation port 12 on the side heats the space where the heating device is located in the form of forced convection, and the air heated by the heating component 20 blown out from the first heat dissipation port 11 on the top heats the space where the heating device is located in the form of a superposition of forced convection and natural convection, which can increase the temperature in the space where the heating device is located more quickly.

[0117] In this embodiment, when the working mode is the small area heating mode, the heating component is controlled to work, and the airflow is controlled to flow out only from the first heat dissipation port 11 through the airflow control component. After the temperature of the air in the shell 10 rises, the thermal motion of the molecules is enhanced, resulting in an increase in the average distance between the air molecules, thereby reducing the number of air molecules per unit volume and reducing their density. The air can directly float up and flow out from the first heat dissipation port 11 on the top of the shell 10. At this time, the air heated by the inner diameter heating component 20 of the shell 10 heats the space where the heating device is located in the form of natural convection. Since the fan component 30 stops working at this time, the energy consumption of the heating device is reduced.

[0118] In a replaceable embodiment of the present invention, when the working mode is a small area heating mode, the heating component is controlled to work, and the airflow is made to flow out only from the second heat dissipation port 12 through the airflow control component. At this time, the air heated by the inner diameter heating component 20 of the shell 10 flows out from the second heat dissipation port 12 on the side of the shell 10 and floats up, and heats the space where the heating device is located in the form of natural convection. Since the fan component 30 stops working at this time, the energy consumption of the heating device is reduced.

[0119] In a replaceable embodiment of the present invention, when the working mode is a small area heating mode, the heating component is controlled to work, and the airflow is made to flow out from the first heat dissipation port 11 and the second heat dissipation port 12 at the same time through the airflow control component. At this time, a part of the air heated by the inner diameter heating component 20 of the shell 10 flows out from the first heat dissipation port 11 on the top of the shell 10, and another part of the air heated by the inner diameter heating component 20 of the shell 10 flows out from the second heat dissipation port 12 on the side of the shell 10. Both of them heat the space where the heating device is located in the form of natural convection, and there is no need for the airflow control component to output power to drive the airflow movement, thereby reducing the energy consumption of the heating device.

[0120] In this embodiment, a heating mode instruction is received, and the working mode of the heating device is determined according to the heating mode instruction; the working modes of the heating device include a large-area heating mode and a small-area heating mode, which can perform heating corresponding to different indoor environments. When the heating device is used in a space with a lower temperature or a space with a faster heat loss, the heating component 20 is controlled to work and the airflow control component is controlled to drive the gas to flow through the heating component 20, and the airflow is controlled to be blown out from at least the second heat dissipation port 12. The heating device can heat the space where the heating device is located by forced convection, thereby quickly raising the temperature in the space where the heating device is located, so that the heating device The temperature in the space where the heating device is located reaches a preset temperature range; when the heating device is used in a space with a high temperature and slow heat loss, the heating component 20 is controlled to work, and the heating component 20 is controlled to work, and the airflow is made to flow out from at least one of the first heat dissipation port 11 and the second heat dissipation port 12 through the airflow control component. The heating component 20 heats the air in the shell 10, and heats the space where the heating device is located in the form of natural convection through at least one of the first heat dissipation port 11 and the second heat dissipation port 12, so that the temperature in the space where the heating device is located reaches a preset temperature range, and the airflow control component does not need to output power to drive the airflow movement, thereby reducing the energy consumption of the heating device. Through the above method, the adaptability of the heating device to different indoor environments is improved, so that the indoor temperature can be adjusted energy-savingly and efficiently, thereby improving the indoor thermal environment.

[0121] In one embodiment of the present invention, reference Figure 3 Before executing the step of receiving the heating mode instruction, the method includes the following steps:

[0122] S01. Obtaining environmental information of the space where the heating device is located;

[0123] S02. Generate a heating mode instruction according to the environmental information of the space where the heating device is located.

[0124] Optionally, in an embodiment of the present invention, the environmental information in the space where the heating device is located includes at least one of the temperature in the space where the heating device is located, the size of the space where the heating device is located, and the closed state of the space where the heating device is located. Optionally, in an embodiment of the present invention, when the temperature value corresponding to the temperature detection signal is not greater than the first preset temperature value, it is determined that the large-area heating mode is satisfied; when the size of the space where the heating device is located is not less than the first preset volume, it is determined that the large-area heating mode is satisfied; when the space where the heating device is located is in an unclosed state, it is determined that the large-area heating mode is satisfied; when the temperature in the space where the heating device is located is greater than the first preset temperature, the size of the space where the heating device is located is less than the first preset volume, and the space where the heating device is located is in a closed state, it is determined that the large-area heating mode is satisfied.

[0125] In another embodiment of the present invention, referring to Figure 4 , generating a heating mode instruction according to the environmental information in the space where the heating device is located specifically includes:

[0126] S021. When at least one of the environmental information in the space where the heating device is located satisfies the large-area heating mode, a heating mode instruction representing the large-area heating mode is generated;

[0127] S022. When the temperature in the space where the heating device is located, the size of the space where the heating device is located, and the closed state of the space where the heating device is located all meet the small area heating mode, a heating mode instruction representing the small area heating mode is generated. By generating a large area heating mode instruction or a small area heating mode instruction, the heating device can be controlled accordingly.

[0128] Optionally, in yet another embodiment of the present invention, referring to Figure 5 , determining the working mode of the heating device according to the heating mode instruction also includes:

[0129] S201, determining a target temperature control range of a space where a heating device is located according to a heating mode instruction;

[0130] S202, in the large area heating mode and the small area heating mode, respectively controlling the temperature in the space where the heating device is located to maintain it within the target temperature control range. Through the above method, the user does not need to adjust the heating device multiple times to make the indoor temperature reach a suitable temperature for the human body, and can avoid the indoor temperature being too high or too low, which affects people's comfort and health.

[0131] In this embodiment, in the large area heating mode and the small area heating mode, the steps of controlling the temperature in the space where the heating device is located to maintain within the target temperature control range respectively include:

[0132] When the working mode is the large-area heating mode and the temperature in the space where the heating device is located is lower than the minimum value of the target temperature range, the heating component is controlled to operate at maximum power, and the airflow control component is controlled to drive the gas to flow through the heating component at the fastest speed, and the airflow is controlled to blow out from at least the second heat dissipation port; when the working mode is the large-area heating mode and the temperature in the space where the heating device is located is within the target temperature range, the power of the heating component is controlled to be reduced, and the airflow control component is controlled to drive the gas to flow through the heating component 20 at a reduced speed, and the airflow is controlled to blow out from at least the second heat dissipation port;

[0133] When the working mode is a small area heating mode and the temperature in the space where the heating device is located is less than the minimum value of the target temperature range, the heating component is controlled to operate at maximum power, and the airflow is made to flow out from at least one of the first heat dissipation port and the second heat dissipation port through the airflow control component; when the working mode is a small area heating mode and the temperature in the space where the heating device is located is within the target temperature range, the power of the heating component is controlled to be reduced, and the airflow is made to flow out from at least one of the first heat dissipation port and the second heat dissipation port through the airflow control component. In this way, the space where the heating device is located can be heated faster, so as to increase the temperature in the space where the heating device is located faster.

[0134] Optionally, in one embodiment of the present invention, the environmental information in the space only includes the temperature in the space where the heating device is located, and the heating device also includes a temperature detection device and a control circuit, and the temperature detection device is electrically connected to the control circuit. The temperature detection device includes a thermocouple, an infrared thermometer, a temperature sensor, and other devices for detecting the temperature in the space where the heating device is located, and the control circuit includes a processor such as a CPU, an MCU, a DSP, or other types of control chips, which can process the signal obtained by the temperature detection device to obtain the temperature in the space where the heating device is located. When the temperature detection device detects the temperature in the space where the heating device is located and generates a corresponding temperature detection signal, the control circuit can obtain the corresponding temperature value according to the temperature detection signal.

[0135] In this embodiment, when the temperature value corresponding to the temperature detection signal is not greater than the first preset temperature value, it is determined that the large-area heating mode is met. At this time, a heating mode instruction representing the large-area heating mode is generated. The heating device receives the heating mode instruction representing the large-area heating mode and operates in the large-area heating mode. The heating component 20 is controlled to work and the airflow control component is controlled to drive the gas to flow through the heating component 20, and the airflow is controlled to be blown out from at least the second heat dissipation port 12. At this time, the air heated by the heating component 20 in the shell 10 is blown out from the second heat dissipation port on the side of the shell 10, so that the air heated by the heating component 20 in the shell 10 is forced to convect with the air in the space where the heating device is located, thereby quickly heating the space where the heating device is located to increase the temperature in the space where the heating device is located.

[0136] As an optional scheme but not a limitation, the heating device receives a heating mode instruction representing a large-area heating mode, operates in the large-area heating mode, controls the heating component 20 and the fan component 30 to operate at maximum power, and at least controls the second heat dissipation port 12 to open. At this time, the fan component 30 blows the air heated by the heating component 20 in the shell 10 out from the second heat dissipation port on the side of the shell 10, so that the air heated by the heating component 20 in the shell 10 is forced to convect with the air in the space where the heating device is located, so that the space where the heating device is located can be heated more quickly to increase the temperature in the space where the heating device is located more quickly.

[0137] In this embodiment, when the temperature value corresponding to the temperature detection signal is greater than the first preset temperature value, it is determined that the small area heating mode is satisfied, and a heating mode instruction representing the small area heating mode is generated at this time. The heating device receives the heating mode instruction representing the small area heating mode, operates in the small area heating mode, controls the heating component 20 to work, and makes the air flow out from at least one of the first heat dissipation port 11 and the second heat dissipation port 12 through the air flow control component. After the air in the shell 10 is heated by the heating component 20, the thermal motion of the molecules in the air is enhanced, resulting in an increase in the average distance between the air molecules, thereby reducing the number of air molecules per unit volume, and reducing their density, so that they can directly float up and flow out from the first heat dissipation port 11 on the top of the shell 10 and / or the second heat dissipation port 12 on the side of the shell 10. At this time, the air heated by the heating component 20 in the shell 10 heats the space where the heating device is located in the form of natural convection.

[0138] In this embodiment, the heating device receives a heating mode instruction representing a small area heating mode, and also includes determining a target temperature control interval of the space where the heating device is located according to the heating mode instruction representing the small area heating mode. The target temperature control interval can be set by the user according to his or her own preferences. In the embodiment of the present invention, the specific temperature range of the target temperature control interval is not limited. In this embodiment, the first preset temperature value is less than any value in the target temperature control interval. Optionally, the first preset temperature value and can be equal to the minimum value of the target temperature control interval. In the small area heating mode, when the temperature in the space where the heating device is located is close to the maximum value of the target temperature control interval, the power of the heating component 20 is reduced, thereby reducing the heating efficiency of the heating device. When the temperature in the space where the heating device is located is close to the minimum value of the target temperature control interval, the power of the heating component 20 is increased, thereby increasing the heating efficiency of the heating device, thereby controlling the temperature in the space where the heating device is located to be maintained within the target temperature control interval.

[0139] In this embodiment, when the indoor temperature is low, the user generally needs to quickly increase the indoor temperature so that the indoor temperature reaches a comfortable temperature range. In this embodiment, by obtaining the temperature in the space where the heating device is located, when the temperature in the space where the heating device is located is not greater than the first preset temperature value, it is determined that the large area heating mode is satisfied, and a heating mode instruction representing the large area heating mode is generated, so that the heating device is operated in the large area heating mode, and the indoor air is heated by forced convection of the air heated by the heating component 20 inside the heating device and the air in the space where the heating device is located, thereby quickly raising the indoor temperature so that the indoor temperature reaches a comfortable temperature range. When the temperature in the space where the heating device is located is greater than the first preset temperature value, it is determined that the small area heating mode is satisfied, and a heating mode instruction representing the small area heating mode is generated, so that the heating device is operated in the small area heating mode. At this time, it is not necessary for the airflow control component to output power to drive the airflow movement, and the indoor air is heated by the air heated by the heating component 20 inside the heating device and the air in the space where the heating device is located in the form of natural convection, thereby reducing the energy consumption of the heating device. Users can also set the target temperature control range by themselves, and the heating device can control the temperature in the space to maintain it within the target temperature control range, thereby preventing the indoor temperature from being too high or too low, affecting people's comfort and health.

[0140] Optionally, in another embodiment of the present invention, the environmental information in the space only includes the size of the space where the heating device is located, and the heating device also includes a laser radar component and a control circuit, and the laser radar component is electrically connected to the control circuit. The laser radar component can scan the environment in the space where the heating device is located, and establish a 3D image of the space where the heating device is located. The control circuit includes a processor such as a CPU, MCU, DSP, or other types of control chips, which can process the signal obtained by the laser radar component to obtain the size of the space where the heating device is located. When the laser radar component scans the space where the heating device is located, and establishes a 3D image of the space where the heating device is located, and generates a corresponding image signal, the control circuit can obtain the size of the space where the heating device is located based on the image signal.

[0141] In this embodiment, when the space where the heating device is located is not less than the first preset volume, it is determined that the large-area heating mode is satisfied, and a heating mode instruction representing the large-area heating mode is generated at this time. The heating device receives the heating mode instruction representing the large-area heating mode and operates in the large-area heating mode. At this time, the heating component is controlled to work and the airflow control component is controlled to drive the gas to flow through the heating component, and the airflow is controlled to be blown out from at least the second heat dissipation port 12. At this time, the air heated by the heating component 20 in the shell 10 is blown out from the second heat dissipation port on the side of the shell 10, so that the air heated by the heating component 20 in the shell 10 is forced to convect with the air in the space where the heating device is located, thereby quickly heating the space where the heating device is located to increase the temperature in the space where the heating device is located.

[0142] As an optional scheme but not a limitation, the heating device receives a heating mode instruction representing a large-area heating mode, operates in the large-area heating mode, controls the heating component 20 and the airflow control component to operate at maximum power, and at least controls the second heat dissipation port 12 to open. At this time, the airflow control component blows the air heated by the heating component 20 in the shell 10 out from the second heat dissipation port on the side of the shell 10, so that the air heated by the heating component 20 in the shell 10 is forced to convect with the air in the space where the heating device is located, so that the space where the heating device is located can be heated more quickly, so as to increase the temperature in the space where the heating device is located more quickly.

[0143] In this embodiment, the heating device receives a heating mode instruction representing a large-area heating mode, and also includes determining a target temperature control range for the space where the heating device is located according to the heating mode instruction representing the large-area heating mode. The target temperature control range can be set by the user. In the large-area heating mode, when the temperature in the space where the heating device is located is close to the maximum value of the target temperature control range, the power of the heating component 20 is reduced, thereby reducing the heating efficiency of the heating device. When the temperature in the space where the heating device is located is close to the minimum value of the target temperature control range, the power of the heating component 20 is increased, thereby improving the heating efficiency of the heating device, thereby controlling the temperature in the space where the heating device is located to be maintained within the target temperature control range.

[0144] In this embodiment, when the space where the heating device is located is smaller than the first preset volume, it is determined that the small area heating mode is satisfied. At this time, a heating mode instruction representing the small area heating mode is generated. The heating device receives the heating mode instruction representing the small area heating mode, operates in the small area heating mode, controls the heating component to work, and uses the airflow control component to make the airflow flow out from at least one of the first heat dissipation port 11 and the second heat dissipation port 12. After the air in the shell 10 is heated by the heating component 20, the thermal motion of the molecules in the air is enhanced, resulting in an increase in the average distance between the air molecules, thereby reducing the number of air molecules per unit volume and reducing their density. The air molecules can directly float up and flow out from the first heat dissipation port 11 on the top of the shell 10 and / or the second heat dissipation port 12 on the side of the shell 10. At this time, the air heated by the heating component 20 inside the shell 10 heats the space where the heating device is located in the form of natural convection.

[0145] In this embodiment, the heating device receives a heating mode instruction representing a small area heating mode, and also includes determining a target temperature control range for the space where the heating device is located according to the heating mode instruction representing the small area heating mode. The target temperature control range can be set by the user. In the small area heating mode, when the temperature in the space where the heating device is located is close to the maximum value of the target temperature control range, the power of the heating component 20 is reduced, thereby reducing the heating efficiency of the heating device. When the temperature in the space where the heating device is located is close to the minimum value of the target temperature control range, the power of the heating component 20 is increased, thereby improving the heating efficiency of the heating device, thereby controlling the temperature in the space where the heating device is located to be maintained within the target temperature control range.

[0146] In this embodiment, when the indoor space is larger, heat generally loses faster, resulting in slow indoor temperature rise, while when the indoor space is smaller, the temperature loses slower, but the heating device also requires higher energy consumption to maintain the bedroom temperature within a comfortable temperature range. In this embodiment, by obtaining the size of the space where the heating device is located, when the size of the space where the heating device is located is not less than the first preset volume, it is determined that the large-area heating mode is satisfied, and a heating mode instruction representing the large-area heating mode is generated, so that the heating device operates in the large-area heating mode, and the indoor air is heated by forced convection between the air heated by the heating component 20 inside the heating device and the air in the space where the heating device is located, thereby quickly raising the indoor temperature and making the indoor temperature reach a comfortable temperature range. When the size of the space where the heating device is located is less than the preset first volume, it is determined that the small-area heating mode is satisfied, and a heating mode instruction representing the small-area heating mode is generated, so that the heating device operates in the small-area heating mode, the heating component 20 is controlled to work, and the airflow is made to flow out from at least one of the first heat dissipation port 11 and the second heat dissipation port 12 through the airflow control component, and the indoor air is heated by natural convection between the air heated by the heating component 20 inside the heating device and the air in the space where the heating device is located. At this time, the airflow control component does not need to output power to drive the airflow movement, thereby reducing the energy consumption of the heating device. Users can also set the target temperature control range by themselves, and the heating device can control the temperature in the space to maintain it within the target temperature control range, thereby preventing the indoor temperature from being too high or too low, affecting people's comfort and health.

[0147] Optionally, in another embodiment of the present invention, the environmental information in the space only includes the closed state of the space where the heating device is located, and the heating device also includes a laser radar component and a control circuit, and the laser radar component is electrically connected to the control circuit. The laser radar component can scan the environment in the space where the heating device is located, and establish a 3D image of the space where the heating device is located. The control circuit includes a processor such as a CPU, MCU, DSP, or other types of control chips, which can process the signal obtained by the laser radar component to obtain the closed state of the space where the heating device is located. When the laser radar component scans the space where the heating device is located, and establishes a 3D image of the space where the heating device is located, and generates a corresponding image signal, the control circuit can obtain the closed state of the space where the heating device is located according to the image signal.

[0148] Optionally, in one embodiment of the present invention, the heating device includes a camera assembly and a control circuit, and the camera assembly is electrically connected to the control circuit. The camera assembly includes at least one camera, which can take pictures of the environment in the space where the heating device is located, and the control circuit includes a processor such as a CPU, MCU, DSP, or other types of control chips, which can process the signal obtained by the camera assembly to obtain the closed state of the space where the heating device is located. When the camera assembly takes a picture of the space environment where the heating device is located and generates a corresponding picture signal, the control circuit can obtain the closed state of the space where the heating device is located according to the picture signal.

[0149] In an embodiment of the present invention, the closed state of the space where the heating device is located is a relatively closed state of the space, which is mainly used to determine whether the space where the heating device is located has doors, windows or other passages open to connect with the outside world, so that the space where the heating device is located can quickly dissipate heat.

[0150] In this embodiment, when the space where the heating device is located is in an unclosed state, it is determined that the large-area heating mode is met. At this time, a heating mode instruction representing the large-area heating mode is generated. The heating device receives the heating mode instruction representing the large-area heating mode, operates in the large-area heating mode, controls the heating component to work and controls the airflow control component to drive the gas to flow through the heating component 20, and controls the airflow to be blown out from at least the second heat dissipation port 12. At this time, the air heated by the heating component 20 in the shell 10 is blown out from the second heat dissipation port on the side of the shell 10, so that the air heated by the heating component 20 in the shell 10 is forced to convect with the air in the space where the heating device is located, thereby quickly heating the space where the heating device is located to increase the temperature in the space where the heating device is located.

[0151] As an optional scheme but not a limitation, the heating device receives a heating mode instruction representing a large-area heating mode, operates in the large-area heating mode, controls the heating component 20 and the fan component 30 to operate at maximum power, and at least controls the second heat dissipation port 12 to open. At this time, the air heated by the heating component 20 in the shell 10 is blown out from the second heat dissipation port on the side of the shell 10, so that the air heated by the heating component 20 in the shell 10 is forced to convect with the air in the space where the heating device is located, so that the space where the heating device is located can be heated more quickly to increase the temperature in the space where the heating device is located more quickly.

[0152] In this embodiment, the heating device receives a heating mode instruction representing a large-area heating mode, and also includes determining a target temperature control range for the space where the heating device is located according to the heating mode instruction representing the large-area heating mode. The target temperature control range can be set by the user. In the large-area heating mode, when the temperature in the space where the heating device is located is close to the maximum value of the target temperature control range, the power of the heating component 20 is reduced, thereby reducing the heating efficiency of the heating device. When the temperature in the space where the heating device is located is close to the minimum value of the target temperature control range, the power of the heating component 20 is increased, thereby improving the heating efficiency of the heating device, thereby controlling the temperature in the space where the heating device is located to be maintained within the target temperature control range.

[0153] In this embodiment, when the space where the heating device is located is in a closed state, it is determined that the small area heating mode is met. At this time, a heating mode instruction representing the small area heating mode is generated. The heating device receives the heating mode instruction representing the small area heating mode, operates in the small area heating mode, controls the heating component 20 to work, and uses the airflow control component to make the airflow flow out from at least one of the first heat dissipation port 11 and the second heat dissipation port 12. After the air in the shell 10 is heated by the heating component 20, the thermal motion of the molecules in the air is enhanced, resulting in an increase in the average distance between the air molecules, thereby reducing the number of air molecules per unit volume and reducing their density. The air molecules can directly float up and flow out from the first heat dissipation port 11 on the top of the shell 10 and / or the second heat dissipation port 12 on the side of the shell 10. At this time, the air heated by the heating component 20 inside the shell 10 heats the space where the heating device is located in the form of natural convection.

[0154] In this embodiment, the heating device receives a heating mode instruction representing a small area heating mode, and also includes determining a target temperature control range for the space where the heating device is located according to the heating mode instruction representing the small area heating mode. The target temperature control range can be set by the user. In the small area heating mode, when the temperature in the space where the heating device is located is close to the maximum value of the target temperature control range, the power of the heating component 20 is reduced, thereby reducing the heating efficiency of the heating device. When the temperature in the space where the heating device is located is close to the minimum value of the target temperature control range, the power of the heating component 20 is increased, thereby improving the heating efficiency of the heating device, thereby controlling the temperature in the space where the heating device is located to be maintained within the target temperature control range.

[0155] In this embodiment, when the indoor space is in an unclosed state, heat generally loses faster, resulting in slow indoor temperature rise, while when the indoor space is in a closed state, the temperature loses more slowly, but the heating device also requires higher energy consumption to maintain the bedroom temperature within a comfortable temperature range. In this embodiment, by obtaining the closed state of the space where the heating device is located, when the space where the heating device is located is in an unclosed state, it is determined that the large-area heating mode is satisfied, and a heating mode instruction representing the large-area heating mode is generated, so that the heating device operates in the large-area heating mode, and the indoor air is heated by forced convection between the air heated by the heating component 20 inside the heating device and the air in the space where the heating device is located, thereby quickly raising the indoor temperature and making the indoor temperature reach a comfortable temperature range. When the space where the heating device is located is in a closed state, it is determined that the small-area heating mode is satisfied, and a heating mode instruction representing the small-area heating mode is generated, so that the heating device operates in the small-area heating mode, and the fan component 30 is turned off. The indoor air is heated by natural convection between the air heated by the heating component 20 inside the heating device and the air in the space where the heating device is located. At this time, the airflow control component does not need to output power to drive the airflow movement, thereby reducing the energy consumption of the heating device. Users can also set the target temperature control range by themselves, and the heating device can control the temperature in the space to maintain it within the target temperature control range, thereby preventing the indoor temperature from being too high or too low, affecting people's comfort and health.

[0156] Optionally, in another embodiment of the present invention, the environmental information in the space includes the temperature in the space where the heating device is located and the size of the space where the heating device is located. The heating device also includes a temperature detection device, a laser radar component and a control circuit, and the temperature detection device and the laser radar component are both electrically connected to the control circuit. The temperature detection device includes a thermocouple, an infrared thermometer, a temperature sensor and other devices for detecting the temperature in the space where the heating device is located. The laser radar component can scan the environment in the space where the heating device is located and establish a 3D image of the space where the heating device is located. The control circuit includes a processor such as a CPU, MCU, DSP or other types of control chips, which can process the signals obtained by the temperature detection device and the laser radar component, thereby obtaining the temperature in the space where the heating device is located and the size of the space where the heating device is located. The temperature detection device detects the temperature in the space where the heating device is located and generates a corresponding temperature detection signal. The control circuit can obtain the corresponding temperature value according to the temperature detection signal. The laser radar component scans the space where the heating device is located and establishes a 3D image of the space where the heating device is located, and generates a corresponding image signal. The control circuit can obtain the size of the space where the heating device is located according to the image signal.

[0157] In this embodiment, when the temperature value corresponding to the temperature detection signal is not greater than the first preset temperature value, it is determined that the large area heating mode is satisfied, and when the size of the space where the heating device is located is not less than the first preset volume, it is determined that the large area heating mode is satisfied. When at least one of the temperature in the space where the heating device is located and the size of the space where the heating device is located satisfies the large area heating mode, a heating mode instruction representing the large area heating mode is generated, and the heating device receives the heating mode instruction representing the large area heating mode, operates in the large area heating mode, controls the heating component 20 to work and controls the air flow control component to drive the gas to flow through the heating component 20, and controls the air flow to blow out from at least the second heat dissipation port 12. At this time, the air heated by the heating component 20 in the shell 10 is blown out from the second heat dissipation port on the side of the shell 10, so that the air heated by the heating component 20 in the shell 10 is forced to convect with the air in the space where the heating device is located, thereby quickly heating the space where the heating device is located to increase the temperature in the space where the heating device is located.

[0158] As an optional scheme but not a limitation, the heating device receives a heating mode instruction representing a large-area heating mode, operates in the large-area heating mode, controls the heating component 20 and the airflow control component to operate at maximum power, and at least controls the second heat dissipation port 12 to open. At this time, the air heated by the heating component 20 in the shell 10 is blown out from the second heat dissipation port on the side of the shell 10, so that the air heated by the heating component 20 in the shell 10 is forced to convect with the air in the space where the heating device is located, so that the space where the heating device is located can be heated more quickly to increase the temperature in the space where the heating device is located more quickly.

[0159] In this embodiment, the heating device receives a heating mode instruction representing a large-area heating mode, and also includes determining a target temperature control range for the space where the heating device is located according to the heating mode instruction representing the large-area heating mode. The target temperature control range can be set by the user. In the large-area heating mode, when the temperature in the space where the heating device is located is close to the maximum value of the target temperature control range, the power of the heating component 20 is reduced, thereby reducing the heating efficiency of the heating device. When the temperature in the space where the heating device is located is close to the minimum value of the target temperature control range, the power of the heating component 20 is increased, thereby improving the heating efficiency of the heating device, thereby controlling the temperature in the space where the heating device is located to be maintained within the target temperature control range.

[0160] In this embodiment, when the temperature value corresponding to the temperature detection signal is greater than the first preset temperature value, it is determined that the small area heating mode is satisfied, and when the space where the heating device is located is smaller than the first preset volume, it is determined that the small area heating mode is satisfied. When the temperature in the space where the heating device is located and the size of the space where the heating device is located simultaneously satisfy the small area heating mode, a heating mode instruction representing the small area heating mode is generated, and the heating device receives the heating mode instruction representing the small area heating mode, operates in the small area heating mode, controls the heating component 20 to work, and makes the air flow out from at least one of the first heat dissipation port 11 and the second heat dissipation port 12 through the airflow control component. After the air in the shell 10 is heated by the heating component 20, the thermal motion of the molecules in the air is enhanced, resulting in an increase in the average distance between the air molecules, thereby reducing the number of air molecules per unit volume, and reducing their density, so that they can directly float up and flow out from the first heat dissipation port 11 on the top of the shell 10 and / or the second heat dissipation port 12 on the side of the shell 10. At this time, the air heated by the heating component 20 in the shell 10 heats the space where the heating device is located in the form of natural convection.

[0161] In this embodiment, the heating device receives a heating mode instruction representing a small area heating mode, and also includes determining a target temperature control interval of the space where the heating device is located according to the heating mode instruction representing the small area heating mode. The target temperature control interval can be set by the user. In this embodiment, the first preset temperature value is less than any value in the target temperature control interval. Optionally, the first preset temperature value can be equal to the minimum value of the target temperature control interval. In the small area heating mode, when the temperature in the space where the heating device is located is close to the maximum value of the target temperature control interval, the power of the heating component 20 is reduced, thereby reducing the heating efficiency of the heating device. When the temperature in the space where the heating device is located is close to the minimum value of the target temperature control interval, the power of the heating component 20 is increased, thereby increasing the heating efficiency of the heating device, thereby controlling the temperature in the space where the heating device is located to be maintained within the target temperature control interval.

[0162] In this embodiment, when the indoor temperature is low, the user generally needs to quickly raise the indoor temperature so that the indoor temperature reaches a comfortable temperature range. At the same time, when the indoor space is large, the heat is generally lost faster, resulting in slow indoor temperature rise. When the indoor space is small, the temperature loss is slower, but the heating device also requires higher energy consumption to maintain the bedroom temperature within a comfortable temperature range. In this embodiment, by obtaining the temperature in the space where the heating device is located and the size of the space where the heating device is located, when the temperature in the space where the heating device is located is not greater than the first preset temperature value and / or the size of the space where the heating device is located is not less than the first preset volume, it is determined that the large-area heating mode is met, and a heating mode instruction characterizing the large-area heating mode is generated, so that the heating device operates in the large-area heating mode, and the indoor air is heated by forced convection of the air heated by the heating component 20 inside the heating device and the air in the space where the heating device is located, thereby quickly raising the indoor temperature so that the indoor temperature reaches a comfortable temperature range. When the heating device is located in the space When the temperature in the room is greater than the first preset temperature value and the size of the space where the heating device is located is less than the preset first volume, it is determined that the small area heating mode is satisfied, and a heating mode instruction representing the small area heating mode is generated, so that the heating device operates in the small area heating mode, controls the heating component 20 to work, and uses the airflow control component to make the airflow flow out from at least one of the first heat dissipation port 11 and the second heat dissipation port 12, and heats the indoor air in the form of natural convection between the air heated by the heating component 20 inside the heating device and the air in the space where the heating device is located. At this time, the airflow control component does not need to output power to drive the airflow movement, which reduces the energy consumption of the heating device. In addition, the user can set the target temperature control range by himself, and the heating device can control the temperature in the space to maintain it in the target temperature control range, thereby preventing the indoor temperature from being too high or too low, affecting people's comfort and health.

[0163] Optionally, in another embodiment of the present invention, the environmental information in the space includes the temperature in the space where the heating device is located and the closed state of the space where the heating device is located. The heating device also includes a temperature detection device, a laser radar component and a control circuit, and the temperature detection device and the laser radar component are both electrically connected to the control circuit. The temperature detection device includes a thermocouple, an infrared thermometer, a temperature sensor and other devices for detecting the temperature in the space where the heating device is located. The laser radar component can scan the environment in the space where the heating device is located and establish a 3D image of the space where the heating device is located. The control circuit includes a processor such as a CPU, MCU, DSP or other types of control chips, which can process the signals obtained by the temperature detection device and the laser radar component, thereby obtaining the temperature in the space where the heating device is located and the closed state of the space where the heating device is located. The temperature detection device detects the temperature in the space where the heating device is located and generates a corresponding temperature detection signal. The control circuit can obtain the corresponding temperature value according to the temperature detection signal; the laser radar component scans the space where the heating device is located, and establishes a 3D image of the space where the heating device is located, and generates a corresponding image signal. The control circuit can obtain the closed state of the space where the heating device is located according to the image signal.

[0164] Optionally, in one embodiment of the present invention, the heating device includes a temperature detection device, a camera assembly and a control circuit, and the temperature detection device and the camera assembly are both electrically connected to the control circuit. The temperature detection device includes a device such as a thermocouple, an infrared thermometer, a temperature sensor, etc. for detecting the temperature in the space where the heating device is located. The camera assembly includes at least one camera, which can take pictures of the environment in the space where the heating device is located. The control circuit includes a processor such as a CPU, an MCU, a DSP, or other types of control chips, which can process the signals obtained by the temperature detection device and the camera assembly, so as to obtain the temperature in the space where the heating device is located and the closed state of the space where the heating device is located. The temperature detection device detects the temperature in the space where the heating device is located and generates a corresponding temperature detection signal, and the control circuit can obtain the corresponding temperature value according to the temperature detection signal; the camera assembly takes a picture of the environment in the space where the heating device is located and generates a corresponding picture signal, and the control circuit can obtain the closed state of the space where the heating device is located according to the picture signal.

[0165] In an embodiment of the present invention, the closed state of the space where the heating device is located is a relatively closed state of the space, which is mainly used to determine whether the space where the heating device is located has doors, windows or other passages open to connect with the outside world, so that the space where the heating device is located can quickly dissipate heat.

[0166] In this embodiment, when the temperature value corresponding to the temperature detection signal is not greater than the first preset temperature value, it is determined that the large-area heating mode is satisfied, and when the space where the heating device is located is in an unclosed state, it is determined that the large-area heating mode is satisfied. When at least one of the temperature in the space where the heating device is located and the closed state of the space where the heating device is located satisfies the large-area heating mode, a heating mode instruction representing the large-area heating mode is generated, and the heating device receives the heating mode instruction representing the large-area heating mode, operates in the large-area heating mode, controls the heating component 20 to work and controls the airflow control component to drive the gas to flow through the heating component 20, and controls the airflow to blow out from at least the second heat dissipation port 12. At this time, the air heated by the heating component 20 in the shell 10 is blown out from the second heat dissipation port on the side of the shell 10, so that the air heated by the heating component 20 in the shell 10 is forced to convect with the air in the space where the heating device is located, thereby quickly heating the space where the heating device is located to increase the temperature in the space where the heating device is located.

[0167] As an optional scheme but not a limitation, the heating device receives a heating mode instruction representing a large-area heating mode, operates in the large-area heating mode, controls the heating component 20 and the fan component 30 to operate at maximum power, and at least controls the second heat dissipation port 12 to open. At this time, the fan component 30 blows the air heated by the heating component 20 in the shell 10 out from the second heat dissipation port on the side of the shell 10, so that the air heated by the heating component 20 in the shell 10 is forced to convect with the air in the space where the heating device is located, so that the space where the heating device is located can be heated more quickly to increase the temperature in the space where the heating device is located more quickly.

[0168] In this embodiment, the heating device receives a heating mode instruction representing a large-area heating mode, and also includes determining a target temperature control interval of the space where the heating device is located according to the heating mode instruction representing the large-area heating mode. The target temperature control interval can be set by the user according to his or her own preferences. In the embodiment of the present invention, the specific temperature range of the target temperature control interval is not limited. In the large-area heating mode, when the temperature in the space where the heating device is located is close to the maximum value of the target temperature control interval, the power of the heating component 20 is reduced, thereby reducing the heating efficiency of the heating device. When the temperature in the space where the heating device is located is close to the minimum value of the target temperature control interval, the power of the heating component 20 is increased, thereby increasing the heating efficiency of the heating device, thereby controlling the temperature in the space where the heating device is located to be maintained within the target temperature control interval.

[0169] In this embodiment, when the temperature value corresponding to the temperature detection signal is greater than the first preset temperature value, it is determined that the small area heating mode is satisfied, and when the space where the heating device is located is in a closed state, it is determined that the small area heating mode is satisfied. When the temperature in the space where the heating device is located and the space where the heating device is located is in a closed state and both satisfy the small area heating mode, a heating mode instruction representing the small area heating mode is generated, and the heating device receives the heating mode instruction representing the small area heating mode, operates in the small area heating mode, controls the heating component 20 to work, and makes the air flow out from at least one of the first heat dissipation port 11 and the second heat dissipation port 12 through the air flow control component. After the air in the shell 10 is heated by the heating component 20, the thermal motion of the molecules in the air is enhanced, resulting in an increase in the average distance between the air molecules, thereby reducing the number of air molecules per unit volume, and reducing their density, so that they can directly float up and flow out from the first heat dissipation port 11 on the top of the shell 10 and / or the second heat dissipation port 12 on the side of the shell 10. At this time, the air heated by the heating component 20 in the shell 10 heats the space where the heating device is located in the form of natural convection.

[0170] In this embodiment, the heating device receives a heating mode instruction representing a small area heating mode, and also includes determining a target temperature control interval of the space where the heating device is located according to the heating mode instruction representing the small area heating mode. The target temperature control interval can be set by the user. In this embodiment, the first preset temperature value is less than any value in the target temperature control interval. Optionally, the first preset temperature value can be equal to the minimum value of the target temperature control interval. In the small area heating mode, when the temperature in the space where the heating device is located is close to the maximum value of the target temperature control interval, the power of the heating component 20 is reduced, thereby reducing the heating efficiency of the heating device. When the temperature in the space where the heating device is located is close to the minimum value of the target temperature control interval, the power of the heating component 20 is increased, thereby increasing the heating efficiency of the heating device, thereby controlling the temperature in the space where the heating device is located to be maintained within the target temperature control interval.

[0171] In this embodiment, when the indoor temperature is low, the user generally needs to quickly raise the indoor temperature so that the indoor temperature reaches a comfortable temperature range. At the same time, when the indoor space is in an unclosed state, heat is generally lost quickly, resulting in slow indoor temperature rise. When the indoor space is in a closed state, the temperature loss is slow, but the heating device also requires higher energy consumption to maintain the bedroom temperature within a comfortable temperature range. In this embodiment, by obtaining the temperature in the space where the heating device is located and the closed state of the space where the heating device is located, when the temperature in the space where the heating device is located is not greater than the first preset temperature value and / or the space where the heating device is located is in an unclosed state, it is determined that the large-area heating mode is met, and a heating mode instruction representing the large-area heating mode is generated, so that the heating device operates in the large-area heating mode, and the indoor air is heated by forced convection of the air heated by the heating component 20 inside the heating device and the air in the space where the heating device is located, thereby quickly raising the indoor temperature so that the indoor temperature reaches a comfortable temperature range. When the heating device is in When the temperature in the space is greater than the first preset temperature value and the space where the heating device is located is in a closed state, it is determined that the small area heating mode is met, and a heating mode instruction representing the small area heating mode is generated, so that the heating device operates in the small area heating mode, controls the heating component 20 to work, and uses the airflow control component to make the airflow flow out from at least one of the first heat dissipation port 11 and the second heat dissipation port 12, and heats the indoor air in the form of natural convection between the air heated by the heating component 20 inside the heating device and the air in the space where the heating device is located. At this time, the airflow control component does not need to output power to drive the airflow movement, which reduces the energy consumption of the heating device. In addition, the user can set the target temperature control range by himself, and the heating device can control the temperature in the space to maintain it in the target temperature control range, thereby preventing the indoor temperature from being too high or too low, affecting people's comfort and health.

[0172] Optionally, in another embodiment of the present invention, the environmental information in the space includes the size of the space where the heating device is located and the closed state of the space where the heating device is located. The heating device also includes a laser radar component and a control circuit, and the laser radar component is electrically connected to the control circuit. The laser radar component can scan the environment in the space where the heating device is located and establish a 3D image of the space where the heating device is located. The control circuit includes a processor such as a CPU, MCU, DSP, or other types of control chips, which can process the signal obtained by the laser radar component to obtain the size of the space where the heating device is located and the closed state of the space where the heating device is located. When the laser radar component scans the space where the heating device is located, and establishes a 3D image of the space where the heating device is located, and generates a corresponding image signal, the control circuit can obtain the size of the space where the heating device is located and the closed state of the space where the heating device is located according to the image signal.

[0173] Optionally, in one embodiment of the present invention, the heating device further includes a laser radar component, a camera component and a control circuit, and the laser radar component and the camera component are both electrically connected to the control circuit. The laser radar component can scan the environment in the space where the heating device is located, and establish a 3D image of the space where the heating device is located. The camera component includes at least one camera, which can take pictures of the environment in the space where the heating device is located. The control circuit includes a processor such as a CPU, MCU, DSP, or other types of control chips, which can process the signal obtained by the laser radar component to obtain the size of the space where the heating device is located, and process the signal obtained by the camera component to obtain the closed state of the space where the heating device is located. The laser radar component scans the space where the heating device is located, and establishes a 3D image of the space where the heating device is located, and generates a corresponding image signal. The control circuit can obtain the size of the space where the heating device is located according to the image signal, and the camera component takes a picture of the environment of the space where the heating device is located, and generates a corresponding image signal. The control circuit can obtain the closed state of the space where the heating device is located according to the image signal.

[0174] In an embodiment of the present invention, the closed state of the space where the heating device is located is a relatively closed state of the space, which is mainly used to determine whether the space where the heating device is located has doors, windows or other passages open to connect with the outside world, so that the space where the heating device is located can quickly dissipate heat.

[0175] In this embodiment, when the space where the heating device is located is not less than the first preset volume and / or the space where the heating device is located is in an unclosed state, it is determined that the large-area heating mode is met. At this time, a heating mode instruction representing the large-area heating mode is generated. The heating device receives the heating mode instruction representing the large-area heating mode, operates in the large-area heating mode, controls the heating component 20 to work and controls the airflow control component to drive the gas to flow through the heating component 20, and controls the airflow to be blown out from at least the second heat dissipation port 12. At this time, the air heated by the heating component 20 in the shell 10 is blown out from the second heat dissipation port on the side of the shell 10, so that the air heated by the heating component 20 in the shell 10 is forced to convect with the air in the space where the heating device is located, thereby quickly heating the space where the heating device is located to increase the temperature in the space where the heating device is located.

[0176] As an optional scheme but not a limitation, the heating device receives a heating mode instruction representing a large-area heating mode, operates in the large-area heating mode, controls the heating component 20 and the fan component 30 to operate at maximum power, and at least controls the second heat dissipation port 12 to open. At this time, the fan component 30 blows the air heated by the heating component 20 in the shell 10 out from the second heat dissipation port on the side of the shell 10, so that the air heated by the heating component 20 in the shell 10 is forced to convect with the air in the space where the heating device is located, so that the space where the heating device is located can be heated more quickly to increase the temperature in the space where the heating device is located more quickly.

[0177] In this embodiment, the heating device receives a heating mode instruction representing a large-area heating mode, and also includes determining a target temperature control range for the space where the heating device is located according to the heating mode instruction representing the large-area heating mode. The target temperature control range can be set by the user. In the large-area heating mode, when the temperature in the space where the heating device is located is close to the maximum value of the target temperature control range, the power of the heating component 20 is reduced, thereby reducing the heating efficiency of the heating device. When the temperature in the space where the heating device is located is close to the minimum value of the target temperature control range, the power of the heating component 20 is increased, thereby improving the heating efficiency of the heating device, thereby controlling the temperature in the space where the heating device is located to be maintained within the target temperature control range.

[0178] In this embodiment, when the space where the heating device is located is smaller than the first preset volume and the space where the heating device is located is in a closed state, it is determined that the small area heating mode is satisfied. At this time, a heating mode instruction representing the small area heating mode is generated. The heating device receives the heating mode instruction representing the small area heating mode, operates in the small area heating mode, controls the heating component 20 to work, controls the fan component 30 to stop working, and controls at least one of the first heat dissipation port 11 and the second heat dissipation port 12 to open. After the air in the shell 10 is heated by the heating component 20, the thermal motion of the molecules in the air is enhanced, resulting in an increase in the average distance between the air molecules, thereby reducing the number of air molecules per unit volume and reducing their density. The air molecules can directly float up and flow out from the first heat dissipation port 11 on the top of the shell 10 and / or the second heat dissipation port 12 on the side of the shell 10. At this time, the air heated by the heating component 20 inside the shell 10 heats the space where the heating device is located in the form of natural convection.

[0179] In this embodiment, the heating device receives a heating mode instruction representing a small area heating mode, and also includes determining a target temperature control range for the space where the heating device is located according to the heating mode instruction representing the small area heating mode. The target temperature control range can be set by the user. In the small area heating mode, when the temperature in the space where the heating device is located is close to the maximum value of the target temperature control range, the power of the heating component 20 is reduced, thereby reducing the heating efficiency of the heating device. When the temperature in the space where the heating device is located is close to the minimum value of the target temperature control range, the power of the heating component 20 is increased, thereby improving the heating efficiency of the heating device, thereby controlling the temperature in the space where the heating device is located to be maintained within the target temperature control range.

[0180] In this embodiment, when the indoor space is large or the indoor space is in an unclosed state, heat generally loses faster, resulting in slow indoor temperature rise. When the indoor space is small or the indoor space is in a closed state, the temperature loses slower, but the heating device also requires higher energy consumption to maintain the bedroom temperature within a comfortable temperature range. In this embodiment, by obtaining the size of the space where the heating device is located, when the size of the space where the heating device is located is not less than the first preset volume, it is determined that the large-area heating mode is satisfied, and a heating mode instruction representing the large-area heating mode is generated, so that the heating device operates in the large-area heating mode, and the indoor air is heated by forced convection between the air heated by the heating component 20 inside the heating device and the air in the space where the heating device is located, thereby quickly raising the indoor temperature and making the indoor temperature reach a comfortable temperature range. When the size of the space where the heating device is located is less than the preset first volume, it is determined that the small-area heating mode is satisfied, and a heating mode instruction representing the small-area heating mode is generated, so that the heating device operates in the small-area heating mode, the heating component 20 is controlled to work, and the airflow is made to flow out from at least one of the first heat dissipation port 11 and the second heat dissipation port 12 through the airflow control component, and the indoor air is heated by natural convection between the air heated by the heating component 20 inside the heating device and the air in the space where the heating device is located. At this time, the airflow control component does not need to output power to drive the airflow movement, thereby reducing the energy consumption of the heating device. Users can also set the target temperature control range by themselves, and the heating device can control the temperature in the space to maintain it within the target temperature control range, thereby preventing the indoor temperature from being too high or too low, affecting people's comfort and health.

[0181] Optionally, in another embodiment of the present invention, the environmental information in the space includes the temperature in the space where the heating device is located, the size of the space where the heating device is located, and the closed state of the space where the heating device is located. The heating device also includes a temperature detection device, a laser radar component, and a control circuit. The temperature detection device and the laser radar component are both electrically connected to the control circuit. The temperature detection device includes a thermocouple, an infrared thermometer, a temperature sensor, and other devices for detecting the temperature in the space where the heating device is located. The laser radar component can scan the environment in the space where the heating device is located and establish a 3D image of the space where the heating device is located. The control circuit includes a processor such as a CPU, MCU, DSP, or other types of control chips, which can process the signal obtained by the temperature detection device to obtain the temperature in the space where the heating device is located, and process the signal obtained by the laser radar component to obtain the size of the space where the heating device is located and the closed state of the space where the heating device is located. The temperature detection device detects the temperature in the space where the heating device is located and generates a corresponding temperature detection signal. The control circuit can obtain the corresponding temperature value according to the temperature detection signal; the laser radar component scans the space where the heating device is located, and establishes a 3D image of the space where the heating device is located, and generates a corresponding image signal. The control circuit can obtain the size of the space where the heating device is located and the closed state of the space where the heating device is located according to the image signal.

[0182] Optionally, in one embodiment of the present invention, the heating device further includes a temperature detection device, a laser radar component, a camera component and a control circuit, and the temperature detection device, the laser radar component and the camera component are all electrically connected to the control circuit. The temperature detection device includes a thermocouple, an infrared thermometer, a temperature sensor and other devices for detecting the temperature in the space where the heating device is located, the laser radar component can scan the environment in the space where the heating device is located, and establish a 3D image of the space where the heating device is located, the camera component includes at least one camera, which can take pictures of the environment in the space where the heating device is located, and the control circuit includes a processor such as a CPU, MCU, DSP or other types of control chips, which can process the signal obtained by the temperature detection device to obtain the temperature in the space where the heating device is located, and process the signal obtained by the laser radar component to obtain the size of the space where the heating device is located, and the control circuit can also process the signal obtained by the camera component to obtain the closed state of the space where the heating device is located. The temperature detection device detects the temperature in the space where the heating device is located and generates a corresponding temperature detection signal. The control circuit can obtain the corresponding temperature value according to the temperature detection signal; the laser radar component scans the space where the heating device is located, and establishes a 3D image of the space where the heating device is located, and generates a corresponding image signal. The control circuit can obtain the size of the space where the heating device is located according to the image signal; the camera component takes a picture of the space environment where the heating device is located, and generates a corresponding image signal. The control circuit can obtain the closed state of the space where the heating device is located according to the image signal.

[0183] In an embodiment of the present invention, the closed state of the space where the heating device is located is a relatively closed state of the space, which is mainly used to determine whether the space where the heating device is located has doors, windows or other passages open to connect with the outside world, so that the space where the heating device is located can quickly dissipate heat.

[0184] In this embodiment, when the temperature value corresponding to the temperature detection signal is not greater than the first preset temperature value and / or the space where the heating device is located is not less than the first preset volume and / or the space where the heating device is located is in an unclosed state, it is determined that the large-area heating mode is met, and a heating mode instruction representing the large-area heating mode is generated at this time. The heating device receives the heating mode instruction representing the large-area heating mode, operates in the large-area heating mode, controls the heating component 20 to work and controls the airflow control component to drive the gas to flow through the heating component 20, and controls the airflow to be blown out from at least the second heat dissipation port 12. At this time, the air heated by the heating component 20 in the shell 10 is blown out from the second heat dissipation port on the side of the shell 10, so that the air heated by the heating component 20 in the shell 10 is forced to convect with the air in the space where the heating device is located, thereby quickly heating the space where the heating device is located to increase the temperature in the space where the heating device is located.

[0185] As an optional scheme but not a limitation, the heating device receives a heating mode instruction representing a large-area heating mode, operates in the large-area heating mode, controls the heating component 20 and the fan component 30 to operate at maximum power, and at least controls the second heat dissipation port 12 to open. At this time, the fan component 30 blows the air heated by the heating component 20 in the shell 10 out from the second heat dissipation port on the side of the shell 10, so that the air heated by the heating component 20 in the shell 10 is forced to convect with the air in the space where the heating device is located, so that the space where the heating device is located can be heated more quickly to increase the temperature in the space where the heating device is located more quickly.

[0186] In this embodiment, the heating device receives a heating mode instruction representing a large-area heating mode, and also includes determining a target temperature control range for the space where the heating device is located according to the heating mode instruction representing the large-area heating mode. The target temperature control range can be set by the user. In the large-area heating mode, when the temperature in the space where the heating device is located is close to the maximum value of the target temperature control range, the power of the heating component 20 is reduced, thereby reducing the heating efficiency of the heating device. When the temperature in the space where the heating device is located is close to the minimum value of the target temperature control range, the power of the heating component 20 is increased, thereby improving the heating efficiency of the heating device, thereby controlling the temperature in the space where the heating device is located to be maintained within the target temperature control range.

[0187] In this embodiment, when the temperature value corresponding to the temperature detection signal is greater than the first preset temperature value, the space where the heating device is located is smaller than the first preset volume and the space where the heating device is located is in a closed state, it is determined that the small area heating mode is satisfied. At this time, a heating mode instruction representing the small area heating mode is generated, and the heating device receives the heating mode instruction representing the small area heating mode, operates in the small area heating mode, controls the heating component 20 to work, and uses the airflow control component to make the airflow flow out from at least one of the first heat dissipation port 11 and the second heat dissipation port 12. After the air in the shell 10 is heated by the heating component 20, the thermal motion of the molecules in the air is enhanced, resulting in an increase in the average distance between the air molecules, thereby reducing the number of air molecules per unit volume and reducing their density. The air molecules can directly float up and flow out from the first heat dissipation port 11 on the top of the shell 10 and / or the second heat dissipation port 12 on the side of the shell 10. At this time, the air heated by the heating component 20 inside the shell 10 heats the space where the heating device is located in the form of natural convection.

[0188] In this embodiment, the heating device receives a heating mode instruction representing a small area heating mode, and also includes determining a target temperature control range for the space where the heating device is located according to the heating mode instruction representing the small area heating mode. The target temperature control range can be set by the user. In the small area heating mode, when the temperature in the space where the heating device is located is close to the maximum value of the target temperature control range, the power of the heating component 20 is reduced, thereby reducing the heating efficiency of the heating device. When the temperature in the space where the heating device is located is close to the minimum value of the target temperature control range, the power of the heating component 20 is increased, thereby improving the heating efficiency of the heating device, thereby controlling the temperature in the space where the heating device is located to be maintained within the target temperature control range.

[0189] In this embodiment, when the indoor temperature is low, the user generally needs to quickly increase the indoor temperature to a comfortable temperature range. At the same time, when the indoor space is large or the indoor space is not closed, heat generally loses faster, resulting in slow indoor temperature rise. When the indoor space is small or the indoor space is closed, the temperature loses slower, but the heating device also requires higher energy consumption to maintain the bedroom temperature within a comfortable temperature range. In this embodiment, by obtaining the size of the space where the heating device is located, when the size of the space where the heating device is located is not less than the first preset volume, it is determined that the large-area heating mode is met, and a heating mode instruction representing the large-area heating mode is generated, so that the heating device operates in the large-area heating mode, and the indoor air is heated by forced convection between the air heated by the heating component 20 inside the heating device and the air in the space where the heating device is located, thereby quickly raising the indoor temperature and making the indoor temperature reach a comfortable temperature range. When the size of the space where the heating device is located is less than the preset first volume, it is determined that the small-area heating mode is met, and a heating mode instruction representing the small-area heating mode is generated, so that the heating device operates in the small-area heating mode, and the fan component 30 is turned off. The indoor air is heated by natural convection between the air heated by the heating component 20 inside the heating device and the air in the space where the heating device is located. At this time, the airflow control component does not need to output power to drive the airflow movement, thereby reducing the energy consumption of the heating device. Users can also set the target temperature control range by themselves, and the heating device can control the temperature in the space to maintain it within the target temperature control range, thereby preventing the indoor temperature from being too high or too low, affecting people's comfort and health.

[0190] The present invention also provides a control device, which includes:

[0191] Memory;

[0192] A processor, a heating device control program stored in a memory and executed by the processor, and a heating device control method implemented when the heating device control program is executed by the processor.

[0193] It is worth noting that, because the control device of the present invention includes all embodiments of the above-mentioned heating device control method, the control device of the present invention has all the beneficial effects of the above-mentioned heating device control method, which will not be described in detail here. The control device can be a circuit component, a storage medium or a chip, etc., which is not limited here, as long as it can store and execute the heating device control program.

[0194] The above are only optional embodiments of the present invention, and are not intended to limit the patent scope of the present invention. All equivalent structural changes made using the contents of the present invention's specification and drawings, or directly / indirectly applied in other related technical fields, are included in the patent protection scope of the present invention.

Claims

1. A heating device, characterized in that: The heating device comprises: A housing having a first heat dissipation opening at the top and a second heat dissipation opening at the side; a heating component, the heating component being disposed in the housing; and An airflow control component is disposed on the shell, and is used to drive the gas to flow through the heating component and can control the airflow to be blown out from the first heat dissipation port and / or the second heat dissipation port.

2. The heating device according to claim 1, characterized in that: The airflow control component includes an air group component, which is arranged on the housing, and is used to drive the gas to flow through the heating component and can control the airflow to be blown out from the first heat dissipation port and / or the second heat dissipation port; Alternatively, the airflow control assembly comprises: An air group component is arranged on the housing, and the air group component is used to drive the gas to flow through the heating component; a shielding component, disposed on the housing, and used to control the opening or closing of the first heat dissipation port and / or the second heat dissipation port, so as to control the airflow generated by the fan component to be blown out from the first heat dissipation port and / or the second heat dissipation port; Alternatively, a wind group component is arranged on the housing, and the wind group component is used to drive the gas to flow through the heating component; The air guide assembly is arranged on the housing and is used to guide the airflow generated by the fan assembly to be blown out from the first heat dissipation port and / or the second heat dissipation port.

3. The heating device according to claim 1, characterized in that The second heat dissipation openings are provided in plurality, and the plurality of second heat dissipation openings are evenly arranged along the circumference of the shell.

4. The heating device according to any one of claims 1 to 3, characterized in that: The heating device also includes: A control circuit, wherein the control circuit is electrically connected to the heating component and the airflow control component respectively; The control circuit is used to receive a heating mode instruction, and to control the power of the heating component and the airflow control component accordingly according to the heating mode instruction.

5. The heating device according to claim 4, characterized in that: The control circuit is specifically used to determine the working mode of the heating device according to the heating mode instruction, and the working modes include a large-area heating mode and a small-area heating mode; when the working mode is the large-area heating mode, the heating component is controlled to work and the airflow control component is controlled to drive the gas to flow through the heating component, and the airflow is controlled to blow out from at least the second heat dissipation port; when the working mode is the small-area heating mode, the heating component is controlled to work, and the airflow is controlled to flow out from at least one of the first heat dissipation port and the second heat dissipation port through the airflow control component.

6. The heating device according to claim 5, characterized in that: The heating device also includes a mode selection module, which is electrically connected to the control circuit; the mode selection module is used to generate a large-area heating mode instruction representing the large-area heating mode or a small-area heating mode instruction representing the small-area heating mode according to its triggering condition.

7. The heating device according to claim 5, characterized in that: The heating device also includes: An environmental information collection component is electrically connected to the control circuit; the environmental information collection component is used to collect environmental information in the space where the heating device is located and generate the heating mode instruction.

8. The heating device according to claim 7, characterized in that: The environmental information in the space where the heating device is located includes at least one of the temperature in the space where the heating device is located, the size of the space where the heating device is located, and the closed state of the space where the heating device is located; The control circuit is specifically used for: When at least one of the environmental information in the space where the heating device is located satisfies the large-area heating mode, a large-area heating mode instruction representing the large-area heating mode is generated; When the temperature in the space where the heating device is located, the size of the space where the heating device is located, and the closed state of the space where the heating device is located all meet the small area heating mode, a small area heating mode instruction representing the small area heating mode is generated.

9. The heating device according to claim 8, characterized in that: The control circuit is specifically used for: When the temperature in the space where the heating device is located is not greater than a first preset temperature value, determining that the large-area heating mode is satisfied; When the size of the space where the heating device is located is not less than the first preset volume, it is determined that the large-area heating mode is satisfied; When the space where the heating device is located is in an unenclosed state, determining that the large-area heating mode is satisfied; When the temperature in the space of the heating device is greater than the first preset temperature, the size of the space where the heating device is located is smaller than the first preset volume, and the space where the heating device is located is in a closed state, it is determined that the small area heating mode is satisfied.

10. The heating device according to claim 5, characterized in that: The environmental information collection component includes: A temperature detection device, the temperature detection device is electrically connected to the control circuit; the temperature detection device is used to detect the temperature in the space where the heating device is located; and / or, A laser radar component, the laser radar component is electrically connected to the control circuit; the laser radar component is used to scan image information of the space where the heating device is located, and determine the size of the space where the heating device is located and / or the closed state of the space where the heating device is located; and / or, A camera assembly is electrically connected to the control circuit; the camera assembly is used to take pictures of the environment in the space where the heating device is located, and determine the closed state of the space where the heating device is located.

11. A heating device control method, characterized in that: The heating device control method is based on the heating device according to any one of claims 1 to 3, and the method comprises the following steps: receiving a heating mode instruction; Determining the working mode of the heating device according to the heating mode instruction; the working mode of the heating device includes a large area heating mode and a small area heating mode; When the working mode is a large area heating mode, the heating component is controlled to work and the airflow control component is controlled to drive the gas to flow through the heating component, and the airflow is controlled to be blown out from at least the second heat dissipation port; When the working mode is a small area heating mode, the heating component is controlled to work, and the airflow is made to flow out from at least one of the first heat dissipation port and the second heat dissipation port through the airflow control component.

12. The heating device control method according to claim 11, characterized in that: The step of determining the working mode of the heating device according to the heating mode instruction further comprises: Determine a target temperature control range of the space where the heating device is located according to the heating mode instruction; In the large-area heating mode and the small-area heating mode, the temperature in the space where the heating device is located is controlled to be maintained within the target temperature control range.

13. The heating device control method according to claim 12, characterized in that: The steps of controlling the temperature in the space where the heating device is located to maintain within the target temperature control range in the large-area heating mode and the small-area heating mode respectively specifically include: When the working mode is the large-area heating mode and the temperature in the space where the heating device is located is lower than the minimum value of the target temperature range, the heating component is controlled to operate at maximum power, the airflow control component is controlled to drive the gas to flow through the heating component at the fastest speed, and the airflow is controlled to blow out from at least the second heat dissipation port; when the working mode is the large-area heating mode and the temperature in the space where the heating device is located is within the target temperature range, the power of the heating component is controlled to be reduced, the speed at which the airflow control component drives the gas to flow through the heating component is controlled to be reduced, and the airflow is controlled to blow out from at least the second heat dissipation port; When the working mode is the small area heating mode and the temperature in the space where the heating device is located is lower than the minimum value of the target temperature range, the heating component is controlled to operate at maximum power, and the airflow is caused to flow out from at least one of the first heat dissipation port and the second heat dissipation port through the airflow control component; when the working mode is the small area heating mode and the temperature in the space where the heating device is located is within the target temperature range, the power of the heating component is controlled to be reduced, and the airflow is caused to flow out from at least one of the first heat dissipation port and the second heat dissipation port through the airflow control component.

14. The heating device control method according to claim 11, characterized in that: Before executing the step of receiving a heating mode instruction, the method includes the following steps: Acquiring environmental information of the space where the heating device is located; The heating mode instruction is generated according to environmental information in the space where the heating device is located.

15. The heating device control method according to claim 14, characterized in that: The environmental information in the space where the heating device is located includes at least one of the temperature in the space where the heating device is located, the size of the space where the heating device is located, and the closed state of the space where the heating device is located; The step of generating a heating mode instruction according to the environmental information in the space where the heating device is located specifically includes: When at least one of the environmental information in the space where the heating device is located satisfies the large-area heating mode, generating a heating mode instruction representing the large-area heating mode; When the temperature in the space where the heating device is located, the size of the space where the heating device is located, and the closed state of the space where the heating device is located all meet the small area heating mode, a heating mode instruction representing the small area heating mode is generated.

16. The heating device control method according to claim 15, characterized in that: When the temperature value corresponding to the temperature detection signal is not greater than a first preset temperature value, determining that the large-area heating mode is satisfied; When the size of the space where the heating device is located is not less than the first preset volume, it is determined that the large-area heating mode is satisfied; When the space where the heating device is located is in an unenclosed state, determining that the large-area heating mode is satisfied; When the temperature in the space of the heating device is greater than the first preset temperature, the size of the space where the heating device is located is smaller than the first preset volume, and the space where the heating device is located is in a closed state, it is determined that the large-area heating mode is met.

17. A control device, characterized in that: The control device comprises: Memory; A processor, a heating device control program stored in the memory and executed by the processor, wherein the heating device control program, when executed by the processor, implements the heating device control method according to any one of claims 11 to 16.

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