JP3239580U - Humidifying simulated flame electric heater - Google Patents

Abstract

An object of the present invention is to provide a pseudo-flame electric heater capable of humidification, which has a simple structure and is integrally designed for humidification and heating. An annular upper cover (1), a lower cover (1), a housing, a humidifying assembly (4) for generating mist, a light emitting assembly (5) and a heat generating assembly (6). An annular upper cover is attached to the lower cover, and the lower cover is attached to the housing. Mist outlets 11 are uniformly installed in the annular upper cover, and a mist guide passage 12 is formed in the gap between the inner walls of the annular upper cover to communicate the mist outlet, the mist guide passage and the atomization chamber. By turning on, the blower 23 sends the mist generated by the humidification assembly into the atomization chamber to form a 360° enveloping mist ejection effect. A light-emitting assembly is also installed opposite the mist outlet, and in conjunction with the light-emitting assembly mimics a natural flame effect. [Selection drawing] Fig. 2

Description

FIELD OF THE INVENTION The present invention relates to the field of electric heaters, and in particular to humidified pseudo-flame electric heaters.

The dry autumn and winter are the seasons when electric heaters are frequently used. However, conventional electric heaters are specialized for heating and dry the air, which is very likely to induce respiratory diseases and greatly increase the chances of the elderly and children getting sick. If you stay in a dry room for a long time, you will feel discomfort due to skin tightness, dryness, and hot flashes. Therefore, the necessity of adding a humidifying function to the electric heater is being investigated in order to meet the indoor humidity requirements.

With the daily improvement of living conditions, people are increasingly pursuing quality of life, and the need for electric heaters with humidification function is increasing more and more. In addition, it is required not only to be able to heat by heating, but also to be able to increase the humidity of the indoor air. In order to meet the increasing consumption concept of consumers, pseudo-flame electric heaters are now emerging. This electric heater irradiates mist jetted from the inside with a light-emitting member inside the main body space, thereby changing originally colorless mist into flame-colored mist. In addition, by combining with the flow effect of the mist, a simulated flame atmosphere is created. However, the conventional quasi-flame electric heater has a complicated structure, and it cannot be said that the quasi-flame effect is good.

In order to solve the above problems, the present invention discloses a humidified pseudo-flame electric heater with a simple structure and integrally designed humidification and heating.

To achieve the above objectives, the technical solution adopted in the present invention relates to a humidified pseudo-flame electric heater. The humidifiable simulated flame electric heater includes an annular upper cover, a lower cover, a housing, a mist generating humidifying assembly, a light emitting assembly and a heat generating assembly. The annular upper cover is attached to the lower cover, and the lower cover is attached to the housing. The light emitting assembly is fitted between the annular upper and lower covers. The humidification assembly is mounted within the lower cover through the annular upper cover. The housing has a hollow space, and the heat generating assembly is mounted in the hollow space. Mist outlets are uniformly provided on the upper portion of the annular upper cover. Also, an atomization chamber is provided in the lower cover. A mist guide passage is formed in the gap between the inner walls of the annular upper cover, and the mist outlet, the mist guide passage and the atomization chamber communicate with each other. A blower port is installed on one side of the atomization chamber, and the blower device is installed at the blower port. An air guide pipe is installed in the blower. Also, the light emitting assembly is installed to face the mist outlet. The light emitting assembly forms a flame-colored light source and is used to irradiate the mist discharged from the mist discharge port.

Further, the light assembly includes a light cover, an LED annular board light, a board light seal ring and a support frame. The support frame is mounted on the lower cover, and the light cover and the support frame surround and form a mounting chamber for accommodating the LED annular board light. The LED annular board light is located within the mounting chamber. Also, the board light seal ring is mounted between the LED annular board light and the support frame.

Further, the inner wall of the annular upper cover and the outer wall of the light cover surround and form a mist inlet. The mist inlet communicates with the mist guide path.

Further, the humidification assembly includes a tank, a plug, a piston rod, a spring, a tank lid, a sealing member, a vibratory mist generator and a vibratory mist generator lid. The tank is mounted within the lower cover, and the piston rod is mounted on a spout of the tank. The plug is attached to one end of the piston rod and positioned within the tank. Further, the spring is covered with the piston rod and positioned below the plug. The tank lid is attached to the spout, and the sealing member is installed between the tank lid and the spout. The vibrating mist generator is mounted in the atomization chamber, and the vibrating mist generator cover is mounted on the vibrating mist generator.

Further, the heating assembly includes a PTC graphene heating element, a PTC holder and a DC fan. The PTC graphene heating element is mounted on the PTC holder. A mounting groove is installed in the outer wall of the housing, and the PTC holder and the DC fan are mounted in the mounting groove. And the DC fan is located on the right side of the PTC holder.

Further, a fan grill is installed in the mounting groove, and a control panel is installed on the outer wall of the upper part of the fan grill.

Furthermore, a control board and a thermal protector are installed on the inner wall of the blower grill. A power supply is installed at the bottom of the housing, and the control board, control panel, vibration mist generator, light emitting assembly, thermal protector, DC fan, and air blower are each electrically connected to the power supply. be.

Furthermore, the light cover is made of a transparent material.

Furthermore, the air guide holes are uniformly formed in the air guide tube.

Furthermore, a wiring hole is further provided in the lower cover. A seal ring is installed in the wiring hole portion.

The present invention provides a humidified simulated flame electric heater. Mist outlets are uniformly installed in the annular upper cover, mist guide paths are formed in the gaps between the inner walls of the annular upper cover, and the mist outlets, the mist guide paths, and the atomization chamber are communicated with each other. , the blower feeds the mist generated by the humidification assembly into the atomization chamber and ejects it from the mist outlet through the mist guide path to form a 360° enveloping mist ejection effect. Also, a light emitting assembly is placed opposite the mist outlet, and in conjunction with the light emitting assembly mimics a natural flame effect. Also, the blower makes the mist flow more uniform in the atomizing chamber. As a result, the flow effect of the mist discharged from the mist discharge port becomes much closer to the combustion effect of the simulated flame. In addition, the heat-generating assembly is installed inside the housing to achieve an integrated heating and humidification design. The humidified pseudo-flame electric heater has a simple structure, is easy to manufacture, is safe and reliable in use, and is easy to promote its use.

FIG. 1 is a schematic structural diagram of a humidified pseudo-flame electric heater in the present invention. FIG. 2 is a cross-sectional view of a humidified pseudo-flame electric heater of the present invention. FIG. 3 is an exploded view of the humidified pseudo-flame electric heater of the present invention.

In the following, the technical solutions of the embodiments of the present invention will be clearly and concisely described in combination with the drawings in the embodiments of the present invention. It should be understood that the described embodiments are only some embodiments of the present invention, but not all embodiments. In addition, all other embodiments obtained by those skilled in the art based on the embodiments of the present invention on the premise that they do not require creative labor are within the scope of protection of the present invention.

It should be noted that all directional indications (e.g., up, down, left, right, front, back, etc.) in the embodiments of the present invention are directed between each part in any particular pose (shown). This is merely for explaining the relative positional relationship, motion status, etc., and when the specific posture changes, the directions related to the direction also change accordingly.

In addition, the description of "first", "second", etc. in the present invention is only for convenience of description, and should be construed as explicitly or implying relative importance, nor should it be construed as suggesting the number of Thus, features defined by "first" and "second" may state or imply that they include at least one such feature. In addition, the technical solutions of each embodiment can be combined with each other, but should be based on what a person skilled in the art can implement. If the combination of technical solutions contradicts each other or is infeasible, it should be considered that such a combination of technical solutions does not exist and is not within the scope of protection claimed by the present invention.

The present invention provides a humidified simulated flame electric heater.

In an embodiment of the present invention, as shown in FIGS. 1 to 3, the humidifying simulated flame electric heater includes an annular upper cover 1, a lower cover 2, a housing 3, a mist generating humidifying assembly 4, a light emitting Includes assembly 5 and heat generating assembly 6 . An annular upper cover 1 is attached to a lower cover 2 , and the lower cover 2 is attached to a housing 3 . The light emitting assembly 5 is fitted between the annular top cover 1 and the bottom cover 2 . A humidifying assembly 4 is mounted in the lower cover 2 through the annular upper cover 1 . The housing 3 has a hollow space, and a heat generating assembly 6 is mounted in the hollow space. Mist outlets 11 are evenly provided in the upper portion of the annular upper cover 1 . Further, an atomization chamber 21 is provided inside the lower cover 2 . A mist guide passage 12 is formed in the gap between the inner walls of the annular upper cover 1, and the mist discharge port 11, the mist guide passage 12 and the atomization chamber 21 communicate with each other. A blower port 22 is installed on one side of the atomization chamber 21 , and a blower 23 is provided at the blower port 22 . An air guide pipe 24 is installed in the air blower 23 . Also, the light emitting assembly 5 is installed facing the mist outlet 11 . The light emitting assembly 5 forms a flame-colored light source and is used to irradiate the mist discharged from the mist discharge port 11 .

The mist outlets 11 are uniformly installed in the annular upper cover 1, and the mist guide path 12 is formed in the gap between the inner walls of the annular upper cover 1. The mist outlets 11, the mist guide path 12 and the atomization chamber 21 , the air blower 23 sends the mist generated by the humidification assembly 4 into the atomization chamber 21 and ejects it from the mist ejection port 11 via the mist guide path 12 to form a 360° enveloping type to create a mist ejection effect. In addition, the light emitting assembly 5 is installed facing the mist discharge port 11, and by cooperating with the light emitting assembly 5, a natural flame effect can be simulated. In addition, the air blower 23 makes the flow of mist in the atomization chamber 21 more uniform. As a result, the flow effect of the mist discharged from the mist discharge port 11 becomes much closer to the combustion effect of a simulated flame. In addition, by installing the heating assembly 6 in the housing 3, an integrated design of heating and humidification is realized. The humidified pseudo-flame electric heater has a simple structure, is easy to manufacture, is safe and reliable in use, and is easy to promote its use. In this embodiment, the lighting assembly 5 includes a light cover 51 , an LED annular board light 52 , a board light seal ring 53 and a support frame 54 . The support frame 54 is mounted on the lower cover 2 , and the light cover 51 and the support frame 54 surround and form a mounting chamber for accommodating the LED annular board light 52 . An LED annular board light 52 is located within the mounting chamber. A board light seal ring 53 is also mounted between the LED annular board light 52 and the support frame 54 . The light cover 51 is made of transparent material, and the mist outlet 11 is aligned with the light emitting assembly 5 . The purpose of this is to allow the light from the light emitting assembly 5 to pass through the light cover 51 more favorably and irradiate the mist from the mist outlet 11 . A waterproof ring 27 is installed by combining the light cover 51 and the annular upper cover 1 . In addition, the air blower 23 makes the flow of mist in the atomization chamber 21 more uniform. As a result, the flow effect of the mist discharged from the mist discharge port 11 becomes much closer to the burning effect of the simulated flame, and the simulated flame becomes much more realistic.

In this embodiment, the inner wall of the annular upper cover 1 and the outer wall of the light cover 51 surround and form the mist inlet 13 . The mist inlet 13 communicates with the mist guide path 12 . When mist generated in the atomization chamber 21 by the vibrating mist generator 47 is blown by the air blower 23 , the mist inlet 13 allows the mist to uniformly enter the mist guide path 12 . As a result, the mist is discharged from the mist discharge port 11 after being rectified from the mist entrance port 13 via the mist guide path 12, so that the mist becomes more stable.

In this embodiment, humidification assembly 4 includes tank 41 , plug 42 , piston rod 43 , spring 44 , tank lid 45 , sealing member 46 , vibrating mist generator 47 and vibrating mist generator lid 48 . The tank 41 is mounted inside the lower cover 2 , and the piston rod 43 is mounted on a spout (not shown) of the tank 41 . The plug 42 is attached to one end of the piston rod 43 and positioned within the tank 41 . A spring 44 is covered with the piston rod 43 and positioned below the plug 42 . A tank lid 45 is attached to the spout, and a sealing member 46 is installed between the tank lid 45 and the spout. A vibrating mist generator 47 is mounted inside the atomization chamber 21 , and a vibrating mist generator lid 48 is mounted on the vibrating mist generator 47 . Tank 41 is designed to store water to provide mist generation for vibrating mist generator 47 .

In this embodiment, the heating assembly 6 includes a PTC graphene heating element 61 , a PTC holder 62 and a DC fan 63 . The PTC graphene heating element 61 is attached to the PTC holder 62 . A mounting groove is provided in the outer wall of the housing 3, and the PTC holder 62 and the DC fan 63 are mounted in the mounting groove (not shown). Also, the DC fan 63 is positioned on the right side of the PTC holder 62 . By designing the PTC graphene heating element 61, heating can be realized in the cold winter. The power of the PTC graphene heating element 61 is 2000W. Further, by combining two DC fans 63, noise can be reduced, and long-distance and high-power heating can be realized. The humidified pseudo-flame electric heater has a suitable overall volume and is applicable to both tabletop and vertical types.

In this embodiment, a fan grill 7 is installed in the mounting groove, and a control panel 71 is installed on the outer wall above the fan grill 7 . A control panel 71 is mounted on the fan grill 7, allowing the user to implement timer, fan speed adjustment, low water level warning, and humidification functions.

In this embodiment, a control board 72 and a thermal protector 73 are installed on the inner wall of the fan grill 7 . A power supply 31 is installed at the bottom of the housing 3, and a control board 72, a control panel 71, a vibration mist generator 47, a light emitting assembly 5, a thermal protector 73, a DC fan 63, and a blower 23 are supplied respectively. It is electrically connected to power supply 31 .

In this embodiment, the light cover 51 is made of a transparent material. A transparent material is selected for the light cover 51 for better light transmission.

In this embodiment, the air guide holes 240 are uniformly formed in the air guide tube 24 . By designing the air guide holes 240 so as to blow air uniformly, the flow of mist in the atomization chamber 21 becomes even more uniform. As a result, the flow effect of the mist discharged from the mist discharge port 11 becomes much closer to the combustion effect of a simulated flame.

In this embodiment, a wiring hole 25 is further provided inside the lower cover 2 . A seal ring 26 is installed in the wiring hole 25 portion. The purpose of designing the seal ring 26 is to avoid damage to the PTC graphene heating element 61 by preventing entry of mist into the housing 3 .

The above descriptions are only preferred embodiments of the present invention, which do not limit the scope of rights of the present invention. Based on the concept of the present invention, any equivalent structural changes made using the contents of the specification and drawings of the present invention, or those directly/indirectly applied to other related technical fields, is also included in the protection scope of the right of the present invention.

Claims (10)

comprising an annular upper cover (1), a lower cover (2), a housing (3), a mist generating humidifying assembly (4), a light emitting assembly (5) and a heat generating assembly (6); The cover (1) is mounted on the bottom cover (2), the bottom cover (2) is mounted on the housing (3), and the light assembly (5) is mounted on the annular top cover (1) and the bottom cover. (2), the humidifying assembly (4) is mounted in the lower cover (2) through the annular upper cover (1), and the housing (3) is hollow Humidifying pseudo-flame electricity having a space, wherein the heat generating assembly (6) is installed in the hollow space, and the mist outlet (11) is evenly installed on the upper part of the annular upper cover (1). is a heater,
An atomization chamber (21) is provided in the lower cover (2), and a mist guide path (12) is formed in a gap between inner walls of the annular upper cover (1) to The discharge port (11), the mist guide path (12), and the atomization chamber (21) are in communication, and the atomization chamber (21) is provided with a blower port (22) on one side. A blower (23) is installed at the blower port (22), a wind guide pipe (24) is installed at the blower (23), and the light assembly (5) is the The light emitting assembly (5) is installed facing the mist outlet (11), and the light emitting assembly (5) forms a flame-colored light source and is used to irradiate the mist discharged from the mist outlet (11). A humidifying pseudo-flame electric heater characterized by: The light emitting assembly (5) includes a light cover (51), an LED annular board light (52), a board light seal ring (53) and a support frame (54),
The support frame (54) is mounted on the lower cover (2), and the light cover (51) and the support frame (54) enclose and form a mounting chamber for accommodating the LED annular board light (52). The LED annular board light (52) is located in the mounting chamber, and the board light seal ring (53) is mounted between the LED annular board light (52) and the support frame (54). The humidified simulated flame electric heater according to claim 1, characterized in that: The inner wall of the annular upper cover (1) and the outer wall of the light cover (51) surround and form a mist inlet (13), and the mist inlet (13) serves as the mist guide path (12). 3. A humidifiable simulated flame electric heater according to claim 2, characterized in that it is in communication. Said humidification assembly (4) comprises a tank (41), a plug (42), a piston rod (43), a spring (44), a tank lid (45), a sealing member (46), a vibrating mist generator (47), and , including a vibrating mist generator lid (48);
The tank (41) is mounted inside the lower cover (2), the piston rod (43) is mounted on a water outlet of the tank (41), and the plug (42) is mounted on the piston rod (43). It is attached to one end and located in the tank (41), the spring (44) is covered with the piston rod (43), and the tank lid (42) is located below the plug (42). 45) is attached to the spout, the sealing member (46) is installed between the tank cover (45) and the spout, and the vibrating mist generator (47) is installed in the atomization chamber (21). A humidifiable simulated flame electric heater according to claim 1, characterized in that said vibrating mist generator lid (48) is mounted on said vibrating mist generator (47). the heating assembly (6) includes a PTC graphene heating element (61), a PTC holder (62) and a DC fan (63);
The PTC graphene heating element (61) is mounted on the PTC holder (62), and a mounting groove is installed on the outer wall of the housing (3), and the PTC holder (62) and the DC fan (63) are ) is mounted in the mounting groove, and the DC fan (63) is located on the right side of the PTC holder (62). The humidifier according to claim 5, characterized in that a fan grill (7) is installed in the mounting groove, and a control panel (71) is installed on the upper outer wall of the fan grill (7). Possible pseudo-flame electric heater. A control board (72) and a thermal protector (73) are installed on the inner wall of the blower grill (7), and a power supply (31) is installed on the bottom of the housing (3), Said control board (72), control panel (71), vibrating mist generator (47), light-emitting assembly (5), thermal protector (73), DC fan (63), blower (23) are each connected to a power supply (31). 7. A humidifiable pseudo-flame electric heater according to claim 6, characterized in that it is electrically connected to . The humidified simulated flame electric heater according to claim 2, wherein the light cover (51) is made of a transparent material. The pseudo-flame electric heater capable of humidification according to claim 1, characterized in that the air guide holes (240) are evenly formed in the air guide tube (24). A wiring hole (25) is further provided in the lower cover (2), and a sealing ring (26) is provided in the wiring hole (25) portion. Humidification possible pseudo-flame electric heater.

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