An electric fire having simulated flames

Abstract

The utility model discloses an electric heating surrounding stove with simulated flame, including cylindrical fuselage and electric ceramic stove, be equipped with main control circuit and control panel in the cylindrical fuselage, the cylindrical fuselage includes light transmission barrel body, roof rack and base, and roof rack and base are arranged respectively in the upper and lower both ends of light transmission barrel body, and electric ceramic stove is embedded on roof rack, light transmission barrel body is equipped with simulated carbon burning device, and simulated carbon burning device includes simulated carbon light transmission modeling cover and carbon burning light source, and carbon burning light source sets up in simulated carbon light transmission modeling cover, and with main control circuit electric connection, still movably equipped with flame -shaped reflector and be used for the light source of imitating flame that illuminates flame -shaped reflector on simulated carbon light transmission modeling cover, and the lower end of flame -shaped reflector is equipped with first magnet, be equipped with motor in simulated carbon light transmission modeling cover, and the output shaft of motor is connected with horizontal pole, and is equipped with second magnet on horizontal pole, carbon burning light source, imitate flame light source, electric ceramic stove, motor and control panel are electrically connected with main control circuit respectively, the utility model discloses can imitate carbon stove effect.

Description

Technical Field

[0001] This utility model relates to the field of electric heating furnace technology, and in particular to an electric heating furnace with simulated flame. Background Technology

[0002] "Gathering around a stove to brew tea" is a popular leisure activity nowadays. The main experience involves placing a small charcoal stove in the center of a small round table, where several people can sit around the table to brew tea, grill food, keep warm, and chat. However, due to the use of charcoal, it is only suitable for well-ventilated places, making it inconvenient. Later, electric stoves appeared on the market.

[0003] Chinese Patent No. ZLCN202420790939.1, published on January 7, 2025, discloses an electric heated stove, including a stove body with an upper cover and a lower cover. The upper cover has a panel, and a heating plate is located below the panel. The stove also includes a support, with its bottom fitted onto the upper part of the upper cover. The support has a receiving hole corresponding to the heating plate for accommodating pots and pans. At least part of the outer circumference of the receiving hole has a support portion for placing food. In the working state of the electric heated stove, the pots and pans pass through the receiving hole and are supported on the panel. This type of electric heated stove only has a heating function; users cannot experience the unique effect of charcoal fire lighting. Utility Model Content

[0004] The purpose of this invention is to provide an electric heating enclosure with a reasonable structure and a simulated flame effect, mimicking the appearance of a charcoal furnace.

[0005] The purpose of this utility model is achieved as follows:

[0006] An electric heating enclosure with simulated flames includes a cylindrical body and an electric ceramic stove. The cylindrical body houses a main control circuit and a control board. The cylindrical body includes a light-transmitting cylinder, a top frame, and a base, with the top frame and base respectively positioned at the upper and lower ends of the light-transmitting cylinder. The electric ceramic stove is embedded in the top frame. A simulated charcoal-burning device is located within the light-transmitting cylinder. This device includes a simulated charcoal light-transmitting cover and a simulated charcoal-burning light source. The simulated charcoal-burning light source is located within the simulated charcoal light-transmitting cover and electrically connected to the main control circuit. A flame-shaped reflector and a simulated flame light source for illuminating the flame-shaped reflector are movably mounted on the simulated charcoal light-transmitting cover. A first magnet is located at the lower end of the flame-shaped reflector. A motor is located within the simulated charcoal light-transmitting cover, with its output shaft connected to a crossbar. A second magnet is located on the crossbar. The simulated charcoal-burning light source, the simulated flame light source, the electric ceramic stove, the motor, and the control board are all electrically connected to the main control circuit.

[0007] The objective of this utility model can also be achieved by the following technical measures:

[0008] As a more specific solution, the simulated carbon light-transmitting cover has clearance holes corresponding to the flame-shaped reflector and the simulated flame light source. A support position is provided inside the simulated carbon light-transmitting cover, and a spring is installed on the support position. The lower end of the flame-shaped reflector is connected to the upper end of the spring. The spring causes the flame-shaped reflector to be in a floating state, making it more susceptible to vibration due to magnetic forces.

[0009] As a further solution, the simulated carbon light-transmitting cover is also equipped with a motor frame, and the motor and the simulated carbon light source are mounted on the motor frame.

[0010] As a further embodiment, the columnar body includes the light-transmitting cylindrical body, the top frame, and the base. The top frame and the base are respectively located at the upper and lower ends of the light-transmitting cylindrical body. The upper end of the light-transmitting cylindrical body has an inward flange, and multiple upper connecting posts are provided on the inward flange. The top frame is annular, and an annular boss is provided on the inner side of its top. A countersunk hole is provided on the upper surface of the annular boss. An L-shaped connecting arm extends downward from the inner side of the annular boss. The countersunk hole is connected to the upper connecting posts by screws. The electric ceramic stove is embedded in the inner side of the annular boss and connected to the L-shaped connecting arm. The simulated charcoal burning device is located on the top surface of the base.

[0011] As a further improvement, the side wall of the top frame is provided with light-transmitting holes. Users can observe the simulated charcoal burning device through these holes, creating an experiential feeling of directly observing charcoal combustion.

[0012] As a further embodiment, the base has an upwardly protruding cavity at its center, with a cover at the lower end of the cavity, and the main control circuit is located inside the cavity. The bottom surface of the base, the top surface of the cavity, and the cover all have heat dissipation holes. The top frame is close to the ceramic cooktop, where the temperature is relatively high, causing air to rise. The heat dissipation holes are located at the bottom of the columnar body. When the air rises, it creates airflow, allowing the cooler, closer surfaces to rise through the heat dissipation holes, thus carrying away heat from inside the columnar body.

[0013] As a further embodiment, the lower inner side of the light-transmitting cylinder is provided with an annular liner, which is connected to the base. Multiple multi-color LED beads are distributed in a ring on the top surface of the annular liner, and these multi-color LED beads are electrically connected to the main control circuit. The main control circuit can independently control the different colors of the multi-color LED beads, change their brightness, etc., thereby creating a lighting atmosphere.

[0014] As a further embodiment, the inner wall of the light-transmitting cylinder is also provided with a dimming film. The dimming film is electrically connected to the main control circuit. The dimming film is transparent when energized and becomes foggy when de-energized. The dimming film contains liquid crystal molecules. When energized, these molecules are neatly arranged, allowing light to pass through and making the glass transparent; when de-energized, the liquid crystal molecules are randomly dispersed, blocking light and making the glass opaque or foggy. The working principle of the dimming film is existing technology and will not be detailed here.

[0015] As a further embodiment, the upper edge of the light-transmitting cylinder is provided with an upper limit step, and the lower end of the top frame rests on the upper limit step; the lower end of the annular inner liner is provided with an outward flange, the light-transmitting cylinder is fitted over the upper section of the annular inner liner, and the lower end of the light-transmitting cylinder abuts against the outward flange; the lower edge of the light-transmitting cylinder is also provided with a lower limit step, and the top edge of the base abuts against the lower limit step.

[0016] As a further embodiment, the flame-shaped reflector is provided in two or more parts.

[0017] The beneficial effects of this utility model are as follows:

[0018] (1) The flame-shaped reflector of this utility model reflects light under the illumination of a simulated flame light source. At the same time, the motor drives the second magnet to move. When the second magnet approaches the bottom of the flame-shaped reflector, it generates mutual magnetic force with the first magnet, causing the flame-shaped reflector to shake and form the effect of flame floating.

[0019] (2) The surface of the simulated carbon light-transmitting shape cover of this utility model is provided with a charcoal-like texture. Some parts of the texture are more transparent, while others are less transparent. When the simulated carbon light source is lit, the light source shines through the simulated carbon light-transmitting shape cover, forming an effect similar to charcoal burning.

[0020] (3) The flame effect of this utility model can be activated occasionally to simulate the effect of burning charcoal after oil is dripped into it to produce flames. Attached Figure Description

[0021] Figure 1 This is an exploded structural diagram of an embodiment of the present invention.

[0022] Figure 2 This is a cross-sectional structural diagram of the present invention.

[0023] Figure 3 This is a partial cross-sectional structural diagram of the simulated charcoal burning device in this utility model.

[0024] Figure 4 for Figure 3 Enlarged structural diagram at point A in the middle.

[0025] Figure 5 This is an exploded structural diagram of the electric heating enclosure and the mesh frame of this utility model. Detailed Implementation

[0026] The present invention will be further described below with reference to the accompanying drawings and embodiments:

[0027] See Figures 1-5 As shown, an electric heating enclosure with simulated flames includes a cylindrical body and an electric ceramic stove 1. The cylindrical body houses a main control circuit 9 and a control board 6. The cylindrical body includes a light-transmitting cylindrical body 3, a top frame 2, and a base 8. The top frame 2 and base 8 are respectively located at the upper and lower ends of the light-transmitting cylindrical body 3. The electric ceramic stove 1 is embedded in the top frame 2. A simulated charcoal-burning device 5 is located inside the light-transmitting cylindrical body 3. The simulated charcoal-burning device 5 includes a simulated charcoal light-transmitting hood 52 and a simulated charcoal-burning light source 54. The simulated charcoal-burning light source 54 is located inside the simulated charcoal light-transmitting hood 52. It is electrically connected to the main control circuit 9; a flame-shaped reflector 51 and a flame-shaped light source 57 for illuminating the flame-shaped reflector 51 are also movably provided on the simulated carbon light-transmitting shape cover 52. A first magnet 511 is provided at the lower end of the flame-shaped reflector 51; a motor 55 is provided inside the simulated carbon light-transmitting shape cover 52. The output shaft of the motor 55 is connected to a crossbar 56. A second magnet 561 is provided on the crossbar 56; the simulated carbon light source 54, the simulated flame light source 57, the electric ceramic stove 1, the motor 55 and the control board 6 are electrically connected to the main control circuit 9 respectively.

[0028] The simulated carbon light-transmitting cover 52 is provided with clearance holes corresponding to the flame-shaped reflector 51 and the simulated flame light source 57. The simulated carbon light-transmitting cover 52 is provided with a support position 59, and a spring 58 is provided on the support position 59. The lower end of the flame-shaped reflector 51 is connected to the upper end of the spring 58.

[0029] The simulated carbon light-transmitting cover 52 is also equipped with a motor frame 53, and the motor 55 and the simulated carbon light source 54 are mounted on the motor frame 53.

[0030] The columnar body includes a light-transmitting cylindrical body 3, a top frame 2, and a base 8. The top frame 2 and the base 8 are respectively located at the upper and lower ends of the light-transmitting cylindrical body 3. The upper end of the light-transmitting cylindrical body 3 has an inward flange 32, on which multiple upper connecting posts 31 are provided. The top frame 2 is annular, with an annular boss 21 on its inner top side. The upper surface of the annular boss 21 has a countersunk hole 22, and an L-shaped connecting arm 23 extends downward from the inner side of the annular boss 21. The countersunk hole 22 is connected to the upper connecting posts 31 by screws. The electric ceramic stove 1 is embedded in the inner side of the annular boss 21 and connected to the L-shaped connecting arm 23. The simulated charcoal burning device 5 is located on the top surface of the base 8. A mesh frame 10 can also be placed on the annular boss 21.

[0031] The base 8 has a protrusion 83 at the center of its top surface, and a simulated carbon light-transmitting cover is set on the protrusion 83.

[0032] The upper edge of the light-transmitting cylinder 3 is provided with an upper limit step 33, and the lower end of the top frame 2 rests on the upper limit step 33. The side wall of the top frame 2 is provided with a light-transmitting hole 24.

[0033] The base 8 has an upwardly protruding cavity 88 at the center of its bottom surface, and a cover 84 at the lower end of the cavity 88. The main control circuit 9 is located inside the cavity 88. The bottom surface of the base 8, the top surface of the cavity 88, the cover 84, and the boss 83 are all provided with heat dissipation holes 87.

[0034] The lower inner side of the light-transmitting cylinder 3 is provided with an annular inner liner 4, which is connected to the base 8. Multiple multi-color LED beads 42 are distributed in a ring on the top surface of the annular inner liner 4, and the multi-color LED beads 42 are electrically connected to the main control circuit 9.

[0035] Specifically: the annular inner liner 4 and the light-transmitting cylindrical body 3 are fixed by ultrasonic welding. The inner top of the annular inner liner 4 is provided with a flange 41, and the multi-color LED beads are set on the flange 41. The lower end of the annular inner liner 4 is provided with an outward flange 43. The light-transmitting cylindrical body 3 is fitted over the upper section of the annular inner liner 4, and the lower end of the light-transmitting cylindrical body 3 abuts against the outward flange 43. The lower edge of the light-transmitting cylindrical body 3 is also provided with a lower limit step 34, and the top edge of the base 8 abuts against the lower limit step 34.

[0036] The inner wall of the light-transmitting cylinder 3 is also provided with a dimming film 20. The dimming film 20 is electrically connected to the main control circuit 9. The dimming film 20 is transparent when powered on and atomized when powered off.

[0037] The above describes the preferred embodiments of this utility model, illustrating and describing its basic principles, main features, and advantages. Those skilled in the art should understand that this utility model is not limited to the above embodiments. The embodiments and descriptions in the specification are merely illustrative of the principles of this utility model. Various changes and modifications can be made without departing from the spirit and scope of this utility model, and all such changes and modifications fall within the scope of protection of this utility model as defined by the appended claims and their equivalents.

Claims

1. An electric heating enclosure with simulated flames, comprising a columnar body and an electric ceramic stove (1), wherein the columnar body is provided with a main control circuit (9) and a control board (6), characterized in that: The columnar body includes a light-transmitting cylindrical body (3), a top frame (2), and a base (8). The top frame (2) and the base (8) are respectively located at the upper and lower ends of the light-transmitting cylindrical body (3). The electric ceramic stove (1) is embedded in the top frame (2). A simulated charcoal burning device (5) is provided inside the light-transmitting cylindrical body (3). The simulated charcoal burning device (5) includes a simulated carbon light-transmitting hood (52) and a simulated carbon burning light source (54). The simulated carbon burning light source (54) is located inside the simulated carbon light-transmitting hood (52) and is electrically connected to the main control circuit (9). The simulated carbon light-transmitting hood (52) The upper part is equipped with a flame-shaped reflector (51) and a flame-shaped light source (57) for illuminating the flame-shaped reflector (51). The lower end of the flame-shaped reflector (51) is equipped with a first magnet (511). The simulated carbon light-transmitting cover (52) is equipped with a motor (55). The output shaft of the motor (55) is connected to a crossbar (56). The crossbar (56) is equipped with a second magnet (561). The simulated carbon light source (54), the simulated flame light source (57), the electric ceramic stove (1), the motor (55) and the control board (6) are electrically connected to the main control circuit (9).

2. The electric heating enclosure with simulated flame as described in claim 1, characterized in that: The simulated carbon light-transmitting shape cover (52) is provided with clearance holes corresponding to the flame-shaped reflector (51) and the simulated flame light source (57). The simulated carbon light-transmitting shape cover (52) is provided with a support position (59), and a spring (58) is provided on the support position (59). The lower end of the flame-shaped reflector (51) is connected to the upper end of the spring (58).

3. The electric heating enclosure with simulated flame as described in claim 1, characterized in that: The simulated carbon light-transmitting cover (52) is also equipped with a motor frame (53), and the motor (55) and the simulated carbon light source (54) are mounted on the motor frame (53).

4. The electric heating enclosure with simulated flame as described in claim 1, characterized in that: The columnar body includes the light-transmitting cylindrical body (3), the top frame (2) and the base (8). The top frame (2) and the base (8) are respectively located at the upper and lower ends of the light-transmitting cylindrical body (3). The upper end of the light-transmitting cylindrical body (3) is provided with an inner flange (32), and multiple upper connecting columns (31) are provided on the inner flange (32). The top frame (2) is annular, and an annular boss (21) is provided on the inner side of its top. A countersunk hole (22) is provided on the upper surface of the annular boss (21). An L-shaped connecting arm (23) extends downward from the inner side of the annular boss (21). The countersunk hole (22) is connected to the upper connecting column (31) by screws. The electric ceramic stove (1) is embedded in the inner side of the annular boss (21) and connected to the L-shaped connecting arm (23). The simulated charcoal burning device (5) is located on the top surface of the base (8).

5. The electric heating enclosure with simulated flame as described in claim 4, characterized in that: The side wall of the top frame (2) is provided with light-transmitting holes (24).

6. The electric heating enclosure with simulated flame according to claim 4, characterized in that: The base (8) has an upward-protruding cavity (88) at the center of its bottom surface, and a cover (84) is provided at the lower end of the cavity (88). The main control circuit (9) is located inside the cavity (88). The bottom surface of the base (8), the top surface of the cavity (88), and the cover (84) are all provided with heat dissipation holes (87).

7. The electric heating enclosure with simulated flame according to claim 4, characterized in that: The lower inner side of the light-transmitting cylinder (3) is provided with an annular inner liner (4), which is connected to the base (8). Multiple multi-color LED beads (42) are distributed in a ring on the top surface of the annular inner liner (4), and the multi-color LED beads (42) are electrically connected to the main control circuit (9).

8. The electric heating enclosure with simulated flame according to claim 7, characterized in that: The inner wall of the light-transmitting cylinder (3) is also provided with a dimming film (20). The dimming film (20) is electrically connected to the main control circuit (9). The dimming film (20) is transparent when powered on and atomized when powered off.

9. The electric heating enclosure with simulated flame as described in claim 7, characterized in that: The upper edge of the light-transmitting cylinder (3) is provided with an upper limit step (33), and the lower end of the top frame (2) rests on the upper limit step (33); the lower end of the annular inner liner (4) is provided with an outward flange (43), the light-transmitting cylinder (3) is sleeved on the upper part of the annular inner liner (4), and the lower end of the light-transmitting cylinder (3) abuts against the outward flange (43); the lower edge of the light-transmitting cylinder (3) is also provided with a lower limit step (34), and the top edge of the base (8) abuts against the lower limit step (34).

10. The electric heating enclosure with simulated flame according to claim 1, characterized in that: The flame-shaped reflector (51) has two or more.

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