Electric ceramic furnace of surrounding furnace

Abstract

The utility model discloses an electric ceramic furnace with a surrounding furnace, which comprises a support base, a furnace body arranged on the support base, simulation carbon arranged in the furnace body and a surrounding furnace tray arranged on the furnace body and matched with the furnace body to bear food, a heating tray connected with a control circuit board is arranged in the middle of the support base, and four limiting columns corresponding to the outer edge of the heating tray are arranged in a square shape. The furnace body is clamped to the inner side of an annular ring on the supporting base, four limiting inserting rods at the bottom end of the furnace surrounding material disc are inserted into inserting grooves in limiting columns, the furnace surrounding material disc can be conveniently detached to clean the interior of the furnace body, the convenience of cleaning impurities in the furnace body is improved, a bearing area is arranged on the outer edge of the furnace surrounding material disc, and an annular limiting groove is formed in the bearing area, so that the furnace surrounding material disc can be conveniently detached, and the service life of the furnace surrounding material disc is prolonged. The bottom of the storage rack is supported and limited through the annular limiting groove, even if the weight of food on the storage rack deviates, the problems that the storage rack inclines and the like cannot be caused, and the stability of the storage rack located on the oven body is kept.

Description

Technical Field

[0001] The utility model relates to the technical field of electro-ceramic stoves, in particular to an enclosed electro-ceramic stove. Background Technique

[0002] An enclosed electro-ceramic stove is a kitchen cooking appliance that combines the concept of a traditional enclosed stove with modern electro-ceramic stove technology, aiming to provide users with a new cooking experience. The enclosed electro-ceramic stove is usually designed with a relatively high stove body in which food can be heated, and it can also serve as a platform for cooking operations. In order to cooperate with heating food, a heating plate is provided in the enclosed electro-ceramic stove, and a ceramic glass plate is provided above the heating plate in the stove body for carrying the food to be heated through the ceramic glass plate, and the high temperature generated by the operation of the heating plate is conducted to the ceramic glass plate to heat the food through the ceramic glass plate;

[0003] When the traditional enclosed electro-ceramic stove (such as an electro-ceramic stove disclosed in the patent application number 202023230411.X) is assembled with the ceramic glass plate and the stove body, the ceramic glass plate is embedded in the slot provided in the stove body, and the stove body is fixedly installed with the base. When the lamp belt in the stove body is damaged and needs to be repaired during use, tools are required to disassemble the stove body, which brings inconvenience to the repair inside the stove body. Moreover, since there is no area for limiting the placement rack in the cooperation between the stove body and the ceramic glass plate, when the placement rack is placed on the stove body, there are problems such as the placement rack tilting due to unbalanced placement of food;

[0004] Therefore, the utility model provides an enclosed electro-ceramic stove that is convenient for maintenance and can stably carry the placement rack. Content of the Utility Model

[0005] The purpose of the utility model is to provide an enclosed electro-ceramic stove to solve the problems put forward in the above background technique.

[0006] To achieve the above purpose, the utility model provides the following technical solutions:

[0007] An enclosed electro-ceramic stove includes a support base, a stove body provided on the support base, a simulated carbon provided inside the stove body, and an enclosed material tray provided on the stove body for carrying food. A heating plate for connecting a control circuit board is provided in the middle of the support base, and four limiting columns are provided in a square shape corresponding to the outer edge of the heating plate;

[0008] The stove body is clamped inside the annular ring on the support base. Four limiting insertion rods at the bottom end of the enclosed material tray are inserted into the slots on the limiting columns, and a heating groove is provided in the middle of the enclosed material tray corresponding to the upper part of the heating plate. A ceramic glass plate is received by a limiting step corresponding to the outer edge of the heating groove of the enclosed material tray, and a receiving area is provided on the outer edge of the enclosed material tray corresponding to the ceramic glass plate in a sloping surface.

[0009] Furthermore, a touch screen for adjusting the heating temperature of the heating plate is provided on the support base, and the temperature generated by the operation of the heating plate is adjusted according to the temperature required for heating food through the touch screen.

[0010] Furthermore, the simulated carbon is arranged in a ring shape inside the furnace body, and a lamp strip with lamp beads is arranged inside the simulated carbon, and the lamp strip is connected to the temperature sensor on the heating plate, the temperature sensor is used to sense the temperature of the heating plate, and output the sensed data to the lamp strip inside the simulated carbon, the control circuit connected to the lamp strip adjusts the temperature of the lamp beads on the lamp strip according to the temperature data fed back by the thermocouple connected to the temperature sensor and the thermistor connected to the microcrystalline board, so that the higher the temperature of the heating plate, the higher the brightness of the lamp beads on the lamp strip, thereby achieving the effect of simulated carbon imitating flame combustion.

[0011] Furthermore, the outer edge of the furnace surrounding material tray is inclined outwardly and has a deeper arc setting, and a food placement area is formed by the deeper arc, and the food placement area is used to place and heat food in cooperation with the microcrystalline plate.

[0012] Furthermore, a heat dissipation window is provided inside the support base to cooperate with the heat dissipation of the furnace body. The heat dissipation window cooperates with the furnace body to dissipate the temperature generated by the operation of the heating plate, thereby preventing the temperature from staying in the furnace body and causing high-temperature damage to the control board in the furnace body.

[0013] Furthermore, a transition zone with a sloped surface is provided on the inner side of the heating tank corresponding to the furnace material tray, and the outer edge of the microcrystalline board is butted against the inner side of the transition zone, so that the fit of the microcrystalline board embedded in the heating tank is further maintained through the transition zone.

[0014] Furthermore, the receiving area is provided with an annular limiting groove for limiting the position of the rack, and the annular limiting groove is used to cooperate with the furnace body to limit the rack carrying the food, so as to maintain the stability of the rack on the furnace body.

[0015] Compared with the prior art, the beneficial effects of the utility model are:

[0016] The furnace surrounding electric ceramic stove has a limiting plug rod on the bottom of the furnace surrounding material tray supported by a limiting column on the supporting base in the furnace body. When it is necessary to inspect the light strip or other structures inside the furnace body, the furnace surrounding material tray is moved up so that the limiting plug rod at the bottom of the furnace surrounding material tray is moved out of the limiting groove in the limiting column, thus realizing the rapid separation between the furnace surrounding material tray and the furnace body, and inspecting the light strip or other structures inside the furnace body, thereby improving the convenience of electrical inspection inside the furnace body.

[0017] A receiving area is provided at the outer edge of the hearth material tray, and an annular limiting groove is provided on the receiving area. The bottom of the storage rack is supported and limited by the annular limiting groove, so that the storage rack is stably supported on the furnace body and is located above the microcrystalline board. The food on the storage rack is heated by the temperature generated by the operation of the microcrystalline board. Even when the weight of the food on the storage rack deviates, it will not cause problems such as the tilting of the storage rack, and the storage rack is kept stable on the furnace body. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 is a schematic structural diagram of the present utility model;

[0019] Figure 2 The present utility model Figure 1 is an exploded structural diagram;

[0020] Figure 3 The present utility model Figure 1 is a schematic structural diagram after the hearth material tray is disassembled;

[0021] Figure 4 is a schematic structural diagram of the hearth material tray of the present utility model.

[0022] In the figure: 1, support base; 2, furnace body; 3, simulated carbon; 4, hearth material tray; 5, heating plate; 7, limiting post; 8, annular ring; 9, slot; 10, limiting insertion rod; 11, heating groove; 12, microcrystalline board; 13, touch screen; 14, food placement area; 15, heat dissipation window; 16, limiting step; 18, transition area; 20, receiving area; 21, annular limiting groove. DETAILED DESCRIPTION OF THE EMBODIMENTS

[0023] Next, the technical solutions in the embodiments of the present utility model will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present utility model. Obviously, the described embodiments are only a part of the embodiments of the present utility model, rather than all the embodiments. All other embodiments obtained by those of ordinary skill in the art based on the embodiments of the present utility model without creative efforts shall fall within the protection scope of the present utility model.

[0024] Please refer to Figures 1-4 , the present utility model provides a technical solution:

[0025] A hearth electro-ceramic stove includes a support base 1, a furnace body 2 provided on the support base 1, simulated carbon 3 provided inside the furnace body 2, and a hearth material tray 4 provided on the furnace body 2 for cooperating to carry food. The furnace body 2 is injection-molded with a PVC transparent material, which is convenient for users to observe the simulated carbon 3 inside through the transparent furnace body 2. A heating plate 5 connecting a control circuit board is provided in the middle of the support base 1, and four limiting posts 7 are provided in a square shape corresponding to the outer edge of the heating plate 5;

[0026] The furnace body 2 is snap-connected to the inner side of the annular ring 8 on the support base 1. Four limit insertion rods 10 at the bottom end of the surrounding furnace material tray 4 are inserted into the slots 9 on the limit posts 7. Moreover, a heating groove 11 is provided above the heating plate 5 corresponding to the middle of the surrounding furnace material tray 4. A microcrystalline board 12 is received by a limit step 16 corresponding to the outer edge of the heating groove 11 of the surrounding furnace material tray 4. A receiving area 20 is provided in a slope shape corresponding to the outer edge of the microcrystalline board 12 of the surrounding furnace material tray 4.

[0027] A touch screen 13 for adjusting the heating temperature of the heating plate 5 is provided on the support base 1. The temperature generated by the operation of the heating plate 5 is adjusted through the touch screen 13 according to the temperature required for food heating.

[0028] The simulation carbon 3 is arranged in a ring shape inside the furnace body 2. And a lamp belt with lamp beads is provided inside the simulation carbon 3. The lamp belt is connected to the temperature sensor on the heating plate 5. The temperature sensor is used to sense the temperature of the operation of the heating plate 5 and output the sensed data to the lamp belt inside the simulation carbon 3. The control circuit connected to the lamp belt adjusts the temperature of the lamp beads on the lamp belt according to the temperature data fed back by the thermocouple connected to the temperature sensor and the thermistor connected to the microcrystalline board 12, so that the higher the temperature of the heating plate 5, the higher the brightness of the lamp beads on the lamp belt, achieving the effect of the simulation carbon 3 imitating the flame combustion.

[0029] As Figure 1 shown, the outer edge of the surrounding furnace material tray 4 is set with an outward inclination and a deepened arc, and a food placement area 14 is formed through the deepened arc. The food placement area 14 is used to place and bake food in cooperation with the microcrystalline board 12.

[0030] As Figure 3 shown, a heat dissipation window 15 for cooperating with the furnace body 2 to dissipate heat is provided inside the support base 1. The heat dissipation window 15 cooperates with the furnace body 2 to dissipate the temperature generated by the operation of the heating plate 5, avoiding the temperature staying inside the furnace body 2 and causing high-temperature damage to the control board in the furnace body 2.

[0031] As Figure 4 shown, a transition area 18 in a slope shape is provided inside the surrounding furnace material tray 4 corresponding to the heating groove 11. The outer edge of the microcrystalline board 12 is butted against the inner side of the transition area 18. While the transition area 18 cooperates with the heating groove 11 to receive the microcrystalline board 12, the fitting property of the microcrystalline board 12 installed in the heating groove 11 is further maintained through the transition area 18.

[0032] As Figure 4 shown, an annular limit groove 21 for limiting and receiving the storage rack is provided on the receiving area 20. The annular limit groove 21 is used to cooperate with the furnace body 2 to limit the storage rack carrying the food and maintain the stability of the storage rack on the furnace body 2.

[0033] For this hearth electro-ceramic stove, the limiting insertion rod 10 at the bottom of the hearth tray 4 is received by the limiting posts 7 on the support base 1 inside the stove body 2. When it is necessary to repair the internal lamp strip or other structures of the stove body 2, the hearth tray 4 is lifted upwards so that the limiting insertion rod 10 at the bottom of the hearth tray 4 is removed from the limiting groove in the limiting post 7, that is, the rapid separation between the hearth tray 4 and the stove body 2 is realized, and the internal lamp strip or other structures of the stove body 2 are repaired, improving the convenience of electrical repair inside the stove body 2;

[0034] A receiving area 20 is provided at the outer edge of the hearth tray 4, and an annular limiting groove 21 is provided on the receiving area 20. The bottom of the storage rack is supported and limited through the annular limiting groove 21, so that the storage rack is stably supported on the stove body 2 and is located above the ceramic glass panel 12. The food on the storage rack is heated by the temperature generated by the operation of the ceramic glass panel 12. Even when there is a deviation in the weight of the food on the storage rack, problems such as tilting of the storage rack will not occur, and the storage rack is kept stable on the stove body 2;

[0035] The lamp strip inside the simulated carbon 3 cooperates with the ceramic glass panel to heat the food. Since the stove body 2 is provided with a transparent structure, when the light generated by the lamp strip is projected on the simulated carbon 3, the simulated carbon 3 forms a state of flame combustion, improving the aesthetic effect when the stove body 2 is in use.

[0036] Although the embodiments of the present invention have been shown and described, for those of ordinary skill in the art, it can be understood that various changes, modifications, substitutions and variations can be made to these embodiments without departing from the principle and spirit of the present invention. The scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A hearth electric ceramic stove, comprising a support base (1), a stove body (2) provided on the support base (1), a simulated carbon (3) provided inside the stove body (2), and a hearth tray (4) provided on the stove body (2) for cooperating to carry food, characterized in that: A heating plate (5) for connecting a control circuit board is provided in the middle of the support base (1), and four limit posts (7) are provided in a square shape corresponding to the outer edge of the heating plate (5); The furnace body (2) is clamped inside a ring (8) on the support base (1), and four limit insertion rods (10) at the bottom end of the surrounding furnace material tray (4) are inserted into slots (9) on the limit posts (7). A heating groove (11) is provided above the heating plate (5) corresponding to the middle of the surrounding furnace material tray (4). A ceramic glass plate (12) is received by a limit step (16) corresponding to the outer edge of the heating groove (11) of the surrounding furnace material tray (4). A receiving area (20) is provided in a slope shape corresponding to the outer edge of the ceramic glass plate (12) of the surrounding furnace material tray (4).

2. The electric ceramic stove for surrounding fire as claimed in claim 1, wherein: A touch screen (13) for adjusting the heating temperature of the heating plate (5) is provided on the support base (1).

3. The electric ceramic stove for surrounding fire according to claim 1, wherein: The simulated carbon (3) is arranged in a ring shape inside the furnace body (2), and a lamp strip with lamp beads is provided inside the simulated carbon (3), and the lamp strip is connected to a temperature sensor on the heating plate (5).

4. The electric ceramic stove for surrounding fire as claimed in claim 1, wherein: The outer edge of the surrounding furnace material tray (4) is arranged with an outward inclination and a deepened arc, and a food placement area (14) is formed through the deepened arc.

5. The electric ceramic stove for surrounding fire according to claim 1, characterized in that: A heat dissipation window (15) for cooperating with the furnace body (2) to dissipate heat is provided inside the support base (1).

6. The electric ceramic stove for surrounding fire as claimed in claim 1, wherein: A transition area (18) in a slope shape is provided inside the surrounding furnace material tray (4) corresponding to the heating groove (11), and the outer edge of the ceramic glass plate (12) is butted against the inside of the transition area (18).

7. The electric ceramic stove for surrounding fire according to claim 6, wherein: An annular limit groove (21) for limiting and receiving the storage rack is provided on the receiving area (20).

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