Integrated cooker

Abstract

The present application relates to the technical field of kitchen equipment, more particularly to an integrated stove, which comprises: a machine head placed on one side of the stove and having a smoke collecting cavity inside, the machine head having: a smoke inlet for smoke at the stove to enter the smoke collecting cavity; a table placed in a region above the stove and higher than the smoke inlet; a fan assembly placed below the table and in an intermediate region between the table and the smoke inlet in the height direction; the fan assembly is configured to form an air flow blowing towards the machine head in the intermediate region between the table and the smoke inlet. Thus, the table above the stove can be better utilized.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of kitchen equipment, more particularly to integrated stoves. BACKGROUND

[0002] An integrated stove is a kind of kitchen appliance integrating various functions such as range hood and gas stove.

[0003] In order to improve the convenience of kitchen storage and make it easier to take seasonings during cooking, some existing integrated stoves are provided with a storage table above the cooktop. It provides a basic space for placing items, which can be used to place seasoning bottles, tableware, cooking tools, etc. However, it is found in actual use that the items placed on the storage table are prone to deterioration, which leads to customers' unwillingness to place items on the storage table, and the storage table cannot be effectively utilized, resulting in idle function. SUMMARY

[0004] The present application aims at the deficiencies of the prior art and provides an integrated stove in which the storage table above the cooktop can be better utilized.

[0005] The technical solution of the present application is as follows:

[0006] The integrated stove comprises:

[0007] A machine head having a smoke collection cavity inside is placed on one side of the cooktop. The machine head has a smoke inlet for the flue gas at the cooktop to enter the smoke collection cavity.

[0008] A storage table is located in the area above the cooktop and is higher than the smoke inlet.

[0009] A fan assembly is arranged below the storage table in the middle area between the storage table and the smoke inlet in the height direction.

[0010] The fan assembly is configured to form an air flow towards the machine head in the middle area between the storage table and the smoke inlet.

[0011] Further as a preferred solution, the fan assembly comprises:

[0012] A first fan is arranged below the end of the storage table away from the machine head and is configured to form an air flow towards the machine head.

[0013] Further as a preferred solution, a air supply channel is arranged in the machine head, one end of which is open and extends to the side surface of the machine head facing away from the storage table, and the other end is open and extends to the side surface of the machine head facing the storage table.

[0014] The integrated cooker is further provided with a blowing fan, which is used to form an air flow in the air supply channel, flowing from a side of the head away from the placement table to a side of the head facing the placement table.

[0015] A wind guide member is arranged below the placement table and is aligned with the air supply channel, which guides the air blown by the air supply channel to flow obliquely downward to the surface of the head.

[0016] Further preferably, a heat-blocking plate is connected below the placement table, forming a heat-insulating cavity with a cavity structure between the heat-blocking plate and the placement table.

[0017] The first fan is arranged below the heat-blocking plate.

[0018] Further preferably, a heat-blocking plate is connected below the placement table, forming a heat-insulating cavity with a cavity structure between the heat-blocking plate and the placement table.

[0019] The first fan is arranged in the heat-insulating cavity.

[0020] A side wall of the heat-insulating cavity away from the head is provided with a plurality of air inlet holes for external air to enter the heat-insulating cavity.

[0021] A lower end wall of the heat-insulating cavity is provided with a first accommodation hole located on the path of the air flow blown by the first fan, for the air flow blown by the first fan to blow out of the heat-insulating cavity.

[0022] The first fan is arranged obliquely to form an air flow that is blown toward the head and obliquely downward.

[0023] Further preferably, a connecting plate is connected to the lower end of the heat-blocking plate and located on the side of the first accommodation hole away from the head.

[0024] The connecting plate has a first flow guide plate extending horizontally toward the head, which is arranged below the first accommodation hole at intervals to guide the air flow blown out of the first accommodation hole toward the head.

[0025] Further preferably, the fan assembly further comprises:

[0026] A second fan is arranged below the end of the placement table close to the head and between the head and the first fan.

[0027] The second fan is arranged obliquely to form an air flow that is blown to the surface of the head and obliquely downward.

[0028] In the horizontal direction, the air outlet of the first fan and the air inlet of the second fan are relatively positioned to allow:

[0029] When the first fan and the second fan are operated simultaneously, the second fan directs the air flow blown by the first fan.

[0030] Further preferably, a heat-insulating plate is connected below the placement table, and a heat-insulation cavity is formed between the heat-insulating plate and the placement table.

[0031] Further preferably, the fan assembly is arranged below the heat-insulating plate.

[0032] Further preferably, the first fan and the second fan are arranged in the heat-insulation cavity.

[0033] The side wall of the heat-insulation cavity away from the head is provided with a plurality of air inlet holes for external air to enter the heat-insulation cavity.

[0034] The lower end wall of the heat-insulation cavity is provided with a second accommodation hole located on the path of the air blown by the second fan, so that the air blown by the second fan can be blown to the surface of the head.

[0035] Further preferably, the first fan is also arranged obliquely to form air flow that is blown towards the head and obliquely downwards.

[0036] The lower end wall of the heat-insulation cavity is provided with a first accommodation hole located on the path of the air blown by the first fan, so that the air blown by the first fan can be blown out of the heat-insulation cavity.

[0037] The lower end of the heat-insulating plate is connected with a connecting plate located on the side of the first accommodation hole away from the head.

[0038] The connecting plate has a first flow guide plate extending horizontally towards the head, and the first flow guide plate is located below the first accommodation hole at intervals to guide the air flow blown out of the first accommodation hole towards the head.

[0039] Further preferably, the connecting plate is provided with a plurality of flow guide holes arranged in a through manner in the horizontal direction.

[0040] Further preferably, the lower side of the second accommodation hole has a second flow guide plate arranged obliquely to guide the air flow blown downwards from the second accommodation hole to blow obliquely downwards to the surface of the head.

[0041] Further preferably, the heat-insulation cavity is provided with a support partition plate connected at one end to the placement table and at the other end to the heat-insulating plate.

[0042] The support partition plate is provided with an air flow hole for the air flow to circulate between the air inlet hole and the second fan.

[0043] The main advantages of the above technical solution are:

[0044] By setting the fan assembly, when the stove is working, the airflow can be formed in the middle area between the placement table and the smoke inlet, which blows towards the machine head, pushes the high-temperature flue gas rising when the stove works to the machine head, and flows into the smoke collecting cavity through the smoke inlet of the machine head, thereby reducing the high-temperature flue gas in contact with the placement table, reducing the high-temperature influence of the stove on the placement table. Whether the stove works or not, the objects placed on the placement table can better maintain the state of not being affected by high temperature, so that customers are willing to place objects on the placement table, the placement table can be well utilized and its functional advantages can be realized.

[0045] Further or more detailed beneficial effects will be described in the specific embodiments in the specific embodiments. BRIEF DESCRIPTION OF DRAWINGS

[0046] The application will be further described below in conjunction with the drawings:

[0047] Figure 1 It is a schematic diagram of the overall structure of the integrated stove.

[0048] Figure 2 It is a schematic diagram of the structure of the fan assembly.

[0049] Figure 3 It is a schematic diagram of the structure of the fan assembly.

[0050] Figure 4 It is a schematic diagram of the structure of the fan assembly.

[0051] Figure 5 It is a schematic diagram of the structure of the fan assembly.

[0052] Figure 6 It is a schematic diagram of the structure of the fan assembly. Figure 1 .

[0053] Figure 7 It is a schematic diagram of the structure of the fan assembly. Figure 2 .

[0054] Figure 8 It is a schematic diagram of the structure of the fan assembly.

[0055] Figure 9 It is a schematic diagram of the structure of the fan assembly. Figure 1 .

[0056] Figure 10 It is a schematic diagram of the structure of the fan assembly. Figure 2 .

[0057] As shown in the figure: lower machine 1, stove 2, head 3, first connecting plate 3a, second connecting plate 3b, smoke collecting cavity 3.1, smoke inlet 3.2, air supply channel 3.3, storage table 4, heat insulation cavity 4a, air inlet hole 4a.1, first fan 5, second fan 6, heat blocking plate 7, heat insulation cavity 4a, connecting plate 8, first flow guide plate 8.1, flow guide hole 8.2, second flow guide plate 9, support partition 10, purge fan 11, air guide 12. DETAILED DESCRIPTION

[0058] The application will be specifically illustrated below in combination with examples:

[0059] Example 1:

[0060] Integrated stove, as shown in the accompanying Figure 1 It includes lower machine 1 with steam oven structure or cupboard structure or dishwasher structure, stove 2 arranged on lower machine 1, and head 3 arranged on lower machine 1 and located at one side of stove 2.

[0061] Head 3 is internally formed with smoke collecting cavity 3.1 in a cavity arrangement, and head 3 is externally formed with smoke inlet 3.2, one end of smoke collecting cavity 3.1 is in communication with smoke inlet 3.2, and the other end is in communication with the smoke exhaust cavity in lower machine 1. The smoke exhaust cavity is in communication with the smoke exhaust pipeline of the house, and the smoke exhaust cavity is arranged with fan structure for sucking the smoke in smoke collecting cavity 3.1 into the smoke exhaust cavity and driving the smoke in the smoke exhaust cavity to be discharged to the smoke exhaust pipeline.

[0062] When stove 2 works, the smoke generated at stove 2 will enter smoke collecting cavity 3.1 from smoke inlet 3.2, and be transported to the smoke exhaust cavity and the smoke exhaust pipeline from smoke collecting cavity 3.1 for outward discharge.

[0063] In this embodiment, head 3 includes first connecting plate 3a, and second connecting plate 3b arranged between first connecting plate 3a and stove 2, second connecting plate 3b is arranged around the side of first connecting plate 3a facing stove 2, first connecting plate 3a and second connecting plate 3b jointly form smoke collecting cavity 3.1 extending in the vertical direction, and the lower end of smoke collecting cavity 3.1 is in communication with the smoke exhaust cavity in lower machine 1. The height of second connecting plate 3b is lower than the height of first connecting plate 3a, and the upper end of smoke collecting cavity 3.1 is arranged in an open manner, so as to form, as shown in the accompanying Figure 1 As shown in the accompanying

[0064] In order to improve the storage convenience of the kitchen and make it more convenient to take the seasonings during cooking, this embodiment is further provided with storage table 4 located in the region above stove 2 and higher than smoke inlet 3.2. As shown in the accompanying Figure 1As shown, the storage table 4 is placed above the smoke inlet 3.2, and one end of the storage table 4 is fixed to the first connecting plate 3a by, for example, screws, to achieve the fixation of the storage table 4.

[0065] However, in actual use, it is found that the seasonings and other articles placed on the storage table 4 are prone to deterioration, which leads to the unwillingness of customers to place articles on the storage table 4, and the storage table 4 cannot be effectively utilized, resulting in idle function.

[0066] After research, it is found that the cause of the above problems is that when the cooking utensils 2 are used to cook food materials, although part of the high-temperature flue gas enters the integrated stove through the smoke inlet 3.2 to be sucked and discharged in the form of an extractor hood, part of the high-temperature flue gas rises and contacts the storage table 4. The storage table 4 of the integrated stove is often made of a metal material that is easy to conduct heat to ensure the structural strength. Thus, the high-temperature flue gas generated by the cooking utensils 2 is prone to quickly heat the storage table 4, causing the storage table 4 to be in a high-temperature state. At this time, the high-temperature storage table 4 transmits heat to the articles, such as seasonings, placed on the storage table 4. Under the direct contact of the high-temperature heat, the articles, such as seasonings (especially sugar, salt, and other articles prone to heat deterioration), are prone to overheat and deteriorate. This leads to the unwillingness of customers to place articles on the storage table 4, and the storage table 4 cannot be effectively utilized, resulting in idle function.

[0067] Based on this, in the present embodiment, a fan assembly is arranged below the storage table 4, which is arranged in the intermediate region of the storage table 4 and the smoke inlet 3.2 in the height direction. The fan assembly is configured to form an airflow blowing toward the hood 3 in the intermediate region of the storage table 4 and the smoke inlet 3.2.

[0068] In this way, by arranging the fan assembly, when the cooking utensils 2 are working, the airflow blowing toward the hood 3 is formed in the intermediate region of the storage table 4 and the smoke inlet 3.2, the high-temperature flue gas rising when the cooking utensils 2 are working is pushed to the hood, and then flows into the smoke collecting cavity through the smoke inlet 3.2 of the hood, thereby reducing the high-temperature flue gas contacting the storage table 4 and reducing the high-temperature influence of the cooking utensils 2 on the storage table 4. Regardless of whether the cooking utensils 2 are working or not, the articles placed on the storage table 4 can be better kept in a state not affected by high temperature, so that customers are willing to place articles on the storage table 4, the storage table 4 can be effectively utilized, and the functional advantages of the storage table 4 can be exerted.

[0069] The fan assembly consists of common fan components, such as axial fans or centrifugal fans. The fan mainly includes a rotating motor to provide rotational power, blades fixed to the output shaft of the rotating motor, and may also include a housing surrounding the blades. When the rotating motor drives the blades to rotate, causing the fan to operate, regardless of whether it has a housing, the fan has an air inlet located on one side of the blades for air to flow in, and an air outlet located on the other side of the blades for air to flow out.

[0070] In this embodiment, the fan assembly includes a first fan 5, which is located below the end of the platform 4 away from the head 3, and is configured to generate an airflow that blows toward the head 3.

[0071] To be precise, as shown in the appendix Figure 2 As shown, the first fan 5 in this embodiment is an axial flow fan, and its air outlet is positioned facing the head 3. When it is running, it can generate an airflow that blows towards the head 3 to achieve the aforementioned heat insulation effect on the shelf 4.

[0072] Furthermore, when the first fan 5 forms an airflow blowing towards the head 3, some of the blown flue gas easily diffuses upward, contacts and transfers heat to the shelf 4.

[0073] Based on this, in this embodiment, as shown in the appendix Figure 2 As shown, the fan assembly also includes a second fan 6, which is located below the end of the platform 4 near the head 3 and is positioned horizontally between the head 3 and the first fan 5. Both the first fan 5 and the second fan 6 can be fixed to the platform 4.

[0074] The second fan 6 is configured to be inclined so as to generate an airflow that is blown onto the surface of the head 3 and blown downwards at an angle.

[0075] This tilt setting refers to: for example, attached Figure 3 As shown, in this embodiment, when the second fan 6 is an axial flow fan, it has an axis a around which the blades rotate. This axis a is inclined and forms an angle with the horizontal line b, which is generally about 30 to 75 degrees. Alternatively, the axis a is horizontal, but it has an inclined air outlet to form an airflow that is blown onto the surface of the head 3 and blown downwards at an angle.

[0076] Furthermore, in the horizontal direction, the air outlet of the first fan 5 and the air inlet of the second fan 6 are positioned opposite each other. That is, when the first fan 5 and the second fan 6 are projected onto the same horizontal plane, the air outlet of the first fan 5 and the air inlet of the second fan 6 are opposite each other. This allows the second fan 6 to directionally guide the airflow blown by the first fan 5 when the first fan 5 and the second fan 6 are running simultaneously. In other words, when the first fan 5 and the second fan 6 are running simultaneously, the second fan 6 can draw in the airflow blown by the first fan 5, causing most of the high-temperature flue gas blown by the first fan 5 to flow directionally towards the second fan 6, rather than flowing upwards randomly, thus reducing the amount of high-temperature flue gas in contact with the platform 4.

[0077] In this way, not only can the blowing of the first fan 5 and the suction of the second fan 6 improve the airflow pushing efficiency, allowing more high-temperature flue gas to be blown to the head 3 and flow into the inlet 3.2; but also, in the process of forming airflow, the airflow in contact with the platform 4 can be reduced, thus better reducing the impact of high-temperature flue gas on the platform 4.

[0078] The second fan 6 is preferably positioned lower than the first fan 5 so that it can better draw the airflow blown out by the first fan 5 downwards and reduce its contact with the shelf 4.

[0079] Moreover, by presenting the second wind turbine 6 as attached Figure 2 and 3 The tilted setting shown can not only better transport the airflow between the platform 4 and the smoke inlet 3.2 to the smoke inlet 3.2, but also blow the head 3 to apply a downward blowing action to the oil droplets on the surface of the head 3, thereby cleaning the surface of the head 3 and improving the cleanliness of the head 3.

[0080] Based on the above solution, in order to better improve the heat insulation of shelf 4, as shown in the attached... Figure 3 As shown, in this embodiment, a heat-insulating plate 7 is connected below the platform 4 using, for example, a screw structure or a welding structure, and a heat-insulating cavity 4a with a cavity structure is formed between the plate 7 and the platform 4.

[0081] In one form, as shown in the appendix Figure 3 As shown, the fan assembly can be placed below and fixed to the heat shield 7. However, this would expose the fan to the outside, making it prone to malfunctions and safety accidents.

[0082] In another form, as shown in the appendix Figure 5As shown, the first fan 5 and the second fan 6 are both arranged in the heat insulation cavity 4a; a side wall of the heat insulation cavity 4a away from the machine head 3 is provided with: a plurality of air inlet holes 4a.1 for external air to enter the heat insulation cavity 4a; and a lower end wall of the heat insulation cavity 4a is provided with: a second accommodation hole 7.1 located on a path of air blown by the second fan 6, so that the air blown by the second fan 6 can be blown to the surface of the machine head 3. The first fan 5 and the second fan 6 can be fixed to the placement table 4 or fixed to the heat blocking plate 7.

[0083] In this way, the placement table 4 can be heat-insulated as described above, and the first fan 5 and the second fan 6 can also be protected.

[0084] Further, as shown in the accompanying drawings, Figure 5 as described above that the second fan 6 is arranged obliquely, the first fan 5 in this embodiment is also arranged obliquely, so as to form air flow that is blown towards the machine head 3 and obliquely downwards.

[0085] That is, for example, as shown in the accompanying drawings, Figure 5 when the first fan 5 in this embodiment is an axial fan, it has an axis around which the blades rotate, the axis is arranged obliquely and forms an angle with the horizontal line, and the angle is generally about 30 degrees to 75 degrees. Alternatively, the axis is arranged horizontally, but it has an air outlet arranged obliquely, so as to form air flow that is blown to the surface of the machine head 3 and obliquely downwards.

[0086] Meanwhile, a lower end wall of the heat insulation cavity 4a is provided with: a first accommodation hole 7.2 located on a path of air blown by the first fan 5, so that the air blown by the first fan 5 can be blown outwards from the heat insulation cavity 4a; the heat blocking plate 7 is connected with: a connecting plate 8 located on a side of the first accommodation hole 7.2 away from the machine head 3; and the connecting plate 8 has: a first flow guide plate 8.1 extending transversely towards the machine head 3, which is located below the first accommodation hole 7.2 at intervals, so as to guide the air flow blown from the first accommodation hole 7.2 towards the machine head 3.

[0087] At this time, when the first fan 5 and the second fan 6 are operated simultaneously, air flow as shown by arrows in B of the accompanying drawings is formed. Figure 5

[0088] When external air enters from the air inlet hole 4a.1, it flows into the first fan 5 from the air inlet of the first fan 5 and is blown obliquely downwards towards the machine head 3 from the air outlet of the first fan 5, and the blown air flow forms two streams.

[0089] One stream is: a part of the air flow blown by the first fan 5 flows towards the second fan 6 and is blown obliquely downwards towards the surface of the machine head 3 by the second fan 6 as described above.

[0090] ​Another airflow is: another part of the airflow blown out by the first fan 5 passes through the first clearance hole 7.2 and is blown to the bottom of the heat shield 7, and then flows laterally towards the head 3 after being guided by the first guide plate 8.1.

[0091] This not only protects the first fan 5 and the second fan 6, but also maintains the heat insulation effect on the shelf 4, even forming a double-layer heat dissipation airflow structure, further enhancing the heat insulation effect on the shelf 4. Specifically, the rising high-temperature flue gas generated by the stove 2 is driven towards the fan head 3 by the aforementioned airflow, and flows more effectively into the smoke inlet 3.2. Conversely, the heat transferred from the heat shield 7 to the shelf 4 is also driven towards the fan head 3 by the aforementioned airflow, reducing the heat transfer effect on the shelf 4.

[0092] The connecting plate 8 may also be provided with several guide holes 8.2 arranged horizontally to enhance the flow of the other airflow and better drive the rising high-temperature flue gas generated by the stove 2 to flow towards the head 3 and into the smoke inlet 3.2.

[0093] Furthermore, below the second clearance hole 7.1, there is an inclined second guide plate 9, which guides the airflow blown downward from the second clearance hole 7.1 so that the airflow is blown obliquely downward to the surface of the head 3. This allows more airflow from the second fan 6 to reach the surface of the head 3, improving the cleaning effect on the head 3.

[0094] In this embodiment, as shown in the appendix Figure 5 As shown, the upper end of the second guide plate 9 is connected to the heat shield plate 7 and is located on the side of the second clearance hole 7.1 facing away from the head 3, while the lower end faces the head 3 and extends obliquely downwards. This not only guides the airflow from the second fan 6 as described above, causing more of the airflow from the second fan 6 to be blown obliquely downwards onto the surface of the head 3, but also guides the other airflow that flows laterally towards the head 3 after being guided by the first guide plate 8.1, directing it towards the head 3 and blowing it obliquely downwards. This not only better transports the airflow between the platform 4 and the smoke inlet 3.2 to the smoke inlet 3.2, but also increases the cleaning area on the surface of the head 3, further improving the cleaning effect of the head 3.

[0095] As attached Figure 6 As shown in the figure, this embodiment may also provide a support partition 10 in the heat insulation cavity 4a, one end of which is connected to the platform 4 and the other end is connected to the heat insulation plate 7 to improve the overall structural strength; and the support partition 10 is provided with an airflow hole for airflow to pass between the air inlet 4a.1 and the second fan 6.

[0096] In any of the above solutions, the rotating motor driving the first fan 5 to operate and the rotating motor driving the second fan 6 to operate can be electrically connected to the controller of the integrated cooker and configured to be synchronously turned on / off with the hood module of the integrated cooker.

[0097] Alternatively, the rotating motor driving the first fan 5 to operate and the rotating motor driving the second fan 6 to operate are electrically connected to the controller of the integrated cooker, and the integrated cooker is provided with a button electrically connected to the controller and used to control the on / off of the first fan 5 and the second fan 6, so that the on / off of the first fan 5 and the second fan 6 is directly controlled by the button.

[0098] Embodiment II:

[0099] The integrated cooker, as shown in the accompanying drawings, comprises a lower machine 1 having a steaming oven structure or a cupboard structure or a dishwasher structure, a stove 2 arranged on the lower machine 1, and a machine head 3 arranged on the lower machine 1 and located at one side of the stove 2. Figure 1 The machine head 3 is internally formed with a smoke collecting cavity 3.1 in a hollow manner, and the surface of the machine head 3 is provided with a smoke inlet 3.2. One end of the smoke collecting cavity 3.1 is in communication with the smoke inlet 3.2, and the other end is in communication with a smoke exhaust cavity in the lower machine 1. The smoke exhaust cavity is in communication with the smoke exhaust pipeline of the house, and the smoke exhaust cavity is provided with a fan structure for sucking the smoke in the smoke collecting cavity 3.1 into the smoke exhaust cavity and driving the smoke in the smoke exhaust cavity to be discharged to the smoke exhaust pipeline.

[0100] In this embodiment, the machine head 3 comprises a first connecting plate 3a and a second connecting plate 3b arranged between the first connecting plate 3a and the stove 2. The second connecting plate 3b is arranged around one side of the first connecting plate 3a facing the stove 2. The first connecting plate 3a and the second connecting plate 3b jointly form the smoke collecting cavity 3.1 extending in the vertical direction. The lower end of the smoke collecting cavity 3.1 is in communication with the smoke exhaust cavity in the lower machine 1. The height of the second connecting plate 3b is lower than the height of the first connecting plate 3a, and the upper end of the smoke collecting cavity 3.1 is formed in an open manner, so that the smoke inlet 3.2 is formed on the side surface of the machine head 3 close to the stove 2, as shown in the accompanying drawings.

[0101] Figure 1 The machine head 3 is internally formed with a smoke collecting cavity 3.1 in a hollow manner, and the surface of the machine head 3 is provided with a smoke inlet 3.2. One end of the smoke collecting cavity 3.1 is in communication with the smoke inlet 3.2, and the other end is in communication with a smoke exhaust cavity in the lower machine 1. The smoke exhaust cavity is in communication with the smoke exhaust pipeline of the house, and the smoke exhaust cavity is provided with a fan structure for sucking the smoke in the smoke collecting cavity 3.1 into the smoke exhaust cavity and driving the smoke in the smoke exhaust cavity to be discharged to the smoke exhaust pipeline.

[0102] This embodiment is also provided with a placement table 4 located in the region above the stove 2 and higher than the smoke inlet 3.2. As shown in the accompanying drawings, the placement table 4 is arranged above the smoke inlet 3.2, and one end of the placement table 4 is fixed to the first connecting plate 3a by means of screws, for example, to realize the fixation of the placement table 4. Figure 1

[0103] ​​In the embodiment, a fan assembly is arranged below the placement table 4 and in the intermediate region of the placement table 4 and the smoke inlet 3.2 in the height direction. The fan assembly is configured to form an air flow directed towards the hood 3 in the intermediate region of the placement table 4 and the smoke inlet 3.2.

[0104] In this way, by arranging the fan assembly, when the cooktop 2 is working, an air flow directed towards the hood can be formed in the intermediate region of the placement table 4 and the smoke inlet 3.2, so that the high-temperature flue gas rising when the cooktop 2 is working is pushed to the hood and flows into the smoke collecting cavity through the smoke inlet 3.2 of the hood, thereby reducing the high-temperature flue gas in contact with the placement table 4 and reducing the high-temperature influence of the cooktop 2 on the placement table 4. Regardless of whether the cooktop 2 is working or not, the objects placed on the placement table 4 can be better kept in a state not affected by high temperature, so that the customer is willing to place objects on the placement table 4, the placement table 4 can be well and effectively utilized, and the functional advantages thereof can be exerted.

[0105] The fan assembly is composed of a commonly used fan, such as an axial fan or a centrifugal fan. The fan mainly includes a rotating motor for providing rotating power, a blade fixed to the output shaft of the rotating motor, and can further include an outer shell for wrapping around the blade. When the rotating motor drives the blade to rotate to make the fan work, whether or not the outer shell is provided, the fan has an air inlet on one side of the blade for air inflow and an air outlet on the other side of the blade for air outflow.

[0106] In the embodiment, the fan assembly includes a first fan 5 arranged below the end of the placement table 4 away from the hood 3 and configured to form an air flow directed towards the hood 3.

[0107] Specifically, as shown in the accompanying drawings, Figure 2 the first fan 5 exemplified in the embodiment is an axial fan, and the air outlet thereof is arranged towards the hood 3. When the first fan 5 works, an air flow directed towards the hood 3 can be formed to achieve the heat blocking effect on the placement table 4.

[0108] Further, as shown in the accompanying drawings, Figure 9 the hood 3 can further be provided with a blowing channel 3.3 having one end opening extending to the side of the hood 3 away from the placement table 4 and the other end opening extending to the side of the hood 3 facing the placement table 4, and the other end opening of the blowing channel 3.3 is preferably located below the placement table 4.

[0109] Meanwhile, the integrated stove is also equipped with a purge fan 11 (which is an axial flow fan or a centrifugal fan to form airflow in the air supply channel 3.3), which is used to form an airflow in the air supply channel 3.3 from the side of the unit head 3 facing away from the table 4 to the side of the unit head 3 facing the table 4. Below the table 4 is a guide vane 12 aligned with the air supply channel 3.3. The upper end of the guide vane 12 can be fixed to the unit head 3 or the table 4 by, for example, screws, and the lower end has an inclined extension to guide the air blown from the air supply channel 3.3 obliquely downwards to the surface of the unit head 3. In this embodiment, the purge fan 11 is preferably located in the air supply channel 3.3, but it can also be located outside the air supply channel 3.3.

[0110] In this way, after the heat-resistant airflow is formed by the first fan 5 as described above, the blower 11 can also blow the head 3 to apply a downward blowing action to the oil droplets on the surface of the head 3, thereby cleaning the surface of the head 3 and improving the cleanliness of the head 3.

[0111] In some cases, the wind speed of the purge fan 11 can be set lower than that of the first fan 5 so that the airflow delivered by the first fan 5 can be better kept horizontally blown to the head 3, so as to form a horizontally extended and stable heat-insulating airflow below the platform 4.

[0112] Furthermore, in order to better insulate the shelf 4, a heat-insulating plate 7 can be connected below the shelf 4, forming a heat-insulating cavity 4a with a hollow structure between the plate 7 and the shelf 4.

[0113] At this time, the first fan 5 can be connected to the bottom of the heat shield 7 by means of, for example, screws.

[0114] Or, as attached Figure 10 As shown, the first fan 5 is placed inside the heat insulation cavity 4a. At this time, the side wall of the heat insulation cavity 4a away from the head 3 is provided with several air inlets 4a.1 for external airflow to enter the heat insulation cavity 4a. Furthermore, the lower end wall of the heat insulation cavity 4a is provided with a first clearance hole 7.2 located in the path of the airflow blown out by the first fan 5, allowing the airflow blown out by the first fan 5 to exit from the heat insulation cavity 4a. The first fan 5 is inclined to form an airflow that blows towards the head 3 and downwards at an angle. In this way, the first fan 5 can generate the heat-insulating airflow blown towards the head 3 as described above.

[0115] Furthermore, in order to better create a horizontally extending, stable, heat-resistant airflow beneath the shelf 4, as shown in the attached... Figure 10As shown, the lower end of the heat-blocking plate 7 can be further connected with: a connecting plate 8 located on the side of the first displacement hole 7.2 away from the head 3; the connecting plate 8 has: a first flow guide plate 8.1 extending horizontally towards the head 3, which is located below the first displacement hole 7.2 at intervals, so as to guide the airflow blown out of the first displacement hole 7.2 towards the head 3.

[0116] On the basis of the above-mentioned scheme, the air guide member 12 is a plate member, which has a part extending obliquely to guide the air blown out of the air supply channel 3.3 obliquely downward to the surface of the head 3, and the lower end of the part preferably extends below the first fan 5, so as to guide the airflow obliquely downward when the airflow formed by the first fan 5 is blown to the head 3, so as to better enhance the downward blowing action of the oil droplets and the like on the surface of the head 3, realize the cleaning of the surface of the head 3, and improve the cleanliness of the head 3.

[0117] The above only describes the preferred embodiments of the present application and does not limit the scope of the present application. In addition, the terms "vertical", "horizontal", "front", "back" and the like mentioned in the embodiments of the present application indicate the orientation or positional relationship shown in the drawings, or the orientation or positional relationship commonly used when the product is used, and are only for the convenience of describing the present application and simplifying the description, and do not indicate or imply that the device or element referred to must have a particular orientation, be constructed and operated in a particular orientation, and therefore cannot be understood as limiting the present application. It needs to be further explained that, unless otherwise explicitly specified and limited, the terms "mounting", "connecting", "connecting", "fixing" and the like in the description should be understood broadly, for example, "connecting" can be fixedly connected, or detachably connected, or integrally connected; can be directly connected, or indirectly connected through an intermediate medium, or the connection between two elements inside. For those skilled in the art, the specific meaning of the above terms in the present application can be understood according to the specific circumstances.

[0118] Although embodiments of the present application have been shown and described, those skilled in the art can understand that various changes, modifications, replacements and variations can be made to these embodiments without departing from the principles and spirit of the present application, and the scope of the present application is defined by the claims and their equivalents.

Claims

1. Integrated cooker, characterized in that, The integrated stove comprises: a machine head (3) arranged on one side of the stove (2) and having a smoke collecting cavity (3.1) inside, the machine head (3) having a smoke inlet (3.2) for smoke at the stove (2) to enter the smoke collecting cavity (3.1); a placement table (4) arranged in a region above the stove (2) and higher than the smoke inlet (3.2); a fan assembly arranged below the placement table (4) and in an intermediate region of the placement table (4) and the smoke inlet (3.2) in the height direction; the fan assembly is configured to form an air flow blowing towards the machine head (3) in the intermediate region of the placement table (4) and the smoke inlet (3.2); a blowing channel (3.3) is arranged in the machine head (3) and has one end opening extending to a side of the machine head (3) facing away from the placement table (4) and the other end opening extending to a side of the machine head (3) facing the placement table (4); the integrated stove further comprises a blowing fan (11) configured to form an air flow flowing from the side of the machine head (3) facing away from the placement table (4) to the side of the machine head (3) facing the placement table (4) in the blowing channel (3.3); a wind guide (12) is arranged below the placement table (4) and in alignment with the blowing channel (3.3), the wind guide (12) guiding the air flow blown out of the blowing channel (3.3) obliquely downward to the surface of the machine head (3).

2. The integrated stove of claim 1, wherein: The fan assembly comprises: a first fan (5) arranged below one end of the placement table (4) away from the machine head (3) and configured to form an air flow blowing towards the machine head (3).

3. The integrated cooktop of claim 2, wherein: A heat blocking plate (7) is connected below the placement table (4) and forms a heat insulation cavity (4a) with a cavity structure between the heat blocking plate (7) and the placement table (4); the first fan (5) is arranged below the heat blocking plate (7).

4. The integrated stove of claim 2, wherein: A heat blocking plate (7) is connected below the placement table (4) and forms a heat insulation cavity (4a) with a cavity structure between the heat blocking plate (7) and the placement table (4); the first fan (5) is arranged in the heat insulation cavity (4a); a side wall of the heat insulation cavity (4a) away from the machine head (3) is provided with a plurality of air inlet holes (4a.1) for external air to enter the heat insulation cavity (4a); a lower end wall of the heat insulation cavity (4a) is provided with a first clearance hole (7.2) located on the path of the air flow blown out by the first fan (5) and allowing the air flow blown out by the first fan (5) to blow out of the heat insulation cavity (4a); the first fan (5) is arranged obliquely to form an air flow blowing towards the machine head (3) and obliquely downward.

5. The integrated cooktop of claim 4, wherein: a connecting plate (8) is connected to the lower end of the heat blocking plate (7) and located on the side of the first clearance hole (7.2) facing away from the machine head (3). The connecting plate (8) is provided with a first flow guide plate (8.1) extending transversely towards the head (3), which is located below the first gap (7.2) at intervals to guide the airflow blown out of the first gap (7.2) towards the head (3).

6. The integrated cooktop of claim 2, wherein: The fan assembly further comprises: A second fan (6) located below the one end of the placement table (4) close to the head (3) and between the head (3) and the first fan (5); The second fan (6) is configured to be inclined to form an airflow blown to the surface of the head (3) and obliquely downward; And in the horizontal direction, the air outlet of the first fan (5) and the air inlet of the second fan (6) are relatively positioned to make: When the first fan (5) and the second fan (6) operate simultaneously, the second fan (6) directs the airflow blown by the first fan (5).

7. The integrated cooktop of claim 6, wherein: The heat-resistant plate (7) is connected below the placement table (4), and a heat insulation cavity (4a) is formed between the heat-resistant plate (7) and the placement table (4).

8. The integrated cooktop of claim 7, wherein: The fan assembly is located below the heat-resistant plate (7).

9. The integrated cooktop of claim 7, wherein: The first fan (5) and the second fan (6) are both located in the heat insulation cavity (4a); The side wall of the heat insulation cavity (4a) away from the head (3) is provided with a plurality of air inlet holes (4a.1) for external airflow to enter the heat insulation cavity (4a); The lower end wall of the heat insulation cavity (4a) is provided with a second gap (7.1) located on the path of the airflow blown by the second fan (6) so that the airflow blown by the second fan (6) can be blown to the surface of the head (3).

10. The integrated cooktop of claim 9, wherein: The first fan (5) is also inclined to form an airflow blown towards the head (3) and obliquely downward; The lower end wall of the heat insulation cavity (4a) is provided with a first gap (7.2) located on the path of the airflow blown by the first fan (5) so that the airflow blown by the first fan (5) can be blown out of the heat insulation cavity (4a); The heat-resistant plate (7) is connected with a connecting plate (8) on the side away from the head (3); The connecting plate (8) is provided with a first flow guide plate (8.1) extending transversely towards the head (3), which is located below the first gap (7.2) at intervals to guide the airflow blown out of the first gap (7.2) towards the head (3).

11. The integrated cooktop of claim 10, wherein: The connecting plate (8) is provided with a plurality of flow guide holes (8.2) arranged in the transverse direction.

12. The integrated cooktop of claim 10, wherein: The lower side of the second gap (7.1) is provided with a second flow guide plate (9) arranged obliquely to guide the airflow blown downward from the second gap (7.1) to the surface of the head (3) obliquely downward.

13. The integrated cooktop of claim 9, wherein: The heat insulation cavity (4a) is provided with a support partition plate (10), one end of which is connected with the storage table (4) and the other end of which is connected with the heat resistance plate (7); The support partition plate (10) is provided with an air flow hole for the air flow to flow between the air inlet hole (4a.1) and the second fan (6).

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