CN115727371A - Integrated kitchen range - Google Patents

Abstract

This application is applicable to the technical field of kitchen equipment, and provides an integrated cooker, which includes a fuselage, a cooker body, a machine head, a refrigeration component, and a bellows component. , the stove body is arranged on the fuselage and has a stove body cavity, the air outlet end of the hot air chamber is connected with the stove body cavity, the air outlet end of the stove body cavity is connected with the oil fume channel of the machine head, and the oil fume channel of the machine head is also connected with the bellows assembly The hot air generated by the cooling assembly in the hot air chamber is discharged into the oil fume passage through the inner cavity of the stove body, and mixed with the oil fume airflow in the oil fume passage. The hot air will not be directly discharged into the bellows assembly and will not affect the bellows assembly The internal wind field avoids the influence of the oil fume suction effect of the machine head due to the change of the wind field in the bellows assembly, and ensures that the integrated stove has a good oil fume suction effect.

Description

Integrated cooker

technical field

The present application relates to the technical field of kitchen equipment, in particular to an integrated cooker.

Background technique

With the improvement of people's living standards, a new type of kitchen appliance integrated stove that integrates range hoods, gas stoves, disinfection cabinets, storage cabinets and other functions has emerged as the times require. The integrated stove not only solves the problem of large kitchen appliances. problem, and the oil fume absorption effect is also higher than that of ordinary scattered range hoods, so it is more and more used in family kitchens.

As we all know, the cooking process generates a lot of heat, especially in the hot summer, when the temperature in the kitchen will be higher. Generally, the space of the family kitchen itself is small, and it is unrealistic for most families to install large-scale refrigeration equipment such as air conditioners in the kitchen. Therefore, a new technology of installing refrigeration components in the integrated stove has appeared.

The working process of the refrigeration component is the heat exchange process of the air, thus, hot air will be generated. At present, the hot air is usually discharged into the air box at the lower rear side of the integrated stove. The air box mainly forms a low-pressure area through the rotation of the fan impeller inside, so as to suck the oil fume airflow generated during use into the machine head from the smoking port of the machine head. The discharge of hot air will disturb the wind field in the bellows box, thereby affecting the upper machine head. oil fume extraction effect.

Contents of the invention

The purpose of the embodiment of the present application is to provide an integrated cooker, aiming to solve the technical problem of the existing integrated cooker that the hot air generated by the refrigeration component is discharged into the air box, which causes the disturbance of the wind field in the air box and affects the effect of oil fume suction.

The embodiment of the present application is achieved in this way, an integrated stove, including:

The fuselage has a fuselage cavity;

The stove body is arranged on the body, and the stove body has a stove inner cavity;

The machine head is arranged on the fuselage and is located on one side of the cooker body, and the machine head has a fume passage;

a refrigeration component disposed in the inner cavity of the fuselage; and

The bellows assembly is arranged in the inner cavity of the fuselage, and the bellows assembly has a smoke exhaust channel communicated with the oil smoke channel;

The inner cavity of the fuselage includes a hot air chamber, the air outlet end of the hot air chamber communicates with the inner cavity of the range, the air outlet end of the inner cavity of the range communicates with the oil fume passage, and the hot air generated by the refrigeration component passes through The hot air cavity and the inner cavity of the range are exhausted to the oil fume passage.

In one embodiment, the inner cavity of the stove includes a guide channel, and the guide channel communicates with both the hot air cavity and the oil fume channel.

In one embodiment, the cooker body includes a cooker body shell, and the cooker body cavity is formed in the cooker body shell; the cooker body shell is provided with a A connected first diversion inlet, and a diversion outlet that communicates with both the diversion channel and the oil fume channel is provided on the side of the cooker body shell facing the machine head.

In one embodiment, the cooker body housing includes a bottom case and a base plate, and the flow guide channel is formed in the base plate.

In one embodiment, the platform includes a top board, a plurality of side boards and a bottom board, the side boards are connected to the periphery of the top board and enclose in turn, the bottom board is connected to the side boards, the top board and The flow guide channel is formed between the bottom plates; the first flow guide inlet is formed on the bottom plate, and the flow guide outlet is formed on the side plate close to the machine head.

In one embodiment, the cooling assembly is arranged at one end of the inner cavity of the fuselage, and the first air guide inlet is formed at an end of the bottom plate close to the cooling assembly.

In one embodiment, the integrated cooktop further includes a guide vane arranged in the guide channel, and the guide vane divides the guide channel to form a plurality of channels connecting the first guide inlet and the guide channel. The sub-channel of the diversion outlet.

In one embodiment, the air guide includes a air guide body and an installation lug provided on the air guide body, and the installation ear is connected to the top plate and/or the bottom plate.

In one embodiment, the flow guide body includes a first sheet and a second sheet, the first sheet is planar and extends from the first flow guide inlet along the length direction of the flow guide channel , the second sheet extends from the first sheet toward the diversion outlet.

In one embodiment, the second sheet is in the shape of a curved surface; the guide body further includes a third sheet, the third sheet is flat, and one end of the third sheet is connected to the first The two pieces are connected tangentially, and the other end of the third piece is perpendicular to the plane where the diversion outlet is located.

In one embodiment, the diversion body further includes a third sheet, the second sheet and the third sheet are planar, the first sheet, the second sheet and the third sheet sequentially bent and connected, the third piece is connected to the diversion outlet;

Alternatively, the second sheet is vertically connected to the first sheet, and the second sheet is connected to the diversion outlet.

In one embodiment, the number of the guide vanes is multiple, the first sheets of the plurality of guide vanes are arranged at intervals along the direction away from the machine head, and each of the first pieces The length of the body increases sequentially as it moves away from the nose.

In one embodiment, the machine head includes a machine head lower shell, and the oil fume passage is formed in the machine head lower shell; the side of the machine head lower shell facing the stove body is provided with a second guide An inflow port, the inner cavity of the stove is in communication with the second diversion inlet, and the hot air in the inner cavity of the stove enters the oil fume passage through the second diversion inlet.

In one embodiment, the machine head further includes an oil guiding sheet arranged in the oil fume passage, one end of the oil guiding sheet is arranged at the side of the second flow guiding inlet away from the bellows assembly, and Connected to the inner wall of the lower shell of the machine head, the other end of the oil guiding sheet extends away from the smoking port on the machine head and away from the second flow guide inlet.

The beneficial effect of the integrated stove provided by the embodiment of the present application lies in:

In the integrated cooker provided in the embodiment of the present application, its cooling assembly is arranged in the inner cavity of the body. The inner cavity of the fuselage includes a hot air cavity. It communicates with the oil fume channel of the machine head, and the oil fume channel of the machine head is also connected with the smoke exhaust channel of the bellows assembly. The hot air generated by the refrigeration component in the hot air chamber is discharged into the oil fume channel through the inner cavity of the stove, and flows with the oil fume in the oil fume channel. Mixed, the hot air will not be directly discharged into the bellows assembly, and will not affect the wind field in the bellows assembly, avoiding the oil fume suction effect of the machine head affected by the change of the wind field in the bellows assembly, ensuring that the integrated stove has good oil fume Suction effect.

Description of drawings

In order to more clearly illustrate the technical solutions in the embodiments of the present application, the following will briefly introduce the accompanying drawings that need to be used in the embodiments. Obviously, the accompanying drawings in the following description are only some embodiments of the present application. For Those of ordinary skill in the art can also obtain other drawings based on these drawings without making creative efforts.

Fig. 1 is a partial structural schematic diagram of an integrated cooker provided by an embodiment of the present application;

Fig. 2 is a schematic structural view of the integrated cooker body housing shown in Fig. 1;

Fig. 3 is the enlarged view of place A in Fig. 2;

Fig. 4 is a schematic diagram of the structure of the integrated stove shown in Fig. 1, wherein the bottom plate is removed;

Fig. 5 is a schematic structural view of the deflector in the integrated stove shown in Fig. 1;

Fig. 6 is another schematic diagram of the structure of the integrated stove shown in Fig. 1, wherein the bottom plate is removed;

Fig. 7 is a structural schematic diagram of the head in the integrated stove shown in Fig. 1;

Fig. 8 is a schematic diagram of the air flow path in the integrated stove shown in Fig. 1;

Fig. 9 is an enlarged view at B in Fig. 8;

Fig. 10 is a partial cross-sectional structural schematic diagram of the integrated stove shown in Fig. 1 .

The meanings of the marks in the figure are:

100-integrated stove;

1-body, 10-body inner cavity, 101-hot air cavity, 102-cold air cavity, 11-air guide, 12-exhaust vent, 13-cold air outlet, 14-return air vent;

2-Stove body, 21-Stove body shell, 210-Stove body cavity, 211-Guide channel, 2110-Sub flow channel, 22-Bottom shell, 23-Platform, 231-Top plate, 232-Side plate, 2320 - diversion outlet, 233 - bottom plate, 2330 - first diversion inlet, 234 - baffle plate; 24 - furnace head;

3-head, 31-lower shell of the machine head, 311-oil fume channel, 312-smoking port, 313-second diversion inlet, 32-upper shell of the machine head;

4-refrigeration assembly, 41-condenser;

5-Flector, 51-Flector body, 511-First body, 512-Second body, 513-Third body, 52-Installation lug; 6-Oil guide; 7-Blower assembly , 70-exhaust channel.

Detailed ways

In order to make the purpose, technical solution and advantages of the present application clearer, the present application will be further described in detail below in conjunction with the accompanying drawings and embodiments. It should be understood that the specific embodiments described here are only used to explain the present application, not to limit the present application.

It should be noted that when a component is referred to as being “fixed on” or “disposed on” another component, it may be directly or indirectly fixed or disposed on the other component. When an element is referred to as being "connected to" another element, it can be directly or indirectly connected to the other element. The orientation or positional relationship indicated by the terms "upper", "lower", "left", "right", etc. are based on the orientation or positional relationship shown in the drawings, and are for convenience of description only, rather than indicating or implying the referred device Or elements must have a particular orientation, be constructed and operate in a particular orientation and therefore should not be construed as limiting this patent. The terms "first" and "second" are only used for descriptive purposes, and cannot be understood as indicating or implying relative importance or implicitly specifying the quantity of technical features. "Plurality" means two or more, unless otherwise clearly and specifically defined.

Please refer to FIG. 1 , FIG. 8 and FIG. 10 , the embodiment of the present application provides an integrated cooker 100 , which includes a body 1 , a cooker body 2 , a head 3 , a cooling assembly 4 and an air box assembly 7 . Specifically, the fuselage 1 is used as an integral support frame and is generally used to be placed on the ground, and a fuselage cavity 10 is formed inside it. The stove body 2 is arranged on the fuselage 1, carried by the fuselage 1, and has a certain height from the ground, so as to adapt to the height of the user's body and facilitate cooking operations. The cooker body 2 has a cooker inner cavity 210 for accommodating structures such as a gas inlet pipe (not shown). The machine head 3 is arranged on the fuselage 1 and is positioned at one side of the stove body 2. The oil fume passage 311 is arranged inside the machine head 3, and the machine head 3 is used to control the oil fume airflow generated above the stove body 2 during cooking (see FIG. 8 and shown by the dotted arrow in FIG. Please refer to Fig. 8, the bellows assembly 7 is arranged in the fuselage cavity 10, the bellows assembly 7 can be positioned under the machine head 3, the bellows assembly 7 has a smoke exhaust channel 70, and the upper end of the smoke exhaust channel 70 is in contact with the oil fume channel 311 The lower end (outlet end) of the exhaust channel 70 is communicated with the public flue (not shown) in the building wall through the exhaust port 12 arranged on the fuselage 1, and the bellows assembly 7 is used to convey the oil fume airflow to the public flue through the oil fume passage 311, the smoke exhaust passage 70 and the smoke exhaust port 12, and further discharge it to the outside. The refrigeration assembly 4 is used to generate cold air, and the cold air is discharged indoors, such as in a kitchen, to cool down the kitchen environment. The refrigeration assembly 4 is arranged in the body cavity 10 of the body 1 .

It should be noted that, during the working process of the cooling assembly 4 , heat exchange occurs between the air, and while part of the air cools down to form cold air, another part of the air heats up to form hot air.

Specifically, as shown in FIG. 10 , the fuselage inner chamber 10 includes a hot air chamber 101 and a cold air chamber 102, and the air temperature in the cold air chamber 102 is reduced to form cold wind. Please refer to FIG. Dashed arrow) is discharged through the cold air outlet 13 formed on the fuselage 1; the air in the hot air chamber 101 is heated to form hot air (shown by the dotted arrow in FIG. 10 ). In this embodiment, the air outlet end of the hot air cavity 101 communicates with the inner cavity 210 of the stove, and the air outlet end of the inner cavity 210 of the stove communicates with the oil fume passage 311 . In this way, please refer to FIG. 8 and FIG. 9 in combination. Under the action of the air box assembly 7, the hot air in the hot air chamber 101 enters the oil fume passage 311 through the stove body cavity 210, and mixes with the oil fume airflow in the oil fume passage 311 (Fig. 8 and In Fig. 9, the solid line straight arrows represent the mixed air flow) and enter the bellows assembly 7 together, and are finally discharged to the outside.

In the integrated cooker 100 provided in the embodiment of the present application, during the working process of the cooling assembly 4, hot air is formed in the hot air chamber 101 of the inner cavity 10 of the body due to heat exchange of air, and the air outlet end of the hot air chamber 101 is connected to the cooker body cavity 210 through the inner cavity 210 of the stove. The oil fume passage 311 of the head 3 is connected, and the hot air enters the oil fume passage 311 through the cavity 210 of the stove body, and mixes with the oil fume airflow in the oil fume passage 311 . In this way, the hot air will not be directly discharged into the bellows assembly 7, and will not affect the wind field in the bellows assembly 7, which avoids affecting the oil fume suction effect of the machine head 3 due to the change of the wind field in the bellows assembly 7. The wind field is stable, ensuring that the machine head 3 has a good oil fume extraction effect.

Generally, the integrated cooker 100 has a specific installation orientation in usage scenarios. Specifically, when the user faces the integrated cooker 100, the side of the integrated cooker 100 facing the user is the front, the side away from the user is the back, the side corresponding to the user's left hand is the left, and the side corresponding to the user's right hand is side is right. The left-right direction is the length direction of the integrated stove 100 , the front-back direction is the width direction of the integrated stove 100 , and the up-down direction is the height direction of the integrated stove 100 . In the following descriptions, these orientations of the integrated stove 100 in use scenarios will be used. However, it can be understood that, in non-use scenarios, the integrated cooker 100 may have other orientations, but this does not affect the relative positional relationship between the various structures of the integrated cooker 100 .

Specifically, as shown in Figure 10, the refrigeration assembly 4 includes a compressor (not shown), a condenser 41 and an evaporator (not shown), the exhaust port of the evaporator is connected to the suction port of the compressor, and the condenser 41 The inlet port of the compressor is connected to the exhaust port of the compressor. There is a low-temperature and low-pressure gaseous refrigerant in the evaporator. After the low-temperature and low-pressure gaseous refrigerant enters the compressor, the compressor compresses it into a high-temperature and high-pressure gaseous refrigerant. The high-temperature and high-pressure gaseous refrigerant is discharged and enters the condenser 41 for heat dissipation and condensation. Then, it enters the evaporator to evaporate and absorb heat, becomes a low-temperature and low-pressure gaseous refrigerant, and returns to the compressor again, and the cycle repeats. In this way, the evaporator is arranged in the cold air chamber 102, and the temperature of the surrounding environment of the evaporator is reduced due to the evaporation and heat absorption of the internal refrigerant, and the cold air is obtained in the cold air chamber 102; the condenser 41 is arranged in the hot air chamber 101, and the condenser 41 is because of its internal The heat dissipation of the refrigerant causes the ambient temperature to rise, and hot air is obtained in the hot air chamber 101 .

The compressor can be located in the hot air chamber 101 , or in the cold air chamber 102 , or partly in the cold air chamber 102 and the other part in the hot air chamber 101 , or in other chambers divided in the inner chamber 10 of the fuselage. No special settings are made for this.

Optionally, the refrigeration assembly 4 may also include two impellers (not shown) respectively provided with the hot air chamber 101 and the cold air chamber 102, and the impellers rotate to respectively drive the hot air and the cold air to discharge, so as to improve the exhaust efficiency of the hot air and the cold air.

In other optional embodiments, the cooling assembly 4 can be configured in other ways.

The cold air generated by the cooling assembly 4 is discharged outside through the cold air outlet 13 , wherein, in one embodiment, as shown in FIG. 1 , the cold air outlet 13 is formed on the cooker body 2 , and the cold air is blown forward. Moreover, the cold air outlet 13 may be generally formed in the middle of the cooker body 2 . Of course, it is not limited thereto, and in other optional embodiments, the cold air outlet 13 may be formed at other suitable positions on the fuselage 1 .

As shown in FIG. 1 , the integrated cooker 100 also needs to be provided with an air return port 14 to provide indoor air to the cooling assembly 4 . The air return port 14 communicates with the hot air chamber 101 and the cold air chamber 102 , and the air enters the interior of the integrated cooker 100 through the air return port 14 to exchange heat under the action of the cooling assembly 4 . Wherein, optionally, the return air outlet 14 is arranged on the fuselage 1, and is spaced from the cold air outlet 13, and its specific position and shape can be set according to needs, which is not specifically limited here.

In other optional embodiments, the return air outlet 14 may not be provided on the fuselage 1 , which is not particularly limited here.

The bellows assembly 7 may include a bellows shell and a fan (not shown) arranged in the bellows shell, etc. The specific form is not limited, as long as it can provide the power to discharge the air. The space inside the bellows housing can be used as the above-mentioned smoke exhaust channel 70 .

Please refer to FIG. 1 and FIG. 7 , the handpiece 3 includes a lower head case 31 and an upper head case 32 arranged on the upper part of the lower head case 31 . A fume passage 311 is formed in the lower case 31 of the machine head, and a smoking port 312 communicating with the fume passage 311 is formed on the machine head 3 at a position generally at the upper part. The upper shell 32 of the machine head is located at the upper end of the machine head 3, and it generally extends forward. The space inside the upper case 32 may be provided with a control module (not shown) for controlling operations. Specifically, for example, the control module can be connected with the bellows assembly 7, and the control module can control the start of the bellows assembly 7 to suck the oil fumes, and control the bellows assembly 7 to stop working; for another example, the control module can be connected with the refrigeration assembly 4, and the control module It can control the start and stop of the refrigeration assembly 4; as another example, in some embodiments, the machine head 3 can also include an opening and closing plate located at the smoking port 312, and the control module can be connected with the opening and closing plate, and control the flipping of the opening and closing plate to open Smoking port 312 and closing the smoking port 312 . According to other needs, the control module can also have other control functions, which will not be repeated here.

Please refer to FIG. 1 and FIG. 8 , the cooker body 2 includes a cooker body shell 21 , the cooker body shell 21 is arranged on the body 1 , and the cooker body cavity 210 is formed on the cooker body shell 21 . The cooker body 2 also includes a burner head 24 disposed on the cooker body casing 21 . In addition to the gas inlet pipe mentioned above, structures such as gas nozzles, ejector pipes, and air regulating plates (not shown) of the burner head 24 are also arranged in the inner cavity 210 of the stove, and the fire ring of the burner head 24 (including the outer Fire ring, inner fire ring, etc.) are positioned outside the range body housing 21, and gas arrives at the fire ring place through gas inlet pipe, gas nozzle, ejection pipe etc., and is ignited. The specific working process and further structure of the stove body 2 will not be repeated here.

Specifically, please refer to FIG. 1 , the stove body casing 21 is a generally regular structure, usually in the shape of a cuboid. The cooker body casing 21 includes a bottom case 22 and a platform 23 , and a cooker body cavity 210 is formed between the bottom case 22 and the platform 23 . The bottom case 22 is located below the table 23. The bottom case 22 may have a certain space and open toward the side of the table 23. The above-mentioned gas inlet pipe, gas nozzle, ejector pipe, air regulating plate and other structures can be fixed Installed in the bottom case 22. The specific form of the bottom shell 22 is not particularly limited.

Please refer to FIG. 4 , FIG. 6 and FIG. 8 . In one embodiment, the inner cavity 210 of the range includes a guide channel 211 , and the guide channel 211 is isolated and independent from other spaces in the inner cavity 210 of the range. In order to make the flow between the air in the air guiding channel 211 and the air outside the air guiding channel 211 independent of each other. One end of the guide channel 211 communicates with the hot air chamber 101 , and the other end communicates with the oil fume channel 311 . In this way, the hot air is discharged into the fume passage 311 through the guide passage 211 .

The purpose of such setting is, firstly, as mentioned above, an air regulating plate (not shown) is provided in the inner cavity 210 of the cooking range, and the air regulating plate is used to adjust the amount of primary air entering the ejector pipe, and the primary air It comes directly from the inner cavity 210 of the cooker. Therefore, setting a diversion channel 211 to transport the hot air alone can avoid the formation of a flow field in the inner cavity 210 of the cooker and affect the primary air entering the injection tube, thereby avoiding the impact on the combustion of gas. 2. The inner cavity 210 of the stove usually has a larger space, and the hot air enters the fume passage 311 through the guide channel 211, which can avoid the long stay of the hot air in the inner cavity 210 of the stove and the reduction of the wind speed, and the hot air can enter the oil fume passage 311 faster, And when it enters, it can have a certain wind speed, so as to prevent the oil fume flow from entering into the inner cavity 210 of the stove body in reverse, and at the same time, improve the exhaust efficiency of hot air and ensure the cooling efficiency of the refrigeration assembly 4 .

In this embodiment, the platen 23 is also a structure with a certain space. The guide channel 211 is formed in the platform 23 . The purpose of such setting is that there is no need to adjust the size and position of the structural components of the bottom shell 22 and the burner 24 inside, which can significantly reduce the cost of transformation and improvement of the integrated cooker 100 .

As shown in FIGS. 2 and 4 , the platform 23 includes a top plate 231 , a bottom plate 233 and a plurality of side plates 232 . The top board 231 and the bottom board 233 are opposite and arranged at intervals, and a plurality of side boards 232 are connected to the periphery of the top board 231 and enclose them in sequence. The bottom plate 233 is connected to one or more side plates 232 , and the flow guiding channel 211 is formed between the bottom plate 233 and the top plate 231 .

Please refer to FIG. 1 , FIG. 2 , FIG. 4 and FIG. 6 , the platen 23 is a generally regular structure, usually in the shape of a cuboid. Therefore, the top boards 231 may all be rectangular boards, and the number of side boards 232 may be four. Of course, this is only an example, and the top plate 231 may have other shapes, and the number of side plates 232 may be other numbers according to specific needs.

The guide channel 211 is formed in the inner cavity 210 of the cooker on a side close to the handpiece 3 .

Specifically, as shown in FIG. 4 , the platform 23 further includes a baffle 234 connected to the top plate 231 and the bottom plate 233 , and a flow guide channel 211 is formed between the baffle 234 and at least one of the side plates 232 . Such an arrangement makes it unnecessary for the bottom plate 233 to have the same size as the top plate 231 , and the bottom plate 233 can only be disposed between the baffle plate 234 and the side plate 232 . In this way, the bottom plate 233 will not affect the protruding of the fire ring of the burner 24 from the top plate 231 .

Specifically in this embodiment, a flow guide channel 211 is formed between the baffle plate 234 and a side plate 232 close to the machine head 3 .

Optionally, the baffle 234 is substantially parallel to the side plates 232 close to the machine head 3 , and the two ends of the baffle 234 extend along the left and right directions until they are respectively connected with the two side plates 232 on both sides. In this way, the guide channel 211 is substantially parallel to a side plate 232 close to the handpiece 3 .

Please refer to FIG. 2 and FIG. 3 , the bottom plate 233 is formed with a first diversion inlet 2330 , the first diversion inlet 2330 communicates with the diversion channel 211 , and the hot air entering the inner cavity 210 of the stove enters through the first diversion inlet 2330 diversion channel 211 .

Please refer to Fig. 1, the space of the inner cavity 10 of the fuselage is larger, in order to be able to arrange more inserts (not shown) with certain functions in the inner cavity 10 of the fuselage, the cooling assembly 4 is arranged in the inner cavity of the fuselage One side of 10 , that is, the cooling assembly 4 is set sideways in the inner cavity 10 of the body, for example, to the left or to the right. In this way, other spaces in the inner cavity 10 of the fuselage except for the cooling assembly 4 can be provided with larger inserts. Specifically, the inserts can be one or more of dishwashers, steam boxes, ovens, disinfection cabinets, bowl baskets, etc.; when there are multiple inserts, the multiple inserts can be arranged in a stacked up and down manner. Of course, according to specific needs, the embedded part may have other configuration methods, which will not be repeated here.

On this basis, the first flow guide inlet 2330 is formed at one end of the bottom plate 233 , that is, at the end corresponding to the position of the cooling assembly 4 . In the up-and-down direction, the first air guiding inlet 2330 can be roughly aligned with the cooling assembly 4 . In this way, the path that the hot air passes between the hot air chamber 101 and the first air guide inlet 2330 can be the shortest, which is beneficial to reduce the resistance that the hot air encounters during the moving process.

Optionally, as shown in FIG. 8 and FIG. 10 , the fuselage 1 further includes an air guide 11 disposed in the inner cavity 10 of the fuselage, one end of the air guide 11 communicates with the hot air chamber 101, and the other end communicates with the first The diversion inlet 2330 is in communication. Based on the above, the air guide 11 can also be substantially aligned with the first air guide inlet 2330 and the cooling assembly 4 in the up-down direction, that is, the air guide 11 can generally extend along the up-down direction, not necessarily in the left-right direction. Bend up.

The inside of the air guide 11 is hollow, so that hot air can pass through. The specific form of the air guide 11 will not be described in detail.

As shown in FIG. 2 and FIG. 7 , a diversion outlet 2320 is formed on the side plate 232 facing the machine head 3 , and the diversion outlet 2320 communicates with the diversion channel 211 . A second air guide inlet 313 is formed on a side of the lower shell 31 facing the stove body 2 . The second diversion inlet 313 is in contact with the diversion outlet 2320 on the side plate 232 , so that the two are in communication. In this way, the communication between the guide channel 211 and the oil fume channel 311 is realized.

The number of diversion outlets 2320 may be one, or multiple, and the plurality of diversion outlets 2320 are arranged at intervals. In this embodiment, there is one diversion outlet 2320 . In this way, the manufacturing cost of the guide outlet 2320 can be reduced.

Wherein, the diversion outlet 2320 extends along the width direction of the cooker body 2 , so as to have a certain width (dimensions in the front-rear direction). The second diversion inlet 313 extends along the width direction of the machine head 3 and also has a certain width. The purpose of such setting is that after the hot air enters the oil fume passage 311, it can be directly dispersed at various positions in the width direction of the oil fume passage 311, thereby having little influence on the wind field at each position in the width direction of the oil fume passage 311 and reducing the influence on the oil fume. The influence of the overall wind field in the channel 311 is small and balanced, and there will be no problem of excessive local wind speed at the diversion outlet 2320, which is conducive to ensuring that the hot air and oil fume are discharged into the wind box in a balanced manner.

From the above, it can be known that the hot air enters the guide channel 211 from the first guide inlet 2330 located at one end of the bottom plate 233 , then spreads and moves in the guide channel 211 along the width direction, and finally discharges from the guide outlet 2320 into the oil fume channel 311 . In order to speed up the dispersion of the hot air in the air guide channel 211, so that the hot air can reach the various positions of the air guide outlet 2320 along the width direction as soon as possible and evenly, in one embodiment, as shown in Figures 3 to 6, the integrated The cooker 100 further includes at least one guide vane 5 . The guide vane 5 is disposed in the guide channel 211 , with one end facing the first guide inlet 2330 and the other end facing the guide outlet 2320 . The guide sheet 5 divides the guide channel 211 into a plurality of sub-channels 2110 distributed along the front and rear directions. Each sub-channel 2110 is used to guide part of the hot air to different positions of the diversion outlet 2320 , and each sub-runner 2110 communicates with the first diversion inlet 2330 and the diversion outlet 2320 .

As shown in FIG. 3 and FIG. 4 , in this embodiment, there are multiple guide vanes 5 . One ends of the plurality of guide vanes 5 are all facing the first guide inlet 2330, and one ends of the plurality of guide vanes 5 can be roughly aligned so that the hot air from the first guide inlet 2330 can be distributed to multiple sub-flows at the same time and more evenly Road 2110 Middle. Of course, according to specific needs, it is also possible to displace one end of a plurality of guide vanes 5 , as shown in FIG. 6 . The other ends of the plurality of guide vanes 5 are arranged at intervals along the width direction of the integrated stove 100 , and optionally, the other ends of the plurality of guide vanes 5 are evenly distributed along the width direction at the guide outlet 2320 . In this way, the plurality of guide fins 5 can evenly divide the guide outlet 2320 in the width direction, so that the hot air can be more uniformly dispersed when reaching the guide outlet 2320 .

In one embodiment, as shown in FIG. 5 , the baffle 5 includes a baffle body 51, and the baffle body 51 includes a connected first sheet body 511 and a second sheet body 512, the first sheet body 511 is in the form of Planar, the second piece 512 is curved. The first sheet 511 is arranged close to the first diversion inlet 2330 , and the second sheet 512 is arranged near the diversion outlet 2320 . The second sheet 512 and the first sheet 511 may be connected tangentially.

Optionally, the multiple first slices 511 are parallel to each other, and the multiple first slices 511 are evenly distributed along the front-to-rear direction in the flow guide channel 211 . This makes the hot air move in the width direction after entering the flow guide channel 211 from the first flow guide inlet 2330 , and then turn to flow toward the flow guide outlet 2320 after being acted by the second sheet 512 .

As shown in FIG. 3 and FIG. 4 , in the direction from back to front, the lengths (dimensions along the left and right directions) of the plurality of first sheets 511 increase sequentially. For example, three baffles 5 are shown in Fig. 4, wherein the length of a first sheet 511 close to the nose 3 is the smallest, the length of a first sheet 511 away from the nose 3 is the largest, and the other baffles The length of 5 is in between. The purpose of this setting is to reduce the total length of the second sheet 512, because the manufacturing difficulty of the planar first sheet 511 is lower than that of the curved second sheet 512, it can reduce the overall length of the second sheet 512. The manufacturing difficulty of the deflector 5 reduces the manufacturing cost.

Not limited to the above, in other optional embodiments, the second sheet 512 may also be planar, but bent relative to the first sheet 511 . Such an arrangement can further reduce the manufacturing difficulty of the deflector 5 . For example, the second sheet 512 may be perpendicular to the connection with the first sheet 511 and perpendicular to the plane where the air guide outlet 2320 is located (the front surface of the side plate 232 where it is located).

In one embodiment, please refer to FIG. 5 , the baffle body 51 further includes a third piece 513, the third piece 513 is connected to an end of the second piece 512 away from the first piece 511, the third piece The body 513 is planar, and the third piece 513 extends from the second piece 512 along the front-to-back direction toward the flow guide outlet 2320, so that the third piece 513 is also perpendicular to the plane where the flow guide outlet 2320 is located (the side plate where it is located) 232 front surface). The purpose of this arrangement is that the third piece 513 can make the air flow direction of the hot air generally along the front and back direction here, so that it can directly and evenly enter the oil fume passage 311 and mix with the oil fume flow, further avoiding the influence of the oil fume flow. Shocks in other directions. The third sheet 513 and the second sheet 512 may also be connected tangentially.

In other optional embodiments, the above-mentioned second piece 512 may be planar, and the first piece 511 , the second piece 512 and the third piece 513 are bent and connected in sequence.

Please refer to FIG. 3 and FIG. 5 , in one embodiment, the flow deflector 5 further includes mounting lugs 52 , and the installation lugs 52 are disposed on one side or opposite sides of the flow deflector body 51 . The mounting lugs 52 are used to connect with the top plate 231 and/or the bottom plate 233 , so that the deflector body 51 is fixed between the top plate 231 and the bottom plate 233 .

In this embodiment, the installation lugs 52 are disposed on opposite sides of the first sheet 511 and opposite sides of the third sheet 513 , and are bent relative to the first sheet 511 and the third sheet 513 . The mounting lugs 52 close to the top plate 231 are used to connect with the top plate 231, and the mounting lugs 52 close to the bottom plate 233 are used to connect with the bottom plate 233, so that the first piece 511 and the third piece 513 can be fixed in the guide channel 211 , furthermore, the second sheet body 512 is also fixed in the flow guiding channel 211 , and the flow guiding vane body 51 is fixed in the flow guiding channel 211 .

Since the first piece 511 and the third piece 513 are planar, the installation lug 52 and the first piece 511 and the third piece 513 can be integrally formed by punching and bending. In this way, both the manufacturing difficulty and the manufacturing cost of the deflector 5 can be reduced.

In other optional embodiments, installation lugs 52 may also be provided on the second sheet body 512 . If the second sheet body 512 is bent, the mounting lugs 52 can be fixed together by forming the second sheet body 512 separately and then connecting them. If the second piece 512 is planar, the second piece and the mounting lug 52 can also be integrally formed, and details will not be repeated here.

Not limited to the above, in other optional embodiments, according to the different lengths of the first sheet 511 to the third sheet 513, the installation lug 52 may only be provided on the first sheet 511, for example, it may be provided On one side or opposite sides of the first sheet 511; it can also be arranged only on the third sheet 513, for example, it can be arranged on one side or opposite sides of the third sheet 513; it can also be arranged only on the third sheet 513 On the second sheet 512 , for example, it can be arranged on one side or two opposite sides of the second sheet 512 . But in general, it is better to be able to fix the deflector body 51 in the deflector channel 211 .

The first piece 511 , the second piece 512 and the third piece 513 can be integrally formed. In this embodiment, the guide vane 5 is integrally formed, that is, the first sheet body 511, the second sheet body 512, the third sheet body 513, and the first sheet body 511 and the third sheet body 513. The side mounting lugs 52 are integrally formed. In other embodiments, it is also possible to divide the deflector 5 into a plurality of independent molding parts and then connect them. I won't repeat them here.

Not limited to the above, in other optional embodiments, as shown in FIG. 6 , the guide vane 5 can be in a plane shape as a whole, and the guide vane 5 is inclined in the left-right direction and the front-rear direction in the guide channel 211 Extend in an intersecting manner. Such an arrangement can further reduce the manufacturing difficulty of the deflector 5 . In this embodiment, installation lugs 52 can still be provided on one side or opposite sides of the deflector 5 , and the details will not be repeated here.

Please refer to FIG. 8 and FIG. 9 , in one embodiment, the machine head 3 also includes an oil guide plate 6 arranged in the lower shell 31 of the machine head, and one end of the oil guide plate 6 is arranged above the second flow guide inlet 313 Specifically, it may be connected to the inner wall above the second diversion inlet 313 of the lower shell 31 of the machine head, and the other end extends in a direction away from the stove body 2 , that is, extends backward in the lower shell 31 of the machine head. In this way, the oil guide plate 6 is inclined relative to both the horizontal direction and the vertical direction. The function of the oil guide sheet 6 is: firstly, it can prevent the oil fume flow from being reversely discharged to the flow guide channel 211 of the stove body 2 through the second diversion inlet 313. Deposits in the inner cavity 210 of the cooking range may cause adverse effects on structures such as gas nozzles and air regulating plates; two, oil fume droplets can be deposited and gathered on the upper surface of the oil guide plate 6 to form oil liquid, and on the surface of the oil guide plate 6 Under the guidance of the inclined upper surface, the oil can directly fall back down and enter the bellows assembly 7, which can further prevent the oil from entering the bellows of the stove body 2 in reverse.

The above-mentioned oil guide sheet 6 may be one, extending in the length direction and correspondingly covering the entire top of the second flow guide inlet 313; or, there may be multiple oil guide sheets 6, and the plurality of oil guide sheets 6 are arranged along the length direction and It is also possible to cover the entire top of the second diversion inlet 313 .

The above descriptions are only preferred embodiments of the application, and are not intended to limit the application. Any modifications, equivalent replacements and improvements made within the spirit and principles of the application should be included in the protection of the application. within range.

Claims (14)

1. Integrated stove, including: The fuselage has a fuselage cavity; The stove body is arranged on the body, and the stove body has a stove inner cavity; The machine head is arranged on the fuselage and is located on one side of the cooker body, and the machine head has a fume passage; a refrigeration component disposed in the inner cavity of the fuselage; and The bellows assembly is arranged in the inner cavity of the fuselage, and the bellows assembly has a smoke exhaust channel communicated with the oil smoke channel; It is characterized in that the inner cavity of the fuselage includes a hot air chamber, the air outlet end of the hot air chamber communicates with the inner cavity of the stove, the air outlet end of the inner cavity of the stove communicates with the oil fume passage, and the refrigeration component The generated hot air is exhausted to the oil fume passage through the hot air cavity and the inner cavity of the range. 2 . The integrated cooker according to claim 1 , wherein the inner cavity of the cooker includes a guide channel, and the guide channel communicates with both the hot air cavity and the oil fume channel. 3 . 3. The integrated cooker according to claim 2, wherein the cooker body comprises a cooker body shell, and the cooker body cavity is formed in the cooker body shell; The first diversion inlet that communicates with the diversion channel and the hot air cavity, and the side of the stove body shell facing the machine head is provided with a guide that communicates with the diversion channel and the oil fume channel. outlet. 4 . The integrated cooker according to claim 3 , wherein the cooker body shell comprises a bottom shell and a base plate, and the flow guide channel is formed in the base plate. 5 . 5. The integrated cooker according to claim 4, wherein the platform comprises a top board, a plurality of side boards and a bottom board, the side boards are connected to the periphery of the top board and enclose them in turn, and the bottom board is connected to The diversion channel is formed between the side plate, the top plate and the bottom plate; the first diversion inlet is formed on the bottom plate, and the diversion outlet is formed on all parts close to the machine head on the side panel. 6. The integrated cooker according to claim 5, wherein the refrigeration assembly is arranged at one end of the inner cavity of the body, and the first flow guide inlet is formed on the bottom plate close to the refrigeration assembly one end. 7. The integrated cooker according to claim 5, characterized in that, the integrated cooker further comprises a guide plate arranged in the guide channel, and the guide plate divides the guide channel to form a plurality of A sub-channel communicating with the first diversion inlet and the diversion outlet. 8. The integrated cooker according to claim 7, characterized in that, the deflector comprises a deflector body and a mounting lug provided on the deflector body, and the mounting lug is connected to the top plate and/or or the backplane connection. 9. The integrated cooker according to claim 8, wherein the diversion body comprises a first sheet and a second sheet, the first sheet is planar and passes through the first diversion inlet Extending along the length direction of the flow guide channel, the second sheet extends from the first sheet toward the flow guide outlet. 10. The integrated cooker according to claim 9, characterized in that, the second piece is in the shape of a curved surface; the guide body further includes a third piece, the third piece is in the shape of a plane, and the One end of the third sheet is connected tangentially to the second sheet, and the other end of the third sheet is perpendicular to the plane where the diversion outlet is located. 11. The integrated cooker according to claim 9, characterized in that, the guide body further comprises a third sheet, the second sheet and the third sheet are both flat, and the first sheet , the second sheet body and the third sheet body are sequentially bent and connected, and the third sheet body is connected to the diversion outlet; Alternatively, the second sheet is vertically connected to the first sheet, and the second sheet is connected to the diversion outlet. 12. The integrated cooker according to claim 9, 10 or 11, characterized in that there are multiple guide vanes, and the first pieces of the guide vanes are sequentially moved away from the The direction of the machine head is arranged at intervals, and the length of each of the first slices increases sequentially as it moves away from the machine head. 13. The integrated cooker according to any one of claims 1 to 11, characterized in that, the machine head includes a lower shell of the machine head, and the oil fume channel is formed in the lower shell of the machine head; the machine head The side of the lower shell facing the cooker body is provided with a second diversion inlet, the inner cavity of the cooker communicates with the second diversion inlet, and the hot air in the inner cavity of the cooker passes through the second diversion inlet into the fume channel. 14. The integrated cooker according to claim 13, wherein the machine head further comprises an oil guiding sheet arranged in the oil fume passage, and one end of the oil guiding sheet is arranged at the second flow guiding inlet The side away from the bellows assembly is connected to the inner wall of the lower shell of the machine head, and the other end of the oil guide sheet extends away from the smoking port on the machine head and away from the second diversion inlet .

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