Efficient heating mechanism

Abstract

The utility model discloses a high-efficiency heating mechanism, which comprises a shell, a heating device, a heating device and a control device, the shell is provided with an inner cavity for accommodating a water body, and the inner cavity is communicated with at least two interfaces; the external heating piece is arranged on the outer side of the shell and is configured to generate heat; the stirring piece is arranged in the inner cavity and is configured to accelerate the movement of the water body, and the stirring piece is provided with an internal heating cavity; the driving assembly is configured to drive the stirring piece to act; and the internal heating piece is arranged in the shell, extends into the internal heating cavity and is configured to generate heat, and the internal heating piece and the stirring piece are relatively static. The heating device has the advantages and effects that the heating efficiency is high, the heating time is short, and the heating is uniform.

Description

TECHNICAL FIELD

[0001] The utility model relates to a kind of heating equipment technical field, in particular to a kind of high-efficiency heating mechanism. BACKGROUND

[0002] Water vapor, simply called water vapor or steam, is the gaseous form of water (H2O). When water reaches boiling point, it becomes water vapor. Water vapor has a variety of applications, can be used for heating / humidification, or as a power-driven purpose, therefore, water vapor has quite large and extensive application space in various fields.

[0003] The conversion between water and water vapor requires heating, so a heating mechanism is needed. In the existing industry, the heating method usually uses a boiler to heat, and the traditional boiler usually has only one heat source to heat the water body. In addition, the amount of water used in industry is large, which leads to low efficiency and long heating time through the existing boiler heating mode. And in the process of heating the water body by the boiler, the temperature gradually conducts from the side close to the boiler heat source to the outside, which cannot achieve rapid and uniform heating of the entire water body, so this heating method cannot be applied to some harsh environments. Therefore, the present improvement is born according to the above problems. SUMMARY

[0004] The purpose of the utility model is to provide a kind of high-efficiency heating mechanism, the high-efficiency heating mechanism heating efficiency is fast, heating time is short and is heated evenly.

[0005] The above technical purpose of the utility model is realized by the following technical scheme: a kind of high-efficiency heating mechanism, the high-efficiency heating mechanism includes: shell, the shell has the inner cavity of containing water body and at least two interfaces are communicated on inner cavity;External heating part, the external heating part is set to the outside of shell and is configured to generate heat;Agitator, the agitator is set to inner cavity and is configured to accelerate water body movement, the agitator has an internal heating cavity;Driving assembly, it is configured to drive the action of agitator;Internal heating part, the internal heating part is set to shell and extends into internal heating cavity and is configured to generate heat, the internal heating part and agitator constitute relatively static.

[0006] By adopting the above technical scheme, the water body enters the inner cavity through the interface, and then is heated to generate water vapor and is discharged from another interface. The water body in the inner cavity is heated by the external heating part and the internal heating part, which shortens the heating time and improves the heating efficiency. The driving assembly drives the agitator to act to accelerate the flow of water in the inner cavity, realizes rapid temperature conduction and balances the temperature of the water body, achieves the purpose of rapid and uniform heating. The internal heating part is protected by the relatively static structure of the agitator and the internal heating part.

[0007] Further, the stirring member is sealed to rotate with the shell to form a separation between the internal heating cavity and the inner cavity.

[0008] By using the above technical solution, the direct contact between the internal heating member and the water body is avoided, and the accumulation of scale on the outer surface of the internal heating member is avoided, thereby prolonging the service life of the internal heating member and facilitating the later cleaning and maintenance.

[0009] Further, the internal heating cavity is connected to the outside through a mounting port for mounting the internal heating member.

[0010] By using the above technical solution, the mounting port is provided for mounting the internal heating member into the internal heating cavity, which is convenient for later maintenance operation.

[0011] Further, the shell is extended to form a long strip shape, and the external heating member is wrapped around the outer wall of the shell.

[0012] By using the above technical solution, the heat exchange area between the external heating member and the shell is maximized while being balanced and convenient to install, thereby reducing the production and processing cost.

[0013] Further, the external heating gap is formed between the external heating member and the outer wall of the shell, and the internal heating gap is formed between the internal heating member and the wall of the internal heating cavity.

[0014] By using the above technical solution, the heating gap is provided to form a uniform heating constant temperature zone between the two, avoiding local deformation of the parts due to excessive local temperature difference.

[0015] Further, the driving assembly includes a driving source located outside the shell and a linkage connecting the driving source and the stirring member.

[0016] By using the above technical solution, the driving source drives the stirring member through the linkage to achieve the driving purpose.

[0017] Further, the linkage is non-mechanical connection.

[0018] By using the above technical solution, the non-mechanical transmission mode can avoid the risk of leakage.

[0019] Further, the shape of the external heating member includes a spiral shape.

[0020] By using the above technical solution, the heating area is maximized under the premise of limited installation space.

[0021] Further, the stirring member comprises a rotating shaft and a blade arranged on the rotating shaft, the internal heating cavity is formed in the rotating shaft, and the blade is in a spiral shape.

[0022] By using the above technical scheme, the structure layout is reasonable and the production and manufacturing are more convenient.

[0023] Further, the shape of the internal heating member comprises a spiral shape and a curved snake shape.

[0024] By using the above technical scheme, the heating area is maximized under the premise of limited installation space.

[0025] In summary, the utility model has the following beneficial effects: the utility model has fast heating efficiency, short heating time and uniform heating. BRIEF DESCRIPTION OF DRAWINGS

[0026] Figure 1 It is a structural schematic view of an embodiment;

[0027] Figure 2 It is another structural schematic view of the internal heating member in the embodiment.

[0028] In the figure: 1, shell; 2, inner cavity; 3, interface; 4, external heating member; 5, stirring member; 51, rotating shaft; 52, blade; 6, internal heating cavity; 7, internal heating member; 8, mounting port; 9, external heating gap; 10, internal heating gap; 111, driving source; 112, linkage. DETAILED DESCRIPTION

[0029] The utility model will be further explained in detail in combination with the drawings.

[0030] REFERENCE Figure 1 and Figure 2 A kind of efficient heating mechanism, efficient heating mechanism includes: shell 1, shell 1 has the inner cavity 2 of containing water body and the inner cavity 2 is connected with at least two interfaces 3, interface 3 is preferably two and is set up in shell 1;External heating member 4, external heating member 4 is set to the outside of shell 1 and is configured to generate heat;Stirring member 5, stirring member 5 is set in inner cavity 2 and is configured to accelerate water body movement, stirring member 5 has an internal heating cavity 6;Driving assembly, it is configured to drive stirring member 5 action;Internal heating member 7, internal heating member 7 is fixedly installed in shell 1 and extends into internal heating cavity 6 and is configured to generate heat, internal heating member 7 and stirring member 5 constitute relative static.

[0031] The stirring member 5 is sealed and rotates with the shell 1 to form a separation between the internal heating cavity 6 and the inner cavity 2, and specifically, the stirring member 5 is mechanically and hard sealed and rotates with the shell 1. The internal heating cavity 6 is in communication with the outside world through a mounting opening 8 for mounting an internal heating member 7. The shell 1 is extended to form a long strip shape, and two interfaces 3 are respectively arranged at two ends of the shell 1. The external heating member 4 is in the shape of a spiral and is wrapped around the outer wall of the shell 1. The external heating member 4 can be selectively fixed at a mounting position or fixed on the outer wall of the shell 1 through a support.

[0032] The external heating member 4 and the outer wall of the shell 1 form an external heating gap 9, and the internal heating member 7 and the wall of the internal heating cavity 6 form an internal heating gap 10.

[0033] The driving assembly includes a driving source 111 located outside the shell 1 and a linkage 112 connecting the driving source 111 and the stirring member 5. The linkage 112 is a non-mechanical connection, and specifically, the linkage 112 is a magnetic coupler connecting the output shaft of the driving source 111 and the stirring member 5. The stirring member 5 includes a rotating shaft 51 and a blade 52 fixedly arranged on the rotating shaft 51. The internal heating cavity 6 is formed in the rotating shaft 51, and the blade 52 is in the shape of a spiral. The internal heating member 7 is in the shape of a spiral or a curved snake shape, and the internal heating member 7 and the external heating member 4 are both heating pipes. A rotating disc is fixedly arranged on the output shaft of the driving source 111, and specifically, the magnetic coupler is connected between the rotating disc and the rotating shaft 51. The driving source 111 is an electric motor, and the driving source 111 can be selectively fixed at a mounting position.

[0034] The specific embodiment is only an explanation of the utility model, and is not a limitation of the utility model. Those skilled in the art can make modifications to the embodiment without creative contribution after reading the specification, but as long as the modifications are within the scope of the claims of the utility model, they are protected by the patent law.

Claims

1. A high-efficiency heating mechanism, characterized by, The high-efficiency heating mechanism comprises a shell (1) having an inner cavity (2) containing a water body and at least two interfaces (3) communicating with the inner cavity (2); an external heating member (4) arranged outside the shell (1) and configured to generate heat; an agitating member (5) arranged in the inner cavity (2) and configured to accelerate the movement of the water body, the agitating member (5) having an internal heating cavity (6); a driving assembly configured to drive the agitating member (5) to act; and an internal heating member (7) arranged in the shell (1) and extending into the internal heating cavity (6) and configured to generate heat, the internal heating member (7) and the agitating member (5) being relatively static.

2. The high-efficiency heating mechanism of claim 1, wherein: The agitating member (5) is sealed and rotatable relative to the shell (1) to separate the internal heating cavity (6) from the inner cavity (2).

3. The high-efficiency heating mechanism of claim 2, wherein: The internal heating cavity (6) is communicated with the outside through a mounting port (8) for mounting the internal heating member (7).

4. The high-efficiency heating mechanism of claim 1, wherein: The shell (1) is arranged in an elongated shape, and the external heating member (4) is wrapped around the outer peripheral wall of the shell (1).

5. The high efficiency heating mechanism of claim 1, wherein: An external heating gap (9) is formed between the external heating member (4) and the outer wall of the shell (1), and an internal heating gap (10) is formed between the internal heating member (7) and the wall of the internal heating cavity (6).

6. The high efficiency heating mechanism of claim 1, wherein: The driving assembly comprises a driving source (111) arranged outside the shell (1) and a linkage member (112) linking the driving source (111) and the agitating member (5).

7. The high-efficiency heating mechanism of claim 6, wherein: The linkage member (112) is non-mechanically connected.

8. The high efficiency heating mechanism of claim 1, wherein: The external heating member (4) has a spiral shape.

9. The high efficiency heating mechanism of claim 1, wherein: The agitating member (5) comprises a rotating shaft (51) and a blade (52) arranged on the rotating shaft (51), the internal heating cavity (6) is formed in the rotating shaft (51), and the blade (52) has a spiral shape.

10. The high efficiency heating mechanism of claim 1, wherein: The internal heating member (7) has a spiral shape and a curved snake shape.

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