Novel sand ice bucket structure

Abstract

The utility model relates to a novel sand ice barrel structure which comprises an outer barrel body and an inner barrel body and is characterized in that the inner barrel body is connected inside the outer barrel body in a sealed mode, a plurality of annular steel plates are fixedly welded on the outer wall of the inner barrel body from front to back, and the outer circumferential faces of the annular steel plates are connected with the inner wall of the outer barrel body in a sealed mode. A refrigerant flow channel is formed between every two adjacent steel plates, notches are formed in the outer walls of the annular steel plates, every two adjacent refrigerant flow channels are communicated with each other through the notches in the annular steel plates between the two adjacent refrigerant flow channels, and a refrigerant feeding pipeline and a refrigerant discharging pipeline are connected to the inner wall of the inner barrel. The plurality of annular steel plates are welded on the outer wall of the inner barrel to replace a traditional copper spiral flow channel, so that the cost is greatly reduced, the annular steel plates are more easily welded and fixed with the inner wall of the outer barrel, and the possibility of mutual blow-by of adjacent refrigerant flow channels is reduced.

Description

Technical Field

[0001] This utility model relates to the field of slush bucket technology, specifically to a novel slush bucket structure. Background Technology

[0002] Most existing slush buckets consist of inner and outer cylinders. The inner cylinder is often made of copper, which is expensive. The outer wall of the inner cylinder is machined with spiral channels for refrigerant flow. The outer edge of the spiral channels needs to be welded to the inner wall of the outer cylinder. However, welding the outer edge of the spiral channels is very difficult and prone to localized incomplete welding. This can easily cause air leakage between adjacent channels. Once air leakage occurs between channels, the cooling effect on the local surface of the slush bucket will be greatly reduced, affecting the overall quality. Therefore, designing a new type of slush bucket structure to solve the above problems is particularly important. Summary of the Invention

[0003] To solve the above problems, this utility model designs a new type of slush bucket structure. It replaces the traditional copper spiral flow channel by welding several annular steel plates to the outer wall of the inner cylinder. This not only greatly reduces the cost, but also makes it easier to weld and fix to the inner wall of the outer cylinder, reducing the possibility of cross-contamination between adjacent refrigerant flow channels.

[0004] To solve the above-mentioned technical problems, this utility model provides a novel slush bucket structure, including an outer cylinder and an inner cylinder. The circumferential surface of the outer cylinder is a cooling surface. The inner cylinder is sealed inside the outer cylinder. Several annular steel plates are welded and fixed to the outer wall of the inner cylinder from front to back. The outer circumferential surface of the annular steel plates is sealed to the inner wall of the outer cylinder. A refrigerant flow channel is formed between two adjacent steel plates. A notch is provided on the outer wall of the annular steel plate, and two adjacent refrigerant flow channels are interconnected through the notch on the annular steel plate. A refrigerant inlet pipe and a refrigerant outlet pipe are connected to the inner wall of the inner cylinder. The refrigerant inlet pipe is connected to the inner wall at the rear end of the inner cylinder and communicates with the refrigerant flow channel. The refrigerant outlet pipe is connected to the inner wall at the front end of the inner cylinder and communicates with the refrigerant flow channel.

[0005] Further: The inner cylinder is composed of the cylinder itself and annular protrusions at both ends of the cylinder. A refrigerant inlet channel is formed between the annular steel plate at the rear end and the annular protrusion at the rear end of the cylinder. The refrigerant inlet pipe is connected to the inner wall of the refrigerant inlet channel. The refrigerant inlet channel is connected to the refrigerant flow channel through a notch on the rear annular steel plate. A refrigerant outlet channel is formed between the annular steel plate at the front end and the annular protrusion at the front end of the cylinder. The refrigerant outlet pipe is connected to the inner wall of the refrigerant outlet channel. The refrigerant outlet channel is connected to the refrigerant flow channel through a notch on the front annular steel plate.

[0006] Furthermore, the notches on the two adjacent annular steel plates are arranged one above the other, with the notches on the frontmost and backmost annular steel plates located at the bottommost end. The refrigerant inlet channel is connected to the top of the cylinder itself, and the refrigerant outlet channel is connected to the inner wall at the upper end of the cylinder itself.

[0007] Furthermore, the rear end of the outer cylinder is provided with an annular positioning and fixing plate integrated therewith. Five U-shaped grooves for installation and fixing are opened around the annular positioning and fixing plate, and two semi-circular positioning grooves are also opened on the outer wall of the annular positioning and fixing plate.

[0008] By adopting the above structure, this utility model replaces the traditional copper spiral flow channel by welding several annular steel plates on the outer wall of the inner cylinder. This not only greatly reduces the cost, but also makes it easier to weld and fix to the inner wall of the outer cylinder, reducing the possibility of cross-contamination between adjacent refrigerant flow channels. Furthermore, this design has the advantages of simple structure, easy manufacturing, and practical efficiency. Attached Figure Description

[0009] The present invention will now be described in further detail with reference to the accompanying drawings and specific embodiments.

[0010] Figure 1 This is a three-dimensional structural diagram of the present invention.

[0011] Figure 2 This is a three-dimensional structural diagram of the present invention after the outer cylinder has been removed.

[0012] Figure 3 This is a top view of the structure of this utility model after the outer cylinder has been removed. Detailed Implementation

[0013] like Figure 1 and Figure 2The novel slush bucket structure shown includes an outer cylinder 1 and an inner cylinder 2. The circumferential surface of the outer cylinder is a cooling surface. The inner cylinder is sealed inside the outer cylinder. Several annular steel plates 8 are welded and fixed to the outer wall of the inner cylinder from front to back. The outer circumferential surface of the annular steel plates is sealed to the inner wall of the outer cylinder. A refrigerant flow channel is formed between two adjacent steel plates. A notch 8-1 is opened on the outer wall of the annular steel plate. Two adjacent refrigerant flow channels are interconnected through the notch on the annular steel plate. A refrigerant inlet pipe 4 and a refrigerant outlet pipe 5 are connected to the inner wall of the inner cylinder. The refrigerant inlet pipe is connected to the inner wall at the rear end of the inner cylinder and communicates with the refrigerant flow channel. The refrigerant outlet pipe is connected to the inner wall at the front end of the inner cylinder and communicates with the refrigerant flow channel. This invention replaces the traditional copper spiral flow channel by welding several annular steel plates onto the outer wall of the inner cylinder. This not only greatly reduces costs but also makes it easier to weld and fix to the inner wall of the outer cylinder, reducing the possibility of cross-contamination between adjacent refrigerant flow channels. Furthermore, this design has the advantages of simple structure, ease of manufacture, and high efficiency.

[0014] like Figure 2 The inner cylinder shown is composed of the cylinder itself 2-1 and annular protrusions 2-2 located at the front and rear ends of the cylinder itself. A refrigerant inlet channel is formed between the annular steel plate located at the rear end and the annular protrusion at the rear end of the cylinder itself. The refrigerant inlet pipe is connected to the inner wall of the refrigerant inlet channel. The refrigerant inlet channel is connected to the refrigerant flow channel through a notch opened on the rear annular steel plate. A refrigerant outlet channel is formed between the annular steel plate located at the front end and the annular protrusion at the front end of the cylinder itself. The refrigerant outlet pipe is connected to the inner wall of the refrigerant outlet channel. The refrigerant outlet channel is connected to the refrigerant flow channel through a notch opened on the front annular steel plate.

[0015] like Figure 2 and Figure 3 The notches on the two adjacent annular steel plates shown are arranged one above the other, with the notches on the front and back annular steel plates located at the bottom. The refrigerant inlet channel is connected to the top of the cylinder itself, and the refrigerant outlet channel is connected to the inner wall of the upper end of the cylinder itself.

[0016] like Figure 1 The rear end of the outer cylinder shown is provided with an annular positioning and fixing plate 3 integrated therewith. Five U-shaped grooves 7 for installation and fixing are formed around the annular positioning and fixing plate, and two semi-circular positioning grooves 6 are also formed on the outer wall of the annular positioning and fixing plate. This utility model employs the above structure to facilitate installation.

[0017] The above are merely preferred embodiments of this utility model. The protection scope of this utility model is not limited to the above embodiments. All technical solutions falling within the scope of this utility model's concept are within its protection scope. It should be noted that for those skilled in the art, any improvements and modifications made without departing from the principle of this utility model should be considered within its protection scope.

Claims

1. A novel slush bucket structure, comprising an outer cylinder (1) and an inner cylinder (2), wherein the circumferential surface of the outer cylinder is a cooling surface, characterized in that: The inner cylinder is sealed inside the outer cylinder. Several annular steel plates (8) are welded and fixed on the outer wall of the inner cylinder from front to back. The outer circumference of the annular steel plates is sealed to the inner wall of the outer cylinder. A refrigerant flow channel is formed between two adjacent steel plates. A notch (8-1) is opened on the outer wall of the annular steel plate. Two adjacent refrigerant flow channels are connected to each other through the notch on the annular steel plate. A refrigerant inlet pipe (4) and a refrigerant outlet pipe (5) are connected to the inner wall of the inner cylinder. The refrigerant inlet pipe is connected to the inner wall at the rear end of the inner cylinder and is connected to the refrigerant flow channel. The refrigerant outlet pipe is connected to the inner wall at the front end of the inner cylinder and is connected to the refrigerant flow channel.

2. The novel slush bucket structure according to claim 1, characterized in that: The inner cylinder is composed of the cylinder itself (2-1) and annular protrusions (2-2) located at the front and rear ends of the cylinder. A refrigerant inlet channel is formed between the annular steel plate at the rear end and the annular protrusion at the rear end of the cylinder. The refrigerant inlet pipe is connected to the inner wall of the refrigerant inlet channel. The refrigerant inlet channel is connected to the refrigerant flow channel through a notch on the rear annular steel plate. A refrigerant outlet channel is formed between the annular steel plate at the front end and the annular protrusion at the front end of the cylinder. The refrigerant outlet pipe is connected to the inner wall of the refrigerant outlet channel. The refrigerant outlet channel is connected to the refrigerant flow channel through a notch on the front annular steel plate.

3. The novel slush bucket structure according to claim 2, characterized in that: The notches on two adjacent annular steel plates are arranged one above the other, with the notches on the front and back annular steel plates located at the bottom. The refrigerant inlet channel is connected to the top of the cylinder itself, and the refrigerant outlet channel is connected to the inner wall at the upper end of the cylinder itself.

4. The novel slush bucket structure according to claim 1, characterized in that: The rear end of the outer cylinder is provided with an annular positioning and fixing plate (3) integrated with it. Five U-shaped grooves (7) for installation and fixing are opened around the annular positioning and fixing plate. Two semi-circular positioning grooves (6) are also opened on the outer wall of the annular positioning and fixing plate.

Images