A cooling device for ultra-high temperature solid materials

By using timing components and infrared sensors to classify materials and set personalized cooling time in the ultra-high temperature solid material cooling device, combined with the combination of electromagnets and magnetic blocks, the problem of uneven material cooling in the prior art is solved, and efficient material cooling effect is achieved.

CN222703608UActive Publication Date: 2025-04-01HUNAN XIANGZHONGLIAN ENGINEERING MANAGEMENT PARTNERSHIP (LLP)
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Patent Information

Application Number
CN202420812945.2
Authority / Receiving Office
CN · China
Patent Type
Utility models(China)
Current Assignee / Owner
Priority Date
2024-04-02
Filing Date
2024-04-18
Publication Date
2025-04-01
Estimated Expiration
2034-04-18

AI Technical Summary

Technical Problem

When cooling ceramics or glass products in the prior art, multiple materials are cooled together, resulting in different temperature conduction effects, resulting in failure of certain materials to completely cool down, affecting the cooling effect.

Method used

An ultra-high temperature solid material cooling device is designed, using timing components to scan and classify materials through infrared sensors, and set personalized cooling time according to the materials and shapes of different materials, and the separation and open cooling of materials is achieved through the coordination of electromagnets and magnetic blocks.

Benefits of technology

It realizes the cooling of materials of different materials separately and opens. The personalized cooling time is set according to the classification of materials, which improves the cooling effect and ensures that all materials can reach an appropriate cooling level.

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Abstract

The utility model relates to the technical field of material cooling, and in particular to an ultra-high temperature solid material cooling device, including a cooling bin, a timing component for timing the cooling of high temperature materials is arranged inside the cooling bin, the timing component includes an isolation bin arranged on one side of the cooling bin, a motor is arranged on the top of the cooling bin, a drive shaft is arranged on the output end of the motor, a placement table is arranged outside the drive shaft, a plurality of positioning grooves are arranged outside the placement table, a plurality of positioning grooves are arranged on the inner walls with magnetic blocks and pressing plates, a base can be placed inside the plurality of positioning grooves, an electromagnet is arranged on the outer wall of the base, a mounting frame is arranged on the top of the base, a plurality of through holes are arranged on the inner wall of the mounting frame, and an infrared sensor is arranged inside the mounting frame. The utility model realizes the separation and cooling of materials, and classifies materials according to different materials, and sets the cooling time for materials according to different classifications, thereby improving the cooling effect.
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Description

Technical Field

[0001] The utility model relates to the technical field of material cooling, in particular to a super-high temperature solid material cooling device. Background Art

[0002] Ultra-high temperature solid material cooling device is a kind of equipment used to process ultra-high temperature solid materials, mainly used to reduce the temperature of ultra-high temperature solid materials to an appropriate safety level. At present, when cooling high temperature solid materials such as ceramics, glass and other solids, natural cooling, gas cooling or liquid cooling can be used.

[0003] However, in the current prior art, when cooling ceramic or glass products, multiple materials are generally placed in a cooling device together for cooling in batches. However, due to the different materials, the temperature conduction effects are also different. Therefore, when the materials are taken out, the cooling effects of materials of different materials are different, resulting in the materials with poor temperature conduction effects not being cooled down properly, affecting the cooling effect. Utility Model Content

[0004] The purpose of the utility model is to provide a super-high temperature solid material cooling device to solve the problems raised in the above background technology.

[0005] In order to achieve the above purpose, the utility model provides the following technical solutions:

[0006] A super-high temperature solid material cooling device comprises a cooling bin, wherein a timing component for timing the cooling of the high temperature material is arranged inside the cooling bin, wherein the timing component comprises an isolation bin arranged on one side of the cooling bin, wherein a motor is arranged on the top of the cooling bin, wherein a driving shaft is arranged on the output end of the motor, wherein a placement table is arranged outside the driving shaft, wherein a plurality of positioning grooves are arranged outside the placement table, wherein a plurality of inner walls of the positioning grooves are all provided with magnetic blocks and pressing plates, wherein a base can be placed inside the plurality of positioning grooves, wherein an electromagnet is arranged on the outer wall of the base, wherein an installation frame is arranged on the top of the base, wherein a plurality of through holes are arranged on the inner wall of the installation frame, and an infrared sensor is arranged inside the installation frame.

[0007] As a preferred solution of the utility model, the isolation chamber and the cooling chamber are integrally formed, and the interior of the isolation chamber is communicated with the cooling chamber, and the positioning groove outside the placement table can be matched with the isolation chamber by rotation, so that the installation frame in the isolation chamber can be moved to the placement table.

[0008] As a preferred solution of the utility model, the motor is connected to the top of the cooling bin by bolts, the output end of the motor is connected to the drive shaft by a coupling, and the placement table is located in the cooling bin and is sleeved on the outside of the drive shaft and coaxially connected to the drive shaft.

[0009] As a preferred solution of the utility model, the multiple positioning grooves are all arc-shaped structures at one end close to the center of the placement table, and the multiple positioning grooves are distributed in a ring inside the placement table, the magnetic block is embedded and connected to the inner wall of the positioning groove, and the pressing plate is electrically connected to the main control center.

[0010] As a preferred solution of the utility model, the mounting frame is connected to the top of the base, the electromagnet is connected to the outer wall of the base by bolts, the electromagnet can be magnetically connected to the magnetic block on the inner wall of the positioning groove, and the magnetism can drive the base to move to the positioning groove and slide in the positioning groove.

[0011] As a preferred solution of the utility model, the multiple through holes are longitudinally distributed in a ring shape outside the installation frame, and the multiple through holes are inclined at an angle. The infrared sensor is connected to the inner wall of the installation frame by bolts, and is electrically connected to the electromagnet and the main control center.

[0012] Compared with the prior art, the beneficial effects of the utility model are as follows: in response to the problems raised in the background technology, the present application adopts a timing component, by placing the material to be cooled into the installation frame, and placing the installation frame into the isolation bin, scanning the material through an infrared sensor during the material storage process, and classifying the material by the shape and material sharing of the material, and obtaining the cooling time by matching the material in the classification list of the control center, and then controlling the electromagnet to activate, and controlling the placement table to rotate to the empty positioning slot to match the isolation bin, and attracting the installation frame through the electromagnet and the magnetic block inside the positioning slot to move it into the positioning slot for cooling, and matching the material cooling time obtained after the scan with the electromagnet activation time, so that after the cooling time is reached, the electromagnet is controlled to change the magnetic pole so that it repels the magnetic block and moves it to the isolation bin for removal, the cooling time can be set according to the classification of the material, and the material can be cooled separately by placing the material through the installation frame.

[0013] The utility model realizes the separation and cooling of materials, classifies the materials according to their different materials, and cools the materials for a set time according to different classifications, thereby improving the cooling effect. BRIEF DESCRIPTION OF THE DRAWINGS

[0014] Figure 1 This is the appearance structure diagram of the cooling bin of the utility model;

[0015] Figure 2 This is the appearance structure diagram of the placement table of the utility model;

[0016] Figure 3 This is the appearance structure diagram of the installation frame of the utility model;

[0017] Figure 4 This is an internal cross-sectional view of the installation frame of the utility model.

[0018] In the figure: 1. Cooling chamber; 2. Isolation chamber; 3. Motor; 301. Drive shaft; 4. Placement table; 401. Positioning groove; 402. Magnetic block; 403. Pressing plate; 5. Base; 501. Electromagnet; 6. Mounting frame; 601. Through hole; 602. Infrared sensor. DETAILED DESCRIPTION

[0019] The technical solutions in the embodiments of the present invention will be described clearly and completely below in conjunction with the embodiments of the present invention.

[0020] Example

[0021] See also Figure 1-4The utility model provides a technical solution: a super-high temperature solid material cooling device, including a cooling bin 1, wherein a timing component for timing the cooling of the high temperature material is arranged inside the cooling bin 1, and the timing component includes an isolation bin 2 arranged on one side of the cooling bin 1, which is used to place the installation frame 6 in the isolation bin 2, and the isolation bin 2 is connected with the cooling bin 1 so that the installation frame 6 can be moved and switched between the cooling bin 1 and the isolation bin 2, so that the installation frame 6 can be moved and loaded and unloaded on the placement table 4, and a motor 3 is arranged on the top of the cooling bin 1, and the motor 3 cooperates with the driving shaft 301 to drive the placement table 4 to rotate in the cooling bin 1, so that The output end of the motor 3 is provided with a driving shaft 301, and the outside of the driving shaft 301 is provided with a placing table 4. The multiple positioning grooves 401 inside the placing table 4 can fix the installation frame 6, so as to facilitate the cooling airflow in the cooling bin 1 to cool the material. The outside of the placing table 4 is provided with multiple positioning grooves 401 for positioning the position of the installation frame 6. The inner walls of the multiple positioning grooves 401 are provided with magnetic blocks 402 and pressing plates 403. The magnetic blocks 402 can cooperate with the electromagnet 501 to activate and attract the installation frame 6 to make it close to and embed into the positioning groove 401. After the pressing plate 403 is pressed, a signal is sent to the main control center, thereby In the data of the master control center, it is shown that the installation frame 6 has been placed in this positioning slot 401, so that the vacant state in multiple positioning slots 401 can be displayed. A base 5 can be placed inside multiple positioning slots 401. The outer wall of the base 5 is provided with an electromagnet 501. The electromagnet 501 can be controlled by the PLC controller to generate magnetic poles or change magnetic poles. The magnetic poles and the magnetic block 402 are attracted to each other, and the installation frame 6 can be driven to move into the positioning slot 401 and be adsorbed and fixed by the magnetic block 402. The top of the base 5 is provided with an installation frame 6 for loading materials that need to be cooled. The inner wall of the installation frame 6 is provided with multiple through holes 601, which is convenient for cooling the inside of the cooling bin 1. The cooling airflow enters the installation frame 6 and cools the material. An infrared sensor 602 is arranged inside the installation frame 6. The infrared sensor 602 can detect the shape and material of the material when the material is placed in the installation frame 6, so as to match its data with the material grouping in the main control center, so as to know the cooling time required for this material, and control the activation time of the electromagnet 501 through the PLC controller. After the cooling time is reached, the electromagnet 501 is controlled to change the magnetic pole so that it is discharged from the positioning groove 401 to the isolation bin 2. In the main control center, multiple materials are grouped together, and the cooling time required for each material is determined.

[0022] In this embodiment, all electrical components are controlled by conventional controllers.

[0023] For example, please refer to Figure 1-4The isolation chamber 2 is integrally formed with the cooling chamber 1, and the interior of the isolation chamber 2 is communicated with the cooling chamber 1. The positioning groove 401 on the outside of the placement table 4 can be matched with the isolation chamber 2 by rotation, so that the installation frame 6 in the isolation chamber 2 can be moved to the placement table 4. The motor 3 is connected to the top of the cooling chamber 1 by bolts, and the output end of the motor 3 is connected to the drive shaft 301 through a coupling. The placement table 4 is located in the cooling chamber 1 and is sleeved on the outside of the drive shaft 301 and is coaxially connected to the drive shaft 301. The multiple positioning grooves 401 are all arc-shaped structures near the center end of the placement table 4, and the multiple positioning grooves 401 are distributed in an annular manner in the placement table 4. The magnetic block 402 is embedded and connected with the inner wall of the positioning groove 401, the pressing plate 403 is electrically connected to the main control center, the installation frame 6 is connected to the top of the base 5, the electromagnet 501 is connected to the outer wall of the base 5 by bolts, the electromagnet 501 can be magnetically connected to the magnetic block 402 on the inner wall of the positioning groove 401, and the magnetism can drive the base 5 to move to the positioning groove 401 and slide in the positioning groove 401, the multiple through holes 601 are longitudinally distributed in an annular shape outside the installation frame 6, and the multiple through holes 601 are all inclined, the infrared sensor 602 is connected to the inner wall of the installation frame 6 by bolts, and is electrically connected to the electromagnet 501 and the main control center. When in use, first put the material into the installation frame 6, then put the installation frame 6 into the isolation bin 2, and then through the empty positioning slot 401 in the placement table 4 displayed in the main control center and control the motor 3 through the PLC controller to cooperate with the drive shaft 301 to drive the placement table 4 to rotate until the empty positioning slot 401 matches the isolation bin 2, and at the same time, the PLC controller controls the electromagnet 501 to be energized to generate magnetic poles and attract the magnetic block 402 in the positioning slot 401, so that the installation frame 6 is attracted and moved close to the positioning slot 401, and the electromagnet 501 and the magnetic block 402 are adsorbed and fixed, and multiple installation frames 6 are placed in the cooling bin 1 in turn, and low-temperature gas is injected into the cooling bin 1 to cool the material by air force; when the cooling time of the material is reached, the electromagnet 501 is controlled to change the magnetic pole and repel the magnetic block 402, so that it is separated from the positioning slot 401 and moved to the isolation bin 2 for removal.

[0024] The working process of the utility model is as follows: when in use, the material is first placed in the installation frame 6, and then the installation frame 6 is placed in the isolation bin 2, and then through the vacant positioning slot 401 in the placement table 4 displayed in the main control center and the PLC controller controls the motor 3 to cooperate with the drive shaft 301 to drive the placement table 4 to rotate until the vacant positioning slot 401 matches the isolation bin 2, and at the same time, the PLC controller controls the electromagnet 501 to be energized to generate a magnetic pole and attract the magnetic block 402 in the positioning slot 401, so that the installation frame 6 is attracted and moved close to the positioning slot 401, and the electromagnet 501 and the magnetic block 402 are adsorbed and fixed, and multiple installation frames 6 are placed in the cooling bin 1 in turn, and low-temperature gas is injected into the cooling bin 1 to cool the material by air force; when the cooling time of the material is reached, the electromagnet 501 is controlled to change the magnetic pole and repel the magnetic block 402, so that it is separated from the positioning slot 401 and moved to the isolation bin 2 for removal. The utility model realizes the separation and cooling of materials, classifies the materials according to their different materials, and cools the materials for a set time according to different classifications, thereby improving the cooling effect.

[0025] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A device for cooling ultra-high temperature solid materials, comprising a cooling bin (1), wherein a timing component for timing the cooling of the high temperature materials is arranged inside the cooling bin (1), characterized in that: The timing component comprises an isolation chamber (2) arranged on one side of a cooling chamber (1); a motor (3) is arranged on the top of the cooling chamber (1); a driving shaft (301) is arranged at the output end of the motor (3); a placement table (4) is arranged outside the driving shaft (301); a plurality of positioning grooves (401) are arranged outside the placement table (4); a plurality of magnetic blocks (402) and a pressing plate (403) are arranged on the inner walls of the plurality of positioning grooves (401); a base (5) can be placed inside the plurality of positioning grooves (401); an electromagnet (501) is arranged on the outer wall of the base (5); a mounting frame (6) is arranged on the top of the base (5); a plurality of through holes (601) are arranged on the inner wall of the mounting frame (6); an infrared sensor (602) is arranged inside the mounting frame (6).

2. The ultra-high temperature solid material cooling device according to claim 1, characterized in that: The isolation chamber (2) and the cooling chamber (1) are integrally formed, and the interior of the isolation chamber (2) is communicated with the cooling chamber (1). The positioning groove (401) on the outside of the placement table (4) can be matched with the isolation chamber (2) by rotation, so that the installation frame (6) in the isolation chamber (2) can be moved into the placement table (4).

3. The ultra-high temperature solid material cooling device according to claim 1, characterized in that: The motor (3) is connected to the top of the cooling bin (1) via bolts, the output end of the motor (3) is connected to the drive shaft (301) via a coupling, and the placement table (4) is located in the cooling bin (1) and is sleeved on the outside of the drive shaft (301) and is coaxially connected to the drive shaft (301).

4. The ultra-high temperature solid material cooling device according to claim 1, characterized in that: The multiple positioning grooves (401) are all arc-shaped structures at one end close to the center of the placement platform (4), and the multiple positioning grooves (401) are distributed in an annular manner inside the placement platform (4), the magnetic block (402) is embedded and connected to the inner wall of the positioning groove (401), and the pressing plate (403) is electrically connected to the main control center.

5. The ultra-high temperature solid material cooling device according to claim 1, characterized in that: The installation frame (6) is connected to the top of the base (5), and the electromagnet (501) is connected to the outer wall of the base (5) via bolts. The electromagnet (501) can be magnetically connected to a magnetic block (402) on the inner wall of the positioning groove (401), and the magnetism can drive the base (5) to move to the positioning groove (401) and slide in the positioning groove (401).

6. The ultra-high temperature solid material cooling device according to claim 1, characterized in that: The plurality of through holes (601) are longitudinally distributed in an annular shape outside the installation frame (6), and the plurality of through holes (601) are all inclined at an angle. The infrared sensor (602) is connected to the inner wall of the installation frame (6) via bolts, and is electrically connected to the electromagnet (501) and the main control center.