Semi-open-close type rhinestone drying component
By setting up multi-layer drying chambers and a flipping device in the water drill drying device, the problems of low efficiency and surface hardening caused by a single drying chamber are solved, and efficient, uniform drying and rapid cooling of water drills are achieved.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2025-05-13
- Publication Date
- 2026-04-21
AI Technical Summary
In existing water drill drying devices, the uniform temperature of a single drying chamber leads to the formation of a hard shell on the surface of the water drill at high temperatures, which hinders internal drying, while the drying efficiency is low at low temperatures.
The semi-open/closed water drill drying component includes three independent drying chambers: the first drying chamber dries the surface of the water drill at high temperature and quickly, the second drying chamber dries the internal moisture at low temperature, and the third cooling chamber cools quickly. Combined with a flipping device, it ensures that the water drill is heated evenly.
By using a multi-layered drying chamber with a temperature gradient design and a flipping device, the drying efficiency of water drills is improved, preventing surface discoloration or structural deformation caused by overheating, and achieving a fast and efficient drying process.
Smart Images
Figure CN224151353U_ABST
Abstract
Description
Technical Field
[0001] This utility model relates to the field of water drill production and processing technology, and more specifically, to a semi-open water drill drying component. Background Technology
[0002] Rhinestones are a type of product made by cutting artificial crystal glass into diamond facets. They are widely loved for their sparkling appearance and are commonly used in jewelry, clothing, handicrafts, and other decorative applications. After cutting, polishing, and cleaning, rhinestones need to be dried before further processing.
[0003] In related technologies, water drill drying devices often use a single drying chamber with a uniform internal temperature. If a high temperature is used, a hard shell easily forms on the surface of the water drill, hindering internal drying. If a lower temperature is used, the drying efficiency is low. Utility Model Content
[0004] In view of the problems existing in the prior art, the purpose of this utility model is to provide a semi-open / closed water drill drying component.
[0005] To solve the above problems, the present invention adopts the following technical solution.
[0006] A semi-open / closed water drill drying component includes:
[0007] Conveying device, used for conveying material frames;
[0008] The drying device includes a drying chamber mounted on a conveying device for drying water drills; the drying chamber has three separate independent cavities: a first drying chamber, a second drying chamber, and a third cooling chamber; it also includes a drying mechanism mounted on the inner walls of the first and second drying chambers, and a cooling mechanism mounted on the inner wall of the third cooling chamber for cooling the water drills; the temperature inside the first drying chamber is higher than the temperature inside the second drying chamber.
[0009] The flipping device is located in the middle of the first drying chamber and is used to flip the material frame so that the water drills in the material frame are heated evenly.
[0010] The technical solutions described in this application embodiment have at least the following technical effects:
[0011] This component employs a multi-layered drying chamber. The first and second drying chambers have different temperatures; the first chamber uses high-temperature drying, while the second chamber has a lower internal temperature. This combination of different temperatures rapidly dries surface moisture at high temperatures and dries the internal rhinestones at lower temperatures, improving drying efficiency. A flipping mechanism inside the first drying chamber rotates the material frame, ensuring even heating of all rhinestone surfaces and further enhancing drying efficiency. A cooling mechanism in the third drying chamber rapidly cools the rhinestones, preventing discoloration or structural deformation due to overheating.
[0012] In some embodiments, the conveying device has a conveyor belt for placing and transporting material frames, and a drive.
[0013] In some embodiments, the drying chamber is a semi-enclosed chamber with openings on both sides for the feeding frame to enter and exit.
[0014] In some embodiments, ventilation openings for ventilation are provided on the side walls of the drying chamber.
[0015] In some embodiments, the drying mechanism includes a heating element disposed inside the first drying chamber and the second drying chamber and near the top of the drying chamber for heating air and drying the moisture on the surface of the rhinestone; a blower disposed above the heating element for accelerating airflow and improving drying efficiency; and a sensor disposed below the heating element for measuring the temperature inside the drying chamber and controlling the heating element to adjust the temperature of the drying chamber.
[0016] In some embodiments, a cooling element is provided on the inner wall of the third cooling chamber to blow air toward the material frame and thus cool the water drill inside the material frame.
[0017] In some embodiments, a heat insulation component for preventing heat conduction is provided between the first drying chamber, the second drying chamber and the third cooling chamber; the heat insulation component has an opening for the passage of the feeding frame; the heat insulation component also has an openable and closable heat insulation plate provided at the opening.
[0018] In some embodiments, the flipping device includes a telescopic member disposed at the center of the inner sidewall of the first drying chamber and located below the sensor; a clamping member disposed at the output end of the telescopic member for clamping the wire frame; and a rotator disposed at the other end of the telescopic member for driving the telescopic member to rotate and thereby driving the material frame to rotate. Attached Figure Description
[0019] Figure 1 This is a front view of a semi-open / closed water drill drying component according to the present invention.
[0020] Figure 2 This is a schematic diagram of a half-section of the present invention;
[0021] Figure 3 This is a cross-sectional structural diagram of the present invention.
[0022] The following are the labels in the diagram: 10, material frame; 20, conveying device; 21, conveyor belt; 22, driver; 30, drying device; 31, drying box; 311, first drying chamber; 312, second drying chamber; 313, third cooling chamber; 314, heat insulation component; 315, heat insulation plate; 316, drying mechanism; 3161, heating component; 3162, air blowing component; 3163, sensor; 317, cooling mechanism; 3171, cooling component; 32, vent; 40, tilting device; 41, telescopic component; 42, clamping component; 43, rotator. Detailed Implementation
[0023] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.
[0024] Please see Figure 1 and Figure 2 This application provides a semi-open / closed water drill drying component, including an openable / closable material frame 10 and a conveying device 20 for conveying the material frame 10. The drying device 30 has a drying chamber 31 mounted on the conveying device 20 for drying the water drills. The drying chamber 31 has three separate independent cavities: a first drying chamber 311, a second drying chamber 312, and a third cooling chamber 313. It also has a drying mechanism 316 mounted on the inner walls of the first and second drying chambers 311 and a cooling mechanism 317 mounted on the inner wall of the third cooling chamber 313 for cooling the water drills. The temperature inside the first drying chamber 311 is higher than the temperature inside the second drying chamber 312. A turning device 40 is located in the middle of the first drying chamber 311 and is used to turn the material frame 10 to ensure uniform heating of the water drills within the material frame 10.
[0025] Understandably, the material frame 10 is a component used to hold the water drills. Since the material frame 10 needs to be rotated in this component to ensure that the water drills inside are heated evenly, the material frame 10 should be a closed structure with an opening on one side for loading and unloading the water drills. For example, it can be a square grid material frame 10 with a sliding opening and closing square plate at the top, or it can be a circular grid material frame 10 with an opening and closing mechanism at the top, etc., but it is not limited to these. The conveying device 20 is a component used for transporting the material frame 10. For example, it can be a conveyor belt device, or a conveyor chain device, etc., but it is not limited to these. The drying chamber 31 is the place where the water drills are dried. The type of drying chamber 31 affects the drying efficiency. For example, it can be a fully sealed type, or a semi-open type drying chamber 31, etc., but it is not limited to these. The three chambers inside the drying chamber 31 are independent of each other and have different internal temperatures. Different drying purposes are achieved by adjusting the different temperatures in the three chambers. For example, the first drying chamber 311 can have the highest temperature, the second drying chamber 312 can have a lower temperature than the first drying chamber 311, and the third cooling chamber 313 can have the lowest temperature; or the first drying chamber 311 can have a lower temperature than the second drying chamber 312, and the third cooling chamber 313 can have the lowest temperature, etc., but not limited to these. To improve drying efficiency, the first drying temperature setting is recommended. The drying mechanism 316 is a component that generates heat to dry the surface moisture of the rhinestone. For example, it can be an infrared heating mechanism or an electric heating device, but not limited to these. The cooling mechanism 317 is a component used to cool the heated rhinestone. For example, it can be a blower 3162 or a refrigeration mechanism that generates cold air, but not limited to these. The first drying chamber 311 is a high-temperature rapid drying chamber, where the high temperature inside the first drying chamber 31 quickly dries the moisture. The second drying chamber 312 uses a medium temperature to evaporate the residual moisture inside the rhinestone and prepares it for subsequent cooling. The flipping device 40 is located in the middle of the first drying chamber 311 and below the drying mechanism 316. It is used to flip the material frame 10 during the transfer process. For example, it can be flipped by a robot, or it can be a clamping device that clamps the material frame 10 and rotates it when the material frame 10 passes through, etc., but it is not limited to these methods.
[0026] As can be seen from the above, by setting up multiple drying chambers, different processing needs can be met. Furthermore, the multi-layer drying chamber design allows for multiple drying cycles, improving drying efficiency. Adding a cooling mechanism 317 at the end of the multi-layer drying chamber accelerates the cooling of the water drills, enabling them to be immediately used in the next processing step, further improving processing efficiency. A tilting device 40 is also installed in the drying chamber. By tilting the material frame 10, the water drills inside the frame 10 are heated evenly, ensuring uniform heating and preventing any water drills from remaining damp.
[0027] As is known, in some embodiments, please refer to Figure 2The conveying device 20 has a conveyor belt 21 for placing and transporting the material frame 10, and a driver 22.
[0028] Understandably, the driver 22 is a component used to provide power to the conveyor belt 21, and may be, for example, an electric motor or a pressure pump, but is not limited to these.
[0029] As is known, in some embodiments, please refer to Figure 2 The drying mechanism 316 includes a heating element 3161 disposed inside the first drying chamber 311 and the second drying chamber 312 and near the top of the drying box 31 for heating air and drying the surface moisture of the rhinestone; a blower element 3162 disposed above the heating element 3161 and located at the top of the drying box 31 for accelerating airflow and improving drying efficiency; and a sensor 3163 disposed below the heating element 3161 for measuring the internal temperature of the drying box 31 and controlling the heating element 3161 to adjust the temperature of the drying box 31.
[0030] Understandably, the heating element 3161 is a component that dries the rhinestone by raising the air temperature or directly heating the moisture on its surface. For example, it could be electrically heated, which raises the temperature by heating the air, or it could be a quartz infrared heating tube that directly heats the moisture on the rhinestone surface, etc., but is not limited to these methods. The air blowing element 3162 is a component that accelerates airflow, allowing heat in the air to be distributed more quickly and evenly. For example, it could be a blower or an electric fan mechanism, but is not limited to these methods. The sensor 3163 is a component used to sense the temperature inside the drying chamber during the drying process and adjust the temperature accordingly. For example, it could be a thermocouple temperature sensor 3163, or a thermoelectric temperature sensor 3163, etc., but is not limited to these methods.
[0031] This setup, employing a stepped drying method, can adapt to different drying needs, while multiple drying processes can improve drying efficiency.
[0032] As is known, in some embodiments, please refer to Figure 2 A heat insulation component 314 is provided between the first drying chamber 311, the second drying chamber 312 and the third cooling chamber 313 to prevent heat conduction; the heat insulation component 314 has an opening for the passage of the feeding frame 10; the heat insulation component 314 also has an openable heat insulation plate 315 provided at the opening.
[0033] Understandably, the first drying chamber 311, the second drying chamber 312, and the third cooling chamber 313 are independently set up and do not interfere with each other. Therefore, heat insulation components 314 should be installed between the three chambers to minimize heat exchange. For example, they can be ceramic fiber heat insulation boards 315 or glass wool heat insulation boards 315, but are not limited to these. The heat insulation board 315 should have an opening for the material frame 10 to pass through, but the opening should have a heat insulation board 315 that can insulate against heat. At the same time, when the material frame 10 arrives, the heat insulation board 315 should also allow the material frame 10 to pass through. For example, it can be a soft heat insulation film, which the material frame 10 can directly push open to pass through. It can also be a rigid heat insulation board 315 with an opening and closing door that opens when the material frame 10 arrives and closes after the material frame 10 passes through, but is not limited to these.
[0034] With this design, the heat insulation panel 315 can block heat conduction, better retain heat, and improve drying efficiency.
[0035] As is known, in some embodiments, please refer to Figure 3 The flipping device 40 includes a telescopic member 41 disposed at the center of the inner wall of the first drying chamber 311 and located below the sensor 3163; a clamping member 42 disposed at the output end of the telescopic member 41 for clamping the wire frame; and a rotator disposed at the other end of the telescopic member 41 for driving the telescopic member 41 to rotate and thereby driving the material frame 10 to rotate.
[0036] Understandably, the telescopic component 41 is the part that drives the clamping component 42 to move forward or backward to clamp the material frame 10. For example, it can be a pneumatic telescopic rod or an electric push rod, but it is not limited to these. The clamping component 42 is the part that clamps the wire frame to keep it stable. For example, it can be a suction cup or a clamping claw, but it is not limited to these.
[0037] This configuration allows the material frame 10 to be flipped over, thus exposing the water drills inside the material frame 10, ensuring that all water drills are heated evenly and improving drying efficiency.
[0038] As can be seen from the above, after the water drill is placed in the feed box, the feed box is placed on the conveyor belt. The drying component is turned on, and the conveyor belt transports the feed box into the first drying chamber for drying. Then, it enters the second drying chamber through the first drying chamber for secondary drying. Finally, it enters the third cooling chamber from the second drying chamber and is transported out from the third cooling chamber.
[0039] The above description is merely a preferred embodiment of this utility model; however, the protection scope of this utility model is not limited thereto. Any equivalent substitutions or modifications made by those skilled in the art within the technical scope disclosed in this utility model, based on the technical solution and its improved concept, should be included within the protection scope of this utility model.
Claims
1. A semi-closed water drop drying member, characterized by, Including an openable and closable material frame, and also including: Conveying device, used for conveying material frames; The drying device includes a drying chamber mounted on a conveying device for drying water drills; the drying chamber has three separate independent cavities: a first drying chamber, a second drying chamber, and a third cooling chamber; it also includes a drying mechanism mounted on the inner walls of the first and second drying chambers, and a cooling mechanism mounted on the inner wall of the third cooling chamber for cooling the water drills; the temperature inside the first drying chamber is higher than the temperature inside the second drying chamber. The flipping device is located in the middle of the first drying chamber and is used to flip the material frame so that the water drills in the material frame are heated evenly.
2. A semi-closed type water drop drying member according to claim 1, wherein The conveying device has a conveyor belt for placing and transporting material frames, and a driver.
3. The semi-open / closed water drill drying component as described in claim 1, characterized in that, The drying box is a semi-enclosed box with openings on both sides for the feeding frame to enter and exit.
4. A semi-closed type water drop drying member according to claim 1, wherein Ventilation openings are provided on both side walls of the drying oven.
5. A semi-closed type water drop drying member according to claim 1, wherein The drying mechanism includes a heating element disposed inside the first drying chamber and the second drying chamber and near the top of the drying box, used to heat air and thus dry the moisture on the surface of the rhinestone. The device includes a blower positioned above the heating element to accelerate airflow and improve drying efficiency; and a sensor positioned below the heating element to measure the internal temperature of the drying chamber and control the heating element to regulate the temperature of the drying chamber.
6. A semi-closed type water drop drying member according to claim 1, wherein The inner wall of the third cooling chamber is provided with a cooling component that blows air toward the material frame to cool the water drill inside the material frame.
7. A semi-closed type water drop drying member according to claim 1, wherein A heat insulation component is provided between the first drying chamber, the second drying chamber and the third cooling chamber to prevent heat conduction; the heat insulation component has an opening for the passage of the feeding frame; the heat insulation component also has an openable and closable heat insulation plate at the opening.
8. A semi-closed type water drop drying member according to claim 1, wherein The flipping device includes a telescopic component disposed at the center of the inner sidewall of the first drying chamber and located below the sensor; a clamping component disposed at the output end of the telescopic component for clamping the wire frame; and a rotator disposed at the other end of the telescopic component for driving the telescopic component to rotate and thereby driving the material frame to rotate.