Printing ink raw material conveying pipeline filtering device

Abstract

The utility model provides a printing ink raw material transportation pipeline filtering device, which relates to the technical field of printing ink raw material transportation and comprises a valve control component and a filtering assembly, the output end of the valve control component is provided with a pipeline output mechanism which is installed in a sleeved mode, and the pipeline output mechanism is internally provided with the filtering assembly which is installed in a sleeved mode. The filter assembly comprises a pore plate, a connecting rod, a hole insertion base, a filter element group and an activated carbon layer, the pore plate is arranged in the pipeline output mechanism, the connecting rod is arranged on the inner side of the pore plate, the hole insertion base is arranged at one end of the connecting rod, and the filter element group is arranged on one group of inner sides of the pore plate; according to the utility model, the limiting ring on the inner side of the driving pipeline is mainly used for setting, and after the setting, the pore plate, the connecting rod, the pore insertion base, the filter element group and the activated carbon layer are connected, the pore plate, the connecting rod and the pore insertion base can be integrally dragged out, so that an effective quick disassembly and assembly effect is achieved.

Description

Technical Field

[0001] This utility model relates to the field of ink raw material transportation technology, and in particular to a filter device for ink raw material transportation pipeline. Background Technology

[0002] Ink is an important material used in printing. It is used to represent patterns and text on a substrate through printing or inkjet printing. Ink consists of main components and auxiliary components, which are uniformly mixed and repeatedly rolled to form a viscous colloidal fluid. It is composed of binders (resins), pigments, fillers, additives and solvents, and is used in various printing applications such as books, packaging, building decoration and electronic circuit boards. With the increase in social demand, the variety and output of inks have also expanded and increased accordingly.

[0003] Existing transport pipeline filtration devices, such as the ink transport device described in application number CN202121658392.2, include a feed pump and a filtration module. The feed pump is connected to an ink storage tank via a first pipe, and the feed pump is connected to the filtration module via an inlet pipe. The filtration module is connected to an ink storage tank via an outlet pipe. The filtration module includes a funnel-shaped filter chamber and a main filter screen disposed within the filter chamber. The smaller opening end of the filter chamber is connected to the inlet pipe, and the main filter screen is disposed at the larger opening end of the filter chamber and is connected to the outlet pipe. However, in the above-mentioned technology, the filter screen is a fixed structure, which is not convenient for quick disassembly and replacement. Therefore, this utility model proposes an ink raw material transport pipeline filtration device to solve the problems existing in the prior art. Summary of the Invention

[0004] To address the aforementioned problems, this utility model proposes a filter device for ink raw material transport pipelines. This filter device mainly utilizes a limiting ring on the inner side of the drive pipeline. After the ring is set, the perforated plate, connecting rod, perforation base, filter element assembly, and activated carbon layer are connected, allowing the perforated plate, connecting rod, and perforation base to be dragged out as a whole, achieving an effective and rapid disassembly and assembly effect.

[0005] To achieve the purpose of this utility model, the utility model is implemented through the following technical solution: a filter device for an ink raw material transport pipeline, comprising a valve control component and a filter assembly, wherein the output end of the valve control component is provided with a sleeved pipeline output mechanism, and the pipeline output mechanism is provided with a sleeved filter assembly inside;

[0006] The filter assembly includes a perforated plate, a connecting rod, a perforated base, a filter element assembly, and an activated carbon layer. The perforated plate is disposed inside the pipeline output mechanism. A connecting rod is disposed on the inner side of the perforated plate, and a perforated base is disposed at one end of the connecting rod. A filter element assembly is disposed on one set of the inner sides of the perforated plate, and an activated carbon layer is disposed on the other set of the inner sides of the perforated plate.

[0007] In a preferred embodiment of this utility model, the perforated plate has a porous structure.

[0008] In a preferred embodiment of the present invention, the valve control component includes a pad, a base frame, a valve block, an inlet, a connecting pipe, a top-mounted cylinder, a telescopic rod, a valve plug, and a valve ring. The base frame is provided above the pad, and the valve block is provided above one end of the base frame. The valve block has an inlet at its input end and a connecting pipe at its output end.

[0009] In a preferred embodiment of the present invention, a top-mounted oil cylinder is provided above the valve block, and a telescopic rod is provided at the output end of the top-mounted oil cylinder. A valve plug is provided below the telescopic rod, and a valve ring is provided on the outer side of the valve plug.

[0010] In a preferred embodiment of this utility model, the pipeline output mechanism includes a drive pipeline, a connecting ring, a heating rod, an output nozzle, a limiting ring, a fixing post, a gearbox, a drive motor, a first gear set, a second gear set, a rotating rod, a transmission chamber, a meshing gear set, and a turboprop blade. The drive pipeline is located at the output end of the connecting pipe. A connecting ring is provided on the outer side of the drive pipeline, and a heating rod is provided on the opposite side of the connecting ring. An output nozzle is provided at the output end of the drive pipeline, a limiting ring is provided on the inner side of the drive pipeline, and a fixing post is provided above one end of the drive pipeline.

[0011] In a preferred embodiment of this utility model, a gearbox is provided above the fixed column, and a drive motor is provided below one end of the gearbox. A first gear set is provided at the output end of the drive motor, and a second gear set is provided at the output end of the first gear set. A rotating rod is provided at the output end of the second gear set, and a transmission chamber is provided at the output end of the rotating rod. A meshing gear set is provided at the output end of the transmission chamber, and a turboprop blade is provided at the output end of the meshing gear set.

[0012] The beneficial effects of this utility model are as follows:

[0013] This utility model mainly utilizes the limiting ring on the inner side of the drive pipeline for setting. After setting, the orifice plate, connecting rod, orifice base, filter element group and activated carbon layer are connected, so that the orifice plate, connecting rod and orifice base can be dragged out as a whole to achieve an effective and quick disassembly and assembly effect. Attached Figure Description

[0014] Figure 1 This is a three-dimensional structural diagram of the present invention;

[0015] Figure 2 This is a bottom-view three-dimensional structural diagram of the present invention;

[0016] Figure 3 This is a cross-sectional three-dimensional structural diagram of the present invention;

[0017] Figure 4 This is a schematic diagram of the pipeline output mechanism of this utility model;

[0018] Figure 5 This is a three-dimensional structural diagram of the filter component of this utility model.

[0019] The components include: 1. Valve control components; 101. Pad; 102. Base frame; 103. Valve block; 104. Inlet; 105. Connecting pipe; 106. Top-mounted cylinder; 107. Telescopic rod; 108. Valve plug; 109. Valve ring; 2. Pipeline output mechanism; 201. Drive pipeline; 202. Sleeve ring; 203. Heating rod; 204. Output nozzle; 205. Limiting ring; 206. Fixed column; 207. Gearbox; 208. Drive motor; 209. First gear set; 2010. Second gear set; 2011. Rotating rod; 2012. Transmission chamber; 2013. Meshing gear set; 2014. Turbine blade; 3. Filter assembly; 301. Perforated plate; 302. Connecting rod; 303. Hole insertion base; 304. Filter element assembly; 305. Activated carbon layer. Detailed Implementation

[0020] To deepen the understanding of this utility model, the following detailed description will be provided in conjunction with embodiments. These embodiments are only used to explain this utility model and do not constitute a limitation on the scope of protection of this utility model.

[0021] according to Figure 1-4 As shown, this embodiment proposes a filter device for an ink raw material transport pipeline, including a valve control component 1 and a filter assembly 3. The output end of the valve control component 1 is provided with a sleeved pipeline output mechanism 2, and the pipeline output mechanism 2 is provided with a sleeved filter assembly 3 inside.

[0022] The filter assembly 3 includes a perforated plate 301, a connecting rod 302, a perforated base 303, a filter element assembly 304, and an activated carbon layer 305. The perforated plate 301 is disposed inside the pipeline output mechanism 2. The connecting rod 302 is disposed on the inner side of the perforated plate 301, and the perforated base 303 is disposed at one end of the connecting rod 302. The filter element assembly 304 is disposed on one set of inner sides of the perforated plate 301, and the activated carbon layer 305 is disposed on the other set of inner sides of the perforated plate 301.

[0023] The perforated plate 301 has a porous structure.

[0024] In this embodiment, after the material is output through the drive pipeline 201, it is purified and filtered through the perforated plate 301 in conjunction with the filter element group 304 and the activated carbon layer 305.

[0025] The valve control component 1 includes a pad 101, a base frame 102, a valve block 103, an inlet 104, a connecting pipe 105, a top-mounted cylinder 106, a telescopic rod 107, a valve plug 108, and a valve ring 109. The base frame 102 is provided above the pad 101, and the valve block 103 is provided above one end of the base frame 102. The inlet 104 is provided at the input end of the valve block 103, and the connecting pipe 105 is provided at the output end of the valve block 103.

[0026] In this embodiment, when the valve ring 109 is opened, the material input through the inlet 104 enters the valve block 103 and is input into the pipeline output mechanism 2 through the connecting pipe 105 at the output end of the valve block 103.

[0027] A top-mounted hydraulic cylinder 106 is provided above the valve block 103, and a telescopic rod 107 is provided at the output end of the top-mounted hydraulic cylinder 106. A valve plug 108 is provided below the telescopic rod 107, and a valve ring 109 is provided on the outer side of the valve plug 108.

[0028] In this embodiment, when it is needed, the top-mounted hydraulic cylinder 106 above one end of the valve block 103 outputs power to drive the output end to extend and retract, so that after the top-mounted hydraulic cylinder 106 outputs power, the telescopic rod 107 extends and retracts, causing the valve plug 108 to rise, thereby opening the valve ring 109.

[0029] The pipeline output mechanism 2 includes a drive pipeline 201, a connecting ring 202, a heating rod 203, an output nozzle 204, a limiting ring 205, a fixing post 206, a gearbox 207, a drive motor 208, a first gear set 209, a second gear set 2010, a rotating rod 2011, a transmission chamber 2012, a meshing gear set 2013, and a turboprop blade 2014. The drive pipeline 201 is located at the output end of the connecting pipe 105. A connecting ring 202 is located on the outer side of the drive pipeline 201, and a heating rod 203 is located on the opposite side of the connecting ring 202. An output nozzle 204 is located at the output end of the drive pipeline 201, a limiting ring 205 is located on the inner side of the drive pipeline 201, and a fixing post 206 is located above one end of the drive pipeline 201.

[0030] In this embodiment, when the turboprop blades 2014 at the output end of the meshing gear set 2013 are in operation, the material in the drive pipe 201 is output, and the heating rod 203 on the opposite side of the sleeve ring 202 is heated to ensure the temperature of the material in the drive pipe 201. The material is then output to the target location through the output nozzle 204 at the output end of the drive pipe 201 at a suitable temperature.

[0031] A gearbox 207 is provided above the fixed column 206, and a drive motor 208 is provided below one end of the gearbox 207. A first gear set 209 is provided at the output end of the drive motor 208, and a second gear set 2010 is provided at the output end of the first gear set 209. A rotating rod 2011 is provided at the output end of the second gear set 2010, and a transmission compartment 2012 is provided at the output end of the rotating rod 2011. A meshing gear set 2013 is provided at the output end of the transmission compartment 2012, and a turboprop blade 2014 is provided at the output end of the meshing gear set 2013.

[0032] In this embodiment, the drive motor 208 below one end of the gearbox 207 then outputs power to drive the output end to run, so that the first gear set 209 and the second gear set 2010 inside the gearbox 207 perform output transmission operation, and after the rotating rod 2011 outputs transmission, the meshing gear set 2013 in the transmission compartment 2012 outputs transmission operation, which in turn causes the turboprop blade 2014 to rotate.

[0033] The working principle of the ink raw material transport pipeline filtration device is as follows: When needed, the top-mounted hydraulic cylinder 106 above one end of the valve block 103 outputs power to drive the output end to extend and retract. After the top-mounted hydraulic cylinder 106 outputs power, the telescopic rod 107 extends and retracts, causing the valve plug 108 to rise, thus opening the valve ring 109. When the valve ring 109 opens, the material input through the inlet 104 enters the valve block 103 and is input into the pipeline output mechanism 2 through the connecting pipe 105 at the output end of the valve block 103. Then, the drive motor 208 below one end of the gearbox 207 outputs power to drive the output end, causing the first gear set 209 and the second gear set inside the gearbox 207 to move. 2010 performs output transmission operation, and after the rotating rod 2011 outputs transmission, the meshing gear set 2013 in the transmission chamber 2012 outputs transmission operation, which in turn causes the turboprop blades 2014 to rotate. When the material is output through the drive pipe 201, it is purified and filtered through the perforated plate 301 in conjunction with the filter element set 304 and the activated carbon layer 305. When the turboprop blades 2014 at the output end of the meshing gear set 2013 outputs, the material in the drive pipe 201 is output, and the heating rod 203 on the opposite side of the sleeve ring 202 is heated to ensure the temperature of the material in the drive pipe 201. At a suitable temperature, the material is output to the target location through the output nozzle 204 at the output end of the drive pipe 201.

[0034] The foregoing has shown and described the basic principles, main features, and advantages of this utility model. Those skilled in the art should understand that this utility model is not limited to the above embodiments. The embodiments and descriptions in the specification are merely illustrative of the principles of this utility model. Various changes and modifications can be made to this utility model without departing from its spirit and scope, and all such changes and modifications fall within the scope of the claimed utility model. The scope of protection of this utility model is defined by the appended claims and their equivalents.

Claims

1. A filtration device for an ink raw material transport pipeline, comprising a valve control component (1) and a filtration assembly (3), characterized in that: The valve control component (1) is provided with a sleeved pipe output mechanism (2) at its output end, and a sleeved filter assembly (3) is provided inside the pipe output mechanism (2). The filter assembly (3) includes a perforated plate (301), a connecting rod (302), a perforated base (303), a filter element assembly (304), and an activated carbon layer (305). The perforated plate (301) is disposed inside the pipeline output mechanism (2). A connecting rod (302) is disposed on the inner side of the perforated plate (301), and a perforated base (303) is disposed at one end of the connecting rod (302). A filter element assembly (304) is disposed on one set of the inner side of the perforated plate (301), and an activated carbon layer (305) is disposed on the other set of the inner side of the perforated plate (301).

2. The ink raw material transport pipeline filtration device according to claim 1, characterized in that: The perforated plate (301) has a porous structure.

3. The ink raw material transport pipeline filtration device according to claim 1, characterized in that: The valve control component (1) includes a pad (101), a base frame (102), a valve block (103), an inlet (104), a connecting pipe (105), a top-mounted cylinder (106), a telescopic rod (107), a valve plug (108), and a valve ring (109). The base frame (102) is provided above the pad (101), and the valve block (103) is provided above one end of the base frame (102). The inlet (104) is provided at the input end of the valve block (103), and the connecting pipe (105) is provided at the output end of the valve block (103).

4. The ink raw material transport pipeline filtration device according to claim 3, characterized in that: A top-mounted cylinder (106) is provided above the valve block (103), and a telescopic rod (107) is provided at the output end of the top-mounted cylinder (106). A valve plug (108) is provided below the telescopic rod (107), and a valve ring (109) is provided on the outer side of the valve plug (108).

5. The ink raw material transport pipeline filtration device according to claim 3, characterized in that: The pipeline output mechanism (2) includes a drive pipeline (201), a sleeve ring (202), a heating rod (203), an output nozzle (204), a limiting ring (205), a fixing column (206), a gearbox (207), a drive motor (208), a first gear set (209), a second gear set (2010), a rotating rod (2011), a transmission compartment (2012), a meshing gear set (2013), and a turboprop blade (2014). The drive pipe (201) is located at the output end of the connecting pipe (105). A sleeve ring (202) is provided on the outer side of the drive pipe (201). A heating rod (203) is provided on the opposite side of the sleeve ring (202). An output nozzle (204) is provided at the output end of the drive pipe (201). A limit ring (205) is provided on the inner side of the drive pipe (201). A fixing post (206) is provided above one end of the drive pipe (201).

6. The ink raw material transport pipeline filtration device according to claim 5, characterized in that: A gearbox (207) is provided above the fixed column (206), and a drive motor (208) is provided below one end of the gearbox (207). A first gear set (209) is provided at the output end of the drive motor (208), and a second gear set (2010) is provided at the output end of the first gear set (209). A rotating rod (2011) is provided at the output end of the second gear set (2010), and a transmission compartment (2012) is provided at the output end of the transmission compartment (2012). A meshing gear set (2013) is provided at the output end of the meshing gear set (2013), and a turboprop blade (2014) is provided at the output end of the meshing gear set (2013).

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