CN209795899U - Defoaming device for three-proofing paint filling - Google Patents

Defoaming device for three-proofing paint filling Download PDF

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CN209795899U
CN209795899U CN201920669791.5U CN201920669791U CN209795899U CN 209795899 U CN209795899 U CN 209795899U CN 201920669791 U CN201920669791 U CN 201920669791U CN 209795899 U CN209795899 U CN 209795899U
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flow guide
filling
liquid separation
air
shell
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CN201920669791.5U
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陈春喜
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Hangzhou Sitong Chemical Technology Co Ltd
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Hangzhou Sitong Chemical Technology Co Ltd
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Abstract

The utility model discloses a three proofings lacquer filling is with removing bubble device, this three proofings lacquer filling is with removing bubble device include feeding filling valve, water conservancy diversion formula gas-liquid separation subassembly, vacuum generator and ejection of compact filling valve, water conservancy diversion formula gas-liquid separation subassembly is equipped with casing, water conservancy diversion post, gas-liquid separation stick. Three proofings lacquer filling is with the mode that removes bubble device inside in order to establish the low pressure environment of stewing, has realized taking out the purpose of small bubble on the filling route, has promoted the quality of three proofings lacquer greatly.

Description

Defoaming device for three-proofing paint filling
Technical Field
The utility model relates to a three proofings lacquer filling is with removing bubble device.
Background
The three-proofing paint has high consistency and is easy to be mixed with air bubbles in the production process. The bubbles are firstly caused by stirring the raw materials during production, and the stirring operation is realized based on a stirring device; the stirring device is provided with a vacuum generating structure, and the material in the stirring device can be maintained in a low-pressure environment, so that the entrained air bubbles can be discharged, but the operation cannot completely eliminate the air bubbles, particularly small air bubbles which are very small in volume and adhere to the inner surface of the container. This is because the vacuum degree that agitating unit with vacuum stirring function can reach among the prior art is very limited, if the operating environment of higher vacuum degree is obtained through the mode that increases the extraction air volume, can cause big pressure differential, and then lead to the parts aggravation wearing and tearing of sealed loose position department, and the highest vacuum degree that agitating unit can reach can be influenced in reverse to wearing and tearing. Due to the physical characteristic of high consistency of the three-proofing agent, the three-proofing agent can drive small bubbles to enter a subpackaged packaging container along with a conveying path and suspend in the three-proofing paint in the conveying stage. When the protective cover is used, the small bubbles can form pits or cavities on the surface of the printed circuit board, so that the defect of insufficient protection is caused. Thus, there is a problem in the prior art that small air bubbles enter the packaging container during the filling phase.
Disclosure of Invention
The to-be-solved technical problem of the utility model is how to avoid the microbubble to get into packaging container in the filling stage, obtain a three proofings lacquer filling from this and use bubble removal device.
In order to solve the technical problem, the utility model discloses a go into following technical scheme: the defoaming device for three-proofing paint filling comprises a feeding filling valve, a flow guiding type gas-liquid separation component, a vacuum generator and a discharging filling valve, wherein the flow guiding type gas-liquid separation component is provided with a shell, a flow guiding column and a gas-liquid separation rod, one end of the shell is provided with a feeding hole and an air exhaust hole, the other end of the shell is provided with a discharge hole, the feeding hole is positioned between the air exhaust hole and the discharge hole in the direction along the central line of the shell, the direction of the feeding hole is opposite to the direction of the air exhaust hole, the flow guiding column is fixed in the shell and is hermetically connected with the shell, a cylindrical flow guiding channel is arranged on the flow guiding column, the central line of the flow guiding channel is parallel to the central line of the flow guiding column, the gas-liquid separation rod comprises a supporting rod and spiral blades, and the, the gas-liquid separation rod is fixed inside the shell, the center line of the support rod is coincident with the center line of the flow guide channel, the support rod is fixedly connected with the shell, the spiral blade is located in the flow guide channel, the length of the spiral blade is smaller than or equal to that of the flow guide channel, the outer diameter of the spiral blade is smaller than the inner diameter of the flow guide channel, an exhaust gap is formed between the spiral blade and the flow guide column, the feed inlet and the exhaust port are communicated with the discharge port through the flow guide channel, the feeding filling valve is installed at the feed inlet on the flow guide gas-liquid separation component, the vacuum generator is installed at the exhaust port on the flow guide gas-liquid separation component, and the discharging filling valve is installed at the discharge port.
During the use, this three proofings lacquer filling is with removing the vertical setting of bubble device, so can show feed inlet, extraction opening all to be located the rear of discharge gate in the action of gravity direction in the in-service use, and the feed inlet is located the place ahead of extraction opening in the action of gravity direction.
In the technical scheme, the defoaming device for filling the three-proofing paint is used for pumping out small bubbles in a low-pressure mode. When the three-proofing paint containing the small bubbles flows through the diversion type gas-liquid separation assembly, the three-proofing paint can be guided by the spiral blades on the gas-liquid separation rod to form a flat fluid form, the three-proofing paint is easy to obtain a large surface area in the state, the small bubbles are easy to expose on the surface of the fluid and further attach to the spiral blades and the diversion column on the inner wall of the diversion channel, and finally move upwards through an exhaust gap arranged between the spiral blades and the diversion column. In order to ensure smooth flow of small bubbles, the smoothness of the spiral blades and the flow guide columns on the inner wall of the flow guide channel can be improved. The diversion type gas-liquid separation assembly is isolated at the feeding filling valve and the discharging filling valve, and the air inside the shell is extracted through the vacuum generator so as to reduce the air pressure inside the shell. After maintaining the low pressure state for a period of time, the small bubbles in the diversion type gas-liquid separation component rise along the same trend until the bubbles disappear. And filling the defoamed conformal paint into the container through a discharge filling valve.
In order to facilitate the small bubbles to rapidly diffuse at the final rising stage, an air dispersing cavity is arranged in the shell and is positioned at one end of the flow guide column, the feed inlet is communicated with the air dispersing cavity, the air extraction opening is communicated with the air dispersing cavity, and the flow guide channel is communicated with the air dispersing cavity. In addition, the cavity can be used for caching conformal coating, and when excessive conformal coating enters from the feeding filling valve, the conformal coating can be temporarily stored in the cavity; the function has very obvious practicability on the production line of continuous filling operation.
In guaranteeing that the three-proofing paint that the feed inlet got into evenly distributes each water conservancy diversion passageway, just need to have the structure of distribution function, the one end of maintaining the water conservancy diversion post is equipped with the drainage inclined plane, the central line slope of drainage inclined plane and water conservancy diversion post is crossing, the perpendicular distance of one side on drainage inclined plane to the feed inlet is less than the perpendicular distance of the opposite side on drainage inclined plane to the feed inlet.
Because the defoaming device for filling the three-proofing paint adopts a low-pressure standing working mode, in order to ensure that the defoaming device has higher treatment capacity in unit time, the flow guide channels are annularly arranged around the center line of the flow guide column, and a flow guide channel is also arranged at the position of the center line of the flow guide column.
The utility model adopts the above technical scheme: three proofings lacquer filling is with the mode that removes bubble device inside in order to establish the low pressure environment of stewing, has realized taking out the purpose of small bubble on the filling route, has promoted the quality of three proofings lacquer greatly.
Drawings
The present invention will be described in further detail with reference to the accompanying drawings and embodiments.
FIG. 1 is a schematic structural view of a defoaming device for filling conformal coating of the present invention;
Fig. 2 is a partial enlarged view of fig. 1 at a.
Detailed Description
In this embodiment, the defoaming device for filling the three-proofing paint is used in combination with the charging barrel and the lifting component. The charging barrel, the foam removing device for filling the three-proofing paint and the lifting component are all arranged on a frame. The charging barrel is positioned at the topmost end of the frame and is used for storing stirred three-proofing paint. Three proofings lacquer filling is with removing the below that the bubble device is whole to be located the feed cylinder, and the three proofings lacquer of being convenient for flows into in three proofings lacquer filling is with removing the bubble device under receiving self action of gravity like this. The lifting member has a drive end which is linearly reciprocated in a vertical direction.
as shown in fig. 1 and 2, the defoaming device for three-proofing paint filling is composed of a feeding filling valve 1, a diversion type gas-liquid separation component 2, a vacuum generator 3 and a discharging filling valve 4.
The feeding filling valve 1 comprises a valve body, a columnar valve core and an air cylinder, wherein the columnar valve core is positioned inside the valve body, a cylinder body of the air cylinder is installed on the valve body, a piston rod of the air cylinder is connected with the columnar valve core, and the center line of the piston rod is superposed with the center line of the columnar valve core. The valve body is provided with an input port and an output port. The cylinder can drive the columnar valve core to do linear reciprocating motion, and the columnar valve core and the valve body can be connected in a sealing manner, so that the communication relation between the input port and the output port is isolated in the valve body; on the contrary, when the sealing connection between the columnar valve core and the valve body is lost, the input port and the output port are communicated in the valve body. The inlet filling valve 1 is connected at its inlet opening to the cartridge by means of a hose, so that the inlet opening of the inlet filling valve 1 communicates with the cartridge.
The diversion type gas-liquid separation component 2 is provided with a shell 5, a diversion column 6 and a gas-liquid separation rod 7. After installation, the diversion-type gas-liquid separation assembly 2 is located in front of the feed cylinder in the gravity action direction, and the feed cylinder is located above the diversion-type gas-liquid separation assembly 2 in actual use.
One end of the shell 5 is provided with a feed inlet 8 and an extraction opening 9, and the other end of the shell 5 is provided with a discharge outlet 10. The inlet filling valve 1 is connected at its outlet via a hose to the inlet opening 8 of the housing 5, so that the outlet of the inlet filling valve 1 is connected to the inlet opening 8 of the housing 5. The orientation of the feed inlet 8 is opposite to that of the extraction opening 9, and the feed inlet 8 and the extraction opening 9 are both positioned behind the discharge opening 10 in the gravity action direction, and the feed inlet 8 and the extraction opening 9 are both positioned above the discharge opening 10 in the actual use process; the feed port 8 is located in front of the suction port 9 in the direction of action of gravity, so that they are spatially offset from each other.
The middle part of the shell 5 is cylindrical, and the flow guide column 6 is arranged at the middle part of the shell 5 and is positioned inside the shell 5. The side surface of the flow guiding column 6 is tightly connected with the inner wall of the shell 5, and the tight connection degree can enable the flow guiding column 6 to be in sealing connection with the shell 5. One end of the flow guide column 6 is provided with a drainage inclined plane 11, the drainage inclined plane 11 is of a plane structure, and the drainage inclined plane 11 is obliquely intersected with the central line of the flow guide column 6. The vertical distance from one side of the flow-guiding inclined plane 11 to the feed opening 8 is smaller than the vertical distance from the other side of the flow-guiding inclined plane 11 to the feed opening 8.
An air dispersing cavity 12 is formed in the shell 5 due to the separation of the flow guide column 6, and the air dispersing cavity 12 is positioned among the flow guide inclined plane 11, the feed port 8 and the air extracting port 9, so that the feed port 8 is directly communicated with the air dispersing cavity 12, the air extracting port 9 is also directly communicated with the air dispersing cavity 12, and the feed port 8 is also communicated with the air extracting port 9. Seven cylindrical guide channels 13 are distributed on the guide column 6, and the guide channels 13 are directly communicated with the air dispersing cavity 12. The central lines of the guide channels 13 are all parallel to the central line of the guide column 6; six guide channels 13 are distributed on the guide column 6 at equal angles around the center line of the guide column 6, the remaining guide channel 13 is positioned among the six guide channels 13, and the center line of the guide channel 13 is coincident with the center line of the guide column 6.
The gas-liquid separation rod 7 includes a support rod 14 and a spiral blade 15. The support bar 14 is a straight cylindrical structure, and the helical blades 15 are fixed on the support bar 14 and distributed along the central line of the support bar 14. The gas-liquid separation rod 7 is fixed inside the shell 5, one end of the support rod 14 is fixed and hermetically connected with the shell 5, and the central line of the support rod 14 is superposed with the central line of the flow guide channel 13 after installation; the helical blades 15 on the support bar 14 are located in the flow guide channel 13. A gas-liquid separation rod 7 is arranged in each flow guide channel 13, and the length of the spiral blade 15 in each flow guide channel 13 is smaller than that of the flow guide channel 13 where the spiral blade 15 is located. The outer diameter of the helical blade 15 is smaller than the inner diameter of the guide channel 13, so that an exhaust gap is provided between the helical blade 15 and the guide column 6, the width of which is one third of the pitch of the helical blade 15. Although the gas-liquid separating rod 7 is positioned in the flow guide channel 13, a gap is formed between the helical blades 15 on the gas-liquid separating rod 7, and a gap is formed between the helical blades 15 and the flow guide column 6, so that the feed inlet 8 and the extraction opening 9 can be communicated with the discharge outlet 10 through the flow guide channel 13.
The vacuum generator 3 is arranged at an air extraction opening 9 on the diversion type gas-liquid separation component 2.
The discharging filling valve 4 comprises a valve body, a columnar valve core and a cylinder. The columnar valve core is positioned in the valve body, the cylinder body of the air cylinder is arranged on the valve body, the piston rod of the air cylinder is connected with the columnar valve core, and the center line of the piston rod is superposed with the center line of the columnar valve core. The valve body is provided with an input port and an output port, the direction of the output port is overlapped with the center line of the piston rod, and the direction of the input port is inclined to the center line of the piston rod. The piston rod of the cylinder and the valve body are always in a sealing connection relation, the piston rod of the cylinder is far away from an output port on the valve body in an initial state, the cylinder is in a contraction state, and the input port and the output port inside the valve body are communicated at the moment. The cylinder can drive the columnar valve core to do linear reciprocating motion, and only when the columnar valve core moves towards the direction of the output port until the columnar valve core cuts off the connection relation between the input port and the output port, the connection relation between the input port and the output port is isolated in the valve body. The inlet of the discharge filling valve 4 is connected with the discharge hole 10 of the shell 5 on the diversion gas-liquid separation assembly 2 through a hose, so that the inlet of the discharge filling valve 4 is communicated with the discharge hole 10 of the shell 5.
The lifting component comprises a support frame, a mounting plate, a motor and a synchronous belt. The support frame is of a frame structure and is arranged on the frame. The two ends of the mounting plate are movably mounted on the support frame through the sliding guide rails respectively, and the mounting plate can do linear reciprocating motion on the support frame in a sliding mode. The synchronous belt passes through on the synchronous pulley erection bracing frame, is expanded the synchronous belt by two synchronous pulleys, forms the expansion structure that both ends are the arc, the middle is straight state after the synchronous belt expandes. The part of the synchronous belt which is unfolded to form the straight shape is parallel to the linear reciprocating motion direction of the mounting plate, and the mounting plate is connected with the part of the synchronous belt which is unfolded to form the straight shape. The motor is installed on the support frame, and the motor is connected with one of them synchronous pulley, and the motor work back alright drive synchronous pulley motion, and then the drive hold-in range rotates. The synchronous belt rotates to drive the mounting plate to do linear motion, and the synchronous belt moves towards different directions to enable the mounting plate to do linear reciprocating motion on the support frame. The mounting panel is as the drive end of lifting unit, and ejection of compact filling valve 4's valve body is installed on the mounting panel, can be used to ejection of compact filling valve 4 like this and go up and down, is the direction that is on a parallel with the action of gravity direction and is linear motion. The ejection of compact filling valve 4 is located higher position under the initial condition, and then drive ejection of compact filling valve 4 by the lifting unit and descend when having the container to be located ejection of compact filling valve 4 below and need the filling, stretches into in the container until the delivery outlet position of ejection of compact filling valve 4, lifts up ejection of compact filling valve 4 by the lifting unit after waiting to fill again.
When the device is used for the first time, the discharging filling valve 4 is in a turn-off state and at a higher position, the vacuum generator 3 does not work, and the feeding filling valve 1 is opened; the three-proofing paint in the charging barrel flows into the diversion type gas-liquid separation component 2 under the action of the gravity of the three-proofing paint. The drainage inclined plane 11 at one end of the flow guide column 6 well distributes the three-proofing paint to each flow guide channel 13 uniformly. The three-proofing paint enters the flow guide channel 13 and forms a flat fluid state under the separation and guide effect of the spiral blade 15, fine bubbles mixed in the three-proofing paint are rapidly attached to the surfaces of the spiral blade 15 and the flow guide channel 13, and the three-proofing paint is in a standing state inside the flow guide type gas-liquid separation assembly 2. After the interior of the diversion type gas-liquid separation assembly 2 and the interior of the hose between the diversion type gas-liquid separation assembly 2 and the discharging filling valve 4 are filled with the three-proofing paint, it is worth noting that the three-proofing paint does not exceed the drainage inclined plane 11 at the moment. Then, the feeding filling valve 1 is turned off, the vacuum generator 3 works, air in the air diffusion cavity 12 is rapidly extracted, and the air pressure in the air diffusion cavity 12 is rapidly reduced. In this way, the surface attached to the helical blade 15 and the surface of the flow guide channel 13 are forced to move rapidly towards the position of the air dispersion cavity 12 until entering the air dispersion cavity 12. Thus, small bubbles in the three-proofing paint can be removed. When ejection of compact filling valve 4 below is arranged in to the container, lifting unit drives ejection of compact filling valve 4 and moves, and the delivery outlet position of ejection of compact filling valve 4 that makes stretches into in the container, then, vacuum generator 3 is out of work, feeding filling valve 1 is opened, flows into three proofings lacquer from the feed cylinder, and ejection of compact filling valve 4 department outwards exports the three proofings lacquer of detaching the small bubble simultaneously, treats ejection of compact filling valve 4 behind the filling and shuts off and lift up by lifting unit. In the whole three-proofing paint filling process, the small air bubble removing operation is carried out on the three-proofing paint positioned on the filling path by utilizing the clearance of the filling step.

Claims (4)

1. The utility model provides a three proofings lacquer filling is with removing bubble device which characterized in that: the defoaming device for three-proofing paint filling comprises a feeding filling valve (1), a flow guide type gas-liquid separation component (2), a vacuum generator (3) and a discharging filling valve (4), wherein the flow guide type gas-liquid separation component (2) is provided with a shell (5), a flow guide column (6) and a gas-liquid separation rod (7), one end of the shell (5) is provided with a feeding hole (8) and an air suction hole (9), the other end of the shell (5) is provided with a discharging hole (10), the feeding hole (8) is positioned between the air suction hole (9) and the discharging hole (10) in the direction along the central line of the shell (5), the orientation of the feeding hole (8) is opposite to that of the air suction hole (9), the flow guide column (6) is fixed inside the shell (5), the flow guide column (6) is hermetically connected with the shell (5), and a cylindrical flow guide channel (13) is arranged on the flow guide column (6, the center line of water conservancy diversion passageway (13) is on a parallel with the center line of water conservancy diversion post (6), gas-liquid separation stick (7) are including bracing piece (14) and helical blade (15), helical blade (15) are fixed on bracing piece (14) and are distributed along the center line of bracing piece (14), gas-liquid separation stick (7) are fixed inside casing (5), the center line of bracing piece (14) and the center line coincidence of water conservancy diversion passageway (13), bracing piece (14) and casing (5) fixed connection, helical blade (15) are located water conservancy diversion passageway (13), the length of helical blade (15) is less than or equal to the length of water conservancy diversion passageway (13), the external diameter of helical blade (15) is less than the internal diameter of water conservancy diversion passageway (13), be equipped with the exhaust clearance between helical blade (15) and water conservancy diversion post (6), feed inlet (8), The feed inlet (8) and the extraction opening (9) are communicated with a discharge hole (10) through a flow guide channel (13), the feed inlet (8) of the feed filling valve (1) is arranged on the flow guide type gas-liquid separation component (2), the extraction opening (9) of the vacuum generator (3) is arranged on the flow guide type gas-liquid separation component (2), and the discharge filling valve (4) is arranged on the discharge hole (10) of the flow guide type gas-liquid separation component (2).
2. The defoaming device for filling of three-proofing paint according to claim 1, characterized in that: the air-distributing cavity (12) is arranged inside the shell (5), the air-distributing cavity (12) is located at one end of the air guide column (6), the feed inlet (8) is communicated with the air-distributing cavity (12), the air suction opening (9) is communicated with the air-distributing cavity (12), and the air guide channel (13) is communicated with the air-distributing cavity (12).
3. The defoaming device for filling of three-proofing paint according to claim 1, characterized in that: one end of the flow guide column (6) is provided with a drainage inclined plane (11), the drainage inclined plane (11) is inclined and intersected with the central line of the flow guide column (6), and the vertical distance from one side of the drainage inclined plane (11) to the feed port (8) is smaller than the vertical distance from the other side of the drainage inclined plane (11) to the feed port (8).
4. The defoaming device for filling of three-proofing paint according to claim 1, characterized in that: the flow guide channels (13) are annularly arranged around the center line of the flow guide column (6) and a flow guide channel (13) is arranged at the position of the center line of the flow guide column (6).
CN201920669791.5U 2019-05-11 2019-05-11 Defoaming device for three-proofing paint filling Active CN209795899U (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
CN201920669791.5U CN209795899U (en) 2019-05-11 2019-05-11 Defoaming device for three-proofing paint filling

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
CN201920669791.5U CN209795899U (en) 2019-05-11 2019-05-11 Defoaming device for three-proofing paint filling

Publications (1)

Publication Number Publication Date
CN209795899U true CN209795899U (en) 2019-12-17

Family

ID=68832443

Family Applications (1)

Application Number Title Priority Date Filing Date
CN201920669791.5U Active CN209795899U (en) 2019-05-11 2019-05-11 Defoaming device for three-proofing paint filling

Country Status (1)

Country Link
CN (1) CN209795899U (en)

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