JP4163529B2 - Equipment for supplying treatment liquid to the liquid flow path inside the mold - Google Patents

Description

[0001]
BACKGROUND OF THE INVENTION
The present invention relates to a processing liquid supply apparatus for supplying a processing liquid such as a cleaning agent, a rust preventive, a rust preventive oil, and a rust blackening processing liquid to an internal liquid passage formed inside a mold.
[0002]
[Prior art]
An internal fluid passage for circulating cooling water and the like is formed inside the mold, but this internal fluid passage is generally formed in a complicated shape, so that it is difficult for the cooling water or the like to escape. Rust tends to accumulate. In view of this, various treatment methods have been proposed in the past to prevent rusting of the liquid passage inside the mold.
[0003]
For example, Patent Document 1 (Japanese Patent Laid-Open No. 2002-1457) discloses a method of injecting a rust preventive paint into a cooling water hole by a pump or the like.
[0004]
Patent Document 2 (Japanese Patent Laid-Open No. 6-234145) discloses that when a molding operation is completed or when a mold is replaced, the supply of cooling water to the mold is shut off, and a pressure gas such as compressed air is supplied to the temperature control device. A method is proposed in which the inflow of water is regulated and supplied to the circulating water channel of the mold to discharge the cooling water accumulated in the circulating water channel and prevent rusting due to residual cooling water.
[0005]
Patent Document 3 (Japanese Patent Laid-Open No. 7-275822) discloses a cleaning liquid supply path that supplies a cleaning liquid from a cleaning liquid tank to a liquid passage to be cleaned, and a cleaning liquid discharge path that returns the cleaning liquid discharged from the liquid path to the cleaning liquid tank. In the liquid passage cleaning system, the cleaning liquid in the cleaning liquid tank is sucked through the liquid passage and the cleaning liquid supply passage, and the cleaning liquid is supplied into the liquid passage under a negative pressure, and the pulsation of the cleaning liquid is provided. In this case, water is first used as the cleaning liquid, and then, for example, by using an acidic cleaning liquid to which a predetermined amount of hard abrasive is added, the deposition that could not be removed by water is removed. For materials, we have proposed a method for removing scales and rust by the dissolving power of acidic liquid and mechanical impact force.
[0006]
Patent Document 4 (Japanese Patent Laid-Open No. 9-1090) discloses a rust-removing cleaning solution formed by adding phosphoric acid, a surfactant and an organic acid derivative to water in a predetermined ratio at a required pressure. Supply from one end of the cooling unit and discharge from the other end to remove the rust generated on the inner surface of the mold cooling unit, and rust prevention of iron phosphate combined with phosphoric acid in the cleaning liquid and iron of the mold forming material A method for removing rust from a mold cooling section has been proposed, in which a coating is formed on the inner surface of the mold cooling section.
[0007]
Patent Document 5 (Japanese Patent Laid-Open No. 2000-289036) discloses a rust preventive formed by mixing 0.1 to 50.0 wt% of a base material made of a rubber material in a mold and 50.0 to 99.9 wt% of an organic solvent. A rust preventive film is formed by applying an agent, and during the storage of the mold, this rust preventive film does not peel easily from the mold, making the rust preventive effect sustainable and forming a molded product using the mold. In this case, a method has been proposed in which the anticorrosive coating can be easily peeled off from the mold, and economical molding can be performed while suppressing the occurrence of defective products.
[0008]
Patent Document 6 (Japanese Patent Application Laid-Open No. 2000-255493) uses a cooling tank of a mold cooling device to cool a heating cylinder as a means for preventing rust without renewing equipment such as a condenser and a compressor. In the apparatus, a closed liquid circulation circuit having a heat exchange part, a liquid tank and a circulation pump is connected to a cooling water passage of a heating cylinder located at the lower part of the hopper, and the heat exchange part of the liquid circulation circuit is connected We have proposed a method for circulating a coolant with anti-rust properties in a liquid circulation circuit, which is placed in a cooling water tank of an existing mold cooling system.
[0009]
[Patent Document 1]
JP 2002-1457
[Patent Document 2]
JP-A-6-234145
[Patent Document 3]
JP-A-7-275822
[Patent Document 4]
JP-A-9-1090
[Patent Document 5]
JP 2000-289036 A
[Patent Document 6]
JP 2000-255493 A
[0010]
[Problems to be solved by the invention]
Conventionally, in order to pressure-feed a processing liquid such as cleaning liquid or rust preventive liquid into the mold internal liquid passage, it is often necessary to install a new device for pumping the processing liquid into the mold internal liquid passage To change the mold structure, there is a need to change the structure of the mold, the cost of installing new equipment, remodeling the mold, etc., and securing the installation location of the equipment. I had a problem.
[0011]
Therefore, the present invention relates to a processing liquid supply device for sending a processing liquid to an internal liquid flow path of a mold, to a mold internal liquid flow path that is small and can be handled easily and can be supplied at a low cost. The processing liquid supply device is provided.
[0012]
[Means for Solving the Problems]
The present invention is a processing liquid supply instrument to a mold internal liquid passage used to be connected to an injection port of a compressed gas supply means,
Contains the injection port receiving portion that can contact or connect the injection port of the compressed gas supply means in a substantially intimate state, the mold connection port portion that can be inserted or connected to the opening of the liquid passage inside the mold, and the processing liquid. A reservoir connecting port that can connect the stored reservoir, a communication passage that communicates between the injection port receiving portion and the mold connecting port, and a communication passage that communicates between the communication passage and the reservoir connecting port. A processing liquid supply device having a liquid supply path configured to have a negative pressure when a compressed gas flows in the passage (hereinafter, a configuration excluding a liquid storage device is also referred to as a “processing liquid supply adapter”). In addition, a processing liquid supply device is proposed in which a liquid storage device is connected to the liquid storage device connection port of the processing liquid supply adapter.
[0013]
The communication path and the liquid supply path are preferably configured such that when a compressed gas flows through the communication path, the processing liquid in the liquid storage device can be sucked into the communication path via the liquid supply path. For example, a step portion is provided in an intermediate portion of the communication passage, a connection port portion side of the step portion is a small diameter passage, and a treatment liquid ejection port side of the step portion is a large diameter passage having a diameter larger than the small diameter passage, If the treatment liquid supply path has a structure that communicates with the vicinity of the step portion in the large-diameter passage, the treatment liquid in the reservoir is supplied when the compressed gas flows in the communication path. It can be sucked into the communication path through the passage.
In addition, the vicinity of the said level | step-difference part in this case means the range which becomes negative pressure by the spreading | diffusion when the gas which distribute | circulated the inside of a small diameter passage enters into a large diameter path, and diffuses.
[0014]
Furthermore, it is preferable to provide a changeover switch for opening and closing the liquid supply path. If such a changeover switch is provided, it is possible to freely switch between the injection of the processing liquid and the injection of the high-pressure gas, and the workability can be further improved.
[0015]
As the structure of the “injection port receiving portion”, the injection port of the compressed gas supply means can be contacted or connected in a substantially intimate state, and at that time, the compressed gas is pumped into the communication path so as not to leak. If possible, the configuration is not particularly limited. For example, a configuration in which the injection port of the compressed gas supply means is inserted into the injection port receiving part and fitted (for example, a one-touch coupler type fitting such as a gas main plug and a gas hose) or a screw groove is formed. It is also possible to adopt a configuration in which they are screwed together and connected.
[0016]
Preferably, the injection port receiving part provided with the taper surface continuously extended toward the outer side from the communicating path can be mentioned. With such an injection port receiving portion, even if the diameter and shape of the injection port are different, if the injection port is in contact with the tapered surface, it can be connected in a substantially intimate state, and already around the molding machine etc. The processing can be executed using the compressed gas supply means such as an air gun as it is.
[0017]
More preferably, it has a tapered surface that continuously spreads outward from the communication path, and when the injection port of the compressed gas supply means is connected to the outside of the tapered surface, the tapered surface and the injection port There may be mentioned an injection port receiving part provided with a packing part which is interposed between the two and improves airtightness.
In the case of the injection port receiving portion having such a configuration, the air tightness can be reliably ensured by contacting or pressing the injection port of the compressed gas supply means with the packing portion interposed on the tapered surface. In general, when the angle of the tapered surface (α in FIG. 2) is increased, it becomes difficult to ensure airtightness at the time of connection. However, if the packing portion is interposed as described above, airtightness can be reliably ensured. .
[0018]
The structure of the above-mentioned “mold connection port” can be inserted or connected to the opening of the mold internal liquid flow path, and can be pumped to the mold internal liquid flow path so as not to leak the compressed gas and the processing liquid. The configuration is not particularly limited. For example, one-touch coupler type that fits into the opening of a joint (for example, a joint for connecting a cooling water hose) provided in the opening of the mold internal fluid passage (for example, a gas main plug and a gas hose) It is also possible to fit the
Preferably, a mold having a configuration in which an insertion portion that can be inserted into an opening hole of a joint provided in an opening portion of a mold internal liquid passage is provided, and a communication path is opened at a distal end portion of the insertion portion. A connection port part can be mentioned. If it is a metal mold | die connection opening part provided with such a structure, only by inserting in the opening hole of a coupling, compressed gas and a process liquid can be pumped into a metal mold | die internal flow path without leaking.
In addition, it can also form so that the injection adjustment tool which can adjust injection quantity, an injection shape, etc. can be connected to a metal mold | die connection part.
[0019]
The above-mentioned “liquid storage device (processing liquid supply storage device)”, that is, the liquid storage device used by being connected to the liquid storage device connecting port of the processing liquid supply device can store the processing liquid and expand and contract. It is preferable to include a liquid storage device main body and a connection port portion, and to have a configuration in which the liquid storage device body contracts and the internal processing liquid flows out from the connection port portion when sucked from the connection port portion.
In the case of a liquid storage device having such a configuration, when the compressed gas from the compressed gas supply means is flowed into the communication path by being connected to the processing liquid supply adapter, the liquid supply path side becomes negative pressure, and the liquid storage body The inside is sucked from the connection port, the processing liquid in the main body is drawn into the communication path, and the processing liquid together with the compressed gas can be pumped to the liquid flow path inside the mold. In addition, at this time, the liquid storage device is also excellent in that the treatment liquid can be pumped into the mold internal liquid passage (that is, upside down) regardless of the angle used.
[0020]
In the present invention, “compressed gas supply means” means a device or an instrument (compressed gas supply device or instrument) for supplying compressed gas, such as a compressor, a pump, an air gun, etc. It is intended to include the tip of an injection tool that injects compressed gas supplied from an apparatus or instrument, for example, an injection port provided at the tip of an injection nozzle connected to an air gun.
Further, in the present invention, the “treatment liquid” means a liquid for performing some kind of treatment on the mold internal liquid passage such as a cleaning liquid, a rust prevention liquid, a rust prevention oil, and a rust blackening treatment liquid.
Further, in the present invention, the “substantially close state” in which “the injection port can be contacted or connected in a substantially intimate state” means a state in which the compressed gas or the like is connected without a gap so as not to leak when abutting or connected. It means that “contact” means connection without fitting, and conversely “connection” means both connection and connection.
“Insertion” in “can be inserted into or connected to the opening of the liquid passage inside the mold” means to insert without fitting, and conversely, “to connect” means to connect both by fitting. Include.
[0021]
DETAILED DESCRIPTION OF THE INVENTION
EXAMPLES Hereinafter, although embodiment of this invention is described based on an Example, this invention is not restrict | limited to this Example.
[0022]
As shown in FIG. 1, the processing liquid supply device 1 to the mold internal liquid passage can be composed of a processing liquid supply adapter 2 and a liquid storage device 3.
[0023]
As shown in FIG. 2, the treatment liquid supply adapter 2 forms the injection port receiving portion 4 at one end of the resin-molded main body portion 2A, and forms the mold connection port portion 5 at the other end of the main body portion 2A. A liquid reservoir connecting port portion 6 is formed on the lower surface portion of the main body portion 2A, and a communication passage 7 is formed in the main body portion 2A to communicate between the injection port receiving portion 4 and the mold connection port portion 5, A liquid supply path 8 that communicates between the communication path 7 and the liquid reservoir connection port 6 is formed.
[0024]
The main body 2A is not particularly limited in material, and can be formed from thermoplastic resin, thermosetting resin, rubber, elastomer (resin body having elasticity), etc., but economical and airtight at the time of use. In view of securing the properties, it is preferable to form the material from polypropylene, polyethylene or the like.
The entire processing liquid supply adapter 2 can be integrally formed, but any one of the injection port receiving part 4, the mold connection port part 5, the liquid reservoir connection port part 6, the communication path 7, and the liquid supply path 8. It is also possible to form one or two or more of them from a material different from that of the main body 2A and fix them together to form them integrally. In the case of this example, the liquid storage connection port 6 and the liquid supply path 8 are formed of a material different from that of the main body 2A.
Further, the main body 2A can be formed in a suitably thick shape such as a square shape or a cylindrical shape as shown in FIGS. 1 and 2, or a substantially conical shape as shown in FIG. As shown in FIG. 5, it is also possible to form a circular tube that is substantially continuous with the mold connection port 5.
[0025]
The injection port receiving portion 4 is provided with an injection port abutting opening 9 that is continuous from the communication path 7 and has a tapered surface 9a that expands outward like a funnel.
At this time, the inclination angle α of the tapered surface 9a is not particularly limited, but is preferably about 30 ° to 80 °.
Further, the opening diameter of the injection port abutting opening 9 is such that the tip of an injection tool connected to a compressed gas supply device or instrument, for example, an injection nozzle tip 101 such as an air gun (the tip 101 is provided with an injection port). The size is not particularly limited as long as the size can be inserted.
[0026]
If it is such an injection port receiving part 4, if the injection nozzle front-end | tip part 101, such as an air gun, is pressed and contact | abutted to the taper surface 9a as shown to FIG. It can be connected in a substantially close state, and can be guided into the communication path 7 so as not to leak the compressed gas injected from the injection port of the injection nozzle tip 101. In addition, at this time, since the portion of the injection nozzle tip 101 that contacts the injection port is a tapered surface 9a, the injection nozzle tip 101 is brought into close contact even if the diameter and shape of the injection nozzle tip 101 are different. Can be made.
[0027]
As shown in FIG. 13, the injection port receiving portion 4 is provided with a protruding portion 2 a from the main body portion 2 </ b> A, and can be screwed with a screw portion provided on the inner peripheral surface portion of the injection nozzle tip 101 of an air gun or the like. It is also possible to form the screw part 4a on the outer peripheral surface of the protruding part 2a and connect it by screwing.
[0028]
The mold connection port portion 5 has an insertion portion 10 that can be inserted into the opening portion 52 of the mold internal liquid passage 51 protruding from the main body portion 2A, and the communication passage 7 is opened at the distal end portion of the insertion portion 10. is there.
Specifically, since a joint 53 for connecting a hose that supplies cooling water or the like is usually detachably attached to the opening 52 of the mold internal liquid passage 51, the joint 53 has an opening 53 a in the joint 53. The insertion part 10 is formed so that it can be inserted.
[0029]
More specifically, as shown in FIG. 4, a stepped portion 53b is often formed in the opening hole 53a of the joint 53, and the back side of the stepped portion 53b is narrowed to form a small diameter hole 53c. The insertion portion 10 is preferably formed to have a length and thickness that can be inserted into the small-diameter hole 53c.
With such a mold connection port portion 5, as shown in FIG. 4, the insertion portion 10 can be inserted into the small-diameter hole 53 c deep inside the opening hole 53 a of the joint 53. The processing liquid that is sent can be pumped into the mold internal liquid passage 51 without leakage. When there is a stepped portion 53b in the opening hole 53a, the processing liquid may be jetted out reversely unless the insertion portion 10 is inserted to the back side of the stepped portion 53b.
In addition, since the diameter of the opening hole 53a of the joint 53 and the small diameter hole 53c in the inside thereof is usually about 5 mm to 20 mm, the outer diameter of the insertion portion 10 is about 5 mm and the length is about 30 mm. , Any joint 53 can be inserted into the small-diameter hole 53c of the opening hole 53a.
[0030]
In the case of this example, as shown in FIG. 2, the liquid reservoir connecting port portion 6 is formed by embedding the upper portion of the cap body 11 in which the screw portion 11a is engraved on the inner peripheral surface in the lower surface portion of the main body portion 2A. The peripheral side portion 11b of the body 11 is configured to protrude from the lower surface portion of the main body portion 2A.
However, the structure of the liquid reservoir connecting port in the present invention is arbitrary as long as the liquid reservoir 3 can be connected, and preferably can be detachably connected.
[0031]
The communication path 7 is formed as a hole that communicates between the injection port receiving portion 4 and the mold connection port portion 5. Specifically, as shown in FIG. 5, a step portion 7 c is provided in the intermediate portion, and this step portion 7c is a small diameter passage 7a made of a smaller diameter hole, and the die connection port 5 side of the stepped portion 7c is a large diameter passage 7b made of a larger diameter hole.
As a specific example, the size of the stepped portion 7c, that is, the difference in diameter between the small diameter passage 7a and the large diameter passage 7b is preferably about 5 mm or more.
The small diameter passage 7a can also be formed in a shape narrowed from the injection port receiving portion 4 toward the stepped portion 7c.
[0032]
As shown in FIG. 5, the liquid supply path 8 communicates between the communication path 7 and the reservoir connecting port 6 so as to be substantially orthogonal to the communication path 7. In detail, it communicates with the vicinity of the stepped portion 7c in the large-diameter passage 7b, and when the compressed gas flows in the communication passage 7, the inside of the liquid supply passage 8 becomes negative pressure, and the processing liquid in the liquid storage device 3 can be sucked. It is constituted as follows.
In the example shown in the figure, the liquid supply path 8 communicates with the communication path 7 so that the stepped surface of the stepped portion 7c and the inner peripheral surface of the liquid supply path 8 on the injection port receiving portion 4 side are flush with each other. As long as it is in the vicinity of the stepped portion 7c (thick line portion X in the figure) as shown in FIG. That is, when the compressed gas flowing through the small-diameter passage 7a enters the large-diameter passage 7b and diffuses all at once, the nose portion (dotted line portion) of the diffusion line S becomes a negative pressure, and the vicinity range ( If the liquid supply path 8 communicates with the thick line portion X) in the figure, when the compressed gas flows in the communication path 7, the liquid supply path 8 becomes negative pressure, and the processing liquid in the liquid storage device 3 is sucked. Can do.
At this time, assuming that the angle α of the diffusion line S is 45 degrees, a portion closer to the stepped portion 7c than the position where the diffusion line S intersects the inner peripheral surface of the large-diameter passage 7b is referred to as a neighborhood range (thick line portion X in the figure). Can be set.
[0033]
In short, in order to form so that the processing liquid in the liquid storage device 3 can be sucked into the communication path 7 when a compressed gas is caused to flow through the communication path 7, the diameter of the communication path 7 is set via the step portion 7c. What is necessary is just to comprise so that the liquid supply path 8 may be connected to the level | step-difference part 7c vicinity in the large diameter channel | path 7b where the diameter of the metal connection port part 5 side is enlarged more, and the communicating path 7 is expanded.
At this time, the angle at which the liquid supply path 8 intersects the communication path 7 is not particularly limited, and the liquid supply path 8 may be formed to intersect substantially orthogonally as in this example, or at an angle that is further inclined. It can also be formed to intersect.
[0034]
The size of the diameter of the liquid supply path 8 is preferably designed to an appropriate size suitable for sucking the processing liquid in the liquid storage device 3. Generally, for example, when the diameter of the large-diameter passage 7b is about 4 mm, the inner diameter of the liquid supply passage 8 is preferably about 1.5 mm. However, it is not limited to this.
In the case of this example, a hole 12 is formed in the main body 2A, and a tube member 13 is inserted and fixed in the hole 12, and the hollow portion 13a (about 1.5 mm) of the tube member 13 is supplied with liquid. A path 8 is formed, and the lower end portion of the pipe member 13 penetrates the top surface of the cap body 11 and enters the cap body 11. When the liquid storage device 3 is connected, the pipe member 13 enters the liquid storage body 15. .
[0035]
As shown in FIG. 6, the liquid reservoir 3 includes a liquid reservoir main body 15 that can store a treatment liquid and that can expand and contract.
[0036]
The liquid storage device main body 15 is made of a synthetic resin, and has a barrel portion 17 formed in a stretchable bellows shape, a circular pipe portion 18 protruding on the trunk portion 17, and an upper end of the circular pipe portion 18. It is comprised from the connection part 19 which can be connected with the liquid storage apparatus connection port part 6 formed in the part so that attachment or detachment is possible.
The connecting portion 19 is formed so as to be screwable with the screw portion 6 a of the liquid storage device connecting port portion 6.
[0037]
With such a liquid storage device 3, the body 12 is sealed when connected to the liquid storage connection port 6, but can be expanded and contracted. Therefore, as shown in FIG. When the processing liquid is sucked in from the connecting portion 19 side, the body portion 17 of the liquid storage device main body 15 is contracted and the processing liquid inside flows out from the opening of the connecting portion 19.
Although not shown, since the liquid storage device 3 does not have a vent hole, it can be used to supply the treatment liquid even if it is used at any angle of 360 °, for example, upside down from the state shown in FIG. be able to.
[0038]
In this example, the body portion of the liquid storage device main body 15 is formed in a bellows shape so as to be freely expandable and contractible, but is not limited to such a configuration. For example, the material itself may be freely expandable and contractible like a rubber balloon.
Moreover, the other structure of the liquid storage device 3 can also be changed arbitrarily, for example, it can also be set as the structure which attaches the cap which can be attached or detached to the liquid storage device main body 15. FIG.
[0039]
Next, the usage method of the processing liquid supply instrument 1 will be described.
[0040]
The liquid storage device 3 containing the processing liquid is connected to the liquid storage device connecting port portion 6 with the connecting portion 19 connected to the processing liquid supply adapter 2 to assemble the processing liquid supply device 1.
Next, as shown in FIG. 8, the insertion portion 10 is inserted into the opening hole 53a of the joint 53 of the opening 52 of the mold internal fluid passage 51, specifically, into the small diameter hole 53c at the back of the opening hole 53a. The injection nozzle tip 101 of the compressed gas supply device such as an air gun or the instrument 100 is pressed against the tapered surface 9a of the injection nozzle contact opening 9 so that the injection nozzle receptacle 4 and the injection nozzle of the injection nozzle tip 101 are substantially in close contact with each other. Connect to the state.
Then, while maintaining this connected state, if the compressed gas supply device or the instrument 100 is operated to inject the compressed gas into the communication passage 7 from the injection port of the injection nozzle tip 101, the communication passage 7 is circulated. Due to the compressed gas, the inside of the liquid supply passage 8 becomes negative pressure, the inside of the liquid storage device main body 15 is sucked and the liquid storage device main body 15 contracts, and at the same time, the internal processing liquid flows into the communication passage 7 through the liquid supply passage 8. The processing liquid and the compressed gas are pumped into the mold internal liquid passage 51.
[0041]
In this way, if the processing liquid supply apparatus 1 is used, there is no need to newly install a device for pumping the processing liquid, and there is no need to modify the mold, and the compressed gas supply apparatus already used around the mold. The processing liquid can be continuously pumped into the mold internal fluid passage 51 simply by using the tool 100, and the mold internal fluid passage can be easily processed.
Further, as shown in FIG. 8, the opening 52 of the mold internal liquid passage 51 of the mold 50 rarely opens in the horizontal direction, and cooling water or the like is rarely opened in the mold internal liquid passage 51. In many cases, it is opened downward or obliquely downward so that it does not accumulate in the interior. However, in the case of the processing liquid supply apparatus 1 of the present invention, even if it is used at any angle of 360 °, the liquid flow path inside the mold is the same. The processing liquid can be supplied into the 51.
[0042]
FIGS. 9-12 shows the modification of the said processing liquid supply instrument 1. FIG.
[0043]
These modifications are provided between the tapered surface 9a and the injection port when the injection port of the compressed gas supply means 100 is brought into contact with the outside of the tapered surface 9a in the processing liquid supply instrument 1. The injection port receiving portion 4 is configured by further providing a packing portion 20 for improving airtightness.
[0044]
The packing part 20 of this example is formed integrally with the main body part 2A, spreads outward in a skirt shape with the vicinity of the opening edge of the communication path 7 as the base end part, and is independent of the tapered surface 9a. It stands up diagonally and is movable forward and backward. Moreover, the packing part 20 is formed thinly so that it may have the elasticity which can exhibit a packing function. At this time, if the wall thickness is too large, even if a flexible resin such as polyethylene is used, the elasticity is lowered and the packing function is not exhibited.
In addition, it is preferable to form the packing part 20 from resin which can have the elasticity which can exhibit a packing function, for example, polyethylene, or the resin which is equivalent or more flexible than it. Therefore, when integrally forming with 2 A of main-body parts as mentioned above, it is preferable to form 2 A of main-body parts also from polyethylene or the resin which is equivalent or more flexible than it.
[0045]
With such an injection port receiving portion 4, as shown in FIG. 12, the injection nozzle tip 101 is brought into contact with the packing portion 20 and pressed against the tapered surface 9a, and the injection nozzle tip is interposed with the packing portion 20 interposed therebetween. If 101 is connected to the taper surface 9a, the airtightness can be further enhanced. Moreover, even when the angle of the tapered surface 9a (α in FIG. 2) is large, it is possible to ensure airtightness at the time of connection.
[0046]
In the above example, the packing portion 20 is formed integrally with the main body portion 2A, but may be formed separately. Moreover, the same material as the main body 2A or a different material may be used.
Furthermore, in the above example, an annular body made of a thin resin is formed so as to be movable back and forth independently from the tapered surface 9a, but such an annular body is previously formed on the tapered surface 9a. It is also possible to fix and integrally form. In addition, the shape of the packing part 20 in this case is not limited to an annular shape.
[0047]
16 to 18 show modified examples of the liquid storage device 3.
[0048]
The liquid storage device 3 is not limited to the above example as long as the liquid storage device 3 can store the processing liquid and includes a liquid storage device body that can be expanded and contracted and a connection port portion. For example, as shown in FIG. 16, the processing liquid storage part 23 for storing the processing liquid can be formed of a plastic film bag, a rubber balloon bag, or the like. At this time, in order to support the processing liquid storage unit 23, it is preferable to store the processing liquid storage unit 23 in a shape retaining container 24 made of metal, plastic or the like. With this configuration, as shown in FIG. 17, even if the top and bottom are reversed, the processing liquid container 23 is supported by the shape-retaining container 24, so that it does not interfere with the work.
Moreover, it is preferable to provide the connection part 14 in the shape-keeping container 24, and it is preferable to comprise the process liquid storage part 23 so that attachment or detachment with respect to the shape-keeping container 24 is possible, as shown in FIG.
[Brief description of the drawings]
FIG. 1 is a side view showing an example of a processing liquid supply apparatus according to an embodiment of the present invention, disassembled into a processing liquid supply adapter and a liquid storage device.
FIG. 2 is a cross-sectional view of the processing liquid supply adapter shown in FIG.
FIGS. 3A to 3C are main part cross-sectional views showing a connection state between an injection port receiving portion and an injection port. FIGS.
4 (A) to 4 (C) are main part sectional views showing a connection state between a mold connection port and a mold internal liquid passage.
FIG. 5 is a cross-sectional view of a main part for explaining that the liquid supply path side becomes negative pressure when compressed gas flows through the communication path.
6 is a side view of the liquid storage device shown in FIG. 1. FIG.
FIG. 7 is a side view for explaining the operation of the liquid storage device shown in FIG.
8 is a side view showing an example of a method for using the treatment liquid supply apparatus shown in FIG. 1. FIG.
FIG. 9 is a cross-sectional view showing a modified example of the treatment liquid supply adapter.
FIG. 10 is a cross-sectional view showing another modification of the treatment liquid supply adapter.
FIG. 11 is a cross-sectional view showing another modification of the processing liquid supply adapter.
12 is a cross-sectional view of a main part showing a connection state with the injection port of the processing liquid supply adapter of FIG. 9. FIG.
FIG. 13 is a side view showing together with an air gun in order to show another modification of the treatment liquid supply adapter.
14 is a cross-sectional view of the processing liquid supply adapter shown in FIG.
FIG. 15 is an enlarged cross-sectional view illustrating a main part of a processing liquid supply adapter together with a flow of compressed gas in the communication path in order to explain a position where the liquid supply path is connected to the communication path.
FIG. 16 is a cross-sectional view showing a modified example of the liquid storage device.
17 is a cross-sectional view showing an example of a usage state of the liquid storage device shown in FIG.
18 is a cross-sectional view showing an example of the configuration of the liquid storage device shown in FIG.
[Explanation of symbols]
1 Treatment liquid supply equipment
2 Processing solution supply adapter
3 Liquid storage equipment
4 Injection port receiving part
5 Mold connection port
6 Liquid storage connection port
7 passage
8 Liquid supply path
9 Injection port contact opening
9a Tapered surface
10 Insertion part
11 Cap body
12 holes
13 Pipe members
15 Liquid storage device
17 Torso
18 Pipe section
19 Connecting part
20 Packing part
23 Treatment liquid storage
24 Shape retention container
50 mold
51 Mold internal fluid passage
100 Compressed gas supply device or instrument
101 Injection nozzle tip

Claims (10)

A processing liquid supply device to a mold internal liquid passage used by connecting to an injection port of a compressed gas supply means,
The injection port of the compressed gas supply means in closely state and contactable injection listening to smb. Talking part, an insertion or linkable mold joint port to the opening portion of the mold interior liquid passing path, accommodating the treatment liquid savings A reservoir connecting port that can be connected to the liquid component, a communication passage that communicates between the injection port receiving portion and the mold connecting port, and a communication passage that communicates between the communication passage and the reservoir connecting port. And a liquid supply path configured to have a negative pressure inside when the compressed gas flows,
The injection port receiving portion has a tapered surface that continuously spreads outward from the communication path, and presses the injection port of the compressed gas supply unit against the tapered surface, whereby the injection port of the compressed gas supply unit processing liquid supply device, characterized in that those of the structure may abut tightly contact state to the injection listening to smb. talking part. A processing liquid supply device to a mold internal liquid passage used by connecting to an injection port of a compressed gas supply means,
The injection port of the compressed gas supply means in closely state and contactable injection listening to smb. Talking part, an insertion or linkable mold joint port to the opening portion of the mold interior liquid passing path, accommodating the treatment liquid savings A reservoir connecting port that can be connected to the liquid component, a communication passage that communicates between the injection port receiving portion and the mold connecting port, and a communication passage that communicates between the communication passage and the reservoir connecting port. And a liquid supply path configured to have a negative pressure inside when the compressed gas flows,
The injection port receiving portion includes a tapered surface that continuously spreads outward from the communication path and is connected to the tapered surface when the injection port of the compressed gas supply unit is connected to the outside of the tapered surface. A packing portion is provided between the injection port to enhance airtightness, and the injection port of the compressed gas supply unit is pressed against the tapered surface through the packing unit, thereby injecting the compressed gas supply unit. processing liquid supply device, characterized in that those in closely state mouth ejection listening to smb. talking of contact may configure.     The packing part is formed integrally with the injection port receiving part, expands outward with the vicinity of the opening edge of the communication passage as the base end part, rises obliquely independently of the tapered surface, and is movable back and forth The processing liquid supply device according to claim 2, wherein the processing liquid supply device is provided with a configuration that can be formed.     The processing liquid supply device according to claim 1, wherein the compressed gas supply means is an air gun.     The communication passage is provided with a step portion at an intermediate portion, the connection port portion side of the step portion is a small diameter passage, and the treatment liquid injection port side of the step portion is a large diameter passage having a larger diameter than the small diameter passage. The processing liquid supply tool according to any one of claims 1 to 4, wherein the liquid supply path has a configuration in communication with the vicinity of the step portion in the large-diameter path.     6. The processing liquid according to claim 5, wherein the processing liquid supply path communicates with a pocket portion when a diffusion line that diffuses at 45 degrees from the end of the small diameter path into the large diameter path is drawn. Supply equipment.     The processing liquid supply device according to any one of claims 1 to 6, wherein a liquid storage device is connected to the liquid storage device connection port.     The mold connection port portion includes an insertion portion that can be inserted into an opening hole of a joint provided in the opening portion of the mold internal liquid passage, and has a configuration in which a communication path is opened at a distal end portion of the insertion portion. The processing liquid supply tool according to claim 1, which is provided.     The processing liquid supply instrument according to claim 1, further comprising a changeover switch that opens and closes the liquid supply path.     The liquid storage device includes a liquid storage device main body that can store the processing liquid and can be expanded and contracted, and a connection port portion. When the liquid storage device is sucked from the connection port portion, the liquid storage device body contracts and the internal processing liquid is The processing liquid supply tool according to any one of claims 1 to 9, wherein the processing liquid supply tool has a structure of flowing out from the connection port.

Images