CN206290977U - Process liquid induction system - Google Patents

Process liquid induction system Download PDF

Info

Publication number
CN206290977U
CN206290977U CN201621281040.9U CN201621281040U CN206290977U CN 206290977 U CN206290977 U CN 206290977U CN 201621281040 U CN201621281040 U CN 201621281040U CN 206290977 U CN206290977 U CN 206290977U
Authority
CN
China
Prior art keywords
process liquid
interface
semiconductor equipment
pump
pneumatic operated
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Active
Application number
CN201621281040.9U
Other languages
Chinese (zh)
Inventor
姜瑞丰
黄立佐
许明哲
叶荫晟
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
HONGSU TECH Co Ltd
Grand Plastic Technology Corp
Original Assignee
HONGSU TECH Co Ltd
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by HONGSU TECH Co Ltd filed Critical HONGSU TECH Co Ltd
Priority to CN201621281040.9U priority Critical patent/CN206290977U/en
Application granted granted Critical
Publication of CN206290977U publication Critical patent/CN206290977U/en
Active legal-status Critical Current
Anticipated expiration legal-status Critical

Links

Abstract

The utility model provides a kind of process liquid induction system for semiconductor equipment, comprising:One magnetic valve, is connected to import a working gas with a gas supply source;One pneumatic operated valve, is connected with the magnetic valve to receive the working gas, and is used to for the working gas to pass through at least interface discharge comprising an at least interface;One accumulator tank, for storing a process liquid;And a pump, it is connected between an at least interface of the pneumatic operated valve and the accumulator tank, for receiving the working gas to drive the pump to produce the power for extracting the process liquid out from the accumulator tank.

Description

Process liquid induction system
Technical field
The utility model is related to a kind of process liquid induction system, more particularly to a kind of technique for semiconductor equipment Liquid conveying system.
Background technology
Process liquid would generally be driven to circulate using pneumatic diaphragm pump in semiconductor equipment.Reference picture 1, its display one Plant the schematic diagram of the process liquid induction system 10 for being currently used for semiconductor equipment.The process liquid induction system 10 includes electricity Magnet valve 110, pneumatic diaphragm pump 120, accumulator tank 130 and it is connected between the magnetic valve 110 and the pneumatic diaphragm pump 120 Gas transfer pipeline 140 and the liquid transmission pipeline that is connected between the pneumatic diaphragm pump 120 and the accumulator tank 130 150.The magnetic valve 110 is generally arranged at the automatically controlled area 170 of semiconductor equipment, and the automatically controlled area 170 is provided with various automatically controlled dresses Put the circuit trace of (such as power-supply controller of electric, computer etc.) and complexity.The magnetic valve 110 can be with a gas supply source Be sent to for the working gas by the gas transfer pipeline 140 described pneumatic by 160 connections with importing a working gas Membrane pump 120, produces reciprocating so that the energy of the pneumatic diaphragm pump 120 with the film for driving the pneumatic diaphragm pump 120 Process liquid is ordered about to be extracted out from the accumulator tank 130 by the liquid transmission pipeline 150.The process liquid of extraction can be by pipe The original accumulator tank 130 is returned to after the circulation of road, or is conveyed between different cell bodies by pipeline.
Reference picture 2 and Fig. 3, Fig. 2 show the magnetic valve 110 of the process liquid induction system 10 of Fig. 1 in off-position Under schematic diagram, and Fig. 3 shows the magnetic valve 110 of the process liquid induction system 10 of Fig. 1 in showing under "on" position It is intended to.The magnetic valve 110 is installed in the trace 113 comprising coil group 111, pilot valve 112, trace 113, multiple Piston 114, air inlet C1, first row gas port C2, second exhaust port C3, first interface C4 and second interface C5.As shown in Fig. 2 When the magnetic valve 110 is under off-position when, working gas G can be passed through the air inlet C1 by the gas supply source 160 Import in the magnetic valve 110 so that the working gas G is delivered to the gas transfer pipeline by the second interface C5 140 to enter the pneumatic diaphragm pump 120, and then drives the film of the pneumatic diaphragm pump 120 to move towards a direction.Also, The working gas G in the pneumatic diaphragm pump 120 can be recycled to the magnetic valve by the gas transfer pipeline 140 again The 110 first interface C4, and discharged by the first row gas port C2.Then, as shown in figure 3, working as the magnetic valve 110 When under "on" position, moved down by by the coil group 111 controllable pilot valve 112 that is powered, jointly will The trace 113 and the multiple piston 114 are moved down in the lump, and then it is logical to change the gas inside the magnetic valve 110 Road.Therefore, after the gas supply source 160 imports in the magnetic valve 110 working gas G by the air inlet C1, institute State working gas G and can change and be delivered to the gas transfer pipeline 140 to enter the pneumatic diaphragm by the first interface C4 Pump 120, and then drive the film of the pneumatic diaphragm pump 120 to be moved towards an opposite direction.Therefore, by controlling the magnetic valve 110 are continuously powered and power operation, and reciprocating is produced with the film for driving the pneumatic diaphragm pump 120, and then Reach and order about effect that process liquid is extracted out by the liquid transmission pipeline 150 from the accumulator tank 130.
However, when the film breaks of the pneumatic diaphragm pump 120, process liquid can pour into the gas transfer pipeline In 140, and flowed into the magnetic valve 110 in the automatically controlled area 170 along the gas transfer pipeline 140, caused The magnetic valve 110 is damaged with the electric control gear of surrounding, and also the work that operating personnel shock by electricity can be produced to pacify because of electric leakage It is unexpected.
In view of this, it is necessary to propose a kind of process liquid induction system for semiconductor equipment, it is used to solve existing Problem present in technology.
Utility model content
To solve above-mentioned problem of the prior art, the purpose of this utility model is to provide a kind of for semiconductor equipment Process liquid induction system, by setting up a pneumatic operated valve between magnetic valve and pump, to solve because the magnetic valve and pump are direct Ground connection so that when the process liquid in pump is flowed into the magnetic valve along the transfer pipeline, cause the magnetic valve The problem damaged with the electric control gear of surrounding, and also can prevent the work for producing operating personnel to shock by electricity because of electric leakage from pacifying meaning Outward.
To reach above-mentioned purpose, the utility model provides a kind of process liquid induction system for semiconductor equipment, bag Contain:One magnetic valve, is connected to import a working gas with a gas supply source;One pneumatic operated valve, is connected to connect with the magnetic valve The working gas is received, and is used to for the working gas to pass through at least interface discharge comprising an at least interface;One Accumulator tank, for storing a process liquid;And a pump, it is connected to an at least interface of the pneumatic operated valve and the storage Between groove, for receiving the working gas to drive the pump to produce the process liquid from moving that the accumulator tank is extracted out Power.
In the middle of one of the utility model preferred embodiment, the pneumatic operated valve, comprising:One first interface and one second Interface;And operating bar and the multiple distance pieces for being assembled in the operating bar, wherein the movement by controlling the operating bar With the position of the multiple distance piece of related change, and then change the gas delivery channels inside the pneumatic operated valve so that described Working gas is discharged by one of the first interface or the second interface.
In the middle of one of the utility model preferred embodiment, the first interface of the pump and the pneumatic operated valve and The second interface connects to receive the working gas.
In the middle of one of the utility model preferred embodiment, by controlling the operating bar of the pneumatic operated valve reciprocal Ground is mobile so that the working gas is alternately and successively arranged by one of the first interface or the second interface Go out.
In the middle of one of the utility model preferred embodiment, the pump includes a pneumatic diaphragm pump.
In the middle of one of the utility model preferred embodiment, the shifting of the operating bar by controlling the pneumatic operated valve It is dynamic to be discharged with causing that the working gas alternately passes through one of the first interface or the second interface, and then drive The film of the pneumatic diaphragm pump produces reciprocating, thus drive the pneumatic diaphragm pump produce by the process liquid from The power that the accumulator tank is extracted out.
In the middle of one of the utility model preferred embodiment, an electricity of the magnetic valve position in the semiconductor equipment Control area, and pneumatic operated valve position is in a pipeline area of the semiconductor equipment.
In the middle of one of the utility model preferred embodiment, the automatically controlled area and the pipeline area at a distance of a distance with It is adequately isolated the automatically controlled area and the pipeline area.
In the middle of one of the utility model preferred embodiment, the automatically controlled position is in the upper of the semiconductor equipment Side, and the pipeline position is in the lower section of the semiconductor equipment.
In the middle of one of the utility model preferred embodiment, the magnetic valve connects comprising one with the gas supply source The input port for connecing and two interfaces, wherein one of described two interfaces are connected with by the working gas with the pneumatic operated valve The pneumatic operated valve is delivered to, another interface is then closed mode.
The utility model also provides a kind of process liquid induction system for semiconductor equipment, comprising:One gas is supplied Source;One magnetic valve, is connected with the gas supply source;One pneumatic operated valve, is connected with the magnetic valve;One accumulator tank, for storing One process liquid;And a pump, it is connected between the pneumatic operated valve and the accumulator tank;Wherein, conveyed in the process liquid During system start, the working gas in the gas supply source flow to the pneumatic operated valve, the pneumatic operated valve by the magnetic valve Effect imports in the pump working gas to drive the pump to produce the process liquor iterating through different pipelines The power that body is extracted out from the accumulator tank.
Compared to prior art, the utility model is described to avoid by setting up a pneumatic operated valve between magnetic valve and pump Magnetic valve is directly connected with pump.And it is arranged on semiconductor equipment by by the pneumatic operated valve being directly connected with the pump Pipeline area so that the pneumatic operated valve and position automatically controlled area the magnetic valve at a distance of a distance.Therefore, when film breaks in pump When causing process liquid along the transfer pipeline adverse current, the process liquid does not flow into the electricity of institute's rheme in automatically controlled area In magnet valve, therefore the problem of the magnetic valve and the electric control gear damage of surrounding can be avoided, and also can prevent from being produced because of electric leakage The work peace that operating personnel shock by electricity is unexpected.
Brief description of the drawings
Fig. 1 shows a kind of schematic diagram of the existing process liquid induction system for semiconductor equipment;
Fig. 2 shows the magnetic valve of the process liquid induction system of Fig. 1 in the schematic diagram under off-position;
Fig. 3 shows the magnetic valve of the process liquid induction system of Fig. 1 in the schematic diagram under "on" position;
Fig. 4 shows a kind of process liquid induction system for semiconductor equipment according to the utility model preferred embodiment Schematic diagram;
Fig. 5 shows the pneumatic operated valve of the process liquid induction system of Fig. 4 in the illustrative view of first state;And
Fig. 6 shows the pneumatic operated valve of the process liquid induction system of Fig. 4 in the illustrative view of the second state.
Specific embodiment
In order to above-mentioned and other purpose of the present utility model, feature, advantage can be become apparent, hereafter will be especially exemplified by this reality New preferred embodiment is used, and coordinates institute's accompanying drawings, be described in detail below.
Fig. 4 is refer to, it shows a kind of process liquor for semiconductor equipment according to the utility model preferred embodiment The schematic diagram of body conveying system 20.The process liquid induction system 20 includes magnetic valve 210, pneumatic operated valve 280, pump 220, storage Groove 230 and the first gas transfer pipeline 242 being connected between the magnetic valve 110 and the pneumatic operated valve 280, it is connected to institute State the second gas transfer pipeline 244 between pneumatic operated valve 280 and the pump 220 and be connected to the pump 220 and the storage Liquid transmission pipeline 250 between groove 230.The magnetic valve 110 is arranged on the automatically controlled area 270 of semiconductor equipment, described automatically controlled Area 270 is provided with the circuit trace of various electric control gears (such as power-supply controller of electric, computer etc.) and complexity.The pneumatic operated valve The 280 pipeline areas 290 for being arranged on the semiconductor equipment, wherein the automatically controlled area 270 and the pipeline area 290 are at a distance of a distance To be sufficiently separated the pneumatic operated valve 280 in pipeline area 290 and the magnetic valve 210 in automatically controlled area 270.Preferably, the electricity Control 270 tops in the semiconductor equipment in area, and 290 lower sections in the semiconductor equipment in pipeline area.
As shown in figure 4, the magnetic valve 210 is connected to import a working gas, and by institute with a gas supply source 260 State first gas transfer pipeline 242 and the working gas is sent to the pneumatic operated valve 280, then through the second gas The working gas is sent to the pump 220 by transfer pipeline 244.Driving the pump 220 to produce by the working gas will The power that the process liquid is extracted out from the accumulator tank 230.Specifically, the pump 220 can be pneumatic diaphragm pump, and described Second gas transfer pipeline 244 includes two independent pipelines, therefore can alternately and successively pass through by by the working gas Described two independent pipeline transmission so that the film of the pump 220 produces reciprocating, and then causes the pneumatic diaphragm Pump 220 can order about process liquid and be extracted out from the accumulator tank 230 by the liquid transmission pipeline 250.The process liquid of extraction The original accumulator tank 130 can be returned to after the liquid transmission pipeline 250 is circulated, or be existed by different pipelines Conveyed between different cell bodies.
Reference picture 5 and Fig. 6, Fig. 5 show the pneumatic operated valve 280 of the process liquid induction system of Fig. 4 in first state Illustrative view, and Fig. 6 shows that the pneumatic operated valve 280 of the process liquid induction system of Fig. 4 shows in the start of the second state It is intended to.The magnetic valve 210 includes the air inlet F1 and a first interface F2 and second being connected with the gas supply source 260 Interface F3.By controlling the energization and power-off of the magnetic valve 210, the gas conveying that can change inside the magnetic valve 210 is logical Road, and then control working gas G to be exported by one of described first interface F2 or second interface F3.It should be appreciated that The magnetic valve 210 described in the utility model will not be continuously powered and power operation, therefore the working gas G only can Exported permanently by one of described first interface F2 or second interface F3.In the preferred embodiment with by described first Interface F2 is illustrated as fixed exhaust outlet.When the working gas G is exported permanently by the first interface F2, The second interface F3 is closed mode.
As shown in figure 5, the pneumatic operated valve 280 includes the input being connected with the first interface F2 of the magnetic valve 210 Mouth E1, a first row gas port E2, a second exhaust port E3, an a first interface E4 and second interface E5, wherein described first connects The mouth E4 and second interface E5 is connected by the second gas transfer pipeline 244 with the pump 220.Specifically, it is described Second gas transfer pipeline 244 includes two independent gas transfer pipelines, the first interface E4 and the second interface E5 It is connected with the pump 220 by two independent gas transfer pipelines respectively.The pneumatic operated valve 280 also includes an operating bar 281 distance pieces 282 that the operating bar 281 is assembled in multiple.As shown in figure 5, when the pneumatic operated valve 280 is in first state When, the working gas G can be delivered to the pump 220 by the first interface E4, drive the film of the pump 220 a towards side To movement.Also, the working gas G in the pump 220 can be recycled to institute by the second gas transfer pipeline 244 again The second interface E5 of pneumatic operated valve 280 is stated, and is discharged by the second exhaust port E3.Then, as shown in fig. 6, when described Pneumatic operated valve 280 is moved down when the second state by controlling the operating bar 281, with jointly by the multiple distance piece 282 move down in the lump, and then change the gas passage inside the pneumatic operated valve 280.Therefore, the working gas G can change logical Cross the second interface E5 and be sent to the pump 220, and then drive the film of the pump 220 to be moved towards an opposite direction.Therefore, exist Pneumatic operated valve 280 described in the utility model is in first state and the second state intention by controlling the operating bar 281 The mobile position with the multiple distance piece 282 of related change, and then it is logical to change the gas conveying inside the pneumatic operated valve 280 Road so that the working gas G is discharged by one of described first interface E4 or described second interfaces E5.That is, Continuously moved up and down by controlling the operating bar 281 in the utility model, produced with the film for driving the pump 220 Raw reciprocating, and then reach and drive the pump 220 to produce the power of extracting the process liquid out from the accumulator tank Effect.
In sum, the utility model is between magnetic valve and pump by setting up a pneumatic operated valve, to avoid the magnetic valve It is directly connected with pump.And by the pipeline that the pneumatic operated valve being directly connected to the pump is arranged on semiconductor equipment Area so that position pipeline area the pneumatic operated valve and position automatically controlled area the magnetic valve at a distance of a distance, to be sufficiently separated The pneumatic operated valve in pipeline area and the magnetic valve in automatically controlled area.Preferably, the automatically controlled position is in the semiconductor equipment Top, and the pipeline position is in the lower section of the semiconductor equipment.Therefore, when in pump film breaks cause process liquid edge When the transfer pipeline adverse current, the process liquid does not flow into institute's rheme in the magnetic valve in automatically controlled area, therefore can keep away Exempt from the problem that the magnetic valve is damaged with the electric control gear of surrounding, and also can prevent from producing operating personnel that electricity occurs because of electric leakage The work peace hit is unexpected.
The above is only preferred embodiment of the present utility model, it is noted that for one of ordinary skill in the art, do not taking off On the premise of the utility model principle, some improvements and modifications can also be made, these improvements and modifications also should be regarded as this reality With new protection domain.

Claims (11)

1. a kind of process liquid induction system for semiconductor equipment, it is characterised in that include:
One magnetic valve, is connected to import a working gas with a gas supply source;
One pneumatic operated valve, is connected to receive the working gas, and be used for by described in comprising an at least interface with the magnetic valve Working gas passes through an at least interface and discharges;
One accumulator tank, for storing a process liquid;And
One pump, is connected between an at least interface of the pneumatic operated valve and the accumulator tank, for receiving the work gas Body produces the power for extracting the process liquid out from the accumulator tank to drive the pump.
2. the process liquid induction system for semiconductor equipment as described in claim the 1, it is characterised in that the gas Dynamic valve, comprising:
One first interface and a second interface;And
One operating bar and multiple distance pieces for being assembled in the operating bar, wherein by controlling the movement of the operating bar with related Change the position of the multiple distance piece, and then change the gas delivery channels inside the pneumatic operated valve so that the work gas Body is discharged by one of the first interface or the second interface.
3. the process liquid induction system for semiconductor equipment as described in claim the 2, it is characterised in that the pump It is connected to receive the working gas with the first interface and the second interface of the pneumatic operated valve.
4. the process liquid induction system for semiconductor equipment as described in claim the 2, it is characterised in that by control The operating bar for making the pneumatic operated valve is reciprocally moved so that the working gas alternately and successively connects by described first The discharge of one of mouth or the second interface.
5. the process liquid induction system for semiconductor equipment as described in claim the 2, it is characterised in that the pump Comprising a pneumatic diaphragm pump.
6. the process liquid induction system for semiconductor equipment as described in claim the 5, it is characterised in that by control The operating bar for making the pneumatic operated valve moves so that the working gas alternately passes through the first interface or described One of second interface is discharged, and then drives the film of the pneumatic diaphragm pump to produce reciprocating, thus is driven described Pneumatic diaphragm pump produces the power for extracting the process liquid out from the accumulator tank.
7. the process liquid induction system for semiconductor equipment as described in claim the 1, it is characterised in that the electricity Magnet valve position is in an automatically controlled area of the semiconductor equipment, and pneumatic operated valve position is in a pipeline area of the semiconductor equipment.
8. the process liquid induction system for semiconductor equipment as described in claim the 7, it is characterised in that the electricity Control area and the pipeline area is at a distance of a distance being adequately isolated the automatically controlled area and the pipeline area.
9. the process liquid induction system for semiconductor equipment as described in claim the 7, it is characterised in that the electricity Control position is in the top of the semiconductor equipment, and the pipeline position is in the lower section of the semiconductor equipment.
10. the process liquid induction system for semiconductor equipment as described in claim the 1, it is characterised in that described Magnetic valve include an input port being connected with the gas supply source and two interfaces, wherein one of described two interfaces with The pneumatic operated valve connection is delivered to the pneumatic operated valve with by the working gas, and another interface is then closed mode.
11. a kind of process liquid induction systems for semiconductor equipment, it is characterised in that include:
One gas supply source;
One magnetic valve, is connected with the gas supply source;
One pneumatic operated valve, is connected with the magnetic valve;
One accumulator tank, for storing a process liquid;And
One pump, is connected between the pneumatic operated valve and the accumulator tank;
Wherein, in the process liquid induction system start, the working gas in the gas supply source passes through the electromagnetism Valve flow to the pneumatic operated valve, the pneumatic valve action come iterate through different pipelines by the working gas import in the pump with The pump is driven to produce the power for extracting the process liquid out from the accumulator tank.
CN201621281040.9U 2016-11-28 2016-11-28 Process liquid induction system Active CN206290977U (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
CN201621281040.9U CN206290977U (en) 2016-11-28 2016-11-28 Process liquid induction system

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
CN201621281040.9U CN206290977U (en) 2016-11-28 2016-11-28 Process liquid induction system

Publications (1)

Publication Number Publication Date
CN206290977U true CN206290977U (en) 2017-06-30

Family

ID=59099509

Family Applications (1)

Application Number Title Priority Date Filing Date
CN201621281040.9U Active CN206290977U (en) 2016-11-28 2016-11-28 Process liquid induction system

Country Status (1)

Country Link
CN (1) CN206290977U (en)

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN111565823A (en) * 2018-01-12 2020-08-21 富默乐有限公司 Tangential flow filtration TFF system and disposable TFF unit including integrated pump device

Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN111565823A (en) * 2018-01-12 2020-08-21 富默乐有限公司 Tangential flow filtration TFF system and disposable TFF unit including integrated pump device
CN111565823B (en) * 2018-01-12 2023-03-31 富默乐有限公司 Tangential flow filtration TFF system and disposable TFF unit including integrated pump device

Similar Documents

Publication Publication Date Title
CN204083780U (en) Novel LNG station system
CN206290977U (en) Process liquid induction system
CN203685588U (en) Waste heat recovery device of oil-free screw air compressor
CN109099018A (en) A kind of Multifunction shuttle conveyer energy-saving hydraulic control system
CN106015180B (en) A kind of super-pressure time schedule controller
CN105757016A (en) Hydraulic control system of supercharging device
CN104128889B (en) A kind of automatic sand-blasting machine
CN205277943U (en) Hydraulic pressure station of adhesive tape machine
CN104180147A (en) Automatic gearbox oil-exchanging device and operating method thereof
CN108708889B (en) Energy-saving type low-vibration fast-response hybrid control hydraulic press hydraulic system
CN103388744B (en) A kind of liquid nitrogen conveyer and operational approach thereof
CN208089651U (en) A kind of Dual Clocking oil pressure pressure charging system
CN206840651U (en) A kind of water circulation and oil circulate dual-purpose die heater
CN204213107U (en) A kind of Pneumatic safety explosion-proof type hydraulic oil cooling device
CN204327611U (en) Hydraulic power station
CN206458635U (en) A kind of water-saving circulation device for water-ring vacuum pump
CN203161699U (en) Pressure swing adsorption oil hydraulic system
CN202767158U (en) Hydraulic excavator flow out of valve regenerating device
CN207989419U (en) A kind of cartridge-type unit control system of hydraulic pumping unit
CN207478906U (en) Online high-efficiency energy-saving vacuum operating system
CN107202246A (en) A kind of external-compression type HTHP material dosing conveying device
CN202597010U (en) Pneumatic liquid charge pump for coal mine
CN207267725U (en) A kind of pressure suction disc grass-hopper
CN206647243U (en) The pneumatic medicine system of pulsating
CN206286289U (en) A kind of oily circulation cleaning device of product oil storage field storage tank

Legal Events

Date Code Title Description
GR01 Patent grant
GR01 Patent grant