CN218745472U - Water manager and spot welding robot - Google Patents

Water manager and spot welding robot Download PDF

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Publication number
CN218745472U
CN218745472U CN202222706133.3U CN202222706133U CN218745472U CN 218745472 U CN218745472 U CN 218745472U CN 202222706133 U CN202222706133 U CN 202222706133U CN 218745472 U CN218745472 U CN 218745472U
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China
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cooling water
ball valve
welding gun
water inlet
water
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刘军良
杨贤德
黄航义
王初一
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Kyokutoh China Co ltd
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Kyokutoh China Co ltd
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Abstract

The utility model belongs to the technical field of the welding, especially, relate to a water manager, including welding rifle cooling water inlet tube, welding rifle cooling water wet return and water storage device, be equipped with two-position two-way normally-off solenoid valve on the welding rifle cooling water inlet tube, water storage device includes connecting rod, jar, cylinder and two-position five-way solenoid valve, and the appearance water cavity of jar is linked together through pipeline and welding rifle cooling water wet return, the piston rod of jar the piston rod of cylinder respectively with connecting rod fixed connection, two work interfaces of two-position five-way solenoid valve are linked together through the pipeline respectively with having the pole chamber, no pole chamber of cylinder. The utility model discloses still relate to a spot welding robot including above-mentioned water manager. The utility model has the advantages that: in the process of detaching the electrode cap, if the power supply system is suddenly powered off, the water containing cavity of the water tank of the water storage device can still absorb water to the welding gun cooling water return pipe, so that the cooling water can still be effectively prevented from flowing out from the front end of the welding gun under the condition of power failure.

Description

Water manager and spot welding robot
Technical Field
The invention belongs to the technical field of welding, and particularly relates to a water manager and a spot welding robot.
Background
On the production line of the white welding process of the automobile, the quality of the welding electrode end face of the spot welding robot directly influences the welding strength. In order to ensure the welding quality of the welded product, the electrode cap of the welding electrode is usually replaced after a certain number of welding points are welded. When the electrode cap is taken off from the front end of the welding gun, electrode cooling water flows out from the front end of the welding gun, and normal use of peripheral equipment is affected.
The invention patent with the patent number ZL201811300702.6 discloses a cooling water anti-falling device which can prevent cooling water from flowing out of the front end of a welding gun when an electrode cap is detached. Specifically, as shown in fig. 5, before the replacement of each electrode attached to the tip of the welding torch, the circulation of the cooling water in each electrode 3 is stopped by the shutoff valve 11, and a part or all of the cooling water stored in the cooling water passage 41 is sucked into the interior of the cylindrical body 5, so that when each electrode 3 is detached from the tip of the welding torch 2, the cooling water can be prevented from flowing out from the tip of the welding torch. After a new electrode 3 is attached to the tip of the welding gun, the stop of the cooling water circulation by the stop valve 11 is released, and spot welding by the spot welding machine is enabled. The defect of the scheme is that after the electrode cap is detached, if the power supply system is suddenly powered off, the water absorption function of the cooling water anti-falling device is disabled, and cooling water flows out from the front end of the welding gun.
Disclosure of Invention
The invention aims to provide a water manager which can effectively prevent cooling water from flowing out of the front end of a welding gun under the condition that a power supply system is suddenly powered off.
In order to achieve the purpose, the invention adopts the technical scheme that:
a water manager comprises a welding gun cooling water inlet pipe, a welding gun cooling water return pipe and a water storage device, wherein the water outlet end of the welding gun cooling water inlet pipe is connected with a water inlet interface of a welding gun, the water inlet end of the welding gun cooling water return pipe is connected with a water return interface of the welding gun, a two-position two-way normally-off electromagnetic valve is arranged on the welding gun cooling water inlet pipe,
the water storage device comprises a connecting rod, a water cylinder, a cylinder and a two-position five-way electromagnetic valve, the water cylinder comprises a cylinder body, a piston and a piston rod, one side of the piston of the water cylinder is connected with the piston rod, the other side of the piston of the water cylinder and the inner wall of the cylinder body form a water containing cavity, the water containing cavity is communicated with a welding gun cooling water return pipe through a pipeline, the piston rod of the water cylinder and the piston rod of the cylinder are fixedly connected with the connecting rod respectively, a first working interface of the two-position five-way electromagnetic valve is communicated with a rod cavity of the cylinder through a pipeline, and a second working interface of the two-position five-way electromagnetic valve is communicated with a rodless cavity of the cylinder through a pipeline.
The water manager provided by the invention has the beneficial effects that: compared with the prior art, on the first aspect, the two-position two-way normally-off electromagnetic valve is arranged on the pipeline of the welding gun cooling water inlet pipe, so that the water supply waterway in the welding gun cooling water inlet pipe is cut off under the condition that the power supply system is suddenly powered off; and in the process of disassembling the electrode cap, if the power supply system is suddenly cut off, the water containing cavity of the water tank can still absorb water to the welding gun cooling water return pipe, so that the cooling water can still be effectively prevented from flowing out from the front end of the welding gun under the condition of power failure.
In one embodiment, the two-position five-way electromagnetic valve is a two-position five-way double-electric-control electromagnetic valve or a two-position five-way single-electric-control electromagnetic valve.
In one embodiment, the water manager further comprises a cooling water inlet manifold, a cooling water return manifold, a transformer cooling water inlet pipe and a transformer cooling water return pipe, wherein the water inlet end of the welding gun cooling water inlet pipe is connected with the water outlet end of the cooling water inlet manifold, the water outlet end of the transformer cooling water return pipe is connected with the water inlet end of the cooling water return manifold, the water outlet end of the welding gun cooling water return pipe is connected with the water inlet end of the cooling water return manifold, the water outlet end of the transformer cooling water inlet pipe is used for being connected with a water inlet interface of the transformer, and the water inlet end of the transformer cooling water return pipe is used for being connected with a water return interface of the transformer.
In one embodiment, flowmeters are arranged on the welding gun cooling water return pipe and the transformer cooling water return pipe;
and/or the welding gun cooling water return pipe and the transformer cooling water return pipe are provided with one-way valves.
In one embodiment, the water manager further comprises a support, and the welding gun cooling water inlet pipe, the transformer cooling water return pipe and the welding gun cooling water return pipe are arranged on the support in parallel.
In one embodiment, the welding gun cooling water inlet pipe, the transformer cooling water return pipe and the welding gun cooling water return pipe are fixedly connected to the support along a vertical direction, the cooling water inlet main pipe and the cooling water return pipe are arranged along a horizontal direction, the lower end of the welding gun cooling water inlet pipe and the lower end of the transformer cooling water inlet pipe are respectively connected with the cooling water inlet main pipe, and the lower end of the welding gun cooling water return pipe and the lower end of the transformer cooling water return pipe are respectively connected with the cooling water return main pipe.
In one embodiment, the water manager further includes a first ball valve, a second ball valve, a third ball valve, and a fourth ball valve, wherein an air outlet of the first ball valve is connected to the welding gun cooling water inlet pipe, an air inlet of the first ball valve is connected to an air source, an air outlet of the second ball valve is connected to the transformer cooling water inlet pipe, an air inlet of the second ball valve is connected to the air source, an air inlet of the third ball valve is connected to the transformer cooling water return pipe, an air outlet of the third ball valve is used for discharging residual water and gas, an air inlet of the fourth ball valve is connected to the welding gun cooling water return pipe, and an air outlet of the fourth ball valve is used for discharging residual water and gas,
welding gun cooling water inlet tube transformer cooling water wet return all be equipped with the fifth ball valve that is used for the control medium break-make on the welding gun cooling water wet return, the fifth ball valve setting on the welding gun cooling water inlet tube is in the upstream end of first ball valve, the fifth ball valve setting on the transformer cooling water inlet tube is in the upstream end of second ball valve, fifth ball valve setting on the transformer cooling water wet return is in the low reaches end of third ball valve, fifth ball valve setting on the welding gun cooling water wet return is in the low reaches end of fourth ball valve.
In one embodiment, the air inlets of the first ball valve and the second ball valve are provided with quick-plug connectors.
In one embodiment, a first indicating plate is arranged on one side of each of the first ball valve, the second ball valve, the third ball valve and the fourth ball valve;
and/or, water manager still includes the support, welding gun cooling water inlet tube transformer cooling water return pipe welding gun cooling water return pipe parallel arrangement is in on the support, still be equipped with four second indicators on the support, each the second indicator with welding gun cooling water inlet tube transformer cooling water return pipe with the position one-to-one of welding gun cooling water return pipe.
Another embodiment of the present invention provides a spot welding robot including the water manager according to any one of the above embodiments.
Drawings
In order to more clearly illustrate the technical solutions in the embodiments of the present invention, the drawings needed to be used in the embodiments or the prior art descriptions will be briefly described below, and it is obvious that the drawings in the following description are only some embodiments of the present invention, and it is obvious for those skilled in the art to obtain other drawings based on these drawings without inventive exercise.
FIG. 1 is a schematic diagram of a water manager according to an embodiment of the present invention;
FIG. 2 is a schematic diagram of another perspective view of the water manager of FIG. 1;
FIG. 3 is a schematic diagram of the connections of the water path and the gas path of the water manager according to the embodiment of the present invention;
FIG. 4 is a schematic diagram of the connection of the water path and the air path of the water storage device of the water manager according to the embodiment of the present invention;
fig. 5 is a schematic structural view of a cooling water drop preventing device in the prior art.
Detailed Description
Reference will now be made in detail to embodiments of the present invention, examples of which are illustrated in the accompanying drawings, wherein like or similar reference numerals refer to the same or similar elements or elements having the same or similar function throughout. The embodiments described below with reference to the drawings are illustrative and intended to be illustrative of the invention and are not to be construed as limiting the invention.
In the description of the present invention, it is to be understood that the terms "length", "width", "upper", "lower", "front", "rear", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer", and the like, indicate orientations or positional relationships based on the orientations or positional relationships illustrated in the drawings, and are used merely for convenience in describing the present invention and for simplicity in description, and do not indicate or imply that the devices or elements referred to must have a particular orientation, be constructed in a particular orientation, and be operated, and thus, are not to be construed as limiting the present invention.
Furthermore, the terms "first", "second", etc. are used for descriptive purposes only and are not to be construed as indicating or implying relative importance or implicitly indicating the number of technical features indicated. Thus, a feature defined as "first," "second," etc. may explicitly or implicitly include one or more of that feature. In the description of the present invention, "a plurality" means two or more unless specifically defined otherwise.
In the present invention, unless otherwise explicitly stated or limited, the terms "mounted," "connected," "fixed," and the like are to be construed broadly, e.g., as being permanently connected, detachably connected, or integral; can be mechanically or electrically connected; they may be directly connected or indirectly connected through intervening media, or may be connected through the use of two elements or the interaction of two elements. The specific meanings of the above terms in the present invention can be understood by those skilled in the art according to specific situations.
As shown in fig. 1-2, the water manager provided by the present invention includes a welding gun cooling water inlet pipe 11, a welding gun cooling water return pipe 24 and a water storage device 3, wherein a water outlet end of the welding gun cooling water inlet pipe 11 is used for connecting with a water inlet interface of a welding gun, a water inlet end of the welding gun cooling water return pipe 24 is used for connecting with a water return interface of the welding gun, and the welding gun cooling water inlet pipe 11 is provided with a two-position two-way normally-off solenoid valve 4.
The water storage device 3 comprises a connecting rod 31, a water cylinder 32, a cylinder 33 and a two-position five-way electromagnetic valve 34, the water cylinder comprises a cylinder body, a piston and a piston rod, one side of the piston of the water cylinder is connected with the piston rod, the other side of the piston of the water cylinder and the inner wall of the cylinder body form a water containing cavity 320, the water containing cavity 320 is communicated with the welding gun cooling water return pipe 24 through a pipeline, the piston rod of the water cylinder 32 and the piston rod of the 33 cylinder are fixedly connected with the connecting rod 31 respectively, a first working interface of the two-position five-way electromagnetic valve 34 is communicated with a rod cavity 331 of the cylinder 33 through a pipeline, a second working interface of the two-position five-way electromagnetic valve 34 is communicated with a rodless cavity 332 of the cylinder through a pipeline, and an air source interface of the two-position five-way electromagnetic valve 34 is used for connecting an air source. Wherein, the cylinder can adopt a double-acting cylinder. The number of the cylinders may be one, two, or more than two. The selection may be made according to the actual situation, and is not particularly limited herein.
The two-position, five-way solenoid valve 34 is an automated basic element for controlling fluid. Specifically, a technically mature two-position five-way single electric control solenoid valve or a two-position five-way double electric control solenoid valve may be adopted. The two-position five-way double-electric control solenoid valve is provided with two working interfaces, an air source interface and two air outlets.
Referring to fig. 3 and 4, when the coil B of the two-position five-way dual-electric control solenoid valve is powered on, air is supplied to the rodless cavity 332 of the cylinder through the air source interface and the second working interface, the piston rod of the cylinder 33 moves to the left to drive the piston rod of the water cylinder 32 to move to the left, so that the water containing cavity 320 of the water cylinder 32 generates negative pressure, and cooling water remaining in the welding gun cooling water return pipe 24 and the welding gun cooling water inlet pipe 11 is sucked into the water containing cavity 320, so that when the electrode cap is detached from the front end of the welding gun, the cooling water can be prevented from flowing out from the front end of the welding gun. Two position five-way two electric control solenoid valve have the function that the outage kept, and at this moment, if the power supply system outage, two position five-way two electric control solenoid valve's coil A and coil B lose the electricity simultaneously, and water storage device 3's jar 32 can keep the state of drawing water before the outage. The water in the water containing cavity 320 cannot return to the cooling water return pipe of the welding gun, so that the cooling water can be still effectively prevented from flowing out from the front end of the welding gun.
When the coil A of the two-position five-way dual-electric control electromagnetic valve is electrified, air is supplied to the rod cavity 331 of the air cylinder 33 through the air source interface and the first working interface, the piston rod of the air cylinder 33 moves towards the right side to drive the piston rod of the water cylinder 32 to move towards the right side, and cooling water stored in the water containing cavity 320 of the water cylinder 32 flows back to the cooling water return pipe of the welding gun. At the moment, if the power supply system is powered off, the coil A and the coil B of the two-position five-way dual-electric control electromagnetic valve are simultaneously powered off, and the water tank of the water storage device is kept in a state before the power off.
When the two-position five-way single electric control electromagnetic valve is adopted, the coil of the two-position five-way single electric control electromagnetic valve supplies air to the rodless cavity 332 of the air cylinder 33 through the air source interface and the second working interface under the condition that electricity is unavailable, the piston rod of the air cylinder 33 moves towards the left side to drive the piston rod of the water cylinder 32 to move towards the left side, so that the water containing cavity 320 of the water cylinder generates negative pressure, and cooling water remained in the welding gun cooling water return pipe 24 and the welding gun cooling water inlet pipe 11 is sucked into the water containing cavity 320, so that when the electrode cap is detached from the front end of the welding gun, the cooling water can be prevented from flowing out of the front end of the welding gun. At this time, if the power supply system is powered off, the water tank 32 of the water storage device 3 can be kept in a water pumping state before the power supply system is powered off because the coil of the two-position five-way single electric control electromagnetic valve is originally not powered on. The water in the water containing cavity 320 cannot return to the cooling water return pipe of the welding gun, so that the cooling water can be still effectively prevented from flowing out from the front end of the welding gun.
When the coil of the two-position five-way single electric control electromagnetic valve is electrified, air is supplied to the rod cavity 331 of the air cylinder 33 through the air source interface and the first working interface, the piston rod of the air cylinder 33 moves towards the right side to drive the piston rod of the water cylinder 32 to move towards the right side, and cooling water flows back to the welding gun cooling water return pipe 24 and is stored in the water containing cavity 320 of the water cylinder. At this time, if the power supply system is powered off and the coil of the two-position five-way single-electric-control electromagnetic valve is powered off, the air is supplied to the rodless cavity 320 of the air cylinder 33 through the air source interface and the second working interface, the piston rod 33 of the air cylinder moves to the left side, the piston rod of the water cylinder 32 is driven to move to the left side, the water containing cavity 320 of the water cylinder 32 generates negative pressure, and cooling water remained in the welding gun cooling water return pipe 24 and the welding gun cooling water inlet pipe 11 is sucked into the water containing cavity 320.
Compared with the prior art, on the first hand, the water manager provided by the invention has the advantages that the two-position two-way normally-off electromagnetic valve 4 is arranged on the pipeline of the welding gun cooling water inlet pipe 11, so that the water path in the welding gun cooling water inlet pipe 11 is cut off under the condition that a power supply system is suddenly powered off; in the second aspect, a water storage device 3 is provided, the first working interface and the second working interface of the two-position five-way electromagnetic valve 34 are respectively communicated with the rod cavity 331 and the rodless cavity 332 of the cylinder, the piston rod of the cylinder 33 and one end of the piston rod of the water cylinder 32 are both fixedly connected to the connecting rod 31, and the piston rod of the water cylinder 32 can be driven to move by controlling the two-position five-way electromagnetic valve 34 to supply air to the rod cavity 331 or the rodless cavity 332 of the cylinder 33, so that the water containing cavity 320 of the water cylinder 32 absorbs or releases water to the gun cooling water return pipe 24, and in the process of detaching the electrode cap, if the power supply system is suddenly cut off, the water containing cavity 320 of the water cylinder 32 can still absorb water to the gun cooling water return pipe 24, so that the cooling water can still be effectively prevented from flowing out of the front end of the welding gun under the condition of power cut-off.
Spot welding robots are widely used for welding sheet materials, among which spot welding robots were earlier used in automobile production lines, where a welding gun held on an arm of a spot welding robot includes an electrode, a cable, an air pipe, a cooling water pipe, and a welding transformer. The welding gun and the welding transformer are both required to be communicated with a cooling water loop for cooling. In one embodiment, referring to fig. 1 to 3, the water manager further includes a cooling water inlet manifold 1, a cooling water return manifold 2, a transformer cooling water inlet pipe 12, and a transformer cooling water return pipe 23. The water inlet end of the welding gun cooling water inlet pipe 11 and the water inlet end of the transformer cooling water inlet pipe 12 are respectively connected with the water outlet end of the cooling water inlet main pipe 1, and the water outlet end of the transformer cooling water return pipe 23 and the water outlet end of the welding gun cooling water return pipe 24 are respectively connected with the water inlet end of the cooling water return main pipe 2. The water outlet end of the transformer cooling water inlet pipe 12 is used for being connected with the water inlet interface of the transformer, and the water inlet end of the transformer cooling water return pipe 23 is used for being connected with the water return interface of the transformer.
In one embodiment, referring to fig. 1 and 3, the water manager includes an electronic control module 7, and flow meters are provided on both the gun cooling water return 24 and the transformer cooling water return 23. Each flowmeter is respectively electrically connected with the electric control module 7, and alarms when the flow of the pipeline is too low.
In one embodiment, referring to fig. 3, the welding gun cooling water return pipe 24 and the transformer cooling water return pipe 23 are both provided with check valves to prevent the cooling water from flowing back.
The traditional welding gun cooling water is disorderly in connecting pipe and difficult to manage on site. In view of this, in one embodiment of the present invention, referring to fig. 1 and 2, the water manager further includes a bracket 6, and the gun cooling water inlet pipe 11, the transformer cooling water inlet pipe 12, the transformer cooling water return pipe 23, and the gun cooling water return pipe 24 are disposed in parallel on the bracket 6. Specifically, a welding gun cooling water inlet pipe 11, a transformer cooling water inlet pipe 12, a transformer cooling water return pipe 23, and a welding gun cooling water return pipe 24 are fixedly connected to the support 6 along the vertical direction. The cooling water inlet manifold 1 and the cooling water return manifold 2 are arranged along the horizontal direction. The lower end of the welding gun cooling water inlet pipe 11 and the lower end of the transformer cooling water inlet pipe 12 are respectively connected with a cooling water inlet main pipe 1. The lower end of the welding gun cooling water return pipe 23 and the lower end of the transformer cooling water return pipe 24 are respectively connected with the cooling water return main pipe 4. Therefore, the use of a welding site can be standardized, and the management is convenient.
When the pipeline is blocked due to impurities in the pipeline, maintenance is needed. In one embodiment, referring to fig. 1 to 3, the water manager further includes a first ball valve 51, a second ball valve 52, a third ball valve 53, and a fourth ball valve 54, an air outlet of the first ball valve 51 is connected to the welding gun cooling water inlet pipe 11, an air inlet of the first ball valve 51 is connected to an air source, an air outlet of the second ball valve 52 is connected to the transformer cooling water inlet pipe 12, an air inlet of the second ball valve 52 is connected to the air source, an air inlet of the third ball valve 53 is connected to the transformer cooling water return pipe 23, an air outlet of the third ball valve 53 is used for discharging residual water and gas, an air inlet of the fourth ball valve 54 is connected to the welding gun cooling water return pipe 24, and an air outlet of the fourth ball valve 54 is used for discharging residual water and gas. That is, the air inlets of the first and second ball valves 51 and 52 are used as the air blowing ports for maintenance, and the water outlets of the third and fourth ball valves 53 and 54 are used as the drain and slag discharge ports for maintenance. The water outlets of the third ball valve 53 and the fourth ball valve 54 can be connected with an air pipe, and residual water, gas and sundries are directly discharged to a sewer. And the pipelines of the welding gun cooling water inlet pipe 11, the transformer cooling water inlet pipe 12, the transformer cooling water return pipe 23 and the welding gun cooling water return pipe 24 are all provided with fifth ball valves 55 for controlling the on-off of the medium. A fifth ball valve 55 on the welding gun cooling water inlet pipe 11 is arranged at the upstream end of the first ball valve 51, a fifth ball valve 55 on the transformer cooling water inlet pipe 12 is arranged at the upstream end of the second ball valve 52, a fifth ball valve 55 on the transformer cooling water return pipe 23 is arranged at the downstream end of the third ball valve 53, and a fifth ball valve 55 on the welding gun cooling water return pipe 24 is arranged at the downstream end of the fourth ball valve 54.
Specifically, the first ball valve 51, the second ball valve 52, the third ball valve 53, the fourth ball valve 54, and the fifth ball valve 55 may be manual valves. When the maintenance is needed, the fifth ball valves 55 on the four pipelines of the welding gun cooling water inlet pipe 11, the transformer cooling water inlet pipe 12, the transformer cooling water return pipe 23 and the welding gun cooling water return pipe 24 are closed, the air sources are connected with the air inlets of the first ball valve 51 and the second ball valve 52, and then the compressed air is used for blowing air into the pipelines. A part of the gas enters a cooling channel inside the welding gun through the first ball valve 51 and the welding gun cooling water inlet pipe 11, then enters the welding gun cooling water return pipe 24, and residual water, gas and sundries are discharged from a maintenance outlet of the fourth ball valve 54. A part of the gas enters the cooling channel inside the transformer through the second ball valve 52 and the transformer cooling water inlet pipe 12, and then enters the transformer cooling water return pipe 23, and the residual water, gas and impurities are discharged from the maintenance outlet of the third ball valve 53.
Furthermore, in this embodiment, referring to fig. 2, the air inlets of the first ball valve 51 and the second ball valve 52 are both provided with a quick-insertion type connector 500, specifically, a male plug can be adopted, and a female plug can be directly buckled on the field for use, so that the use is convenient.
In one embodiment, referring to fig. 1 and 2, a first indication board 601 for explaining the use state of the ball valve is disposed on one side of each of the first ball valve 51, the second ball valve 52, the third ball valve 53 and the fourth ball valve 54. For example, the fifth ball valve 55 is normally open, and "normally open" can be written on the first indication board 601 beside the fifth ball valve 55. The first ball valve 51, the second ball valve 52, the third ball valve 53 and the fourth ball valve 54 are set to be normally closed, and the first indication board 601 beside the first ball valve 51, the second ball valve 52, the third ball valve 53 and the fourth ball valve 54 can be written as normally closed. Still be equipped with four second indicators 602 on the support 6, the second indicator plays the effect of sign, and each second indicator 602 and welding gun cooling water inlet tube 11, transformer cooling water inlet tube 12, transformer cooling water wet return 23 and the position one-to-one of welding gun cooling water wet return 24. For example, "transformer cooling water inlet" may be written on the second indication board 602 beside the transformer cooling water inlet pipe 12. Therefore, the management and the maintenance of workers can be facilitated.
Another embodiment of the present invention provides a spot welding robot including the water manager as described in any one of the above embodiments.
The above description is only for the purpose of illustrating the preferred embodiments of the present invention and is not to be construed as limiting the invention, and any modifications, equivalents and improvements made within the spirit and principle of the present invention are intended to be included within the scope of the present invention.

Claims (10)

1. A water manager is characterized by comprising a welding gun cooling water inlet pipe, a welding gun cooling water return pipe and a water storage device, wherein the water outlet end of the welding gun cooling water inlet pipe is connected with a water inlet interface of a welding gun, the water inlet end of the welding gun cooling water return pipe is connected with a water return interface of the welding gun, a two-position two-way normally-off electromagnetic valve is arranged on the welding gun cooling water inlet pipe,
the water storage device comprises a connecting rod, a water cylinder, a cylinder and a two-position five-way electromagnetic valve, the water cylinder comprises a cylinder body, a piston and a piston rod, one side of the piston of the water cylinder is connected with the piston rod, the other side of the piston of the water cylinder and the inner wall of the cylinder body form a water containing cavity, the water containing cavity is communicated with a welding gun cooling water return pipe through a pipeline, the piston rod of the water cylinder and the piston rod of the cylinder are fixedly connected with the connecting rod respectively, a first working interface of the two-position five-way electromagnetic valve is communicated with a rod cavity of the cylinder through a pipeline, and a second working interface of the two-position five-way electromagnetic valve is communicated with a rodless cavity of the cylinder through a pipeline.
2. A water manager according to claim 1 wherein the two-position, five-way solenoid valve is a two-position, five-way, dual or single solenoid valve.
3. The water manager according to claim 1, further comprising a cooling water inlet manifold, a cooling water return manifold, a transformer cooling water inlet pipe, and a transformer cooling water return pipe, wherein a water inlet end of the welding gun cooling water inlet pipe and a water inlet end of the transformer cooling water inlet pipe are respectively connected to a water outlet end of the cooling water inlet manifold, a water outlet end of the transformer cooling water return pipe and a water outlet end of the welding gun cooling water return pipe are respectively connected to a water inlet end of the cooling water return manifold, a water outlet end of the transformer cooling water inlet pipe is used for being connected to a water inlet port of the transformer, and a water inlet end of the transformer cooling water return pipe is used for being connected to a water return port of the transformer.
4. A water manager according to claim 3 wherein flow meters are provided on both the gun cooling water return and the transformer cooling water return;
and/or the welding gun cooling water return pipe and the transformer cooling water return pipe are provided with one-way valves.
5. The water manager of claim 3, further comprising a bracket, wherein the welder cooling water inlet pipe, the transformer cooling water return pipe, and the welder cooling water return pipe are disposed in parallel on the bracket.
6. The water manager according to claim 5, wherein the gun cooling water inlet pipe, the transformer cooling water return pipe, and the gun cooling water return pipe are fixedly connected to the bracket along a vertical direction, the cooling water inlet manifold and the cooling water return pipe are horizontally disposed, a lower end of the gun cooling water inlet pipe and a lower end of the transformer cooling water inlet pipe are respectively connected to the cooling water inlet manifold, and a lower end of the gun cooling water return pipe and a lower end of the transformer cooling water return pipe are respectively connected to the cooling water return manifold.
7. The water manager according to claim 3, further comprising a first ball valve, a second ball valve, a third ball valve, and a fourth ball valve, wherein the outlet of the first ball valve is connected to the welding gun cooling water inlet pipe, the inlet of the first ball valve is connected to a gas source, the outlet of the second ball valve is connected to the transformer cooling water inlet pipe, the inlet of the second ball valve is connected to the gas source, the inlet of the third ball valve is connected to the transformer cooling water return pipe, the outlet of the third ball valve is used for discharging residual water and gas, the inlet of the fourth ball valve is connected to the welding gun cooling water return pipe, and the outlet of the fourth ball valve is used for discharging residual water and gas,
welding gun cooling water inlet tube transformer cooling water wet return all be equipped with the fifth ball valve that is used for the control medium break-make on the welding gun cooling water wet return, the fifth ball valve setting on the welding gun cooling water inlet tube is in the upstream end of first ball valve, the fifth ball valve setting on the transformer cooling water inlet tube is in the upstream end of second ball valve, fifth ball valve setting on the transformer cooling water wet return is in the low reaches end of third ball valve, fifth ball valve setting on the welding gun cooling water wet return is in the low reaches end of fourth ball valve.
8. The water manager of claim 7, wherein the air inlets of the first and second ball valves are each provided with a quick-connect fitting.
9. A water manager according to claim 7 wherein a first indicator is provided on each of one side of said first ball valve, said second ball valve, said third ball valve, said fourth ball valve;
and/or, water manager still includes the support, welding gun cooling water inlet tube transformer cooling water return pipe welding gun cooling water return pipe parallel arrangement is in on the support, still be equipped with four second indicators on the support, each the second indicator with welding gun cooling water inlet tube transformer cooling water return pipe with the position one-to-one of welding gun cooling water return pipe.
10. A spot welding robot characterized in that it comprises a water manager according to any one of claims 1 to 9.
CN202222706133.3U 2022-10-13 2022-10-13 Water manager and spot welding robot Active CN218745472U (en)

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CN202222706133.3U CN218745472U (en) 2022-10-13 2022-10-13 Water manager and spot welding robot

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Application Number Priority Date Filing Date Title
CN202222706133.3U CN218745472U (en) 2022-10-13 2022-10-13 Water manager and spot welding robot

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CN218745472U true CN218745472U (en) 2023-03-28

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