A device for detecting tin content in a solution in a circuit board production process

Abstract

This invention relates to a detection device, and more particularly to a device for detecting the tin content in a solution during circuit board manufacturing. There is a need to design a device that facilitates the detection of tin content in a solution, has good sealing properties to prevent odor diffusion, and saves time and effort compared to the need for stirring the precipitant and solution during circuit board manufacturing. A device for detecting the tin content in a solution during circuit board manufacturing includes: an isolation cylinder with a buffer base on one side; a protective door hinged to the isolation cylinder; and positioning pins symmetrically mounted on the protective door. This invention utilizes a combination of a liquid storage mechanism and a liquid extraction mechanism. An external inlet pipe is connected, and a water pump draws the solution into an anti-corrosion bottom cylinder through the inlet pipe. An appropriate amount of precipitant is then added to the anti-corrosion bottom cylinder, and after a reaction period, the extraction cylinder moves downwards to fill with an appropriate amount of solution. This facilitates the detection of tin content in the solution, provides good sealing properties, and prevents odor diffusion.

Description

Technical Field

[0001] This invention relates to a detection device, and more particularly to a device for detecting the tin content in a solution during the production of printed circuit boards. Background Technology

[0002] During the production of printed circuit boards (PCBs), the tin content of the solution must be tested. Currently, most tests are conducted manually. The operator first places an appropriate amount of solution into a collection container, then adds an appropriate amount of precipitant. After a period of reaction, the solution is heated to evaporate and then tested. This process is time-consuming and labor-intensive, as the strong odor during the reaction can affect people's health. Furthermore, the precipitant and solution need to be stirred.

[0003] This invention provides a convenient device for detecting the tin content in a solution during the circuit board manufacturing process. It is well-sealed, prevents the spread of odors, and saves time and effort compared to the need to stir the precipitant and solution. This solution addresses the existing technical problems. Summary of the Invention

[0004] To overcome the drawbacks of strong odors during the reaction, which can negatively impact people's physical and mental health, and the time-consuming and labor-intensive process of stirring the precipitant and solution, the technical problem to be solved is to provide a convenient device for detecting the tin content in the solution during the circuit board production process. This device should have good sealing properties to prevent the spread of odors and save time and effort compared to the need for stirring the precipitant and solution.

[0005] The technical solution is: a device for detecting the tin content of a solution during circuit board production, comprising: an isolation cylinder with a buffer base on one side; a protective door hinged to the isolation cylinder; positioning pins symmetrically mounted on the protective door; a fixing frame mounted on the isolation cylinder; a corrosion-resistant bottom cylinder mounted on the fixing frame; a liquid inlet button mounted on the isolation cylinder; a liquid outlet button mounted on the isolation cylinder; a liquid storage mechanism mounted on the isolation cylinder for storing the solution; and a liquid retrieval mechanism mounted between the isolation cylinder and the corrosion-resistant bottom cylinder for retrieving the solution.

[0006] Furthermore, the liquid storage mechanism includes: an inlet pipe, which is installed on and connected to the corrosion-resistant bottom cylinder; a water pump, which is installed on the corrosion-resistant bottom cylinder and cooperates with the inlet pipe; a first liquid level sensor, which is installed on the corrosion-resistant bottom cylinder; and a filter plate, which is installed on the corrosion-resistant bottom cylinder.

[0007] Furthermore, the liquid dispensing mechanism includes: an electric push rod, which is mounted on the corrosion-resistant bottom cylinder; a connecting bow-shaped plate, which is mounted on the electric push rod; a positioning frame, which is mounted on the connecting bow-shaped plate; a liquid dispensing cylinder, which is mounted on the positioning frame; an up button, which is mounted on the isolation cylinder; and a down button, which is mounted on the isolation cylinder.

[0008] Furthermore, it also includes a positioning and liquid storage mechanism, which comprises: a fixed plate symmetrically mounted on the corrosion-resistant bottom cylinder; positioning guide posts mounted on the fixed plate; a magnetic strip mounted on the positioning guide posts; a liquid outlet pipe mounted on the corrosion-resistant bottom cylinder and connected to the liquid collection cylinder; an electromagnetic block slidably mounted on the positioning guide posts; a sealing frame mounted between two electromagnetic blocks; a sealing base plate slidably mounted on the sealing frame; a return spring mounted between the sealing base plate and the sealing frame; a first pressure sensor mounted on an electric push rod; spring guide posts symmetrically mounted on the liquid collection cylinder; and a liquid-blocking baffle slidably mounted between two spring guide posts.

[0009] Furthermore, it also includes a testing mechanism, which comprises: a positioning base plate mounted on a corrosion-resistant base cylinder; a testing box mounted on the positioning base plate; a heating module mounted on the testing box; a second ball-shaped solenoid valve mounted on the testing box; a pressurized chlorine tank mounted on the positioning base plate, and fixedly connected and communicating with the testing box; an exhaust pipe mounted on the testing box and communicating with it; limit posts, spaced apart on the testing box; a lifting measuring plate, slidingly mounted between the limit posts; a second liquid level sensor mounted on the testing box; a second pressure sensor mounted on the testing box; and a testing button mounted on the isolation cylinder.

[0010] Furthermore, it also includes a sedimentation mechanism, which comprises: a sedimentation tank mounted on a corrosion-resistant bottom cylinder; a water flow sensor mounted on an inlet pipe; a spray pipe mounted on the corrosion-resistant bottom cylinder and fixedly connected to and communicating with the sedimentation tank; a servo motor mounted on the corrosion-resistant bottom cylinder; a drive shaft mounted on the output shaft of the servo motor; a bevel gear assembly rotatably mounted on the corrosion-resistant bottom cylinder; a first transmission assembly mounted between the bevel gear assembly and the drive shaft; a stirring spiral plate rotatably mounted on the corrosion-resistant bottom cylinder; and a second transmission assembly mounted between the stirring spiral plate and the bevel gear assembly.

[0011] Furthermore, it also includes an emission filtration mechanism, which includes: a filter cylinder, which is installed on a corrosion-resistant base cylinder and is fixedly connected to and communicates with the exhaust pipe; filter carbon plates, which are installed at intervals on the filter cylinder; and opening and closing baffles, which are hingedly installed on the filter cylinder, and pressing bent rods are symmetrically installed on the filter cylinder.

[0012] Furthermore, it also includes an electrical control box, which is embedded in one side of the isolation cylinder. The electrical control box includes a switching power supply, a power module, and a control module. The switching power supply supplies power to the entire device. The power module is connected to the main power switch via a line. The control module and the power module are electrically connected. The control module is connected to a DS1302 clock circuit and a 24C02 circuit. The liquid inlet button, liquid outlet button, down button, up button, detection button, first liquid level sensor, second liquid level sensor, first pressure sensor, second pressure sensor, and water flow sensor are all electrically connected to the control module. The electric push rod, servo motor, heating module, electromagnetic block, first ball solenoid valve, second ball solenoid valve, and water pump are all connected to the control module via peripheral circuits.

[0013] The beneficial effects are:

[0014] 1. This invention utilizes the cooperation of a liquid storage mechanism and a liquid extraction mechanism. The inlet pipe is externally connected, and a water pump draws the solution into the anti-corrosion bottom cylinder through the inlet pipe. An appropriate amount of precipitant is then added to the anti-corrosion bottom cylinder. After waiting for a reaction period, the liquid extraction cylinder moves downward to fill with an appropriate amount of solution. This makes it convenient for people to test the tin content of the solution, and the good sealing prevents the spread of odors.

[0015] 2. The present invention utilizes the sedimentation mechanism, where the rotating stirring spiral plate stirs the solution and precipitant, thereby ensuring that the solution and precipitant are fully mixed.

[0016] 3. This invention uses a filtration mechanism to filter chlorine gas through a carbon filter plate, thus filtering the chlorine gas and preventing it from affecting the surrounding environment. Attached Figure Description

[0017] Figure 1 This is a three-dimensional structural diagram of the present invention.

[0018] Figure 2 This is a partial three-dimensional structural schematic diagram of the present invention.

[0019] Figure 3 This is an enlarged schematic diagram of part A of the present invention.

[0020] Figure 4 This is a partial three-dimensional structural diagram of the liquid storage mechanism of the present invention.

[0021] Figure 5This is a three-dimensional structural diagram of the first part of the liquid dispensing mechanism of the present invention.

[0022] Figure 6 This is a three-dimensional structural diagram of the second part of the liquid dispensing mechanism of the present invention.

[0023] Figure 7 This is a schematic diagram of the first partial three-dimensional structure of the positioning and liquid storage mechanism of the present invention.

[0024] Figure 8 This is a schematic diagram of the second part of the positioning and liquid storage mechanism of the present invention.

[0025] Figure 9 This is a three-dimensional structural diagram of the third part of the positioning and liquid storage mechanism of the present invention.

[0026] Figure 10 This is a schematic diagram of the first partial three-dimensional structure of the detection mechanism of the present invention.

[0027] Figure 11 This is a schematic diagram of the second part of the detection mechanism of the present invention.

[0028] Figure 12 This is a schematic diagram of the first partial three-dimensional structure of the precipitation mechanism of the present invention.

[0029] Figure 13 This is a schematic diagram of the second part of the precipitation mechanism of the present invention.

[0030] Figure 14 This is a partial three-dimensional structural diagram of the emission filtration mechanism of the present invention.

[0031] Figure 15 This is a circuit block diagram of the present invention.

[0032] Figure 16 This is the circuit schematic diagram of the present invention.

[0033] Component names and serial numbers in the diagram: 1_Isolation cylinder, 2_Buffer base, 3_Protective door, 4_Positioning pin, 5_Anti-corrosion base cylinder, 6_Fixing bracket, 7_Electrical control box, 71_Inlet button, 72_Discharge button, 8_Liquid storage mechanism, 81_Inlet pipe, 82_Water pump, 83_First liquid level sensor, 84_Filter plate, 85_First ball solenoid valve, 9_Liquid dispensing mechanism, 91_Electric push rod, 92_Liquid dispensing cylinder, 93_Positioning bracket, 94_Connecting bow plate, 95_Up button, 96_Down button, 10_Positioning and liquid storage mechanism, 101_Fixing plate, 102_Positioning guide post, 103_Magnetic strip, 104_Discharge pipe, 105_Sealing bracket, 106_Reset spring, 107_Sealing base plate, 108_First pressure sensor, 109_Electromagnetic block, 1010_Resistant Liquid baffle, 1011_spring guide post, 11_detection mechanism, 111_positioning base plate, 112_detection box, 113_heating module, 114_second ball solenoid valve, 115_pressurized chlorine tank, 116_exhaust gas pipe, 117_second liquid level sensor, 118_lifting measuring plate, 119_limiting post, 1110_second pressure sensor, 1111_detection button, 12_sedimentation mechanism, 121_precipitant tank, 122_water flow sensor, 123_spray pipe, 124_servo motor, 125_drive shaft, 126_first transmission assembly, 127_bevel gear assembly, 128_second transmission assembly, 129_stirring spiral plate, 13_emission filtration mechanism, 131_filter cylinder, 132_filter carbon plate, 133_opening and closing baffle, 134_compression bent rod. Detailed Implementation

[0034] The technical solution of the present invention will be further described below with reference to the accompanying drawings.

[0035] Example 1

[0036] A device for detecting the tin content in a solution during circuit board manufacturing, such as Figures 1-6 As shown, it includes an isolation cylinder 1, a buffer base 2, a protective door 3, a positioning pin 4, a corrosion-resistant bottom cylinder 5, a fixing frame 6, a liquid inlet button 71, a liquid outlet button 72, a liquid storage mechanism 8, and a liquid dispensing mechanism 9. The buffer base 2 is provided at intervals on the bottom of the isolation cylinder 1. The protective door 3 is hinged at the rear of the isolation cylinder 1. Positioning pins 4 are symmetrically arranged on the front of the protective door 3. The fixing frame 6 is fixed to the bottom of the inner side of the isolation cylinder 1. The corrosion-resistant bottom cylinder 5 is fixed to the top of the fixing frame 6. The liquid inlet button 71 is fixed to the middle of the front side of the isolation cylinder 1. The liquid outlet button 72 is provided at the lower part of the front side of the isolation cylinder 1. The liquid storage mechanism 8 is provided on the isolation cylinder 1. The liquid dispensing mechanism 9 is provided between the isolation cylinder 1 and the corrosion-resistant bottom cylinder 5.

[0037] The liquid storage mechanism 8 includes an inlet pipe 81, a water pump 82, a first liquid level sensor 83, a filter plate 84, and a first ball solenoid valve 85. The inlet pipe 81 is located on the left side of the front part of the anti-corrosion bottom cylinder 5 and is connected to it. The water pump 82 is located on the lower left side of the outer front side of the anti-corrosion bottom cylinder 5. The water pump 82 cooperates with the inlet pipe 81. The first liquid level sensor 83 is fixedly connected to the middle of the inner rear side of the anti-corrosion bottom cylinder 5. The filter plate 84 is fixedly connected to the lower part of the inner side of the anti-corrosion bottom cylinder 5. The first ball solenoid valve 85 is located on the lower left side of the outer rear side of the anti-corrosion bottom cylinder 5 and is connected to it.

[0038] The liquid dispensing mechanism 9 includes an electric push rod 91, a liquid dispensing cylinder 92, a positioning frame 93, a connecting bow plate 94, an up button 95, and a down button 96. An electric push rod 91 is fixedly connected to the middle of the top of the anti-corrosion bottom cylinder 5. The electric push rod 91 slides through the anti-corrosion bottom cylinder 5 and is connected to the connecting bow plate 94. A positioning frame 93 is fixedly connected to the connecting bow plate 94. The liquid dispensing cylinder 92 is placed inside the positioning frame 93. An up button 95 is fixedly connected to the middle of the rear side of the isolation cylinder 1. A down button 96 is fixedly connected to the middle of the rear side of the isolation cylinder 1. The down button 96 is located below the up button 95.

[0039] People press the main power switch to power on the detection device. The first liquid level sensor 83, with its slotted roller, is activated. First, the operator connects the inlet pipe 81 and presses the inlet button 71 once. The inlet button 71 sends a signal, which the control module receives and controls the water pump 82 to operate. The water pump 82 draws the solution into the anti-corrosion bottom cylinder 5 through the inlet pipe 81. The first liquid level sensor 83 monitors the water level. When the first liquid level sensor 83 detects a water level higher than the rated value in the control module, it sends a signal. The control module receives the signal and controls the water pump 82 to stop. Then, an appropriate amount of precipitant is added to the anti-corrosion bottom cylinder 5, and after a period of reaction, the lowering button 96 is pressed once. The lowering button 96 sends a signal, which the control module receives and controls the electric push rod 91 to extend. The electric push rod 91... The connecting bow-shaped plate 94 moves downward, which in turn moves the positioning frame 93 downward. The positioning frame 93 moves downward, which in turn moves the liquid collection cylinder 92 downward. The liquid collection cylinder 92 moves downward and fills in an appropriate amount of solution. Then, the up button 95 is pressed once. The up button 95 sends a signal, and after receiving the signal, the control module controls the electric push rod 91 to retract. The connecting bow-shaped plate 94 then moves the liquid collection cylinder 92 upward to reset via the positioning frame 93. The liquid collection cylinder 92 is removed for further processing of the solution. The drain button 72 is pressed once. The drain button 72 sends a signal, and after receiving the signal, the control module controls the first ball solenoid valve 85 to open for 1 minute. The first ball solenoid valve 85 stops limiting the corrosion-resistant bottom cylinder 5, and the solution is discharged. After 1 minute, the control module controls the first ball solenoid valve 85 to close.

[0040] Example 2

[0041] Based on Example 1, such as Figure 1 , Figure 7 , Figure 8 , Figure 9 , Figure 10 and Figure 11 As shown, it also includes a positioning liquid storage mechanism 10, which includes a fixed plate 101, a positioning guide post 102, a magnetic strip 103, a liquid outlet pipe 104, a sealing frame 105, a reset spring 106, a sealing base plate 107, a first pressure sensor 108, an electromagnetic block 109, a liquid-blocking baffle 1010, and a spring guide post 1011. Fixed plates 101 are provided on both the front and rear sides of the corrosion-resistant bottom cylinder 5. Positioning guide posts 102 are fixedly connected to the inner surface of the fixed plates 101. Magnetic strips 103 are provided inside the positioning guide posts 102. A liquid outlet pipe 104 is provided on the upper right side of the corrosion-resistant bottom cylinder 5 for liquid outlet. The tube 104 is connected to the liquid collection cylinder 92. An electromagnetic block 109 is slidably provided inside the positioning guide post 102. The electromagnetic block 109 cooperates with the magnetic strip 103. A sealing frame 105 is fixed between the electromagnetic blocks 109 on the front and rear sides. A sealing base plate 107 is slidably provided on the sealing frame 105. A return spring 106 is provided between the inside of the sealing base plate 107 and the inner side of the sealing frame 105. A first pressure sensor 108 is provided at the lower part of the electric push rod 91. Spring guide posts 1011 are symmetrically provided on the right side of the liquid collection cylinder 92. A liquid blocking baffle 1010 is slidably provided between the spring guide posts 1011 on the front and rear sides.

[0042] It also includes a testing mechanism 11, which comprises a positioning base plate 111, a testing box 112, a heating module 113, a second ball solenoid valve 114, a pressurized chlorine tank 115, an exhaust pipe 116, a second liquid level sensor 117, a lifting measuring plate 118, a limit post 119, a second pressure sensor 1110, and a testing button 1111. The positioning base plate 111 is located on the lower part of the outer right side of the corrosion-resistant base cylinder 5. The testing box 112 is fixedly connected to the top center of the positioning base plate 111. The heating module 113 is located on the lower part of the outer right side of the testing box 112, and the testing box 112 is located on the upper center. The second spherical solenoid valve 114 has a pressurized chlorine tank 115 on the top front side of the positioning base plate 111. The pressurized chlorine tank 115 is fixedly connected to and communicates with the detection box 112. The upper rear side of the detection box 112 has an exhaust pipe 116 that is connected to it. The lower rear side of the detection box 112 has a second liquid level sensor 117 fixedly connected to it. The bottom of the detection box 112 has limit posts 119 spaced apart. The lifting measuring plate 118 is slidably connected between the limit posts 119. The middle of the bottom of the detection box 112 has a second pressure sensor 1110 fixedly connected to it. The lower front side of the isolation cylinder 1 has a detection button 1111.

[0043] When the detection device is powered on, the first pressure sensor 108 starts working. Pressing the descent button 96 once sends a signal. After receiving the signal, the control module controls the electric push rod 91 to extend, causing the connecting bow plate 94 to move downward, thus moving the sealing frame 105 downward. Meanwhile, the electromagnetic block 109 slides within the positioning guide post 102. When an appropriate amount of solution is filled into the liquid collection cylinder 92, pressing the ascending button 95 once sends a signal. After receiving the signal, the control module controls the electric push rod 91 to retract. The electric push rod 91 retracts a certain distance and contacts the first pressure sensor 108. The first pressure sensor 108 sends a signal, and after receiving the signal, the control module controls the electromagnetic block 109 to be energized. The electromagnetic block 109 attracts the magnetic strip 103, thus limiting the sealing base plate 107. The connecting bow plate 94 then moves the positioning frame 93 upward, which in turn moves the liquid collection cylinder 92 downward. The liquid cylinder 92 moves upward, and the liquid collection cylinder 92 moves upward to contact the sealing frame 105. Then, the sealing base plate 107 makes the liquid collection cylinder 92 in a sealed state. The return spring 106 is compressed. The liquid collection cylinder 92 continues to move upward, so that the liquid blocking baffle 1010 contacts the liquid outlet pipe 104. The liquid outlet pipe 104 drives the liquid blocking baffle 1010 to move downward. The liquid blocking baffle 1010 stops moving downward and stops limiting the liquid collection cylinder 92. The solution is discharged through the liquid outlet pipe 104 and can be collected in a collection container for further processing. When the electric push rod 91 is fully retracted and reset, it no longer contacts the first pressure sensor 108. The first pressure sensor 108 sends a signal again. After receiving the signal, the control module controls the electromagnetic block 109 to stop. Due to the action of the return spring 106, the sealing base plate 107 also moves upward and resets to stop sealing. In this way, the liquid collection capacity of the liquid collection cylinder 92 can be controlled.

[0044] Initially, the second ball solenoid valve 114 does not limit the outlet pipe 104, but it does limit the pressurized chlorine tank 115 and the exhaust pipe 116. When the detection device is powered on, the second liquid level sensor 117 and the second pressure sensor 1110 begin to operate. The liquid-blocking baffle 1010 contacts the outlet pipe 104 and moves downwards, stopping the limitation on the liquid collection cylinder 92. The solution then flows through the outlet pipe 104 into the detection box 112. The second liquid level sensor 117 monitors the water level. When the second liquid level sensor 117 detects that the water level is higher than the rated value in the control module, it sends a signal. After receiving the signal, the control module controls the second ball solenoid valve 114 to rotate forward. The forward rotation limits the outlet pipe 104, while the second ball solenoid valve 114 does not limit the pressurized chlorine tank 115 and the exhaust pipe 116. The pressurized chlorine tank 115 discharges chlorine into the detection chamber 112, and then discharges it from the exhaust pipe 116. At the same time, after receiving the signal, the control module also controls the heating module 113 to work. The heating module 113 heats the detection chamber 112, and the solution is evaporated, causing the tin to fall onto the lifting measuring plate 118. The lifting measuring plate 118 contacts the second pressure sensor 1110, and the second pressure sensor 1110 sends a signal. After receiving the signal, the control module controls the second ball solenoid valve 114 to reverse and reset. People can then record the number sent by the second pressure sensor 1110. In this way, people can easily measure the tin content of the solution.

[0045] Example 3

[0046] Based on Examples 1 and 2, such as Figures 12-14 As shown, it also includes a sedimentation mechanism 12, which includes a sedimentation tank 121, a water flow sensor 122, a spray pipe 123, a servo motor 124, a drive shaft 125, a first transmission assembly 126, a bevel gear assembly 127, a second transmission assembly 128, and a stirring spiral plate 129. The sedimentation tank 121 is located on the upper left side of the outer front side of the corrosion-resistant bottom cylinder 5, the water flow sensor 122 is located on the upper part of the liquid inlet pipe 81, and the spray pipe 123 is located on the upper part of the inner side of the corrosion-resistant bottom cylinder 5. The spray pipe 123 and the sedimentation tank 125 are connected to the sedimentation tank 121. The sedimentation tank 121 is fixedly connected and communicated. A servo motor 124 is provided on the lower left side of the anti-corrosion bottom cylinder 5. A drive shaft 125 is connected to the output shaft of the servo motor 124. A bevel gear assembly 127 is rotatably provided on the lower left side of the anti-corrosion bottom cylinder 5. A first transmission assembly 126 is circumferentially connected between the bevel gear assembly 127 and the drive shaft 125. A stirring spiral plate 129 is rotatably provided at the bottom of the anti-corrosion bottom cylinder 5. A second transmission assembly 128 is provided between the lower circumferential part of the stirring spiral plate 129 and the bevel gear assembly 127.

[0047] It also includes an emission filtration mechanism 13, which includes a filter cylinder 131, a filter carbon plate 132, an opening and closing baffle 133, and a pressing bent rod 134. The filter cylinder 131 is provided on the upper right side of the outer rear side of the anti-corrosion bottom cylinder 5. The filter cylinder 131 is fixedly connected to and communicates with the exhaust pipe 116. The filter carbon plate 132 is provided circumferentially at intervals on the inner side of the filter cylinder 131. The opening and closing baffle 133 is hinged at the rear of the filter cylinder 131. The pressing bent rod 134 is symmetrically provided on the upper and lower sides of the outer side of the filter cylinder 131.

[0048] Initially, the precipitant tank 121 contains an appropriate amount of precipitant, which is discharged into the anti-corrosion bottom cylinder 5 through the spray pipe 123. When the detection device is powered on, the water flow sensor 122 starts working. Pressing the liquid inlet button 71 once sends a signal. After receiving the signal, the control module controls the water pump 82 to work. The water pump 82 draws the solution into the anti-corrosion bottom cylinder 5 through the liquid inlet pipe 81. The water flow sensor 122 detects the water flow and sends a signal. After receiving the signal, the control module controls the servo motor 124 to work. The servo motor 124 drives the drive shaft 125 to rotate. The rotation of the drive shaft 125 drives the first transmission assembly 126 to rotate. The rotation of the moving component 126 drives the bevel gear assembly 127 to rotate, which in turn drives the second transmission assembly 128 to rotate. The rotation of the second transmission assembly 128 drives the stirring spiral plate 129 to rotate, which stirs the solution and precipitant. When the first liquid level sensor 83 detects that the water level is higher than the rated value in the control module, the first liquid level sensor 83 sends a signal. After receiving the signal, the control module controls the water pump 82 to stop, and the water flow sensor 122 detects that the water is no longer flowing. The water flow sensor 122 sends a signal again, and after receiving the signal, the control module controls the servo motor 124 to turn off. In this way, the solution and precipitant can be fully mixed.

[0049] When chlorine gas is discharged from the exhaust pipe 116, the filter carbon plate 132 filters the chlorine gas. After the filter carbon plate 132 has been used for a period of time, the clamping rod 134 can be twisted to open the opening and closing baffle 133, remove the filter carbon plate 132, install a new filter carbon plate 132, close the opening and closing baffle 133 and twist the clamping rod 134. In this way, the chlorine gas can be filtered to avoid affecting the surrounding environment.

[0050] like Figure 1 , Figure 15 and Figure 16As shown, it also includes an electrical control box 7, which is embedded in the lower front left side of the isolation cylinder 1. The electrical control box 7 includes a switching power supply, a power module, and a control module. The switching power supply supplies power to the entire device. The power module is connected to the main power switch via a line. The control module and the power module are electrically connected. The control module is connected to a DS1302 clock circuit and a 24C02 circuit. The liquid inlet button 71, liquid outlet button 72, lower button 96, upper button 95, detection button 1111, first liquid level sensor 83, second liquid level sensor 117, first pressure sensor 108, second pressure sensor 1110, and water flow sensor 122 are all electrically connected to the control module. The electric push rod 91, servo motor 124, heating module 113, electromagnetic block 109, first ball solenoid valve 85, second ball solenoid valve 114, and water pump 82 are all connected to the control module via peripheral circuits.

[0051] The above description is only a preferred embodiment of the present invention. It should be noted that for those skilled in the art, several improvements and modifications can be made without departing from the principle of the present invention, and these improvements and modifications should also be considered within the scope of protection of the present invention.

Claims

1. A device for detecting the tin content in a solution during circuit board manufacturing, characterized in that, The utility model relates to a kind of liquid storage device, including: Isolation cylinder (1), isolation cylinder (1) one side is equipped with buffer base (2); Protective door (3), protective door (3) is hingedly installed on isolation cylinder (1); Positioning marble (4), positioning marble (4) is symmetrically installed on protective door (3); Fixed frame (6), fixed frame (6) is installed on isolation cylinder (1); Anti-corrosion bottom cylinder (5), anti-corrosion bottom cylinder (5) is installed on fixed frame (6); Liquid inlet button (71), liquid inlet button (71) is installed on isolation cylinder (1); Liquid outlet button (72), liquid outlet button (72) is installed on isolation cylinder (1); Liquid storage mechanism (8), installation is in isolation cylinder (1), for storing solution; Liquid taking mechanism (9), installation is between isolation cylinder (1) and anti-corrosion bottom cylinder (5), for taking out solution; Liquid storage mechanism (8) includes: Liquid inlet pipe (81), liquid inlet pipe (81) is installed on anti-corrosion bottom cylinder (5) and is communicated; Water pump (82), water pump (82) is installed on anti-corrosion bottom cylinder (5), and water pump (82) is cooperated with liquid inlet pipe (81); First liquid level sensor (83), first liquid level sensor (83) is installed on anti-corrosion bottom cylinder (5); Filter plate (84), filter plate (84) is installed on anti-corrosion bottom cylinder (5); Liquid taking mechanism (9) includes: Electric push rod (91), electric push rod (91) is installed on anti-corrosion bottom cylinder (5); Connecting arc plate (94), connecting arc plate (94) is installed on electric push rod (91); Positioning frame (93), positioning frame (93) is installed on connecting arc plate (94); Liquid taking cylinder (92), liquid taking cylinder (92) is installed on positioning frame (93); Rising button (95), rising button (95) is installed on isolation cylinder (1); Lowering button (96), lowering button (96) is installed on isolation cylinder (1); Also including positioning liquid storage mechanism (10), positioning liquid storage mechanism (10) includes: Fixed plate (101), fixed plate (101) is symmetrically installed on anti-corrosion bottom cylinder (5); Positioning guide column (102), positioning guide column (102) is installed on fixed plate (101); Magnetic stripe (103), magnetic stripe (103) is installed on positioning guide column (102); Liquid outlet pipe (104), liquid outlet pipe (104) is installed on anti-corrosion bottom cylinder (5), and liquid outlet pipe (104) is communicated with liquid taking cylinder (92); Electromagnetic block (109), electromagnetic block (109) is slidably installed on positioning guide column (102); Sealing frame (105), sealing frame (105) is installed between two electromagnetic blocks (109); Sealing bottom plate (107), sealing bottom plate (107) is slidably installed on sealing frame (105); Reset spring (106), reset spring (106) is installed between sealing bottom plate (107) and sealing frame (105); First pressure sensor (108), first pressure sensor (108) is installed on electric push rod (91); Spring guide column (1011), spring guide column (1011) is symmetrically installed on liquid taking cylinder (92); The liquid blocking baffle (1010) is slidingly installed between the two spring guide columns (1011); It also includes a detection mechanism (11), which includes: A positioning bottom plate (111) is installed on the anti-corrosion bottom cylinder (5); A detection box (112) is installed on the positioning bottom plate (111); A heating module (113) is installed on the detection box (112); A second spherical electromagnetic valve (114) is installed on the detection box (112); A pressurized chlorine gas tank (115) is installed on the positioning bottom plate (111), and the pressurized chlorine gas tank (115) is fixedly connected and communicated with the detection box (112); A waste gas pipe (116) is installed on the detection box (112) and is communicated; A limiting column (119) is installed on the detection box (112) at intervals; A lifting measurement plate (118) is slidingly installed between the limiting columns (119); A second liquid level sensor (117) is installed on the detection box (112); A second pressure sensor (1110) is installed on the detection box (112); A detection button (1111) is installed on the isolation cylinder (1); It also includes a precipitation mechanism (12), which includes: A precipitant tank (121) is installed on the anti-corrosion bottom cylinder (5); A water flow sensor (122) is installed on the liquid inlet pipe (81); A liquid injection pipe (123) is installed on the anti-corrosion bottom cylinder (5), and the liquid injection pipe (123) is fixedly connected and communicated with the precipitant tank (121); A servo motor (124) is installed on the anti-corrosion bottom cylinder (5); A drive shaft (125) is installed on the output shaft of the servo motor (124); A bevel gear assembly (127) is rotatably installed on the anti-corrosion bottom cylinder (5); A first transmission assembly (126) is installed between the bevel gear assembly (127) and the drive shaft (125); A stirring spiral plate (129) is rotatably installed on the anti-corrosion bottom cylinder (5); A second transmission assembly (128) is installed between the stirring spiral plate (129) and the bevel gear assembly (127).

2. The device for detecting the amount of tin in a solution in a process for producing a wiring board according to claim 1, wherein It also includes a discharge filtering mechanism (13), which includes: A filter cylinder (131) is installed on the anti-corrosion bottom cylinder (5), and the filter cylinder (131) is fixedly connected and communicated with the waste gas pipe (116); Filter carbon plates (132) are installed on the filter cylinder (131) at intervals; The opening and closing baffle (133) is hingedly installed on the filter cylinder (131); The compression bending rod (134) is symmetrically installed on the filter cylinder (131).

3. The device for detecting the amount of tin in a solution in a process for producing a wiring board according to claim 2, characterized by The electric control box (7) is embeddedly installed on one side of the isolation cylinder (1), the electric control box (7) comprises a switching power supply, a power module and a control module, the switching power supply is used for power supply of the whole device, the power module is connected with a power switch through a line, the control module and the power module are electrically connected, the control module is connected with a DS1302 clock circuit and a 24C02 circuit, the liquid inlet button (71), the liquid outlet button (72), the lowering button (96), the lifting button (95), the detection button (1111), the first liquid level sensor (83), the second liquid level sensor (117), the first pressure sensor (108), the second pressure sensor (1110) and the water flow sensor (122) are electrically connected with the control module, and the electric push rod (91), the servo motor (124), the heating module (113), the electromagnetic block (109), the first spherical electromagnetic valve (85), the second spherical electromagnetic valve (114) and the water pump (82) are connected with the control module through a peripheral circuit.

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