Industrial wastewater low temperature evaporation purifier

Abstract

The present invention discloses a low-temperature evaporation purifier for industrial wastewater, which is applied to the technical field of industrial wastewater. The present invention includes a purification mechanism, which includes a tank body, a support is fixedly installed at the bottom of the tank body, an evaporation tank is fixedly installed at the top of the tank body, and a water pump, a raw liquid tank, a water storage tank, a condenser and a compressor are respectively provided on the rear side of the tank body and fixedly connected to the support. The inner side of the tank body is provided with a uniform mechanism that runs through one end of the tank body. When the low-temperature evaporation purifier for industrial wastewater is used, the waste liquid will be purified and separated by the setting of the purification mechanism. In the use of the uniform component, two stirring trends of the waste liquid will be realized at the same time, further ensuring that the waste liquid is heated evenly during the evaporation process, and also avoiding the phenomenon of agglomeration of the waste liquid raw materials that are being evaporated and dried, further improving the efficiency of breaking up the material blocks, and ensuring the use of the purification mechanism.

Description

Technical Field

[0001] The invention belongs to the technical field of industrial wastewater, and in particular relates to a low-temperature evaporation purifier for industrial wastewater. Background Art

[0002] For various types of industrial wastewater generated by chemical production or processing and manufacturing, there is currently a process equipment specially designed and developed based on the core technology of 30°C low-temperature evaporation to match various types of wastewater treatment, reduction or purification and reuse. It can directly evaporate and separate the water in the wastewater through efficient extreme vacuum evaporation technology, and use condensation technology to obtain recycled water. Finally, the recycled water can be reused in the original workshop production or discharged in compliance with the standards, and the maximum recovery rate can reach more than 95%.

[0003] The working principle of low-temperature evaporative purifier is mainly based on the phase change characteristics of substances and the control of temperature and pressure. During the evaporation process, the liquid absorbs the surrounding heat and converts into steam, thereby achieving the effect of cooling. The design principles of low-temperature evaporators mainly include temperature control and pressure control. Temperature control is achieved by connecting the evaporator to the cooling system and taking advantage of the low temperature of the coolant. Pressure control is achieved by setting a pressure control device on the evaporator, such as a safety valve or a pressure sensor, to maintain a stable state inside the evaporator.

[0004] In the prior art, the use of low-temperature evaporative purifiers has the following disadvantages:

[0005] 1. In the treatment of the stock solution, when the stock solution enters the evaporation tank, the stirring shaft in the evaporation tank will stir the boiling and vaporizing stock solution. This structure can ensure that the stock solution is heated evenly, and at the same time prevent the waste formed after the stock solution is evaporated and dried from causing caking and inconvenience in feeding. However, the current stirring shaft has low stock solution stirring efficiency and poor efficiency in preventing material caking when stirring the drying block raw materials.

[0006] 2. The original liquid will become solid blocks after boiling and vaporization. In this case, the feeding efficiency and completeness of the blocks are usually increased by rotating the stirring shaft. However, in the current evaporative purifiers, some solid blocks from the previous round still remain in some evaporating tanks during the operation of a new round of waste liquid. In this case, although both rounds are filled with waste liquid, it is impossible to draw a complete and accurate data conclusion on the purification ratio of the waste liquid. Moreover, if the interval between the two rounds is long, the blocks will stick to the inner wall, which will affect the subsequent operation of the stirring shaft and shorten the service life of the steam purifier. Summary of the invention

[0007] The purpose of the present invention is to provide a low-temperature evaporation purifier for industrial wastewater, which has the advantages of ensuring uniform heating of the waste liquid during the evaporation process, while also preventing the caking of the waste liquid raw materials that are being evaporated and dried, further improving the efficiency of breaking up the material blocks, and ensuring the use of the purification mechanism; pushing the material blocks that are not completely discharged by themselves, promoting the complete discharge of the material blocks, ensuring the completeness of the discharge, and avoiding the residual material blocks from affecting the use of the subsequent purifier. And this structure is conducive to reducing the number of driving devices, saving the cumbersome maintenance of multiple driving devices.

[0008] The above technical objectives of the present invention are achieved through the following technical solutions: a low-temperature evaporation purifier for industrial wastewater, comprising a purification mechanism, the purification mechanism comprising a tank body, a support is fixedly installed at the bottom of the tank body, an evaporation tank is fixedly installed on the top of the tank body, and a water pump, a raw liquid tank, a water storage tank, a condenser and a compressor fixedly connected to the support are respectively provided on the rear side of the tank body, a uniform mechanism penetrating to one end of the tank body is provided on the inner side of the tank body, the uniform mechanism comprises a uniform component, a moving component is provided on the top of the uniform component, and a meshing component and a driving component are respectively provided on the bottom of the moving component.

[0009] By adopting the above technical scheme, when the low-temperature evaporation purifier for industrial wastewater is used, the waste liquid will be purified and separated by the setting of the purification mechanism. In the use of the uniform component, two stirring trends of the waste liquid will be realized at the same time, further ensuring that the waste liquid is heated evenly during the evaporation process, and also avoiding the phenomenon of agglomeration of the waste liquid raw materials that are being evaporated and dried, further improving the efficiency of breaking up the material blocks, and ensuring the use of the purification mechanism. At the same time, in the use of the low-temperature evaporation purifier for industrial wastewater, the meshing transmission of the meshing component can be controlled by the operation of the driving component. After the waste material is evaporated and separated, and the clean water is transferred and stored, the setting of the meshing component can be adjusted to make the purifier stop the operation of the uniform component and realize the transmission of the moving component. The setting of the moving component will push the material blocks that are not completely discharged autonomously, promote the complete discharge of the material blocks, ensure the completeness of the discharge, and avoid the residual material blocks from affecting the use of the subsequent purifier. And this structure is conducive to reducing the number of driving devices and saving the cumbersome maintenance of multiple driving devices.

[0010] The present invention is further configured as follows: a bracket fixedly connected to a support is provided on the top of the water pump, a vacuum pump is fixedly installed on the top of the bracket, an air inlet of the vacuum pump is connected to a ventilation pipe connected to a tank body, a top of the raw liquid tank is connected to a water replenishment pipe, a water inlet of the water pump is connected to a connecting pipe 1 connected to the bottom of the raw liquid tank, a water outlet of the water pump is connected to a connecting pipe 2, one end of the connecting pipe 2 is connected to a three-way pipe connected to the tank body, an air outlet of the evaporation tank is connected to a connecting pipe 3 connected to the tank body, outlets penetrating to the inner side of the tank body are equidistantly installed on the surface of the connecting pipe 3, and a cavity for accommodating the outlet is provided on the inner side of the tank body.

[0011] With the above technical solution, the bracket supports the vacuum pump, and the ventilation pipe cooperates with the operation of the vacuum pump to draw the inside of the tank into a vacuum state. The water supply pipe is connected to the outside to replenish the waste liquid in the stock liquid tank. During the operation of the water pump, the waste liquid in the stock liquid tank is extracted and transferred to the inside of the tank through the setting of connecting pipe 1 and connecting pipe 2. When the evaporation tank is connected to the device that provides the coolant, the generated steam is transferred to the outlet through the setting of connecting pipe 3, and then the inside of the cavity is evenly heated through multiple outlets.

[0012] The present invention is further configured as follows: the bottom of one end of the tank body is connected to a drain pipe, a valve one is installed on the drain pipe, one end of the compressor is connected to a connecting pipe four connected to the tank body, the other end of the compressor is connected to the water inlet of the condenser, the water outlet of the condenser is connected to a connecting pipe five connected to a water storage tank, the bottom of the water storage tank is connected to a drain pipe, and a valve two is installed on the drain pipe.

[0013] With the above technical solution, the drain pipe will be used to discharge the material blocks after boiling and evaporation inside the tank, and valve 1 will be used in conjunction with the drain pipe for control. During the operation of the compressor, the connection pipe 4 will be used to transfer the steam generated by boiling inside the tank to the condenser, and then the clean water condensed into water through the heat exchange of the condenser will be accumulated in the water storage tank through the connection pipe 5. When the clean water in the water storage tank needs to be used, it can be used flexibly through the setting of the drain pipe and valve 2, and valve 2 will be used in conjunction with the drain pipe for control.

[0014] The present invention is further configured as follows: the uniform component includes an outer rod, the outer rod and the inner side of the tank body are rotatably connected to each other through a bearing, a stirring rod 1 is fixedly installed on the surface of the outer rod, an inner rod rotatably connected to the inner side of the tank body is sleeved inside the outer rod, a stirring rod 2 penetrating to the surface of the outer rod is fixedly installed on the surface of the inner rod, and one end of the outer rod penetrates into one end of the tank body and is fixedly sleeved with a bevel gear 1.

[0015] By adopting the above technical solution, the rotation of bevel gear 1 will drive the outer rod to rotate, and the rotation of the outer rod will drive stirring rod 1 to achieve uniform stirring of the raw liquid that is gradually drying inside the tank body, thereby ensuring uniform heating of the raw liquid inside the tank body. The rotation of the inner rod will drive stirring rod 2 to rotate, further cooperating with the raw liquid inside the tank body for mixing, thereby achieving the effect of improving uniform efficiency.

[0016] The present invention is further configured as follows: one end of the inner rod passes through one end of the tank body and is fixedly sleeved with a bevel gear 2, bevel gear 1 and bevel gear 2 are mutually meshed with a bevel gear 2, a support rod is fixedly sleeved inside the bevel gear 2, the surfaces of one end of the outer rod and the inner rod are mutually sleeved with support members through bearings, the support member and the support rod are rotatably connected to each other and are fixedly connected to one end of the tank body.

[0017] With the above technical solution, the rotation of the inner rod will drive the bevel gear 2 to rotate, wherein the rotation of the bevel gear 2 will drive the bevel gear 3 to rotate synchronously with the support rod, and the support rod supports the bevel gear 3 and cooperates with it to rotate smoothly. The support member will support and cooperate with the support rod, the inner rod and the outer rod. The rotation of the bevel gear 3 will drive the bevel gear 1 to rotate, wherein the transmission of the bevel gear 3 will realize the reverse rotation between the bevel gear 1 and the bevel gear 2.

[0018] The present invention is further configured as follows: the moving assembly includes a twisted shaft, the twisted shaft is rotatably connected to the inner side of the tank body and penetrates to one end of the tank body, a ring is sleeved on the surface of the twisted shaft, a clamping piece for clamping with the twisted shaft is fixedly installed on the inner side of the ring, a slider is fixedly installed on the top of the ring, a sliding groove is provided on the inner side of the tank body for cooperating with the sliding of the slider, a push plate is fixedly installed on the bottom of the ring, an inner groove is provided inside the push plate, and the inner groove cooperates with the outer rod and the stirring rod to penetrate and accommodate them.

[0019] By adopting the above technical solution, the rotation of the twist shaft will realize the lateral movement of the sleeve on the surface of the twist shaft through the setting of the clamp and the sleeve, and the sleeve will drive the push plate to move synchronously, and the slider and the slide groove will guide the movement of the sleeve and the push plate. When it is necessary to operate the component, the stirring rod 1 will stop rotating and remain in a vertical state. At this time, the moving push plate will pass through the opening of the inner groove without affecting the static state of the stirring rod 1. At the same time, it can also help scrape off the dry material blocks adhering to the surface of the stirring rod 1, ensuring the cleanliness of the outer rod, stirring rod 1 and stirring rod 2.

[0020] The present invention is further configured as follows: the meshing assembly includes a rotating motor, the rotating motor is fixedly connected to one end of the tank body, the output end of the rotating motor is fixedly sleeved with a rotating rod through a coupling, the surface of the rotating rod is respectively fixedly sleeved with a rotating gear 1 and a rotating gear 2, the surfaces of the rotating gear 1 and the rotating gear 2 are both fixedly sleeved with meshing gears, and the two meshing gears are respectively sleeved on the inner rod and the surface of the twisted shaft.

[0021] By adopting the above technical solution, during the operation of the rotating motor, the rotating rod will be driven to rotate, and the rotating gear 1 and the rotating gear 2 will be driven to rotate synchronously, wherein the rotating gear 1 and the rotating gear 2 will respectively drive the two meshing gears to rotate.

[0022] The present invention is further configured as follows: the surfaces of the inner rod and one end of the twisted shaft are both rotatably sleeved with an internal gear through a bearing, the internal gear and the meshing gear are fixedly sleeved with each other, the surfaces of the inner rod and the twisted shaft are both sleeved with a shift ring, the surfaces of the two shift rings are both fixedly sleeved with an external gear, the external gear and the internal gear are meshed with each other, the inner rod and one end of the twisted shaft are both fixedly installed with a clamping strip, and the interior of the shift ring is provided with a clamping groove for cooperating with the clamping strip.

[0023] By adopting the above technical solution, the rotation of the meshing gear will drive the internal gear to rotate, and the two internal gears are both connected to the inner rod and the twisted shaft in rotation, so that the internal gear is not enough to drive the inner rod and the twisted shaft to rotate synchronously. When the outer rod needs to rotate, the outer gear on the surface of the outer rod is driven to move by moving the shift ring. In the movement of the shift ring, the moving snap-in on the surface of the snap-in strip is realized by the snap-in groove. At the same time, it is precisely because of the setting of the snap-in strip and the snap-in groove that the outer rod and the twisted shaft can drive the shift ring to rotate while the shift ring can move smoothly on both surfaces. When the outer gear at the required corresponding position is meshed with the inner gear, the meshing gear on the surface of the outer rod will be able to drive the inner gear, the outer gear, the shift ring and the outer rod to rotate synchronously, and the rotation of the outer rod will be realized. And the rotation operation of the twisted shaft is the same as above. In use, the rotation of the outer rod and the twisted shaft will be staggered due to the setting of the shift ring.

[0024] The present invention is further configured as follows: the driving assembly includes a socket plate, the number of the socket plates is two, the shift ring and the socket plate are rotatably socketed with each other, a connecting plate is fixedly connected to each other between the two socket plates, an electric telescopic rod is provided at one end of the tank body, the output end of the electric telescopic rod and the connecting plate are fixedly connected to each other, and a fixing part fixedly connected to one end of the tank body is fixedly socketed on the surface of the electric telescopic rod.

[0025] By adopting the above technical solution, during the operation of the electric telescopic rod, the connecting plate and the two socket plates will be driven to move synchronously, and the socket plates will drive the moving ring to achieve lateral movement, and the fixing member will support and fix the electric telescopic rod.

[0026] In summary, the present invention has the following beneficial effects:

[0027] When using the low-temperature evaporation purifier for industrial wastewater, the waste liquid will be purified and separated through the setting of the purification mechanism. In the use of the uniform component, two stirring trends of the waste liquid will be realized at the same time, further ensuring that the waste liquid is heated evenly during the evaporation process, while also avoiding the phenomenon of agglomeration of the evaporating waste liquid raw materials, further improving the efficiency of breaking up the material blocks and ensuring the use of the purification mechanism;

[0028] In the use of the low-temperature evaporation purifier for industrial wastewater, the meshing transmission of the meshing component can be controlled by the operation of the driving component. After the waste is evaporated and separated, and the clean water is transferred and stored, the setting of the meshing component can be adjusted to stop the operation of the uniform component of the purifier and realize the transmission of the moving component. The setting of the moving component will push the material blocks that are not fully discharged by themselves, promote the complete discharge of the material blocks, ensure the completeness of the discharge, and avoid the residual material blocks from affecting the subsequent use of the purifier. And this structure is conducive to reducing the number of driving devices and saving the cumbersome maintenance of multiple driving devices. BRIEF DESCRIPTION OF THE DRAWINGS

[0029] Figure 1 It is a three-dimensional structural schematic diagram of the present invention;

[0030] Figure 2 It is a schematic diagram of the decomposition of the purification mechanism of the present invention;

[0031] Figure 3 It is an enlarged schematic diagram of the purification mechanism of the present invention;

[0032] Figure 4 It is an enlarged schematic diagram of the tank body and the uniform mechanism of the present invention;

[0033] Figure 5 It is an enlarged schematic diagram of the cross-section of the uniform mechanism and the tank body of the present invention;

[0034] Figure 6 It is an enlarged schematic cross-sectional view of the tee pipe, the connecting pipe 3 and the tank body of the present invention;

[0035] Figure 7 It is an exploded and enlarged schematic diagram of the uniform component of the present invention;

[0036] Figure 8 is a second enlarged schematic diagram of the outer rod and the bevel gear of the present invention;

[0037] Fig. 9 It is an enlarged schematic diagram of the uniform assembly, the meshing assembly and the driving assembly of the present invention;

[0038] Fig.10 It is an exploded and enlarged schematic diagram of the uniform component and the meshing component of the present invention;

[0039] Fig.11 is an enlarged schematic diagram of the moving assembly and the engaging assembly of the present invention;

[0040] Fig.12 It is a partially exploded and enlarged schematic diagram of the moving component and the meshing component of the present invention;

[0041] Fig.13 is an enlarged schematic diagram of the engagement assembly and the drive assembly of the present invention;

[0042] Fig.14 It is an exploded and enlarged schematic diagram of the meshing assembly and the driving assembly of the present invention.

[0043] Reference numerals:

[0044] 1. Purification mechanism; 101. Tank body; 102. Evaporation tank; 103. Support; 104. Raw liquid tank; 105. Water supply pipe; 106. Water pump; 107. Connecting pipe 1; 108. Connecting pipe 2; 109. Tee pipe; 1010. Connecting pipe 3; 1011. Drain pipe; 1012. Valve 1; 1013. Compressor; 1014. Connecting pipe 4; 1015. Condenser; 1016. Water storage tank; 1017. Connecting pipe 5; 1018. Drain pipe; 1019. Valve 2; 1020. Support; 1021. Vacuum pump; 1022. Ventilation pipe; 1023. Outlet; 1024. Cavity;

[0045] 2. Uniform mechanism; 201. Uniform assembly; 2011. Outer rod; 2012. Stirring rod 1; 2013. Inner rod; 2014. Stirring rod 2; 2015. Conical gear 1; 2016. Conical gear 2; 2017. Conical gear 3; 2018. Support rod; 2019. Support member; 202. Moving assembly; 2021. Twisted shaft; 2022. Ring; 2023. Snap-on member; 2024. Slider; 2025. Slide; 2026. Push plate ; 2027, inner groove; 203, meshing assembly; 2031, rotating motor; 2032, rotating rod; 2033, rotating gear one; 2034, rotating gear two; 2035, meshing gear; 2036, inner gear; 2037, outer gear; 2038, shift ring; 2039, snap-in strip; 20310, snap-in groove; 204, driving assembly; 2041, socket plate; 2042, connecting plate; 2043, electric telescopic rod; 2044, fixing part. DETAILED DESCRIPTION

[0046] The present invention is further described in detail below in conjunction with the accompanying drawings.

[0047] Embodiment 1:

[0048] refer to Figure 1 , Figure 2 , Figure 3 , Figure 4 , Figure 5 , Figure 6 , Figure 7 , Figure 8 , Fig. 9 , Fig.10 The low-temperature evaporation purifier for industrial wastewater includes a purification mechanism 1, which includes a tank body 101, a support 103 is fixedly installed at the bottom of the tank body 101, an evaporation tank 102 is fixedly installed at the top of the tank body 101, and a water pump 106, a raw liquid tank 104, a water storage tank 1016, a condenser 1015 and a compressor 1013 are respectively provided on the rear side of the tank body 101, which are fixedly connected to the support 103. The inner side of the tank body 101 is provided with a uniform mechanism 2 that runs through one end of the tank body 101, and the uniform mechanism 2 includes a uniform component 201. When the low-temperature evaporation purifier for industrial wastewater is used, the waste liquid will be purified and separated by the setting of the purification mechanism 1. In the use of the uniform component 201, two stirring trends of the waste liquid will be realized at the same time, which further ensures that the waste liquid is heated evenly during the evaporation process, and also avoids the phenomenon of agglomeration of the waste liquid raw materials that are being evaporated and dried, further improves the efficiency of breaking up the material blocks, and ensures the use of the purification mechanism 1.

[0049] refer to Figure 1 , Figure 2 , Figure 3The top of the water pump 106 is provided with a bracket 1020 fixedly connected to the support 103, and a vacuum pump 1021 is fixedly installed on the top of the bracket 1020. The air inlet of the vacuum pump 1021 is connected to a vent pipe 1022 connected to the tank body 101. The top of the raw liquid tank 104 is connected to a water supply pipe 105. The water inlet of the water pump 106 is connected to a connecting pipe 107 connected to the bottom of the raw liquid tank 104. The water outlet of the water pump 106 is connected to a connecting pipe 2 108. One end of the connecting pipe 108 is connected to The three-way pipe 109 is connected to the tank body 101, and the outlet of the evaporation tank 102 is connected to the connection pipe 3 1010 connected to the tank body 101. The surface of the connection pipe 3 1010 is equidistantly installed with outlets 1023 penetrating to the inside of the tank body 101. The inside of the tank body 101 is provided with a cavity 1024 for the outlet 1023 to penetrate and accommodate. The bracket 1020 supports the vacuum pump 1021, and the vent pipe 1022 cooperates with the operation of the vacuum pump 1021 to extract the inside of the tank body 101 to a vacuum state. The water supply pipe 105 is connected to the outside to replenish the waste liquid in the raw liquid tank 104. When the water pump 106 is in operation, the waste liquid in the raw liquid tank 104 is extracted and transferred to the inside of the tank body 101 through the setting of the connection pipe 1 107 and the connection pipe 2 108. When the evaporation tank 102 is connected to the device providing the cooling liquid, the generated steam is transferred to the outlet 1023 through the setting of the connecting pipe three 1010, and then the interior of the cavity 1024 is evenly heated through the multiple outlets 1023.

[0050] refer to Figure 1 , Figure 2 , Figure 3 The bottom of one end of the tank body 101 is connected with a drain pipe 1011, and a valve 1012 is installed on the drain pipe 1011. One end of the compressor 1013 is connected with a connecting pipe 1014 connected with the tank body 101. The other end of the compressor 1013 is connected with the water inlet of the condenser 1015. The water outlet of the condenser 1015 is connected with a connecting pipe 1017 connected with the water storage tank 1016. The bottom of the water storage tank 1016 is connected with a drain pipe 1018, and a valve 1019 is installed on the drain pipe 1018. The drain pipe 1011 is used to discharge the material blocks after boiling and evaporation inside the tank body 101, and the valve 1012 is used in conjunction with the drain pipe 1011 for control. During the operation of the compressor 1013, the connection pipe 1014 is used to transfer the steam generated by boiling inside the tank 101 to the condenser 1015, and then the clean water condensed into water through the heat exchange of the condenser 1015 is stored in the water storage tank 1016 through the connection pipe 1017. When the clean water in the water storage tank 1016 needs to be used, it can be flexibly used through the settings of the drain pipe 1018 and the valve 1019, wherein the valve 1019 cooperates with the drain pipe 1018 to control the use.

[0051] refer to Figure 5 , Figure 7 , Figure 8 The uniform assembly 201 includes an outer rod 2011, which is rotatably connected to the inner side of the tank body 101 through a bearing, a stirring rod 2012 is fixedly installed on the surface of the outer rod 2011, an inner rod 2013 rotatably connected to the inner side of the tank body 101 is sleeved inside the outer rod 2011, a stirring rod 2014 penetrating the surface of the outer rod 2011 is fixedly installed on the surface of the inner rod 2013, and one end of the outer rod 2011 penetrates one end of the tank body 101 and is fixedly sleeved with a bevel gear 2014. 2015, when the bevel gear 1 2015 rotates, the outer rod 2011 will be driven to rotate, and the rotation of the outer rod 2011 will drive the stirring rod 1 2012 to achieve uniform stirring of the raw liquid that is gradually drying inside the tank body 101, thereby ensuring that the raw liquid inside the tank body 101 is heated uniformly, wherein when the inner rod 2013 rotates, the stirring rod 2 2014 will be driven to rotate, and the raw liquid inside the tank body 101 will be further mixed and used, so as to achieve the effect of improving uniform efficiency.

[0052] refer to Figure 7 , Figure 8 , Fig. 9 One end of the inner rod 2013 penetrates through one end of the tank body 101 and is fixedly sleeved with a bevel gear 2016. The bevel gear 2015 and the bevel gear 2016 are meshed with each other with a bevel gear 2016. The inside of the bevel gear 2016 is fixedly sleeved with a support rod 2018. The surfaces of the outer rod 2011 and one end of the inner rod 2013 are sleeved with a support member 2019 through a bearing. The support member 2019 and the support rod 2018 are rotatably connected to each other and fixedly connected to one end of the tank body 101. The rotation of the inner rod 2013 will drive the bevel gear 2016 to rotate, wherein the rotation of the bevel gear 2016 will drive the bevel gear 3 2017 and the support rod 2018 to rotate synchronously, and the support rod 2018 supports the bevel gear 3 2017 and cooperates with it to rotate smoothly. The support member 2019 supports and cooperates the support rod 2018, the inner rod 2013 and the outer rod 2011. The rotation of the bevel gear three 2017 drives the bevel gear one 2015 to rotate, and the transmission of the bevel gear three 2017 realizes the reverse rotation between the bevel gear one 2015 and the bevel gear two 2016.

[0053] Brief description of the use process: When the low-temperature evaporation purifier for industrial wastewater is used, the waste liquid will be connected to the outside through the water supply pipe 105 to replenish the waste liquid in the original liquid tank 104. The ventilation pipe 1022 cooperates with the operation of the vacuum pump 1021 to extract the inside of the tank body 101 to a vacuum state. During the operation of the water pump 106, the waste liquid in the original liquid tank 104 will be extracted and transferred to the inside of the tank body 101 through the setting of the connecting pipe 1 107 and the connecting pipe 2 108. When the steam tank is connected to the equipment providing the coolant, the generated steam is transferred to the outlet 1023 through the setting of the connecting pipe 3 1010, and then the inside of the cavity 1024 is evenly heated through the multiple outlets 1023. This setting will achieve the gradual evaporation and separation of the waste liquid inside the tank body 101. During the operation of the compressor 1013, the connection pipe 1014 will be arranged to transfer the steam generated by boiling inside the tank 101 to the condenser 1015, and then the clean water condensed into water through the heat exchange of the condenser 1015 will be stored in the water storage tank 1016 through the connection pipe 1017. When the clean water in the water storage tank 1016 needs to be used, it can be used flexibly through the arrangement of the drain pipe 1018 and the valve 1019, wherein the valve 1019 cooperates with the drain pipe 1018 to control the use. At the same time, the sewage pipe 1011 will cooperate with the material blocks after boiling and evaporation inside the tank 101 to discharge the material, wherein the valve 1012 cooperates with the sewage pipe 1011 to control the use. In the rotation of the stirring rod 1 2012 and the stirring rod 2 2014, two stirring trends of the waste liquid will be realized at the same time. The rotation of the inner rod 2013 will drive the bevel gear 2 2016 to rotate, wherein the rotation of the bevel gear 2 2016 will drive the bevel gear 3 2017 and the support rod 2018 to rotate synchronously, and the support rod 2018 supports the bevel gear 3 2017 and cooperates with it to rotate smoothly. The support member 2019 will support and cooperate with the support rod 2018, the inner rod 2013 and the outer rod 2011. The rotation of the bevel gear 3 2017 will drive the bevel gear 1 2015 to rotate, wherein the transmission of the bevel gear 3 2017 will realize the reverse rotation between the bevel gear 1 2015 and the bevel gear 2 2016. The rotation of the bevel gear 1 2015 will drive the outer rod 2011 to rotate, and the rotation of the outer rod 2011 will drive the stirring rod 1 2012 to achieve uniform stirring of the raw liquid that is gradually drying inside the tank body 101, thereby ensuring uniform heating of the raw liquid inside the tank body 101, wherein the rotation of the inner rod 2013 will drive the stirring rod 2 2014 to rotate, further cooperating with the raw liquid inside the tank body 101 for mixing and use, thereby achieving the effect of improving uniform efficiency. This arrangement will further ensure uniform heating of the waste liquid during the evaporation process, while also preventing the waste liquid raw material that is being evaporated from caking, further improving the efficiency of breaking up the material blocks, and ensuring the use of the purification mechanism 1.

[0054] Embodiment 2:

[0055] refer to Figure 1 , Figure 4 , Figure 5 , Fig. 9 , Fig.10 , Fig.11 , Fig.12 , Fig.13 , Fig.14 The low-temperature evaporation purifier for industrial wastewater includes a purification mechanism 1, a moving component 202 is provided on the top of a uniform component 201, and a meshing component 203 and a driving component 204 are provided on the bottom of the moving component 202. In the use of the low-temperature evaporation purifier for industrial wastewater, the meshing transmission of the meshing component 203 can be controlled by the operation of the driving component 204. After the waste is evaporated and separated, and the clean water is transferred and stored, the setting of the meshing component 203 can be adjusted to make the purifier stop the operation of the uniform component 201 and realize the transmission of the moving component 202. The setting of the moving component 202 will push the material blocks that are not fully discharged by themselves, promote the complete discharge of the material blocks, ensure the completeness of the discharge, and avoid the residual material blocks from affecting the use of the subsequent purifier. And this structure is conducive to reducing the number of driving devices and saving the cumbersome maintenance of multiple driving devices.

[0056] refer to Figure 5 , Fig.11 , Fig.12The moving assembly 202 includes a twisted shaft 2021, which is rotatably connected to the inner side of the tank body 101 and penetrates one end of the tank body 101. A collar 2022 is sleeved on the surface of the twisted shaft 2021. A clamping piece 2023 for clamping with the twisted shaft 2021 is fixedly installed on the inner side of the collar 2022. A slider 2024 is fixedly installed on the top of the collar 2022. A slide groove 2025 for sliding with the slider 2024 is opened on the inner side of the tank body 101. The bottom of the collar 2022 is fixedly installed with a Push plate 2026, an inner groove 2027 is opened inside the push plate 2026, and the inner groove 2027 cooperates with the outer rod 2011 and the stirring rod 2012 to penetrate and accommodate. The rotation of the twisted shaft 2021 will realize the lateral movement of the ring 2022 on the surface of the twisted shaft 2021 through the setting of the clamping piece 2023 and the ring 2022. At the same time, the ring 2022 will drive the push plate 2026 to move synchronously, and the slider 2024 and the slide groove 2025 guide the movement of the ring 2022 and the push plate 2026. When it is necessary to operate the component, the stirring rod 2012 will stop rotating and remain in a vertical state. At this time, the moving push plate 2026 will pass through the opening of the inner groove 2027, which will not affect the static state of the stirring rod 2012. At the same time, it can also help scrape off the dried material blocks adhered to the surface of the stirring rod 2012, thereby ensuring the cleanliness of the outer rod 2011, the stirring rod 2012 and the stirring rod 2 2014.

[0057] refer to Figure 5 , Fig.11 , Fig.12 The meshing assembly 203 includes a rotating motor 2031, which is fixedly connected to one end of the tank body 101. The output end of the rotating motor 2031 is fixedly sleeved with a rotating rod 2032 through a coupling. The surfaces of the rotating rod 2032 are respectively fixedly sleeved with a rotating gear 1 2033 and a rotating gear 2 2034. The surfaces of the rotating gear 1 2033 and the rotating gear 2 2034 are both fixedly sleeved with a meshing gear 2035. The two meshing gears 2035 are respectively sleeved on the surfaces of the inner rod 2013 and the twisted shaft 2021. When the rotating motor 2031 is running, it will drive the rotating rod 2032 to rotate, and at the same time drive the rotating gear 1 2033 and the rotating gear 2 2034 to rotate synchronously, wherein the rotating gear 1 2033 and the rotating gear 2 2034 will respectively drive the two meshing gears 2035 to rotate.

[0058] refer to Fig.11 , Fig.12 , Fig.13The surfaces of the inner rod 2013 and one end of the twisted shaft 2021 are both rotatably sleeved with an internal gear 2036 through a bearing, and the internal gear 2036 and the meshing gear 2035 are fixedly sleeved with each other. The surfaces of the inner rod 2013 and the twisted shaft 2021 are both sleeved with a transfer ring 2038, and the surfaces of the two transfer rings 2038 are both fixedly sleeved with an external gear 2037, and the external gear 2037 and the internal gear 2036 are meshed with each other for use. The inner rod 2013 and the twisted shaft 2021 are both sleeved with a transfer ring 2038, and the surfaces of the two transfer rings 2038 are both fixedly sleeved with an external gear 2037, and the external gear 2037 and the internal gear 2036 are used to mesh with each other. A clamping strip 2039 is fixedly mounted on one end of the shaft 2021, and a clamping groove 20310 is provided inside the shift ring 2038 for clamping with the clamping strip 2039. The rotation of the meshing gear 2035 drives the inner gear 2036 to rotate, and the two inner gears 2036 are both rotatably connected with the inner rod 2013 and the twisted shaft 2021, so that the inner gear 2036 is not sufficient to drive the inner rod 2013 and the twisted shaft 2021 to rotate synchronously. When the outer rod 2011 needs to rotate, the outer gear 2037 on the surface of the outer rod 2011 is driven to move by moving the shift ring 2038. When the moving ring 2038 moves, the moving engagement on the surface of the engaging strip 2039 will be realized through the engaging groove 20310. At the same time, it is precisely because of the setting of the engaging strip 2039 and the engaging groove 20310 that the outer rod 2011 and the twisted shaft 2021 can drive the moving ring 2038 to rotate, and the moving ring 2038 can move smoothly on both surfaces. When the outer gear 2037 at the required corresponding position is meshed with the inner gear 2036, the meshing gear 2035 on the surface of the outer rod 2011 can drive the inner gear 2036, the outer gear 2037, the moving ring 2038 and the outer rod 2011 to rotate synchronously, and the rotation of the outer rod 2011 will be realized. The rotation operation of the twisted shaft 2021 is the same as above. In use, the rotation of the outer rod 2011 and the twisted shaft 2021 will be staggered due to the setting of the moving ring 2038.

[0059] refer to Figure 5 , Fig.13 , Fig.14 The driving component 204 includes a socket plate 2041, and there are two socket plates 2041. The moving ring 2038 and the socket plate 2041 are rotatably socketed with each other, and a connecting plate 2042 is fixedly connected between the two socket plates 2041. An electric telescopic rod 2043 is provided at one end of the tank body 101, and the output end of the electric telescopic rod 2043 and the connecting plate 2042 are fixedly connected to each other. A fixing piece 2044 fixedly connected to one end of the tank body 101 is fixedly socketed on the surface of the electric telescopic rod 2043. When the electric telescopic rod 2043 is in operation, the connecting plate 2042 and the two socket plates 2041 will be driven to move synchronously, and the socket plate 2041 drives the moving ring 2038 to achieve lateral movement, and the fixing piece 2044 supports and fixes the electric telescopic rod 2043.

[0060] Brief description of the use process: In the use of the low-temperature evaporation purifier for industrial wastewater, the operation of the rotating motor 2031 will drive the rotating rod 2032 to rotate, and at the same time drive the rotating gear 1 2033 and the rotating gear 2 2034 to rotate synchronously, wherein the rotating gear 1 2033 and the rotating gear 2 2034 will respectively drive the two meshing gears 2035 to rotate. The rotation of the meshing gear 2035 will drive the inner gear 2036 to rotate, and the two inner gears 2036 are both connected to the inner rod 2013 and the twisted shaft 2021 in rotation, so that the inner gear 2036 is not enough to drive the inner rod 2013 and the twisted shaft 2021 to rotate synchronously. When it is necessary to realize the rotation of the outer rod 2011, the operation of the electric telescopic rod 2043 will drive the connecting plate 2042 and the two socket plates 2041 to move synchronously, and the socket plate 2041 drives the shift ring 2038 to achieve lateral movement. The movement of the shift ring 2038 drives the outer gear 2037 on the surface of the outer rod 2011 to move. When the shift ring 2038 moves, the snap-in groove 20310 is used to realize the moving snap-in connection on the surface of the snap-in strip 2039. At the same time, it is precisely because of the setting of the snap-in strip 2039 and the snap-in groove 20310 that the outer rod 2011 and the twisted shaft 2021 can drive the shift ring 2038 to rotate while enabling the shift ring 2038 to move smoothly on both surfaces. When the outer gear 2037 at the required corresponding position is meshed with the inner gear 2036, the meshing gear 2035 on the surface of the outer rod 2011 can drive the inner gear 2036, the outer gear 2037, the shift ring 2038 and the outer rod 2011 to rotate synchronously, and the rotation of the outer rod 2011 is realized. The rotation operation of the twisted shaft 2021 is the same as above. In use, the rotation of the outer rod 2011 and the twisted shaft 2021 will be staggered due to the setting of the shift ring 2038. The meshing transmission of the inner gear 2036 and the outer gear 2037 can be controlled by the operation of the electric telescopic rod 2043. After the waste is evaporated and separated in the tank body 101, and the clean water is transferred and stored, the setting of the shift ring 2038 can be adjusted to make the purifier stop the rotation of the outer rod 2011 and the inner rod 2013, and realize the transmission of the twisted shaft 2021. Through this setting, the material blocks that are not completely discharged autonomously inside the tank body 101 will be pushed, which will promote the complete discharge of the material blocks, ensure the completeness of the discharge, and avoid the residual material blocks from affecting the subsequent use of the purifier. In addition, this structure is conducive to reducing the number of driving devices and saving the cumbersome maintenance of multiple driving devices.

[0061] This specific embodiment is merely an explanation of the present invention and is not a limitation of the present invention. After reading this specification, those skilled in the art may make non-creative modifications to the present embodiment as needed. However, as long as they are within the scope of the claims of the present invention, they are protected by the patent law.

Claims

1. A low-temperature evaporation purifier for industrial wastewater, comprising a purification mechanism (1), characterized in that: The purification mechanism (1) comprises a tank body (101), a support (103) being fixedly mounted on the bottom of the tank body (101), an evaporation tank (102) being fixedly mounted on the top of the tank body (101), a water pump (106) fixedly connected to the support (103), a raw liquid tank (104), a water storage tank (1016), a condenser (1015) and a compressor (1013) being respectively disposed on the rear side of the tank body (101), and a uniform mechanism (2) penetrating to one end of the tank body (101) being disposed on the inner side of the tank body (101), the uniform mechanism (2) comprising a uniform component (201), the uniform component (201) comprising an outer rod (2011), the outer rod (2011) being connected to the tank body (101). 1) The inner sides are rotatably connected to each other via a bearing, a stirring rod 1 (2012) is fixedly mounted on the surface of the outer rod (2011), an inner rod (2013) is sleeved inside the outer rod (2011) and is rotatably connected to the inner side of the tank body (101), a stirring rod 2 (2014) is fixedly mounted on the surface of the inner rod (2013) and penetrates the surface of the outer rod (2011), one end of the outer rod (2011) penetrates one end of the tank body (101) and is fixedly sleeved with a bevel gear 1 (2015), one end of the inner rod (2013) penetrates one end of the tank body (101) and is fixedly sleeved with a bevel gear 2 (2016), and a bevel gear 1 (2015) and a bevel gear 2 (2016) are interlocked between the bevel gear 1 (2015) and the bevel gear 2 (2016). A bevel gear three (2017) is meshed with each other, a support rod (2018) is fixedly sleeved inside the bevel gear three (2017), a support member (2019) is sleeved on the surface of one end of the outer rod (2011) and the inner rod (2013) via a bearing, the support member (2019) and the support rod (2018) are rotatably connected to each other and are fixedly connected to one end of the tank body (101), a moving component (202) is provided on the top of the uniform component (201), the moving component (202) includes a twisted shaft (2021), the twisted shaft (2021) is rotatably connected to the inside of the tank body (101) and penetrates to one end of the tank body (101), and the bottom of the moving component (202) The parts are respectively provided with a meshing assembly (203) and a driving assembly (204), the meshing assembly (203) comprising a rotating motor (2031), the rotating motor (2031) and one end of the tank body (101) being fixedly connected to each other, the output end of the rotating motor (2031) being fixedly sleeved with a rotating rod (2032) via a coupling, the surface of the rotating rod (2032) being respectively fixedly sleeved with a rotating gear 1 (2033) and a rotating gear 2 (2034), the surfaces of the rotating gear 1 (2033) and the rotating gear 2 (2034) being meshed with meshing gears (2035), and the two meshing gears (2035) being respectively sleeved on the surfaces of the inner rod (2013) and the twisted shaft (2021).

2. The low-temperature evaporation purifier for industrial wastewater according to claim 1 is characterized in that: The top of the water pump (106) is provided with a bracket (1020) fixedly connected to the support (103); the top of the bracket (1020) is fixedly mounted with a vacuum pump (1021); the air inlet of the vacuum pump (1021) is connected to a vent pipe (1022) connected to the tank body (101); the top of the stock liquid tank (104) is connected to a water supply pipe (105); the water inlet of the water pump (106) is connected to a connecting pipe 1 (107) connected to the bottom of the stock liquid tank (104); and the water pump (106) is connected to a connecting pipe 1 (107) connected to the bottom of the stock liquid tank (104). ) is connected to a second connection pipe (108), one end of the second connection pipe (108) is connected to a three-way pipe (109) connected to the tank body (101), the gas outlet of the evaporation tank (102) is connected to a third connection pipe (1010) connected to the tank body (101), outlets (1023) penetrating into the inner side of the tank body (101) are equidistantly mounted on the surface of the third connection pipe (1010), and a cavity (1024) is provided on the inner side of the tank body (101) for accommodating the outlets (1023) penetrating therethrough.

3. The low-temperature evaporation purifier for industrial wastewater according to claim 1 is characterized in that: The bottom of one end of the tank body (101) is connected to a drain pipe (1011), and a valve one (1012) is installed on the drain pipe (1011); one end of the compressor (1013) is connected to a connecting pipe four (1014) connected to the tank body (101); the other end of the compressor (1013) is connected to a water inlet of a condenser (1015); the water outlet of the condenser (1015) is connected to a connecting pipe five (1017) connected to a water storage tank (1016); the bottom of the water storage tank (1016) is connected to a drain pipe (1018), and a valve two (1019) is installed on the drain pipe (1018).

4. The low-temperature evaporation purifier for industrial wastewater according to claim 1 is characterized in that: The surface of the twisted shaft (2021) is sleeved with a ring (2022), the inner side of the ring (2022 is fixedly mounted with a clamping piece (2023) for clamping with the twisted shaft (2021), the top of the ring (2022 is fixedly mounted with a slider (2024), the inner side of the tank body (101) is provided with a slide groove (2025) for sliding with the slider (224), the bottom of the ring (2022) is fixedly mounted with a push plate (2026), the interior of the push plate (2026) is provided with an inner groove (2027), and the inner groove (2027) cooperates with the outer rod (211) and the stirring rod (212) to penetrate and accommodate.

5. The low-temperature evaporation purifier for industrial wastewater according to claim 1 is characterized in that: The surfaces of the inner rod (2013) and one end of the twisted shaft (2021) are both rotatably sleeved with an internal gear (2036) via a bearing, the internal gear (2036) and the meshing gear (2035) are fixedly sleeved with each other, the surfaces of the inner rod (2013) and the twisted shaft (2021) are both sleeved with a transfer ring (2038), the surfaces of the two transfer rings (2038) are both fixedly sleeved with an external gear (2037), the external gear (2037) and the internal gear (2036) are meshed with each other for use, the inner rod (2013) and one end of the twisted shaft (2021) are both fixedly installed with a snap-fit ​​strip (2039), and the interior of the transfer ring (2038) is provided with a snap-fit ​​groove (20310) for snap-fitting with the snap-fit ​​strip (2039).

6. The low-temperature evaporation purifier for industrial wastewater according to claim 5, characterized in that: The driving assembly (204) comprises a socket plate (2041), the number of the socket plates (2041) is two, the shift ring (2038) and the socket plate (2041) are rotatably socketed with each other, a connecting plate (2042) is fixedly connected between the two socket plates (2041), an electric telescopic rod (2043) is provided at one end of the tank body (101), the output end of the electric telescopic rod (2043) and the connecting plate (2042) are fixedly connected to each other, and a fixing piece (2044) fixedly connected to one end of the tank body (101) is fixedly socketed on the surface of the electric telescopic rod (2043).

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