Modularized ventilation mineralization conveying device

Abstract

The utility model discloses a modularized ventilation mineralization conveying device, and belongs to the field of solid waste slurry conveying equipment. Comprising a module shell, a mineralization pipeline, a power device and a sliding gas adjusting device, the mineralization pipeline, the power device and the sliding gas adjusting device are arranged in the module shell; a feeding interface and a discharging interface are respectively formed in two ends of the mineralization pipeline; the power device penetrates through the mineralization pipeline and is connected with the spiral propelling blade; the power device is connected with the sliding gas adjusting device; the mineralization pipeline comprises a first pipeline, a connecting sleeve and a second pipeline which are sequentially connected, the outlet end of the first pipeline and the inlet end of the second pipeline are sleeved with the two ends of the connecting sleeve, and the connecting sleeve can rotate; the spiral propelling blades comprise a first spiral propelling blade in the first pipeline and a second spiral propelling blade in the second pipeline; the sliding gas adjusting device is arranged on the first pipeline and between the first spiral propelling blade and the connecting sleeve. According to the utility model, pipeline blockage caused by lack of gas parameters can be avoided.

Description

Technical Field

[0001] The utility model relates to the field of solid waste slurry conveying equipment, in particular to a modular ventilation mineralization conveying device. Background Art

[0002] Solid waste treatment is one of the most pressing environmental challenges facing the world today. Traditional solid waste treatment methods include incineration, landfill, and physical / chemical treatment, but these methods have limitations and environmental risks. Therefore, there is an urgent need to find a new, efficient, economical, and environmentally friendly solid waste treatment method. Solid waste mineralization is a highly sought-after solution that involves converting waste into a form similar to natural minerals through physical, chemical, or biological treatment. These mineralized products can be used in a variety of applications, such as building materials, landfill covers, soil conditioners, etc., thereby reducing dependence on limited resources. Solid waste mineralization helps reduce the need for landfill and incineration, reduces the harm of waste to the environment, and is in line with the concept of sustainable resource management and circular economy.

[0003] The mineralization process of solid waste involves multiple steps, including stirring and aeration, to promote the complete reaction of the waste and convert it into stable, harmless substances. The products can be sealed or used for other purposes. In addition, solid waste mineralization can be carried out in transportation pipelines, saving land, time and cost, and reducing adverse environmental impacts. This method requires the participation of undehydrated slurry and reaction gas, providing a potential sustainable solution to waste management and resource recovery. Utility Model Content

[0004] In order to overcome the deficiencies of the prior art, the utility model provides a modular ventilation mineralization conveying device, the technical problem to be solved is how to avoid the problem of pipeline clogging due to lack of gas participation in solid waste slurry, how to save land, and reduce time and cost for processing solid waste.

[0005] In order to solve the above technical problems, the utility model provides a modular ventilation mineralization conveying device, comprising a module housing, a mineralization pipeline, a power device and a sliding gas regulating device; the mineralization pipeline, the power device and the sliding gas regulating device are all located in the module housing;

[0006] A feed interface and a discharge interface are respectively provided at both ends of the mineralization pipeline; a spiral propulsion blade is provided in the mineralization pipeline; the power device passes through the mineralization pipeline, and the power device is connected to the spiral propulsion blade; the sliding gas regulating device is sleeved on the mineralization pipeline, and the power device is connected to the sliding gas regulating device;

[0007] The mineralized pipeline comprises a first pipeline, a connecting sleeve and a second pipeline which are connected in sequence, the two ends of the connecting sleeve are sleeved on the outlet end of the first pipeline and the inlet end of the second pipeline, and the connecting sleeve is rotatable;

[0008] The spiral propulsion blade includes a first spiral propulsion blade and a second spiral propulsion blade, the first spiral propulsion blade is arranged in a first pipeline, and the second spiral propulsion blade is arranged in a second pipeline; the sliding gas regulating device is arranged on the first pipeline and between the first spiral propulsion blade and the connecting sleeve.

[0009] Furthermore, the power device includes a motor, a motor shaft, a power supply shaft and a gear assembly, the motor shaft and the power supply shaft are both connected to the gear assembly, and the power supply shaft is meshingly connected to the connecting sleeve; the motor shaft includes a first motor shaft and a second motor shaft, the first motor shaft and the second motor shaft are movably connected, and the first motor shaft can rotate relative to the second motor shaft when driven by the motor.

[0010] Further, the gear assembly includes a first gear, a second gear, a third gear, a fourth gear and a fifth gear, the first gear and the fifth gear are arranged on the motor main shaft, and the second gear, the third gear and the fourth gear are arranged on the power supply main shaft; the first gear is arranged at an end of the first motor main shaft close to the motor and is connected to the second gear; the fifth gear is arranged at an end of the first motor main shaft away from the motor and is connected to the fourth gear.

[0011] Furthermore, the mineralization pipeline is in a curved shape, and the first pipeline and the second pipeline have a first inflection point and a second inflection point respectively. Between the feed interface and the first inflection point, the flow height of the fluid gradually decreases, and between the second inflection point and the discharge interface, the flow height of the fluid gradually increases.

[0012] Furthermore, the first motor main shaft penetrates into the mineralized pipeline through the second inflection point, the first motor main shaft passes through the central axis of the first spiral propulsion blade, the second spiral propulsion blade and the connecting sleeve, and the first motor main shaft is connected to the first spiral propulsion blade and the second spiral propulsion blade, and the interior of the connecting sleeve is not connected to the motor main shaft; after the first motor main shaft passes through the mineralized pipeline from the first inflection point, it is connected to one end of the second motor main shaft on the side of the fifth gear away from the motor; the other end of the second motor main shaft is connected to the sliding gas regulating device.

[0013] Furthermore, the first motor main shaft and the second motor main shaft are both hollow structures, and the first motor main shaft and the second motor main shaft are internally connected; a vent is provided on the spiral propulsion blade, and the first motor main shaft is connected to the vent on the spiral propulsion blade; the thread direction and rotation direction of the first spiral propulsion blade and the second spiral propulsion blade are consistent.

[0014] Furthermore, a ventilation pump is connected to the second motor main shaft near the sliding gas regulating device, and the second motor main shaft is connected to the ventilation pump through a ventilation pipe.

[0015] Furthermore, the sliding gas regulating device is a sleeve that is sleeved on the mineralized pipeline, and the sliding gas regulating device can slide left and right on the mineralized pipeline; an air inlet interface and an exhaust port are provided on the side of the sliding gas regulating device away from the energy supply main shaft, the air inlet interface is provided at an end close to the ventilation pump and connected to the ventilation pump; the exhaust port is provided at an end away from the ventilation pump.

[0016] Furthermore, a plurality of air intake channels and exhaust channels are arranged on a side of the sliding gas regulating device away from the energy supply main shaft, wherein the plurality of air intake channels are arranged to be inclined to the left, and the exhaust channels are arranged to be inclined to the right; a plurality of first holes and second holes are arranged on the mineralized pipeline, wherein the plurality of air intake channels are connected to the mineralized pipeline through the corresponding first holes, and the exhaust channels are connected to the mineralized pipeline through the second holes; and a one-way air intake valve and a one-way air outlet valve are respectively arranged on the air intake channel and the exhaust channel.

[0017] Furthermore, the connecting sleeve has an external gear, and the external gear is meshingly connected with the third gear; the connecting sleeve can rotate around the main shaft of the first motor.

[0018] The beneficial effects of the modular ventilation mineralization conveying device of the utility model are: the conveyed slurry is mineralized in the module without changing the direction of the pipeline through the modular equipment; the fluidity of the mineralized product and the propulsion force on the mineralized product are increased by arranging the spiral propulsion blades, the sliding gas regulating device and the connecting sleeve; at the same time, the hollow structure of the main shaft is connected with the vent hole of the spiral propulsion blade and the sliding gas regulating device is arranged, so that the mineralization gas is provided to the slurry mineralization process to enhance the fluidity of the mineralized product in the pipeline and avoid pipeline blockage; and the number of modules connected in series can be increased to enhance the mineralization and propulsion effects, reduce pipeline blockage, and reduce the time and cost for processing solid waste; in addition, the maintenance of the equipment is relatively easy due to the reasonable design; and land is saved by using mineralized pipelines to process solid waste. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 This is a schematic structural diagram of a modular ventilation mineralization conveying device of the utility model;

[0020] Figure 2 It is a schematic diagram of a spiral propulsion blade of a modular ventilation mineralization conveying device of the utility model;

[0021] Figure 3 It is a schematic diagram of a sliding gas regulating device of a modular ventilation mineralization conveying device of the utility model.

[0022] Reference figures: 1 module housing; 2 mineralization pipeline; 21 feed interface; 22 discharge interface; 3 ventilation pump; 31 ventilation pipeline; 32 first inflection point; 33 air inlet interface; 34 second inflection point; 4 first spiral propulsion blade; 41 spiral blade vent; 5 second spiral propulsion blade; 6 sliding gas regulating device; 61 exhaust port; 62 one-way air inlet valve; 63 one-way air outlet valve; 7 connecting sleeve; 71 external gear; 8 power unit; 81 motor; 82 first gear; 83 second gear; 84 power supply main shaft; 85 third gear; 86 fourth gear; 87 fifth gear; 9 motor main shaft; 91 first motor main shaft; 92 second motor main shaft. DETAILED DESCRIPTION

[0023] In order to make the purpose, technical solution and advantages of the implementation of the utility model clearer, the technical solution in the implementation of the utility model will be clearly and completely described below in conjunction with the drawings in the implementation of the utility model. Obviously, the described implementation is a part of the implementation of the utility model, not all of the implementations. Based on the implementation of the utility model, all other implementations obtained by ordinary technicians in this field without creative work are within the scope of protection of the utility model.

[0024] Therefore, the following detailed description of the embodiments of the present invention provided in the accompanying drawings is not intended to limit the scope of the claimed invention, but merely represents selected embodiments of the present invention. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in the field without creative work are within the scope of protection of the present invention.

[0025] It should be noted that similar reference numerals and letters denote similar items in the following drawings, and therefore, once an item is defined in one drawing, further definition and explanation thereof is not required in subsequent drawings.

[0026] In the present invention, unless otherwise clearly specified and limited, the terms "installed", "connected", "connected", "fixed" and the like should be understood in a broad sense, for example, it can be a fixed connection, a detachable connection, or an integral connection; it can be directly connected or indirectly connected through an intermediate medium, it can be the internal connection of two elements or the interaction relationship between two elements. For ordinary technicians in this field, the specific meanings of the above terms in the present invention can be understood according to specific circumstances.

[0027] In order to better understand the purpose, structure and function of the present invention, a modular ventilation mineralization conveying device of the present invention is further described in detail below in conjunction with the accompanying drawings.

[0028] Embodiment 1:

[0029] like Figures 1 to 3 As shown, the utility model provides a modular ventilation mineralization conveying device, comprising a module housing 1, a mineralization pipeline 2, a power device and a sliding gas regulating device 6; the mineralization pipeline 2, the power device and the sliding gas regulating device 6 are all located in the module housing 1;

[0030] A feed interface 21 and a discharge interface 22 are respectively provided at both ends of the mineralization pipeline 2; a spiral propulsion blade is provided in the mineralization pipeline 2; the power device passes through the mineralization pipeline 2, and the power device is connected to the spiral propulsion blade; the sliding gas regulating device 6 is sleeved on the mineralization pipeline 2, and the power device is connected to the sliding gas regulating device 6;

[0031] The mineralized pipeline 2 comprises a first pipeline, a connecting sleeve 7 and a second pipeline which are connected in sequence, the two ends of the connecting sleeve 7 are sleeved on the outlet end of the first pipeline and the inlet end of the second pipeline, and the connecting sleeve 7 is rotatable;

[0032] The spiral propulsion blade includes a first spiral propulsion blade 4 and a second spiral propulsion blade 5, wherein the first spiral propulsion blade 4 is arranged in a first pipeline, and the second spiral propulsion blade 5 is arranged in a second pipeline; the sliding gas regulating device 6 is arranged on the first pipeline and between the first spiral propulsion blade 4 and the connecting sleeve 7.

[0033] Embodiment 2:

[0034] like Figures 1 to 3 As shown, the utility model provides a modular ventilation mineralization conveying device, comprising a module housing 1, a mineralization pipeline 2, a power device and a sliding gas regulating device 6; the mineralization pipeline 2, the power device and the sliding gas regulating device 6 are located in the module housing 1;

[0035] A feed interface 21 and a discharge interface 22 are respectively provided at both ends of the mineralization pipeline 2; a spiral propulsion blade is provided in the mineralization pipeline 2; the power device passes through the mineralization pipeline 2, and the power device is connected to the spiral propulsion blade; the sliding gas regulating device 6 is sleeved on the mineralization pipeline 2, and the power device is connected to the sliding gas regulating device 6;

[0036] The mineralized pipeline 2 comprises a first pipeline, a connecting sleeve 7 and a second pipeline which are connected in sequence, the two ends of the connecting sleeve 7 are sleeved on the outlet end of the first pipeline and the inlet end of the second pipeline, and the connecting sleeve 7 is rotatable;

[0037] The spiral propulsion blade includes a first spiral propulsion blade 4 and a second spiral propulsion blade 5, wherein the first spiral propulsion blade 4 is arranged in a first pipeline, and the second spiral propulsion blade 5 is arranged in a second pipeline; the sliding gas regulating device 6 is arranged on the first pipeline and between the first spiral propulsion blade 4 and the connecting sleeve 7.

[0038] The difference between this embodiment and embodiment 1 is that:

[0039] like Figure 1 As shown, the power device 8 includes a motor 81, a motor spindle 9, an energy supply spindle 84 and a gear assembly, the motor spindle 9 and the energy supply spindle 84 are both connected to the gear assembly, and the energy supply spindle 84 is meshed and connected with the connecting sleeve 7; the motor spindle 9 includes a first motor spindle 91 and a second motor spindle 92, the first motor spindle 91 and the second motor spindle 92 are movably connected, and the first motor spindle 91 can rotate relative to the second motor spindle 92 under the drive of the motor 81;

[0040] The gear assembly includes a first gear 82, a second gear 83, a third gear 85, a fourth gear 86 and a fifth gear 87. The first gear 82 and the fifth gear 87 are arranged on the first motor main shaft 91, and the second gear 83, the third gear 85 and the fourth gear 86 are arranged on the power supply main shaft 84; the first gear 82 is arranged at one end of the first motor main shaft 91 close to the motor 81 and meshed with the second gear 83; the fifth gear 87 is arranged at one end of the first motor main shaft 91 away from the motor 81 and meshed with the fourth gear 86;

[0041] The mineralization pipeline 2 is in a curved shape, and the first pipeline and the second pipeline have a first inflection point 32 and a second inflection point 34 respectively. Between the feed interface 21 and the first inflection point 32, the flow height of the fluid gradually decreases, and between the second inflection point 34 and the discharge interface 22, the flow height of the fluid gradually increases; the first motor main shaft 91 seals and penetrates into the mineralization pipeline 2 through the second inflection point 34 of the mineralization pipeline 2, and the first motor main shaft 91 penetrates the central axis of the first spiral propulsion blade 4 and the second spiral propulsion blade 5, and is connected to the first spiral propulsion blade 4 and the second spiral propulsion blade 5; the first motor main shaft 91 penetrates the central axis of the connecting sleeve 7, and the interior of the connecting sleeve 7 is not connected to the first motor main shaft 91; after the first motor main shaft 91 passes through the mineralization pipeline 2 from the first inflection point 32 of the mineralization pipeline 2, it is connected to one end of the second motor main shaft 92 on the side of the fifth gear 87 away from the motor 81; the other end of the second motor main shaft 92 is connected to the sliding gas regulating device 6;

[0042] The motor 81 directly provides rotational power to the first motor main shaft 91, driving the first spiral propulsion blade 4 and the second spiral propulsion blade 5 to rotate, so that the slurry in the mineralization pipeline 2 is pushed forward;

[0043] like Figure 1 and Figure 2 As shown, the first motor spindle 91 and the second motor spindle 92 are both hollow structures, and the first motor spindle 91 and the second motor spindle 92 are internally connected; the spiral propulsion blade is provided with a vent 41, and the first motor spindle 91 is connected to the vent 41 on the spiral propulsion blade; the second motor spindle 92 is connected to the vent pump 3 near the sliding gas regulating device 6, and the second motor spindle 92 is connected to the vent pump 3 through the ventilation pipe 31, and the ventilation pump 3 provides mineralization gas, such as carbon dioxide, from the vent 41 on the spiral propulsion blade to the mineralization pipeline 2 through the second motor spindle 92 and the first motor spindle 91; the thread direction and rotation direction of the first spiral propulsion blade 4 and the second spiral propulsion blade 5 are consistent;

[0044] After the slurry enters the mineralization pipeline 2 from the feed interface 21, it is carried forward by the first spiral propulsion blade 4. At the same time, the ventilation pump 3 provides mineralization gas through the hollow motor main shaft 9. The mineralization gas is ventilated into the slurry through the spiral blade vent 41 located on the blade to complete the preliminary mineralization.

[0045] Embodiment 3:

[0046] like Figures 1 to 3 As shown, the utility model provides a modular ventilation mineralization conveying device, comprising a module housing 1, a mineralization pipeline 2, a power device and a sliding gas regulating device 6; the mineralization pipeline 2, the power device and the sliding gas regulating device 6 are all located in the module housing 1;

[0047] A feed interface 21 and a discharge interface 22 are respectively provided at both ends of the mineralization pipeline 2; a spiral propulsion blade is provided in the mineralization pipeline 2; the power device passes through the mineralization pipeline 2, and the power device is connected to the spiral propulsion blade; the sliding gas regulating device 6 is sleeved on the mineralization pipeline 2, and the power device is connected to the sliding gas regulating device 6;

[0048] The mineralized pipeline 2 comprises a first pipeline, a connecting sleeve 7 and a second pipeline which are connected in sequence, the two ends of the connecting sleeve 7 are sleeved on the outlet end of the first pipeline and the inlet end of the second pipeline, and the connecting sleeve 7 is rotatable;

[0049] The spiral propulsion blade includes a first spiral propulsion blade 4 and a second spiral propulsion blade 5, wherein the first spiral propulsion blade 4 is arranged in a first pipeline, and the second spiral propulsion blade 5 is arranged in a second pipeline; the sliding gas regulating device 6 is arranged on the first pipeline and between the first spiral propulsion blade 4 and the connecting sleeve 7.

[0050] The difference between this embodiment and the above embodiments is that:

[0051] like Figure 1 and Figure 3 As shown, the sliding gas regulating device 6 is a sleeve that is sleeved on the mineralization pipeline, and the sliding gas regulating device 6 can slide left and right on the mineralization pipeline 2; an air inlet interface 33 and an exhaust port 61 are provided on the side of the sliding gas regulating device 6 away from the energy supply main shaft 84, and the air inlet interface 33 is provided at an end close to the ventilation pump 3 and connected to the ventilation pump 3; the exhaust port 61 is provided at an end away from the ventilation pump 3.

[0052] A plurality of air inlet channels and an exhaust channel are provided on one side of the sliding gas regulating device 6 away from the energy supply main shaft 84. In the present embodiment, two air inlet channels are provided, and the plurality of air inlet channels are provided obliquely to the left, and the exhaust channel is provided obliquely to the right; a plurality of first holes and second holes are provided on the mineralized pipeline 2, and the plurality of air inlet channels are connected to the mineralized pipeline 2 through the corresponding first holes, and the exhaust channel is connected to the mineralized pipeline through the second holes; a one-way air inlet valve 62 and a one-way air outlet valve 63 are provided on the air inlet channel and the exhaust channel, respectively;

[0053] The solid waste slurry that has completed preliminary mineralization continues to move forward in the mineralization pipeline 2 and reaches the sliding gas regulating device 6. The air inlet interface 33 of the sliding gas regulating device 6 is connected to the ventilation pump 3. When the entire module pipeline is working, the sliding gas regulating device 6 slides to the left, and the tilted one-way air inlet valve 62 is turned on. The ventilation pump 3 allows the gas to enter the air inlet channel in the sliding gas regulating device 6 from the air inlet interface 33, and enter the mineralization pipeline 2 through the one-way air inlet valve 62 to blow air in the direction of the slurry. The blown gas is used to drive the slurry forward while mineralizing, further strengthening the advancement and completing the secondary mineralization; when the pressure detection in the pipeline is abnormal, the sliding gas regulating device 6 can be moved to the right, the one-way air outlet valve 63 is turned on, and the air pressure in the mineralization pipeline 2 is discharged from the exhaust port 61 through the one-way air outlet valve 63 via the exhaust channel, completing the pressure relief and adjusting the gas pressure in the mineralization pipeline;

[0054] The connecting sleeve 7 has an external gear 71 on the outside, and the external gear 71 is meshed with the third gear 85; the connecting sleeve 7 can rotate around the first motor main shaft 91; the inside of the connecting sleeve 7 is not connected to the motor main shaft 9, and its rolling power comes from the external gear 71 arranged on the outside of the connecting sleeve 7, and the external gear 71 is connected to the energy supply main shaft 84 through the third gear 85, and the energy supply main shaft 84 is connected to the first gear 82 and the fifth gear 87 arranged on the first motor main shaft 91 through the second gear 83 and the fourth gear 86. The rotation of the motor 81 drives the second gear 83 and the fourth gear 86 to rotate through the first gear 82 and the fifth gear 87, thereby driving the energy supply main shaft 84 to rotate, and then the connecting sleeve 7 connected to the energy supply main shaft 84 through the third gear 85 rotates; and the space inside the connecting sleeve 7 is larger than the internal space of other parts of the mineralization pipeline, which can make the mineralized product uniform and loose, and enhance the fluidity;

[0055] After the first spiral propulsion blade 4 and the sliding gas regulating device 6 provide the slurry with mineralizing gas and forward thrust, the slurry may be unevenly mineralized or have decreased fluidity after completing the secondary mineralization. After completing the secondary mineralization, the mixture of solid waste slurry, mineralizing gas and mineralized products continues to move forward and reaches the connecting sleeve 7. At this time, the pipeline space gradually becomes larger, and the connecting sleeve 7 can be sealed and rotated under the drive of the external gear 71, so that the solid waste slurry, mineralizing gas and mineralized products are evenly mixed, further enhancing the mineralization effect. At the same time, the mineralized product can be loosened or the fluidity can be increased, which is conducive to the further advancement of the product.

[0056] Finally, the mineralized product reaches the second pipeline and is carried forward by the second spiral propulsion blade 5 to continue to strengthen the propulsion and mineralization effects. Finally, the mineralized product reaches the discharge interface 22 and enters the next series module or pipeline.

[0057] The utility model discloses a modular ventilation mineralization conveying device, and its working process is as follows: first, the slurry enters the first pipeline of the mineralization pipeline 2 through the feed interface 21, and through the first spiral propulsion blade 4, the motor 81 drives the first motor shaft 91 to rotate to make the first spiral propulsion blade 4 rotate, and the slurry is carried forward by the first spiral propulsion blade 4, and at the same time, the mineralization gas is provided to the motor shaft 9 through the ventilation pump 3. The motor shaft 9 is a hollow structure and is connected to the spiral blade vent 41 located on the blade. Therefore, the mineralization gas is ventilated into the slurry through the spiral blade vent 41 to complete the preliminary mineralization of the slurry; the solid waste slurry that has completed the preliminary mineralization continues to be pushed forward to the mineralization pipeline and reaches the sliding gas regulating device 6. The air inlet interface 33 of the sliding gas regulating device 6 is connected to the ventilation pump 3. When the entire modular pipeline is working, the sliding gas regulating device 6 slides to the left, and the inclined one-way air inlet valve 62 is connected. The ventilation pump 3 allows the mineralized gas to pass through the one-way air inlet Valve 62 is blown into the mineralization pipeline, and the blown gas is used to drive the slurry forward while mineralizing, further strengthening the advancement and completing the secondary mineralization; when the pressure detection in the pipeline is abnormal, the sliding gas adjustment device 6 can be moved to the right, the one-way air outlet valve 63 is connected, and the gas is discharged from the exhaust port 61 through the one-way air outlet valve 63 to complete the pressure relief; after the completion of the secondary mineralization, the solid waste slurry, the mineralization gas and the mineralized product mixture continue to move forward and reach the connecting sleeve 7. At this time, the pipeline space gradually becomes larger. The connecting sleeve 7 rotates around the motor main shaft 9 under the drive of the energy supply main shaft 84, and the solid waste slurry, the mineralization gas and the mineralized product are evenly mixed, which further strengthens the mineralization effect. At the same time, the mineralized product can be loosened or the fluidity can be increased, which is conducive to the further advancement of the product; finally, the mineralized product continues to move forward, and the second spiral propulsion blade 5 continues to strengthen the propulsion and mineralization effect. Finally, the mineralized product arrives at the discharge interface 22 and enters the next series module or pipeline.

[0058] The above description is only the preferred embodiment of the utility model, and is not intended to limit the utility model. For those skilled in the art, the utility model can have various modifications and changes. In the absence of contradiction, the various embodiments can be combined with each other to form a new embodiment. Any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the utility model are included in the protection scope of the utility model.

Claims

1. A modular ventilation mineralization conveying device, characterized in that: It includes a module shell, a mineralized pipeline, a power device and a sliding gas regulating device; the mineralized pipeline, the power device and the sliding gas regulating device are all located in the module shell; A feed interface and a discharge interface are respectively provided at both ends of the mineralization pipeline; a spiral propulsion blade is provided in the mineralization pipeline; the power device passes through the mineralization pipeline, and the power device is connected to the spiral propulsion blade; the sliding gas regulating device is sleeved on the mineralization pipeline, and the power device is connected to the sliding gas regulating device; The mineralized pipeline comprises a first pipeline, a connecting sleeve and a second pipeline which are connected in sequence, the two ends of the connecting sleeve are sleeved on the outlet end of the first pipeline and the inlet end of the second pipeline, and the connecting sleeve is rotatable; The spiral propulsion blade comprises a first spiral propulsion blade and a second spiral propulsion blade, the first spiral propulsion blade is arranged in the first pipe, and the second spiral propulsion blade is arranged in the second pipe; the sliding gas regulating device is arranged on the first pipe and between the first spiral propulsion blade and the connecting sleeve; The power device comprises a motor, a motor spindle, a power supply spindle and a gear assembly, wherein the motor spindle and the power supply spindle are both connected to the gear assembly, and the power supply spindle is meshedly connected to the connecting sleeve; the motor spindle comprises a first motor spindle and a second motor spindle, the first motor spindle and the second motor spindle are movably connected, and the first motor spindle can rotate relative to the second motor spindle under the drive of the motor; The gear assembly includes a first gear, a second gear, a third gear, a fourth gear and a fifth gear, the first gear and the fifth gear are arranged on the motor main shaft, and the second gear, the third gear and the fourth gear are arranged on the power supply main shaft; The first gear is arranged on an end of the first motor main shaft close to the motor and meshedly connected with the second gear; the fifth gear is arranged on an end of the first motor main shaft away from the motor and connected with the fourth gear; The mineralization pipeline is in a curved shape, the first pipeline and the second pipeline respectively have a first inflection point and a second inflection point, the flow height of the fluid gradually decreases between the feed interface and the first inflection point, and the flow height of the fluid gradually increases between the second inflection point and the discharge interface; The first motor main shaft penetrates into the mineralized pipeline through the second inflection point, the first motor main shaft passes through the central axis of the first spiral propulsion blade, the second spiral propulsion blade and the connecting sleeve, and the first motor main shaft is connected to the first spiral propulsion blade and the second spiral propulsion blade, and the interior of the connecting sleeve is not connected to the first motor main shaft; after the first motor main shaft passes through the mineralized pipeline from the first inflection point, it is connected to one end of the second motor main shaft on the side of the fifth gear away from the motor; The other end of the second motor main shaft is connected to the sliding gas regulating device.

2. The modular ventilation mineralization conveying device according to claim 1, characterized in that: The connecting sleeve has an external gear, and the external gear is meshed and connected with the third gear; the connecting sleeve can rotate around the first motor main shaft.

3. The modular ventilation mineralization conveying device according to claim 1, characterized in that: The first motor main shaft and the second motor main shaft are both hollow structures, and the first motor main shaft and the second motor main shaft are internally connected; a vent is provided on the spiral propulsion blade, and the first motor main shaft is connected to the vent on the spiral propulsion blade; the thread direction and rotation direction of the first spiral propulsion blade and the second spiral propulsion blade are consistent.

4. The modular ventilation mineralization conveying device according to claim 1, characterized in that: A ventilation pump is connected to the second motor main shaft near the sliding gas regulating device, and the second motor main shaft is connected to the ventilation pump through a ventilation pipeline.

5. The modular ventilation mineralization conveying device according to claim 4, characterized in that: The sliding gas regulating device is a sleeve that is sleeved on the mineralized pipeline, and the sliding gas regulating device can slide left and right on the mineralized pipeline; an air inlet interface and an exhaust port are provided on the side of the sliding gas regulating device away from the energy supply main shaft, the air inlet interface is provided at an end close to the ventilation pump and connected to the ventilation pump; the exhaust port is provided at an end away from the ventilation pump.

6. The modular ventilation mineralization conveying device according to claim 5, characterized in that: A plurality of air intake channels and exhaust channels are arranged on a side of the sliding gas regulating device away from the energy supply main shaft, wherein the plurality of air intake channels are arranged to be inclined to the left, and the exhaust channels are arranged to be inclined to the right; a plurality of first holes and second holes are arranged on the mineralized pipeline, wherein the plurality of air intake channels are connected to the mineralized pipeline through the corresponding first holes, and the exhaust channels are connected to the mineralized pipeline through the second holes; a one-way air intake valve and a one-way air outlet valve are respectively arranged on the air intake channel and the exhaust channel.

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