CN105195312A - Method and device for carrying out continuous iron removal on flowable material - Google Patents
Method and device for carrying out continuous iron removal on flowable material Download PDFInfo
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- CN105195312A CN105195312A CN201510647634.0A CN201510647634A CN105195312A CN 105195312 A CN105195312 A CN 105195312A CN 201510647634 A CN201510647634 A CN 201510647634A CN 105195312 A CN105195312 A CN 105195312A
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- flowable material
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Abstract
The invention discloses a method and a device for carrying out continuous iron removal on a flowable material. The method is mainly characterized in that the flowable material continuously passes through a high magnetic field; meanwhile, a plurality of soft magnets circularly pass in and out of the high magnetic field; iron impurities in the flowable material are adsorbed by the plurality of soft magnets magnetized in the magnetic field; the iron impurities can be taken away from the flowable material by the soft magnets separated from the flowable material; outside the high magnetic field, the demagnetized magnets are washed; and the iron impurities adsorbed by the soft magnets are washed away. The method and the device have the advantages that the soft magnets play roles of a working medium; the magnetic field intensity in the flowable material is improved; a high-gradient magnetic field can be established in the flowable material only by electromagnets with relatively low power or permanent magnets with relatively low cost; the iron removal efficiency is improved; and the energy consumption and the cost are reduced.
Description
Technical field
The present invention relates to the technology with the iron tramp in magnet sucking-off flowable material, particularly relate to the technology of the flowable material in movement being carried out to continuous deferrization.
Background technology
In the industrial production, normal needs carries out continuous deferrization process to the flowable material in movement.Such as, deironing process is carried out to the ceramic size in flowing, or continuous deferrization process is carried out to the powder shape material in movement.In the prior art, the common defects of this type of iron removal technology is the distant of flowable material and magnet, and the magnetic field intensity that magnet is set up in flowable material is less.If employing electromagnet, just must adopt high-power electromagnet, energy consumption is high; If employing permanent magnet, just must adopt strong magnetic permanent magnet, material cost is high.
Summary of the invention
The object of the invention is to provide a kind of method of flowable material being carried out to continuous deferrization, the method can with lower-powered electromagnet or lower-cost permanent magnet, in flowable material, set up high-gradient magnetic field, realize high efficiency, low cost deironing operation.
Another object of the present invention is to provide a kind of device flowable material being carried out to continuous deferrization, effect same to implement the above described method.
The inventive method is achieved in that the method for flowable material being carried out to continuous deferrization, order treats that the flowable material of deironing is continuously across high-intensity magnetic field, while flowable material is continuously across high-intensity magnetic field, multiple soft magnetic bodies is allowed to circulate in this high-intensity magnetic field turnover, the soft magnetic bodies of circulation turnover high-intensity magnetic field is recycled magnetization and demagnetization, in described high-intensity magnetic field, be separated again after making flowable material contact with multiple soft magnetic bodies, utilize the iron tramp in the multiple soft magnetic bodies absorption flowable materials be magnetized in magnetic field, utilize, with the soft magnetic bodies of flowable feed separation, iron tramp is taken away flowable material, outside this high-intensity magnetic field, the soft magnetic bodies of having demagnetized is washed away, iron tramp soft magnetic bodies adsorbed washes away.
Apparatus of the present invention are achieved in that device flowable material being carried out to continuous deferrization, be provided with the magnet assemblies for generation of high-intensity magnetic field, be provided with the objective table of the described high-intensity magnetic field of circulation turnover, objective table is arranged with multiple soft magnetic bodies, multiple soft magnetic bodies is along with the described high-intensity magnetic field of operation circulation turnover of objective table; The soft magnetic bodies of circulation turnover high-intensity magnetic field is recycled magnetization and demagnetization; Be provided with the material transport mechanism ordering about and treat that the flowable material of deironing is advanced along certain path; The travel path of flowable material and the travel path of multiple soft magnetic bodies, first overlap and be separated in described high-intensity magnetic field, flowable material and multiple soft magnetic bodies first contacted in high-intensity magnetic field and is separated; Outside described high-intensity magnetic field, be provided with the cleaning mechanism washed away the soft magnetic bodies of having demagnetized, iron tramp soft magnetic bodies adsorbed by cleaning mechanism washes away.
As preferred forms or improve further, apparatus of the present invention also can adopt following attached technical scheme.
Described objective table is the tape loop of circulation walking, tape loop has one section of climbing inclined-plane of walking from lower to upper, this section climbing inclined-plane is through described high-intensity magnetic field, described material transport mechanism is arranged on the mozzle above this section of climbing inclined-plane, treat that the flowable material of deironing is wandered on described climbing inclined-plane through mozzle, wander climbing inclined-plane on flowable material under gravity along climbing inclined-plane toward current downflow, until leave tape loop, through described high-intensity magnetic field when flowable material flows along climbing inclined-plane, in high-intensity magnetic field, flowable material contacts with the described multiple soft magnetic bodies marching to inclined-plane of climbing, the material delivery outlet of mozzle is positioned at described high-intensity magnetic field, flowable material is separated with described soft magnetic bodies in high-intensity magnetic field.
Described mozzle dimidiation, wherein half falls described climbing inclined-plane for guiding the flowable material flow treating deironing, and second half wanders described climbing inclined-plane for guiding other fluids.
Described magnet assemblies is divided into upper and lower two-layer, and upper and lower two-layer magnet heteropole is relative, and described climbing inclined-plane passes between upper and lower two-layer magnet.
The magnet close-packed arrays of same layer.
The top of described soft magnetic bodies protrudes from the surface of described objective table.
Described soft magnetic bodies is bar-shaped, the direct of travel intersecting vertical of its length direction and described objective table.
Described objective table is the tape loop of circulation walking, described material transport mechanism is made up of material-falling hopper and suction tube, to treat that the flowable material of deironing is routed on tape loop by material-falling hopper, inhaled being laid on flowable material on tape loop, that contact with described multiple soft magnetic bodies from tape loop by suction tube, the suction inlet of suction tube is positioned at described high-intensity magnetic field, and flowable material is separated with described soft magnetic bodies in high-intensity magnetic field.
Advantage of the present invention is, soft magnetic bodies is utilized to be separated by the iron tramp in flowable material, soft magnetic bodies plays the effect of working media, improve the magnetic field intensity in flowable material, the electromagnet that required horsepower is less or lower-cost permanent magnet, just can set up high-gradient magnetic field in flowable material, both improve de-ironing efficiency, again reduce energy consumption and cost.The ceramic size that the present invention is specially adapted to as producing ceramic tile carries out deironing.
Accompanying drawing explanation
Fig. 1 is the structural representation of the embodiment one of device of the present invention;
Fig. 2 is the A portion enlarged drawing of Fig. 1;
Fig. 3 is the another kind of fixed form schematic diagram of soft magnetic bodies and tape loop;
Fig. 4 is the structural representation of the embodiment two of device of the present invention;
Fig. 5 is the structural representation of the embodiment three of device of the present invention.
Detailed description of the invention
Device embodiment one
As shown in Figure 1, a kind of device flowable material being carried out to continuous deferrization, is provided with the magnet assemblies 1 for generation of high-intensity magnetic field and objective table.Magnet assemblies 1 can be electromagnet, also can be permanent magnet.The objective table of the present embodiment is a tape loop 2, drives circulation walking by driving wheel 3.Tape loop 2 has one section of climbing inclined-plane 2a walked from lower to upper, and this section of climbing inclined-plane 2a passes the magnetic field of magnet assemblies 1.The magnet assemblies 1 of the present embodiment is divided into upper and lower two-layer 1a, 1b, and upper and lower two-layer magnet 1a, 1b heteropole is relative.As preferred forms, the magnet close-packed arrays in same layer.The climbing inclined-plane 2a of tape loop two-layerly to pass between magnet 1a, 1b from upper and lower.Simultaneously see Fig. 1, Fig. 2, on tape loop 2, arrangement is fixed with multiple soft magnetic bodies 4.Whole piece tape loop 2 is covered with soft magnetic bodies 4 all as shown in Figure 2.These soft magnetic bodies 4 are along with the operation of tape loop 2, and the high-intensity magnetic field of circulation turnover magnet assemblies 1, is recycled magnetization and demagnetization.Soft magnetic bodies 4 can adopt pure iron or pure nickel to make.Mozzle 5 is provided with above climbing inclined-plane 2a.Using mozzle 5 as material transport mechanism, be used for ordering about and treat that the flowable material of deironing is advanced along certain path.This path specifically, is exactly that flowable material is wandered on climbing inclined-plane 2a by mozzle 5, then along climbing inclined-plane 2a voluntarily toward current downflow, until leave tape loop 2.Flowable material at the high-intensity magnetic field through magnet assemblies 1 in the process that flows downward of climbing inclined-plane 2a, and in high-intensity magnetic field with multiple soft magnetic bodies 4 following contacts marching to the inclined-plane 2a that climbs.The material delivery outlet 5a of mozzle 5 is positioned at the high-intensity magnetic field of magnet assemblies 1, makes soft magnetic bodies 4 before the high-intensity magnetic field leaving magnet assemblies 1, first with go from the flowable material shunting that mozzle 5 flows out.Like this, by set mozzle 5, just make the travel path of the multiple soft magnetic bodies 4 on the travel path of the flowable material treating deironing and tape loop 2, first overlap in the high-intensity magnetic field of magnet assemblies 1 and be separated again, and burble point is in the high-intensity magnetic field of magnet assemblies 1.The arranging density of soft magnetic bodies 4 on tape loop 2 should ensure flowable material in the process flowing through magnetic field can with multiple soft magnetic bodies 4 following contacts.Soft magnetic bodies 4 arranges closeer, more can improve de-ferrous effect.
Outside the high-intensity magnetic field of magnet assemblies 1, be provided with the cleaning mechanism 6 that the soft magnetic bodies 4 of having demagnetized is washed away, by cleaning mechanism 6, the iron tramp that soft magnetic bodies 4 is adsorbed washed away.Cleaning mechanism 6 can be made up of many sparge pipes or blower.
As preferred forms, as shown in Figure 2, the top of soft magnetic bodies 4 protrudes from the surface of tape loop 2, when making flowable material run into soft magnetic bodies 4, rolling occurs and stirs, and is so more conducive to the iron tramp in soft magnetic bodies 4 abundant absorption flowable material.The fixed form of soft magnetic bodies 4 on tape loop 2, except adopting the damascene structures shown in Fig. 2, can also adopt the unsettled fixed form shown in Fig. 3.Soft magnetic bodies 4 in Fig. 3 is raised by support member 7 and is fixed on tape loop 2.
Below in conjunction with the device shown in Fig. 1 and Fig. 2, describe the inventive method in detail.
Allow the flowable material treating deironing, such as ceramic size, is wandered on the climbing inclined-plane 2a of tape loop 2 by mozzle 5, makes flowable material continuously across the high-intensity magnetic field of magnet assemblies 1; While flowable material is continuously across high-intensity magnetic field, multiple soft magnetic bodies 4 is driven to circulate in high-intensity magnetic field turnover by tape loop 2; In high-intensity magnetic field, the flowable material down trickled along climbing inclined-plane 2a and multiple soft magnetic bodies 4 following contacts on climbing inclined-plane 2a, after soft magnetic bodies 4 marches to the material delivery outlet 5a exceeding mozzle 5, soft magnetic bodies 4 is just gone with the flowable material shunting of flowing out from mozzle 5, so, along with the operation of tape loop 2 and the flowing of flowable material, flowable material is just separated in high-intensity magnetic field with after multiple soft magnetic bodies 4 following contacts again; In high-intensity magnetic field, multiple soft magnetic bodies 4 that utilization is magnetized adsorb the iron tramp in flowable material, utilize, with the soft magnetic bodies 4 of flowable feed separation, iron tramp are taken away flowable material; Outside high-intensity magnetic field, utilize cleaning mechanism 6 to wash away the soft magnetic bodies 4 of having demagnetized, the iron tramp that soft magnetic bodies 4 is adsorbed is washed away, completes iron removal.So constantly repeat above-mentioned iron removal, just in the process keeping flowable Flow of Goods and Materials, continuous deferrization can be carried out to flowable material.
As preferred forms, mozzle 5 dimidiation in Fig. 1, wherein half 5b falls climbing inclined-plane 2a for guiding the flowable material flow treating deironing, second half 5c wanders climbing inclined-plane 2a, to regulate the viscosity of flowable material as required for guiding other fluids.Such as, if the flowable material treating deironing is ceramic size, the viscosity of ceramic size so can be regulated with water.
In order to the speed regulating flowable material to flow through climbing inclined-plane 2a, that is regulate flowable material to flow through the time of the high-intensity magnetic field of magnet assemblies 1, angle regulator can be arranged regulate the angle of inclination of climbing inclined-plane 2a.
Device embodiment two
See Fig. 4, the difference of the present embodiment and embodiment one is, only below tape loop 2, arranges magnet assemblies 1, is iron plate 8 above tape loop 2.Other structures of the present embodiment and operation principle can refer to embodiment one, repeat no more.
Device embodiment three
See Fig. 5, the present embodiment is applicable to the poor flowable material of mobility, such as ceramic powder material.In order to adapt to the poor flowable material of this kind of mobility, the present embodiment for ordering about the material transport mechanism that flowable material is advanced along certain path, be made up of material-falling hopper 9 and suction tube 10.To treat that the flowable material of deironing is routed on tape loop 2 by material-falling hopper 9, being inhaled being laid on flowable material on tape loop 2, that contact with the multiple soft magnetic bodies on tape loop from tape loop 2 by suction tube 10.The air intake duct that suction tube 10 can be connected with air-extractor by many is formed.The suction inlet of suction tube 10 is positioned at the high-intensity magnetic field of magnet assemblies 1, flowable material is separated with soft magnetic bodies 4 in high-intensity magnetic field, that is makes the burble point of flowable material and soft magnetic bodies be positioned at the high-intensity magnetic field of magnet assemblies 1.The flowable material of the present embodiment relies on the transmission of tape loop 2 completely, and therefore, tape loop 2 without the need to tilting as Fig. 1.Other structures of the present embodiment and operation principle can refer to embodiment one, repeat no more.
Claims (9)
1. pair flowable material carries out the method for continuous deferrization, order treats that the flowable material of deironing is continuously across high-intensity magnetic field, it is characterized in that: while flowable material is continuously across high-intensity magnetic field, multiple soft magnetic bodies is allowed to circulate in this high-intensity magnetic field turnover, the soft magnetic bodies of circulation turnover high-intensity magnetic field is recycled magnetization and demagnetization, in described high-intensity magnetic field, be separated again after making flowable material contact with multiple soft magnetic bodies, utilize the iron tramp in the multiple soft magnetic bodies absorption flowable materials be magnetized in magnetic field, utilize, with the soft magnetic bodies of flowable feed separation, iron tramp is taken away flowable material, outside this high-intensity magnetic field, the soft magnetic bodies of having demagnetized is washed away, iron tramp soft magnetic bodies adsorbed washes away.
2. pair flowable material carries out the device of continuous deferrization, be provided with the magnet assemblies for generation of high-intensity magnetic field, it is characterized in that: the objective table being provided with the described high-intensity magnetic field of circulation turnover, objective table is arranged with multiple soft magnetic bodies, multiple soft magnetic bodies is along with the described high-intensity magnetic field of operation circulation turnover of objective table; The soft magnetic bodies of circulation turnover high-intensity magnetic field is recycled magnetization and demagnetization; Be provided with the material transport mechanism ordering about and treat that the flowable material of deironing is advanced along certain path; The travel path of flowable material and the travel path of multiple soft magnetic bodies, first overlap and be separated in described high-intensity magnetic field, flowable material and multiple soft magnetic bodies first contacted in high-intensity magnetic field and is separated; Outside described high-intensity magnetic field, be provided with the cleaning mechanism washed away the soft magnetic bodies of having demagnetized, iron tramp soft magnetic bodies adsorbed by cleaning mechanism washes away.
3. device flowable material being carried out to continuous deferrization as claimed in claim 2, it is characterized in that: described objective table is the tape loop of circulation walking, tape loop has one section of climbing inclined-plane of walking from lower to upper, this section climbing inclined-plane is through described high-intensity magnetic field, described material transport mechanism is arranged on the mozzle above this section of climbing inclined-plane, treat that the flowable material of deironing is wandered on described climbing inclined-plane through mozzle, wander climbing inclined-plane on flowable material under gravity along climbing inclined-plane toward current downflow, until leave tape loop, through described high-intensity magnetic field when flowable material flows along climbing inclined-plane, in high-intensity magnetic field, flowable material contacts with the described multiple soft magnetic bodies marching to inclined-plane of climbing, the material delivery outlet of mozzle is positioned at described high-intensity magnetic field, flowable material is separated with described soft magnetic bodies in high-intensity magnetic field.
4. device flowable material being carried out to continuous deferrization as claimed in claim 3, it is characterized in that: described mozzle dimidiation, wherein half falls described climbing inclined-plane for guiding the flowable material flow treating deironing, and second half wanders described climbing inclined-plane for guiding other fluids.
5. device flowable material being carried out to continuous deferrization as claimed in claim 2, is characterized in that: described magnet assemblies is divided into upper and lower two-layer, and upper and lower two-layer magnet heteropole is relative, and described climbing inclined-plane passes between upper and lower two-layer magnet.
6. device flowable material being carried out to continuous deferrization as claimed in claim 5, is characterized in that: the magnet close-packed arrays of same layer.
7. device flowable material being carried out to continuous deferrization as claimed in claim 2, is characterized in that: the top of described soft magnetic bodies protrudes from the surface of described objective table.
8. device flowable material being carried out to continuous deferrization as claimed in claim 2, is characterized in that: described soft magnetic bodies is bar-shaped, the direct of travel intersecting vertical of its length direction and described objective table.
9. device flowable material being carried out to continuous deferrization as claimed in claim 2, it is characterized in that: described objective table is the tape loop of circulation walking, described material transport mechanism is made up of material-falling hopper and suction tube, to treat that the flowable material of deironing is routed on tape loop by material-falling hopper, inhaled being laid on flowable material on tape loop, that contact with described multiple soft magnetic bodies from tape loop by suction tube, the suction inlet of suction tube is positioned at described high-intensity magnetic field, and flowable material is separated with described soft magnetic bodies in high-intensity magnetic field.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201510647634.0A CN105195312A (en) | 2015-10-09 | 2015-10-09 | Method and device for carrying out continuous iron removal on flowable material |
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| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201510647634.0A CN105195312A (en) | 2015-10-09 | 2015-10-09 | Method and device for carrying out continuous iron removal on flowable material |
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| CN105195312A true CN105195312A (en) | 2015-12-30 |
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| CN201510647634.0A Pending CN105195312A (en) | 2015-10-09 | 2015-10-09 | Method and device for carrying out continuous iron removal on flowable material |
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Cited By (4)
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| CN109731682A (en) * | 2019-01-17 | 2019-05-10 | 安徽建筑大学 | A method of strong magnetic material is separated using electromagnetic separation |
| CN109876716A (en) * | 2019-03-29 | 2019-06-14 | 闽江学院 | A kind of stirrer preventing pollution |
| CN110614163A (en) * | 2019-08-26 | 2019-12-27 | 重庆电子工程职业学院 | A deironing equipment for cement manufacture |
| CN111672624A (en) * | 2020-06-20 | 2020-09-18 | 河南邦成科技有限公司 | Iron removing device for manufacturing porcelain |
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| CN111672624B (en) * | 2020-06-20 | 2023-03-31 | 广东东泰陶瓷实业有限公司 | Iron removing device for manufacturing porcelain |
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