CN104120278A - Novel welding slag ladle for copper slag slow cooling process - Google Patents

Novel welding slag ladle for copper slag slow cooling process Download PDF

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Publication number
CN104120278A
CN104120278A CN201410367417.1A CN201410367417A CN104120278A CN 104120278 A CN104120278 A CN 104120278A CN 201410367417 A CN201410367417 A CN 201410367417A CN 104120278 A CN104120278 A CN 104120278A
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cylindrical shell
cinder ladle
bag
plate
cooling process
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CN201410367417.1A
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CN104120278B (en
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翟恒东
郑峰
耿会良
陈红霞
王晓飞
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MCC Baosteel Technology Services Co Ltd
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MCC Baosteel Technology Services Co Ltd
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Abstract

The invention relates to the field of metallurgy and particularly relates to a novel welding slag ladle for a copper slag slow cooling process. The invention provides a novel welding slag ladle suitable for a copper slag slow cooling process. The welding slag ladle comprises a cylinder body, a trunnion seat assembly and a ladle bottom, wherein a ladle overturn seat of which the position is matched with the position of the trunnion seat assembly is arranged on the cylinder body, a plurality of horizontal annular plates are arranged on the outer wall of the cylinder body, a plurality of longitudinal ribs are connected among the plurality of horizontal annular plates, a grid-like structure is formed by the horizontal annular plates and the longitudinal ribs, a plurality of overflow holes or overflow grooves are arranged at the upper end of the cylinder body, vertical water collection plates are uniformly arranged at the outer edges of the horizontal annular plates, a plurality of water distribution plates are arranged on the bottom of the horizontal annular plates, and water distribution holes or water distribution grooves are arranged on horizontal annular plates. The welding slag ladle disclosed by the invention has high structural strength; since the water collection parts and water distribution parts are annularly arranged at the outer wall of the slag ladle, the cooling water overflowing from the slag ladle is led to the outer wall of the slag ladle to carry out secondary cooling on the slag ladle, and then the cooling efficiency of the slag ladle is greatly improved.

Description

A kind of Novel welding cinder ladle that is applicable to copper ashes retarded cooling process
Technical field
The present invention relates to field of metallurgy, particularly relate to a kind of Novel welding cinder ladle that is applicable to copper ashes retarded cooling process, and further relate to preparation method and the using method of described welding cinder ladle.
Background technology
Copper smelting enterprise is used cinder ladle to carry out copper ashes processing, when copper ashes adopts retarded cooling process, in order to improve the rate of recovery of copper particle in copper ashes, need to first carry out the air cooling of long period to copper ashes, be beneficial to the abundant agglomeration of copper crystal grain under liquid state, then carry out water-cooled, copper ashes is cooling near water to copper ashes from copper crystal grain agglomeration in cinder ladle, need about 58~72 hours, therefore can use a large amount of cinder ladles.For a long time, copper smelting enterprise life-time service casting cinder ladle.Due in making the process of casting cinder ladle, produce a large amount of antiquated sands, waste gas, waste residue, dust, the energy consumption of China's casting industry accounts for 25~30% of whole machinery industry, energy utilization rate only 17%, energy consumption is 4.4 times of whole machinery industry, casting is high energy consumption high pollution industry, to surrounding environment, brings huge pollution.
During copper ashes retarded cooling process Tong smelting enterprise is used extensively, after pouring cinder ladle into, liquid copper ashes first in slow cooling field, carries out the air cooling about 2~25 hours, then copper ashes is carried out to trickle cooling, slow cooling mainly refers to copper ashes air cooling during this period of time, because the copper Tc in copper ashes is at 1000 ℃~1250 ℃, and cooling rate is slower, is more conducive to the crystallization of copper in copper ashes and grows up, lower than below 1000 ℃, copper crystallization stops.Copper ashes temperature, below 1000 ℃, should be accelerated cinder ladle cooling, improves cinder ladle turnover rate, reduces user's production cost.After welding cinder ladle enters the application of copper ashes retarded cooling process; met preferably user's production requirement; progressively demonstrate that structural strength is high, a little repair, the remarkable advantage such as easy to maintenance; and make and use rolled sheet material because of welding cinder ladle; energy-saving and emission-reduction, protection of the environment, bring obvious social benefit to society.When user uses casting cinder ladle and welding cinder ladle simultaneously, when some does not install the welding cinder ladle loading copper ashes of cooling-part additional, cast cinder ladle cooling time slightly long, although meet the design requirements of copper ashes retarded cooling process the cooling time of welding cinder ladle, some users propose to weld on cooling time the requirement that cinder ladle must not be longer than casting cinder ladle.
Due to reasons in structure, flat welding cinder ladle, bag end cooling space is little, and water coolant is difficult for flowing to the bag end, moreover, cinder ladle and flat cinder ladle at the bottom of the spherical bag of identical liquid level, the volume of flat cinder ladle with liquid level, reduce and at the bottom of more spherical bag the volume of cinder ladle progressively increase (in Figure 26, grey area portions is the volume that cinder ladle has more at the bottom of the more spherical bag of flat cinder ladle), as Figure 25,26.These two major causes, make the more spherical bag back welding of flat welding cinder ladle connect cinder ladle has gap on cooling time.As shown in figure 25: at the bottom of the figure left side is spherical bag, the right is flat cinder ladle.As shown in Figure 25 left-hand component, top is water-cooled, and speed of cooling is the fastest, and establishing its speed of cooling is V1; Middle part, bottom are water-cooled+air cooling, and establishing its speed of cooling is V2; As shown in Figure 25 right-hand component, top is water-cooled, and speed of cooling is the fastest, and establishing its speed of cooling is V1; Middle part is water-cooled+air cooling, if its speed of cooling is V2, bottom space is narrow, water coolant cannot flow to flat below, only depend on air cooling, speed of cooling is the slowest, if its speed of cooling is V3, the cooling jig of setting up shows, when the cinder ladle at the bottom of spherical bag has been cooled to the high position of more flat cinder ladle, the metallurgical slag of the flat cinder ladle that position is much lower is not yet cooling, shows that the copper ashes of flat cinder ladle middle and lower part is cooling slower, in the situation that flat welding cinder ladle outer wall does not add cooling-part, the cooling time of flat cinder ladle, the cooling time of cinder ladle was long at the bottom of more spherical bag.
So, how to optimize welding cinder ladle structure, accelerate copper ashes speed of cooling, overcome and on cooling time, cast the slightly long deficiency of cinder ladle and become the technical problem that must solve in welding cinder ladle application process.
Summary of the invention
The shortcoming of prior art, the object of the present invention is to provide a kind of Novel welding cinder ladle that is applicable to copper ashes retarded cooling process, for solving the problems of the prior art in view of the above.
For achieving the above object and other relevant objects, first aspect present invention provides a kind of Novel welding cinder ladle that is applicable to copper ashes retarded cooling process, at the bottom of comprising cylindrical shell, be positioned at the trunnion seat assembly of cylindrical shell both sides and be welded in the bag of cylinder body bottom, described cylindrical shell is provided with the back stall that turns over matching with cinder ladle car, and this kind turns over back stall and be applicable to platform-type cinder ladle car and turn over bag; In cinder ladle gudgeon line vertical direction, arrange and turn over back stall simultaneously, applicable to U-shaped cinder ladle car, turn over bag.The outer side wall of described cylindrical shell is provided with a plurality of horizontal ring flat-plates, between described a plurality of horizontal ring flat-plate, by a plurality of longitudinal gussets, be connected, horizontal ring flat-plate and longitudinally gusset form fenestral fabric, described cylindrical shell upper end is provided with a plurality of spillway holes and/or overflow groove, described spillway hole or overflow groove can be drawn the water coolant in cylindrical shell, the outer of described horizontal ring flat-plate is equipped with vertical water collection sheet, the bottom surface of described horizontal ring flat-plate is equipped with a plurality of minutes water plates, on described horizontal ring flat-plate, be equipped with a plurality of tapping hole and/or bypass channels that match with minute water Board position and vertically connect plate body, the upper end of described minute water plate is welded in the bottom surface of horizontal ring flat-plate, lower end is welded on the outer side wall of cylindrical shell, on at the bottom of described bag, contain and be welded with a plurality of supporting legs, between described supporting leg, be provided with heat-dissipating space, described cylindrical shell, the material of the bag end and supporting leg is low-alloy high-strength sheet material.
Those skilled in the art can rule of thumb judge quantity and the size of supporting leg with reference to the actual load of cinder ladle, and generally the quantity of supporting leg is 3-6.
Preferably, described a plurality of horizontal ring flat-plates are distributed on the outer side wall of cylindrical shell from top to bottom evenly and at intervals, and the quantity of described horizontal ring flat-plate is 3-6, and horizontal loops plate thickness is 40-300mm, and horizontal ring flat-plate width (diametric(al)) is 100-300mm; Described longitudinal gusset is arranged in respectively between two horizontal ring flat-plates, and the longitudinal gusset quantity between two horizontal ring flat-plates is 4~12, and longitudinal rib plate thickness is 30~100mm, and width is 60~300mm.Described width is specially longitudinal gusset perpendicular to the height of the outer side wall of cylindrical shell.
Preferred, described trunnion seat assembly is between top-down first ring flat-plate and second ring flat-plate.
Described trunnion seat assembly can adopt the various trunnion seat assembly that is applicable to cinder ladle known in those skilled in the art, the structure shown in box-structure, accompanying drawing 15~19, accompanying drawing 31 (trapezoid) etc.
Preferably, at the bottom of described bag, be at the bottom of flat bag or at the bottom of spherical bag.
Preferred, while using meticulous castmethod to make at the bottom of described spherical bag, bag base thickness degree increases to bottom, the bag end gradually from bag end upper edge hole, and the thickness range at the bottom of spherical bag is 60-150mm.
Preferred, while adopting hot-die compacting at the bottom of described spherical bag, bag base thickness degree can uniform thickness from bag end upper edge hole to bag end bottom thickness, so that make, according to the difference of cinder ladle load, the thickness range at the bottom of spherical bag is 60-150mm.
Preferably, described minute water plate is rectangle or square, and the angle between minute water plate and cylindrical shell bus is 10-75 °, and width is 80~200mm, and length is 100~200mm, and thickness is 5-20mm.
Preferably, bending in the middle of described minute water plate, is arranged at the bottom of spherical bag butt weld place with cylindrical shell, to greatest extent water coolant is drained into easily to bottom at the bottom of spherical bag.When adopting bending design, minute water plate length increases slightly, and this time-division water plate width is 80~200mm, and length is 100~300mm, and thickness is 5-20mm.
Preferred, in order to improve the flow area of water coolant, minute water plate lower rim is during with barrel soldering, divide water plate lower rim both sides respectively stay 10-80mm not with barrel soldering, be preferably 15-30mm.
When minute water plate lower rim whole piece and a cylindrical shell full weld, weld seam is more firm; When does not weld on the weld seam both sides of minute water plate lower rim and cylindrical shell, only weld middle part, the flow area that can increase water coolant.
Preferably, the height of described water collection sheet is 30-100mm, and thickness is 5-20mm.
Preferably, the quantity of the tapping hole of every horizontal ring flat-plate is 6-40, and aperture is 30-80mm.
Preferably, the quantity of the bypass channel of every horizontal ring flat-plate is 6-40, and width is 30-50mm, and length is 60-120mm, the described wide size that extended line points to the limit at cylindrical shell center that refers to.
On described horizontal ring flat-plate (3), offer tapping hole (301) and bypass channel (302) simultaneously, this decoration form is for solving the flow of cooling water of narrow location, the quantity of the bypass channel (302) of every horizontal ring flat-plate (3) is 6-40, and the tapping hole quantity of the horizontal ring flat-plate of this piece is 4~10.
Preferably, described spillway hole axis is vertical with the bus of cylindrical shell, and the quantity of spillway hole is 2-6, and aperture is 30-80mm, and on the medullary ray of spillway hole and cylindrical shell, the vertical range on edge is 40-80mm.
Preferably, described overflow groove bottom surface is vertical with the bus of cylindrical shell, and the quantity of overflow groove is 2-6, is highly 30-120mm, and width is 30-100mm.
Preferred, described spillway hole and overflow groove outer end are equipped with water-blocking groove.
Preferably, the structure of described trunnion seat assembly is selected from the box-structure of inverted trapezoidal, the unitized construction of the box-structure of trapezoid, thick-walled tube and gusset (as shown in accompanying drawing 15~19, accompanying drawing 31).
Preferred, at the bottom of described bag, be at the bottom of spherical bag time, the bag end and cylindrical shell butt weld are provided with the structure of horizontal loops plate outward, and the load that the bag end and cylindrical shell butt weld are subject to is shared by the riser of the inclined-plane of ring flat-plate, longitudinal gusset and supporting leg, horizontal loops plate thickness 80~260mm.
Preferred, at the bottom of described bag, be at the bottom of spherical bag time, expose with cylindrical shell butt weld at the bag end, wrap the load that the end and cylindrical shell butt weld be subject to and shared by the riser of longitudinal gusset and supporting leg, advantage be weld seam reparation more for convenience.
Preferred, at the bottom of described bag, be at the bottom of spherical bag time, the bag end and cylindrical shell butt weld arrange coaming plate outward, coaming plate respectively with the bag end and barrel soldering, the width of coaming plate guarantees that its weld seam is away from the heat affected zone of bag end butt weld, and the load that the bag end and cylindrical shell butt weld are subject to is shared by the riser of coaming plate, longitudinal gusset and supporting leg.
On the cylindrical shell of described Novel welding cinder ladle, can be with the two or more packings of turning over to put, can make to have the user of U-shaped cinder ladle car, platform-type cinder ladle car simultaneously, use any vehicle can pitch easily fortune welding cinder ladle of the present invention, improve the service efficiency of vehicle.
The preparation method who is applicable to the Novel welding cinder ladle of copper ashes retarded cooling process described in second aspect present invention provides, comprises the steps:
1) number material, blanking, bevelling operation: by the typesetting figure number of carrying out material, blanking, and carry out groove and offer;
2) the trunnion seat assembly of Novel welding cinder ladle is made separately as individual components;
3) cylindrical shell is made: cylindrical shell adopts press forming to make;
4) the bag end, makes: the bag end adopts hot pressing formation process or casting to make;
5) the outer longitudinally gusset of cylindrical shell and supporting leg adopt numerical control blanking, and use automatic beveling machine to offer groove, and wherein, the gusset under trunnion seat assembly is offered monolateral groove, groove angle 30-45 °, and longitudinally gusset is offered bilateral groove.
6) overall package: after the circle of cylindrical shell school, cylindrical shell is docked with bag end assembly welding, proofread and correct after size, on mold, cylindrical shell and the circumferential weld at the bag end are carried out to the weldering of ship type, or use C02 gas to protect weldering, then cylindrical shell is inverted, be positioned on assembly floor, by assembly welding good trunnion seat assembly and cylindrical shell assembling, control each fitted position, then assemble trunnion seat main gusset, pressed on ring, middle ring, lower ring, the longitudinal gusset of each interannular, leg branching part;
7) welding: trunnion seat assembly middle ear axillare docks with ring flat-plate, cylindrical shell and adopts union-melt weld; Cylindrical shell adopts C02 gas to protect weldering with the bag end; Tack welding, ring flat-plate, gusset, supporting leg welding adopt C02 gas to protect weldering; Weld pre-thermal recovery electrically heated or flame heating method, 65 ℃~110 ℃ of weld preheating and interlayer temperatures, the heating region of preheating is in bevel for welding both sides, and width should be respectively the more than 1.5 times of weldment welding place weldment, and is not less than 100mm.
8) flaw detection: butt weld is full penetration weld, and Ultrasonic Nondestructive I level is qualified; Gudgeon Ultrasonic Nondestructive I level is qualified, and other positions 50%PT II level is qualified.
Preferably, the mother metal of described number material needs straight not damaged and other defect, otherwise should first correct.
Preferably, described blanking process all adopts numerical control cutting machine blanking, and slab cutting adopts self-defined lead-in wire and is total to limit cutting technique, and cutting torch adopts suitable model, and during cutting, the adjustment of wind line should be vertical, guarantees that cutting edge is smooth.
Preferably, groove is offered groove and must be used semi auto cutting machine to offer, and arc-shaped edges adopts ground rule to coordinate semi auto cutting machine to offer, and cylindrical shell butt weld groove angle 60-65 °, is full penetration weld; The weld seam of the outer gusset of cylindrical shell and cylindrical shell, groove angle is 30-45 °; The bag end and cylindrical shell butt weld groove are driveed in inner side, groove angle 30-50 °; Ring flat-plate outside the bag end and cylindrical shell butt weld is twin fillet wolt, and weld bead height is 0.7 times of cylindrical shell wall thickness.
Preferably, gudgeon adopts 40Cr forging to make.
Preferably, when cylindrical shell adopts press forming, according to cinder ladle volume size, whole cylindrical shell is formed by 1~3 section of cylindrical shell docking, and longitudinal butt weld of adjacent two sections of cylindrical shells is staggered, more than the size that staggers 200mm.
Preferred, every section of cylindrical shell adopts 3~4 compactings to form, and first cylindrical shell is pressed to 3~4 blankings, and weld groove form is X-shaped, and weld seam is full penetration weld, and carries out UT (Ultrasonic Testing); After cylindrical shell butt weld completes, check the deviation from circular from of cylindrical shell, when overproof, carry out alignment.
Further preferred, when adopting 4 compactings, every two are first carried out jam welding, then two of docking are suppressed respectively, after compression moulding, two cylindrical shells are carried out to assembly welding, butt weld adopts union-melt weld, first welds weld joint on inner side, side weld outside then welding again on mold..
Preferably, the concrete grammar of described hot pressing formation process has two kinds: a kind of is the reserved punching press attenuate surplus 10%~15% of thickness of workpiece, material is heated to approximately 950 ℃, at the bottom of using above on hydropress and making spherical bag with knocking over punching press below spherical mould, then carry out 500 ℃~600 ℃ stress relief annealings, eliminate residualinternal stress.Another kind of hot-press molding method is: thickness of workpiece is reserved punching press attenuate surplus 2%~5%, and material is heated to approximately 950 ℃, on hydropress, uses up and down ball-type grinding tool, at the bottom of workpiece is squeezed into spherical bag.
Preferably, the concrete grammar of described casting is: adopting low-phosphorous low-alloy high-strength material is that raw material is made, because cast material is identical with cylinder material, chemical composition is consistent, therefore in performance perameter, differ very little with cylindrical shell material, during casting, butting grooves is cast out, the welding operation of operation after convenient, because bag end weight only accounts for 10% of cinder ladle gross weight, and simple shape, easily obtain preferable quality, after casting, carry out normalizing thermal treatment crystal grain thinning and eliminate internal stress, and carrying out non-destructive test(ing)(NDT).
Preferably, the concrete grammar of controlling each fitted position is messenger wire method.
Preferably, described non-destructive testing standard is specially: cylindrical shell butt weld GB11345-89 completepenetration B level; Gudgeon JB/T4730.3-2005, JB/T4730.4-2005 I level; Other welds BJ/T6062-200750%PT II level.
Welding cinder ladle structural strength of the present invention is high, cinder ladle outer wall be respectively periphery put catchment, minute wet part, the water coolant overflowing in cinder ladle is directed to cinder ladle outer wall, cinder ladle is carried out to secondary cooling, greatly improve the cooling efficiency of cinder ladle.In order to adapt to the different mode of operation of tumbling that transport, the operation of cinder ladle gudgeon is hooked in driving; When using U-shaped cinder ladle car, use the top back stall that the is welded on trunnion seat vertical direction cinder ladle of tumbling; When usage platform formula cinder ladle car, rely on the seat of pulling pin that is welded on trunnion seat below to block the operation of tumbling of pulling pin on cinder ladle car working arm.Novel welding cinder ladle of the present invention is keeping under the prerequisite of overall construction intensity, optimize the cooling system structure of cinder ladle outer wall, the water coolant overflowing in cinder ladle is approached all and collects cinder ladle is carried out to secondary application, accelerate the speed of cooling of copper ashes, overcome and on cooling time, cast the slightly long deficiency of cinder ladle.
Accompanying drawing explanation
Fig. 1 is shown as front view of the present invention;
Fig. 2 is shown as left view of the present invention;
Fig. 3 is shown as upward view of the present invention;
Fig. 4 is shown as sectional view of the present invention;
Fig. 5 is shown as sectional view of the present invention;
Fig. 6 is shown as vertical view of the present invention;
Fig. 7 is shown as schematic perspective view at the bottom of the spherical bag of the present invention;
Fig. 8 is shown as overflow groove structure partial enlarged view of the present invention;
Fig. 9 is shown as spillway hole structure partial enlarged view of the present invention;
Figure 10 is shown as trunnion seat assembly 1 partial enlarged drawing of the present invention;
Figure 11 is shown as bypass channel structure partial enlarged view of the present invention;
Figure 12 is shown as tapping hole structure partial enlarged view of the present invention;
Figure 13 is shown as the horizontal ring flat-plate schematic diagram of the present invention;
Figure 14 is shown as the horizontal ring flat-plate schematic diagram of the present invention;
Figure 15 is shown as trunnion seat assembly 2 partial enlarged drawings of the present invention;
Figure 16 is shown as trunnion seat assembly 2 part sectioned views of the present invention;
Figure 17 is shown as trunnion seat assembly 2 schematic perspective views of the present invention;
Figure 18 is shown as trunnion seat assembly 3 schematic perspective views of the present invention;
Figure 19 is shown as trunnion seat assembly 3 front views of the present invention;
Figure 20 is shown as the flat structure of ladle bottom partial enlarged drawing of the present invention;
Figure 21 is shown as the flat structure of ladle bottom part sectioned view of the present invention;
Figure 22 is shown as bag of the present invention uphill casting temperature variation schematic diagram while making;
Figure 23 is shown as cinder ladle fabrication processing figure of the present invention;
Figure 24 is shown as embodiment 1 groove and offers schematic diagram: A: weld seam plate butting grooves; B:T type weld groove; C: the bag end and cylindrical shell groove;
Figure 25 is shown as cinder ladle comparison diagram at the bottom of flat cinder ladle and spherical bag;
Figure 26 is shown as cinder ladle comparison diagram at the bottom of flat cinder ladle and spherical bag;
Figure 27 is shown as schematic perspective view at the bottom of the flat bag of the present invention;
Figure 28 is shown as at the bottom of the spherical bag of the present invention joint portion partial enlarged drawing at the bottom of cylindrical shell and bag;
Figure 29 is shown as flow direction schematic diagram (figure upward arrow is expressed as flow direction) at the bottom of the spherical bag of the present invention;
Figure 30 is shown as flow direction schematic diagram (figure upward arrow is expressed as flow direction) at the bottom of the flat bag of the present invention;
Figure 31 is shown as trapezoid trunnion seat unit construction of the present invention, has two kinds of welding cinder ladle structure formation, the bag end and cylindrical shell butt weld exposed structure schematic diagram (a is front view, and b is left view) that turn over back stall.
Element numbers explanation
1 trunnion seat assembly
2 cylindrical shells
3 horizontal ring flat-plates
4 turn over back stall
5 longitudinal gussets
6 water collection sheets
7 minutes water plates
The 8 bag ends
9 supporting legs
101 keys
102 weldments
103 weldments
104 sleeve pipes
105 gudgeons
106 weldments
201 spillway holes
202 overflow grooves
203 water-blocking grooves
301 tapping holes
302 bypass channels
401 coaming plates
1201 gussets
1202 gussets
1203 thick-walled tubes
1204 gudgeons
1205 gussets
1206 gussets
Embodiment
By particular specific embodiment explanation embodiments of the present invention, person skilled in the art scholar can understand other advantages of the present invention and effect easily by the disclosed content of this specification sheets below.
Refer to Fig. 1 to Figure 28.Notice, appended graphic the illustrated structure of this specification sheets, ratio, size etc., equal contents in order to coordinate specification sheets to disclose only, for person skilled in the art scholar, understand and read, not in order to limit the enforceable qualifications of the present invention, therefore the technical essential meaning of tool not, the adjustment of the modification of any structure, the change of proportionlity or size, not affecting under the effect that the present invention can produce and the object that can reach, all should still drop on disclosed technology contents and obtain in the scope that can contain.Simultaneously, in this specification sheets, quote as " on ", the term of D score, " left side ", " right side ", " centre " and " " etc., also only for ease of understanding of narrating, but not in order to limit the enforceable scope of the present invention, the change of its relativeness or adjustment, under without essence change technology contents, when being also considered as the enforceable category of the present invention.
As shown in Fig. 1-7 and 27, the Novel welding cinder ladle that is applicable to copper ashes retarded cooling process provided by the present invention, at the bottom of comprising cylindrical shell 2, be positioned at the trunnion seat assembly 1 of cylindrical shell 2 both sides and be welded in the bag of cylindrical shell 2 bottoms 8, described cylindrical shell 2 is provided with the back stall 4 that turns over matching with trunnion seat assembly 1 position, and (match with trunnion seat assembly 1 in the position of turning over back stall 4, specifically, in order to adapt to the different mode of operation of tumbling that transport, the operation of cinder ladle gudgeon is hooked in driving; When using U-shaped cinder ladle car, use the top back stall the be welded on trunnion seat vertical direction cinder ladle of tumbling, certainly welding cinder ladle, on cylindrical shell 2, also can be provided with a plurality of back stalls 4 that turn over, so that can be used for the different transportations mode of operation (example is structure as shown in figure 31) of tumbling simultaneously; When usage platform formula cinder ladle car, rely on the seat of pulling pin that is welded on trunnion seat below to block the operation of tumbling of pulling pin on cinder ladle car working arm), the outer side wall of described cylindrical shell 2 is provided with a plurality of horizontal ring flat-plates 3, between described a plurality of horizontal ring flat-plate 3, by a plurality of longitudinal gussets 5, be connected, described longitudinal gusset is arranged in respectively between two horizontal ring flat-plates, longitudinal gusset quantity between two horizontal ring flat-plates is 4~12, and longitudinal rib plate thickness is 30~100mm, and width is 60~300mm.Horizontal ring flat-plate 3 and longitudinally gusset 5 form fenestral fabric, and (fenestral fabric can improve cinder ladle overall construction intensity, longitudinally at the bottom of the general and cylindrical shell of gusset, spherical bag, ring flat-plate is all interconnection), described a plurality of horizontal ring flat-plate 3 is distributed on the outer side wall of cylindrical shell 2 from top to bottom evenly and at intervals, the quantity of described horizontal ring flat-plate 3 is generally 3-6, can be according to the quantity of the size adjustment ring of cinder ladle, horizontal ring flat-plate 3 thickness 40-300mm, horizontal ring flat-plate 3 width (diametric(al)) are 100-300mm.Described cylindrical shell 2 upper ends are provided with a plurality of spillway holes 201 and/or overflow groove 202, described spillway hole 201 or overflow groove 202 can be drawn the water coolant in cylindrical shell 2, the outer of described horizontal ring flat-plate 3 is equipped with vertical water collection sheet 6, the bottom surface of described horizontal ring flat-plate 3 is equipped with a plurality of minutes water plates 7, on described horizontal ring flat-plate 3, be equipped with a plurality of tapping hole 301 and/or bypass channels 302 that match with minute water plate 7 positions and vertically connect plate body, the upper end of described minute water plate 7 is welded in the bottom surface of horizontal ring flat-plate 3, lower end is welded on the outer side wall of cylindrical shell 2, at the bottom of described bag on 8 containing being welded with a plurality of supporting legs 9, between described supporting leg 9, be provided with heat-dissipating space, described cylindrical shell 2, the material of the bag end 8 and supporting leg 9 is low-alloy high-strength sheet material, and (sheet material can select low-alloy high-strength Q 345 to make, according to user environment temperature, those skilled in the art can adjust the material of sheet material as required, as carried out corresponding selection from Q345B to Q345E).The volume of cinder ladle can regulate as required, and to meet user not co-content, the requirement of different slow cooling time, generally cinder ladle can be made into the welding cinder ladle from 6~16 cubes of various different sizes.In addition, those skilled in the art can rule of thumb judge quantity and the size of supporting leg with reference to the actual load of cinder ladle, and generally the quantity of supporting leg is 3-6 (supporting leg can be interconnection with cinder ladle outer wall parts, improves overall construction intensity).Respectively the catchmenting of cinder ladle outer wall, minute wet part, approach the water coolant overflowing in cinder ladle all to collect and be directed to cinder ladle outer wall, and cinder ladle is carried out to secondary application, accelerates the speed of cooling of copper ashes, overcomes and on cooling time, cast the slightly long deficiency of cinder ladle.
The various bag Bottom Shapes that at the bottom of described bag, 8 shape can be commonly used for this area.Preferably, bag the end 8 can be flat bag at the bottom of or at the bottom of spherical bag.Flat structure of ladle bottom is as shown in Figure 20-21, and while adopting at the bottom of flat bag, the bag end 8 is welded construction with cylindrical shell 2, and by being welded to connect, supporting leg 9 is positioned at bag bottom, between supporting leg 9, forms heat-dissipating space at the bottom of spherical bag and between cylindrical shell; Spherical structure of ladle bottom is as shown in Fig. 1-7, at the bottom of spherical bag, adopt hot-forming or casting technique to prepare, at the bottom of spherical bag and between cylindrical shell by being welded to connect, while adopting meticulous castmethod to make at the bottom of described spherical bag, from bag end upper edge hole, to bag end bottom thickness, increase gradually, the thickness range at the bottom of spherical bag is 60-150mm.While adopting hot-die compacting at the bottom of described spherical bag, for ease of making, bag base thickness degree is made as uniform thickness, and different according to cinder ladle load, at the bottom of spherical bag, thickness range is 60-150mm.
Trunnion seat assembly 1 is between top-down first ring flat-plate and second ring flat-plate, trunnion seat assembly 1 can adopt the various trunnion seat assembly that is applicable to cinder ladle known in those skilled in the art, for example box-structure (example is structure as shown in Figure 10) or thick-walled tube, gusset and gudgeon unitized construction (for example structure shown in accompanying drawing 15~17, accompanying drawing 18~19), or trapezoid structure (example is structure as shown in Figure 31) etc.As shown in Figure 15-19, trunnion seat assembly is comprised of thick-walled tube 1203, gudgeon 1204 and gusset 1201,1202,1205 or 1206, and gudgeon and thick-walled tube adopt hot charging, then with gusset welding, building block again with barrel soldering.
As shown in Figure 11-12, the height of water collection sheet 6 is generally 30-100mm, and thickness is generally 5-20mm; Dividing water plate 7 is rectangle or square, and the angle β between minute water plate 7 and cylindrical shell 2 buses is 10-75 °, and width is 80-200mm, length 100~200mm, and thickness is 5-20mm.Minute water plate 7 also can be in middle bending, is arranged at the bottom of spherical bag and cylindrical shell butt weld place, is convenient to greatest extent water coolant be drained into bottom, the bag end.When adopting bending design, minute water plate 7 length increase slightly, and these time-division water plate 7 width are 80~200mm, and length is 100~300mm, and thickness is 5-20mm.
As shown in Figure 11-14, on horizontal ring flat-plate 3, the quantity of tapping hole 301 and bypass channel 302 can be adjusted as required, and generally tapping hole 301 quantity are 6-40, aperture is 30-80mm, the quantity of bypass channel 302 is 6-40, and width is 30-50mm, and length is 60-120mm.
As shown in Figure 6, the quantity of spillway hole 201 and overflow groove 202 can be adjusted as required, generally, the quantity of spillway hole 201 is 2-6, aperture is 40-80mm, and on the medullary ray of spillway hole 201 and cylindrical shell 2, the vertical range on edge is 40-80mm, and the quantity of overflow groove 202 is 2-6, be highly 30-120mm, width is 30-100mm.As Figure 8-9, cinder ladle outer wall be collected and be directed to spillway hole 201 and overflow groove 202 can by the water coolant overflowing in cinder ladle, each spillway hole 201 and overflow groove 202 outer ends are equipped with water-blocking groove 203, and water-blocking groove can be collected into the water coolant overflowing on horizontal ring flat-plate 3, and guide cooling water is toward current downflow.
The using method of the Novel welding cinder ladle that is applicable to copper ashes retarded cooling process provided by the present invention is as follows: first by cinder ladle splendid attire liquid steel slag air cooling after 2~25 hours, start toward cinder ladle trickle, to copper ashes, carry out cooling, water coolant is full of overflow groove 202 or the spillway hole 201 after cinder ladle, from cinder ladle cylindrical shell 2, offered and overflows, see accompanying drawing 6,8,9, legend is offered 4 overflow grooves 202, position at overflow groove 202, also can offer spillway hole 201, water coolant is after water-blocking groove (seeing accompanying drawing 8) collects, enter one ring flat-plate 3 topmost above, and collected by water collection sheet 6.On each horizontal ring flat-plate 3 of cinder ladle, offer bypass channel 302 and/or tapping hole 301, the bypass channel 302 on horizontal ring flat-plate 3 and/or tapping hole 301 circumference uniform distributions.Horizontal ring flat-plate 3 top welding water collection sheets 6 at cinder ladle outer wall, water collection sheet 6 is water-tight with the weld seam of horizontal ring flat-plate 3, guarantee that water coolant does not overflow from ring flat-plate edge, horizontal ring flat-plate 3 bottom welding minute water plates 7, divide the position of water plate to match with the position of bypass channel or tapping hole, in general divide water plate to be positioned at the below of bypass channel or tapping hole, divide water plate 7 upper limbs and horizontal ring flat-plate 3 weld seam below to guarantee water-tight, divide water plate 7 lower rims and barrel soldering firmly (in order to improve the flow area of water coolant, divide water plate 7 upper limbs all to weld, guarantee water-tight, while dividing water plate 7 lower rims and cylindrical shell 2 welding, lower rim both sides respectively stay 10-80mm (being preferably 15-30mm) not weld with cylindrical shell 2, generally, divide water plate 7 both sides not weld, divide water plate 7 to use the sheet shearing blanking of correspondingly-sized, simple in structure, make convenient welding).Each bypass channel 302 and/or the tapping hole 301 of water coolant from horizontal ring flat-plate 3 flows down along cylinder body outer wall, and minute water plate 7 evenly separates the water coolant staying from bypass channel or tapping hole, fully expand water coolant contact area after water coolant continue to flow down along cylinder body outer wall.After cooling-water flowing to the 2 road ring flat-plates 3, the 2nd ring flat-plate place, road is provided with water collection sheet 6 and minute water plate 7 with the 1st road ring flat-plate same structure, therefore water coolant arrives after the 2nd road ring flat-plate, water coolant is with from the 1st road ring flat-plate, down drainage is the same, quilt drains on cylindrical shell 2 outer walls below the 2nd road ring flat-plate and continues cooling to cinder ladle, water coolant is drained into 8 bottoms at the bottom of the spherical bag of cinder ladle always like this, from the whole flow process of water coolant, can find out, it is cooling that water coolant has carried out complete secondary to cinder ladle, because water coolant is large along the mobile open area of cinder ladle outer wall, good cooling results.The about 2-25 hour of cinder ladle air cooling time, be 40-65 hour the cooling time of welding cinder ladle trickle.Two ends spilling water due to minute water plate 7 slave plates, therefore after cinder ladle life-time service, when the incrustation scale after cinder ladle outer wall deposition, erosion, can be regularly from minute water plate 7 sides to erosion etc., clear up easily, guarantee the cooling performance of this device cooling-part, in addition Integral cooling structure of the present invention is simple, makes welding very convenient.
Welding cinder ladle manufacture craft provided by the present invention is as follows:
Whole cinder ladle is made, board selection low-alloy high-strength plate Q345 makes, according to user environment temperature, the material of sheet material is carried out respectively corresponding selection from Q345B to Q345E, each parts respectively blanking are made, first trunnion seat assembly 1 first welds and assembles, then with behind Cylinder assembly location weld, cylindrical shell 2 (can adopt 1~3 pitch circle frustum docking by pressing machine press forming, every section of frustum of a cone adopts 2~6 sections of compactings to form), gussets etc. adopt numerical control blanking, at the bottom of flat bag, (see accompanying drawing 20, 21) adopt the preparation of low-alloy high-strength plate, finished product directly and cylindrical shell 2 weld.At the bottom of spherical bag, (see accompanying drawing 5,12) and adopt two kinds of methods to make: a kind of method is hot-forming, then with barrel soldering (because spherical bag Bottom Shape is simple, select bag end internal diameter 1000mm~1300mm, have forming mould to use more, significantly reduce manufacturing cost).Wherein barrel designs, according to the difference of load, volume, selects 60-100mm low-alloy high-strength plate to make; While adopting hot press forming technology to make at the bottom of spherical bag, bag each portion of the end can be made into uniform thickness, guarantee the support strength at the bag end and save material.Another kind is meticulous casting, uses the material close with cylindrical shell performance perameter, will at the bottom of bag, be optimized design, alleviates to greatest extent the bag weight at the end; Bag end weight only accounts for approximately 10% of gross weight.When adopting castmethod to make at the bottom of spherical bag, owing to belonging to foreign material welding, while weld seam carry load, whether weldquality is related to production can safe operation, therefore in order to ensure wrapping the reliable of the end and cylindrical shell weld seam, must consider from many-sides such as bag basal cross section, the structure of wrapping the end and cylindrical shell docking site coordination portion, overall construction design.Consider the bag supporting capacity at the end, the bag end is made into variable cross-section, the bag end, is consistent with thickness and the cylindrical shell of cylindrical shell joint, and from wrapping end upper edge hole to wrapping end lowest part thickness progressive additive, thickness is from 60-150mm.At the bottom of spherical bag and outside the butt weld of cylindrical shell, horizontal ring flat-plate 3 (seeing accompanying drawing 5) is set, horizontal ring flat-plate 3 is according to the difference of cinder ladle volume, take different thickness and ring flat-plate width, horizontal ring flat-plate 3 thickness 40-300mm, horizontal ring flat-plate 3 width (diametric(al)) are 100-300mm, at the bottom of spherical bag is held on the inclined-plane of horizontal ring flat-plate 3, share the load of bag end butt weld, horizontal ring flat-plate 3 has longitudinal gusset 5 (seeing accompanying drawing 1) of the thickness 40-80mm of circumference uniform distribution 6-12 bar to form reticulated structure up and down simultaneously, the load of bag end butt weld is shared by longitudinal gusset, act on cylindrical shell, strengthen the structural strength at the bag end and cylindrical shell position, (when wrapping the end and cylindrical shell butt weld place, expose with the vertical load of copper ashes in the bag butt weld shared bag at the end, example is structure as shown in figure 31, during all longitudinal gussets process butt welds, can offer fabrication hole, avoid butt weld, the bag end and the stressed of cylindrical shell butt weld are shared by longitudinal gusset), at the bottom of spherical bag, be designed to one side V-butt with the weld seam of cylindrical shell, groove angle 30-50 °, b is 3-10mm, through intensity, calculate, and consider the constructional feature of weld at the bottom of spherical bag, the bag end 8, is designed to fillet weld with the horizontal ring flat-plate 3 outside cylindrical shell 2 butt welds, foot welding height is 0.7 times of this thinner component thickness in position, and the structural strength of support from integral network structure, horizontal ring flat-plate 3 inclined-planes, the end and cylindrical shell combining site being guaranteed to wrap in three aspects of weld seam design is reliable.In addition, can also dock welding peripheral hardware with cylindrical shell 2 at the bag end 8 and put coaming plate 401, as shown in figure 28, coaming plate 401 welds with the bag end 8 and cylindrical shell 2 respectively, coaming plate 8 width are adjusted according to cinder ladle volume size, coaming plate thickness 40~100mm, and coaming plate can not only be shared the load of the bag end and cylindrical shell butt weld, simultaneously can adjust coaming plate width, make fillet weld position at the bottom of coaming plate and cylindrical shell and bag away from the heat affected zone of wrapping the end and cylindrical shell butt weld.Sometimes because cinder ladle physical dimension is subject to site technique condition restriction, when the bag end and cylindrical shell joint can not arrange ring flat-plate, the load of bag end butt weld place is shared by the circumferential uniform longitudinal gusset of cinder ladle outer wall, though this structural strength compared with the cinder ladle of [Dan slightly a little less than, but force analysis shows the cinder ladle intensity of this structure and meet service requirements, and the reparation that this structure design also makes to wrap the butt weld of the end and cylindrical shell is improved.
In the present invention, at the bottom of flat bag back welding connects cinder ladle and spherical bag cinder ladle all with cooling module, the quantity of the ring of two kinds of structure cinder ladles and similar.Facts have proved, in the situation that outer wall bipassage ring adds cooling-part, at the bottom of the cooling time of flat welding cinder ladle and spherical bag, cinder ladle approaches, in the situation that at the bottom of flat bag, cinder ladle outer wall ring flat-plate all adds cooling-part, cooling temperature that flat welding cinder ladle is cast cinder ladle is low 3 ℃~and 4 ℃, cast cinder ladle corresponding cooling time few about 10 hours.And spherical bag back welding connect cinder ladle will further improve flat welding cinder ladle in shortcoming slightly not enough aspect cooling performance, spherical structure of ladle bottom heat-dissipating space is large, and water coolant is more easily arrived wrap at the end.There is three kinds of water-cooleds, water-cooled+air cooling, air cooling mode in cinder ladle process of cooling simultaneously, due to water-cooled, water-cooled+air cooling, three kinds of types of cooling of air cooling, cooling efficiency successively decreases, the average cooling power of setting water-cooled, water-cooled+air cooling, air cooling is 1:0.5:0.25, set up desirable heat dissipation model, model cooling line from Figure 25 can find out, flat cinder ladle middle and lower part speed of cooling is slower.By Analysis deterrmination, improve the direction that structure design improves cooling efficiency, be about to flat change spherical bag at the bottom of.At the bottom of spherical bag, make the type of cooling of cinder ladle bottom change water-cooled+air cooling into by original air cooling, cooling efficiency significantly improves, and has solved the problem that flat cinder ladle middle and lower part volume is large and cooling conditions is poor.Welding in addition cinder ladle casts cinder ladle and can be easily at the ring flat-plate of cinder ladle outer wall, installs cooling-part additional, the water coolant that makes to go out from cinder ladle overflow is almost all collected and drains into cinder ladle outer wall, flow area and water amount all surpass casting cinder ladle, by making the original not welding cinder ladle of heating/cooling device cast cinder ladle long deficiency cooling time, become strong point.As shown in figure 29, water coolant in cylindrical shell flows out from the overflow groove of cylindrical shell upper edge hole, through water-blocking groove drainage, water coolant all drains into upper ring plate, because upper ring plate top arranges water collection sheet, therefore water coolant can not flow out from the edge of pressed on ring, and can only flow down from bypass channel or the tapping hole of ring flat-plate circumference uniform distribution, under each bypass channel or tapping hole of ring flat-plate, all correspondence is provided with a minute water plate, water coolant is from the bypass channel of ring flat-plate flows down along cinder ladle outer wall, through a minute water plate resistance gear, water coolant flows down along cinder ladle outer wall from minute water plate both sides, play the effect that increases water coolant flow surface, water coolant from minute water plate current of pressed on ring after, along cinder ladle outer wall, flow to second ring flat-plate, water is the same with first flowing of second ring flat-plate, per pass ring flat-plate all arranges coaming plate and divides a water plate, structure is identical, the flow pattern of water is identical.Minute water plate that the most lower one ring flat-plate configures, can be with flanging, to water coolant is more drained into cinder ladle bottom.
The present invention optimizes the cooling-part that cinder ladle outer wall arranges, and the water coolant that cinder ladle is overflowed is all collected, and successively drains into cinder ladle outer wall, and water coolant is flowed along cinder ladle outer wall, realizes the complete sufficient utilization of secondary of water coolant, at the bottom of particularly adopting spherical bag, keeping to greatest extent, welding cinder ladle structural strength is high, weldability is good, under the good prerequisite of reparation property, make to weld cinder ladle bottom heat radiation space and become large, make water coolant can arrive cinder ladle bottommost, greatly shorten cinder ladle cooling time, improve all transfer efficients of user's cinder ladle, overcome the not welding cinder ladle of heating/cooling device and compare the inferior position on cooling time with casting cinder ladle, simultaneously because welding cinder ladle outer wall has ring, from cinder ladle, the water coolant of overflow is under the drainage of refrigerating unit, along cinder ladle outer wall, flow down, can overcome the defect that casting cinder ladle outer wall can not install cooling-part additional, the flow area of welding cinder ladle outer wall is maximized, and Novel welding cinder ladle outer wall flow area is greater than casting cinder ladle, , greatly improve the cooling efficiency of cinder ladle, this will be less than casting cinder ladle the cooling time that make the welding cinder ladle at the bottom of spherical bag.Make to weld the multiple demand that cinder ladle can meet different user, will in copper ashes retarded cooling process, better be applied.
The making method of Novel welding cinder ladle provided by the present invention, is used the casting bag end, still can make the not cast scale of components of welding cinder ladle reach 90%; Or at the bottom of making spherical bag with hot-press molding method, making whole welding cinder ladle 100% is not cast product, the huge pollution that the waste gas, antiquated sand, the dust that greatly reduce castingprocesses generation are caused environment, greatly save the huge waste of monoblock casting secondary smelting to the energy, there is huge social benefit, to, for national sustainable development contributes, meet the industry policy that national energy-saving reduces discharging.
Embodiment 1
Novel welding cinder ladle operation is produced as follows:
1. number material, blanking, bevelling operation:
Strictly by the typesetting figure number of carrying out, expect, the necessary straight not damaged of mother metal and other defect of number material, otherwise should first correct.
All adopt numerical control cutting machine blanking, slab cutting, adopts self-defined lead-in wire (avoiding punch-cuts) and is total to limit cutting technique.
Cutting torch adopts suitable model, and during cutting, the adjustment of wind line should be vertical, guarantees that cutting edge is smooth.
Groove is offered groove and must be used semi auto cutting machine to offer, arc-shaped edges adopts ground rule to coordinate semi auto cutting machine to offer, forbid manual cut (manual pattern frock cutting can be considered in the position that cannot carry out semi-automatic cutting), groove angle, size, with reference to drawing and processing requirement, must not arbitrarily be changed.
By groove type shown in master drawing, adopt semi auto cutting machine to offer groove, the weld seam plate butting grooves that requires penetration is offered as Figure 24 B, the bag end and cylindrical shell groove as shown in Figure 24 C as Figure 24 A, T-shaped weld groove.
Wherein, cylindrical shell butt weld groove angle 60-65 °, is full penetration weld; The weld seam of the outer gusset of cylindrical shell and cylindrical shell, groove angle is 30-45 °; The bag end and cylindrical shell butt weld groove are driveed in inner side, groove angle 30-50 °; Ring flat-plate outside the bag end and cylindrical shell butt weld is twin fillet wolt, and weld bead height is 0.7 times of cylindrical shell wall thickness.
2. the trunnion seat assembly 1 of Novel welding cinder ladle is made separately as individual components, gudgeon 105 adopts 40Cr forging to make, and carries out modified and defect detecting test, guarantees that gudgeon 105 steady qualities are reliable, gudgeon 105 is located by key 101 with sleeve pipe 104, restriction gudgeon axial displacement and axial rotation.After assembling, weld formation trunnion seat assembly 1 (parts) with weldment 102,103,106; Or trunnion seat assembly uses low 2 kinds of structure formations, gudgeon 1204 and thick-walled tube 1203 hot chargings, then with gusset 1201,1202,1205 welding after as parts again with cylindrical shell assembly welding.
3. cylindrical shell 2 adopts press forming, and according to cinder ladle volume size, whole cylindrical shell can be formed by 1~3 section of cylindrical shell docking, and longitudinal butt weld of adjacent two sections of cylindrical shells is staggered, more than the size that staggers 200mm; Every section of cylindrical shell adopts 3~4 compactings to form, and first cylindrical shell is pressed to 3~4 blankings, and weld groove form is X-shaped, and weld seam is full penetration weld, and carries out UT (Ultrasonic Testing).If while adopting 4 compactings, every two are first carried out jam welding, then two of docking are suppressed respectively, after compression moulding, two cylindrical shells are carried out to assembly welding, butt weld adopts union-melt weld, first welds weld joint on inner side, side weld outside then welding again on mold.After cylindrical shell butt weld completes, check the deviation from circular from of cylindrical shell, when overproof, carry out alignment.
4. the bag end 8, adopts two kinds of methods to make, and a kind of is hot-forming, and material is heated to approximately 950 ℃, at the bottom of using spherical mould to be pressed into spherical bag, then carries out 500 ℃~600 ℃ stress relief annealings on hydropress, eliminates residualinternal stress.Another kind is casting, adopting low-phosphorous low-alloy high-strength material is that raw material is made, and because cast material is identical with cylinder material, chemical composition is consistent, therefore in performance perameter, differ very little with cylindrical shell material, during casting, butting grooves is cast out, the convenient welding operation of operation later, because bag end weight only accounts for 10% of cinder ladle gross weight, and simple shape, easily obtain preferable quality, after casting, carry out normalizing thermal treatment crystal grain thinning and eliminate internal stress, as accompanying drawing 22.And carry out non-destructive test(ing)(NDT).
5. the outer longitudinally gusset 5 of cylindrical shell and supporting leg 9 adopt numerical control blanking, and use automatic beveling machine to offer groove, and wherein, the gusset under trunnion seat assembly is offered monolateral groove, groove angle 30-45 °, and longitudinally gusset is offered bilateral groove.
6. overall package sequentially: after the circle of cylindrical shell school, cylindrical shell is docked with bag end assembly welding, proofread and correct after size, on mold, cylindrical shell and the circumferential weld that wraps the end are carried out to the weldering of ship type, or use C02 gas to protect weldering.Then cylindrical shell is inverted, be positioned on assembly floor, by assembly welding good trunnion seat assembly 1 and cylindrical shell 2 assemblings, adopt the methods such as messenger wire, control each fitted position (gudgeon right alignment, gudgeon central span, gudgeon center are to wrapping end height etc.), assemble the parts such as trunnion seat main gusset, pressed on ring, middle ring, lower ring, the longitudinal gusset of each interannular, supporting leg, all tack weldings must be solid and reliable again.
7. welding:
1) trunnion seat assembly middle ear axillare docks with ring flat-plate, cylindrical shell and adopts union-melt weld.Wlding is H10Mn2+HJ431.Docking welding setting is as shown in table 1:
Table 1
2) cylindrical shell adopts C02 gas to protect weldering with the bag end, and welding setting is as shown in table 2:
Table 2
3) tack welding, ring flat-plate, gusset, supporting leg welding adopt C02 gas to protect weldering, CO 2.shielded welding welding setting is as shown in table 3:
Table 3
4) weld pre-thermal recovery electrically heated or flame heating method, 65 ℃~110 ℃ of weld preheating and interlayer temperatures.The heating region of preheating should be in bevel for welding both sides, and width should be respectively the more than 1.5 times of weldment welding place weldment, and is not less than 100mm.
8. flaw detection: butt weld is full penetration weld, and Ultrasonic Nondestructive I level is qualified; Gudgeon Ultrasonic Nondestructive I level is qualified, other positions 50%PT, and II level is qualified.Flaw detection operative norm is as shown in table 4:
Table 4
In sum, the present invention has effectively overcome various shortcoming of the prior art and tool high industrial utilization.
Above-described embodiment is illustrative principle of the present invention and effect thereof only, but not for limiting the present invention.Any person skilled in the art scholar all can, under spirit of the present invention and category, modify or change above-described embodiment.Therefore, such as in affiliated technical field, have and conventionally know that the knowledgeable, not departing from all equivalence modifications that complete under disclosed spirit and technological thought or changing, must be contained by claim of the present invention.

Claims (32)

1. a Novel welding cinder ladle that is applicable to copper ashes retarded cooling process, it is characterized in that, comprise cylindrical shell (2), at the bottom of being positioned at the trunnion seat assembly (1) of cylindrical shell (2) both sides and being welded in the bag of cylindrical shell (2) bottom (8), described cylindrical shell (2) be provided with match with cinder ladle car turn over back stall (4), the outer side wall of described cylindrical shell (2) is provided with a plurality of horizontal ring flat-plates (3), between described a plurality of horizontal ring flat-plates (3), by a plurality of longitudinal gussets (5), be connected, horizontal ring flat-plate (3) and longitudinally gusset (5) form fenestral fabric, described cylindrical shell (2) upper end is provided with a plurality of spillway holes (201) and/or overflow groove (202), described spillway hole (201) or overflow groove (202) can be drawn the water coolant in cylindrical shell (2), the outer of described horizontal ring flat-plate (3) is equipped with vertical water collection sheet (6), the bottom surface of described horizontal ring flat-plate (3) is equipped with a plurality of minutes water plates (7), on described horizontal ring flat-plate (3), be equipped with a plurality of tapping hole (301) and/or bypass channels (302) that match with minute water plate (7) position and vertically connect plate body, the upper end of minute water plate (7) is welded in the bottom surface of horizontal ring flat-plate (3), lower end is welded on the outer side wall of cylindrical shell (2), at the bottom of described bag, (8) are upper containing being welded with a plurality of supporting legs (9), described supporting leg is provided with heat-dissipating space between (9), described cylindrical shell (2), the material of the bag end (8) and supporting leg (9) is low-alloy high-strength sheet material.
2. a kind of Novel welding cinder ladle that is applicable to copper ashes retarded cooling process as claimed in claim 1, it is characterized in that, described a plurality of horizontal ring flat-plates (3) are distributed on the outer side wall of cylindrical shell (2) from top to bottom evenly and at intervals, the quantity of described horizontal ring flat-plate (3) is 3-6, horizontal ring flat-plate (3) thickness is 40-300mm, and horizontal ring flat-plate (3) width is 100-300mm; Described longitudinal gusset (5) is arranged in respectively between two horizontal ring flat-plates (3), and longitudinal gusset (5) quantity between two horizontal ring flat-plates (3) is 4~12, and longitudinally gusset (5) thickness is 30~100mm, and width is 60~300mm.
3. a kind of Novel welding cinder ladle that is applicable to copper ashes retarded cooling process as claimed in claim 2, is characterized in that, described trunnion seat assembly (1) is between top-down first ring flat-plate and second ring flat-plate.
4. a kind of Novel welding cinder ladle that is applicable to copper ashes retarded cooling process as claimed in claim 1, is characterized in that, at the bottom of described bag, (8) are at the bottom of flat bag or at the bottom of spherical bag.
5. a kind of Novel welding cinder ladle that is applicable to copper ashes retarded cooling process as claimed in claim 4, it is characterized in that, while adopting casting method to make at the bottom of described spherical bag, the bag end, increases to bag end bottom thickness gradually from bag end upper edge hole, and the thickness range at the bottom of spherical bag is 60-150mm.
6. a kind of Novel welding cinder ladle that is applicable to copper ashes retarded cooling process as claimed in claim 4, is characterized in that, while adopting hot-die compacting at the bottom of described spherical bag, thickness is made as uniform thickness, so that make, bag end thickness range is 60-150mm.
7. a kind of Novel welding cinder ladle that is applicable to copper ashes retarded cooling process as claimed in claim 1, it is characterized in that, described minute water plate (7) be rectangle, dividing the angle between water plate (7) and cylindrical shell (2) bus is 10-75 °, width is 80-300mm, length is 100~200mm, and thickness is 5-20mm.
8. a kind of Novel welding cinder ladle that is applicable to copper ashes retarded cooling process as claimed in claim 7, it is characterized in that, the middle bending of described minute water plate (7), is arranged in the bag end (8) and cylindrical shell (2) butt weld place, so that farthest guide water coolant into the bag end.
9. a kind of Novel welding cinder ladle that is applicable to copper ashes retarded cooling process as claimed in claim 7, is characterized in that, minute water plate (7) lower rim both sides respectively stay 10-80mm not weld with cylindrical shell (2).
10. a kind of Novel welding cinder ladle that is applicable to copper ashes retarded cooling process as claimed in claim 1, is characterized in that, the height of described water collection sheet (6) is 30-100mm, and thickness is 5-20mm.
11. a kind of Novel welding cinder ladles that are applicable to copper ashes retarded cooling process as claimed in claim 1, is characterized in that, the quantity of the tapping hole (301) of every horizontal ring flat-plate (3) is 6-40, and aperture is 30-80mm.
12. a kind of Novel welding cinder ladles that are applicable to copper ashes retarded cooling process as claimed in claim 1, is characterized in that, the quantity of the bypass channel (302) of every horizontal ring flat-plate (3) is 6-40, and width is 30-50mm, and length is 60-120mm.
13. a kind of Novel welding cinder ladles that are applicable to copper ashes retarded cooling process as claimed in claim 1, it is characterized in that, described spillway hole (201) axis is vertical with the bus of cylindrical shell (2), the quantity of spillway hole (201) is 2-6, aperture is 30-80mm, and the vertical range on the upper edge of the medullary ray of spillway hole (201) and cylindrical shell (2) is 40-80mm.
14. a kind of Novel welding cinder ladles that are applicable to copper ashes retarded cooling process as claimed in claim 1, it is characterized in that, described overflow groove (202) bottom surface is vertical with the bus of cylindrical shell (2), and the quantity of overflow groove (202) is 2-6, be highly 30-120mm, width is 30-100mm.
A kind of Novel welding cinder ladle that is applicable to copper ashes retarded cooling process as described in 15. claims as arbitrary in claim 13-14, is characterized in that, described spillway hole (201) and overflow groove (202) outer end are equipped with water-blocking groove (203).
16. a kind of Novel welding cinder ladles that are applicable to copper ashes retarded cooling process as claimed in claim 1, it is characterized in that, the structure of described trunnion seat assembly (1) is selected from the box-structure of inverted trapezoidal, the unitized construction of the box-structure of trapezoid, thick-walled tube and gusset.
17. a kind of Novel welding cinder ladles that are applicable to copper ashes retarded cooling process as claimed in claim 4, it is characterized in that, at the bottom of described bag, (8) are at the bottom of spherical bag time, the bag end (8) and cylindrical shell (2) butt weld are provided with the structure of horizontal loops plate (3) outward, and the load that the bag end and cylindrical shell butt weld are subject to is shared by the riser of the inclined-plane of ring flat-plate, longitudinal gusset (5) and supporting leg (9).
18. a kind of Novel welding cinder ladles that are applicable to copper ashes retarded cooling process as claimed in claim 4, it is characterized in that, at the bottom of described bag, (8) are at the bottom of spherical bag time, the bag end and cylindrical shell butt weld expose, the load that the bag end and cylindrical shell butt weld are subject to is shared by the riser of longitudinal gusset (5) and supporting leg (9), advantage be wrap the end and cylindrical shell butt weld reparation more for convenience.
19. a kind of Novel welding cinder ladles that are applicable to copper ashes retarded cooling process as claimed in claim 4, it is characterized in that, at the bottom of described bag, (8) are at the bottom of spherical bag time, the bag end and cylindrical shell butt weld arrange coaming plate (401) outward, coaming plate (401) welds with the bag end (8) and cylindrical shell (2) respectively, the width of coaming plate (401) guarantees that its weld seam is away from the heat affected zone of the bag end (8) butt weld, and the bag end (8) is shared by the riser of coaming plate (401), longitudinal gusset (5) and supporting leg (9) with the load that cylindrical shell (2) butt weld is subject to.
A kind of preparation method who is applicable to the Novel welding cinder ladle of copper ashes retarded cooling process as described in 20. claims as arbitrary in claim 1-19, comprises the steps:
1) number material, blanking, bevelling operation: by the typesetting figure number of carrying out material, blanking, and carry out groove and offer;
2) the trunnion seat assembly of Novel welding cinder ladle is made separately as individual components;
3) cylindrical shell is made: cylindrical shell adopts press forming to make;
4) the bag end, makes: the bag end adopts hot pressing formation process or casting to make;
5) the outer longitudinally gusset of cylindrical shell and supporting leg adopt numerical control blanking, and use automatic beveling machine to offer groove, and wherein, the gusset under trunnion seat assembly is offered monolateral groove, groove angle 30-45 °, and longitudinally gusset is offered bilateral groove.
6) overall package: after the circle of cylindrical shell school, cylindrical shell is docked with bag end assembly welding, proofread and correct after size, on mold, cylindrical shell and the circumferential weld at the bag end are carried out to the weldering of ship type, or use C02 gas to protect weldering, then cylindrical shell is inverted, be positioned on assembly floor, by assembly welding good trunnion seat assembly and cylindrical shell assembling, control each fitted position, then assemble trunnion seat main gusset, pressed on ring, middle ring, lower ring, the longitudinal gusset of each interannular, leg branching part;
7) welding: trunnion seat assembly middle ear axillare docks with ring flat-plate, cylindrical shell and adopts union-melt weld; Cylindrical shell adopts C02 gas to protect weldering with the bag end; Tack welding, ring flat-plate, gusset, supporting leg welding adopt C02 gas to protect weldering; Weld pre-thermal recovery electrically heated or flame heating method, 65 ℃~110 ℃ of weld preheating and interlayer temperatures, the heating region of preheating is in bevel for welding both sides, and width should be respectively the more than 1.5 times of weldment welding place weldment, and is not less than 100mm.
8) flaw detection: butt weld is full penetration weld, and Ultrasonic Nondestructive I level is qualified; Gudgeon Ultrasonic Nondestructive I level is qualified, and other positions 50%PT II level is qualified.
21. a kind of preparation methods that are applicable to the Novel welding cinder ladle of copper ashes retarded cooling process as claimed in claim 20, is characterized in that, the mother metal of described number material needs straight not damaged and other defect, otherwise should first correct.
22. a kind of preparation methods that are applicable to the Novel welding cinder ladle of copper ashes retarded cooling process as claimed in claim 20, it is characterized in that, described blanking process all adopts numerical control cutting machine blanking, slab cutting, adopt self-defined lead-in wire and be total to limit cutting technique, cutting torch adopts suitable model, and during cutting, the adjustment of wind line should be vertical, guarantees that cutting edge is smooth.
23. a kind of preparation methods that are applicable to the Novel welding cinder ladle of copper ashes retarded cooling process as claimed in claim 20, it is characterized in that, groove is offered groove and must be used semi auto cutting machine to offer, arc-shaped edges adopts ground rule to coordinate semi auto cutting machine to offer, cylindrical shell butt weld groove angle 60-65 ° is full penetration weld; The weld seam of the outer gusset of cylindrical shell and cylindrical shell, groove angle is 30-45 °; The bag end and cylindrical shell butt weld groove are driveed in inner side, groove angle 30-50 °; Ring flat-plate outside the bag end and cylindrical shell butt weld is twin fillet wolt, and weld bead height is 0.7 times of cylindrical shell wall thickness.
24. a kind of preparation methods that are applicable to the Novel welding cinder ladle of copper ashes retarded cooling process as claimed in claim 20, is characterized in that, gudgeon adopts 40Cr forging to make.
25. a kind of preparation methods that are applicable to the Novel welding cinder ladle of copper ashes retarded cooling process as claimed in claim 20, it is characterized in that, when cylindrical shell adopts press forming, according to cinder ladle volume size, whole cylindrical shell is formed by 1~3 section of cylindrical shell docking, longitudinal butt weld of adjacent two sections of cylindrical shells is staggered, more than the size that staggers 200mm.
26. a kind of preparation methods that are applicable to the Novel welding cinder ladle of copper ashes retarded cooling process as claimed in claim 25, it is characterized in that, every section of cylindrical shell adopts 3~4 compactings to form, first cylindrical shell is pressed to 3~4 blankings, weld groove form is X-shaped, weld seam is full penetration weld, and carries out UT (Ultrasonic Testing); After cylindrical shell butt weld completes, check the deviation from circular from of cylindrical shell, when overproof, carry out alignment.
27. a kind of preparation methods that are applicable to the Novel welding cinder ladle of copper ashes retarded cooling process as claimed in claim 26, it is characterized in that, when adopting 4 compactings, every two are first carried out jam welding, then two of docking are suppressed respectively, after compression moulding, two cylindrical shells are carried out to assembly welding, butt weld adopts union-melt weld, first welds weld joint on inner side, side weld outside then welding again on mold.
28. a kind of preparation methods that are applicable to the Novel welding cinder ladle of copper ashes retarded cooling process as claimed in claim 20, it is characterized in that, the concrete grammar of described hot pressing formation process is: thickness of workpiece is reserved attenuate amount 10%~15%, material is heated to approximately 950 ℃, at the bottom of using on hydropress and using knocking over punching press to make spherical bag below spherical patrix, then carry out 500 ℃~600 ℃ stress relief annealings, eliminate residualinternal stress.
29. a kind of preparation methods that are applicable to the Novel welding cinder ladle of copper ashes retarded cooling process as claimed in claim 20, it is characterized in that, the concrete grammar of described hot pressing formation process is: thickness of workpiece is reserved attenuate amount 2%~5%, workpiece is heated to approximately 950 ℃, use spherical patrix and counterdie, extrusion molding on hydropress.
30. a kind of preparation methods that are applicable to the Novel welding cinder ladle of copper ashes retarded cooling process as claimed in claim 20, it is characterized in that, the concrete grammar of described casting is: adopting low-phosphorous low-alloy high-strength material is that raw material is made, because cast material is identical with cylinder material, chemical composition is consistent, therefore in performance perameter, differ very little with cylindrical shell material, during casting, butting grooves is cast out, the welding operation of operation after convenient, because bag end weight only accounts for 10% of cinder ladle gross weight, and simple shape, easily obtain preferable quality, after casting, carry out normalizing thermal treatment crystal grain thinning and eliminate internal stress, and carry out non-destructive test(ing)(NDT).
31. a kind of preparation methods that are applicable to the Novel welding cinder ladle of copper ashes retarded cooling process as claimed in claim 20, is characterized in that, the concrete grammar of controlling each fitted position is messenger wire method.
32. a kind of preparation methods that are applicable to the Novel welding cinder ladle of copper ashes retarded cooling process as claimed in claim 20, is characterized in that, described non-destructive testing standard is specially: cylindrical shell butt weld GB11345-89 completepenetration B level; Gudgeon JB/T4730.3-2005, JB/T4730.4-2005 I level; Other welds BJ/T6062-200750%PT II level.
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Cited By (5)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN104525927A (en) * 2014-11-18 2015-04-22 武汉恒威重机有限公司 Slag ladle with flow guide water channel
CN106319113A (en) * 2016-11-02 2017-01-11 阳谷祥光铜业有限公司 Cooling device for slag ladle
CN107858465A (en) * 2017-11-16 2018-03-30 中冶宝钢技术服务有限公司 Weld cinder ladle and preparation method thereof
WO2018132450A1 (en) * 2017-01-11 2018-07-19 Tms International Corporation Cooling vessel for metal recovery from smelting or melting waste products
CN115386662A (en) * 2021-05-24 2022-11-25 中冶宝钢技术服务有限公司 Trunnion assembly, slag ladle and slag ladle manufacturing method

Citations (5)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US5318277A (en) * 1989-07-10 1994-06-07 Dresser Industries, Inc. Lined ladles, linings therefor, and method of forming the same
CN201437152U (en) * 2009-04-08 2010-04-14 武汉恒威重机有限公司 Copper slag packet
CN203360537U (en) * 2013-07-08 2013-12-25 阳谷信民耐火材料有限公司 Copper slag ladle with reduction function
CN203635904U (en) * 2013-10-12 2014-06-11 中冶宝钢技术服务有限公司 Novel welding slag ladle for copper slag slow cooling process
CN204018703U (en) * 2014-07-29 2014-12-17 中冶宝钢技术服务有限公司 A kind of Novel welding cinder ladle being applicable to copper ashes retarded cooling process

Patent Citations (5)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US5318277A (en) * 1989-07-10 1994-06-07 Dresser Industries, Inc. Lined ladles, linings therefor, and method of forming the same
CN201437152U (en) * 2009-04-08 2010-04-14 武汉恒威重机有限公司 Copper slag packet
CN203360537U (en) * 2013-07-08 2013-12-25 阳谷信民耐火材料有限公司 Copper slag ladle with reduction function
CN203635904U (en) * 2013-10-12 2014-06-11 中冶宝钢技术服务有限公司 Novel welding slag ladle for copper slag slow cooling process
CN204018703U (en) * 2014-07-29 2014-12-17 中冶宝钢技术服务有限公司 A kind of Novel welding cinder ladle being applicable to copper ashes retarded cooling process

Cited By (6)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN104525927A (en) * 2014-11-18 2015-04-22 武汉恒威重机有限公司 Slag ladle with flow guide water channel
CN106319113A (en) * 2016-11-02 2017-01-11 阳谷祥光铜业有限公司 Cooling device for slag ladle
WO2018132450A1 (en) * 2017-01-11 2018-07-19 Tms International Corporation Cooling vessel for metal recovery from smelting or melting waste products
CN110382987A (en) * 2017-01-11 2019-10-25 Tms国际公司 For the cooling container from melting or melting waste recovery metal
CN107858465A (en) * 2017-11-16 2018-03-30 中冶宝钢技术服务有限公司 Weld cinder ladle and preparation method thereof
CN115386662A (en) * 2021-05-24 2022-11-25 中冶宝钢技术服务有限公司 Trunnion assembly, slag ladle and slag ladle manufacturing method

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