CN108438730B - Manufacturing method of composite conveyor belt of belt feeder - Google Patents
Manufacturing method of composite conveyor belt of belt feeder Download PDFInfo
- Publication number
- CN108438730B CN108438730B CN201810302646.3A CN201810302646A CN108438730B CN 108438730 B CN108438730 B CN 108438730B CN 201810302646 A CN201810302646 A CN 201810302646A CN 108438730 B CN108438730 B CN 108438730B
- Authority
- CN
- China
- Prior art keywords
- rope
- strand
- steel wire
- plate
- strands
- Prior art date
- Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
- Active
Links
Images
Classifications
-
- B—PERFORMING OPERATIONS; TRANSPORTING
- B65—CONVEYING; PACKING; STORING; HANDLING THIN OR FILAMENTARY MATERIAL
- B65G—TRANSPORT OR STORAGE DEVICES, e.g. CONVEYORS FOR LOADING OR TIPPING, SHOP CONVEYOR SYSTEMS OR PNEUMATIC TUBE CONVEYORS
- B65G15/00—Conveyors having endless load-conveying surfaces, i.e. belts and like continuous members, to which tractive effort is transmitted by means other than endless driving elements of similar configuration
- B65G15/30—Belts or like endless load-carriers
- B65G15/32—Belts or like endless load-carriers made of rubber or plastics
- B65G15/34—Belts or like endless load-carriers made of rubber or plastics with reinforcing layers, e.g. of fabric
-
- B—PERFORMING OPERATIONS; TRANSPORTING
- B65—CONVEYING; PACKING; STORING; HANDLING THIN OR FILAMENTARY MATERIAL
- B65G—TRANSPORT OR STORAGE DEVICES, e.g. CONVEYORS FOR LOADING OR TIPPING, SHOP CONVEYOR SYSTEMS OR PNEUMATIC TUBE CONVEYORS
- B65G15/00—Conveyors having endless load-conveying surfaces, i.e. belts and like continuous members, to which tractive effort is transmitted by means other than endless driving elements of similar configuration
- B65G15/30—Belts or like endless load-carriers
- B65G15/32—Belts or like endless load-carriers made of rubber or plastics
- B65G15/34—Belts or like endless load-carriers made of rubber or plastics with reinforcing layers, e.g. of fabric
- B65G15/36—Belts or like endless load-carriers made of rubber or plastics with reinforcing layers, e.g. of fabric the layers incorporating ropes, chains, or rolled steel sections
-
- B—PERFORMING OPERATIONS; TRANSPORTING
- B65—CONVEYING; PACKING; STORING; HANDLING THIN OR FILAMENTARY MATERIAL
- B65G—TRANSPORT OR STORAGE DEVICES, e.g. CONVEYORS FOR LOADING OR TIPPING, SHOP CONVEYOR SYSTEMS OR PNEUMATIC TUBE CONVEYORS
- B65G15/00—Conveyors having endless load-conveying surfaces, i.e. belts and like continuous members, to which tractive effort is transmitted by means other than endless driving elements of similar configuration
- B65G15/30—Belts or like endless load-carriers
- B65G15/48—Belts or like endless load-carriers metallic
Landscapes
- Engineering & Computer Science (AREA)
- Mechanical Engineering (AREA)
- Belt Conveyors (AREA)
Abstract
The invention belongs to the technical field of mining machinery equipment, and relates to a manufacturing method of a belt feeder composite conveyor belt, wherein the belt feeder composite conveyor belt comprises a plurality of deck groups, a plurality of weft steel wire ropes, a plurality of radial steel wire ropes and a rubber layer; the armor group comprises an upper armor piece and a lower armor piece, a warp-wise round hole and a weft-wise round hole are arranged on the upper armor piece, a radial steel wire rope is embedded into the warp-wise round hole, the weft-wise steel wire rope is embedded into the weft-wise round hole, the rubber layer is attached to the inward side of the lower armor piece of the annular band, and the rubber layer is combined with the lower armor piece through vulcanization. The invention has simple installation process, less friction, longer service life, no phenomenon of lengthening and asynchronization and strong shock resistance.
Description
Technical Field
The invention belongs to the technical field of mining machinery equipment, relates to a key component of a belt feeder, namely a conveyor belt, and particularly relates to a composite conveyor belt of the belt feeder and a manufacturing method thereof.
Background
In recent years, a belt feeder is popular on the market, is used as a feeding device of various bins, and is structurally characterized in that: a closed belt is arranged at the bottom of a lower guide chute of the storage bin, the belt at one end is driven by a driving roller, a turnabout roller is arranged at the other end, a plurality of groups of supporting rollers are arranged in the middle to support the belt, and a tensioning device is arranged on the driving roller or the turnabout roller; in order to obtain better service performance, a closed adhesive tape is arranged in the nail belt. Compared with the prior art, the technology has the following advantages: 1. the running power is small, the energy consumption is low, and the running economy is good; 2. the structure is light in weight, low in cost and convenient to transport; 3. the feeding amount is large and stable, and the adjustment is convenient; 4. the operation is stable, the noise is low, and the environment is protected; 5. the abrasion is small, the maintenance amount is small, and the service life is long; 6. the universality of parts is strong, and the installation and the maintenance are simple and convenient; 7. the existing feeder can be replaced, so the feeding device is widely popularized and used in the feed bin feeding industry.
The above mentioned belts and tapes are the main fittings in the transmission part of the belt feeder. The armor belt comprises a plurality of armor plates and a plurality of string strips, the armor plates are formed by precisely casting 16Mn or high-wear-resistance alloy steel and have good wear resistance and toughness, the string strips are made of nylon 1010, the string strips have good wear resistance and self-lubrication, the impact resistance of the armor belt is greatly improved, when the armor belt is severely impacted by materials, firstly, the impact force is diffused from an impact point to the periphery in the structural form of the armor belt, secondly, the lower adhesive tape deforms to absorb a certain impact load, and simultaneously, the residual impact load is transmitted to the buffer carrier roller and the buffer carrier roller seat for buffer absorption, so that the impact resistance of the armor belt feeder is well improved.
The most representative nail, please refer to the nail of the art described in the chinese utility model patent with the reference name "a novel nail and contain the nail of this nail", application number 200720131242.X, including preceding link and back link, preceding link department has the preceding mounting hole that the cluster that supplies to connect the place ahead nail passed, and back link department has the back mounting hole that the cluster that supplies to connect the back nail passed, and the nail openly just is located and is equipped with the transition portion of concave surface form between preceding link and the back link, and the transition portion is the expansion form from inside to outside. The nail connecting holes forming the nail belt are connected and assembled by a string. The feeding effect can be greatly improved by the nail with the concave part, and after the nail connecting holes forming the nail belt are connected and assembled by the flexible string strips, the service life of the nail belt is prolonged, the impact resistance of the nail belt is improved, and the normal operation of the feeder is guaranteed. The tape provides strength and also prevents material from falling through the gap.
Compared with the reciprocating feeder and the vibrating feeder which are used in the past, the first-belt feeder changes intermittent feeding into continuous feeding, so that the production capacity is greatly improved, large-scale popularization and use are achieved in mine enterprises in more than ten years, and great contribution is made to national production.
The belt feeder, then, also has some disadvantages.
1. The process of installing the nail belt is time-consuming and labor-consuming. The current mounting means is gomphosis each other the first nail piece on mounting platform, the hole is neat with the pore pair, leave about 2 millimeters clearance between the terminal surface in adjacent hole, in order to do benefit to each other and revolute, then use the pliers to press from both sides the position that the cluster strip is close to the end and make strength wear to the downthehole of nail piece, just use the hammer to strike the pliers when the resistance that meets is too big, when keeping close to the nail piece when keeping silent, remove the pliers, make keep silent and leave a little distance on the nail piece, strike the pliers again after pressing from both sides tightly, constantly repeat above action, until whole cluster strip penetrates in all nail pieces of transverse arrangement.
The installation intensity of labour of this kind of mode is very big, and efficiency is very low, and the pliers presss from both sides the crackle to the cluster easily, still breaks the cluster easily, if the cluster is broken inside, still need pull out the cluster and wear new cluster again, and work efficiency is lower, breaks the cluster and causes the waste.
2. The wear is relatively fast. The nail belt and the adhesive tape are two separate elements, the adhesive tape being wound between two rollers. The adhesive tape is an elastic body and is provided with a neutral layer, if the adhesive tape is a steel wire rope core adhesive tape, the layer where the center line of the steel wire rope core is located is the neutral layer, if the adhesive tape is a canvas core adhesive tape, the neutral layer is arranged inside the adhesive tape, and the specific position depends on the number of layers of the canvas core, the spacing arrangement condition among the layers, the elastic coefficient of each layer of canvas, and a plurality of factors of the elastic coefficients of the upper cover adhesive, the lower cover adhesive and the core adhesive. The neutral layer of the nail band is the layer where the center line of the string is located. The neutral layer mentioned above is an imaginary layer whose length does not change when rotating around the drum, and on the belt or tape, the layer distant from the center line of the drum is longer than the neutral layer, and the layer close to the center line of the drum is shorter than the neutral layer. In summary, the neutral layer of the tape is inside the tape and the neutral layer of the nail belt is inside the nail belt. The part wound on the roller is taken as a research object, the adhesive tape is wound on the roller, the first belt is wound on the adhesive tape, the radius of the neutral layer of the first belt is larger than that of the neutral layer of the adhesive tape, and the angular velocities of the first belt and the neutral layer are equal, so that the linear velocity of the neutral layer of the first belt is larger than that of the neutral layer of the adhesive tape. And then, a straight part between two rollers on the conveyor belt is taken as a research object, when no material exists in the guide chute, the belt A and the adhesive tape are clung together and translate simultaneously, the two belts are tensioned, the positive pressure between the belts is not large, the linear velocity of the belt A is greater than that of the adhesive tape, and the abrasion is not serious. However, when the material guide groove is filled with materials and the bin pressure of the bin is completely pressed on the first belt, the positive pressure of the first belt on the adhesive tape is very large, the lower part of the adhesive tape is supported by a plurality of groups of supporting rollers, sliding friction still occurs between the first belt and the adhesive tape when the first belt feeder operates, the friction force is very large, particularly, the abrasion of the adhesive tape is very fast, the average service life of the adhesive tape is two or three months, the adhesive tape needs to be frequently replaced, and the maintenance cost of the first belt feeder is increased.
3. The nail belt is troublesome to maintain. The armor belt and the adhesive tape are simultaneously tensioned when the armor belt feeder leaves a factory, the lengths of the armor belt and the adhesive tape are increased in the using process, the length of the armor belt is increased because of unilateral abrasion between the string strip and the nail connecting hole, and the armor belt is lengthened due to the fact that materials on one side of the string strip are lost. The tape becomes long because of partial permanent deformation due to long-time stretching, and the stretched length of the tape is the superposition of the permanent deformation and the elastic deformation.
However, the two belts are not lengthened synchronously, the speed of the lengthening of the armor belt is always high, the lengthening of the adhesive tape is slow, the distance between the driving roller and the bend roller needs to be adjusted and increased through the tensioning device, but the armor belt still is loose to some extent even if the adhesive tape is very tightly tensioned and is about to be broken, or the driving roller or the bend roller needs to be broken, the armor belt has to be detached to remove a row of armor plates and then is installed, the work of detaching the armor belt is very difficult, the abrasion positions of the matching surfaces of the string and the two adjacent armor plates are right opposite to each other from left to right, and the string is embedded in the armor plates and is difficult to be extracted from one end.
Although the combination of nail and tape has such drawbacks, there is no better choice.
Disclosure of Invention
The invention aims to overcome the defects in the prior art and provides a composite conveyor belt of an integral belt feeder.
The invention is realized by the following technical scheme:
a composite conveyor belt of a belt feeder comprises a plurality of deck groups, a plurality of latitudinal steel wire ropes, a plurality of radial steel wire ropes and a rubber layer;
the first rope end and the second rope end of the radial steel wire rope are connected to form an endless steel wire rope, and a plurality of radial steel wire ropes are arranged along the axial lead direction of the roller;
the length of the latitudinal steel wire rope is equal to the width of the composite conveyor belt of the belt feeder, and the axial lead direction is parallel to the axial lead direction of the roller;
the nail plate group comprises an upper nail plate and a lower nail plate, the upper nail plate and the lower nail plate are made of steel, the upper nail plate is provided with a radial half hole and a latitudinal upper half hole, and the lower nail plate is provided with a longitudinal lower half hole and a latitudinal lower half hole; the upper armor plate and the lower armor plate are fixedly connected together, the radial half hole and the radial lower half hole are opposite to form a radial round hole, and the radial steel wire rope is embedded into the radial round hole; the weft-wise upper half hole and the weft-wise lower half hole form a weft-wise round hole oppositely, the weft-wise steel wire rope is embedded into the weft-wise round hole, the plurality of armor groups are connected to the weft-wise steel wire rope and the warp-wise wire rope in such a way, the upper armor faces outwards, and the lower armor faces inwards to form an annular conveyor belt;
the rubber layer is attached to one side of the lower deck facing the annular belt, and the rubber layer and the lower deck are combined through vulcanization.
Above the radial half-hole and warp direction under the half-hole constitute warp direction round hole relatively, the weft direction round hole is constituteed relatively to half-hole and weft direction under the weft direction, in order to ensure that two pairs of half-holes just in time align and constitute the round hole, be equipped with the tenon on last first piece, be equipped with the constant head tank under on the first piece, tenon and constant head tank cooperation play the positioning action, bring the facility for the installation like this, in the use the first piece also with the first piece be difficult for the dislocation that slides down.
The upper armor plate and the lower armor plate are fixedly connected together by welding or riveting. The lower armor plate is provided with a welding hole, and when the upper armor plate and the lower armor plate are attached together, the welding rod extends to the adjacent position of the upper armor plate and the lower armor plate through the welding hole to weld the upper armor plate and the lower armor plate together. Or rivet holes can be respectively arranged on the upper and lower armor plates, and the upper and lower armor plates are positioned and connected together through rivets.
Above be equipped with the slot on the last first, can increase the upper surface of last first to the frictional force of material, improve the efficiency of conveying the material.
The first rope end and the second rope end of the radial steel wire rope are connected to form an endless steel wire rope, wherein,
the first rope end comprises a first rope end core strand, a first rope end strand, a second rope end strand, a third rope end strand, a fourth rope end strand, a fifth rope end strand and a sixth rope end strand, the first rope end core strand is linear, and the first rope end strand, the second rope end strand, the third rope end strand, the fourth rope end strand, the fifth rope end strand and the sixth rope end strand are respectively spirally wound around the first rope end core strand;
in the axial direction of the rope head: one strand of the rope head is six, and one strand of the rope head is kept as long as the other strand of the rope head; cutting one length unit from five strand rope ends; cutting one strand of the rope end by four length units; cutting off three length units from one strand of rope end; cutting one strand of rope end by two to four length units; cutting off five length units one strand at the rope end;
the rope end two comprises a rope end two-core strand, a rope end two-strand one, a rope end two-strand two, a rope end two-strand three, a rope end two-strand four, a rope end two-strand five and a rope end two-strand six, the rope end two-core strand is linear, the rope end two-strand one, the rope end two-strand two, the rope end two-strand three, the rope end two-strand four, the rope end two-strand five and the rope end two-strand six are respectively spirally wound around the rope end two-core strand;
in the two axial directions of the rope ends: the length of the rope end two strands I is unchanged, and five length units are respectively cut off from the rope end two core strands and the rope end two strands II; cutting four length units from two strands and five strands of the rope head; cutting three length units from two strands and four strands of the rope head; cutting two strands of the rope end and three strands of the rope end by two length units; cutting one length unit of the two strands of the rope head;
the ends of the rope head first core strand and the rope head second core strand are aligned; the first strand of the rope end with unchanged rotation direction and lay length is coiled on the first core strand of the rope end, and the end part of the first strand of the rope end is aligned with the end part of the first strand of the rope end; the second strand of the rope end is coiled on the first core strand of the rope end in a constant direction and lay length, and the end part of the second strand of the rope end is aligned with the end part of the second strand of the rope end; the two strands and the three strands of the rope head are coiled on the core strand of the rope head without changing the twisting direction and the twisting pitch, and the end parts of the two strands and the three strands of the rope head are aligned with the end parts of the one strand and the three strands of the rope head; the two strands of the rope head with four rotation directions and the same lay length are coiled on the one core strand of the rope head, and the end parts of the two strands of the rope head with four are aligned with the end parts of the one strand of the rope head with four; the two strands of rope ends with five twisting directions and the lay length unchanged are coiled on the core strand of the rope end with five twisting directions, and the end parts of the two strands of rope ends and the end parts of the one strand of rope ends are aligned; the six ends of the two strands of the rope head are aligned with the ends of the two strands of the rope head.
Note: the rope head one core strand and the rope head two core strand are actually two ends of the same strand. The connection parts of the first rope end and the second rope end of the radial steel wire rope are usually not close to each other but staggered with each other, the joint part is the weak strength part of the endless steel wire rope, the weak strength part is close to the normal part, the strength of the strength is complemented, and the overall strength weakening range of the whole conveyor belt is not obvious.
One length unit mentioned above means 3 to 10 times the lay length of the radial cord.
The above-mentioned unchanged turning direction and lay length means that the turning directions of the body and the connecting part of the radial steel wire rope are the same, namely both the turning directions are left-handed or both the turning directions are right-handed, and the lay lengths are also the same.
The radial steel wire ropes are arranged along the axial lead direction of the roller, and the winding directions of two adjacent radial steel wire ropes are different, namely one of the two radial steel wire ropes is left-handed, and the other radial steel wire rope is right-handed, so that internal stress generated by the rotation direction in the conveying belt can be mutually offset.
The rubber layer and the lower armor plate are combined through vulcanization, namely, an adhesive component is added into a raw rubber formula, the raw rubber and the steel are tightly attached together for vulcanization, the raw rubber and the steel are chemically crosslinked on an interface under the action of the adhesive, the interface strength is higher than the strength of a rubber body through the prior art, and the rubber layer and the lower armor plate cannot be peeled off even if the inner part of the rubber layer is torn and the joint surface of the rubber and the steel is combined in the using process.
The main equipment of the conveyor belt is a vulcanizing machine which comprises an upper vulcanizing plate, a lower vulcanizing plate and a sizing block, wherein electric heaters are respectively arranged in the upper vulcanizing plate and the lower vulcanizing plate.
The manufacturing method of the invention comprises the following steps:
1) intercepting a latitudinal steel wire rope, wherein the length of the latitudinal steel wire rope is equal to the width of the composite conveyor belt of the belt feeder;
2) intercepting a radial steel wire rope, wherein the length of the radial steel wire rope is equal to the perimeter of the composite conveyor belt of the belt feeder plus five length units; one length unit is equal to 3 to 10 times of one lay length of the warp-wise steel wire rope;
3) making the radial steel wire rope into an electrodeless steel wire rope:
in the axial direction of the rope head: one strand of the rope head is six, and one strand of the rope head is kept as long as the other strand of the rope head; cutting one length unit from five strand rope ends; cutting one strand of the rope end by four length units; cutting off three length units from one strand of rope end; cutting one strand of rope end by two to four length units; cutting off five length units one strand at the rope end;
in the two axial directions of the rope ends: the length of the rope end two strands I is unchanged, and five length units are respectively cut off from the rope end two core strands and the rope end two strands II; cutting four length units from two strands and five strands of the rope head; cutting three length units from two strands and four strands of the rope head; cutting two strands of the rope end and three strands of the rope end by two length units; cutting one length unit of the two strands of the rope head;
the ends of the rope head first core strand and the rope head second core strand are aligned; the first strand of the rope end with unchanged rotation direction and lay length is coiled on the first core strand of the rope end, and the end part of the first strand of the rope end is aligned with the end part of the first strand of the rope end; the second strand of the rope end is coiled on the first core strand of the rope end in a constant direction and lay length, and the end part of the second strand of the rope end is aligned with the end part of the second strand of the rope end; the two strands and the three strands of the rope head are coiled on the core strand of the rope head without changing the twisting direction and the twisting pitch, and the end parts of the two strands and the three strands of the rope head are aligned with the end parts of the one strand and the three strands of the rope head; the two strands of the rope head with four rotation directions and the same lay length are coiled on the one core strand of the rope head, and the end parts of the two strands of the rope head with four are aligned with the end parts of the one strand of the rope head with four; the two strands of rope ends with five twisting directions and the lay length unchanged are coiled on the core strand of the rope end with five twisting directions, and the end parts of the two strands of rope ends and the end parts of the one strand of rope ends are aligned; the six ends of the two strands of the rope head are aligned with the six ends of the one strand of the rope head;
4) horizontally and stably placing the lower vulcanizing plate, and electrifying and preheating electric heaters in the lower vulcanizing plate and the upper vulcanizing plate to 150-170 ℃;
5) the upper plate is laid on the lower vulcanizing plate and arranged in a row along the width direction of the conveyor belt, the warp upper half holes are upward, and the weft upper half holes are aligned;
6) embedding the weft-wise steel wire rope into the aligned weft-wise upper half holes, and aligning the rope ends with the edge end faces of the armor plates on the edges;
7) repeating the steps 5) to 6), paving a plurality of rows of upper armor plates to align the warp upper half holes, and embedding a plurality of weft steel wire ropes into the aligned weft upper half holes;
8) embedding a plurality of warp-wise steel wire ropes into the aligned warp-wise lower half holes;
9) the lower armor plate and the upper armor plate are embedded together to form a armor plate group, the latitudinal steel wire rope is embedded in the latitudinal lower half hole, the radial steel wire rope is embedded in the longitudinal lower half hole, and the lower armor plate and the upper armor plate are fixedly connected, namely welded or riveted;
10) two sizing blocks are placed close to the edges of two sides of the paved plurality of the nail plate groups;
11) paving rubber layers on the paved plurality of the nail plate groups;
12) pressing an upper vulcanized plate on the raw rubber layer, fixedly connecting the upper vulcanized plate and a lower vulcanized plate together to tightly press the raw rubber layer, keeping the pressure at 3-5 MPa, the temperature at 150-170 ℃ and the holding time at 30-40 minutes; in the process, the raw rubber layer is heated and melted to be changed into a viscous fluid, bubbles in the raw rubber layer flow out under the action of pressure, the viscous liquid is tightly attached to the lower armor plate and can flow to any corner, including gaps in the warp-direction round holes or the weft-direction round holes and between the steel wire ropes and wires; under the environment, the raw rubber starts to be vulcanized, the sulfur element contained in the raw rubber generates a crosslinking reaction, the interfaces attached to the upper deck, the lower deck, the radial steel wire rope and the latitudinal steel wire rope also generate the crosslinking reaction, and the interfaces are tightly combined together;
13) stopping heating after the holding time is over;
14) opening the upper vulcanizing plate after 15 minutes, putting the upper vulcanizing plate on one side, and naturally cooling the upper vulcanizing plate in the air for 15 minutes to change the raw rubber layer into a vulcanized rubber layer;
15) moving the vulcanized part to the outer side of the lower vulcanized plate, moving the exposed radial steel wire ropes next to the lower vulcanized plate to be right above the lower vulcanized plate, and repeating the steps 5) to 14) for multiple times until all the exposed radial steel wire ropes are covered by the deck group and the rubber layer.
Note that:
1) to ensure that sufficient pressure is generated during vulcanization, the thickness of the green rubber layer is often 5% to 10% greater than the intended rubber layer thickness so that sufficient rubber material flows into the holes and gaps.
2) In order to ensure that the upper armor plate, the lower armor plate, the latitudinal steel wire rope and the longitudinal steel wire rope can be tightly combined with the rubber layer in a vulcanization process, the surfaces of metal parts are cleaned in advance, for example, the latitudinal steel wire rope or the longitudinal steel wire rope can be galvanized to prevent an oxide layer from being generated and facilitate vulcanization combination, and the upper armor plate and the lower armor plate can be fully polished and shot-blasted or used with a chemical solvent to remove harmful substances such as the oxide layer, oil stains and the like.
3) The raw rubber layer is not a single layer but a plurality of thin layers which are laminated together, air bubbles are often clamped between the two layers, and in order to facilitate the air in the interlayer to be discharged, a plurality of holes can be punched on the raw rubber layer by using an awl for each layer; before each layer of raw rubber layer is pasted, a proper amount of adhesive cement is brushed on the surface of the raw rubber sheet to be pasted and the metal surface to enhance the bonding effect and discharge the mixed bubbles.
4) The position close to one end of the upper vulcanizing plate or the lower vulcanizing plate has fast heat dissipation and slow temperature rise, so that the position is pressed in the vulcanizing plate for repeated vulcanization when the adjacent part is vulcanized, and the quality of the joint is ensured.
The invention has the beneficial effects that:
1) the installation is simpler, need not penetrate the cluster strip downthehole of first part, but rather to wire rope embedding semicircle downthehole, does not need too big external force just can imbed, operation labour saving and time saving, wire rope has toughness, difficult fracture, for using fragile cluster strip, can not cause the waste because of doing the accessory, and work efficiency improves, extravagant reduction.
2) The original two independent elements of the first belt and the adhesive tape are changed into one element, the neutral layer is the layer where the radial steel wire rope is located, the interface of mutual friction is removed, abrasion is avoided, the service life is greatly prolonged, and the maintenance cost of the first belt feeder is reduced.
3) The original two independent elements of the nail belt and the adhesive tape are changed into one element, the problem of asynchronous lengthening is solved, even if the nail sheet is lengthened, the nail sheet does not need to be detached, and the maintenance time and the labor amount are greatly reduced.
4) The shock resistance is stronger. When the composite conveyor belt of the belt feeder is severely impacted by materials, the deck group can resist impact and protect the rubber layer from being damaged, impact energy is transmitted to the periphery along the two directions of the warp-direction steel wire rope and the weft-direction steel wire rope, and finally, residual impact load is transmitted to the buffer carrier roller and the buffer carrier roller seat for buffer absorption. The rubber layer can prevent materials from falling from gaps of the nail plate group and can also increase the friction force of the invention to the roller.
Drawings
FIG. 1 is a top view of an embodiment of the present invention;
FIG. 2 is a cross-sectional view taken along line A-A of FIG. 1;
FIG. 3 is a cross-sectional view taken along line B-B of FIG. 1;
FIG. 4 is a cross-sectional view taken along line C-C of FIG. 2;
FIG. 5 is a front view of the welded nail plate set 1;
FIG. 6 is a cross-sectional view taken along line D-D of FIG. 5;
FIG. 7 is a view in the direction E of FIG. 5;
FIG. 8 is a schematic three-dimensional view of the upper nail plate 11 from a first perspective;
FIG. 9 is a schematic three-dimensional view of the upper nail plate 11 from a second perspective;
FIG. 10 is a schematic three-dimensional view of the lower panel 12 from a third perspective;
FIG. 11 is a schematic three-dimensional view of the lower panel 12 from a fourth perspective;
fig. 12 is a schematic view showing the arrangement of the latitudinal steel wire ropes 2 and the radial steel wire ropes 4, in a state where the deck group 1 and the rubber layer 3 are virtually removed;
FIG. 13 is a schematic three-dimensional structure of the present embodiment machined using a vulcanizing machine;
fig. 14 is a front view of the radial steel cord 4 with the extra strands removed at the ends one 41 and two 42, respectively;
fig. 15 is a schematic three-dimensional structure of the radial steel cord 4 in which the first rope end 41 and the second rope end 42 are twisted and connected with each other;
FIG. 16 is a view from direction F of FIG. 14;
FIG. 17 is a view from the direction G in FIG. 14;
FIG. 18 is a side view of a riveted nail plate set 1;
FIG. 19 is a sectional view taken along line H-H in FIG. 18;
FIG. 20 is a schematic view of the upper deck 11 laid flat on the lower curing plate 6 in a row across the width of the belt;
fig. 21 is a schematic view of laying a plurality of rows of upper armor plates 11, aligning the warp-wise upper half-holes 13, and embedding a plurality of weft-wise steel cables 2 in a plurality of aligned weft-wise upper half-holes 15;
FIG. 22 is a schematic view of a plurality of warp cords 4 embedded in aligned warp lower half holes 14;
fig. 23 is a schematic view of the lower and upper nail plates 12 and 11 being nested together to form nail plate set 1;
fig. 24 is a schematic view of two parallels 7 placed against the edges of a plurality of plated nail sets 1;
fig. 25 is a schematic view of the laying of a rubber layer 31 on a plurality of laid deck groups 1;
FIG. 26 is a schematic view of the upper vulcanization plate 8 pressed against the raw rubber layer 31 and fixedly joined to the lower vulcanization plate 6;
shown in the figure: 1. a group of nails; 11. putting on the first; 12. lower shell slice; 13. through the upper half hole; 14. a radial lower half-hole; 15. half hole on the latitude; 16. a latitudinal lower half hole; 17. welding holes; 18. welding seams; 111. a tenon; 112. a trench; 121. positioning a groove; 19. riveting; 2. a weft steel wire rope; 3. a rubber layer; 31. a raw rubber layer; 4. a warp-wise wire rope; 41. a first rope end; 410. a core strand of the rope head; 411. one strand of rope end is formed; 412. one strand of rope end is two; 413. one strand of rope end is three; 414. one strand of rope end is four; 415. a strand of rope end is five; 416. one strand of rope end is six; 42. a rope end II; 420. rope end two-core strand; 421. the rope end is two strands and one strand; 422. the rope end is two strands; 423. the rope end is two strands and three strands; 424. the rope end is two strands and four strands; 425. two strands and five strands of rope ends; 426. two strands and six strands of rope ends; 43. a left-handed warp-wise wire rope; 44. a right-handed warp-wise steel wire rope; 5. a drum; 6. a lower vulcanizing plate; 7. sizing block; 8. and (4) putting a vulcanized plate.
Detailed Description
The invention is further illustrated with reference to the following figures and examples:
example (b): see fig. 1-26.
A composite conveyor belt of a belt feeder comprises a plurality of plate groups 1, a plurality of weft steel wire ropes 2, a plurality of radial steel wire ropes 4 and a rubber layer 3;
the first rope end 41 and the second rope end 42 of the radial steel wire rope 4 are connected to form an electrodeless steel wire rope, and a plurality of radial steel wire ropes 4 are arranged along the axial lead direction of the roller 5;
the length of the latitudinal steel wire rope 2 is equal to the width of the composite conveyor belt of the belt feeder, and the axial lead direction is parallel to the axial lead direction of the roller 5;
the nail plate group 1 comprises an upper nail plate 11 and a lower nail plate 12, the upper nail plate 11 and the lower nail plate 12 are made of steel, the upper nail plate 11 is provided with a radial half hole 13 and a latitudinal half hole 15, and the lower nail plate 12 is provided with a longitudinal half hole 14 and a latitudinal half hole 16; the upper armor plate 11 and the lower armor plate 12 are fixedly connected together, the radial half hole 13 and the radial lower half hole 14 are opposite to form a radial round hole, and the radial steel wire rope 4 is embedded into the radial round hole; the weft-wise upper half hole 15 and the weft-wise lower half hole 16 form a weft-wise round hole oppositely, the weft-wise steel wire rope 2 is embedded into the weft-wise round hole, the plurality of the armor groups 1 are connected to the weft-wise steel wire rope 2 and the warp-wise steel wire rope 4 in such a way, the upper armor plates 11 face outwards, and the lower armor plates 12 face inwards to form an annular belt;
the rubber layer 3 is attached to the inward side of the annular lower armor plate 12, and the rubber layer 3 and the lower armor plate 12 are combined through vulcanization.
Above radial half-hole 13 and warp direction under half-hole 14 constitute warp direction round hole relatively, weft direction round hole is formed relatively to half-hole 15 and weft direction under half-hole 16, in order to ensure that two pairs of half-holes just in time align and constitute the round hole, be equipped with tenon 111 on last first piece 11, be equipped with constant head tank 121 on first piece 12 down, tenon 111 and constant head tank 121 cooperate and play the positioning action, bring the facility for the installation like this, last first piece 11 and lower first piece 12 also are difficult for the dislocation that slides in the use.
The fixed connection of the upper and lower armor plates 11 and 12 is welding or rivet connection. The lower nail plate 12 is provided with a welding hole 17, and when the two are attached together, the welding rod extends to the adjacent position of the upper nail plate 11 and the lower nail plate 12 through the welding hole 17 to weld the two together, as shown in fig. 5 to 11. Rivet holes may also be provided in the upper and lower nail plates 11 and 12, respectively, which are aligned and joined together by rivets 19, as shown in fig. 18 and 19.
The grooves 112 are formed in the upper armor plate 11, so that the friction force of the upper surface of the upper armor plate 11 to materials can be increased, and the material conveying efficiency is improved.
The first rope end 41 and the second rope end 42 of the radial steel wire rope 4 are connected to form an endless steel wire rope, and a left-handed steel wire rope is taken as an example for explanation, wherein,
the first rope end 41 comprises a first rope end core strand 410, a first rope end strand 411, a second rope end strand 412, a third rope end strand 413, a fourth rope end strand 414, a fifth rope end strand 415 and a sixth rope end strand 416, wherein the first rope end core strand 410 is linear, and the first rope end strand 411, the second rope end strand 412, the third rope end strand 413, the fourth rope end strand 414, the fifth rope end strand 415 and the sixth rope end strand 416 are respectively spirally wound around the first rope end core strand 410;
in the axial direction of the first rope end 41: the length of the rope head is kept as long as six strands 416 and one strand 410 of the rope head; cutting off one length unit from five strand 415 of the rope end; cutting two length units from one strand of the rope end with four 414; cutting three 413 rope ends into three length units; cutting four length units from one strand of the rope end with two strands 412; cutting five length units from one strand of rope head to one strand of rope head 411;
the second rope end 42 comprises a second rope end core strand 420, a first rope end strand 421, a second rope end strand 422, a second rope end strand 423, a second rope end strand 424, a second rope end strand 425 and a second rope end strand 426, wherein the second rope end core strand 420 is linear, and the first rope end strand 421, the second rope end strand 422, the second rope end strand 423, the second rope end strand 424, the second rope end strand 425 and the second rope end strand 426 are spirally wound around the second rope end core strand 420 respectively;
in the axial direction of the rope end II 42: the length of the rope end two strands, namely the rope end one strand 421, is unchanged, and five length units are respectively cut off from the rope end two core strands 420 and the rope end two strands, namely the rope end six 426; cutting four length units from the rope head with two strands and five strands 425; cutting three length units from the two strands and the four 424 strands at the rope head; cutting two strands and three 423 strands of the rope end by two length units; cutting one length unit of the two strands of the rope head and the two 422 strands;
the ends of the rope head one core strand 410 and the rope head two core strand 420 are aligned; the first two strands 421 with unchanged rotation direction and lay length are coiled on the first core strand 410, and the end parts of the first two strands 421 are aligned with the end parts of the first one strands 411; the two strands 422 of the rope end are coiled on the core strand 410 of the rope end with unchanged rotating direction and lay length, and the end parts of the two strands 422 of the rope end are aligned with the end parts of the two strands 412 of the rope end; the two rope ends and the three rope ends 423 are coiled on the one rope end and the core strand 410 with unchanged rotating direction and lay length, and the end parts of the two rope ends and the three rope ends are aligned with the end part of the three rope ends 413; the first two-strand and four-strand cord 424 is coiled on the first core strand 410 with unchanged twisting direction and lay length, and the end of the first two-strand and four-strand cord 424 is aligned with the end of the first four-strand cord 414; the rope end two strand five 425 is coiled on the rope end one core strand 410 in a constant rotating direction and a constant lay length, and the end part of the rope end two strand five 425 is aligned with the end part of the rope end one strand five 415; the ends of the two strands of rope 426 are aligned with the ends of the two strands of rope 416.
Note: the core strand 410 and the core strand 420 are actually ends of the same strand. The connection parts of the first rope end 41 and the second rope end 42 of the radial steel wire rope 4 are often not close to each other but staggered from each other, because the joint part is the weak strength part of the radial steel wire rope 4, and the weak strength part is close to the normal part, so that the overall strength of the whole conveyor belt is weakened less obviously.
The length unit mentioned above is 3 to 10 times of the lay length of the radial steel wire rope 4, and 5 times is selected in this embodiment.
The above-mentioned unchanged turning direction and lay length means that the turning directions of the body and the connecting part of the radial steel wire rope 4 are the same, namely, both the turning directions are left-handed or both the turning directions are right-handed, and the lay lengths are also the same.
The radial steel wire ropes 4 are arranged along the axial lead direction of the roller 5, and the winding directions of two adjacent radial steel wire ropes 4 are different, namely one of the radial steel wire ropes is left-handed, and the other radial steel wire rope is right-handed, so that internal stress generated by the turning directions in the conveyor belt can be mutually counteracted. As shown in fig. 12, one right-hand warp steel wire rope 44 must be provided between two left-hand warp steel wires 43, and one left-hand warp steel wire rope 43 must be provided between two right-hand warp steel wires 44.
The rubber layer 3 and the lower armor 12 are combined by vulcanization, namely, an adhesive component is added into a raw rubber formula, the raw rubber and the steel are tightly attached together for vulcanization, the raw rubber and the steel are chemically crosslinked on an interface under the action of the adhesive, the interface strength is higher than the strength of a rubber body by the prior art, and the rubber layer cannot be peeled off even if the rubber layer is torn and the joint surface of the rubber and the steel is used.
The main equipment of the conveyor belt of the vulcanizing embodiment is a vulcanizing machine which comprises an upper vulcanizing plate 8, a lower vulcanizing plate 6 and a sizing block 7, wherein electric heaters are respectively arranged in the upper vulcanizing plate 8 and the lower vulcanizing plate 6.
The manufacturing method of the embodiment comprises the following steps:
1) intercepting a latitudinal steel wire rope 2, wherein the length of the latitudinal steel wire rope is equal to the width of the composite conveyor belt of the belt feeder;
2) intercepting a radial steel wire rope 4, wherein the length of the radial steel wire rope is equal to the perimeter of the composite conveyor belt of the belt feeder plus five length units; one length unit in the manufacturing method is equal to 5 times of one lay length of the warp-wise steel wire rope 4;
3) the warp-wise steel wire rope 4 is made into an electrodeless steel wire rope:
in the axial direction of the first rope end 41: the length of the rope head is kept as long as six strands 416 and one strand 410 of the rope head; cutting off one length unit from five strand 415 of the rope end; cutting two length units from one strand of the rope end with four 414; cutting three 413 rope ends into three length units; cutting four length units from one strand of the rope end with two strands 412; cutting five length units from one strand of rope head to one strand of rope head 411;
in the axial direction of the rope end II 42: the length of the rope end two strands, namely the rope end one strand 421, is unchanged, and five length units are respectively cut off from the rope end two core strands 420 and the rope end two strands, namely the rope end six 426; cutting four length units from the rope head with two strands and five strands 425; cutting three length units from the two strands and the four 424 strands at the rope head; cutting two strands and three 423 strands of the rope end by two length units; cutting one length unit of the two strands of the rope head and the two 422 strands;
the ends of the rope head one core strand 410 and the rope head two core strand 420 are aligned; the first two strands 421 with unchanged rotation direction and lay length are coiled on the first core strand 410, and the end parts of the first two strands 421 are aligned with the end parts of the first one strands 411; the two strands 422 of the rope end are coiled on the core strand 410 of the rope end with unchanged rotating direction and lay length, and the end parts of the two strands 422 of the rope end are aligned with the end parts of the two strands 412 of the rope end; the two rope ends and the three rope ends 423 are coiled on the one rope end and the core strand 410 with unchanged rotating direction and lay length, and the end parts of the two rope ends and the three rope ends are aligned with the end part of the three rope ends 413; the first two-strand and four-strand cord 424 is coiled on the first core strand 410 with unchanged twisting direction and lay length, and the end of the first two-strand and four-strand cord 424 is aligned with the end of the first four-strand cord 414; the rope end two strand five 425 is coiled on the rope end one core strand 410 in a constant rotating direction and a constant lay length, and the end part of the rope end two strand five 425 is aligned with the end part of the rope end one strand five 415; the end of the rope end with two strands and six strands 426 is aligned with the end of the rope end with one strand and six strands 416;
4) the lower vulcanizing plate 6 is placed stably and horizontally, and electric heaters in the lower vulcanizing plate 6 and the upper vulcanizing plate 8 are electrified and preheated to 150-170 ℃;
5) the upper deck 11 is laid flat on the lower vulcanizing plate 6 and arranged in a row along the width direction of the conveyor belt, the warp-wise upper half holes 13 are upward, and the weft-wise upper half holes 15 are aligned, as shown in fig. 20;
6) embedding the weft-wise steel wire rope 2 in the aligned weft-wise upper half holes 15, and aligning the rope ends with the edge end faces of the edge upper armor plates 11;
7) repeating the steps 5) to 6), tiling a plurality of rows of upper armor plates 11 to align the warp-wise upper half holes 13, and embedding a plurality of weft-wise steel wire ropes 2 in a plurality of aligned weft-wise upper half holes 15, as shown in fig. 21;
8) embedding a plurality of warp-wise steel wire ropes 4 in the aligned warp-wise lower half holes 14, as shown in fig. 22;
9) the lower armor plate 12 and the upper armor plate 11 are embedded together to form a armor plate group 1, the weft-wise steel wire rope 2 is embedded in the weft-wise lower half hole 16, the radial steel wire rope 4 is embedded in the warp-wise lower half hole 14, and the lower armor plate 12 and the upper armor plate 11 are fixedly connected, namely welded or riveted, as shown in fig. 23;
10) placing two parallels 7 against the edges of the plurality of paved nail groups 1, as shown in fig. 24;
11) laying a rubber layer 31 on the laid plurality of deck groups 1, as shown in fig. 25;
12) pressing an upper vulcanized plate 8 on the raw rubber layer 31, pressing the upper vulcanized plate 8 on the raw rubber layer 31, fixedly connecting the upper vulcanized plate 8 and a lower vulcanized plate 6 together to press the raw rubber layer 31, keeping the pressure at 3-5 MPa, the temperature at 150-170 ℃ and the holding time at 30-40 minutes; in the process, the raw rubber layer 31 is heated and melted to be changed into a viscous fluid, the bubbles in the raw rubber layer flow out under the action of pressure, the viscous liquid is tightly attached to the lower armor plate 12 and can flow to any corner, including gaps in the warp-wise circular hole or the weft-wise circular hole and between the steel wire rope threads; under the environment, the raw rubber starts to be vulcanized, sulfur contained in the raw rubber is subjected to a crosslinking reaction, and the interfaces attached to the upper armor plate 11, the lower armor plate 12, the radial steel wire ropes 4 and the weft steel wire ropes 2 are also subjected to the crosslinking reaction and are tightly combined together;
13) stopping heating after the holding time is over;
14) after 15 minutes, opening the upper vulcanizing plate 8 and putting aside, naturally cooling in the air for 15 minutes, and changing the raw rubber layer 31 into the vulcanized rubber layer 3;
15) moving the vulcanized part to the outer side of the lower vulcanizing plate 6, moving the exposed radial steel wire ropes 4 next to the vulcanized part to the position right above the lower vulcanizing plate 6, and repeating the steps 5) to 14) for multiple times until all the exposed radial steel wire ropes 4 are covered by the plate group 1 and the rubber layer 3.
Note that:
1) in order to ensure that sufficient pressure is generated during vulcanization, the thickness of the green rubber layer 31 is often 8% greater than the thickness of the intended rubber layer 3 so that sufficient rubber material flows into the holes and gaps.
2) In order to ensure that the upper deck 11, the lower deck 12, the weft steel wire ropes 2 and the warp steel wire ropes 4 can be tightly combined with the rubber layer in a vulcanization process, the surfaces of metal parts are cleaned in advance, for example, the weft steel wire ropes 2 and the warp steel wire ropes 4 can be galvanized to prevent oxide layers and facilitate vulcanization combination, and the upper deck 11 and the lower deck 12 can be fully polished and shot-blasted or chemical solvents are used for removing harmful substances such as oxide skins and oil stains.
3) The raw rubber layer 31 is not a single layer, but a plurality of thin layers are stacked together, air bubbles are often clamped between the two layers, and in order to facilitate the air in the interlayer to be discharged, a plurality of holes can be punched on the raw rubber layer 31 by using an awl for each layer; before each layer of the raw rubber layer 31 is pasted, a proper amount of adhesive cement is brushed on the surface of the raw rubber sheet to be pasted and the metal surface to enhance the bonding effect and discharge the mixed air bubbles.
4) The position close to one end of the upper vulcanizing plate 8 or the lower vulcanizing plate 6 has fast heat dissipation and slow temperature rise, so that the position is pressed in the vulcanizing plate for repeated vulcanization when the adjacent part is vulcanized, and the quality of the joint is ensured.
The beneficial effects of this embodiment:
1) the installation is simpler, need not penetrate the cluster strip downthehole of first part, but rather to wire rope embedding semicircle downthehole, does not need too big external force just can imbed, operation labour saving and time saving, wire rope has toughness, difficult fracture, for using fragile cluster strip, can not cause the waste because of doing the accessory, and work efficiency improves, extravagant reduction.
2) The original two independent elements of the armor belt and the rubber belt are changed into one element, the neutral layer is the layer where the radial steel wire rope 4 is located, the mutual friction interface is removed, abrasion is avoided, the service life is greatly prolonged, and the maintenance cost of the armor belt feeder is reduced.
3) The original two independent elements of the nail belt and the adhesive tape are changed into one element, the problem of asynchronous lengthening is solved, even if the nail sheet is lengthened, the nail sheet does not need to be detached, and the maintenance time and the labor amount are greatly reduced.
4) The shock resistance is stronger. When the composite conveyor belt of the belt feeder is severely impacted by materials, the deck group can resist impact and protect the rubber layer from being damaged, impact energy is transmitted to the periphery along the two directions of the warp-direction steel wire rope and the weft-direction steel wire rope, and finally, residual impact load is transmitted to the buffer carrier roller and the buffer carrier roller seat for buffer absorption. The rubber layer can prevent materials from falling from gaps of the nail plate group and can also increase the friction force of the invention to the roller.
Claims (3)
1. The manufacturing method of the belt feeder composite conveyor belt is characterized in that the belt feeder composite conveyor belt comprises a plurality of deck groups, a plurality of latitudinal steel wire ropes, a plurality of radial steel wire ropes and a rubber layer;
the first rope end and the second rope end of the radial steel wire rope are connected to form an endless steel wire rope, and a plurality of radial steel wire ropes are arranged along the axial lead direction of the roller;
the length of the latitudinal steel wire rope is equal to the width of the composite conveyor belt of the belt feeder, and the axial lead direction is parallel to the axial lead direction of the roller;
the nail plate group comprises an upper nail plate and a lower nail plate, the upper nail plate and the lower nail plate are made of steel, the upper nail plate is provided with a radial half hole and a latitudinal upper half hole, and the lower nail plate is provided with a longitudinal lower half hole and a latitudinal lower half hole; the upper armor plate and the lower armor plate are fixedly connected together, the radial half hole and the radial lower half hole are opposite to form a radial round hole, and the radial steel wire rope is embedded into the radial round hole; the weft-wise upper half hole and the weft-wise lower half hole form a weft-wise round hole oppositely, the weft-wise steel wire rope is embedded into the weft-wise round hole, the upper armor plate faces outwards, and the lower armor plate faces inwards to form an annular belt;
the rubber layer is attached to one side, facing the annular belt, of the lower nail plate of the annular belt, and the rubber layer is combined with the lower nail plate through vulcanization;
the upper armor plate is provided with a tenon, the lower armor plate is provided with a positioning groove, and the tenon is matched with the positioning groove;
the upper armor is provided with a groove;
the winding directions of two adjacent radial steel wire ropes are different;
the manufacturing method of the composite conveyor belt of the belt feeder comprises the following steps:
1) intercepting a latitudinal steel wire rope, wherein the length of the latitudinal steel wire rope is equal to the width of the composite conveyor belt of the belt feeder;
2) intercepting a radial steel wire rope, wherein the length of the radial steel wire rope is equal to the perimeter of the composite conveyor belt of the belt feeder plus five length units; one length unit is equal to 3 to 10 times of one lay length of the warp-wise steel wire rope;
3) making the radial steel wire rope into an electrodeless steel wire rope:
in the axial direction of the rope head: one strand of the rope head is six, and one strand of the rope head is kept as long as the other strand of the rope head; cutting one length unit from five strand rope ends; cutting one strand of the rope end by four length units; cutting off three length units from one strand of rope end; cutting one strand of rope end by two to four length units; cutting off five length units one strand at the rope end;
in the two axial directions of the rope ends: the length of the rope end two strands I is unchanged, and five length units are respectively cut off from the rope end two core strands and the rope end two strands II; cutting four length units from two strands and five strands of the rope head; cutting three length units from two strands and four strands of the rope head; cutting two strands of the rope end and three strands of the rope end by two length units; cutting one length unit of the two strands of the rope head;
the ends of the rope head first core strand and the rope head second core strand are aligned; the first strand of the rope end with unchanged rotation direction and lay length is coiled on the first core strand of the rope end, and the end part of the first strand of the rope end is aligned with the end part of the first strand of the rope end; the second strand of the rope end is coiled on the first core strand of the rope end in a constant direction and lay length, and the end part of the second strand of the rope end is aligned with the end part of the second strand of the rope end; the two strands and the three strands of the rope head are coiled on the core strand of the rope head without changing the twisting direction and the twisting pitch, and the end parts of the two strands and the three strands of the rope head are aligned with the end parts of the one strand and the three strands of the rope head; the two strands of the rope head with four rotation directions and the same lay length are coiled on the one core strand of the rope head, and the end parts of the two strands of the rope head with four are aligned with the end parts of the one strand of the rope head with four; the two strands of rope ends with five twisting directions and the lay length unchanged are coiled on the core strand of the rope end with five twisting directions, and the end parts of the two strands of rope ends and the end parts of the one strand of rope ends are aligned; the six ends of the two strands of the rope head are aligned with the six ends of the one strand of the rope head;
4) horizontally and stably placing the lower vulcanizing plate, and electrifying and preheating electric heaters in the lower vulcanizing plate and the upper vulcanizing plate to 150-170 ℃;
5) the upper plate is laid on the lower vulcanizing plate and arranged in a row along the width direction of the conveyor belt, the warp upper half holes are upward, and the weft upper half holes are aligned;
6) embedding the weft-wise steel wire rope into the aligned weft-wise upper half holes, and aligning the rope ends with the edge end faces of the armor plates on the edges;
7) repeating the steps 5) to 6), paving a plurality of rows of upper armor plates to align the warp upper half holes, and embedding a plurality of weft steel wire ropes into the aligned weft upper half holes;
8) embedding a plurality of warp-wise steel wire ropes into the aligned warp-wise lower half holes;
9) the lower armor plate and the upper armor plate are embedded together to form a armor plate group, the latitudinal steel wire rope is embedded in the latitudinal lower half hole, the radial steel wire rope is embedded in the longitudinal lower half hole, and the lower armor plate is fixedly connected with the upper armor plate;
10) two sizing blocks are placed close to the edges of two sides of the paved plurality of the nail plate groups;
11) paving rubber layers on the paved plurality of the nail plate groups;
12) pressing an upper vulcanized plate on the raw rubber layer, fixedly connecting the upper vulcanized plate and a lower vulcanized plate together to tightly press the raw rubber layer, keeping the pressure at 3-5 MPa, the temperature at 150-170 ℃ and the holding time at 30-40 minutes;
13) stopping heating after the holding time is over;
14) opening the upper vulcanizing plate after 15 minutes, putting the upper vulcanizing plate on one side, and naturally cooling the upper vulcanizing plate in the air for 15 minutes to change the raw rubber layer into a vulcanized rubber layer;
15) moving the vulcanized part to the outer side of the lower vulcanized plate, moving the exposed radial steel wire ropes next to the lower vulcanized plate to be right above the lower vulcanized plate, and repeating the steps 5) to 14) for multiple times until all the exposed radial steel wire ropes are covered by the deck group and the rubber layer.
2. A method of manufacturing a compound conveyor belt according to claim 1, characterised in that the thickness of the raw rubber layer is 5 to 10% greater than the thickness of the rubber layer.
3. The manufacturing method of the compound conveyor belt of the belt feeder according to claim 1, characterized in that the surfaces of the latitudinal steel wire ropes or the longitudinal steel wire ropes are galvanized.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201810302646.3A CN108438730B (en) | 2016-08-20 | 2016-08-20 | Manufacturing method of composite conveyor belt of belt feeder |
Applications Claiming Priority (2)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201810302646.3A CN108438730B (en) | 2016-08-20 | 2016-08-20 | Manufacturing method of composite conveyor belt of belt feeder |
| CN201610691015.6A CN106276044B (en) | 2016-08-20 | 2016-08-20 | The compound conveyer belt of apron feeder and its manufacturing method |
Related Parent Applications (1)
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| CN201610691015.6A Division CN106276044B (en) | 2016-08-20 | 2016-08-20 | The compound conveyer belt of apron feeder and its manufacturing method |
Publications (2)
| Publication Number | Publication Date |
|---|---|
| CN108438730A CN108438730A (en) | 2018-08-24 |
| CN108438730B true CN108438730B (en) | 2020-07-10 |
Family
ID=57660495
Family Applications (4)
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| CN201810302647.8A Active CN108455171B (en) | 2016-08-20 | 2016-08-20 | Compound conveyer belt of belt feeder |
| CN201810302652.9A Active CN108423365B (en) | 2016-08-20 | 2016-08-20 | Belt feeder conveyer belt |
| CN201610691015.6A Active CN106276044B (en) | 2016-08-20 | 2016-08-20 | The compound conveyer belt of apron feeder and its manufacturing method |
| CN201810302646.3A Active CN108438730B (en) | 2016-08-20 | 2016-08-20 | Manufacturing method of composite conveyor belt of belt feeder |
Family Applications Before (3)
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| CN201810302647.8A Active CN108455171B (en) | 2016-08-20 | 2016-08-20 | Compound conveyer belt of belt feeder |
| CN201810302652.9A Active CN108423365B (en) | 2016-08-20 | 2016-08-20 | Belt feeder conveyer belt |
| CN201610691015.6A Active CN106276044B (en) | 2016-08-20 | 2016-08-20 | The compound conveyer belt of apron feeder and its manufacturing method |
Country Status (1)
| Country | Link |
|---|---|
| CN (4) | CN108455171B (en) |
Families Citing this family (3)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN109368123A (en) * | 2018-11-27 | 2019-02-22 | 爱西贝特传输系统(云南)有限公司 | A kind of multipurpose wear-resistant conveyor belt and its preparation process |
| CN109835656A (en) * | 2019-04-12 | 2019-06-04 | 四方科技集团股份有限公司 | Conveyer belt |
| CN111702001A (en) * | 2020-06-15 | 2020-09-25 | 夏喜明 | Full-automatic low-temperature plasma soil remediation device |
Family Cites Families (20)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| FR1035537A (en) * | 1951-04-18 | 1953-08-25 | Improvements to conveyor belts and other articles in reinforced plastics | |
| DE1183014B (en) * | 1961-04-20 | 1964-12-03 | Alfred Schmermund | Press chain for feeding tobacco, e.g. B. to tobacco cutters |
| US6896125B2 (en) * | 2003-04-04 | 2005-05-24 | Pflow Industries, Inc. | Belt attachment device and method |
| CN2813530Y (en) * | 2005-03-31 | 2006-09-06 | 孟凡英 | Two-dimensional flexible crawler belt |
| CN201032386Y (en) * | 2007-04-05 | 2008-03-05 | 宁波浙东精密铸造有限公司 | Improved chain plate section |
| CN201082821Y (en) * | 2007-09-26 | 2008-07-09 | 扬州凯思特机械制造有限公司 | Shell belt feeder |
| CN201198402Y (en) * | 2007-12-05 | 2009-02-25 | 程联合 | Novel shell piece and shell belt including the same |
| CN201395393Y (en) * | 2008-12-12 | 2010-02-03 | 孟凡英 | Lock-joint armored belt |
| CN201647559U (en) * | 2010-08-17 | 2010-11-24 | 新乡市振源机械设备有限责任公司 | Novel shield |
| CN202226326U (en) * | 2011-08-10 | 2012-05-23 | 邹城兖煤明兴达机电设备有限公司 | Nail pieces, adhesive tape and conveying belt formed by combining nail pieces and adhesive tape |
| CN102431764A (en) * | 2011-08-25 | 2012-05-02 | 鹤壁市煤化机械有限责任公司 | Two-dimensional elastic armor-armor belt type feeder |
| CN102491053A (en) * | 2011-12-16 | 2012-06-13 | 鹤壁市煤化机械有限责任公司 | Two-dimensional elastic double-A conveying belt |
| CN202765696U (en) * | 2012-04-26 | 2013-03-06 | 安徽理工大学 | Combined deck belt |
| CN202765799U (en) * | 2012-04-26 | 2013-03-06 | 安徽理工大学 | Shell belt feeder |
| CN203079173U (en) * | 2013-02-03 | 2013-07-24 | 浙江奋飞橡塑制品有限公司 | Steel curtain net conveying belt |
| CN203568325U (en) * | 2013-11-17 | 2014-04-30 | 王茂华 | Caterpillar band for track type feeding machine |
| CN204249453U (en) * | 2014-11-14 | 2015-04-08 | 山东华煤创昊设备制造有限公司 | A kind of batcher composite steel band |
| CN204473691U (en) * | 2014-12-26 | 2015-07-15 | 徐州五洋科技股份有限公司 | Feeder first band |
| CN204433607U (en) * | 2015-01-28 | 2015-07-01 | 山东华煤创昊设备制造有限公司 | A kind of warp and filling steel cable core conveying belt |
| CN204568614U (en) * | 2015-04-16 | 2015-08-19 | 徐州五洋科技股份有限公司 | The first band of feeder |
-
2016
- 2016-08-20 CN CN201810302647.8A patent/CN108455171B/en active Active
- 2016-08-20 CN CN201810302652.9A patent/CN108423365B/en active Active
- 2016-08-20 CN CN201610691015.6A patent/CN106276044B/en active Active
- 2016-08-20 CN CN201810302646.3A patent/CN108438730B/en active Active
Also Published As
| Publication number | Publication date |
|---|---|
| CN106276044B (en) | 2018-06-08 |
| CN108455171A (en) | 2018-08-28 |
| CN108455171B (en) | 2020-07-24 |
| CN106276044A (en) | 2017-01-04 |
| CN108423365B (en) | 2020-08-25 |
| CN108438730A (en) | 2018-08-24 |
| CN108423365A (en) | 2018-08-21 |
Similar Documents
| Publication | Publication Date | Title |
|---|---|---|
| CN108423365B (en) | Belt feeder conveyer belt | |
| AU2014240196A1 (en) | Rope for a hoisting device and elevator | |
| AU2012233038B2 (en) | Superelastic low rolling resistance conveyor belt | |
| DE112013004120T5 (en) | conveyor belt | |
| CN203906660U (en) | Aramid fiber rubber belt | |
| US7703600B1 (en) | Transport belt with link carcass | |
| EP1625087B1 (en) | Non-slip conveyor and method for producing same | |
| CN203079240U (en) | Anti-skidding rotary drum of bag grabbing conveyor | |
| US4032384A (en) | Method of making a conveyor belt | |
| NO131038B (en) | ||
| CN202301741U (en) | Elastic V-ribbed belt | |
| CN206108153U (en) | Flexible energy -conserving super wear steel cord conveyor belt | |
| CN215761563U (en) | Colliery is gas drainage hose conveyer in pit | |
| CN215401066U (en) | Corrosion-resistant wear-resistant high-strength conveying belt | |
| CN205771470U (en) | Print cartridge conveying mechanism | |
| CN207142067U (en) | A kind of conveying equipment of the full drum-type of biomass material | |
| CN208394148U (en) | A kind of flexible energy-saving super abrasive steel cable core conveying belt joint | |
| RU91986U1 (en) | DRIVE CONVEYOR DRUM | |
| US2815671A (en) | Positive drive belt | |
| CN204473798U (en) | First Tape Feeder | |
| CN216735964U (en) | Stretch-proofing stand wear and tear steel wire rope core conveyer belt | |
| CN209853123U (en) | Chain-driven conveying device | |
| CN108408326A (en) | A kind of flexible energy-saving super abrasive steel cable core conveying belt joint | |
| CN211520773U (en) | Wear-resistant rubber plate coated with rubber on roller | |
| CN205479134U (en) | Robot chain |
Legal Events
| Date | Code | Title | Description |
|---|---|---|---|
| PB01 | Publication | ||
| PB01 | Publication | ||
| SE01 | Entry into force of request for substantive examination | ||
| SE01 | Entry into force of request for substantive examination | ||
| TA01 | Transfer of patent application right | ||
| TA01 | Transfer of patent application right |
Effective date of registration: 20200612 Address after: 242599 no.35-17, Huancheng East Road, Jingchuan Town, Jing County, Xuancheng City, Anhui Province Applicant after: JINGXIAN JINGCHUAN TIKUI TEA Co.,Ltd. Address before: 213000 Changzhou Institute of Technology, new campus, 666 Liaohe Road, Xinbei District, Changzhou, Jiangsu. Applicant before: Chong Huijin |
|
| GR01 | Patent grant | ||
| GR01 | Patent grant | ||
| TR01 | Transfer of patent right | ||
| TR01 | Transfer of patent right |
Effective date of registration: 20221201 Address after: Longtouchang village, Longshan Town, Cixi City, Ningbo City, Zhejiang Province Patentee after: NINGBO FULONG SYNCHRONOUS BELT Co.,Ltd. Address before: 242599 No. 35-17, Huancheng East Road, Jingchuan Town, Jing County, Xuancheng City, Anhui Province Patentee before: JINGXIAN JINGCHUAN TIKUI TEA CO.,LTD. |