An ore material transport device

Abstract

The application discloses a kind of ore material transport devices, it is related to material conveying technical field.The present application includes first horizontal conveying section and second horizontal conveying section;First horizontal conveying section is installed on horizontal ground;It further includes a ore storehouse, steel structure platform is set above ore storehouse, and second horizontal conveying section is cooperatively installed on steel structure platform;First horizontal conveying section includes a plurality of sequentially arranged first Z-type conveying mechanism;Second horizontal conveying section includes a plurality of sequentially arranged second Z conveying mechanism.The present application is by being set first horizontal conveying section and second horizontal conveying section, and first horizontal conveying section and second horizontal conveying section are all by multiple Z-type conveying mechanism composition, realize the ore material from a position to another position is conveyed.

Description

TECHNICAL FIELD

[0001] The present application belongs to the technical field of material conveying, in particular relates to an ore material conveying device. BACKGROUND

[0002] The belt conveyor utilizes the friction force between the carrier roller and the conveying belt to drive the conveying belt to run, has the advantages of simple structure and large conveying capacity, so that the belt conveyor is widely used in the industrial field.

[0003] In the production field of glass, steel and the like, ore raw materials such as sand, feldspar, iron ore and the like are often needed, and for factories located near rivers, they generally set up a wharf at the river location, and then the ore raw materials are usually conveyed from the wharf to the ore storage warehouse; However, usually the wharf is 300-500 meters away from the ore storage warehouse, and more than 2-3 kilometers away; Then the ore raw materials need to be conveyed from the wharf to the ore storage warehouse; In the prior art, the material transfer is carried out by using the field truck or the conveying belt; The material transfer by using the truck has the disadvantages of wasting energy and high cost.

[0004] And like CN101624131B discloses a conveyor, a conveying frame, comprising a front conveying frame and a rear conveying frame arranged at a certain angle with each other, the upper surfaces of the front conveying frame and the rear conveying frame are provided with carrier rollers matched with the conveying belt; The lifting frame is arranged at the front end of the front conveying frame; The counterweight is arranged at the rear end of the rear conveying frame; The bracket is arranged on the lower surface of the rear conveying frame; In the above, the material transfer is carried out by using the conveying belt, and the single motor driving conveying conveying force is insufficient. SUMMARY

[0005] The purpose of the present application is to provide an ore material conveying device, by setting a first horizontal conveying section and a second horizontal conveying section, and the first horizontal conveying section and the second horizontal conveying section are composed of a plurality of Z-shaped conveying mechanisms, realizing the conveying of ore materials from one position to another position, solving the problems raised in the prior art.

[0006] To solve the above technical problems, the present application is realized by the following technical scheme:

[0007] The application discloses an ore material conveying device, which comprises a first horizontal conveying section and a second horizontal conveying section; the first horizontal conveying section is installed on a horizontal ground; an ore storage is further arranged, a steel structure platform is arranged above the ore storage, and the second horizontal conveying section is installed on the steel structure platform in a matched mode; the first horizontal conveying section comprises a plurality of first Z-shaped conveying mechanisms arranged in sequence; a buffer discharging mechanism A is arranged between any two adjacent first Z-shaped conveying mechanisms; the top end of the buffer discharging mechanism A is located directly below a first Z-shaped conveying mechanism, and the bottom end of the buffer discharging mechanism A is located directly above a first Z-shaped conveying mechanism; the second horizontal conveying section comprises a plurality of second Z-shaped conveying mechanisms arranged in sequence; a buffer discharging mechanism B is arranged between any two adjacent second Z-shaped conveying mechanisms; the top end of the buffer discharging mechanism B is located directly below a second Z-shaped conveying mechanism, and the bottom end of the buffer discharging mechanism B is located directly above a second Z-shaped conveying mechanism.

[0008] As a preferred technical scheme of the application, the first Z-shaped conveying mechanism and the second Z-shaped conveying mechanism each comprise a conveying module; the conveying module comprises a rack and a conveying belt arranged on the rack; the conveying module of the first Z-shaped conveying mechanism is fixed on the horizontal ground through a support structure A; and the conveying module of the second Z-shaped conveying mechanism is movably installed on the steel structure platform along a vertical conveying direction of the conveying module through a support structure B.

[0009] As a preferred technical scheme of the application, the conveying module comprises a rack composed of two Z-shaped side beams and connecting rods connected between the two side beams.

[0010] The two ends of the rack are respectively provided with driven rollers and driving rollers, and the driven rollers and the driving rollers are in transmission connection with a conveying belt running along the contour of the rack.

[0011] As a preferred technical scheme of the present application, the support structure A comprises at least four support columns A connected to the outer side walls of the side beams, adjacent two support columns A are connected through a connecting beam A, the bottom end of the support column A is provided with a mounting sleeve A, a threaded hole A for mounting a locking bolt A is formed on the mounting sleeve A, and a rod body A is penetratingly arranged in the mounting sleeve A, the bottom end of the rod body A is provided with a bottom plate contacting the ground, and a fixing hole is formed on the bottom plate; the support structure B comprises at least four support columns B connected to the outer side walls of the side beams, adjacent two support columns B are connected through a connecting beam B, the bottom end of the support column B is provided with a mounting sleeve B, a threaded hole B for mounting a locking bolt A is formed on the mounting sleeve B, and a rod body B is penetratingly arranged in the mounting sleeve B, the bottom end of the rod body B is connected with a roller; two groups of roller grooves for roller rolling are arranged on the upper surface of the steel structure platform along the vertical conveying direction of the conveying module; a base plate is further arranged on the upper surface of the steel structure platform on one side of the roller groove, threaded holes C are arranged at the two ends of the base plate; a protrusion is arranged on one side of the rod body B, and a locking screw threadedly connected with the threaded hole C is penetratingly arranged in the protrusion.

[0012] As a preferred technical scheme of the present application, the buffer blanking mechanism B comprises a rectangular tubular pipeline B, the bottom end of the pipeline B is provided with a contraction portion with a gradually reduced opening from top to bottom; the opposite two side walls of the pipeline B are alternately provided with a plurality of downward inclined rubber buffer plates B; a blanking port is arranged on the steel structure platform directly below the buffer blanking mechanism B; and a blanking assembly connected with the buffer blanking mechanism B is further mounted at the blanking port.

[0013] As a preferred technical scheme of the present application, the top ends of the two sides of the buffer blanking mechanism B are respectively provided with a vertical plate along the parallel conveying direction of the conveying module, the top of the vertical plate is provided with an inwardly bent batten, and the vertical plate and the batten are integrally formed; the top outer side wall of the side beam of the second Z conveying mechanism is provided with a support beam in a horizontal state, one end of the support beam protrudes from one end of the side beam, the outer side wall of the support beam is provided with a support track for supporting the batten, a plurality of protrusions are further arranged on the side wall of the support beam directly above the support track, and a locking bolt B with the end abutting against the batten is penetratingly arranged on the protrusion; the bottom side of the batten is provided with a rolling structure rolling along the support track, and the upper surface is provided with a plurality of positioning grooves for inserting the locking bolt B.

[0014] As a preferred technical scheme of the present application, the blanking assembly comprises a rectangular frame A fixedly arranged at the blanking opening, the upper surface of the rectangular frame A is recessed to form a stepped portion, a cloth bag is connected to the stepped portion, the other end of the cloth bag is connected to a rectangular frame B which can be sleeved outside a pipeline B, the upper edge of the rectangular frame B is arranged in vertical direction to form a mounting hole C, the circumferential side of the pipeline B is provided with a protruding ring matched with the rectangular frame B, and the protruding ring is provided with a mounting hole D matched with the mounting hole C.

[0015] As a preferred technical scheme of the present application, the buffer blanking mechanism A comprises a rectangular tubular pipeline A, the bottom end of the pipeline A is fixed on the rack of a second Z conveying mechanism through four L-shaped supporting columns, each of the four edge sides of the bottom end of the pipeline A is hingedly connected to a side plate, the opposite two side walls of the pipeline A are alternately provided with a plurality of downward inclined rubber buffer plates A, at least one cross bar is connected between the adjacent two L-shaped supporting columns, at least two arc-shaped blocking rods are fixed on the cross bar, the arc-shaped blocking rod is provided with a rubber material layer abutting against the outer side wall of the side plate, the cross bar is provided with a clamping groove for mounting the arc-shaped blocking rod, the clamping groove is provided with two mounting holes A, the arc-shaped blocking rod is provided with a mounting hole B matched with the mounting hole A, and the arc-shaped blocking rod is fixed in the clamping groove by means of a bolt penetrating through the mounting holes A and B.

[0016] As a preferred technical scheme of the present application, the first horizontal conveying section and the second horizontal conveying section are further provided with an inclined lifting conveying section, the buffer blanking mechanism A is arranged between the first horizontal conveying section and the inclined lifting conveying section, and the bottom end of the inclined lifting conveying section is located directly below the top end of a first Z conveying mechanism, the buffer blanking mechanism B is arranged between the inclined lifting conveying section and the second horizontal conveying section, and the top end of the inclined lifting conveying section is located directly above the bottom end of a second Z conveying mechanism.

[0017] As a preferred technical scheme of the present application, the inclined lifting conveying section comprises a plurality of third conveying mechanisms arranged in sequence, a blanking baffle is arranged between the adjacent two third conveying mechanisms, the inclined lifting conveying section is installed on a slope, the conveying direction of the third conveying mechanism forms an angle with the direction of the slope, the angle is between 5° and 35°, the material of one third conveying mechanism falls from the top thereof and falls into the bottom of another third conveying mechanism, the blanking baffle is arranged below the top of the third conveying mechanism, and the distance between the bottom end of the blanking baffle and the surface of the third conveying mechanism located below the blanking baffle is 2 cm.

[0018] The present application has the following beneficial effects:

[0019] 1. The first horizontal conveying section and the second horizontal conveying section are arranged, and the first horizontal conveying section and the second horizontal conveying section are composed of a plurality of Z-shaped conveying mechanisms, so that the ore materials can be conveyed from one position to another position.

[0020] 2. The unloading baffle is arranged above the bottom end of the third conveying mechanism, the unloading baffle is used for blocking the materials falling from above, and the materials are prevented from sliding downward along the conveying belt of the third conveying mechanism and falling from the bottom end of the third conveying mechanism under the action of gravity.

[0021] 3. When the material conveying device is used, the materials are conveyed to the corresponding area through the corresponding second Z-shaped conveying mechanism according to the requirement, that is, the unloading port of the corresponding second Z-shaped conveying mechanism in the area is controlled to be in an open state, that is, the second Z-shaped conveying mechanism at the unloading port is controlled to be removed, so that the materials falling from the buffer unloading mechanism B above the unloading port fall into the ore storage through the unloading port.

[0022] Of course, any product implementing the present application does not necessarily need to achieve all the advantages described above. BRIEF DESCRIPTION OF DRAWINGS

[0023] In order to more clearly illustrate the technical solutions of the embodiments of the present application, the drawings needed for the embodiment description will be briefly introduced as follows. Obviously, the drawings in the following description are only some embodiments of the present application, and other drawings can be obtained by those skilled in the art without creative labor.

[0024] Figure 1 It is a structural schematic view of the material conveying device of the present application;

[0025] Figure 2 It is a structural schematic view of the first Z-shaped conveying mechanism of the present application; Figure 1 It is a partial enlarged view of A in the figure;

[0026] Figure 3 It is a structural schematic view of the buffer unloading mechanism A of the present application; Figure 1 It is a partial enlarged view of B in the figure;

[0027] Figure 4 It is a structural schematic view of the first Z-shaped conveying mechanism of the present application;

[0028] Figure 5 It is a partial enlarged view of C in the figure; Figure 4

[0029] It is a structural schematic view of the buffer unloading mechanism A of the present application; Figure 6

[0030] It is a structural schematic view of the arc-shaped blocking rod installation structure of the present application; Figure 7

[0031] Figure 8 ​The schematic view of the buffer blanking mechanism and the blanking assembly of the present application;

[0032] Figure 9 The schematic view of the structure of the buffer blanking mechanism of the present application;

[0033] Figure 10 The front view of Figure 9 The front view of DETAILED DESCRIPTION

[0034] The technical solutions in the embodiments of the present application will be clearly and completely described in combination with the drawings in the embodiments of the present application. Obviously, the described embodiments are only a part of the embodiments of the present application, rather than all the embodiments. Based on the embodiments in the present application, all other embodiments obtained by those skilled in the art without creative labor fall within the protection scope of the present application.

[0035] In the description of the present application, it should be understood that the terms "opening", "upper", "lower", "thickness", "top", "middle", "length", "inner", "periphery" and the like indicate the orientation or positional relationship, which are only for the convenience of describing the present application and simplifying the description, and do not indicate or imply that the indicated components or elements must have a particular orientation, be constructed and operated in a particular orientation, and therefore cannot be understood as a limitation of the present application.

[0036] Please refer to Figure 1 The present application is an ore material conveying device, which is used for conveying materials from a first location with a height of H1 to a second location with a height of H2, and the height of the first location is lower than that of the second location, and a slope with an inclination angle of 15° is arranged between the first location and the second location. Then, based on the material conveying requirement, a first horizontal conveying section 100 is arranged at the first location, a second horizontal conveying section 300 is arranged at the second location, and an inclined lifting conveying section 200 is arranged on the slope to realize the transfer of the materials conveyed on the first horizontal conveying section 100 to the second horizontal conveying section 300. The material conveying device composed of the first horizontal conveying section 100, the second horizontal conveying section 300 and the inclined lifting conveying section 200 realizes the conveying of the materials from the first location to the second location.

[0037] Of course, since the distance of the first horizontal conveying section 100, the second horizontal conveying section 300 and the inclined lifting conveying section 200 is relatively long, in some possible embodiments, the first horizontal conveying section 100 is designed to include a plurality of first Z-type conveying mechanisms 1, the second horizontal conveying section 300 is designed to include a plurality of second Z-type conveying mechanisms 3, and the inclined lifting conveying section 200 is designed to include a plurality of third conveying mechanisms 7.

[0038] In a possible implementation, the first location is a wharf position, the overall level; the second location is a steel structure platform 400 arranged above the ore storage, and the slope is a slope platform arranged between the wharf position and the steel structure platform 400, and the slope platform has an inclination angle of 15°.

[0039] Of course, in order to facilitate the conveying of materials from one first Z-shaped conveying mechanism 1 to another first Z-shaped conveying mechanism 1, and the conveying of materials from one second Z-shaped conveying mechanism 3 to another second Z-shaped conveying mechanism 3, a buffer and discharging mechanism A2 is arranged between every two adjacent first Z-shaped conveying mechanisms 1 in the present application, the top end of the buffer and discharging mechanism A2 is located directly below a first Z-shaped conveying mechanism 1, and the bottom end is located directly above a first Z-shaped conveying mechanism 1; at the same time, a buffer and discharging mechanism B4 is arranged between every two adjacent second Z-shaped conveying mechanisms 3; the top end of the buffer and discharging mechanism B4 is located directly below a second Z-shaped conveying mechanism 3, and the bottom end is located directly above a second Z-shaped conveying mechanism 3.

[0040] At the same time, in order to facilitate the conveying of materials from one third conveying mechanism 7 to another third conveying mechanism 7, the conveying direction of the third conveying mechanism 7 is controlled to form an angle of 10° with the surface of the slope platform during installation, so as to realize the control of the discharging end of one third conveying mechanism 7 being located directly above the feeding end of another third conveying mechanism 7, and then realize the falling of the materials from the top of one third conveying mechanism 7 into the bottom of another third conveying mechanism 7. Of course, in order to avoid the materials falling from the discharging end of one third conveying mechanism 7 to the feeding end of another third conveying mechanism 7 and then continuing to slide downward from the feeding end, a discharging baffle 8 is arranged above the bottom end of the third conveying mechanism 7, and the falling materials are blocked by the discharging baffle 8 to avoid sliding downward along the conveying belt of the third conveying mechanism 7 under the action of gravity. Specifically, the distance between the bottom end of the discharging baffle 8 and the upper surface of the conveying belt of the third conveying mechanism 7 located below the discharging baffle 8 is 2 cm.

[0041] It can be known that, as Figure 4 In the present application, the first Z-shaped conveying mechanism 1 and the second Z-shaped conveying mechanism 3 both include a conveying module 10; the conveying module 10 includes a rack 101 and a conveying belt 102 arranged on the rack 101, and the rack 101 is composed of two “Z”-shaped side beams and connecting rods connected between the two side beams; and the two ends of the rack 101 are respectively provided with driven rollers and driving rollers, and the conveying belt 102 rotating around the outline of the rack 101 is drivingly connected between the driven rollers and the driving rollers.

[0042] Of course, on the basis of the above, since the material needs to be conveyed into the ore storage by the second Z conveying mechanism 3 for stacking, since it is needed to be stacked into several piles according to the date / batch / category in an ore storage, it is needed to control the material to be conveyed to the corresponding area by the corresponding second Z conveying mechanism 3 according to the demand in use, and on this basis, the second Z conveying mechanism 3 needs to be arranged as a movable structure; at the same time, the first Z conveying mechanism 1 can be directly fixed.

[0043] Specifically, the conveying module 10 of the first Z conveying mechanism 1 in the application is fixed on the horizontal ground through the support structure A; as Figure 5 The support structure A includes at least four support columns A110 connected to the outer side walls of the side beams, the adjacent two support columns A110 are connected through the connecting beams A111, the bottom end of the support column A is provided with a mounting sleeve A112, the mounting sleeve A112 is provided with a threaded hole A113 for mounting the locking bolt A, and the rod body A114 is arranged in the mounting sleeve A112 in cooperation; the bottom end of the rod body A114 is provided with a bottom plate 115 contacting the ground, and the bottom plate 115 is provided with a fixing hole 116; during installation, the installation height of the conveying module 10 is adjusted by the rod body A114 along the mounting sleeve A112, and the first Z conveying mechanism 1 is installed and fixed by cement pouring or bolt fixing and the like.

[0044] Specifically, the conveying module 10 of the second Z conveying mechanism 3 in the application is movably installed on the steel structure platform 400 along the vertical conveying direction of the conveying module 10 through the support structure B; as Figure 3 The support structure B includes at least four support columns B120 connected to the outer side walls of the side beams, the adjacent two support columns B120 are connected through the connecting beams B121, the bottom end of the support column B120 is provided with a mounting sleeve B122, the mounting sleeve B122 is provided with a threaded hole B123 for mounting the locking bolt A; and the rod body B124 is arranged in the mounting sleeve B122 in cooperation; the bottom end of the rod body B124 is connected with a roller 125; two groups of roller grooves 4001 for rolling of the roller 125 are arranged on the steel structure platform 400 along the vertical conveying direction of the conveying module 10; the upper surface of the steel structure platform 400 on one side of the roller groove 4001 is further provided with a base plate 4002, the two ends of the base plate 4002 are provided with threaded holes C; one side of the rod body B124 is provided with a protrusion 126, the protrusion 126 is provided with a locking screw 127 threadedly connected with the threaded hole C; during installation, the installation height of the conveying module 10 is adjusted by the rod body B124 along the mounting sleeve B122, and during use, the displacement of the second Z conveying mechanism 3 along the conveying direction thereof on the steel structure platform 400 is controlled by controlling the roller 125 to displace along the length direction of the roller groove 4001.

[0045] It can be known that, in some possible embodiments, as Figure 1In order to control the material transfer between two second Z conveying mechanisms 3, the application sets a buffer discharging mechanism B4 between two adjacent second Z conveying mechanisms 3; the top end of the buffer discharging mechanism B4 is located directly below a second Z conveying mechanism 3, and the bottom end is located directly above a second Z conveying mechanism 3; and a discharging port is arranged on the steel structure platform 400 directly below the buffer discharging mechanism B4; at this time, based on the above control, the second Z conveying mechanism 3 is removed from the corresponding discharging port, and at this time, the discharging port of the second Z conveying mechanism 3 is in an open state, that is, the material falling from the buffer discharging mechanism B4 above the discharging port falls into the ore storage through the discharging port.

[0046] At the same time, in order to avoid the material falling from the bottom end of the buffer discharging mechanism B4 splashing onto the steel structure platform 400, for this purpose, as Figure 1 and 8 -10, the application sets a discharging assembly 5 at the discharging port, which includes a rectangular frame A50 fixedly arranged at the discharging port, and the upper surface of the rectangular frame A50 is recessed to form a stepped portion 51; the stepped portion 51 is connected with a cloth bag 52, and the other end of the cloth bag 52 is connected with a rectangular frame B53 which can be sleeved outside the pipeline B40; and in use, the rectangular frame B53 is controlled to be pulled upward and sleeved outside the buffer discharging mechanism B4, at this time, the material falling through the buffer discharging mechanism B4 falls into the cloth bag 52 through the buffer discharging mechanism B4, thereby realizing the material falling, and the cloth bag 52 is used to block the splashing of the material during the material falling.

[0047] In order to facilitate the installation of the rectangular frame B53 and the buffer falling through the buffer discharging mechanism B4, as Figures 8-10 the buffer discharging mechanism B4 in the application includes a rectangular tubular pipeline B40, and the bottom end of the pipeline B40 is provided with a contraction portion 41 which is gradually reduced from top to bottom; the opposite two side walls of the pipeline B40 are alternately provided with a plurality of downward inclined rubber buffer plates B42; the upper edge of the rectangular frame B53 is vertically arranged with a mounting hole C54, the circumferential side of the pipeline B40 is provided with a convex ring 43 matched with the rectangular frame B53, and the convex ring 43 is provided with a matched mounting hole D44.

[0048] Of course, as Figures 8-10And 2, in addition to the blocking of the blanking port due to the presence of the roller groove 4001, the base plate 4002, in these embodiments, the need to control the overall activity of the buffer blanking mechanism B4 and adjust the corresponding blanking assembly 5 of the buffer blanking mechanism B4; the present application is provided with a vertical plate 451 on both sides of the top of the pipeline B40 along the parallel conveying module 10 conveying direction, the top of the vertical plate 451 is provided with an inwardly folded plate 45, and the vertical plate 451 and the plate 45 are integrally formed; and the outer side wall of the top of the side beam of the second Z conveying mechanism 3 is provided with a support beam 46 in a horizontal state, one end of the support beam 46 protrudes from one end of the side beam, the outer side wall of the support beam 46 is provided with a support rail 461 for supporting the plate 45, a plurality of protrusions 462 are further provided on the side wall of the support beam 46 located above the support rail 461, and a locking bolt B463 is provided on the protrusions 462, and the locking bolt B463 is provided on the protrusions 462. The bottom side of the plate 45 is provided with a rolling structure 453 rolling along the support rail 461, and the upper surface is provided with a plurality of positioning grooves 452 for inserting the locking bolt B463; the rolling structure 453 is controlled to roll along the length direction of the support rail 461, thereby facilitating the adjustment of the activity of the buffer blanking mechanism B4.

[0049] Meanwhile, in the above, Figure 6 And 7 In order to buffer the blanking by the buffer blanking mechanism A2, the buffer blanking mechanism A2 in the present application comprises a rectangular tubular pipeline A20, the bottom end of the pipeline A20 is fixed on the rack 101 of the second Z conveying mechanism 3 by four L-shaped support columns 21; the bottom end of the pipeline A20 is hinged with a side plate 22 on each of the four edge sides; the opposite two side walls of the pipeline A20 are alternately provided with a plurality of downward inclined rubber buffer plates A25; at least one cross bar 23 is connected between the adjacent two L-shaped support columns 21, and at least two arc-shaped blocking rods 24 are fixed on the cross bar 23, one end of the arc-shaped blocking rod 24 is provided with a rubber layer abutting against the outer side wall of the side plate 22; the cross bar 23 is provided with a clamping groove 231 for mounting the arc-shaped blocking rod 24; the clamping groove 231 is provided with two mounting holes A232; the arc-shaped blocking rod 24 is provided with mounting holes B241 matched with the mounting holes A232; during installation, the arc-shaped blocking rod 24 is fixed in the clamping groove 231 by bolts penetrating the mounting holes A232 and the mounting holes B241. Based on the rotatable arrangement of the side plate 22, it is convenient to open outward when the size of the ore is larger than the gap between the side plate 22 and the conveying belt 102 during conveying, thereby avoiding the side plate 22 and the conveying belt 102 from being clamped with ore; at the same time, when the size of the ore is smaller than the gap between the side plate 22 and the conveying belt 102, the side plate 22 naturally falls, keeping the gap between the bottom end of the side plate 22 and the conveying belt 102 small enough, thereby reducing the amount of granular ore flying out of the gap between the side plate 22 and the conveying belt 102 and the amount of dust, which is conducive to environmental protection.

[0050] In the description of the specification, reference to "one embodiment", "an example", "a specific example" or the like means that a particular feature, structure, material or characteristic described in connection with the embodiment or example is included in at least one embodiment or example of the application. The appearances of the phrases "in one embodiment", "an example", "a specific example" or the like in various places in the specification are not necessarily referring to the same embodiment or example. Furthermore, the particular features, structures, materials, or characteristics can be combined in any suitable manner in one or more embodiments or examples.

[0051] The preferred embodiments of the application disclosed above are only to help explain the application. The preferred embodiments do not describe all the details of the application and limit the application to the specific embodiments described. Obviously, many modifications and variations can be made in light of the contents of the specification. The specification selects and specifically describes these embodiments in order to better explain the principles and practical application of the application, so that those skilled in the art can well understand and utilize the application. The application is limited only by the claims and their full scope and equivalents.

Claims

1. A device for transporting ore materials, characterized in that: It includes a first horizontal conveyor section (100) and a second horizontal conveyor section (300); The first horizontal conveyor section (100) is installed on a horizontal surface; It also includes an ore silo, above which a steel structure platform (400) is provided, and the second horizontal conveying section (300) is installed on the steel structure platform (400); The first horizontal conveying section (100) includes a plurality of first Z-shaped conveying mechanisms (1) arranged in sequence; a buffer unloading mechanism A (2) is provided between any two adjacent first Z-shaped conveying mechanisms (1); the top of the buffer unloading mechanism A (2) is located directly below a first Z-shaped conveying mechanism (1), and its bottom is located directly above a first Z-shaped conveying mechanism (1); The second horizontal conveying section (300) includes several second Z conveying mechanisms (3) arranged in sequence; a buffer feeding mechanism B (4) is provided between any two adjacent second Z conveying mechanisms (3); the top of the buffer feeding mechanism B (4) is located directly below a second Z conveying mechanism (3), and its bottom is located directly above a second Z conveying mechanism (3); The first Z-type conveying mechanism (1) and the second Z-type conveying mechanism (3) both include a conveying module (10). The conveying module (10) of the second Z-type conveying mechanism (3) can be movably installed on the steel structure platform (400) along the conveying direction perpendicular to the conveying module (10) through the support structure B. The conveying module (10) includes a frame (101) consisting of two side beams in the shape of "Z" and a connecting rod connecting the two side beams. The supporting structure B includes at least four pillars B (120) connected to the outer side wall of the side beam. Adjacent pillars B (120) are connected by connecting beams B (121). The bottom end of each pillar B is provided with a mounting sleeve B (122). The mounting sleeve B (122) has threaded holes B (123) for mounting locking bolts A. A rod B (124) is inserted through the mounting sleeve B (122). The bottom end of the rod B (124) is connected to a roller (125). Two sets of roller grooves (4001) for the rollers (125) to roll are provided on the steel structure platform (400) along the conveying direction of the vertical conveying module (10). A base plate (4002) is also provided on the upper surface of the steel structure platform (400) located on one side of the roller groove (4001), and threaded holes C are provided at both ends of the base plate (4002); A protrusion (126) is provided on one side of the rod body B (124), and a locking screw (127) is threaded through the protrusion (126) and threadedly connected to the threaded hole C; a feeding port is provided on the steel structure platform (400) located directly below the buffer feeding mechanism B (4); The buffer feeding mechanism B (4) includes a rectangular tube-shaped pipe B (40), and the bottom end of the pipe B (40) is provided with a constriction section (41) that gradually narrows from top to bottom; the opposite side walls of the pipe B (40) are alternately provided with a number of downwardly inclined rubber buffer plates B (42). Furthermore, a feeding component (5) is installed at the feeding port and is connected to the buffer feeding mechanism B (4); The top two sides of the buffer feeding mechanism B (4) are respectively provided with a vertical plate (451) along the conveying direction of the parallel conveying module (10). The top of the vertical plate (451) is provided with an inwardly bent plate (45), and the vertical plate (451) and the plate (45) are integrally formed. The second Z conveying mechanism (3) has a horizontal support beam (46) on the outer side wall of the top of the side beam. One end of the support beam (46) protrudes from one end of the side beam. The outer side wall of the support beam (46) is provided with a support rail (461) for supporting the platform (45). Several protrusions (462) are also provided on the side wall of the support beam (46) directly above the support rail (461). Locking bolts B (463) with their ends abutting against the platform (45) are provided through the protrusions (462). The bottom side of the platform (45) is provided with a rolling structure (453) that rolls along the support rail (461), and several positioning grooves (452) for the locking bolts B (463) to be inserted are provided on the upper surface. The buffer feeding mechanism A (2) includes a rectangular tube A (20), the bottom end of which is fixed to the frame (101) of the second Z conveying mechanism (3) by four L-shaped support columns (21); a side plate (22) is hinged to each of the four edges of the bottom end of the tube A (20). The opposite side walls of the pipe A (20) are alternately provided with several downward-sloping rubber buffer plates A (25). At least one crossbar (23) is connected between two adjacent L-shaped support columns (21), and at least two arc-shaped stop bars (24) are fixed on the crossbar (23). One end of the arc-shaped stop bar (24) is provided with a rubber material layer that abuts against the outer wall of the side plate (22). The crossbar (23) is provided with a slot (231) for installing the arc-shaped stop bar (24); the slot (231) is provided with two mounting holes A (232); the arc-shaped stop bar (24) is provided with a mounting hole B (241) that mates with the mounting hole A (232); during installation, the arc-shaped stop bar (24) is fixed in the slot (231) by bolts that pass through the mounting holes A (232) and B (241).

2. The ore material transport device according to claim 1, characterized in that... ； The conveying module (10) includes a frame (101) and a conveyor belt (102) disposed on the frame (101). The conveying module (10) of the first Z-shaped conveying mechanism (1) is fixed on the horizontal ground by the support structure A.

3. The ore material transport device according to claim 2, characterized in that; The two ends of the frame (101) are respectively equipped with driven rollers and driving rollers, and a conveyor belt (102) that runs around the outline of the frame (101) is connected between the driven rollers and the driving rollers.

4. The ore material transport device according to claim 3, characterized in that, The supporting structure A includes at least four pillars A (110) connected to the outer side wall of the side beam. Adjacent pillars A (110) are connected by a connecting beam A (111). The bottom end of the pillar A is provided with a mounting sleeve A (112). The mounting sleeve A (112) has a threaded hole A (113) for mounting a locking bolt A. A rod A (114) is provided through the mounting sleeve A (112). The bottom end of the rod A (114) is provided with a base plate (115) that contacts the ground. The base plate (115) has a fixing hole (116).

5. The ore material transport device according to claim 1, characterized in that, The feeding assembly (5) includes a rectangular frame A (50) that is fixed at the feeding port. The upper surface of the rectangular frame A (50) is recessed to form a step (51). A cloth bag (52) is connected to the step (51). The other end of the cloth bag (52) is connected to a rectangular frame B (53) that can be fitted onto the outside of the pipe B (40). The upper edge of the rectangular frame B (53) is vertically fitted with mounting holes C (54); The pipe B (40) is provided with a convex ring (43) that mates with the rectangular frame B (53) on its periphery, and the convex ring (43) is provided with a mounting hole D (44) that mates with it.

6. The ore material transport device according to claim 1, characterized in that, The first horizontal conveying section (100) and the second horizontal conveying section (300) are further provided with an inclined lifting conveying section (200); A buffer unloading mechanism A (2) is provided between the first horizontal conveying section (100) and the inclined lifting conveying section (200), and the bottom end of the inclined lifting conveying section (200) is located directly below the top of a first Z-shaped conveying mechanism (1); A buffer unloading mechanism B (4) is provided between the inclined lifting conveyor section (200) and the second horizontal conveyor section (300), and the top of the inclined lifting conveyor section (200) is located directly above the bottom of a second Z conveyor mechanism (3).

7. The ore material conveying device according to claim 6, characterized in that, The inclined lifting conveyor section (200) includes a plurality of third conveying mechanisms (7) arranged in sequence, and a discharge baffle (8) is provided between two adjacent third conveying mechanisms (7). The inclined lifting conveyor section (200) is installed on a slope, and the conveying direction of the third conveying mechanism (7) forms an angle between 5° and 35° with the slope direction; After the material falls from the top of one of the third conveying mechanisms (7), it falls into the bottom of another third conveying mechanism (7); The discharge baffle (8) is located below the top of the third conveying mechanism (7); the bottom of the discharge baffle (8) is 2cm away from the surface of the third conveying mechanism (7) located below it.

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