CN110856589A - High-efficient material conveying device - Google Patents

Abstract

The invention discloses a high-efficiency material conveying device which comprises a shell, a rotating bin and a feeding and discharging channel, wherein the rotating bin is arranged in the shell, the rotating bin is provided with a material port, the shell is provided with a material window, the material window is arranged opposite to the material port, the feeding and discharging channel comprises a feeding channel and a discharging channel, and the feeding direction of the feeding channel is the tangential direction of the material window. When the material entered from feedstock channel, the material will take place to rotate along the tangential direction of material mouth, and then the spiral cut into to rotatory storehouse, compares in the mode of the axial direction feeding along the material window, adopts the tangential direction feeding, can effectively prevent piling up, the not thorough problem of transport that the material produced when carrying between material window and material mouth.

Description

High-efficient material conveying device

[ technical field ] A method for producing a semiconductor device

The invention relates to kitchen appliances, in particular to a high-efficiency material conveying device.

[ background of the invention ]

In the starting stage of cooking, food materials to be cooked often need to be pretreated, the existing cooking appliance has a function of automatically cleaning materials in order to realize automatic cooking, and the problem of the materials in the existing cooking appliance is also a troublesome problem in conveying, on one hand, the reason is that the structural volume of the cooking appliance is limited, so that a material conveying pipeline with good conveying capacity is difficult to arrange, and the material conveying and the whole volume are difficult to accept and reject; on the other hand, the reason is that the conveying pipeline is not convenient to clean, the partial position of the conveying pipeline is difficult to convey materials completely, and when the conveying pipeline is in a humid environment, the damaged material residues, dust or excess materials in the pipeline go mouldy, so that the safety and the sanitation of food are affected.

[ summary of the invention ]

The technical problem to be solved by the invention is to overcome the defects of the prior art and provide the high-efficiency material conveying device, so that the material conveying effect is good and the conveying efficiency is higher.

In order to solve the technical problems, the invention adopts the following technical scheme:

the utility model provides a high-efficient material conveyor, includes casing, rotatory storehouse and business turn over material passageway, rotatory storehouse sets up in the casing, rotatory storehouse is equipped with the material mouth, the casing is equipped with the material window, the material window with the material mouth sets up relatively, business turn over material passageway includes feedstock channel and discharging channel, feedstock channel's direction of feed does the tangential direction of material window.

In foretell high-efficient material conveyor, still include air exhaust device, the casing is equipped with the drain, air exhaust device with the drain is connected, feedstock channel's main part extends the setting to the downside, and the material relies on the negative pressure to follow under the negative pressure feedstock channel is past the material window feeding.

In the efficient material conveying device, the efficient material conveying device further comprises an air exhaust device, the shell is provided with a sewage draining exit, the air exhaust device is connected with the sewage draining exit, and the discharging direction of the discharging channel is the tangential direction of the material window.

In foretell high-efficient material conveyor, still include air exhaust device, the casing is equipped with the drain, air exhaust device with the drain is connected, discharging channel's main part extends the setting to the downside, and under the non-negative pressure material window exhaust material relies on gravity to follow discharging channel discharges.

In the above efficient material conveying device, the feeding and discharging channel comprises a feeding and discharging joint, the feeding and discharging joint is detachably connected with the material window, and the feeding channel and the discharging channel are respectively connected with the feeding and discharging joint.

In the efficient material conveying device, the efficient material conveying device further comprises a feeding and discharging channel, the feeding and discharging joint comprises an arc-shaped inner wall, and the inner wall of one side of the feeding channel is tangent to the arc-shaped inner wall.

In the above efficient material conveying device, the inner wall of one side of the discharge channel is tangent to the arc-shaped inner wall.

In the above efficient material conveying device, the discharging channel and the feeding channel are tangent to the arc-shaped inner wall along the same rotation direction.

In the above efficient material conveying device, the feeding channel forms a feeding hole at the arc-shaped inner wall, and the discharging channel forms a discharging hole at the arc-shaped inner wall.

In the above efficient material conveying device, the height of the feeding port is higher than that of the discharging port.

The invention has the beneficial effects that:

the efficient material conveying device provided by the invention has the advantages that in order to improve the conveying efficiency and conveying effect of materials, the feeding direction of the feeding channel is the tangential direction of the material window, so when the materials enter from the feeding channel, the materials rotate along the tangential direction of the material port and are spirally cut into the rotating bin. Meanwhile, the material is spirally cut into the rotating bin, so that friction is generated between the material and between the material and the shell, and impurities such as dust, harmful substances and the like on the surface of the material are stripped from the surface of the material, so that the cleanliness of the material is improved, and the cleaning effect is improved.

In the preferred embodiment of the invention, the main body part of the feeding channel extends downwards, and materials are fed into the material window along the feeding channel under negative pressure by virtue of negative pressure, so that the problem of incomplete material conveying can not be caused.

In the preferred scheme of the invention, the discharging direction of the discharging channel is the tangential direction of the material window, so that under the working of the air extractor, external air can enter along the discharging channel under negative pressure and is sucked into the material window in the tangential direction, airflow cut in the tangential direction forms a spiral vortex, and materials entering from the feeding channel in the tangential direction are less prone to stay between the material window and the material opening and enter the rotary bin more easily under the action of the spiral vortex, so that the conveying efficiency of the materials is improved. Meanwhile, the formed spiral vortex can impact the material, further increase friction and improve the cleaning effect.

Discharging channel's main part extends the setting to the downside, discharging channel's material relies on gravity to discharge down, discharging channel's main part that can make like this can not produce the not thorough problem of material transport yet, because, extend the setting to the downside with the main part, make the material need overcome the effect of gravity and can reach the material window, under the negative pressure state, will form the air current in the discharging channel, can clean discharging channel's inner wall, when the negative pressure state is relieved, material window exhaust material will be thoroughly discharged under the effect of gravity, therefore can not form in discharging channel main part and remain, make discharging channel's main part can keep clean health, thereby good transport effect and conveying efficiency have been guaranteed.

In the preferred scheme of the invention, the feeding and discharging connector is arranged, and the feeding and discharging connector realizes the function of detachably connecting the feeding and discharging channel to the material window so as to clean the feeding and discharging channel; in order to enable the materials to rotate tangentially in the feeding and discharging channel and smoothly spirally cut into the material window, an arc-shaped inner wall is arranged on the feeding and discharging joint, the inner wall of one side of the feeding channel is tangent to the arc-shaped inner wall, and when the materials reach the feeding and discharging joint along the feeding channel, the materials rotate tangentially in time under the action of the arc-shaped inner wall and are spirally cut into the rotary bin. Correspondingly, in order to ensure that the air flow entering the discharging channel can form spiral vortex in the charging and discharging joint, the inner wall of one side of the discharging channel can be tangent to the arc-shaped inner wall.

In order to prevent the materials cut into from the feeding channel from falling into the discharging channel when passing through the discharging channel, the discharging channel and the feeding channel are tangent to the arc-shaped inner wall along the same rotary direction, and when the materials pass through the discharging hole in the arc-shaped inner wall, the rotary direction of the materials deviates from the discharging direction of the discharging channel, so that the materials are prevented from keeping rotary in the feeding and discharging joint and being prevented from falling into the discharging channel.

In order to ensure that the materials discharged from the material window can smoothly enter the discharge channel from the discharge port and be discharged along with the main body part of the discharge channel, and prevent the materials from falling into the feeding channel in the discharging process, the height of the feeding port is set to be higher than that of the discharge port. The discharged material will not reach the feed opening, thereby avoiding that the discharged material falls into the feed channel.

These features and advantages of the present invention will be disclosed in more detail in the following detailed description and the accompanying drawings.

[ description of the drawings ]

The invention is further described below with reference to the accompanying drawings:

FIG. 1 is a schematic view of an efficient material transfer device according to an embodiment of the present invention;

FIG. 2 is an exploded view of an efficient material handling apparatus according to an embodiment of the present invention;

FIG. 3 is a schematic illustration of a feed and discharge passage in an embodiment of the present invention;

FIG. 4 is a schematic view of a rotary silo according to an embodiment of the present invention;

FIG. 5 is a cross-sectional view of a rotary silo in accordance with an embodiment of the present invention;

fig. 6 is a perspective view of a rotary bin according to an embodiment of the present invention.

[ detailed description ] embodiments

The technical solutions of the embodiments of the present invention are explained and illustrated below with reference to the drawings of the embodiments of the present invention, but the following embodiments are only preferred embodiments of the present invention, and not all embodiments. Based on the embodiments in the implementation, other embodiments obtained by those skilled in the art without any creative effort belong to the protection scope of the present invention.

In the description of the present invention, it is to be understood that the terms "center", "longitudinal", "lateral", "length", "width", "thickness", "upper", "lower", "front", "rear", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "clockwise", "counterclockwise", and the like, indicate orientations and positional relationships based on those shown in the drawings, and are used only for convenience of description and simplicity of description, and do not indicate or imply that the device or element being referred to must have a particular orientation, be constructed and operated in a particular orientation, and thus, are not to be considered as limiting the present invention.

Furthermore, the terms "first", "second" and "first" are used for descriptive purposes only and are not to be construed as indicating or implying relative importance or implicitly indicating the number of technical features indicated. Thus, a feature defined as "first" or "second" may explicitly or implicitly include one or more of that feature. In the description of the present invention, unless otherwise specified, "a plurality" means two or more unless explicitly defined otherwise.

In the present invention, unless otherwise expressly specified or limited, the terms "mounted," "connected," "secured," and the like are to be construed broadly and can, for example, be fixedly connected, detachably connected, or integrally connected; can be mechanically or electrically connected; they may be connected directly or indirectly through intervening media, or they may be interconnected between two elements. The specific meanings of the above terms in the present invention can be understood by those skilled in the art according to specific situations.

In the present invention, unless otherwise expressly stated or limited, "above" or "below" a first feature means that the first and second features are in direct contact, or that the first and second features are not in direct contact but are in contact with each other via another feature therebetween. Also, the first feature being "on," "above" and "over" the second feature includes the first feature being directly on and obliquely above the second feature, or merely indicating that the first feature is at a higher level than the second feature. A first feature being "under," "below," and "beneath" a second feature includes the first feature being directly under and obliquely below the second feature, or simply meaning that the first feature is at a lesser elevation than the second feature.

This embodiment, as shown in fig. 1, for a high-efficient material conveyor for wash the material, the material can be for materials such as miscellaneous grain of five cereals, beans, like rice, black rice, glutinous rice, millet, maize, soybean, red bean, mung bean etc. this high-efficient material conveyor can cooperate cooking utensil to use together, for cooking utensil provides clean sanitary material, this high-efficient material conveyor also can the exclusive use simultaneously, accomplishes the self-cleaning of material, the material of using manpower sparingly.

Referring to fig. 1 and fig. 2, the efficient material conveying device of this embodiment includes a housing 200, a rotary bin 100 and a material inlet and outlet channel 500, the rotary bin 100 is disposed in the housing 200, the rotary bin 100 is provided with a material port 102, the housing 200 is provided with a material window 205, the material window 205 is disposed opposite to the material port 102, the material inlet and outlet channel 500 includes a material inlet channel 501 and a material outlet channel 502, referring to fig. 3, a feeding direction (an arrow at the material inlet channel in fig. 4) of the material inlet channel 501 is a tangential direction of the material window.

In order to further understand the cleaning principle of the material in this embodiment, so as to fully understand the innovation of this embodiment, the structure of the rotary bin will be described in detail with reference to the accompanying drawings:

as shown in fig. 4, the rotary bin 100 is provided with a cleaning cavity 101 for accommodating materials, and is also provided with a material inlet 102 for feeding and discharging the materials in the cleaning cavity 101, the material inlet 102 is arranged on the rotary bin 100, the material inlet 102 is communicated with the cleaning cavity 101, the rotary bin 100 is further provided with a filter sieve 103 for screening the materials and dirt in the cleaning cavity, and the cleaning cavity 101 is provided with a turning vane 104 for controlling the turning direction of the materials in the cleaning cavity 101 when the rotary bin 100 rotates.

When the rotary bin rotates in the second rotating direction, the turning blade can control the material to be discharged from the material port, and when the rotary bin rotates in the first rotating direction, the turning blade can control the material to be far away from the material port 102 and enable the material to be continuously turned in the cleaning cavity. Hereinafter, the first and second rotational directions are opposite, such as: when the forward rotation is the first rotation direction, the second rotation direction is the reverse rotation, and when the clockwise rotation is the first rotation direction, the second rotation direction is the counterclockwise rotation.

The high-efficient material conveyor of this embodiment is used for dry-cleaning, the in-process of dry-cleaning, the material in the washing chamber is under the rotation of rotatory storehouse, rub mutually between material and the material, realize the polishing and the polishing on material surface, can get rid of material surface harmful substance, the filter sieve can wash the chamber with impurity discharge such as dust dirt, guarantee to wash the cleaning performance of material in the chamber, when getting rid of material surface harmful substance, can make the surface quality of material improve, compared with the prior art, the damage to the material that significantly reduces, and very big nutrient composition that has kept material itself, avoid the possibility that water-soluble material flows away along with the water, thereby good washing purpose has also been reached.

As shown in fig. 5, in the present embodiment, the rotary bin is cylindrical, and has a cylindrical side wall 107 and a top 105 and a bottom 106 at two axial ends, and it should be understood by those skilled in the art that the top 105 and the bottom 106 in the present embodiment are not understood as top and bottom along the gravity direction, and the axis of the high-efficiency material conveying device in the present embodiment is horizontally or obliquely placed during operation, so that the bottom and the top are only in the axial direction of the rotary bin, and are top and bottom at two sides along the axial direction. In some variations of this embodiment, the shape of the rotary bin may not be limited to the embodiments disclosed in this embodiment and shown in the drawings, but may also be a cone shape, or other shapes.

As shown in fig. 4, the material port 102 is opened at the top of the cleaning cavity 101, i.e. the front end of the rotary bin, and is circular, and the shape of the material port may not be limited to the technical solutions disclosed in the present embodiment and shown in the drawings, such as polygonal, oval, etc.; the material port can be externally connected with a feeding device or a quantifying device and is used for feeding materials in the cleaning cavity.

As shown in fig. 5, the filter screen 103 is used for screening dirt, which in this embodiment may be dust, debris, or residue of material; the filter sieve 103 can be directly formed on the rotary bin or independently arranged on the rotary bin, the filter sieve is directly formed on the rotary bin, the side wall of the rotary bin can be provided with filter holes 108, the filter sieve 103 is formed by the filter holes 108, at the moment, the filter sieve and the rotary bin are integrally formed, and the filter sieve and the rotary bin are not required to be fixed through threaded fasteners such as bolts, screws and the like, so that the structural integrity is good; the filter sieve of setting alone on rotatory storehouse, its filtration pore setting is on filtering the sieve, and accessible welding, riveting or the mode of detachable connection are fixed to be set up on rotatory storehouse, make things convenient for the change, the maintenance and the washing of filter sieve, guarantee high-efficient material conveyor's health and life. In this embodiment, an integrally formed filter screen is adopted, and in some alternative embodiments of this embodiment, the filter screen may be provided in other separate forms. The form of the filtering holes can be grid type, mesh type and grid type, so as to realize different separation effects.

As shown in fig. 4, the turning vane 104 is disposed in the cleaning chamber 101, as shown in fig. 5, the turning vane 104 is fixed on the inner side wall of the rotating bin 100, and extends obliquely from the bottom side of the cleaning chamber 101 to the material port 102 side along the axial direction, i.e., the material port side is the top side of the cleaning chamber, i.e., the vane main body and the axial line of the rotating bin are disposed at a certain included angle, which may be a fixed included angle or a variable included angle, in this embodiment, the included angle of the turning vane is a fixed value, the included angle with the axial line is 50 °, the included angle of other embodiments may be 45 °, 60 °, and the like, as long as the cleaning included angle between the turning vane and the axial line of the rotating bin is kept larger than 0 and smaller than 90 °.

Adopt the upset blade that the slope extends to cause the restriction to the length and the width in rotatory storehouse, suppose the length of blade is L, the contained angle of blade and axis is α, then the length in rotatory storehouse is about L/cos α, the width is about L/sin α, in order to overcome above-mentioned shortcoming, in some flexible embodiments of this embodiment, the upset blade also can be along axis direction from the bottom side spiral extension of cleaning chamber to material mouth one side, also the upset blade is helical blade, helical blade can make the axis length in rotatory storehouse longer, can accomodate more materials, improve cleaning efficiency.

As shown in fig. 5, since the turning vane is disposed obliquely or spirally, when the rotary bin rotates, the material in the cleaning cavity will be blocked by the turning vane, so as to force the material to roll toward the oblique side of the turning vane, specifically, when the rotary bin rotates in the first rotation direction, the a surface of the turning vane facing the bottom side of the cleaning cavity will function to control the material to be away from the material opening 102, when the material is initially stopped on the cylindrical inner side wall 107 of the cleaning cavity under the action of gravity, as the rotary bin 100 rotates in the first rotation direction, the front end of the turning vane 104 close to the top side of the cleaning cavity (the material opening 102 side) will first contact with the material, so that the material stopped on the inner side wall 107 of the rotary bin is turned over to the a surface, the material on the a surface will turn toward the bottom side of the cleaning cavity 101, away from the material opening 102, and then fall back to the cylindrical inner side wall 107 under the action of gravity, when the rotary bin 100 continuously rotates in the first rotating direction, the materials are continuously turned over in the cleaning cavity until a satisfactory cleaning effect is achieved, the materials rub against each other, and are ground and polished mutually in the cleaning process, and generated dust, scraps and residues of the materials are discharged from the filtering holes of the filtering screen. After reaching satisfied cleaning performance, can change the direction of rotation in rotatory storehouse, arrange the material, when rotatory storehouse 100 is rotatory in the second direction of rotation, upset blade 104 will play the effect of control material from material mouth 102 discharge towards the B face that washs the chamber top side, just when beginning, the material also stops on the columniform inside wall 107 that washs the chamber under the effect of gravity, rotatory storehouse is rotatory downwards at the second direction of rotation along with rotatory, the tail end that the upset blade is close to the washing chamber bottom side contacts with the material earlier, make the material that stops in rotatory storehouse inside wall overturn to the B face on, the material on the B face will roll towards material mouth one side along the upset blade, be close to material mouth 102, and then make the material reach material mouth department along the B face and discharge. When the materials are still left in the cleaning cavity, the cleaning cavity can continue to rotate until the materials in the cleaning cavity are completely discharged.

In this embodiment, the turning blade is at the rotatory in-process of first direction of rotation, will force the material to wash the chamber bottom side and roll, in order to avoid the accumulational in bottom of abluent in-process material, influence the cleaning performance, therefore, be close to the tail end 1044 of washing the chamber bottom side to the turning blade, be equipped with first clearance 109 between tail end 1044 and washing chamber bottom 106, the first clearance 109 that sets up makes tail end 1044 not link to each other with the bottom 106 of washing chamber, make the material that reaches the bottom side can return to the top side 105 of washing chamber through this first clearance 109, therefore, avoided in first direction of rotation in-process, the accumulation of material, guaranteed the cleaning performance.

In this embodiment, the rotary bin is in the rotatory in-process of second direction of rotation, in order to make the material can discharge smoothly from the material mouth, avoids wasing the residue of the material in the chamber, consequently, is close to the turning blade the fixed top 105 that sets up in wasing the chamber of front end 1043 of material mouth, material mouth 102 is seted up in the top 105 of wasing the chamber, and front end 1043 in the projection 110 of top 105 is located on the material mouth 102. Therefore, after the material reaches the material port 102 side, the material is smoothly discharged from the material port along with the guiding action of the surface B. More specifically, the projection 110 of the front end of the turning vane is located at the tangent of the circular edge of the material port, but in some alternative embodiments of the present embodiment, the projection of the front end of the turning vane may not be limited to the situation disclosed in the present embodiment and shown in the drawings, and may be located at other projection positions as long as the projection is located inside the material port.

The top 105 of the cleaning chamber is opened with a material port 102, the ratio of the aperture of the material port to the ring width of the top of the cleaning chamber is 2-0.25, in this embodiment, the diameter of the material port is 30, the ring width of the top is 20, and therefore, the ratio is 1.5. Those skilled in the art will recognize that the present invention is not limited to the embodiments disclosed and shown in the drawings, and that other embodiments are possible.

In this embodiment, the turning blade 104 includes a first blade 1041 and a second blade 1042, the first blade 1041 and the second blade 1042 are disposed crosswise, and form a first exchanging area 1045 between the crossing point and the material opening 102, and form a second exchanging area 1046 between the crossing point and the bottom side 106 of the cleaning chamber.

In the process of material upset in wasing the chamber, set up two criss-cross upset blades and can improve the cleaning performance, from last can know, as shown in fig. 6, upset blade front end (preceding fixed edge 112) is fixed with washing chamber top, the tail end has first clearance with washing chamber bottom, upset blade side fixed edge 111 is fixed with the inside wall in rotary bin, another side of upset blade is free edge 113, can know from the figure, the limit of fixing with the inside wall is curved, when setting up a slice upset blade in wasing the chamber, the another side of upset blade can be curved, also can be the straight flange, in order can be better set up two washing blades in wasing the chamber, therefore, in this embodiment, set up the free flange into the straight flange.

In the cleaning process of materials, two arranged turning blades simultaneously rotate with the rotating bin, in the rotating process in the first rotating direction, the surface A of the turning blades facing the bottom side of the cleaning cavity plays a role in controlling the materials to be far away from a material opening, when the materials are just started, the materials stay on the cylindrical inner side wall of the cleaning cavity under the action of gravity, the rotating bin rotates downwards in the first rotating direction, the front end of the fixed edge of the first blade, which is close to the top side (the side of the material opening) of the cleaning cavity, contacts with the materials firstly, so that the materials staying on the inner side wall of the rotating bin are turned over to the surface A of the first blade through the fixed edge, the materials on the surface A roll towards the bottom side of the cleaning cavity, the materials are far away from the material opening, and then fall back to the cylindrical inner side wall under the action of gravity, in the falling process, a part of the materials fall down over the free edge, and a part of the materials slide on the surface, that some material of whereabouts will get into the A face of second blade, and then can keep away from the material mouth and upset burnishing and polishing under the effect of second blade, the existence in second exchange area can guarantee that the material can continue to keep away from the material mouth, continuously exchanges in the second exchange area through the material simultaneously, can make the material and material between the friction, the effect aggravation of polishing, the washing to the stubborn stain on material surface has more obvious effect.

When the rotary bin rotates in the second rotating direction, the B surface of the overturning blade facing the top side of the cleaning cavity plays a role in controlling materials to be discharged from the material port, when the rotary bin starts to rotate, the materials also stop on the cylindrical inner side wall of the cleaning cavity under the action of gravity, along with the downward rotation of the rotary bin in the second rotating direction, the tail end of the fixed edge of the first blade, which is close to the bottom side of the cleaning cavity, is firstly contacted with the materials, so that the materials stopping on the inner side wall of the rotary bin are overturned to the B surface of the first blade through the fixed edge, the materials on the B surface roll along the first blade towards one side of the material port and are close to the material port, and further the materials reach the material port along the B surface to be discharged, in the discharging process, a part of the materials which do not reach the material port fall from the free edge of the first blade, but when the second blade is arranged, the materials falling from the free edge of the first blade fall on the B surface of the second, continue to roll towards material mouth one side under the effect of second blade until reaching the material, the first exchange area of setting has avoided falling back the risk to the rotatory storehouse inside wall on the material that will reach material mouth one side on the first blade, can improve row's material efficiency.

As shown in fig. 5, the width of the first exchanging area 1045 along the axis is smaller than the width of the second exchanging area 1046 along the axis, so that when the rotary bin rotates in the first rotating direction, the fallen-back materials can enter the second exchanging area 1046 as much as possible and are far away from the material opening, thereby realizing continuous cleaning of the materials; meanwhile, when the rotary bin rotates in the second rotating direction, the possibility that a part of materials which are about to reach the material port and fall back from the free edge fall on the inner side wall of the rotary bin can be avoided as much as possible, and complete material discharge can be guaranteed.

In some variations of this embodiment, the main body of the turning vane may have a curvature that extends from the bottom to the top, i.e., such as an arc-shaped a-plane or B-plane; set up certain camber, can improve the upset efficiency of upset blade for the material can be smooth the upset to A face or B face on.

This embodiment is because the washing chamber is equipped with the upset blade of steerable material upset direction, and when rotatory storehouse was rotatory at first direction of rotation, the material was kept away from the material mouth and is made it last the upset in washing the chamber, steerable material was discharged from the material mouth when rotatory storehouse was rotatory at second direction of rotation, consequently, high-efficient material conveyor at this embodiment, can realize the possibility of same material mouth business turn over material, compare prior art, business turn over material through same material mouth, make this embodiment need not to set up one by the washing passageway of feed inlet to discharge gate, the remaining problem of material of the in-process material of feed inlet toward discharge gate long distance transport in the high-efficient material conveyor of current has been avoided completely.

The material of this embodiment will discharge material mouth when second direction of rotation is rotatory under the effect of upset blade, consequently also can not remain in wasing the chamber, has guaranteed high-efficient material conveyor's clean health.

Referring to fig. 1 and 2, the rotary bin 100 is disposed in a housing 200 and can rotate in the housing, as shown in fig. 2, the rotary bin 100 is driven by a driving device 300 to rotate, for convenience of installation and fixation, the rotary bin 100 of the present embodiment includes a driving plate 116 for connecting the driving device 300 and a rotary main body 115, the driving plate 116 is fixedly disposed at the bottom of the rotary main body 115, and after the driving plate and the rotary main body are fixed, a cleaning cavity 101 is formed inside the rotary bin; the drive shaft of the drive device is connected to the drive plate 116, and the drive device may be a servo motor.

As shown in fig. 2, the housing 200 includes a bracket 202 for fixing the driving device 300 and a dust storage main body 201, the bracket 202 is fixedly disposed at the bottom of the dust storage main body 201, after the bracket and the dust storage main body are fixed, a dust storage cavity is formed inside the bracket, a driving shaft of the driving device can pass through the bracket by direct driving of the driving device, so as to realize connection of the driving plate, and the driving device main body is fixed at the outer side of the bracket.

As shown in figure 2, the shell is used for collecting the dirt separated by the filter screen in a centralized manner, the dirt is convenient to discharge, the shell also plays a role in supporting the rotary bin, and the shell is provided with a sewage outlet 203. As shown in fig. 3, correspondingly, the front end of the housing is also provided with a material window 205, the shape of the material window 205 is adapted to the shape of the material, the material window is circular in this embodiment, the shape of the material window is not limited to the technical solution disclosed in this embodiment and shown in the drawings, and the material window may be polygonal, elliptical, or the like; the material window 205 is communicating the dust storage cavity, because the rotary bin needs to rotate, therefore, the front end of the rotary bin 100 and the front end of the shell 200 will be provided with a gap to avoid the mutual interference of the rotary bin and the shell, the gap provided will not be beneficial to the material entering from the material window to smoothly arrive at the material port of the rotary bin, if the material falls into the gap, the material will directly enter into the shell, in order to smoothly send the material to the rotary bin, the material is prevented from falling into the shell from the gap.

In this embodiment, as shown in fig. 2, a material inlet and outlet channel 500 is further disposed at the material window 205 and used for loading and unloading of the efficient material conveying device, and the material inlet and outlet channel 500 is disposed on the material window 205, more specifically, as shown in fig. 3, the material inlet and outlet channel includes a material inlet channel 501 and a material outlet channel 502, and a material inlet direction of the material inlet channel 501 (an arrow at the material inlet channel in fig. 4) is a tangential direction of the material window 205.

In this embodiment, for improving the conveying efficiency and the conveying effect of the material, the feeding direction of the feeding channel is the tangential direction of the material window, therefore, when the material enters from the feeding channel, the material will rotate along the tangential direction of the material opening (as shown by an arrow in fig. 3), and then spirally cut into the rotating bin, compared with the mode of feeding along the axial direction of the material window, the feeding along the tangential direction is adopted, which can effectively prevent the problems of accumulation and incomplete conveying of the material during the conveying between the material window and the material opening, therefore, the remaining of the remainder can be avoided as much as possible, so that the whole conveying channel is cleaner and more sanitary, and the mildew can be avoided, thereby the material conveying effect of the invention is good, and the conveying efficiency is high. Meanwhile, the material is spirally cut into the rotating bin, so that friction is generated between the material and between the material and the shell, and impurities such as dust, harmful substances and the like on the surface of the material are stripped from the surface of the material, so that the cleanliness of the material is improved, and the cleaning effect is improved.

In this embodiment, the main portion of the feed channel extends downward, but in some embodiments, the feed channel may face in other directions, keeping the feed direction tangential.

The feeding and discharging channel 500 further comprises a feeding and discharging joint 503, the feeding and discharging joint 503 is detachably connected with the material window 205, and the feeding channel 501 and the discharging channel 502 are respectively connected with the feeding and discharging joint 503; the feeding and discharging connector is arranged, and the feeding and discharging connector realizes the function of detachably connecting the feeding and discharging channel to the material window so as to clean the feeding and discharging channel; in some embodiments, the feeding and discharging channel can be integrally formed with the shell, so that the cost is saved.

In order to enable the material to rotate tangentially in the feeding and discharging channel and to cut into the material window smoothly and spirally, the feeding and discharging joint 503 comprises an arc-shaped inner wall 506, an inner wall 507 at one side of the feeding channel 501 is tangent to the arc-shaped inner wall 506, and when the material reaches the feeding and discharging joint along the feeding channel, the material will rotate tangentially in time under the action of the arc-shaped inner wall to cut into the rotary bin spirally. The arc inner wall can be arc surface shape or other arc shape.

The feed channel 501 forms a feed inlet 504 at an inner arcuate wall 506 and the discharge channel 502 forms a discharge outlet 505 at the inner arcuate wall 506. In order to ensure that the material discharged from the material window can smoothly enter the discharge channel from the discharge port and be discharged along with the main body part of the discharge channel, the material is prevented from falling into the feed channel in the discharging process, and the height of the feed port 504 is higher than that of the discharge port 505. The discharged material will not reach the feed opening, thereby avoiding that the discharged material falls into the feed channel.

In this embodiment, because the main part of feedstock channel extends the setting to the downside, consequently still need set up air exhaust device, from the above-mentioned content to rotatory storehouse, the casing has made detailed description, it can be seen that the supply and the emission of the material of this embodiment are all gone on through a window, on this basis, if air exhaust device during inoperative or when not setting up air exhaust device, the casing is inside can not form the negative pressure, can not produce the air current in material mouth or material window, at this moment, when needs material loading, rotatory storehouse should keep first direction of rotation, and when needs the unloading, rotatory storehouse should switch to the second direction of rotation, just can discharge the material in the rotatory storehouse.

The feeding and discharging mode enables the feeding and discharging to be carried out only through gravity, so that materials in the storage bin lower than the material window or the material port cannot be conveyed into the rotary bin; in order to solve the problem and improve the feeding efficiency, the air extractor is arranged at the sewage discharge port of the shell, so that the gravity can be overcome to convey materials;

specifically, the method comprises the following steps:

in this embodiment, as shown in fig. 2, under the action of the air exhaust device 400, the material inlet/outlet channel 500 will be in a negative pressure state, and the material inlet/outlet device sucks the material into the high-efficiency material conveying device through the generated negative pressure. When the air exhaust device stops working, the feeding and discharging device is in a non-negative pressure state, and the high-efficiency material conveying device can discharge materials outwards in the non-negative pressure state.

More specifically, as shown in fig. 3, the feeding and discharging channel includes a feeding channel 501 and a discharging channel 502, a main portion of the feeding channel extends downward, a main portion of the discharging channel extends downward, the material under negative pressure is fed into the material window 205 through the feeding channel 501 by means of negative pressure, and the material discharged from the material window 205 under non-negative pressure is discharged along the discharging channel 502 by means of gravity.

The main part of charge-in passage extends to the downside and sets up, the material relies on the negative pressure to follow charge-in passage past the material window feeding, the main part of charge-in passage that can make like this also can not produce the not thorough problem of material transport, because, extend the setting to the downside with the main part, make the material need overcome the effect of gravity and just can reach the material window, when negative pressure state relieved, the material of retention in the charge-in passage main part will fall back to storage component under the effect of gravity, therefore can not form in charge-in passage main part and remain, make charge-in passage's main part can keep clean health, thereby good transport effect and conveying efficiency have been guaranteed.

In addition, discharging channel's ejection of compact direction is the tangential direction of material window (like the arrow point that fig. 3 discharging channel shows), consequently under air exhaust device's work, outside air can get into along discharging channel under the negative pressure to be tangential direction and inhale the material window, the air current that tangential direction cut into will form the heliciform vortex, the material that gets into from the feedstock channel tangential, under the effect of heliciform vortex, will be more difficult for stopping between material window and material mouth, and get into in the rotatory storehouse more easily, the conveying efficiency of material has been improved. Meanwhile, the formed spiral vortex can impact the material, further increase friction and improve the cleaning effect.

As shown in fig. 3, in order to prevent the material cut from the feeding channel from falling into the discharging channel when passing through the discharging channel, the discharging channel and the feeding channel are tangent to the arc-shaped inner wall along the same rotation direction, and when the material passes through the discharging hole in the arc-shaped inner wall, the rotation direction of the material deviates from the discharging direction of the discharging channel, so that the material which keeps rotating in the feeding and discharging joint can be prevented from falling into the discharging channel.

The feeding and discharging channel of this embodiment can overcome gravity to feed materials into the high-efficiency material conveying device, and meanwhile, in cooperation with the feature that the rotary bin described in embodiment 1 can feed and discharge materials through the same material port, the possibility that the feeding channel and the discharging channel are integrally arranged is realized, and when the material port discharges materials, the materials fall under the action of gravity, so that, as shown in fig. 3, the discharging channel 502 should be arranged downwards or obliquely downwards, the discharging channel arranged downwards or obliquely downwards can be connected with the feeding channel, the feeding channel 501 can be arranged in any direction because the materials are added by using negative pressure, and the feeding channel 501 does not need to be arranged upwards to enable the materials to enter the rotary bin by using gravity, the feeding channel 501 and the discharging channel 502 can be communicated with each other, no partition plate is needed to be arranged between the feeding channel 501 and the discharging channel 502, and when feeding, the feeding channel 501 and the discharging channel 502 are inevitably communicated with the material window 205, therefore, when air exhaust device during operation, all be in negative pressure state in discharging channel 501 and the feedstock channel 502, external air will flow along discharging channel and feedstock channel, and the inhaled material from feedstock channel can not fall into discharging channel when discharging channel this moment, because discharging channel has the air current by outside material window, has prevented the whereabouts of material, so the material can only enter into in the material window.

According to the embodiment, the turning vanes can control the material to be discharged from the material port when the rotary bin rotates in the second rotation direction, and can control the material to be far away from the material port and to be continuously turned in the cleaning cavity when the rotary bin rotates in the first rotation direction. Because the air extractor is arranged, when the air extractor works, the shell and the rotating bin have pressure difference with the outside, and therefore outside air is continuously poured into the shell and the rotating bin from the material port, even if the rotating bin rotates in the second rotating direction, the poured air flow can prevent materials from being discharged from the material port and the material window.

The rotary bin in the embodiment can discharge materials only by switching the rotating direction, when the rotary bin rotates at a high speed, the moving inertia under reverse rotation needs to be overcome, the moving inertia is overcome, the time is consumed in a high-speed state, and meanwhile, the motor is also adversely affected.

More specifically, as shown in fig. 2, the air extracting device includes an air pump 401, a filter 403, and a dust box 402. The air pump 401 is fitted into the filter mesh 403, and both are fixed in the dust box 402.

While the invention has been described with reference to specific embodiments thereof, it will be understood by those skilled in the art that the invention is not limited thereto, and may be embodied in many different forms without departing from the spirit and scope of the invention as set forth in the following claims. Any modification which does not depart from the functional and structural principles of the present invention is intended to be included within the scope of the claims.

Claims (10)

1. The utility model provides a high-efficient material conveyor, includes casing, rotatory storehouse and business turn over material passageway, rotatory storehouse sets up in the casing, rotatory storehouse is equipped with the material mouth, the casing is equipped with the material window, the material window with the material mouth sets up relatively, business turn over material passageway includes feedstock channel and discharging channel, its characterized in that, feedstock channel's direction of feed does the tangential direction of material window.

2. A high efficiency material transfer device as claimed in claim 1, further comprising an air extractor, wherein said housing is provided with a drain outlet, said air extractor is connected to said drain outlet, a main portion of said feed channel extends downward, and material is fed along said feed channel to said material window by negative pressure under negative pressure.

3. A high efficiency material handling device as claimed in claim 1, further comprising an air extractor, wherein said housing has a waste outlet, said air extractor is connected to said waste outlet, and the discharge direction of said discharge channel is tangential to said window.

4. A high efficiency material transfer device as claimed in claim 1, further comprising an air extractor, wherein said housing is provided with a drain outlet, said air extractor is connected to said drain outlet, said main portion of said material discharge channel extends downward, and the material discharged from said material window under non-negative pressure is discharged along said material discharge channel by gravity.

5. The efficient material conveying device as claimed in any one of claims 1 to 4, wherein the feeding and discharging channel comprises a feeding and discharging joint, the feeding and discharging joint is detachably connected with the material window, and the feeding channel and the discharging channel are respectively connected with the feeding and discharging joint.

6. A high efficiency material transfer device as claimed in claim 5, wherein said feed and discharge connection includes an arcuate inner wall, and wherein an inner wall of one side of said feed passage is tangential to said arcuate inner wall.

7. A high efficiency material transfer device as defined in claim 6, wherein one side of said discharge passage is substantially tangential to said arcuate wall.

8. A high efficiency material transfer device as defined in claim 7, wherein said exit chute and said entrance chute are tangential to said arcuate inner wall in the same rotational direction.

9. The efficient material transporting apparatus as claimed in claim 6, 7 or 8, wherein said feed passage forms a feed opening at said inner arcuate wall, and said discharge passage forms a discharge opening at said inner arcuate wall.

10. A high efficiency material transfer device as defined in claim 9, wherein said inlet opening is higher than said outlet opening.

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