阅读说明：本技术 一种储料罐 (Storage tank ) 是由 李佰西 杨基炜 王殿涛 郭微微 廖永祥 吴大成 丁聪 李文适 于 2020-06-29 设计创作，主要内容包括：本申请公开了一种储料罐,储料罐包括罐体、网片和振动器。罐体限定出收容腔,罐体具有出料口,出料口配置成使位于收容腔中的粉料自出料口排出。网片位于出料口处,网片配置成限制粉料的排出速度。振动器位于罐体的壁面,振动器配置成可带动罐体振动。本申请的储料罐保证了粉料的匀速排出,同时,相较于以搅拌粉料的形式促进粉料的排出,带动罐体振动的方式实现了使贴附于罐体的内壁面的粉料与罐体的内壁分离,然后排出至罐体的外部。(The application discloses storage tank, storage tank include a jar body, net piece and vibrator. The jar body is injectd and is acceptd the chamber, and the jar body has the discharge gate, and the discharge gate configuration becomes to make and is located the powder of acceping in the chamber and discharges from the discharge gate. The mesh is positioned at the discharge port and is configured to limit the discharge speed of the powder. The vibrator is arranged on the wall surface of the tank body and can drive the tank body to vibrate. The utility model provides a storage tank has guaranteed discharging at the uniform velocity of powder, simultaneously, compare in promoting the discharge of powder with the form of stirring the powder, drives jar internal vibration's mode and has realized making the powder of attached internal face in jar body and the inner wall separation of jar body, then discharges to the outside of jar body.)

1. A storage tank, comprising:

the jar body is injectd and is acceptd the chamber, the jar body has the discharge gate, the discharge gate configures into to make and is located powder in acceping the chamber is from the discharge gate is discharged:

a mesh positioned at the discharge port, the mesh configured to limit a discharge rate of the powder;

the vibrator is positioned on the wall surface of the tank body and is configured to drive the tank body to vibrate.

2. The storage tank of claim 1,

the vibrator is located the diapire face of jar body.

3. The storage tank of claim 1,

the bottom wall surface of the tank body is a conical surface which gradually shrinks from top to bottom, and the vibrator is positioned on the upper side of the conical surface.

4. The storage tank of claim 1,

the vibrator is located on the outer wall surface of the tank body.

5. The storage tank of claim 4, comprising:

the vibrator is bound on the outer wall surface of the tank body.

6. The storage tank of claim 1,

the vibrator includes a plurality of first vibrators, each of which is arranged around an axis of the tank.

7. The storage tank of claim 6,

the vibrator further comprises a plurality of second vibrators, each second vibrator is located above the first vibrator, and each second vibrator is arranged around the axis of the tank body.

8. The storage tank of claim 7,

each second vibrator is respectively arranged opposite to the middle position of two adjacent first vibrators in the vertical direction.

9. The storage tank of claim 7,

the second vibrator and the first vibrator operate independently of each other.

10. The storage tank of claim 1, further comprising:

the flow sensor is positioned at the discharge port and used for detecting the flow of the powder;

the vibrator is provided with a control module, and the flow sensor is connected with the control module, so that the control module controls the vibration amplitude of the vibrator according to the detection information of the flow sensor.

Technical Field

The application relates to building engineering construction field especially relates to a storage tank.

Background

The construction is carried out on site, when the ordinary cement tank is used for discharging materials, firstly, the manual discharge valve at the bottom of the cone needs to be opened, and then, the materials can be automatically discharged through the discharge hole only by means of the gravity of the cement. In-process at the blowing, the cement speed of unloading is very fast at first, but when cement pressure is too big the hole jam or appear "arching" phenomenon, the card pause will appear in the cement is unloaded, speed reduces and stops the ejection of compact even, at this moment if there is not the subsidiary broken arch device of stirring station professional cement jar to blow and produce powerful impact force and guarantee that the cement supply is smooth and easy, can only rely on artifical mediation discharge opening, lead to cement ejection of compact speed shock absorber, uncontrollable, the loss takes place, be difficult to the even speed ground of fine control cement and carry out the ejection of compact, when cement is about to reach the proper use scale that the water cement ratio required, can't in time close the discharge valve and make the cement volume easily not reach the requirement or spill over the charging device and cause the waste. The operation of manually dredging and repeatedly controlling the discharge valve to ensure the proper amount of cement is very complicated, complicated and uncontrollable, the construction is inconvenient and easy to cause loss, the strength and the mechanical property of subsequent cement paste, mortar and concrete material preparation are influenced, and the loss degree is difficult to estimate.

The cement jar ejection of compact to charging devices often causes the not satisfied requirement of water cement ratio of cement material because of the process of unable accurate control cement ejection of compact, and the reason has two points: firstly, the discharge port is blocked due to large cement pressure, and needs manual dredging and discharging, so that the cement discharge speed is suddenly changed, and the discharge amount cannot be controlled; and secondly, the discharging valve is closed in advance to cause the shortage of cement materials, or the valve is closed late to cause the cement materials to exceed the requirement and even overflow the device. The water-cement ratio determines the strength, durability and other series of physical and mechanical properties of building materials such as cement paste, mortar, concrete and the like. Therefore, the cement has a proper water-cement ratio, and the performance such as strength is affected when the water-cement ratio is too high or too low.

Content of application

The application provides a storage tank can realize discharging at the uniform velocity of powder.

In a first aspect, embodiments of the present application provide a storage tank, which includes a tank body, a mesh, and a vibrator. The jar body is injectd and is acceptd the chamber, and the jar body has the discharge gate, and the discharge gate configuration becomes to make and is located the powder of acceping in the chamber and discharges from the discharge gate. The mesh is positioned at the discharge port and is configured to limit the discharge speed of the powder. The vibrator is arranged on the wall surface of the tank body and can drive the tank body to vibrate.

In some of these embodiments, the vibrator is located on the bottom wall surface of the can.

In some embodiments, the bottom wall surface of the tank body is a tapered surface gradually shrinking from top to bottom, and the vibrator is positioned on the upper side of the tapered surface.

In some of these embodiments, the vibrator is located on the outer wall of the tank.

In some of these embodiments, the vibrator is strapped to the outer wall of the tank.

In some of these embodiments, the vibrator includes a plurality of first vibrators, each of which is arranged around the axis of the tank.

In some of these embodiments, the vibrator further comprises a plurality of second vibrators, each second vibrator being located above the first vibrator, each second vibrator being arranged around the axis of the tank.

In some embodiments, each second vibrator is vertically opposite to the middle position of two adjacent first vibrators.

In some of these embodiments, the second vibrator operates independently of the first vibrator.

In some embodiments, the vibrator further comprises a flow sensor, the flow sensor is located at the discharge port, and the flow sensor is used for detecting the flow of the powder. The vibrator is provided with a control module, and the flow sensor is connected with the control module, so that the control module controls the vibration amplitude of the vibrator according to the detection information of the flow sensor.

According to an embodiment of the application, a storage tank comprises a tank body, a mesh and a vibrator. The jar body is injectd and is acceptd the chamber, and the jar body has the discharge gate, and the discharge gate configuration becomes to make and is located the powder of acceping in the chamber and discharges from the discharge gate. The mesh is positioned at the discharge port and is configured to limit the discharge speed of the powder. The vibrator is arranged on the wall surface of the tank body and can drive the tank body to vibrate. The utility model provides a storage tank has guaranteed discharging at the uniform velocity of powder, simultaneously, compare in promoting the discharge of powder with the form of stirring the powder, drives jar internal vibration's mode and has realized making the powder of attached internal face in jar body and the inner wall separation of jar body, then discharges to the outside of jar body.

Drawings

In order to more clearly illustrate the embodiments of the present application or the technical solutions in the prior art, the drawings used in the description of the embodiments or the prior art will be briefly described below, it is obvious that 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 efforts.

FIG. 1 is a schematic structural view of a storage tank according to a first embodiment of the present disclosure;

FIG. 2 is a schematic structural view of a storage tank according to a second embodiment of the present application;

FIG. 3 is a schematic structural view of a mesh in an embodiment of the present application;

fig. 4 is a schematic structural diagram of a steel wire rope in an embodiment of the present application.

Detailed Description

In order to make the objects, technical solutions and advantages of the present application more apparent, the present application is described in further detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely illustrative of the present application and are not intended to limit the present application.

Embodiments of the present application provide a storage tank 10. The material storage tank 10 includes a tank body 100, a mesh 200, and a vibrator 300. The tank 100 is used to contain powder. The powder material may be cement. The mesh 200 serves to limit the discharge rate of the powder. The vibrator 300 is used to drive the tank 100 to vibrate. The storage tank 10 of this application has guaranteed discharging at the uniform velocity of powder, simultaneously, compare in promoting the discharge of powder with the form of stirring the powder, drives the mode of jar body 100 vibration and has realized making the powder that attaches in jar internal face of body 100 and jar internal wall separation of body 100, then discharges to the outside of jar body 100.

The top wall surface of the can 100 may be a flat surface. The sidewall surface of the can body 100 may be a cylindrical surface having an axis extending vertically. The bottom wall 110 of the can 100 may be a tapered surface gradually tapered from top to bottom. The junction of the side wall surface and the bottom wall surface 110 may be in a curved transition to reduce powder residue there. The can 100 defines a receiving chamber. The tank 100 has a discharge port for discharging powder located in the housing chamber from the discharge port. The discharge port may be formed in the bottom wall 110 of the container 100 to facilitate the discharge of the powder. Optionally, the spout is located at the lowermost portion of the tank 100.

Mesh 200 has mesh openings. The specification of the mesh is selected according to the actual situation, and the application is not limited in contrast. The mesh 200 is located at the discharge port to achieve a limit to the discharge rate of the powder. The mesh sheet 200 may cover the entire spout or a part of the spout. The mesh 200 may be mounted inside the tank 100 to reduce the footprint of the storage tank 10. The mesh 200 may also be installed outside the can 100 to facilitate installation of the mesh 200. Mesh 200 may be circular. The mesh 200 may have an outer diameter equal to the inner diameter of the discharge port. Mesh 200 may be made of iron. Mesh 200 may be welded at the discharge port.

The vibrator 300 is located on a wall surface of the can 100 so that the vibrator 300 vibrates to drive the can 100 to vibrate. The vibrator 300 may be located on the bottom wall surface 110 of the can body 100 to reduce the distance between the vibrator 300 and the discharge port, so that the vibration at the discharge port is more severe to facilitate the discharge of the powder. The vibrator 300 may be an electric flexible shaft eccentric insertion type concrete vibrator 300, which has an advantage of light weight and can be firmly fixed to the wall surface of the tank 100. The vibrating rod and the motor of the vibrator 300 are fixed to the wall surface of the can body 100 in a manner to be opposed to each other in the radial direction of the can body 100.

The bottom wall 110 of the can 100 may be a tapered surface gradually shrinking from top to bottom, and the vibrator 300 may be located at an upper side of the tapered surface, and at this time, the vibrator 300 is adjacent to a connection between the bottom wall 110 and the side wall to further reduce the powder residue therein.

The vibrator 300 may be located on an inner wall surface of the tank 100 to reduce the occupied space of the storage tank 10. The vibrator 300 may be positioned on an outer wall surface of the can 100 to facilitate the installation of the vibrator 300.

The vibrator 300 can be bound on the outer wall surface of the tank body 100, so that the influence of punching or welding on the storage tank 10 on the tightness of the storage tank 10 is avoided, the operation is simple, the tightness degree can be manually adjusted, and the control is easy. When the vibrator 300 is an electric flexible shaft eccentric insertion type concrete vibrator 300, the vibrator rod of the vibrator 300 may be bound to the outer wall surface of the tank body 100 in an inclined manner, may be bound to the outer wall surface of the tank body 100 in a vertical manner, or may be bound to the outer wall surface of the tank body 100 in a horizontal manner.

To achieve the binding, a steel wire rope 400 with high strength, light dead weight, and good flexibility may be used. Alternatively, a stainless steel wire rope 400 of slightly larger diameter and higher tensile strength is used with double twist and multiple strands. The binding mode can adopt the following scheme: the steel wire rope 400 is provided with a clamp, the vibrator 300 is bound for three to four turns, and finally the steel wire rope 400 is clamped by the clamp.

To increase the vibration amplitude of the can 100, the vibrator 300 may include a plurality of first vibrators 300. Each first vibrator 300 may be arranged around the axis of the can 100. The vibrating rods of the first vibrators 300 may be bound to the outer wall surface of the tank 100 in the same manner, for example, the vibrating rods of the first vibrators 300 may be bound to the outer wall surface of the tank 100 in an inclined manner.

To further increase the vibration amplitude of the can 100, the vibrator 300 may further include a plurality of second vibrators 300. Each of the second vibrators 300 may be located above the first vibrator 300. Each of the second vibrators 300 may be arranged around the axis of the can 100. The second vibrators 300 may be bound to the outer wall surface of the tank 100 in the same manner, or may be bound to the outer wall surface of the tank 100 in different manners, for example, the second vibrators 300 may be bound to the outer wall surface of the tank 100 in a horizontal manner.

Each second vibrator 300 may be disposed opposite to the middle position of two adjacent first vibrators 300 in the vertical direction, respectively, so as to improve the vibration effect.

The second vibrator 300 and the first vibrator 300 may be operated independently of each other such that the vibration amplitude of the second vibrator 300 is different from the vibration amplitude of the first vibrator 300. Alternatively, the vibration amplitude of the second vibrator 300 is smaller than that of the first vibrator 300.

The vibrator 300 further includes a flow sensor located at the discharge port, the flow sensor being configured to detect the flow of the powder. The vibrator 300 is provided with a control module, and the flow sensor is connected with the control module, so that the control module controls the vibration amplitude of the vibrator 300 according to the detection information of the flow sensor, the discharging process of the whole storage tank 10 is in fine control, and the proper amount and good quality of powder are ensured. When the vibrator 300 includes a first vibrator 300 and a second vibrator 300, the first vibrator 300 has a first control module, the second vibrator 300 has a second control module, and the flow sensor is connected to the first control module and the second control module, respectively.

Through adopting the storage tank 10 of this application, when beginning to carry out cement and unload, at first open the valve of unloading, because there is the "hindrance" of net piece 200 this moment, the initial speed of cement is unloaded and is reduced, at this moment opens vibrator 300 switch again, will be because the dead weight piles up the cement vibration dispersion in drill way department, make it normally discharge to the charging device 20 of constant volume through net piece 200 at the uniform velocity. In the whole discharging process, the mesh sheet 200 controls the flow rate of cement passing through and the vibrator 300 continuously vibrates to keep the cement discharged uninterruptedly, so that the cement discharging is always in fine control, when the cement is about to reach the upper limit of the device capacity, the valve can be gradually closed to enable the cement to just reach the specified capacity, the water cement ratio is ensured, and no loss is caused. The cement discharging device has the advantages that the problems that the using amount of cement discharging in the process is not easy to control, the operation is complex, the repeated adjustment is needed and the like are solved, the improvement principle is simple, the operation is simple and convenient, the loss caused in the cement discharging process is reduced, the cost is low, the cement discharging device can be widely popularized and applied, the invalid working time caused by repeated control of the cement discharging amount is greatly reduced, and the working efficiency is improved.

To sum up, the storage tank 10 of this application has following beneficial effect:

1. the principle is simple, the manufacture is rapid, and the effect is obvious.

2. The problem of hole blockage of the cement tank is fundamentally solved.

3. The powder discharging device is suitable for discharging various powder materials, and has strong applicability and high popularization degree.

4. The investment is economic, and the brought benefits are obvious.

5. The labor is greatly reduced, the ineffective construction time caused by repeated valve adjustment is shortened, the construction period is shortened, and the work efficiency is improved.

The same or similar reference numerals in the drawings of the present embodiment correspond to the same or similar components; in the description of the present application, it is to be understood that if there is an orientation or positional relationship indicated by the terms "upper", "lower", "left", "right", etc. based on the orientation or positional relationship shown in the drawings, it is only for convenience of description and simplification of description, but it is not intended to indicate or imply that the referred device or element must have a specific orientation, be constructed in a specific orientation, and be operated, and therefore, the terms describing the positional relationship in the drawings are only for illustrative purposes and are not to be construed as limitations of the present patent, and specific meanings of the above terms may be understood by those skilled in the art according to specific situations.

The above description is only exemplary of the present application and should not be taken as limiting the present application, as any modification, equivalent replacement, or improvement made within the spirit and principle of the present application should be included in the protection scope of the present application.