A dewaterable vibrating feeder

Abstract

The utility model discloses a can drip water vibration feeder, solve the problem of the water division of electric furnace increase electricity consumption when the water adhered to the silica transportation after washing. The feeder includes the filter structure, the water collecting mechanism and the drainage structure of the arrangement in the vibration feeder hopper bottom, and the filter structure contains filter screen and rib, and the water collecting mechanism is the drainage square tube of the top slot, and the drainage structure is connected through the square round adapter joint hose, and the square tube is equipped with the inclined plate, and the vibration feeder hopper inner bottom is also equipped with the flow baffle round steel and the rib plate. The device intercepts silica through filter screen, prolongs the drip time through the flow baffle round steel, improves the drip efficiency, and the structure is simple, the floor area is small, the investment is low, the filter screen is convenient to disassemble, is convenient for the maintenance of unblocking, is applicable to the drip conveying of silica in the industrial silicon raw material processing procedure.

Description

Technical Field

[0001] This utility model relates to the field of vibrating feeder technology, and in particular to a water-draining vibrating feeder. Background Technology

[0002] In the industrial silicon raw material processing, silica needs to be cleaned. After cleaning, the silica becomes wet and, when conveyed to the discharge cone, the water accumulates and easily flows into the electric furnace, affecting quality and increasing power consumption. To solve these problems, this patented utility model equipment was designed. The equipment has a smaller footprint, lower investment, and is easy to maintain and clean. Summary of the Invention

[0003] The technical problem to be solved by this invention is that the water inside silica that has been cleaned and then exposed to water is easily drawn into the electric furnace during transportation, increasing power consumption.

[0004] To solve the above-mentioned technical problems, the technical solution adopted by this utility model is: a water-draining vibrating feeder, including a filter structure arranged at the bottom of the vibrating feeder hopper, a water collection mechanism connected to the bottom of the filter structure, and a drainage structure connected to the end of the water collection mechanism. The water collection mechanism and the drainage structure are connected by an adapter, and the tail end of the drainage structure is connected to a flexible hose.

[0005] Preferably, the filtration structure includes a filter screen fixedly arranged at the bottom of the vibrating feeder hopper, with ribs fixedly connected to both the top and bottom of the filter screen, and the ribs connected to the side wall of the vibrating feeder hopper.

[0006] Preferably, the water collection mechanism is a drainage square pipe fixedly connected to the bottom of the water collection mechanism, with a groove at the top of the drainage square pipe, and the filter screen located inside the groove.

[0007] Preferably, the drainage structure includes a square-to-round adapter connected to the end of the hose, the hose and the round end of the square-to-round adapter are fixedly connected by a pipe clamp, and the square end of the square-to-round adapter is welded to the end of the drainage square pipe.

[0008] Preferably, an inclined plate is connected inside the square tube, with the bottom end of the inclined plate facing the drainage structure.

[0009] Preferably, a flow-blocking round steel bar is also fixedly connected to the bottom of the vibrating feeder hopper. The flow-blocking round steel bar is located downstream of the filter screen, and the top of the flow-blocking round steel bar is located above the bottom of the filter screen.

[0010] Preferably, a reinforcing rib is connected between the bottom of the flow-blocking round steel and the inner bottom of the vibrating feeder hopper, and the reinforcing rib is equidistantly arranged along the axis of the flow-blocking round steel.

[0011] This utility model provides a water-draining vibrating feeder, which has the following beneficial effects.

[0012] 1. The filter screen in the filter structure can intercept silica, allowing water to flow through the filter screen. The flow-blocking round steel is located downstream of the filter screen, which can prevent silica from flowing too fast, prolonging the drainage time and improving the drainage efficiency.

[0013] 2. The filter screen of the filtration structure is fixed to the bottom of the vibrating feeder hopper by ribs. The water collection mechanism is a drainage square pipe with a groove at the bottom, which is welded to the square-to-round adapter of the drainage structure. The overall structure is simple and has no complicated parts. Attached Figure Description

[0014] The present invention will be further described below with reference to the accompanying drawings and embodiments:

[0015] Figure 1 This is a front view of an embodiment of the present utility model.

[0016] Figure 2 This is a side view of an embodiment of the present utility model.

[0017] Figure 3 for Figure 2 A magnified view of region A in the middle.

[0018] In the diagram: 1. Vibrating feeder hopper; 2. Filter screen; 3. Flow-blocking round steel; 4. Drainage square pipe; 5. Square to round adapter; 6. Hose; 7. Pipe clamp. Detailed Implementation

[0019] like Figure 1-3 As shown, this utility model provides a drainable vibratory feeder, including a filter structure arranged at the bottom of the vibratory feeder hopper 1, a water collection mechanism connected to the bottom of the filter structure, and a drainage structure connected to the end of the water collection mechanism. The water collection mechanism and the drainage structure are connected by an adapter, and the tail end of the drainage structure is connected to a flexible hose 6.

[0020] After being washed with water, the silica is conveyed into the storage cone hopper. It is moist and has a bar valve at the bottom. The bar valve is connected to the vibrating feeder hopper 1. The water collects and flows into the vibrating feeder hopper 1. After being separated by the filter screen 2 at the bottom, the water flows into the drain square pipe 4 and is discharged through the square-to-round adapter 5 and the hose 6. When the vibrating feeder is running, the silica is output along the vibrating feeder mechanism 1, and there is no large amount of silica leaking out of the filter screen 2.

[0021] like Figure 1-3 As shown. The filtration structure includes a filter screen 2 fixedly arranged at the bottom of the vibrating feeder hopper 1. Ribs are fixedly connected to the top and bottom of the filter screen 2, and the ribs are connected to the side wall of the vibrating feeder hopper 1. A slot is provided at the bottom of the vibrating feeder hopper 1, and the filter screen 2 is welded into the slot. When water flows along the inner bottom wall of the vibrating feeder hopper 1, it flows out through the filter screen 2, thereby filtering water from the silica.

[0022] like Figure 2 As shown. The water collection mechanism is a drainage square pipe 4 fixedly connected to the bottom of the water collection mechanism. The top of the drainage square pipe 4 is slotted, and the filter screen 2 is located inside the slot. The top of the drainage square pipe 4 has a hollow structure and is welded to the bottom wall of the vibrating feeder hopper 1. The filter screen 2 is located inside the hollow structure, and the water flowing out from the filter screen 2 directly enters the drainage square pipe 4 and is discharged through the drainage square pipe 4.

[0023] like Figure 1-3 As shown. The drainage structure includes a square-to-round adapter 5 connected to the end of the flexible hose 6. The flexible hose 6 and the round end of the square-to-round adapter 5 are fixedly connected by a pipe clamp 7. The square end of the square-to-round adapter 5 is welded to the end of the drainage square pipe 4. The round end of the square-to-round adapter 5 is directly larger than the diameter of the square end, and the square end has a pyramidal structure, which allows water discharged from the drainage square pipe 4 to flow back into the flexible hose 6 and be discharged out through the flexible hose 6. The flexible hose 6 is sleeved on the round end and fixed by the pipe clamp 7. The square-to-round adapter 5 and the flexible hose 6 adopt a flexible connection to avoid fixing the vibrating feeder with a rigid pipe, which would affect the amplitude and vibration frequency and reduce the conveying capacity.

[0024] like Figure 2 and Figure 3 As shown. An inclined plate is connected inside the square tube 4, with the bottom end of the inclined plate facing the drainage structure. The inclined plate is used to reverse the flow of water entering the square tube 4 to the end near the drainage structure, so that the filtered water can flow out quickly.

[0025] like Figure 3 As shown. A flow-blocking round steel bar 3 is also fixedly connected to the bottom of the vibrating feeder hopper 1. The flow-blocking round steel bar 3 is located downstream of the filter screen 2, and its top is located above the bottom of the filter screen 2. The filter screen 2 is placed close to the flow-blocking round steel bar 3 below, which can buffer a portion of the flow when the water flow inside the vibrating feeder hopper 1 is large or the filter screen 2 becomes clogged.

[0026] like Figure 1 As shown, to prevent moving silica from impacting the flow-blocking round steel 3 and causing separation between the flow-blocking round steel 3 and the vibrating feeder hopper 1, thus losing its flow-blocking function, a reinforcing plate is connected between the bottom of the flow-blocking round steel 3 and the inner bottom of the vibrating feeder hopper 1. The reinforcing plate is equidistantly arranged along the axis of the flow-blocking round steel 3.

Claims

1. A drainable vibrating feeder, characterized in that: It includes a filter structure arranged at the bottom of the vibrating feeder bucket (1), a water collection mechanism connected to the bottom of the filter structure, and a drainage structure connected to the end of the water collection mechanism. The water collection mechanism and the drainage structure are connected by an adapter, and the tail end of the drainage structure is connected to a hose (6).

2. The drainable vibrating feeder as described in claim 1, characterized in that: The filter structure includes a filter screen (2) fixedly arranged at the bottom of the vibrating feeder bucket (1). The top and bottom of the filter screen (2) are fixedly connected with ribs, which are connected to the side wall of the vibrating feeder bucket (1).

3. The drainable vibrating feeder as described in claim 2, characterized in that: The water collection mechanism is a drainage square pipe (4) fixedly connected to the bottom of the water collection mechanism. The top of the drainage square pipe (4) is slotted, and the filter screen (2) is located inside the slot.

4. The drainable vibrating feeder as described in claim 3, characterized in that: The drainage structure includes a square-to-round adapter (5) connected to the end of the hose (6). The hose (6) and the round end of the square-to-round adapter (5) are fixedly connected by a pipe clamp (7). The square end of the square-to-round adapter (5) is welded to the end of the drainage square pipe (4).

5. The drainable vibrating feeder as described in claim 3, characterized in that: An inclined plate is connected inside the square tube (4), with the bottom end of the inclined plate facing the drainage structure.

6. The drainable vibrating feeder as described in claim 2, characterized in that: The bottom of the vibrating feeder bucket (1) is also fixedly connected with a flow-blocking round steel (3), which is located downstream of the filter screen (2), and the top of the flow-blocking round steel (3) is located above the bottom of the filter screen (2).

7. The drainable vibrating feeder as described in claim 6, characterized in that: A reinforcing plate is connected between the bottom of the flow-blocking round steel (3) and the inner bottom of the vibrating feeder bucket (1), and the reinforcing plate is equidistantly arranged along the axis of the flow-blocking round steel (3).

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