Graphite impurity removal device

Abstract

The utility model provides a graphite impurity removal device, which belongs to the technical field of graphite impurity removal, and comprises a fixing mechanism and a fixing shell, the top of the fixing shell is fixedly connected with a shielding mechanism through a bolt, the two sides of the fixing shell are fixedly connected with a storage mechanism, the fixing mechanism comprises the fixing shell, and the fixing shell is fixedly connected with the shielding mechanism through a bolt. The bottom of the fixing shell is fixedly connected with a supporting rod, the bottom of the supporting rod is fixedly connected with a fixing flange, the bottom of the fixing shell is fixedly connected with a shielding shell, and the interior of the shielding shell is fixedly connected with a first motor. The storage shell, the conveying pump, the input pipe and the feeding head are additionally arranged through the connecting shell, suction force is generated on the input pipe and the feeding head after the conveying pump is powered on, at the moment, the feeding head and the input pipe convey graphite dust impurities into the storage shell through the conveying pump, and at the moment, the storage shell provides a unified containing space for the graphite impurities; and subsequent graphite impurities can be taken conveniently.

Description

TECHNICAL FIELD

[0001] The utility model belongs to graphite impurity removal technical field especially, relate to a graphite impurity removal device. BACKGROUND

[0002] Graphite is a kind of modern commonly used mineral raw material, commonly used as anti-friction agent and lubricating material, makes crucible, electrode, dry battery and pencil lead, simultaneously can be used for high purity graphite can be used as neutron moderator on nuclear reactor, and before the existing graphite is used, the impurities such as iron powder and soil block in graphite ore are often screened, at this time, graphite impurity removal device is needed, and the existing graphite impurity removal device lacks impurity storage mechanism, and the fine impurities generated in the process of graphite treatment can be stored according to the use needs, to further affect the use experience of graphite impurity removal device. UTILITY MODEL CONTENTS

[0003] In order to realize the above-mentioned purpose, the utility model adopts the following technical scheme:

[0004] A kind of graphite impurity removal device, including fixed mechanism and fixed shell, the top of the fixed shell is connected with shielding mechanism by bolt fixing, the two sides of the fixed shell are all fixedly connected with receiving mechanism, the fixed mechanism includes fixed shell, the bottom of the fixed shell is fixedly connected with support rod, and support rod is provided with four, the bottom of the support rod is fixedly connected with fixed flange, the bottom of the fixed shell is fixedly connected with shielding shell, and shielding shell is located at the inside of support rod, the inside of the shielding shell is fixedly connected with first motor, and the output of first motor extends to the inside of fixed shell, the output of first motor is fixedly connected with receiving shell, and receiving shell is embedded with the inside of fixed shell, the inside of receiving shell is embeddedly connected with filter screen;

[0005] The shielding mechanism includes shielding cover, the shielding cover is bolted to the top of the fixed shell, the top of the shielding cover is fixedly connected with second motor, the output of the second motor is fixedly connected with transmission rod, the tail end of the transmission rod is fixedly connected with brush head, the top of the shielding cover is connected with electric telescopic rod, electric telescopic rod is located at the outside of second motor, and electric telescopic rod is provided with four, the tail end of electric telescopic rod is fixedly connected with electromagnet, the top of the shielding cover is connected with feed hopper, and feed hopper is located at the back of second motor, the top of the feed hopper is threadedly connected with sealing cover.

[0006] Preferably, the top of the shielding cover is connected with air exchange shell, and the air exchange shell is located in front of the second motor.

[0007] Preferably, the storage mechanism comprises a connecting shell fixedly connected to the outer surface of the fixed shell, and two connecting shells are provided, and the inner side of the connecting shell is embeddedly connected with the storage shell.

[0008] Preferably, the outer surface of the storage shell is fixedly connected with a handle, and two handles are provided.

[0009] Preferably, the top of the connecting shell is fixedly connected with a delivery pump, and the input end of the delivery pump extends to the inner side of the connecting shell.

[0010] Preferably, the output end of the delivery pump is fixedly connected with an input pipe, and the tail end of the input pipe extends to the inside of the fixed shell, and the tail end of the input pipe is fixedly connected with a feeding head.

[0011] Compared with the prior art, the graphite impurity removal device has the following advantages:

[0012] The graphite impurity removal device adds a storage shell, a delivery pump, an input pipe and a feeding head, and the delivery pump generates suction force on the input pipe and the feeding head after being powered on, at this time, the feeding head and the input pipe transport graphite dust and impurities to the inside of the storage shell through the delivery pump, and at this time, the storage shell provides a unified storage space for graphite impurities, so that the graphite impurities can be taken later. BRIEF DESCRIPTION OF DRAWINGS

[0013] Figure 1 A structure diagram of the graphite impurity removal device is provided for the graphite impurity removal device.

[0014] Figure 2 A back structure diagram of the graphite impurity removal device is provided for the graphite impurity removal device.

[0015] Figure 3 A structure diagram of the shielding cover is provided for the graphite impurity removal device.

[0016] Figure 4 A structure diagram of the fixed shell is provided for the graphite impurity removal device.

[0017] Figure 5 A structure diagram of the connecting shell is provided for the graphite impurity removal device.

[0018] In the figure: 1, fixed mechanism; 101, fixed shell; 102, support rod; 103, fixed flange; 104, shielding shell; 105, first motor; 106, storage shell; 107, filter screen; 2, shielding mechanism; 201, shielding cover; 202, second motor; 203, transmission rod; 204, brush head; 205, electric telescopic rod; 206, electromagnet; 207, feeding hopper; 208, sealing cover; 209, air exchange shell; 3, storage mechanism; 301, connecting shell; 302, storage shell; 303, handle; 304, conveying pump; 305, input pipe; 306, feeding head. DETAILED DESCRIPTION

[0019] The technical solutions in the utility model are further described below in combination with the drawings and examples.

[0020] Reference Figure 1 , Figure 2 , Figure 3 and Figure 4The application relates to a graphite impurity removing device which comprises a fixing mechanism 1 and a fixing shell 101, the top of the fixing shell 101 is fixedly connected with a shielding mechanism 2 through bolts, and the two sides of the fixing shell 101 are fixedly connected with receiving mechanisms 3; the fixing mechanism 1 comprises the fixing shell 101, a supporting rod 102, a fixing flange 103, a shielding shell 104, a first motor 105, a receiving shell 106 and a filter screen 107, and the graphite is provided with an impurity removing space; the fixing shell 101 provides fixing points for the outer surface and the connected supporting rod 102, shielding shell 104, receiving shell 106, shielding cover 201 and connecting shell 301; the bottom of the fixing shell 101 is fixedly connected with the supporting rod 102, and the supporting rod 102 is provided with four supporting rods 102; the supporting rod 102 is fixedly connected to the bottom of the fixing shell 101 and provides fixing points for the fixedly connected fixing flange 103 at the bottom; the bottom of the supporting rod 102 is fixedly connected with the fixing flange 103, the fixing flange 103 is fixedly connected to the bottom of the supporting rod 102, when the device needs to be fixed as a whole, external bolts can be inserted into the inside of the fixing flange 103 and the external fixing plane, and the fixing of the device as a whole is completed; the bottom of the fixing shell 101 is fixedly connected with the shielding shell 104, and the shielding shell 104 is located on the inside of the supporting rod 102; the shielding shell 104 is fixedly connected to the bottom of the fixing shell 101 and provides fixing points for the fixedly connected first motor 105 inside; the inside of the shielding shell 104 is fixedly connected with the first motor 105, and the output end of the first motor 105 extends to the inside of the fixing shell 101; the first motor 105 is fixedly connected to the inside of the shielding shell 104, when the graphite needs to be impurity removed, electric energy can be transmitted to the inside of the first motor 105 through an external control component, at this moment, the first motor 105 transmits rotating force to the inside of the receiving shell 106 through electromagnetic effect; the output end of the first motor 105 is fixedly connected with the receiving shell 106, and the receiving shell 106 is embedded with the inside of the fixing shell 101; the receiving shell 106 rotates under the drive of the first motor 105 and drives the graphite inside to rotate, drives small particle impurities in the graphite to fall into the inside of the receiving shell 106 through the filter screen 107, the inside of the receiving shell 106 is embeddedly connected with the filter screen 107, the filter screen 107 is embeddedly connected to the inside of the receiving shell 106, and the filter screen 107 intercepts larger graphite blocks and prevents the larger graphite blocks from falling into the inside of the receiving shell 106; the shielding mechanism 2 comprises a shielding cover 201, a second motor 202, a transmission rod 203, a brush head 204, an electric telescopic rod 205, an electromagnet 206, a feeding hopper 207, a sealing cover 208 and an air exchange shell 209, the shielding mechanism 2 shields the top of the fixing shell 101 and assists the fixing mechanism 1 in removing impurities in the graphite pieces, the shielding cover 201 is bolted to the top of the fixing shell 101, and the shielding cover 201 is fixedly connected to the top of the fixing shell 101 through bolts.The second motor 202, the electric telescopic rod 205, the feed hopper 207 and the air exchange shell 209 fixedly connected to the top of the cover 201 provide fixing points. The second motor 202 is fixedly connected to the top of the cover 201, and a transmission rod 203 fixedly connected to the output end of the second motor 202 provides a fixing point. When electric energy is transmitted to the inside of the second motor 202 through an external control component, the second motor 202 transmits rotating force to the inside of the transmission rod 203 through electromagnetic effect. The output end of the second motor 202 is fixedly connected with the transmission rod 203. When the rotating force is transmitted to the inside of the transmission rod 203 through the second motor 202, the transmission rod 203 rotates under the drive of the second motor 202, and the brush head 204 fixedly connected to the tail end of the transmission rod 203 rotates. The tail end of the transmission rod 203 is fixedly connected with the brush head 204. The brush head 204 rotates under the drive of the transmission rod 203 to generate friction on the graphite block and drive the splashes of debris and impurities on the surface of the graphite block. The electric telescopic rod 205 is connected through the top of the cover 201. The electric telescopic rod 205 is located outside the second motor 202, and the electric telescopic rod 205 is provided with four. When it is necessary to absorb iron ore in the graphite debris, electric energy can be transmitted to the inside of the electric telescopic rod 205 through an external control component. At this time, the electric telescopic rod 205 drives the electromagnet 206 fixedly connected to the tail end thereof to move downward. The tail end of the electric telescopic rod 205 is fixedly connected with the electromagnet 206. The electromagnet 206 moves downward under the drive of the electric telescopic rod 205 to generate suction on the splashed graphite metal debris, thereby further removing impurities from the graphite block. The feed hopper 207 is connected through the top of the cover 201, and the feed hopper 207 is located behind the second motor 202. The feed hopper 207 is connected through the top of the cover 201. The sealing cover 208 threadedly connected to the top of the feed hopper 207 provides a connection point. When the graphite block enters the inside of the feed hopper 207, the feed hopper 207 guides the graphite block into the inside of the receiving shell 106. The top of the feed hopper 207 is threadedly connected with the sealing cover 208. The sealing cover 208 is threadedly connected to the top of the feed hopper 207 to provide shielding on the top of the feed hopper 207 to prevent impurity powder inside the fixed shell 101 from splashing into the external environment. The air exchange shell 209 is connected through the top of the cover 201, and the air exchange shell 209 is located in front of the second motor 202. The air exchange shell 209 is connected through the top of the cover 201 to balance the air pressure inside the fixed shell 101 through the dust screen.

[0021] Referring to Figure 1 , Figure 2 and Figure 5The storage mechanism 3 includes a connecting shell 301, a storage shell 302, a handle 303, a conveying pump 304, an input pipe 305, and a feed head 306. It generates suction to collect and hold splashed fine impurity particles. The connecting shell 301 is fixedly connected to the outer surface of the fixed shell 101, and two connecting shells 301 are provided. The connecting shell 301 provides a connection point for the storage shell 302, which is fitted inside the fixed shell 101. A fixed point is provided for the delivery pump 304, which is fixedly connected to its outer surface and inner side. A storage shell 302 is fitted into the inner side of the connecting shell 301. The storage shell 302 is fitted into the inner side of the connecting shell 301, and a fixed point is provided for the handle 303, which is fixedly connected to its outer surface. At the same time, it provides a storage space for impurities injected into it. A handle 303 is fixedly connected to the outer surface of the storage shell 302, and two handles 303 are provided. The handles 303 are fixedly connected to the outer surface of the storage shell 302, allowing the user to drive the storage shell by external force. The movement of 302 provides a point of leverage. A delivery pump 304 is fixedly connected to the top of the connecting shell 301, and the input end of the delivery pump 304 extends to the inside of the connecting shell 301. The delivery pump 304 is fixedly connected to the top of the connecting shell 301, providing a fixing point for the input pipe 305 fixedly connected to its output end. When it is necessary to extract splashed graphite impurities, electrical energy can be delivered to the inside of the delivery pump 304 via an external control component. At this time, the delivery pump 304 generates suction force on the inside of the input pipe 305 and delivers the graphite impurities. The graphite impurities are sent to the inside of the storage shell 302. The output end of the conveying pump 304 is fixedly connected to the input pipe 305, and the tail end of the input pipe 305 extends into the inside of the fixed shell 101. When the graphite impurities enter the inside of the input pipe 305, the input pipe 305 guides the graphite impurities to the inside of the conveying pump 304. The tail end of the input pipe 305 is fixedly connected to the feed head 306, which is connected through to the tail end of the input pipe 305. Under the suction of the input pipe 305, the graphite impurities are transported to the inside of the input pipe 305.

[0022] The functional principle of this utility model can be explained through the following operation: First, insert the external bolts into the inside of the fixing flange 103 and the external fixing plane to complete the overall fixation of the device. Then, inject the graphite blocks into the inside of the feed hopper 207. At this time, the feed hopper 207 guides the graphite blocks to the inside of the receiving shell 106. Then, re-fix the sealing cover 208 to the top of the feed hopper 207. Then, through the external control component, the electrical energy is transmitted to the inside of the first motor 105 and the second motor 202. At this time, the first motor 105 transmits the rotational power to the inside of the receiving shell 106 through the electromagnetic effect. At this time, the receiving shell 106 rotates, causing the graphite blocks to rotate, and causing impurities in the graphite blocks to pass through. The filter screen 107 enters the inside of the storage shell 106. At the same time, the second motor 202 transmits rotational power to the inside of the transmission rod 203 through electromagnetic effect. At this time, the transmission rod 203 drives the brush head 204 to rotate. Simultaneously, the brush head 204 cleans the dust on the surface of the graphite block, causing impurities and dust to splash. At the same time, through an external control component, electrical energy can be transmitted to the inside of the electric telescopic rod 205 and the electromagnet 206 to generate attraction to the iron filings. At the same time, electrical energy is transmitted to the inside of the delivery pump 304. At this time, the delivery pump 304 generates attraction through the input pipe 305 and the feed head 306. Simultaneously, the feed head 306 transports the graphite impurities through the input pipe 305 to the inside of the storage shell 302 to complete the removal of impurities from the graphite.

[0023] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of this utility model and are not intended to limit it. Although this utility model has been described in detail with reference to preferred embodiments, those skilled in the art should understand that modifications or equivalent substitutions can be made to the technical solutions of this utility model without departing from the spirit and scope of the technical solutions of this utility model, and all such modifications or substitutions should be covered within the scope of the claims of this utility model.

Claims

1. A graphite impurity removal device, comprising a fixing mechanism (1) and a fixing shell (101), the top of the fixing shell (101) is fixedly connected with a shielding mechanism (2) through a bolt, and both sides of the fixing shell (101) are fixedly connected with receiving mechanisms (3), characterized in that, The fixed mechanism (1) contains a fixed shell (101), the bottom of the fixed shell (101) is fixedly connected with a support rod (102), and the support rod (102) is provided with four, the bottom of the support rod (102) is fixedly connected with a fixed flange (103), the bottom of the fixed shell (101) is fixedly connected with a shielding shell (104), and the shielding shell (104) is located on the inner side of the support rod (102), the inside of the shielding shell (104) is fixedly connected with a first motor (105), and the output end of the first motor (105) extends to the inside of the fixed shell (101), the output end of the first motor (105) is fixedly connected with a receiving shell (106), and the receiving shell (106) is embedded with the inside of the fixed shell (101), the inside of the receiving shell (106) is embeddedly connected with a filter screen (107); The shielding mechanism (2) contains a shielding cover (201), the shielding cover (201) is bolted to the top of the fixed shell (101), the top of the shielding cover (201) is fixedly connected with a second motor (202), the output end of the second motor (202) is fixedly connected with a transmission rod (203), the tail end of the transmission rod (203) is fixedly connected with a brush head (204), the top of the shielding cover (201) is connected with an electric telescopic rod (205), the electric telescopic rod (205) is located on the outside of the second motor (202), and the electric telescopic rod (205) is provided with four, the tail end of the electric telescopic rod (205) is fixedly connected with an electromagnet (206), the top of the shielding cover (201) is connected with a feeding hopper (207), and the feeding hopper (207) is located behind the second motor (202), the top of the feeding hopper (207) is threadedly connected with a sealing cover (208).

2. The graphite impurity removal device according to claim 1, characterized in that, The top of the shielding cover (201) is connected with an air exchange shell (209), and the air exchange shell (209) is located in front of the second motor (202).

3. The graphite impurity removal device of claim 1, wherein, The receiving mechanism (3) contains a connecting shell (301), the connecting shell (301) is fixedly connected to the outer surface of the fixed shell (101), and the connecting shell (301) is provided with two, the inner side of the connecting shell (301) is embeddedly connected with a storage shell (302).

4. The graphite impurity removal device according to claim 3, characterized by The outer surface of the storage shell (302) is fixedly connected with a handle (303), and the handle (303) is provided with two.

5. The graphite impurity removal device of claim 3, wherein The top of the connecting shell (301) is fixedly connected with a delivery pump (304), and the input end of the delivery pump (304) extends to the inside of the connecting shell (301).

6. The graphite impurity removal device of claim 5, wherein, The output end of the delivery pump (304) is fixedly connected with an input pipe (305), and the tail end of the input pipe (305) extends to the inside of the fixed shell (101), the tail end of the input pipe (305) is fixedly connected with a feeding head (306).

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