A feeding device for titanium sponge after crushing and screening

Abstract

A blanking device after titanium sponge crushing and screening. The upper part of the middle section of the qualified material drainage pipe is connected to one end of the small particle drainage pipe, and the other end of the small particle drainage pipe is connected to a conical cylinder. After one end of the qualified material drainage pipe extends into the internal part of the three-chamber box body, a semi-elliptical sealing plate is provided at its end. An inclined material shuttling plate A is provided on the semi-elliptical sealing plate. An inclined material shuttling plate D is provided on the inclined material shuttling plate A. A material shuttling bottom plate is provided at the bottom of the inclined material shuttling plate D. A triangular support sealing plate is provided on the material shuttling bottom plate. The top end of the drainage pipe A is cut into a semi-circular pipe, and this part of the semi-circular pipe extends into the three-chamber box body. The top end of the drainage pipe B is cut into a semi-circular pipe, and this part of the semi-circular pipe extends into the three-chamber box body. The material shuttling bottom plate is connected to the top of the triangular support sealing plate. The material shuttling bottom plate is respectively connected to the vertical plates A, F and the inclined material shuttling plate D provided on the three-chamber box body to form a blanking chute. The triangular support sealing plate is connected to the vertical plate A provided on the three-chamber box body. Inclined material shuttling plates B and C are provided on the drainage pipe A.

Description

Technical Field

[0001] The present invention relates to a production device for titanium sponge, and particularly to a feeding device after crushing and screening of titanium sponge. Background Art

[0002] The production process of titanium sponge products in the whole process mainly includes the chlorination process for preparing titanium tetrachloride, the process of reducing and distilling to prepare titanium sponge ingots, the process of electrolyzing magnesium chloride to prepare magnesium, and the process of crushing and packaging finished titanium sponge products. In the process of crushing and packaging finished titanium sponge products, it includes cutting, crushing, and packaging. Currently, the most commonly used particle sizes of titanium sponge products are standard particle size and small particle size (the range of small particle size is 3 - 12.7 mm, and the range of standard particle size is 0.83 - 25.4 mm). When titanium sponge is crushed, according to the specifications of the crusher, titanium sponge is crushed into titanium sponge products with different particle size specifications. After being filtered through a sieve (the sieve can simultaneously screen out products of two specifications: 3 - 12.7 mm and 0.83 - 25.4 mm), the products with qualified particle size enter the packaging line directly through the feeding device. However, the particle size of the crushed products cannot reach 100% of the qualified particle size products. Some products with particle size that fail to pass through the sieve need to be drained to the feeding device through a rotating pipe, and the products with unqualified particle size are diverted to the crusher for repeated crushing. Only after these products are crushed again and filtered through the sieve and reach the qualified particle size products can they enter the packaging line for production. Crushing standard particle size products requires a standard particle size crusher, and crushing small particle size products requires a small particle size crusher, which increases the equipment investment and leads to an increase in production cost. Summary of the Invention

[0003] The technical problem to be solved by the present invention is that when titanium sponge is crushed to produce products with different particle sizes, different specifications of crushers are required for crushing products with different particle sizes, resulting in an increase in production cost and the diversion of products with unqualified particle size.

[0004] To solve the above technical problem, the present invention adopts the following technical solutions:

[0005] A feeding device after crushing and screening of titanium sponge includes a qualified material drainage pipe, a small particle drainage pipe, a conical cylinder connection, a three - chamber box body, a semi - elliptical sealing plate, a drainage pipe A, an inclined material shuttling plate A, a drainage pipe B, an inclined material shuttling plate B, an inclined material shuttling plate C, an inclined material shuttling plate D, a material shuttling bottom plate, and a triangular support sealing plate;

[0006] The upper part in the middle of the qualified material drainage pipe is connected to one end of the small particle drainage pipe, and the other end of the small particle drainage pipe is connected to the conical cylinder;

[0007] The top of the qualified material drainage pipe is cut into a semi-circular pipe, and this part of the semi-circular pipe extends into the three-chamber box body. Its end is provided with a semi-elliptical sealing plate, on which an inclined material shuttle plate A is arranged. On the inclined material shuttle plate A, an inclined material shuttle plate D is arranged. At the bottom of the inclined material shuttle plate D, there is a material shuttle bottom plate, and on the material shuttle bottom plate, there is a triangular support sealing plate.

[0008] The top end of the drainage pipe A is cut into a semi-circular pipe, and this part of the semi-circular pipe extends into the three-chamber box body.

[0009] The top end of the drainage pipe B is cut into a semi-circular pipe, and this part of the semi-circular pipe extends into the three-chamber box body.

[0010] The material shuttle bottom plate is connected to the top of the triangular support sealing plate. The material shuttle bottom plate is respectively connected to the vertical plate A, vertical plate F and inclined material shuttle plate D arranged on the three-chamber box body to form a blanking chute.

[0011] The triangular support sealing plate is connected to the vertical plate A arranged on the three-chamber box body.

[0012] On the drainage pipe A, there are an inclined material shuttle plate B and an inclined material shuttle plate C.

[0013] The three-chamber box body includes a vertical plate A, a vertical plate B, a middle vertical plate, a vertical plate C, a vertical plate D, an intermediate partition, a vertical plate E, and a vertical plate F. Both ends of the vertical plate A are respectively connected to one end of the vertical plate B and the vertical plate F. The other end of the vertical plate B is connected to one end of the middle vertical plate. The middle part of the middle vertical plate is connected to the other end of the vertical plate F. The other end of the middle vertical plate is connected to one end of the vertical plate E. The other end of the vertical plate E is connected to one end of the vertical plate D. The middle part of the vertical plate D is connected to one end of the intermediate partition. The other end of the intermediate partition is connected to the middle part of the middle vertical plate. The other end of the vertical plate D is connected to one end of the vertical plate C. The other end of the vertical plate C is connected to the upper middle part of the middle vertical plate.

[0014] The beneficial effects of adopting the above technical solutions are as follows:

[0015] 1. When the present invention realizes the production of sponge titanium products with different particle sizes by crushing, the blanking device shunts the products with unqualified particle sizes to the crusher for repeated crushing.

[0016] 2. When the present invention realizes the production of sponge titanium products with standard particle sizes by crushing, under the action of the blanking device, a small-particle-size crusher can be used to crush the standard-particle-size products, reducing equipment investment and saving production costs. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 It is the front view of the present invention.

[0018] In the figure: 1 - qualified material drainage pipe, 2 - small particle drainage pipe, 3 - conical cylinder, 4 - three - chamber box body, 5 - semi - elliptical sealing plate, 6 - drainage pipe A, 7 - inclined - mounted shuttle plate A, 8 - drainage pipe B, 9 - inclined - mounted shuttle plate B, 10 - inclined - mounted shuttle plate C, 11 - inclined - mounted shuttle plate D, 12 - shuttle bottom plate, 13 - triangular support sealing plate.

[0019] Figure 2 This is the top view of the present invention.

[0020] Figure 3 This is the left view of the present invention.

[0021] Figure 4 This is the front view of the three - chamber box body.

[0022] In the figure: 4.1 - vertical plate A, 4.2 - vertical plate B, 4.3 - middle vertical plate, 4.4 - vertical plate C, 4.5 - vertical plate D, 4.6 - middle partition plate, 4.7 - vertical plate E, 4.8 - vertical plate F.

[0023] Figure 5 This is the top view of the three - chamber box body.

[0024] Figure 6 This is the left view of the three - chamber box body. Specific implementation mode

[0025] The present invention will be further described in detail below with reference to the accompanying drawings. However, it should not be understood that the scope of the subject matter of the present invention is limited to the following embodiments. Without departing from the above - mentioned technical idea of the present invention, all modifications, substitutions, and changes made according to ordinary technical knowledge and common means in the art are included in the scope of the present invention.

[0026] As Figure 1 、 Figure 2 or Figure 3 shown, a blanking device after titanium sponge crushing and screening includes a qualified material drainage pipe 1, a small particle drainage pipe 2, a conical cylinder 3, a three - chamber box body 4, a semi - elliptical sealing plate 5, a drainage pipe A 6, an inclined - mounted shuttle plate A 7, a drainage pipe B 8, an inclined - mounted shuttle plate B 9, an inclined - mounted shuttle plate C 10, an inclined - mounted shuttle plate D 11, a shuttle bottom plate 12, and a triangular support sealing plate 13;

[0027] The upper part of the middle section of the qualified material drainage pipe 1 is connected to one end of the small particle drainage pipe 2, and the other end of the small particle drainage pipe 2 is connected to the conical cylinder 3;

[0028] After one end of the qualified material drainage pipe 1 extends into the three-chamber box body 4, a semi-elliptical sealing plate 5 is provided at its end. An inclined material shuttle plate A7 is provided on the semi-elliptical sealing plate 5. An inclined material shuttle plate D11 is provided on the inclined material shuttle plate A7. A material shuttle bottom plate 12 is provided at the bottom of the inclined material shuttle plate D11. A triangular support sealing plate 13 is provided on the material shuttle bottom plate 12;

[0029] The top end of the drainage pipe A6 is cut into a semi-circular pipe, and this part of the semi-circular pipe extends into the three-chamber box body 4;

[0030] The top end of the drainage pipe B8 is cut into a semi-circular pipe, and this part of the semi-circular pipe extends into the three-chamber box body 4;

[0031] The material shuttle bottom plate 12 is connected to the top of the triangular support sealing plate 13. The material shuttle bottom plate 12 is respectively connected to the vertical plate A4.1, vertical plate F4.8 and the inclined material shuttle plate D11 provided on the three-chamber box body 4 to form a blanking chute;

[0032] The triangular support sealing plate 13 is connected to the vertical plate A4.1 provided on the three-chamber box body 4;

[0033] The inclined material shuttle plate B9 and the inclined material shuttle plate C10 are provided on the drainage pipe A6.

[0034] As Figure 5 shown: The three-chamber box body 4 includes a vertical plate A4.1, a vertical plate B4.2, a middle vertical plate 4.3, a vertical plate C4.4, a vertical plate D4.5, an intermediate partition 4.6, a vertical plate E4.7, a vertical plate F4.8. One end of the vertical plate A4.1 is respectively connected to one end of the vertical plate B4.2 and the vertical plate F4.8. The other end of the vertical plate B4.2 is connected to one end of the middle vertical plate 4.3. The middle part of the middle vertical plate 4.3 is connected to the other end of the vertical plate F4.8. The other end of the middle vertical plate 4.3 is connected to one end of the vertical plate E4.7. The other end of the vertical plate E4.7 is connected to one end of the vertical plate D4.5. The middle part of the vertical plate D4.5 is connected to one end of the intermediate partition 4.6. The other end of the intermediate partition 4.6 is connected to the middle part of the middle vertical plate 4.3. The other end of the vertical plate D4.5 is connected to one end of the vertical plate C4.4. The other end of the vertical plate C4.4 is connected to the upper middle part of the middle vertical plate.

[0035] When crushing small-sized titanium sponge products, the small-sized products with qualified particle sizes (3 - 12.7 mm) enter the conical cylinder 3 after being filtered by the sieve mesh, and enter the packaging line through the small-particle drainage pipe 2 and the qualified-material drainage pipe 1. The products with unqualified particle sizes (12.7 - 25.4 mm) enter through another rotating pipe and the drainage pipe A6, and are sent to the crusher through the drainage pipe B8 for re-crushing. When crushing standard-sized titanium sponge products, a part of the products (3 - 12.7 mm) after being filtered by the sieve mesh enter the conical cylinder 3 and enter the packaging line through the small-particle drainage pipe 2 and the qualified-material drainage pipe 1. Another part of the products (12.7 - 25.4 mm) are drained through the rotating pipe to one of the cavities in the three-chamber box body 4 at the top of the qualified-material drainage pipe 1, then enter the qualified-material drainage pipe 1, and enter the packaging together with the 3 - 12.7 mm products.

[0036] In the description, it should be understood that the orientation or positional relationship indicated by terms such as "top" and "bottom" is based on the orientation or positional relationship shown in the drawings, or the orientation or positional relationship in which the inventive product is usually placed during use, or the orientation or positional relationship commonly understood by those skilled in the art. It is only for the convenience of describing the present invention and simplifying the description, rather than indicating or implying that the indicated device or component must have a specific orientation, be constructed and operated in a specific orientation, and therefore should not be construed as a limitation to the present invention.

Claims

1. A feeding device for titanium sponge after crushing and screening, characterized in that: It includes a qualified material drain pipe (1), a small particle drain pipe (2), a conical cylinder (3), a three-chamber box body (4), a semi-elliptical sealing plate (5), a drain pipe A (6), an inclined mounting shuttle plate A (7), a drain pipe B (8), an inclined mounting shuttle plate B (9), an inclined mounting shuttle plate C (10), an inclined mounting shuttle plate D (11), a shuttle material bottom plate (12), and a triangular support sealing plate (13); The upper part of the middle section of the qualified material drain pipe (1) is connected to one end of the small particle drain pipe (2), and the other end of the small particle drain pipe (2) is connected to the conical cylinder (3); After one end of the qualified material drain pipe (1) extends into the interior of the three-chamber box body (4), a semi-elliptical sealing plate (5) is provided at its end. An inclined mounting shuttle plate A (7) is provided on the semi-elliptical sealing plate (5). An inclined mounting shuttle plate D (11) is provided on the inclined mounting shuttle plate A (7). The bottom of the inclined mounting shuttle plate D (11) is provided with a shuttle material bottom plate (12). A triangular support sealing plate (13) is provided on the shuttle material bottom plate (12); The top of the drain pipe A (6) is cut into a semi-circular pipe, and this part of the semi-circular pipe extends into the three-chamber box body (4); The top of the drain pipe B (8) is cut into a semi-circular pipe, and this part of the semi-circular pipe extends into the three-chamber box body (4); The shuttle material bottom plate (12) is connected to the top of the triangular support sealing plate (13). The shuttle material bottom plate (12) is respectively connected to the vertical plate A (4.1), the vertical plate F (4.8) and the inclined mounting shuttle plate D (11) provided on the three-chamber box body (4) to form a blanking chute; The triangular support sealing plate (13) is connected to the vertical plate A (4.1) provided on the three-chamber box body (4); The inclined mounting shuttle plates B (9) and C (10) are provided on the drain pipe A (6).

2. The feeding device for titanium sponge after crushing and screening according to claim 1, characterized in that: The three-chamber box body (4) includes a vertical plate A (4.1), a vertical plate B (4.2), a middle vertical plate (4.3), a vertical plate C (4.4), a vertical plate D (4.5), an intermediate partition plate (4.6), a vertical plate E (4.7), and a vertical plate F (4.8). One end of the vertical plate A (4.1) is respectively connected to one end of the vertical plate B (4.2) and the vertical plate F (4.8). The other end of the vertical plate B (4.2) is connected to one end of the middle vertical plate (4.3). The middle part of the middle vertical plate (4.3) is connected to the other end of the vertical plate F (4.8). The other end of the middle vertical plate (4.3) is connected to one end of the vertical plate E (4.7). The other end of the vertical plate E (4.7) is connected to one end of the vertical plate D (4.5). The middle part of the vertical plate D (4.5) is connected to one end of the intermediate partition plate (4.6). The other end of the intermediate partition plate (4.6) is connected to the middle part of the middle vertical plate (4.3). The other end of the vertical plate D (4.5) is connected to one end of the vertical plate C (4.4). The other end of the vertical plate C (4.4) is connected to the upper middle part of the middle vertical plate.

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