Quantitative delivery device for titanium dioxide production

Abstract

This invention relates to the technical field of equipment for titanium dioxide production, specifically a quantitative conveying device for titanium dioxide production. The device includes a main body and a transmission mechanism. The main body is located above the transmission mechanism and includes a protective plate. The left and right ends of a support beam are fixedly connected to the interiors of two sets of first connecting grooves. Multiple sets of connecting blocks are equally fixedly connected to the side of a third connecting plate away from the second electric telescopic column. Multiple sets of discharge pipes are fixedly connected to the bottom of the connecting frame, and all discharge pipes penetrate the connecting frame. This invention, through the setting of an iron material collection box and support base, facilitates the conduction of static electricity that easily accumulates due to friction with titanium dioxide, thereby conducting the static electricity to the ground and reducing the risk of explosion due to excessive static electricity accumulation. Simultaneously, the setting of a sliding groove plate and sliding blocks facilitates the vertical movement of the connecting frame, thereby controlling the direction of the titanium dioxide output from the discharge pipes.

Description

Technical Field

[0001] This invention relates to the technical field of equipment for titanium dioxide production, specifically a quantitative conveying device for titanium dioxide production. Background Technology

[0002] Titanium dioxide is widely used in various fields, especially in the coatings, plastics, and rubber industries. As a white powder, it is easily contaminated with impurities during transport, causing color deviations and loss of its pure white color. The presence of impurities can lead to product quality issues. Furthermore, during transport, the powdered titanium dioxide easily accumulates static electricity due to collisions and friction, causing blockages and affecting transport speed. The static electricity generated at the discharge end during transport can become very high, and excessive static accumulation can potentially lead to explosions, posing a safety hazard and increasing the risk of accidents. Additionally, titanium dioxide is prone to scattering during production, resulting in raw material waste and pollution. Summary of the Invention

[0003] The purpose of this invention is to provide a quantitative conveying device for titanium dioxide production, in order to solve the problems mentioned in the background art. In the existing titanium dioxide conveying process, due to mutual collision and friction, a large amount of static electricity is easily accumulated, causing blockage and affecting the conveying speed. During the conveying process, the static electricity at the unloading end is very large. When the static electricity accumulates too much, it can easily cause an explosion, which is detrimental to safe production and can easily cause accidents. In addition, titanium dioxide is easy to scatter during the production process, resulting in raw material waste and pollution.

[0004] To achieve the above objectives, the present invention provides the following technical solution: a quantitative conveying device for titanium dioxide production, comprising: a main body and a conveying mechanism, wherein the main body is located above the conveying mechanism, the main body includes protective plates, and two sets of protective plates are provided. Each set of protective plates has a first connecting groove at its top, the two sets of first connecting grooves being symmetrically distributed left and right. A support beam is provided between the two sets of protective plates, the left and right ends of the support beam being fixedly connected to the interiors of the two sets of first connecting grooves respectively. A speed monitor is installed at the top of the first connecting groove. Sliding groove plates are fixedly connected to the left and right sides of the bottom of the support beam. A crushing component is provided at the bottom of the support beam, the crushing component including a first electric telescopic column fixedly connected at the center of the bottom of the support beam. A support frame is fixedly connected to the output end of the first electric telescopic column, and a first connecting plate is fixedly connected to the bottom of the support frame. The first connecting plate has a first fixing groove in the middle. Connecting columns are fixedly connected to both sides of the support frame. Sliding blocks are fixedly connected to the bottom of both sets of connecting columns. A second connecting plate is fixedly connected to the bottom of the first connecting plate. A groove is formed in the middle of the second connecting plate. A feeding hopper is fixedly connected inside the first fixing groove. The feeding hopper is a cylinder with a diameter that gradually decreases from top to bottom. A crushing blade is fixedly connected to the bottom of the feeding hopper. A connecting frame is fixedly connected to the bottom of the crushing blade. A second connecting groove is formed inside the connecting frame. A second electric telescopic column is fixedly connected inside the second connecting groove. A third connecting plate is fixedly connected to the output end of the second electric telescopic column. Multiple sets of connecting blocks are evenly fixedly connected to the side of the third connecting plate away from the second electric telescopic column. Multiple sets of discharge pipes are fixedly connected to the bottom of the connecting frame. All sets of discharge pipes pass through the connecting frame.

[0005] Preferably, the transmission mechanism includes two sets of support seats, which are symmetrically fixed to the bottom of two sets of protective plates. A belt is provided between the two sets of support seats. The support seat on the right side has a second fixing groove and a connecting groove on the side facing the belt. The second fixing groove is located in front of the connecting groove. The support seat on the left side has two sets of second fixing grooves on the side facing the belt. The two sets of connecting grooves on the left support seat correspond to the positions of the second fixing groove and connecting groove on the right support seat. Rotary rollers are movably connected to both the front and rear ends of the belt. The left and right ends of the rotary roller located on the rear side of the belt are movably connected to the connecting grooves on the rear side of the two sets of support seats, respectively. The left end of the rotary roller located on the front side of the belt is movably connected to the front connecting groove of the two sets of connecting grooves on the left support seat. A servo motor is fixedly connected inside the second fixing groove. The output end of the servo motor is fixedly connected to the right end of the front rotary roller of the two sets of rotary rollers.

[0006] Preferably, a flexible steel plate is fixedly connected to the outer surface of the belt, and multiple sets of snap-fit ​​grooves are evenly opened on the flexible steel plate, and a collection box can be snapped into the inside of the multiple sets of snap-fit ​​grooves.

[0007] Preferably, the collection box and the two sets of support bases are both made of ferrous material.

[0008] Preferably, the speed monitor is located at the center of the top of the support beam, and the speed monitor is electrically connected to the snap-fit ​​groove.

[0009] Preferably, the bottoms of both sets of sliding groove plates are fixedly connected to the tops of both sets of support seats, and the tops of both sets of sliding groove plates are fixedly connected to the bottom of the support beam.

[0010] Preferably, the two sets of sliding blocks are movably connected inside the two sets of sliding groove plates.

[0011] Preferably, multiple sets of connecting blocks correspond to the top of multiple sets of discharge pipes, and the width of the connecting blocks is greater than the diameter of the discharge pipes.

[0012] Compared with the prior art, the beneficial effects of the present invention are:

[0013] 1. A quantitative conveying device for titanium dioxide production, through the setting of a discharge pipe and a collection box, facilitates the accurate output of titanium dioxide and avoids the spillage of titanium dioxide during the output process. At the same time, through the setting of a connecting block corresponding to the top position of the discharge pipe, it is convenient to accurately control the output amount of titanium dioxide, thereby accurately controlling the output quantity and rate of titanium dioxide, and avoiding the easy spillage of titanium dioxide during the production process, which would cause raw material waste and pollution.

[0014] 2. A quantitative conveying device for titanium dioxide production, by setting up an iron material collection box and support base, facilitates the conduction of a large amount of static electricity that easily accumulates due to friction of titanium dioxide, and then conducts the static electricity to the ground, thereby reducing the possibility of explosion due to excessive static electricity accumulation. At the same time, by setting up a sliding groove plate and sliding block, it is easy to ensure that the connecting frame moves in the vertical direction, thereby controlling the direction of titanium dioxide output from the inside of the discharge pipe. Attached Figure Description

[0015] Figure 1 This is a side-view perspective view of the three-dimensional structure of the present invention;

[0016] Figure 2 This is a frontal three-dimensional structural diagram of the present invention;

[0017] Figure 3 This is a side-view cross-sectional three-dimensional structural diagram of the present invention;

[0018] Figure 4 This is a three-dimensional structural diagram of the disassembled part of the present invention;

[0019] Figure 5 This is a three-dimensional structural diagram of the disassembled transmission mechanism of the present invention;

[0020] Figure 6 This is a three-dimensional structural diagram of the disassembled main body of the present invention;

[0021] Figure 7 This is a first-view, three-dimensional structural diagram of the disassembled crushing component of the present invention.

[0022] Figure 8 This is a second-view disassembly three-dimensional structural diagram of the crushing component of the present invention.

[0023] In the diagram: 100, Main body; 101, Protective plate; 102, First connecting groove; 103, Support beam; 104, Speed ​​monitor; 105, Sliding groove plate; 106, Crushing assembly; 107, First electric telescopic column; 108, Support frame; 109, First connecting plate; 110, First fixing groove; 111, Connecting column; 112, Sliding block; 113, Second connecting plate; 114, Groove; 115, Feed hopper; 116, Crushing blade; 117, Connecting frame; 118, Second connecting groove; 119, Second electric telescopic column; 120, Third connecting plate; 121, Connecting block; 122, Discharge pipe; 200, Transmission mechanism; 201, Support base; 202, Second fixing groove; 203, Connecting groove; 204, Rotating roller; 205, Belt; 206, Snap-fit ​​groove; 207, Collection box; 208, Servo motor. Detailed Implementation

[0024] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0025] Please see Figure 1-8An embodiment of the present invention provides a quantitative conveying device for titanium dioxide production, comprising: a main body 100 and a conveying mechanism 200. The main body 100 is located above the conveying mechanism 200. The main body 100 includes protective plates 101, and two sets of protective plates 101 are provided. The top of each set of protective plates 101 is provided with a first connecting groove 102. The two sets of first connecting grooves 102 are symmetrically distributed from left to right. A support beam 103 is provided between the two sets of protective plates 101. The left and right ends of the support beam 103 are respectively fixedly connected to the inside of the two sets of first connecting grooves 102. A speed monitor 104 is installed on the top of the trough 102. Sliding trough plates 105 are fixedly connected to the left and right sides of the bottom of the support beam 103. A crushing assembly 106 is provided at the bottom of the support beam 103. The crushing assembly 106 includes a first electric telescopic column 107, which is fixedly connected to the center of the bottom of the support beam 103. A support frame 108 is fixedly connected to the output end of the first electric telescopic column 107. A first connecting plate 109 is fixedly connected to the bottom of the support frame 108. A first fixing groove 110 is formed in the middle of the first connecting plate 109. The left and right sides of the support frame 108... Both sets of connecting plates are fixedly connected to connecting posts 111. Sliding blocks 112 are fixedly connected to the bottom of each set of connecting posts 111. A second connecting plate 113 is fixedly connected to the bottom of the first connecting plate 109. A groove 114 is formed in the middle of the second connecting plate 113. A feeding hopper 115 is fixedly connected inside the first fixing groove 110. The feeding hopper 115 is a cylinder with a diameter that gradually decreases from top to bottom. A crushing blade 116 is fixedly connected to the bottom of the feeding hopper 115. A connecting frame 117 is fixedly connected to the bottom of the crushing blade 116. A second connecting groove 11 is formed inside the connecting frame 117. 8. A second electric telescopic column 119 is fixedly connected inside the second connecting groove 118. A third connecting plate 120 is fixedly connected to the output end of the second electric telescopic column 119. Multiple sets of connecting blocks 121 are evenly fixedly connected to the side of the third connecting plate 120 away from the second electric telescopic column 119. Multiple sets of discharge pipes 122 are fixedly connected to the bottom of the connecting frame 117. All sets of discharge pipes 122 pass through the connecting frame 117. The feeding hopper 115 facilitates the input of titanium dioxide raw materials. The crushing blade 116 facilitates the crushing of titanium dioxide raw materials into powder.

[0026] Furthermore, the transmission mechanism 200 includes a support base 201, of which two sets are provided. The two sets of support bases 201 are symmetrically fixed to the bottom of two sets of protective plates 101. A belt 205 is provided between the two sets of support bases 201. The support base 201 on the right side facing the belt 205 has a second fixing groove 202 and a connecting groove 203. The second fixing groove 202 is located in front of the connecting groove 203. The support base 201 on the left side facing the belt 205 has two sets of second fixing grooves 202, and the two sets of connecting grooves 203 on the left support base 201 correspond to the second fixing grooves 202 and connecting grooves 203 on the right support base 201. The inside of the belt 205... Rotating rollers 204 are movably connected to both the front and rear ends. The left and right ends of the rotating roller 204 located inside the rear side of the belt 205 are movably connected to the connecting slots 203 opened on the rear side of the two sets of support seats 201, respectively. The left end of the rotating roller 204 located inside the front side of the belt 205 is movably connected to the front connecting slot 203 of the two sets of connecting slots 203 opened on the left support seat 201. A servo motor 208 is fixedly connected inside the second fixed slot 202. The output end of the servo motor 208 is fixedly connected to the right end of the front rotating roller 204 of the two sets of rotating rollers 204. The setting of the rotating rollers 204 facilitates the driving of the belt 205 to rotate. At the same time, the setting of the snap-fit ​​slot 206 facilitates the adjustment of the rotation speed of the belt 205.

[0027] Furthermore, a flexible steel plate is fixedly connected to the outer surface of the belt 205. Multiple sets of snap-fit ​​grooves 206 are evenly opened on the flexible steel plate. A collection box 207 can be snapped into the inside of the multiple sets of snap-fit ​​grooves 206. The snap-fit ​​grooves 206 and the collection box 207 facilitate the quantitative collection of titanium dioxide. The flexible steel plate facilitates the conduction and elimination of a large amount of static electricity accumulated by friction of titanium dioxide.

[0028] Furthermore, the collection box 207 and the two sets of support bases 201 are all made of ferrous material. The ferrous material support bases 201 and collection box 207 facilitate the conduction of a large amount of static electricity accumulated by the friction of titanium dioxide to the ground.

[0029] Furthermore, the speed monitor 104 is located at the top center of the support beam 103. The speed monitor 104 is electrically connected to the snap-fit ​​groove 206. The speed monitor 104 facilitates real-time monitoring of the transmission speed of the belt 205, thereby providing feedback to the snap-fit ​​groove 206 for precise adjustment of the rotation speed of the belt 205.

[0030] Furthermore, the bottoms of both sets of sliding groove plates 105 are fixedly connected to the tops of both sets of support seats 201, and the tops of both sets of sliding groove plates 105 are fixedly connected to the bottom of support beam 103. The arrangement of support beam 103 and support seat 201 facilitates the limitation of the position of sliding block 112 inside sliding groove plate 105, preventing sliding block 112 from falling out of the sliding groove plate 105.

[0031] Furthermore, the two sets of sliding blocks 112 are movably connected inside the two sets of sliding groove plates 105 respectively. The setting of the sliding blocks 112 and the sliding groove plates 105 makes it easy to ensure that the connecting frame 117 moves in the vertical direction, thereby aligning the multiple sets of discharge pipes 122 with the top of the multiple sets of collection boxes 207 to ensure that titanium dioxide is accurately poured into the interior of the collection box 207, and to prevent titanium dioxide from scattering during the conveying process.

[0032] Furthermore, multiple sets of connecting blocks 121 correspond to the top of multiple sets of discharge pipes 122 respectively, and the width of the connecting block 121 is greater than the diameter of the discharge pipe 122. By setting the connecting block 121, it is convenient to accurately control the output of titanium dioxide powder inside the connecting frame 117.

[0033] Working principle:

[0034] During operation, titanium dioxide raw material is fed into the hopper 115, and the crushing blade 116 is activated. The crushing blade 116 thoroughly crushes the raw material, which then falls through the groove 114 into the connecting frame 117 under gravity. Next, the servo motor 208 is activated, driving the rotating roller 204 to rotate the belt 205. Simultaneously, the collection box 207 is evenly inserted into the locking slot 206. The speed monitor 104 monitors the rotation speed of the belt 205 in real time. When the collection box 207 reaches the bottom of the crushing assembly 106, the first electric telescopic column 107 pushes the support... The support frame 108 descends, at which point the sliding block 112 moves vertically along the inside of the sliding groove plate 105, thereby ensuring that the crushing component 106 moves vertically. Then, the second electric telescopic column 119 pushes the third connecting plate 120 to drive multiple sets of connecting blocks 121 to move from the top of the discharge pipe 122, thereby controlling the output of titanium dioxide inside the connecting frame 117. At this time, titanium dioxide falls into the collection box 207 through the discharge pipe 122. Then, under the monitoring of the speed monitor 104, the rotation speed of the servo motor 208 is controlled, driving the collection box 207 filled with titanium dioxide powder to be transported. The operation ends here.

[0035] It will be apparent to those skilled in the art that the present invention is not limited to the details of the exemplary embodiments described above, and that the invention can be implemented in other specific forms without departing from its spirit or essential characteristics. Therefore, the embodiments should be considered in all respects as exemplary and non-limiting, and the scope of the invention is defined by the appended claims rather than the foregoing description. Thus, all variations falling within the meaning and scope of equivalents of the claims are intended to be included within the present invention. No reference numerals in the claims should be construed as limiting the scope of the claims.

Claims

1. A quantitative conveying device for titanium dioxide production, characterized in that: include: The main body (100) and the transmission mechanism (200) are provided. The main body (100) is located above the transmission mechanism (200). The main body (100) includes a protective plate (101). Two sets of protective plates (101) are provided. The top of each set of protective plates (101) is provided with a first connecting groove (102). The two sets of first connecting grooves (102) are symmetrically distributed from left to right. A support beam (103) is provided between the two sets of protective plates (101). The left and right ends of the support beam (103) are respectively fixedly connected to the inside of the two sets of first connecting grooves (102). The top of the first connecting groove (102) is fitted with a protective plate. Equipped with a speed monitor (104), the support beam (103) has sliding groove plates (105) fixedly connected to both the left and right sides of its bottom. A crushing assembly (106) is provided at the bottom of the support beam (103). The crushing assembly (106) includes a first electric telescopic column (107), which is fixedly connected to the center of the bottom of the support beam (103). A support frame (108) is fixedly connected to the output end of the first electric telescopic column (107). A first connecting plate (109) is fixedly connected to the bottom of the support frame (108). A first fixing groove (110) is provided in the middle of the first connecting plate (109). The support frame (108) has connecting columns (111) fixedly connected to both sides. Sliding blocks (112) are fixedly connected to the bottom of both sets of connecting columns (111). A second connecting plate (113) is fixedly connected to the bottom of the first connecting plate (109). A groove (114) is provided in the middle of the second connecting plate (113). A feeding hopper (115) is fixedly connected inside the first fixing groove (110). The feeding hopper (115) is a cylinder with a diameter gradually decreasing from top to bottom. A crushing blade (116) is fixedly connected to the bottom of the feeding hopper (115). The bottom of the frame is fixedly connected to a connecting frame (117). The connecting frame (117) has a second connecting groove (118) inside. The second connecting groove (118) is fixedly connected to a second electric telescopic column (119). The output end of the second electric telescopic column (119) is fixedly connected to a third connecting plate (120). The third connecting plate (120) is fixedly connected to multiple sets of connecting blocks (121) on the side away from the second electric telescopic column (119). The bottom of the connecting frame (117) is fixedly connected to multiple sets of discharge pipes (122), and all sets of discharge pipes (122) pass through the connecting frame (117).

2. The quantitative conveying device for titanium dioxide production according to claim 1, characterized in that: The transmission mechanism (200) includes a support base (201), and two sets of the support bases (201) are provided. The two sets of support bases (201) are symmetrically fixed to the bottom of two sets of protective plates (101). A belt (205) is provided between the two sets of support bases (201). The support base (201) on the right side facing the belt (205) has a second fixing groove (202) and a connecting groove (203). The second fixing groove (202) is located in front of the connecting groove (203). The support base (201) on the left side facing the belt (205) has two sets of second fixing grooves (202). The two sets of connecting grooves (203) on the left support base (201) and the two sets of connecting grooves (203) on the right support base (201) are connected to each other. The second fixing groove (202) and the connecting groove (203) are positioned correspondingly. Both the front and rear ends of the belt (205) are movably connected to rotating rollers (204). The left and right ends of the rotating roller (204) located on the rear side of the belt (205) are movably connected to the connecting grooves (203) opened on the rear side of the two sets of support seats (201). The left end of the rotating roller (204) located on the front side of the belt (205) is movably connected to the connecting groove (203) located on the front side of the two sets of connecting grooves (203) opened on the left side support seat (201). The second fixing groove (202) is fixedly connected to a servo motor (208). The output end of the servo motor (208) is fixedly connected to the right end of the rotating roller (204) located on the front side of the two sets of rotating rollers (204).

3. The quantitative conveying device for titanium dioxide production according to claim 2, characterized in that: A flexible steel plate is fixedly connected to the outer surface of the belt (205). Multiple sets of snap-fit ​​grooves (206) are evenly opened on the flexible steel plate, and a collection box (207) can be snapped into the inside of the multiple sets of snap-fit ​​grooves (206).

4. The quantitative conveying device for titanium dioxide production according to claim 3, characterized in that: The collection box (207) and the two sets of support bases (201) are both made of ferrous material.

5. A quantitative conveying device for titanium dioxide production according to claim 1, characterized in that: The speed monitor (104) is located at the top center of the support beam (103), and the speed monitor (104) is electrically connected to the snap-fit ​​groove (206).

6. The quantitative conveying device for titanium dioxide production according to claim 1, characterized in that: The bottoms of both sets of sliding groove plates (105) are fixedly connected to the tops of both sets of support seats (201), and the tops of both sets of sliding groove plates (105) are fixedly connected to the bottom of the support beam (103).

7. A quantitative conveying device for titanium dioxide production according to claim 1, characterized in that: The two sets of sliding blocks (112) are respectively movably connected inside the two sets of sliding groove plates (105).

8. A quantitative conveying device for titanium dioxide production according to claim 1, characterized in that: Multiple sets of connecting blocks (121) correspond to the top of multiple sets of discharge pipes (122) respectively, and the width of the connecting block (121) is greater than the diameter of the discharge pipe (122).

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