A silica gel desiccant dehumidification box

Abstract

The present invention relates to the technical field of storage devices, and in particular to a silica gel desiccant dehumidification box. The technical problem is: when taking out titanium dioxide, moist air easily comes into contact with the titanium dioxide in the box, which in turn causes the titanium dioxide to become moist and clump; when there is too much moist titanium dioxide, the titanium dioxide at the bottom cannot be dried, and the moistened titanium dioxide that has turned dry easily clumps. The technical solution of the present invention is: a silica gel desiccant dehumidification box, comprising a storage barrel, a lid, and a handle; the upper part of the storage barrel is screwed with a lid; the upper part of the lid is fixed with a handle. When the titanium dioxide needs to be reused, the moist titanium dioxide is poured into the storage part, and then the second silica gel desiccant can dry it, and the partition plate can play a partitioning role to prevent the moist air in the lower part of the storage barrel from flowing to the upper part of the storage barrel during display and when drying the transparent circular plate, causing the titanium dioxide in the storage part to become moist again.

Description

Technical Field

[0001] The present invention relates to the technical field of storage devices, and in particular to a silica gel desiccant dehumidification box. Background Art

[0002] When selling titanium dioxide, salespeople usually take it out of the storage box and pour it into a cup of water to demonstrate its dispersibility. They also spread the titanium dioxide evenly on a transparent plate and then shine light from the bottom upwards to demonstrate the covering power, whiteness and gloss of the titanium dioxide.

[0003] When taking out titanium dioxide for display, the lid containing the titanium dioxide needs to be opened. At this time, moist air will come into contact with the titanium dioxide, and water can easily drip into the titanium dioxide, causing the titanium dioxide to become moist and clump, resulting in defects in the titanium dioxide used for display, which in turn affects the display effect and leads to a decrease in the manufacturer's sales.

[0004] Titanium dioxide used for light-shielding displays can be reused, but it needs to be dried after contact with moist air before it can be used again. Therefore, the moist titanium dioxide needs to be placed in an unsealed container, and a silica gel desiccant is placed next to the container to dry the moist titanium dioxide during transportation and storage. However, salespeople may need to make several displays in a day. When opening the box containing moist and dry titanium dioxide, the titanium dioxide that needs to be dried will come into contact with moist air again, which will extend the drying time.

[0005] When there is too much wet titanium dioxide, the titanium dioxide at the bottom cannot be dried, and the titanium dioxide that changes from wet to dry easily clumps together, making it unusable. Summary of the Invention

[0006] In order to overcome the shortcomings that when taking out titanium dioxide, moist air easily contacts with titanium dioxide in the box, thereby causing the titanium dioxide to become moist and agglomerate; when there is too much moist titanium dioxide, the titanium dioxide at the bottom cannot be dried, and the titanium dioxide that changes from moist to dry easily agglomerates, the present invention provides a silica gel desiccant dehumidification box.

[0007] The technical solution of the present invention is: a silica gel desiccant dehumidification box, including a storage barrel, a lid and a handle; the upper part of the storage barrel is screwed with a lid; the upper part of the lid is fixedly connected to a handle; it also includes a partition plate, a push rod, a drive assembly, a material shaking assembly, a circular storage plate, a sealing cover, a first circular rotating plate and a second circular rotating plate; the middle part of the storage barrel is fixedly connected to the partition plate; a push rod is fixedly connected to the left and right sides of the partition plate; all the push rod telescopic parts are commonly connected to the drive assembly, the drive assembly is connected to the material shaking assembly, the material shaking assembly is connected to the circular storage plate, the material shaking assembly is used to shake the circular storage plate, and the upper part of the circular storage plate is rotated It is connected to a sealing cover; the driving assembly is connected to the first circular rotating plate, and the driving assembly is used to drive the first circular rotating plate to rotate; the lower part of the circular storage plate is rotatably connected to the second circular rotating plate, and the second circular rotating plate is located inside the first circular rotating plate. The circular storage plate, the sealing cover and the second circular rotating plate form a relatively sealed space, the first circular rotating plate is provided with a connecting groove, and a plurality of first discharge holes are equidistantly arranged on each straight line on the front and rear sides of the second circular rotating plate, and a plurality of second discharge holes are equidistantly arranged on each straight line on the left and right sides of the second circular rotating plate, and the second circular rotating plate is provided with four protrusions distributed in an X shape.

[0008] As a preferred technical solution of the present invention, it also includes a slider, a tension spring, a stop block and a torsion spring; a slider is slidably connected to the front and rear sides of the first circular rotating plate; at least three tension springs are connected between each slider and the first circular rotating plate, and a sliding groove is provided on the front and rear sides of the second circular rotating plate, half of the sliding groove is circular and half is straight, and the upper part of the slider is located in the sliding groove; a stop block is rotatably connected in each movable groove provided on the front and rear sides of the second circular rotating plate, and a discharge port is opened on the front and rear sides of the second circular rotating plate, a torsion spring is connected between the stop block and the second circular rotating plate, the slider is provided with a connecting port, and the slider is provided with a plurality of discharge holes.

[0009] As a preferred technical solution of the present invention, the material shaking assembly includes a first elastic member, a circular plate, a first protrusion and a second protrusion; a plurality of first elastic members are fixed to the inner side of the connecting frame; all the first elastic members are connected to the circular material storage plate; a circular plate is fixed to the middle part of the inner side of the first circular rotating plate; a plurality of first protrusions are fixed to the inner side of the circular plate, and a plurality of second protrusions are fixed to the outer side of the circular material storage plate, and the second protrusions are flush with the first protrusions.

[0010] As a preferred technical solution of the present invention, it also includes a lifting plate, a handle, a magnet and a material receiving assembly; the front part of the storage barrel is slidably connected to the lifting plate; the lower part of the lifting plate is fixedly connected to the handle; the upper rear side and the lower rear side of the handle are each fixed with a magnet; the lower front side and the middle front side of the storage barrel are each fixed with a magnet; the storage barrel is connected to a material receiving assembly for catching the discharged titanium dioxide.

[0011] As a preferred technical solution of the present invention, the material receiving assembly includes a material receiving platform, a second elastic member and a transparent circular plate; the material receiving platform is placed at the lower part of the material storage barrel; a plurality of second elastic members are fixedly connected to the upper part of the material receiving platform; all the second elastic members are commonly fixedly connected to a transparent circular plate, and the transparent circular plate is made of soft material.

[0012] As a preferred technical solution of the present invention, it also includes a limiting rod and a first silica gel desiccant; at least three limiting rods are fixedly connected to the rear side of the interior of the storage barrel; the limiting rods are connected to the material receiving platform, and the material receiving platform is positioned and limited by the limiting rods to prevent the material receiving platform from deviating from the material receiving position and to prevent the material receiving platform from shaking during transportation; a first silica gel desiccant is bonded to the rear side of the interior of the storage barrel for drying the lower space of the storage barrel.

[0013] As a preferred technical solution of the present invention, it also includes a lighting component, the transparent circular plate is connected to the lighting component; the lighting component includes elastic cloth and lighting lamps; the transparent circular plate is fixed to the elastic cloth; and a plurality of arc-shaped lighting lamps are bonded to the elastic cloth.

[0014] As a preferred technical solution of the present invention, it also includes a pre-drying component, the storage barrel is connected to the pre-drying component, the pre-drying component includes a hollow fixed plate, a circular connecting plate, bolts, springs, a discharge plate, a rotating circular plate, a rotating frame, a discharge rack and a second silica gel desiccant; a hollow fixed plate is fixedly connected to the upper part of the storage barrel; a circular connecting plate is placed on the hollow fixed plate, the hollow fixed plate and the circular connecting plate are commonly connected with bolts, a number of springs are fixedly connected to the inner side of the circular connecting plate, and all the springs are commonly fixed to the discharge plate; a rotating circular plate is rotatably connected to the inner side of the discharge plate, the discharge plate and the rotating circular plate jointly form a storage part, and a rotating frame is fixedly connected to the upper part of the discharge plate; the rotating frame is rotatably connected to the rotating circular plate; the rotating frame is provided with a screen; a discharge rack is fixedly connected to the left and right sides of the lower part of the cover; and a second silica gel desiccant is placed on each discharge rack.

[0015] As a preferred technical solution of the present invention, it also includes a stirring assembly, and the circular material storage plate and the rotating circular plate are jointly connected with the stirring assembly; the stirring assembly includes a push rod and a push rod; the rotating circular plate is provided with a threaded groove, the rear part of the push rod is located in the threaded groove, and the push rod is in contact with the rotating circular plate; a plurality of third protrusions are provided in the threaded groove of the rotating circular plate; the push rod is fixed to the rear part of the circular material storage plate; the rotating circular plate is provided with a slide-out groove.

[0016] As a preferred technical solution of the present invention, it also includes a pushing assembly, the rotating circular plate is connected to the pushing assembly, the pushing assembly includes a silicone pushing plate and a brush; at least four silicone pushing plates are fixedly connected to the upper part of the rotating circular plate; at least four brushes are fixedly connected to the outer side of the upper part of the rotating circular plate; the silicone pushing plate is located above the screen, and the brush is located below the screen.

[0017] Beneficial effects

[0018] By discharging from the second circular rotating plate, the titanium dioxide is prevented from getting damp when being taken out, which would result in a poor display effect of the titanium dioxide. At the same time, vibration is used to prevent the first and second discharge holes from being blocked when the titanium dioxide is discharged.

[0019] When titanium dioxide needs to be reused, the wet titanium dioxide is poured into the storage part, and then the second silica gel desiccant can dry it. The partition plate can play a separating role to prevent the moist air in the lower part of the storage barrel from flowing to the upper part of the storage barrel during display and when drying the transparent circular plate, causing the titanium dioxide in the storage part to become damp again.

[0020] When the circular storage plate shakes, the push rod will rotate the circular plate and shake it together, thereby shaking the titanium dioxide in the storage part, so that when pouring, the titanium dioxide accumulated in one place will flow to the area with less titanium dioxide, thereby preventing the accumulated titanium dioxide from drying out slowly.

[0021] When the circular storage plate descends, it drives the push rod to descend, causing the push rod to push the threaded groove downward, thereby causing the rotating circular plate to rotate, and then the push rod rotates to stir the titanium dioxide in the storage part, so that the wet titanium dioxide is stirred, thereby speeding up the drying time of the titanium dioxide. Stirring the titanium dioxide can avoid the agglomeration of titanium dioxide caused by long-term drying, and can also disperse the agglomerated titanium dioxide. The distance between each rotating circular plate and the discharge plate is different, thereby stirring the titanium dioxide in different areas.

[0022] When there is no need to discharge titanium dioxide, the circular storage plate can be pushed up and down to achieve the effect of rotating and shaking the rotating circular plate. BRIEF DESCRIPTION OF THE DRAWINGS

[0023] Figure 1 This is a schematic diagram of the structure of the silica gel desiccant dehumidification box disclosed in the present invention;

[0024] Figure 2 This is a partial structural cross-sectional view of the first type of silica gel desiccant dehumidification box disclosed in the present invention;

[0025] Figure 3 A cross-sectional view of the second partial structure of the silica gel desiccant dehumidification box disclosed in the present invention;

[0026] Figure 4 This is a schematic diagram of the first partial structure of the silica gel desiccant dehumidification box disclosed in the present invention;

[0027] Figure 5 This is a schematic diagram of the second partial structure of the silica gel desiccant dehumidification box disclosed in the present invention;

[0028] Figure 6 This is a partial structural diagram of the slider and the material blocking block disclosed in the silica gel desiccant dehumidification box of the present invention;

[0029] Figure 7 A partial structural cross-sectional view of a slider disclosed in the silica gel desiccant dehumidification box of the present invention;

[0030] Figure 8 It is a partial cross-sectional schematic diagram of the material shaking assembly disclosed in the silica gel desiccant dehumidification box of the present invention;

[0031] Figure 9 A partial structural cross-sectional view of the material receiving assembly disclosed in the silica gel desiccant dehumidification box of the present invention;

[0032] Figure 10 This is a schematic diagram of the structure of the pre-drying component disclosed in the silica gel desiccant dehumidification box of the present invention;

[0033] Figure 11 This is a schematic diagram of the structure of the pre-drying component disclosed in the silica gel desiccant dehumidification box of the present invention;

[0034] Figure 12 A partial structural cross-sectional view of the pre-drying assembly disclosed in the silica gel desiccant dehumidification box of the present invention;

[0035] Figure 13 for Figure 11 A magnified view of point A;

[0036] Figure 14 This is a partial structural schematic diagram of the pusher assembly disclosed in the silica gel desiccant dehumidification box of the present invention.

[0037] Among them: 1-storage barrel, 2-lid, 3-handle, 4-lifting plate, 5-handle, 6-magnet, 101-partition plate, 102-push rod, 103-connecting frame, 104-circular storage plate, 105-sealing cover, 106-DD motor, 107-first circular rotating plate, 108-second circular rotating plate, 111-slider, 112-tension spring, 113-stop block, 114-torsion spring, 121-first elastic member, 122-circular plate, 123-first bump, 124-second bump, 201-receiving platform, 202-second elastic member, 203-transparent circular plate, 204-limiting rod, 205-first silica gel desiccant, 211-elastic cloth, 212-lighting lamp, 301-hollow Fixed plate, 302-circular connecting plate, 303-bolt, 304-spring, 305-discharging plate, 306-rotating circular plate, 307-rotating frame, 308-discharging rack, 309-second silica gel desiccant, 311-push rod, 312-push rod, 321-silica gel pushing plate, 322-brush, 107a-connecting groove, 108a-protrusion, 108b-first discharge hole, 108c-second discharge hole, 108d-sliding groove, 108e-movable groove, 108f-discharge port, 111a-connecting port, 111b-discharge hole, 305a-storage part, 306a-threaded groove, 306b-third protrusion, 306c-slide out groove, 307a-screen, 100-water cup. DETAILED DESCRIPTION

[0038] The present invention will be described in detail below with reference to the accompanying drawings and specific embodiments, but this does not limit the present invention.

[0039] Example 1

[0040] A silica gel desiccant dehumidification box, such as Figure 1-8 As shown, it includes a storage barrel 1, a lid 2 and a handle 3; the lid 2 is screwed onto the upper portion of the storage barrel 1; the handle 3 is connected to the upper portion of the lid 2 by bolts 303;

[0041] It also includes a partition plate 101, a push rod 102, a driving assembly, a material shaking assembly, a circular material storage plate 104, a sealing cover 105, a first circular rotating plate 107 and a second circular rotating plate 108; a partition plate 101 is fixed to the middle of the material storage barrel 1; a push rod 102 is fixed to the left and right sides of the partition plate 101; all the telescopic parts of the push rods 102 are commonly connected to the driving assembly, the driving assembly is connected to the material shaking assembly, the material shaking assembly is connected to the circular material storage plate 104, and the sealing cover 105 is screwed on the upper part of the circular material storage plate 104; the driving assembly is connected to the first circular rotating plate 107; the lower part of the circular material storage plate 104 is rotatably connected to the second circular rotating plate 108, and the second circular rotating plate 108 is located in the first circular rotating plate 107, the circular material storage plate 104, the sealing cover 105 and the second circular rotating plate 108 A relatively sealed space is formed to prevent the titanium dioxide in the sealed space from being affected by moisture. The first circular rotating plate 107 is provided with a connecting groove 107a, and four first discharge holes 108b are equidistantly arranged on the front and rear sides of the second circular rotating plate 108. Eight second discharge holes 108c are equidistantly arranged on the left and right sides of the second circular rotating plate 108. The second circular rotating plate 108 is provided with four raised portions 108a distributed in an X shape. The first circular rotating plate 107 rotates and comes into close contact with the raised portions 108a, so that the connecting groove 107a is connected with the first discharge hole 108b or the second discharge hole 108c, thereby discharging the titanium dioxide in the circular storage plate 104. Then the first circular rotating plate 107 pushes the second circular rotating plate 108 to rotate together, so that the titanium dioxide is evenly discharged onto the water cup 100 or the display board.

[0042] It also includes a slider 111, a tension spring 112, a stop block 113 and a torsion spring 114; a slider 111 is slidably connected to the front and rear sides of the first circular rotating plate 107; three tension springs 112 are connected between each slider 111 and the first circular rotating plate 107, and a sliding groove 108d is provided on the front and rear sides of the second circular rotating plate 108. The sliding groove 108d is half circular and half linear. The upper part of the slider 111 is located in the sliding groove 108d, and the slider 111 is driven by the first circular rotating plate 107 to slide along the sliding groove 108d, thereby causing the slider 111 to move to the outside of the first circular rotating plate 107; the second circular rotating plate 108 is provided with a movable There is a stop block 113 in each rotation connection in the groove 108e, and a discharge port 108f is opened on the front and rear sides of the second circular rotating plate 108. The discharge port 108f is blocked by the stop block 113 to prevent the titanium dioxide from flowing out. A torsion spring 114 is connected between the stop block 113 and the second circular rotating plate 108, and the slider 111 is provided with a connecting port 111a. The slider 111 is provided with six discharge holes 111b. When the slider 111 moves to the bottom of the discharge port 108f, the slider 111 will first push the stop block 113 to rotate, so that the discharge port 108f is connected with the connecting port 111a, and then the titanium dioxide flows to the connecting port 111a, so that the titanium dioxide flows out from the discharge hole 111b through the connecting port 111a.

[0043] The driving assembly includes a connecting frame 103 and a DD motor 106; the telescopic parts of all push rods 102 are fixed to the connecting frame 103; the connecting frame 103 is connected to the shaking material assembly, and a DD motor 106 is installed in the middle of the connecting frame 103; the rotating part of the DD motor 106 is connected to the first circular rotating plate 107.

[0044] The material shaking assembly includes a first elastic member 121, a circular plate 122, a first protrusion 123 and a second protrusion 124; ten first elastic members 121 are fixed to the inner side of the connecting frame 103; all the first elastic members 121 are connected to the circular material storage plate 104; a circular plate 122 is fixed to the middle part of the inner side of the first circular rotating plate 107; twenty first protrusions 123 are fixed to the inner side of the circular plate 122, and twenty second protrusions 124 are fixed to the outer side of the circular material storage plate 104. The second protrusions 124 are flush with the first protrusions 123. When the circular plate 122 and the first protrusions 123 are driven to rotate by the first circular rotating plate 107, the first protrusions 123 will push the second protrusions 124, thereby causing the circular material storage plate 104 to shake.

[0045] It also includes a lifting plate 4, a handle 5, a magnet 6 and a material receiving assembly; the front of the storage barrel 1 is slidably connected to the lifting plate 4; the lower part of the lifting plate 4 is fixedly connected to the handle 5; a magnet 6 is fixedly connected to the upper rear side and the lower rear side of the handle 5; a magnet 6 is fixedly connected to the lower front side and the middle front side of the storage barrel 1, and by pulling the handle 5 up and down, the magnet 6 on the handle 5 is attracted to the upper magnet 6, thereby fixing the lifting plate 4 in one place; the storage barrel 1 is connected to a material receiving assembly for catching the discharged titanium dioxide, and the material receiving assembly can be observed or taken out after the lifting plate 4 is raised.

[0046] The specific working steps are:

[0047] When a salesperson needs to take titanium dioxide to promote sales, he first unscrews the lid 2, then unscrews the sealing cover 105, pours the titanium dioxide to be promoted into the circular storage plate 104, and then screws the sealing cover 105 back into the circular storage plate 104. At this time, the circular storage plate 104, the sealing cover 105 and the second circular rotating plate 108 will form a sealed space to prevent the titanium dioxide from contacting the air and getting wet. Then the salesperson takes the storage barrel 1 with the handle 3 to the sales place. The present invention has a built-in battery, and the device is powered by the battery;

[0048] When it is necessary to perform a dispersion display of titanium dioxide, first, the handle 5 is used to pull up the lifting plate 4, so that the magnet 6 on the upper side of the rear of the handle 5 is attracted to the magnet 6 in the middle of the front side of the storage barrel 1, so that the lifting plate 4 is fixed, so that a gap is opened in the front of the storage barrel 1, and then the water cup 100 is placed on the material receiving assembly, and then the DD motor 106 drives the first circular rotating plate 107 to rotate clockwise from the angle of looking down, so that the front of the first circular rotating plate 107 is in close contact with the raised portion 108a on the left front side, and the rear of the first circular rotating plate 107 is in close contact with the raised portion 108a on the right rear side, so that the connecting groove 107a is aligned with the first discharge hole 10 8b is in a connected state, thereby allowing the titanium dioxide in the sealed space to be discharged into the water cup 100 through the first discharge hole 108b, thereby preventing the titanium dioxide from getting wet when taking out the titanium dioxide. At this time, the first circular rotating plate 107 continues to rotate to push the second circular rotating plate 108 to rotate together, thereby allowing the titanium dioxide to be evenly discharged into the water cup 100 in a rotating manner, thereby allowing the titanium dioxide to be dispersed in the water more quickly, thereby avoiding the situation where the titanium dioxide is concentrated in one place when pouring the titanium dioxide in at once and cannot be dispersed quickly. After the required amount is discharged, the first circular rotating plate 107 can be closed by simply rotating it counterclockwise from the angle of looking from top to bottom;

[0049] The flat surface area of ​​the water cup 100 is small, so the diameter of the discharged titanium dioxide does not need to be too long. In order to better observe the flat titanium dioxide, a larger area is required when laying it, so that the titanium dioxide cannot be discharged using the holes in one area. At this time, there is no need to put anything in the material receiving assembly. You only need to rotate the first circular rotating plate 107 counterclockwise so that the front of the first circular rotating plate 107 is in close contact with the raised portion 108a on the right front side, and the rear of the first circular rotating plate 107 is in close contact with the raised portion 108a on the left rear side, so that the connecting groove 107a is connected with the second discharge hole 108c, thereby allowing the titanium dioxide to be discharged into the material receiving assembly from the second discharge hole 108c, and the first circular rotating plate 107 will drive the slider 111 to rotate together. At this time, the slider 111 will move along the linear sliding groove 108d. At this time, the slider 111 will be blocked by the sliding groove 108d and move to the outside of the first circular rotating plate 107, thereby allowing the slider When the slider 111 is rotated clockwise from above and moves along the arc-shaped sliding groove 108d, the slider 111 will not be blocked and will not unfold, and then the first circular rotating plate 107 can be rotated counterclockwise or clockwise from above to discharge titanium dioxide powder of different areas according to different needs.

[0050] When the first circular rotating plate 107 rotates, the circular plate 122 and the first protrusion 123 will also be driven to rotate together. At this time, the first protrusion 123 will squeeze the second protrusion 124, thereby causing the circular storage plate 104 to shake, and then causing the titanium dioxide in the circular storage plate 104 to shake, thereby avoiding blockage when the titanium dioxide is discharged.

[0051] Example 2

[0052] Based on Example 1, Figure 2-3 、 Figure 9 As shown, the material receiving assembly includes a material receiving platform 201, a second elastic member 202 and a transparent circular plate 203; the material receiving platform 201 is placed at the lower part of the material storage barrel 1; twelve second elastic members 202 are fixedly connected to the upper part of the material receiving platform 201; all the second elastic members 202 are commonly fixedly connected to the transparent circular plate 203, and the transparent circular plate 203 is made of soft material so that it can be deformed when squeezed.

[0053] It also includes a limiting rod 204 and a first silica gel desiccant 205; three limiting rods 204 are fixedly connected to the rear side of the storage barrel 1; the limiting rods 204 are plugged into the material receiving platform 201, and the material receiving platform 201 is positioned and limited by the limiting rods 204 to prevent the material receiving platform 201 from deviating from the material receiving position and to prevent the material receiving platform 201 from shaking during transportation; a first silica gel desiccant 205 is bonded to the rear side of the storage barrel 1.

[0054] It also includes a lighting component, and the transparent circular plate 203 is connected to the lighting component; the lighting component includes an elastic cloth 211 and a lighting lamp 212; the transparent circular plate 203 is fixed to the elastic cloth 211; twelve arc-shaped lighting lamps 212 are bonded to the elastic cloth 211, and the transparent circular plate 203 is illuminated by the lighting lamps 212.

[0055] The specific working steps are:

[0056] Before the titanium dioxide is laid on the transparent circular plate 203, the push rod 102 pushes the connecting frame 103 and its related parts downward, so that the lower part of the second circular rotating plate 108 contacts the transparent circular plate 203, and then the titanium dioxide is laid on the upper surface of the transparent circular plate 203. During the laying process, the second circular rotating plate 108 drives the transparent circular plate 203 to vibrate, thereby causing the transparent circular plate 203 to drive the laid titanium dioxide to spread around. Because when the titanium dioxide is discharged from the second discharge hole 108c and laid on the transparent circular plate 203, it can only fall into the discharge port area and cannot spread around, resulting in less titanium dioxide in the non-discharge port area, thereby affecting the display effect. The vibration of the transparent circular plate 203 can ensure that the titanium dioxide is evenly laid on the transparent circular plate 203;

[0057] A battery is provided in the receiving table 201, and the battery is connected to the lighting lamp 212 through an electric wire, so that the lighting lamp 212 below the transparent circular plate 203 will illuminate the laid titanium dioxide, thereby facilitating observation. When demonstrating the dispersion performance, water needs to be placed in the middle of the transparent circular plate 203. If the light emitted by the lighting lamp 212 is parallel and upward, it will affect people's vision and make it impossible to judge the dispersion of the titanium dioxide. At this time, the transparent circular plate 203 will be pressed down by the water and become concave. At this time, the transparent circular plate 203 will squeeze the elastic cloth 211, causing it to become concave, and the elastic cloth 211 will drive the lighting lamp 212 to deform together. At this time, the light emitted by the lighting lamp 212 will change from parallel and upward light to light concentrated toward the middle of the transparent circular plate 203, thereby allowing more light to be irradiated on the water cup 100, thereby better observing the dispersion of the titanium dioxide in the water cup 100.

[0058] When the transparent circular plate 203 vibrates, it pushes the flashlight 212 downward. Due to the elasticity of the elastic fabric 211, the flashlight 212 causes the elastic fabric 211 to deform downward. When the flashlight 212 loses its downward thrust, the elastic fabric 211 causes the flashlight 212 to rebound, causing the outer shell of the flashlight 212 to hit the transparent circular plate 203, thereby enhancing the vibration effect of the transparent circular plate 203.

[0059] For better observation, the receiving platform 201 can be taken out of the material storage barrel 1. After display, the receiving platform 201 only needs to be inserted into the limiting rod 204 to ensure that the receiving platform 201 can be located directly below the first circular rotating plate 107. The limiting rod 204 can also play a limiting role during transportation to prevent the receiving platform 201 from shaking up and down.

[0060] After the display, the transparent circular plate 203 needs to be cleaned, and water stains will be attached to the transparent circular plate 203, so the first silica gel desiccant 205 will play a drying role during transportation and storage.

[0061] Example 3

[0062] Based on Example 2, Figure 10-14 As shown, it also includes a pre-drying component, the storage barrel 1 is connected to the pre-drying component, the pre-drying component includes a hollow fixed plate 301, a circular connecting plate 302, bolts 303, springs 304, a discharge plate 305, a rotating circular plate 306, a rotating frame 307, a discharge rack 308 and a second silica gel desiccant 309; the upper bolt 303 of the storage barrel 1 is connected to the hollow fixed plate 301; a circular connecting plate 302 is placed on the hollow fixed plate 301, and the hollow fixed plate 301 and the circular connecting plate 302 are connected together by bolts 303, and the circular connecting plate 302 is fixed to the hollow fixed plate 301 by bolts 303. Eight springs 304 are fixed to the inner side of the circular connecting plate 302. All springs 304 A discharge plate 305 is fixedly connected together; a rotating circular plate 306 is rotatably connected to the inner side of the discharge plate 305, and the discharge plate 305 and the rotating circular plate 306 together form a storage part 305a, and a rotating frame 307 is fixedly connected to the upper inner side of the discharge plate 305; the rotating frame 307 is rotatably connected to the rotating circular plate 306; the rotating frame 307 is provided with a screen 307a, through which the titanium dioxide poured into the storage part 305a is screened to prevent the titanium dioxide from agglomerated due to moisture from entering the storage part 305a; a discharge rack 308 is fixedly connected to the left and right sides of the lower part of the cover 2; each discharge rack 308 is respectively placed with a second silica gel desiccant 309, and the titanium dioxide is dried by the second silica gel desiccant 309.

[0063] The stirring assembly is also included. The circular material storage plate 104 and the rotating circular plate 306 are connected together to form a stirring assembly. The stirring assembly includes a push rod 311 and a push rod 312. The rotating circular plate 306 is provided with a threaded groove 306a. The rear part of the push rod 311 is located in the threaded groove 306a, and the push rod 311 is in contact with the rotating circular plate 306. The circular material storage plate 104 drives the push rod 311 to vibrate, and then the push rod 311 drives the rotating circular plate 306 to vibrate. Thereby, the titanium dioxide in the storage part 305a is shaken; a plurality of third protrusions 306b are provided in the threaded groove 306a of the rotating circular plate 306; a push rod 311 is fixedly connected to the upper side of the rear part of the circular storage plate 104, and each rotating circular plate 306 is at a different distance from the discharge plate 305, thereby stirring the titanium dioxide in different areas; the rotating circular plate 306 is provided with a slide-out groove 306c, and the push rod 311 disengages from the threaded groove 306a through the slide-out groove 306c.

[0064] It also includes a pushing assembly, which is connected to the rotating circular plate 306. The pushing assembly includes a silicone pushing plate 321 and a brush 322. Four silicone pushing plates 321 are fixedly connected to the outer side of the upper part of the rotating circular plate 306; four brushes 322 are fixedly connected to the outer side of the upper part of the rotating circular plate 306; the silicone pushing plates 321 are located above the screen 307a, and the brushes 322 are located below the screen 307a. The rotating circular plate 306 drives the brushes 322 to rotate, thereby causing the brushes 322 to push out the agglomerated titanium dioxide remaining on the screen 307a.

[0065] The specific working steps are:

[0066] When the titanium dioxide powder needs to be reused, the displayed titanium dioxide powder is poured into the storage portion 305a, and then the second silica gel desiccant 309 can dry it. The partition plate 101 can play a separating role to prevent the moist air in the lower part of the storage barrel 1 from flowing to the upper part of the storage barrel 1 during display and when the transparent circular plate 203 is dried, causing the titanium dioxide in the storage portion 305a to become damp again.

[0067] The salesperson will display titanium dioxide powder several times a day, so when the circular storage plate 104 shakes, the circular plate 306 will be rotated by the push rod 311 to shake together, thereby shaking the titanium dioxide powder in the storage part 305a, so that when pouring, the titanium dioxide powder accumulated in a certain place will flow to the area with less titanium dioxide powder, thereby preventing the accumulated titanium dioxide powder from drying slowly. When the circular storage plate 104 descends, the push rod 311 will be driven down, so that the push rod 311 pushes the threaded groove 306a downward, thereby causing the rotating circular plate 306 to rotate clockwise when viewed from above, thereby causing the push rod 311 to rotate and stir the titanium dioxide powder in the storage part 305a, so that the wet titanium dioxide powder is stirred, thereby shortening the drying time of the titanium dioxide powder. Stirring the titanium dioxide powder can avoid the titanium dioxide powder from clumping due to long-term drying, and at the same time The agglomerated titanium dioxide powder can be dispersed, and the distance between each rotating circular plate 306 and the discharge plate 305 is different, thereby stirring the titanium dioxide powder in different areas. When the circular storage plate 104 rises, the pushing rod 311 drives the rotating circular plate 306 to rotate counterclockwise from a top view, thereby stirring the titanium dioxide powder again. At the same time, when the pushing rod 311 pushes the rotating circular plate 306 to rotate, it is blocked by the third protrusion 306b. As the pushing rod 311 continues to descend, it pushes the third protrusion 306b backward, causing the rotating circular plate 306 to shake. When there is no need to discharge titanium dioxide powder, the circular storage plate 104 can be pushed up and down to achieve the effect of rotating and shaking the rotating circular plate 306. Therefore, the titanium dioxide powder can be stirred during transportation and storage, thereby accelerating the drying efficiency.

[0068] The screen 307a will screen the poured titanium dioxide to prevent the damp and agglomerated titanium dioxide from entering the storage part 305a, so that it will remain on the upper part of the screen 307a. When the rotating circular plate 306 rotates counterclockwise, it will drive the silicone pusher plate 321 and the brush 322 to rotate. When the silicone pusher plate 321 rotates, the agglomerated titanium dioxide left on the screen 307a will be pushed toward the discharge plate 305, and finally pushed to the angle between the silicone pusher plate 321 and the discharge plate 305. As the silicone pusher plate 321 rotates, it will squeeze the agglomerated titanium dioxide and spread it out, thereby making the agglomerated titanium dioxide The titanium dioxide powder is dried in a flat state, and the dried titanium dioxide powder may stick to the discharge plate 305. Therefore, when the rotating circular plate 306 drives the silicone pusher plate 321 to rotate clockwise, the silicone pusher plate 321 scrapes off the squeezed titanium dioxide powder to prevent the titanium dioxide powder from sticking. At the same time, the rotating circular plate 306 scrapes the titanium dioxide powder toward the screen 307a and then into the storage part 305a. When the brush 322 rotates, it pushes the titanium dioxide powder stuck in the holes of the screen 307a upward to separate from the screen 307a, thereby preventing the screen 307a from being blocked and causing qualified titanium dioxide powder to be unable to enter the storage part 305a.

[0069] When the titanium dioxide in the storage part 305a needs to be taken out, the push rod 311 is first moved to the lowest point, and then the bolt 303 is unscrewed. At this time, the circular connecting plate 302 and its related parts are picked up. At this time, the push rod 311 will be disengaged from the threaded groove 306a through the slide-out groove 306c, and then the titanium dioxide in the storage part 305a can be poured into the circular storage plate 104.

[0070] Those skilled in the art should understand that the above embodiments do not limit the present invention in any form, and any technical solutions obtained by equivalent replacement or equivalent transformation fall within the protection scope of the present invention.

Claims

1. A silica gel desiccant dehumidification box, comprising a storage barrel (1), a cover (2) and a handle (3); the storage barrel (1) is screwed with the cover (2) on the upper part; the cover (2) is fixed with the handle (3) on the upper part; the characteristics are: The invention also includes a partition plate (101), a push rod (102), a driving assembly, a shaking assembly, a circular material storage plate (104), a sealing cover (105), a first circular rotating plate (107) and a second circular rotating plate (108); a partition plate (101) is fixedly connected to the middle of the material storage barrel (1); a push rod (102) is fixedly connected to the left and right sides of the partition plate (101); the telescopic parts of all push rods (102) are commonly connected to the driving assembly, the driving assembly is connected to the shaking assembly, the shaking assembly is connected to the circular material storage plate (104), the shaking assembly is used to shake the circular material storage plate (104), and the upper part of the circular material storage plate (104) is screwed with the sealing cover (105); the driving assembly is connected to the first circular rotating plate (107), the driving assembly is used to drive the first circular rotating plate (107), the driving assembly is used to drive the first circular rotating plate (107), the driving assembly is used to drive the first circular rotating plate (107), the driving assembly is used to drive the first circular rotating plate (108) to rotate. The circular rotating plate (107) rotates; the lower portion of the circular material storage plate (104) is rotatably connected to a second circular rotating plate (108), and the second circular rotating plate (108) is located inside the first circular rotating plate (107); the circular material storage plate (104), the sealing cover (105) and the second circular rotating plate (108) form a relatively sealed space; the first circular rotating plate (107) is provided with a connecting groove (107a); a plurality of first discharge holes (108b) are equidistantly arranged on the front and rear sides of the second circular rotating plate (108); a plurality of second discharge holes (108c) are equidistantly arranged on the left and right sides of the second circular rotating plate (108); and the second circular rotating plate (108) is provided with four protrusions (108a) distributed in an X shape.

2. The silica gel desiccant dehumidification box according to claim 1, characterized in that: The invention also includes a slider (111), a tension spring (112), a stopper (113) and a torsion spring (114); the first circular rotating plate (107) is slidably connected to the front side and the rear side of each slider (111); at least three tension springs (112) are connected between each slider (111) and the first circular rotating plate (107); a sliding groove (108d) is provided on the front side and the rear side of the second circular rotating plate (108); half of the sliding groove (108d) is circular and the other half is linear; the slider (111) is connected to the front side and the rear side of each slider (111); ... 11) The upper portion is located in the sliding groove (108d); a stop block (113) is rotatably connected in each movable groove (108e) provided on the front and rear sides of the second circular rotating plate (108); a discharge port (108f) is provided on the front and rear sides of the second circular rotating plate (108); a torsion spring (114) is connected between the stop block (113) and the second circular rotating plate (108); the slider (111) is provided with a connecting port (111a); and the slider (111) is provided with a plurality of discharge holes (111b).

3. The silica gel desiccant dehumidification box according to claim 1, characterized in that: The shaking material assembly includes a first elastic member (121), a circular plate (122), a first protrusion (123) and a second protrusion (124); a plurality of first elastic members (121) are fixedly connected to the inner side of the connecting frame (103); all the first elastic members (121) are connected to the circular material storage plate (104); a circular plate (122) is fixedly connected to the outer edge area of ​​the second circular rotating plate (108); a plurality of first protrusions (123) are fixedly connected to the inner side of the circular plate (122), and a plurality of second protrusions (124) are fixedly connected to the outer side of the circular material storage plate (104), and the second protrusions (124) are flush with the first protrusions (123).

4. The silica gel desiccant dehumidification box according to claim 3, characterized in that: The invention also includes a lifting plate (4), a handle (5), a magnet (6) and a material receiving assembly; the front of the storage barrel (1) is slidably connected to the lifting plate (4); the lower part of the lifting plate (4) is fixedly connected to the handle (5); a magnet (6) is fixedly connected to the upper rear side and the lower rear side of the handle (5); a magnet (6) is fixedly connected to the lower front side and the middle front side of the storage barrel (1); and the storage barrel (1) is connected to a material receiving assembly for receiving discharged titanium dioxide.

5. The silica gel desiccant dehumidification box according to claim 4, characterized in that: The material receiving assembly comprises a material receiving platform (201), a second elastic member (202) and a transparent circular plate (203); the material receiving platform (201) is placed at the lower part of the material storage barrel (1); a plurality of second elastic members (202) are fixedly connected to the upper part of the material receiving platform (201); all the second elastic members (202) are fixedly connected to the transparent circular plate (203), and the transparent circular plate (203) is made of a soft material.

6. The silica gel desiccant dehumidification box according to claim 5, characterized in that: The material storage barrel (1) further comprises a limiting rod (204) and a first silica gel desiccant (205); at least three limiting rods (204) are fixedly connected to the rear side of the interior of the material storage barrel (1); the limiting rods (204) are plugged into the material receiving platform (201), and the material receiving platform (201) is positioned and limited by the limiting rods (204), so as to prevent the material receiving platform (201) from deviating from the material receiving position and to prevent the material receiving platform (201) from shaking during transportation; and a first silica gel desiccant (205) for drying the lower space of the material storage barrel (1) is bonded to the rear side of the interior of the material storage barrel (1).

7. A silica gel desiccant dehumidification box according to any one of claims 5-6, characterized in that: The device further comprises a lighting assembly, wherein the transparent circular plate (203) is connected to the lighting assembly; the lighting assembly comprises an elastic cloth (211) and a lighting lamp (212); the transparent circular plate (203) is fixedly connected to the elastic cloth (211); and a plurality of arc-shaped lighting lamps (212) are bonded to the elastic cloth (211).

8. The silica gel desiccant dehumidification box according to claim 7, characterized in that: The material storage barrel (1) is connected to the pre-drying assembly, and the pre-drying assembly includes a hollow fixed plate (301), a circular connecting plate (302), a bolt (303), a spring (304), a discharge plate (305), a rotating circular plate (306), a rotating frame (307), a discharge rack (308) and a second silica gel desiccant (309); the upper part of the material storage barrel (1) is fixed with the hollow fixed plate (301); a circular connecting plate (302) is placed on the hollow fixed plate (301), the hollow fixed plate (301) and the circular connecting plate (302) are connected together by a bolt (303), and the inner side of the circular connecting plate (302) is fixed with a hollow fixed plate (301); A plurality of springs (304) are connected, and all the springs (304) are fixedly connected to a discharge plate (305); a rotating circular plate (306) is rotatably connected to the inner side of the discharge plate (305); the discharge plate (305) and the rotating circular plate (306) together form a material storage portion (305a); a rotating frame (307) is fixedly connected to the upper part of the discharge plate (305); the rotating frame (307) is rotatably connected to the rotating circular plate (306); the rotating frame (307) is provided with a screen (307a); a discharge rack (308) is fixedly connected to the left side and the right side of the lower part of the cover (2); and each discharge rack (308) is respectively provided with a second silica gel desiccant (309).

9. The silica gel desiccant dehumidification box according to claim 8, characterized in that: The invention also includes a stirring assembly, wherein the circular material storage plate (104) and the rotating circular plate (306) are connected to the stirring assembly; the stirring assembly includes a push rod (311) and a push rod (312); the rotating circular plate (306) is provided with a threaded groove (306a), the rear portion of the push rod (311) is located in the threaded groove (306a), and the push rod (311) contacts the rotating circular plate (306); a plurality of third protrusions (306b) are provided in the threaded groove (306a) of the rotating circular plate (306); the rear portion of the circular material storage plate (104) is fixedly connected to the push rod (311); and the rotating circular plate (306) is provided with a slide-out groove (306c).

10. The silica gel desiccant dehumidification box according to claim 9, characterized in that: The invention also includes a pushing assembly, the rotating circular plate (306) is connected to the pushing assembly, and the pushing assembly includes a silicone pushing plate (321) and a brush (322); at least four silicone pushing plates (321) are fixedly connected to the upper part of the rotating circular plate (306); at least four brushes (322) are fixedly connected to the outer side of the upper part of the rotating circular plate (306); the silicone pushing plates (321) are located above the screen (307a), and the brushes (322) are located below the screen (307a).

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