Stirring device with tapered groove bottom

Abstract

The utility model discloses a stirring device with a tapered groove bottom. The stirring device comprises a groove unit, a displacement unit and a vertical stirring unit, the tank unit is provided with a tank opening, a tapered tank bottom, a first end, a second end, a stirring space and a group of tank rails. The groove track is erected in the groove opening and located between the first end and the second end. The displacement unit is erected on the group of groove rails, and the vertical stirring unit is erected on the displacement unit and extends from the groove opening to the direction of the tapered groove bottom. When a to-be-stirred object is fed into the stirring space, the displacement unit can be controlled to bear the vertical stirring unit to move between the first end and the second end, and meanwhile, the vertical stirring unit is controlled to stir the to-be-stirred object, so that the to-be-stirred object is repeatedly stirred in the stirring direction; and the to-be-stirred material is continuously guided by the tapered groove bottom to move towards the vertical stirring unit along the guide direction, so that the stirring probability is improved. According to the scheme, the tapered groove bottom can guide the to-be-stirred object to improve the stirring efficiency, and the auxiliary driving design is adopted to improve the displacement efficiency.

Description

Technical Field

[0001] The utility model relates to a stirring device with a tapered groove bottom, in particular to a stirring device with a tapered groove bottom which can guide the stirred object to improve the stirring efficiency and has an auxiliary driving design to improve the displacement efficiency. Background Art

[0002] The conventional stirring device (such as the slide rail stirring device of Taiwan Patent No. M583330) mainly comprises a containing unit, a crane unit and a stirring unit. The stirring unit is driven by the crane unit to move back and forth in the containing unit for stirring.

[0003] The above-mentioned known device causes the following problems:

[0004] [1] The bottom of the containing unit has no tapered design and cannot be guided. The bottom of the containing unit of the known device is designed to be flat, so that the material to be stirred is continuously dispersed during the stirring process of the stirring unit and cannot be guided to the stirring unit. As a result, the stirring unit "must" continuously move toward the X-axis or Y-axis in the containing unit to stir the dispersed material to be stirred, which is very time-consuming and has low stirring efficiency.

[0005] [2] The stirring unit is not vertical and must be repeatedly raised and lowered, which is quite inconvenient. The conventional stirring unit is of "horizontal" design. Such a design can still meet the stirring requirements when there are fewer materials to be stirred (which may only be distributed at the bottom of the containing unit). However, when there are more materials to be stirred, the stirring unit may not only "need" to be continuously moved along the X-axis or Y-axis in the containing unit, but also must be raised and lowered along the Z-axis direction in order to fully achieve stirring. Therefore, the stirring unit is not vertical and must be repeatedly raised and lowered, which is quite inconvenient.

[0006] In view of this, it is necessary to develop a technology that can solve the above-mentioned existing shortcomings. Utility Model Content

[0007] In order to solve the problems that the bottom of the accommodating unit has no tapered design and cannot be guided, and the stirring unit is not vertical and needs to be repeatedly lifted and lowered, which is quite inconvenient, the utility model provides a stirring device with a tapered groove bottom, which has the advantages of the tapered groove bottom that can guide the object to be stirred to improve the stirring efficiency, and has an auxiliary drive design to improve the displacement efficiency.

[0008] The technical solution adopted by the utility model to solve its technical problems is:

[0009] A stirring device with a tapered groove bottom, comprising:

[0010] A slot unit, comprising a slot body and a set of slot rails; the slot body and the set of slot rails both extend along the slot direction; the slot body comprises a slot opening, a tapered slot bottom, a first end, a second end and a stirring space; the stirring space is between the slot opening, the tapered slot bottom, the first end and the second end; the set of slot rails is mounted on the slot opening, parallel to the slot direction, and distributed between the first end and the second end along the slot direction;

[0011] A displacement unit is mounted on the slot unit, the displacement unit comprising a displacement body, a set of displacement components and a power component; the displacement body is mounted on the slot body near the slot opening, the set of displacement components are arranged on both sides of the displacement body corresponding to the set of slot tracks; the power component is used to drive the set of displacement components so that the displacement unit passes through the set of slot tracks and moves relative to the slot unit along the long slot direction; and

[0012] A vertical stirring unit is mounted on the displacement unit, and includes a stirring power assembly, a stirring shaft and stirring blades; the stirring power assembly is mounted on the displacement body and adjacent to the slot, the stirring shaft is pivoted on the stirring power assembly at one end and extends toward the bottom of the tapered groove at the other end, and the stirring blades are distributed on the stirring shaft from the slot toward the bottom of the tapered groove;

[0013] Thereby, when the stirring space is used to supply the object to be stirred, the power component and the stirring power component are started, and the power component drives the group of displacement components, and the displacement body moves relative to the group of groove tracks through the group of displacement components, thereby causing the displacement unit and the groove unit to move relative to each other, and can drive the vertical stirring unit to move between the first end and the second end; during the displacement process, the stirring power component drives the stirring shaft, and the stirring shaft drives the stirring blade to stir the object to be stirred, and the object to be stirred is repeatedly stirred by the stirring blade along the stirring direction, and the object to be stirred is continuously guided by the tapered groove bottom and moves toward the stirring blade along the guiding direction, thereby increasing the probability of being stirred.

[0014] The beneficial effect of the utility model is that it has the advantages of the tapered groove bottom that can guide the material to be stirred to improve the stirring efficiency, and the auxiliary drive design that can improve the displacement efficiency. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] The utility model is further described below in conjunction with the accompanying drawings and embodiments.

[0016] Figure 1 It is a schematic diagram of the utility model.

[0017] Figure 2 yes Figure 1 A partial enlarged schematic diagram of the structure.

[0018] Figure 3It is a schematic diagram of the utility model in which the tapered groove bottom guides the object to be stirred to move along the guiding direction toward the stirring blade.

[0019] Figure 4 It is a schematic diagram of the vertical stirring unit of the utility model stirring between the first and second ends.

[0020] Description of the numbers in the figure:

[0021] 10 slot unit 11 slot body

[0022] 111 notch 112 tapered groove bottom

[0023] 113 first end 114 second end

[0024] 115 mixing space 12 slot track

[0025] 20 displacement unit 21 displacement body

[0026] 22 displacement component 23 power component

[0027] 231 displacement electric motor 232 displacement reduction device

[0028] 30 vertical stirring unit 31 stirring power assembly

[0029] 32 stirring shaft 33 stirring blade

[0030] 40 auxiliary drive unit 41 first auxiliary power assembly

[0031] 42 second auxiliary power assembly 43 first driving wheel

[0032] 44 second driving wheel 45 first driving cable

[0033] 46 second driving cable 91 to be stirred

[0034] X trough direction M stirring direction

[0035] Q Guidance direction DETAILED DESCRIPTION

[0036] See also Figure 1 , Figure 2 and Figure 3 The utility model is a stirring device with a tapered groove bottom, which comprises:

[0037] The tank unit 10 has a tank body 11 and a group of tank rails 12; the tank body 11 and the group of tank rails 12 are both extended along the long tank direction X; the tank body 11 has a notch 111, a tapered tank bottom 112 (which can be regarded as a slightly V-shaped structure, or a pair of tapered tank bottoms 112, respectively located on both sides of the tank body 11, and a simple change in quantity does not deviate from the scope of protection of this case), a first end 113, a second end 114 and a stirring space 115. The stirring space 115 is between the notch 111, the tapered tank bottom 112, the first end 113 and the second end 114. The group of tank rails 12 are mounted on the notch 111, parallel to the long tank direction X, and distributed between the first end 113 and the second end 114 along the long tank direction X.

[0038] The displacement unit 20 is mounted on the slot unit 10, and includes a displacement body 21, a set of displacement components 22, and a power component 23. The displacement body 21 is mounted on the slot body 11 near the slot opening 111, and the set of displacement components 22 are arranged on both sides of the displacement body 21 corresponding to the set of slot rails 12; the power component 23 is used to drive the set of displacement components 22, so that the displacement unit 20 passes through the set of slot rails 12 and moves relative to the slot unit 10 along the long slot direction X.

[0039] The vertical stirring unit 30 is mounted on the displacement unit 20, and includes a stirring power assembly 31, a stirring shaft 32, and stirring blades 33. The stirring power assembly 31 is mounted on the displacement body 21 and is adjacent to the slot 111. The stirring shaft 32 is pivoted at one end to the stirring power assembly 31 and extends toward the tapered groove bottom 112 at the other end. The stirring blades 33 are distributed on the stirring shaft 32 from the slot 111 toward the tapered groove bottom 112.

[0040] Thus, when the stirring space 115 is used to supply the stirring object 91 (such as Figure 3 and Figure 4 As shown in the figure, the power assembly 23 and the stirring power assembly 31 are started, and the power assembly 23 drives the displacement assembly 22, and the displacement body 21 moves relative to the groove track 12 through the displacement assembly 22, thereby causing the displacement unit 20 and the groove unit 10 to move relative to each other, and the vertical stirring unit 30 can be driven to move between the first end 113 and the second end 114. During the displacement process, the stirring power assembly 31 drives the stirring shaft 32, and the stirring shaft 32 drives the stirring blade 33 to stir the object 91 to be stirred, and the object 91 to be stirred is repeatedly stirred by the stirring blade 33 along the stirring direction M. And the object 91 to be stirred is continuously guided by the tapered groove bottom 112 and moves toward the stirring blade 33 along the guiding direction Q, thereby increasing the probability of being stirred.

[0041] In practice, the set of groove tracks 12 may be a track structure;

[0042] The set of displacement components 22 corresponds to the track structure and can be a wheel structure.

[0043] The groove track 12 may be a rack structure (known technology, not shown in the figure, but explained first);

[0044] The displacement assembly 22 corresponds to the rack structure and can be a gear structure (similarly, the corresponding matching of the gear and the rack is a very common known technology, which is not shown in the drawings and will be described first).

[0045] The power assembly 23 may include a displacement electric motor 231 and a displacement reduction device 232;

[0046] The displacement electric motor 231 is connected to and drives the displacement reduction device 232;

[0047] The displacement deceleration device 232 decelerates the power of the displacement electric motor 231 and drives the displacement assembly 22; and

[0048] The displacement assembly 22 carries the displacement unit 20 and moves relative to the groove rails 12 .

[0049] Further, the stirring device with a tapered bottom may further include:

[0050] The auxiliary driving unit 40 includes a first auxiliary power assembly 41 , a second auxiliary power assembly 42 , a first driving wheel 43 , a second driving wheel 44 , a first driving cable 45 and a second driving cable 46 .

[0051] The first auxiliary power component 41 is disposed on one side of the displacement body 21 and faces the first end 113 ; the first auxiliary power component 41 may be an electric motor (possibly with a speed adjustment device).

[0052] The second auxiliary power component 42 is disposed on the other side of the displacement body 21 and faces the second end 114. The second auxiliary power component 42 can be an electric motor (possibly with a speed adjustment device).

[0053] The first driving wheel 43 corresponds to the first auxiliary power assembly 41 and is disposed on the side of the displacement body 21 and faces the first end 113 . The first driving wheel 43 is driven by the first auxiliary power assembly 41 to perform either forward rotation or reverse rotation.

[0054] The second driving wheel 44 corresponds to the second auxiliary power assembly 42 and is disposed on the other side of the displacement body 21 and faces the second end 114 . The second driving wheel 44 is driven by the second auxiliary power assembly 42 to perform either forward rotation or reverse rotation.

[0055] The first driving cable 45 has one end wound around the first driving wheel 43 and the other end fixed to the first end 113 .

[0056] The second driving cable 46 is wound around the second driving wheel 44 at one end and fixed to the second end 114 at the other end.

[0057] Furthermore, no matter they are rotating forward or reverse at the same time, one of the first driving wheel 43 and the second driving wheel 44 must be used for collecting the rope while the other one must be used for releasing the rope.

[0058] This allows the following two auxiliary drives to be implemented:

[0059] [a] Assisting in driving the displacement unit 20 to move from the second end 114 to the first end 113:

[0060] First, the first driving cable 45 is pulled out of the first driving wheel 43 , and the second driving cable 46 is reeled into the second driving wheel 44 .

[0061] Next, the first auxiliary power assembly 41 is used to control the first driving wheel 43 to rotate forward (rotate to collect the cable); the first driving wheel 43 reels in the first driving cable member 45;

[0062] At the same time, the second auxiliary power assembly 42 controls the second driving wheel 44 to rotate forward at the same speed (rotate to release the rope), and the second driving wheel 44 releases the second driving rope 46 (of course, it can also be not driven, and simply let the second driving rope 46 be automatically pulled open).

[0063] In this way, the displacement unit 20 can be driven to move from the second end 114 toward the first end 113 .

[0064] [b] Assisting in driving the displacement unit 20 to move from the first end 113 to the second end 114:

[0065] First, the second driving cable 46 is pulled out of the second driving wheel 44 , and the first driving cable 45 is reeled into the first driving wheel 43 .

[0066] Next, the second auxiliary power assembly 42 is used to control the second driving wheel 44 to reverse (rotate and retract the cable); the second driving wheel 44 retracts the second driving cable member 46;

[0067] At the same time, the first auxiliary power assembly 41 controls the first driving wheel 43 to reverse at the same speed (rotate to release the rope), and the first driving wheel 43 releases the first driving rope 45 (of course, it can also be not driven, and simply let the first driving rope 45 be automatically pulled apart).

[0068] In this way, the displacement unit 20 can be driven to move from the first end 113 toward the second end 114 .

[0069] The main focus of this case is:

[0070] [a] Vertical and movable stirring:

[0071] See also Figure 4 When the power assembly 23 and the stirring power assembly 31 are started, then:

[0072] The power assembly 23 drives the displacement assembly 22 to move the displacement unit 20 and the tank unit 10 relative to each other, thereby driving the vertical stirring unit 30 between the first end 113 and the second end 114 ( Figure 4 The single direction arrow is for illustration only and actually moves back and forth).

[0073] During the displacement process, the stirring power assembly 31 synchronously drives the stirring shaft 32, thereby driving the stirring blade 33 from the slot 111 to the position of the tapered groove bottom 112 (vertical stirring) (without lifting or lowering), thereby stirring the object 91 to be stirred, and the object 91 to be stirred is repeatedly stirred by the stirring blade 33 along the stirring direction M.

[0074] [b] Can guide the material to be stirred: see Figure 3 The object 91 to be stirred is continuously guided by the tapered groove bottom 112 and moves along the guiding direction Q toward the stirring blade 33 , thereby increasing the probability of being stirred.

[0075] The advantages and effects of the utility model can be summarized as follows:

[0076] [1] The tapered groove bottom can guide the material to be stirred and improve the stirring efficiency. The tapered groove bottom is tapered from the groove opening toward the bottom of the groove body, and the stirring blades are distributed on the stirring shaft from the groove opening toward the tapered groove bottom. Such a design allows the material to be stirred to be continuously guided by the tapered groove bottom and move along the guiding direction toward the stirring blades, greatly increasing the probability of being stirred. Therefore, the tapered groove bottom can guide the material to be stirred and improve the stirring efficiency.

[0077] [2] The auxiliary design can improve the displacement efficiency. When there are many materials to be stirred in the stirring space, which may form resistance to the vertical stirring unit or the displacement unit, the auxiliary drive unit can be used to auxiliary drive (pull) the displacement unit to move between the first end and the second end, thereby indirectly reducing the resistance to the displacement of the vertical stirring unit. Therefore, the auxiliary drive design can improve the displacement efficiency.

[0078] The above description is only a preferred embodiment of the present invention and does not constitute any form of limitation to the present invention. Any simple modification, equivalent changes and modifications made to the above embodiments based on the technical essence of the present invention still fall within the scope of the technical solution of the present invention.

Claims

1. A stirring device with a tapered bottom, characterized in that: include: A slot unit, comprising a slot body and a set of slot rails; the slot body and the set of slot rails both extend along the slot direction; the slot body comprises a slot opening, a tapered slot bottom, a first end, a second end and a stirring space; the stirring space is between the slot opening, the tapered slot bottom, the first end and the second end; the set of slot rails is mounted on the slot opening, parallel to the slot direction, and distributed between the first end and the second end along the slot direction; A displacement unit is mounted on the slot unit, and includes a displacement body, a set of displacement components and a power component; the displacement body is mounted on the slot body near the slot opening, and the set of displacement components are arranged on both sides of the displacement body corresponding to the set of slot tracks; the power component is used to drive the set of displacement components so that the displacement unit passes through the set of slot tracks and moves relative to the slot unit along the long slot direction; and A vertical stirring unit is mounted on the displacement unit, and includes a stirring power assembly, a stirring shaft and stirring blades; the stirring power assembly is mounted on the displacement body and adjacent to the slot, the stirring shaft is pivoted on the stirring power assembly at one end and extends toward the bottom of the tapered groove at the other end, and the stirring blades are distributed on the stirring shaft from the slot toward the bottom of the tapered groove; Thereby, when the stirring space is used to supply the object to be stirred, the power component and the stirring power component are started, and the power component drives the group of displacement components, and the displacement body moves relative to the group of groove tracks through the group of displacement components, thereby causing the displacement unit and the groove unit to move relative to each other, and can drive the vertical stirring unit to move between the first end and the second end; during the displacement process, the stirring power component drives the stirring shaft, and the stirring shaft drives the stirring blade to stir the object to be stirred, and the object to be stirred is repeatedly stirred by the stirring blade along the stirring direction, and the object to be stirred is continuously guided by the tapered groove bottom and moves toward the stirring blade along the guiding direction, thereby increasing the probability of being stirred.

2. The stirring device with a tapered groove bottom according to claim 1, characterized in that: The group of groove tracks is a track structure; This group of displacement components corresponds to the track structure and is a wheel structure.

3. The stirring device with a tapered groove bottom according to claim 1, characterized in that: The group of groove tracks is a rack structure; The displacement assembly corresponds to the rack structure, which is a gear structure.

4. The stirring device with a tapered bottom according to claim 2 or 3, characterized in that: The power assembly includes a displacement electric motor and a displacement reduction device; The displacement electric motor is connected to and drives the displacement reduction device; The displacement deceleration device decelerates the power of the displacement electric motor and then drives the displacement assembly; and The group of displacement components carries the displacement unit and moves relative to the group of slot tracks.

5. The stirring device with a tapered groove bottom according to claim 4, characterized in that: Also includes: An auxiliary drive unit, comprising a first auxiliary power assembly, a second auxiliary power assembly, a first drive wheel, a second drive wheel, a first drive cable and a second drive cable; The first auxiliary power assembly is disposed on one side of the displacement body and faces the first end; The second auxiliary power assembly is disposed on the other side of the displacement body and faces the second end; The first driving wheel corresponds to the first auxiliary power assembly and is disposed on the side of the displacement body and faces the first end. The first driving wheel is driven by the first auxiliary power assembly to perform one of forward and reverse rotations. The second driving wheel corresponds to the second auxiliary power assembly and is disposed on the other side of the displacement body and faces the second end. The second driving wheel is driven by the second auxiliary power assembly to perform one of forward and reverse rotations. The first driving cable is wound around the first driving wheel at one end and fixed to the first end at the other end; The second driving cable is wound around the second driving wheel at one end and fixed to the second end at the other end; Furthermore, one of the first driving wheel and the second driving wheel is used for rotating the cable collection, and the other is used for rotating the cable release; Thus, when the first driving cable is pulled out of the first driving wheel and the second driving cable is reeled into the second driving wheel, the first auxiliary power component controls the first driving wheel to rotate forward to reel in the cable; the first driving wheel reels in the first driving cable; at the same time, the second auxiliary power component controls the second driving wheel to rotate forward at the same speed to release the cable, and the second driving wheel releases the second driving cable; thus, the displacement unit can be auxiliary driven to move from the second end toward the first end; When the second driving cable is pulled out of the second driving wheel, the first driving cable is reeled into the first driving wheel; The second auxiliary power component is used to control the second driving wheel to reversely collect the cable, and the second driving wheel reels the second driving cable; at the same time, the first auxiliary power component is used to control the first driving wheel to reversely release the cable at the same speed, and the first driving wheel releases the first driving cable; thus, the displacement unit can be auxiliary driven to move from the first end toward the second end.

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