A device for generating a neutralized chlorinated sucralose solution

Abstract

The utility model relates to a kind of neutralization chloro-sucrose chlorination liquid's generating device, including reaction tank, stirring mechanism is rotated in reaction tank, driving mechanism is equipped on reaction tank, and driving stirring mechanism reciprocating rotation;A plurality of stirring plates are hinged on stirring mechanism, and the movement track of fixed setting of stirring plate on stirring mechanism is crossed with limiting protrusion, limiting protrusion is located at the two sides of stirring plate, and the included angle formed by the end of two limiting protrusions around the hinged axis of stirring plate is less than 180 °;The utility model drives stirring mechanism reciprocating rotation by driving mechanism, stirring plate automatically changes orientation with the change of the rotating direction of stirring mechanism, to increase the eddy disturbance, and then increase mixing efficiency, simple and efficient, safe and reliable.

Description

Technical Field

[0001] This utility model relates to the field of chemical equipment technology, and in particular to a device for generating chlorinated sucralose solution for neutralization. Background Technology

[0002] Sucralose is a synthetic high-intensity sweetener, approximately 600 times sweeter than sucrose, and has zero calories and is not metabolized. It is widely used in low-calorie products such as beverages and baked goods. In the production of sucralose, chlorination liquid and ammonia water need to be mixed and neutralized. Existing neutralization devices often use a stirring mechanism to ensure uniform mixing of the chlorination liquid and ammonia water. However, during stirring, the stirring mechanism typically rotates in a fixed direction and speed, causing the mixture to rotate along with the stirring mechanism, forming eddies and reducing mixing efficiency. Utility Model Content

[0003] This invention addresses the shortcomings of existing technologies by providing a device for generating neutralized sucralose chlorination solution. This device uses a drive mechanism to drive a stirring mechanism to rotate reciprocally, and the stirring plate automatically changes its orientation as the stirring mechanism rotates, thereby increasing the eddy current disturbance and thus increasing the mixing efficiency. It is simple, efficient, safe, reliable, and easy to operate.

[0004] This utility model is achieved through the following technical solution: a device for generating chlorinated sucralose solution, comprising a reaction tank, inside which a stirring mechanism is mounted; a drive mechanism is provided on the reaction tank to drive the stirring mechanism to reciprocate; several stirring plates are hinged to the stirring mechanism; limiting protrusions intersecting the movement trajectory of the stirring plates are fixed on the stirring mechanism; the limiting protrusions are located on both sides of the stirring plates, and the included angle formed by the ends of the two limiting protrusions around the hinge axis of the stirring plates is less than 180°; the stirring mechanism is driven to reciprocate through the drive mechanism, and the stirring plates automatically change their orientation as the direction of rotation of the stirring mechanism changes, thereby increasing the eddy current disturbance and thus increasing the mixing efficiency.

[0005] As an optimization, the stirring mechanism includes a rotating shaft A and a rotating shaft B coaxially mounted inside the reaction vessel. The rotating shaft A and the rotating shaft B are connected to the drive mechanism through a reverse transmission mechanism. A stirring rod A is provided on the rotating shaft A, and a stirring rod B is provided on the rotating shaft B. The stirring rods A and B are arranged alternately along the radial direction of the stirring mechanism. The reverse rotation of the stirring rods A and B increases the turbulence efficiency, thereby increasing the mixing efficiency.

[0006] As an optimization, the stirring plates are hinged to stirring rod A, stirring rod B, and rotating shaft A respectively; the stirring plates on stirring rod A, stirring rod B, and rotating shaft A reciprocate to guide the flow direction of the mixture, thereby increasing the mixing efficiency.

[0007] As an optimization, the rotating shaft B and the stirring rod B are connected to a cavity structure, and the rotating shaft B is connected to a liquid inlet pipe, while the stirring rod B has several liquid outlets; the liquid is uniformly input through the liquid outlets during the stirring process of the stirring rod B, thereby increasing the mixing efficiency.

[0008] As an optimization, the stirring plate is provided with several through holes, and the stirring surfaces on both sides of the stirring plate are penetrated through the through holes; the mixture is dispersed through the through holes on the stirring plate to accelerate the mixing of the mixture.

[0009] The beneficial effects of this utility model are as follows: the driving mechanism drives the stirring mechanism to rotate back and forth, and the stirring plate automatically changes its orientation as the stirring mechanism rotates. The stirring rods A and B and the stirring plate on the rotating shaft A guide the flow direction of the mixed liquid, thereby increasing the eddy disturbance and thus increasing the mixing efficiency. The liquid is evenly input through the outlet during the stirring process of the stirring rod B, thereby increasing the mixing efficiency. The mixed liquid is dispersed through the through holes on the stirring plate, which accelerates the mixing of the mixed liquid. Attached Figure Description

[0010] Figure 1 This is a schematic diagram of the internal structure of this utility model;

[0011] Figure 2 for Figure 1 A schematic diagram of the structure at point A;

[0012] Figure 3 This is a cross-sectional view of the stirring rod B of this utility model;

[0013] As shown in the figure:

[0014] 1. Reaction vessel; 2. Stirring mechanism; 3. Drive mechanism; 4. Stirring plate; 5. Limiting protrusion; 6. Liquid inlet pipe; 7. Liquid outlet; 101. Feed inlet; 102. Discharge outlet; 201. Rotating shaft A; 202. Rotating shaft B; 203. Stirring rod A; 204. Stirring rod B; 301. Gear A; 302. Gear B; 303. Gear C; 401. Through hole. Detailed Implementation

[0015] To clearly illustrate the technical features of this solution, the following detailed implementation method will be used to explain the solution.

[0016] like Figures 1-3The apparatus for generating chlorinated sucralose solution according to this invention includes a reaction tank 1, with a stirring mechanism 2 rotating inside the reaction tank 1. A drive mechanism 3 is provided on the reaction tank 1 to drive the stirring mechanism 2 to reciprocate. Several stirring plates 4 are hinged to the stirring mechanism 2. Limiting protrusions 5 are fixed on the stirring mechanism 2, intersecting the movement trajectories of the stirring plates 4. The limiting protrusions 5 are located on both sides of the stirring plates 4, and the included angle formed by the ends of the two limiting protrusions 5 around the hinge axis of the stirring plates 4 is less than 180°. The reaction tank 1 has an inlet 101 and an outlet 102. The drive mechanism 3 is existing technology and can be a reversible motor. The axis of the stirring mechanism 2 extends vertically, and the hinge axis of the stirring plates 4 also extends vertically.

[0017] Chlorine solution and ammonia water are introduced into reaction tank 1. Drive mechanism 3 is started. Drive mechanism 3 drives stirring mechanism 2 to rotate back and forth in reaction tank 1. Stirring plate 4 automatically changes orientation as stirring mechanism 2 rotates. At the same time, stirring mechanism 2 drives stirring plate 4 to stir the mixture in reaction tank 1 back and forth.

[0018] like Figure 1 The stirring mechanism 2 shown includes a rotating shaft A201 and a rotating shaft B202 coaxially mounted inside the reaction vessel 1. The rotating shafts A201 and B202 are connected to the drive mechanism 3 via a reverse transmission mechanism. A stirring rod A203 is mounted on rotating shaft A201, and a stirring rod B204 is mounted on rotating shaft B202. The stirring rods A203 and B204 are arranged alternately along the radial direction of the stirring mechanism 2. The rotating shafts A201 and B202 extend vertically. 3 and stirring rod B204 extend vertically; the reverse transmission mechanism is prior art, and the reverse transmission mechanism includes gear A301 coaxially fixed to rotating shaft A201, gear B302 coaxially fixed to rotating shaft B202, and gear C303 coaxially fixed to the output end of drive mechanism 3. Gear A301 and gear B302 are respectively meshed on both sides of gear C303; rotating shaft A201 is a cylindrical structure, and rotating shaft A201 is sleeved on rotating shaft B202.

[0019] Start the drive mechanism 3. The drive mechanism 3 drives the rotating shafts A201 and B202 to rotate in opposite directions through the reverse transmission mechanism. The rotating shafts A201 and B202 drive the stirring rods A203 and B204 to rotate in opposite directions synchronously. The stirring rods A203 and B204 reciprocate to stir the mixture.

[0020] like Figure 1 The stirring plate 4 shown is hinged to the stirring rod A203, stirring rod B204 and rotating shaft A201 respectively.

[0021] Rotating shafts A201 and B202 drive stirring rods A203 and B204 to rotate synchronously in opposite directions. Rotating shafts A201, stirring rods A203 and B204 drive stirring plate 4 to rotate. Stirring plate 4 automatically changes its orientation as the rotation direction of rotating shafts A201, stirring rods A203 and B204 changes. Stirring plate 4 on stirring rod B204 drives the mixture to flow along the trajectory of rotating shafts A201 and stirring rods A203. Stirring plate 4 on rotating shafts A201 and stirring rods A203 drives the mixture to flow along the trajectory of stirring rod B204.

[0022] like Figure 1 The rotating shaft B202 and the stirring rod B204 shown are connected cavity structures, and the rotating shaft B202 is connected to the liquid inlet pipe 6, and the stirring rod B204 has several liquid outlets 7.

[0023] Chlorine solution is introduced into reaction tank 1, and ammonia water is supplied to the rotating shaft B202 through the inlet pipe 6. The ammonia water in the rotating shaft B202 passes through the stirring rod B204 and enters the reaction tank 1 through the outlet 7. The rotating shaft B202 drives the stirring rod B204 to rotate, and the stirring rod B204 drives the outlet 7 to rotate in the reaction tank 1. The ammonia water in the stirring rod B204 enters the reaction tank 1 evenly through the outlet 7.

[0024] like Figure 1 The stirring plate 4 shown has several through holes 401, and the stirring surfaces on both sides of the stirring plate 4 are penetrated through the through holes 401.

[0025] The rotating shaft A201, stirring rod A203 and stirring rod B204 drive the stirring plate 4 to rotate. The stirring plate 4 automatically changes its orientation as the rotating shaft A201, stirring rod A203 and stirring rod B204 change their rotation direction. The stirring plate 4 stirs the mixture. Part of the mixture on the movement trajectory of the stirring plate 4 passes through the through hole 401, and the remaining mixture on the movement trajectory of the stirring plate 4 flows along the orientation of the stirring plate 4.

[0026] In actual production, chlorination liquid is introduced into reaction tank 1, and ammonia water is supplied to the rotating shaft B202 through the inlet pipe 6. The ammonia water in the rotating shaft B202 passes through the stirring rod B204 and enters the reaction tank 1 through the outlet 7. The drive mechanism 3 is started, and the drive mechanism 3 drives the rotating shafts A201 and B202 to rotate in opposite directions through the reverse transmission mechanism. The rotating shafts A201 and B202 drive the stirring rods A203 and B204 to rotate synchronously in opposite directions. The rotating shafts A201, stirring rods A203 and B204 drive the stirring plate 4 to rotate. The stirring plate 4 rotates with the rotating shafts A201 and B204. The rotation direction of A203 and stirring rod B204 automatically changes their orientation. Stirring plate 4 agitates the mixture. Part of the mixture on the movement trajectory of stirring plate 4 passes through through hole 401. Stirring plate 4 on stirring rod B204 drives the remaining mixture to flow towards the movement trajectory of rotating shaft A201 and stirring rod A203. Stirring plate 4 on rotating shaft A201 and stirring rod A203 drives the remaining mixture to flow towards the movement trajectory of stirring rod B204. At the same time, stirring rod B204 drives outlet 7 to rotate inside reaction tank 1. Ammonia water in stirring rod B204 enters reaction tank 1 evenly through outlet 7.

[0027] Of course, the above description is not limited to the examples above. Technical features of this utility model not described can be implemented by or using existing technology, and will not be repeated here. The above embodiments and drawings are only used to illustrate the technical solution of this utility model and are not intended to limit this utility model. This utility model has been described in detail with reference to preferred embodiments. Those skilled in the art should understand that any changes, modifications, additions or substitutions made by those skilled in the art within the scope of this utility model do not depart from the spirit of this utility model and should also fall within the protection scope of the claims of this utility model.

Claims

1. A device for generating chlorinated sucralose solution, comprising a reaction vessel (1), wherein a stirring mechanism (2) is provided inside the reaction vessel (1); characterized in that: The reaction vessel (1) is equipped with a drive mechanism (3) that drives the stirring mechanism (2) to rotate back and forth. Several stirring plates (4) are hinged on the stirring mechanism (2). The stirring mechanism (2) is fixed with a limiting protrusion (5) that intersects the movement trajectory of the stirring plate (4). The limiting protrusion (5) is located on both sides of the stirring plate (4), and the angle formed by the ends of the two limiting protrusions (5) around the hinge axis of the stirring plate (4) is less than 180°.

2. The apparatus for generating neutralized sucralose chlorination solution according to claim 1, characterized in that: The stirring mechanism (2) includes a rotating shaft A (201) and a rotating shaft B (202) coaxially mounted in the reaction vessel (1). The rotating shaft A (201) and the rotating shaft B (202) are connected to the drive mechanism (3) through a reverse transmission mechanism. A stirring rod A (203) is provided on the rotating shaft A (201), and a stirring rod B (204) is provided on the rotating shaft B (202). The stirring rods A (203) and B (204) are arranged alternately along the radial direction of the stirring mechanism (2).

3. The apparatus for generating neutralized sucralose chlorination solution according to claim 2, characterized in that: The stirring plate (4) is hinged to the stirring rod A (203), stirring rod B (204) and rotating shaft A (201) respectively.

4. The apparatus for generating neutralized sucralose chlorination solution according to claim 1, characterized in that: The rotating shaft B (202) and the stirring rod B (204) are connected cavity structures, and the rotating shaft B (202) is connected to the liquid inlet pipe (6), and the stirring rod B (204) is provided with several liquid outlets (7).

5. The apparatus for generating neutralized sucralose chlorination solution according to claim 1, characterized in that: The stirring plate (4) has several through holes (401), and the stirring surfaces on both sides of the stirring plate (4) are penetrated through the through holes (401).

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