Ammonia water cooler

Abstract

The utility model relates to the field of saccharin sodium production, in particular to an ammonia water cooler which comprises a cooling assembly, a temperature control assembly is arranged at one end of the cooling assembly and comprises a liquid mixing cavity, a first connecting port is formed in the side face of one end of the liquid mixing cavity, and a second connecting port is formed in the top of one end of the liquid mixing cavity. The first connector is communicated with a first flow pump, a first input connector is arranged at the input end of the first flow pump, a first temperature sensor is arranged in the middle of the first input connector, the first input connector is communicated with the output end of the cooling assembly, and the second connector is communicated with a second flow pump. A second input connector is arranged at the input end of the second flow pump, and a second temperature sensor is arranged in the middle of the second input connector, so that the effects of accurately controlling the cooling temperature of the ammonia water and being beneficial to improving the product quality of saccharin sodium production are achieved.

Description

Technical Field

[0001] The present application relates to the field of saccharin sodium production, and particularly to an ammonia water cooler. Background Art

[0002] Saccharin sodium is an artificial sweetener with a sweetness approximately 300 - 500 times that of sucrose but containing almost no calories. The production of saccharin sodium usually involves a series of chemical reactions, including sulfonation and oxidation steps, which produce acidic by-products such as sulfuric acid and other organic acids. To obtain pure saccharin sodium, an alkaline substance is needed to neutralize these acidic substances. Ammonia water is a weak alkaline solution that can react with acidic substances to form corresponding ammonium salts and water. In this process, ammonia water helps neutralize the acidic by-products generated during the reaction, making the final product purer. To ensure that the reaction can proceed under optimal conditions, it is necessary to cool and control the temperature of the added ammonia water.

[0003] Existing ammonia water coolers can only cool down ammonia water and it is difficult to precisely cool ammonia water. Temperature has a significant impact on the rate and direction of chemical reactions. The inability to accurately control the temperature will affect the product quality and is not convenient to use. Utility Model Content

[0004] The present application provides an ammonia water cooler to solve the problems raised in the above background art.

[0005] The above technical object of the present application is achieved through the following technical solutions:

[0006] An ammonia water cooler includes a cooling component. One end of the cooling component is provided with a temperature control component. The temperature control component includes a liquid mixing chamber. One side of the liquid mixing chamber is provided with a first connection port, and the top of one end of the liquid mixing chamber is provided with a second connection port. The first connection port is connected to a first flow pump. The input end of the first flow pump is provided with a first input interface. A first temperature sensor is arranged in the middle of the first input interface. The first input interface is connected to the output end of the cooling component. The second connection port is connected to a second flow pump. The input end of the second flow pump is provided with a second input interface. A second temperature sensor is arranged in the middle of the second input interface.

[0007] By adopting the above solution, a first flow pump is connected through the first connection port, which facilitates the first flow pump to quantitatively pump the ammonia water cooled by the cooling component into the mixing chamber. A first temperature sensor is provided in the middle of the first input interface, and the first input interface is connected to the output end of the cooling component, which facilitates the first flow pump to quantitatively pump the ammonia water cooled by the cooling component into the mixing chamber. The first temperature sensor monitors the temperature of the ammonia water pumped by the first flow pump, which is conducive to improving the accuracy of the ammonia water temperature output by the device. The input end of the second flow pump is provided with a second input interface, and a second temperature sensor is provided in the middle of the second input interface, which facilitates connecting to an external pipeline and enables the second flow pump to quantitatively pump normal-temperature ammonia water into the mixing chamber, so that the normal-temperature ammonia water and the ammonia water cooled by the cooling component are mixed to form ammonia water with a target temperature, which is beneficial to improving the product quality of saccharin sodium production.

[0008] Further, a second liquid outlet interface is provided at one end of the mixing chamber away from the first connection port, and a third temperature sensor is provided in the middle of the second liquid outlet interface.

[0009] By adopting the above solution, a second liquid outlet interface is provided at one end of the mixing chamber away from the first connection port, and a third temperature sensor is provided in the middle of the second liquid outlet interface, which facilitates the second liquid outlet interface to be connected to the reaction chamber for saccharin sodium production, enables precise temperature control when injecting the cooled ammonia water into the reaction chamber, and the third temperature sensor facilitates detecting the temperature of the ammonia water mixed in the mixing chamber, thereby improving the accuracy of the temperature control component for cooling and controlling the temperature of the ammonia water.

[0010] Further, a plurality of mixing vanes are fixedly installed inside the mixing chamber, and the mixing vanes are arranged at equal intervals.

[0011] By adopting the above solution, through the arrangement of the mixing vanes, it is convenient to uniformly mix the ammonia water cooled by the cooling component and the normal-temperature ammonia water, so that the device can output ammonia water with accurate temperature.

[0012] Further, a heat-insulating sleeve is provided outside the mixing chamber, and the material of the heat-insulating sleeve is fiberglass material.

[0013] By adopting the above solution, by providing a heat-insulating sleeve outside the mixing chamber, it is convenient to insulate the outside of the mixing chamber and prevent the external temperature from affecting the accuracy of the ammonia water temperature output by the device.

[0014] Further, the cooling component includes a cooling tank, a main liquid inlet interface is provided at one end of the cooling tank, and a first liquid outlet interface is provided at the other end of the cooling tank, and the first liquid outlet interface is connected to the first input interface.

[0015] By adopting the above scheme, the first liquid outlet interface is communicated with the first input interface, which facilitates the main liquid inlet interface to communicate with the external pipeline, and is convenient for ammonia water to enter the cooling tank for cooling. After cooling, the ammonia water enters the temperature control component from the first liquid outlet interface for precise temperature control.

[0016] Furthermore, end plates are fixedly installed at both ends inside the cooling tank, and a number of cooling pipes are inserted through the middle of the end plates.

[0017] By adopting the above scheme, end plates are fixedly installed at both ends inside the cooling tank, and a number of cooling pipes are inserted through the middle of the end plates, which facilitates isolating a cooling cavity inside the cooling tank by the end plates, and is convenient for ammonia water to flow through the cooling cavity through the cooling pipes for cooling and temperature reduction.

[0018] Furthermore, a first coolant interface is provided at one end of the top of the cooling tank, and a second coolant interface is provided at the other end of the top of the cooling tank. Both the first coolant interface and the second coolant interface are arranged between the two end plates.

[0019] By adopting the above scheme, both the first coolant interface and the second coolant interface are arranged between the two end plates, which facilitates connecting the external pipeline and is convenient for injecting cooling water into the cooling cavity, so as to cool and reduce the temperature of the ammonia water flowing through the cooling pipes.

[0020] Furthermore, a number of liquid deflecting plates are arranged between the two end plates, and the liquid deflecting plates are fixedly connected to the cooling tank.

[0021] By adopting the above scheme, a number of liquid deflecting plates are arranged between the two end plates, and the liquid deflecting plates are fixedly connected to the cooling tank, which facilitates increasing the flow path of the cooling water inside the cooling cavity, so that the cooling water can fully cool and reduce the temperature of the ammonia water inside the cooling pipes.

[0022] In summary, the present application has the following technical effects:

[0023] A first flow pump is connected through the first connection port, which facilitates the first flow pump to quantitatively pump the ammonia water cooled by the cooling component into the mixing chamber. A first temperature sensor is arranged in the middle of the first input interface, and the first input interface is communicated with the output end of the cooling component, which facilitates the first flow pump to quantitatively pump the ammonia water cooled by the cooling component into the mixing chamber. The first temperature sensor monitors the temperature of the ammonia water pumped by the first flow pump, which is convenient for improving the accuracy of the output ammonia water temperature of the device. A second input interface is arranged at the input end of the second flow pump, and a second temperature sensor is arranged in the middle of the second input interface, which is convenient for connecting the external pipeline and is convenient for the second flow pump to quantitatively pump the normal-temperature ammonia water into the mixing chamber, so that the normal-temperature ammonia water and the ammonia water cooled by the cooling component are mixed and proportioned into ammonia water with a target temperature, which is beneficial to improving the product quality of saccharin sodium production, achieving the effect of precisely controlling the temperature of ammonia water cooling and temperature reduction, and being beneficial to improving the product quality of saccharin sodium production. Brief Description of the Drawings

[0024] Figure 1 is the external structure diagram of the present application;

[0025] Figure 2 is the exploded view of the temperature control component of the present application;

[0026] Figure 3 is the sectional view of the liquid mixing chamber of the present application;

[0027] Figure 4 is the sectional view of the cooling component of the present application.

[0028] In the figures, 101 is the cooling component; 10101 is the cooling tank; 10102 is the main liquid inlet interface; 10103 is the first liquid outlet interface; 10104 is the first coolant interface; 10105 is the second coolant interface; 10106 is the end plate; 10107 is the cooling pipe; 10108 is the liquid folding plate; 102 is the temperature control component; 10201 is the liquid mixing chamber; 10202 is the first connection port; 10203 is the second connection port; 10204 is the first flow pump; 10205 is the first input interface; 10206 is the first temperature sensor; 10207 is the second flow pump; 10208 is the second input interface; 10209 is the second temperature sensor; 10210 is the second liquid outlet interface; 10211 is the third temperature sensor; 10212 is the heat preservation sleeve; 10213 is the liquid mixing plate. Detailed Description of the Preferred Embodiments

[0029] The following further describes the present application in detail with reference to the accompanying drawings.

[0030] Embodiment:

[0031] As shown in the attached Figure 1 to the attached Figure 4 figures:

[0032] The utility model provides an ammonia water cooler, which includes a cooling component 101. One end of the cooling component 101 is provided with a temperature control component 102. The temperature control component 102 includes a liquid mixing cavity 10201. One side of one end of the liquid mixing cavity 10201 is provided with a first connection port 10202, and the top of one end of the liquid mixing cavity 10201 is provided with a second connection port 10203. The first connection port 10202 is communicated with a first flow pump 10204. By being communicated with the first flow pump 10204 through the first connection port 10202, it is convenient for the first flow pump 10204 to quantitatively pump the ammonia water cooled by the cooling component 101 into the liquid mixing cavity 10201. The input end of the first flow pump 10204 is provided with a first input interface 10205. The middle of the first input interface 10205 is provided with a first temperature sensor 10206. The first input interface 10205 is communicated with the output end of the cooling component 101. By being provided with the first temperature sensor 10206 in the middle of the first input interface 10205 and the first input interface 10205 being communicated with the output end of the cooling component 101, it is convenient for the first flow pump 10204 to quantitatively pump the ammonia water cooled by the cooling component 101 into the liquid mixing cavity 10201. The first temperature sensor 10206 monitors the temperature of the ammonia water pumped by the first flow pump 10204, which is convenient for improving the accuracy of the output ammonia water temperature of the device. The second connection port 10203 is communicated with a second flow pump 10207. The input end of the second flow pump 10207 is provided with a second input interface 10208. The middle of the second input interface 10208 is provided with a second temperature sensor 10209. By being provided with the second input interface 10208 at the input end of the second flow pump 10207 and the second temperature sensor 10209 in the middle of the second input interface 10208, it is convenient to connect an external pipeline and convenient for the second flow pump 10207 to quantitatively pump the normal-temperature ammonia water into the liquid mixing cavity 10201, so that the normal-temperature ammonia water and the ammonia water cooled by the cooling component 101 are mixed and proportioned into ammonia water with a target temperature, which is beneficial to improving the product quality of saccharin sodium production.

[0033] Wherein, one end of the liquid mixing cavity 10201 far from the first connection port 10202 is provided with a second liquid outlet interface 10210. The middle of the second liquid outlet interface 10210 is provided with a third temperature sensor 10211. By being provided with the second liquid outlet interface 10210 at one end of the liquid mixing cavity 10201 far from the first connection port 10202 and the third temperature sensor 10211 in the middle of the second liquid outlet interface 10210, it is convenient for the second liquid outlet interface 10210 to be communicated with the reaction cavity of saccharin sodium production, and it is convenient to accurately control the temperature of the cooled ammonia water injected into the reaction cavity. The third temperature sensor 10211 is convenient for detecting the temperature of the ammonia water mixed by the liquid mixing cavity 10201, thereby improving the accuracy of the temperature control component 102 for cooling and controlling the ammonia water temperature.

[0034] Among them, a number of mixing sheets 10213 are fixedly installed inside the mixing liquid chamber 10201. The mixing sheets 10213 are arranged at equal intervals. Through the arrangement of the mixing sheets 10213, it is convenient to evenly mix the ammonia water cooled by the cooling component 101 and the normal-temperature ammonia water, so that the device can output ammonia water with accurate temperature.

[0035] Among them, a heat preservation sleeve 10212 is covered outside the mixing liquid chamber 10201. The material of the heat preservation sleeve 10212 is fiberglass material. By covering the heat preservation sleeve 10212 outside the mixing liquid chamber 10201, it is convenient to insulate the outside of the mixing liquid chamber 10201 and prevent the outside temperature from affecting the accuracy of the ammonia water output temperature of the device.

[0036] Among them, the cooling component 101 includes a cooling tank 10101. One end of the cooling tank 10101 is provided with a main liquid inlet interface 10102, and the other end of the cooling tank 10101 is provided with a first liquid outlet interface 10103. The first liquid outlet interface 10103 is communicated with the first input interface 10205. By communicating the first liquid outlet interface 10103 with the first input interface 10205, it is convenient to connect the main liquid inlet interface 10102 to an external pipeline, facilitating the entry of ammonia water into the cooling tank 10101 for cooling. The cooled ammonia water enters the temperature control component 102 from the first liquid outlet interface 10103 for precise temperature control.

[0037] Among them, end plates 10106 are fixedly installed at both ends inside the cooling tank 10101. A number of cooling pipes 10107 are inserted through the middle of the end plates 10106. By fixedly installing the end plates 10106 at both ends inside the cooling tank 10101 and inserting a number of cooling pipes 10107 through the middle of the end plates 10106, it is convenient to isolate a cooling cavity inside the cooling tank 10101 within the end plates 10106, facilitating the ammonia water to flow through the cooling cavity through the cooling pipes 10107 for cooling.

[0038] Among them, one end of the top of the cooling tank 10101 is provided with a first coolant interface 10104, and the other end of the top of the cooling tank 10101 is provided with a second coolant interface 10105. Both the first coolant interface 10104 and the second coolant interface 10105 are arranged between the two end plates 10106. By arranging both the first coolant interface 10104 and the second coolant interface 10105 between the two end plates 10106, it is convenient to connect to an external pipeline, facilitating the injection of cooling water into the cooling cavity, thereby cooling the ammonia water flowing through the cooling pipes 10107.

[0039] Among them, a number of liquid baffle plates 10108 are provided between the two end plates 10106. The liquid baffle plates 10108 are fixedly connected to the cooling tank 10101. By providing a number of liquid baffle plates 10108 between the two end plates 10106 and fixedly connecting the liquid baffle plates 10108 to the cooling tank 10101, it is convenient to increase the flow path of the cooling water inside the cooling cavity, so that the cooling water can fully cool down the ammonia water inside the cooling pipe 10107.

[0040] Specifically, it is connected through the first liquid outlet interface 10103 and the first input interface 10205, which facilitates the connection of the main liquid inlet interface 10102 to the external pipeline, enabling ammonia water to enter the cooling tank 10101 for cooling conveniently. After cooling, the ammonia water enters the temperature control component 102 from the first liquid outlet interface 10103 for precise temperature control. End plates 10106 are fixedly installed at both ends inside the cooling tank 10101, and a number of cooling pipes 10107 are inserted through the middle of the end plates 10106, which facilitates isolating a cooling cavity inside the cooling tank 10101 within the end plates 10106, enabling the ammonia water to flow through the cooling cavity through the cooling pipes 10107 for cooling and temperature reduction. The first coolant interface 10104 and the second coolant interface 10105 are both arranged between the two end plates 10106, which facilitates connecting to the external pipeline and injecting cooling water into the cooling cavity, thereby cooling and reducing the temperature of the ammonia water flowing through the cooling pipes 10107. A number of liquid deflecting plates 10108 are provided between the two end plates 10106, and the liquid deflecting plates 10108 are fixedly connected to the cooling tank 10101, which facilitates increasing the flow path of the cooling water inside the cooling cavity, enabling the cooling water to fully cool and reduce the temperature of the ammonia water inside the cooling pipes 10107. A first flow pump 10204 is connected through the first connection port 10202, which facilitates the first flow pump 10204 to quantitatively pump the ammonia water cooled by the cooling component 101 into the mixing cavity 10201. A first temperature sensor 10206 is provided in the middle of the first input interface 10205, and the first input interface 10205 is connected to the output end of the cooling component 101, which facilitates the first flow pump 10204 to quantitatively pump the ammonia water cooled by the cooling component 101 into the mixing cavity 10201. The first temperature sensor 10206 monitors the temperature of the ammonia water pumped by the first flow pump 10204, which is conducive to improving the accuracy of the ammonia water temperature output by the device. The input end of the second flow pump 10207 is provided with a second input interface 10208, and a second temperature sensor 10209 is provided in the middle of the second input interface 10208, which facilitates connecting to the external pipeline and enabling the second flow pump 10207 to quantitatively pump normal-temperature ammonia water into the mixing cavity 10201, mixing the normal-temperature ammonia water and the ammonia water cooled by the cooling component 101 to form ammonia water with a target temperature, which is beneficial to improving the product quality of saccharin sodium production. A second liquid outlet interface 10210 is provided at one end of the mixing cavity 10201 away from the first connection port 10202, and a third temperature sensor 10211 is provided in the middle of the second liquid outlet interface 10210, which facilitates the connection of the second liquid outlet interface 10210 to the reaction cavity for saccharin sodium production, enabling the precisely temperature-controlled cooled ammonia water to be injected into the reaction cavity conveniently. The third temperature sensor 10211 facilitates detecting the temperature of the ammonia water mixed in the mixing cavity 10201, thereby improving the accuracy of the temperature control component 102 for cooling and controlling the temperature of the ammonia water. Through the setting of the mixing plate 10213, it is convenient to uniformly mix the ammonia water cooled by the cooling component 101 and the normal-temperature ammonia water, enabling the device to output ammonia water with precise temperature.A heat preservation sleeve 10212 is provided outside the liquid mixing chamber 10201, which facilitates heat insulation of the outside of the liquid mixing chamber 10201 and avoids the influence of the external temperature on the accuracy of the ammonia water temperature output by the device.

[0041] This specific embodiment is only an interpretation of the present application and does not limit the present application. After reading this specification, those skilled in the art can make modifications to this embodiment without creative contributions as needed, but as long as they are within the scope of the claims of the present application, they are protected by the patent law.

Claims

1. An ammonia cooler, characterized in that, It includes a cooling component (101), one end of the cooling component (101) is provided with a temperature control component (102), the temperature control component (102) includes a liquid mixing chamber (10201), one side of one end of the liquid mixing chamber (10201) is provided with a first connection port (10202), and the top of one end of the liquid mixing chamber (10201) is provided with a second connection port (10203). The first connection port (10202) is communicated with a first flow pump (10204), the input end of the first flow pump (10204) is provided with a first input interface (10205), a first temperature sensor (10206) is arranged in the middle of the first input interface (10205), and the first input interface (10205) is communicated with the output end of the cooling component (101). The second connection port (10203) is communicated with a second flow pump (10207), the input end of the second flow pump (10207) is provided with a second input interface (10208), and a second temperature sensor (10209) is arranged in the middle of the second input interface (10208).

2. The ammonia cooler according to claim 1, wherein, One end of the liquid mixing chamber (10201) far from the first connection port (10202) is provided with a second liquid outlet interface (10210), and a third temperature sensor (10211) is arranged in the middle of the second liquid outlet interface (10210).

3. The ammonia cooler according to claim 2, characterized in that, A number of liquid mixing sheets (10213) are fixedly installed inside the liquid mixing chamber (10201), and the liquid mixing sheets (10213) are arranged at equal intervals.

4. The ammonia cooler according to claim 3, wherein, A heat preservation sleeve (10212) is sleeved outside the liquid mixing chamber (10201), and the material of the heat preservation sleeve (10212) is a glass fiber material.

5. The ammonia cooler according to claim 1, characterized in that, The cooling component (101) includes a cooling tank (10101), one end of the cooling tank (10101) is provided with a main liquid inlet interface (10102), and the other end of the cooling tank (10101) is provided with a first liquid outlet interface (10103), and the first liquid outlet interface (10103) is communicated with the first input interface (10205).

6. The ammonia cooler according to claim 5, characterized in that, End plates (10106) are fixedly installed at both ends inside the cooling tank (10101), and a number of cooling pipes (10107) are inserted through the middle of the end plates (10106).

7. The ammonia cooler according to claim 6, characterized in that, One end of the top of the cooling tank (10101) is provided with a first coolant interface (10104), and the other end of the top of the cooling tank (10101) is provided with a second coolant interface (10105), and both the first coolant interface (10104) and the second coolant interface (10105) are arranged between the two end plates (10106).

8. An ammonia cooler according to claim 7, characterized in that, A number of liquid deflecting plates (10108) are arranged between the two end plates (10106), and the liquid deflecting plates (10108) are fixedly connected with the cooling tank (10101).

Images