Extracting solution storage tank

Abstract

The utility model discloses an extracting solution storage tank which comprises a main body mechanism and a filtering mechanism, the main body mechanism comprises a heat preservation shell, a tank body fixed to an inner cavity of the heat preservation shell through a supporting rod, a liquid inlet pipe installed at the top end of the tank body and stretching out of the heat preservation shell, a liquid outlet piece installed at the bottom end of the tank body and stretching out of the heat preservation shell, a condensation plate arranged on one side of the heat preservation shell, a pump installed in the inner cavity of the heat preservation shell and a frame fixed to one side of the condensation plate. The heat preservation shell is supported by a heat preservation material, the tank body is made of a heat conduction material and is fixed in an inner cavity of the heat preservation shell through a plurality of supporting rods, and a cavity between the heat preservation shell and the tank body is filled with cooling water. The extracting solution storage tank has the advantages of low-temperature storage and inlet solution filtration.

Description

Technical Field

[0001] This utility model relates to the field of pharmaceutical liquid storage technology, specifically an extract storage tank. Background Technology

[0002] Traditional Chinese medicine extracts are a type of traditional Chinese medicine product with relatively clear medicinal effects, obtained by extracting and separating Chinese medicinal materials or compound Chinese medicines using advanced technology. They are subject to strict quality standards and represent a new product form in the international natural medicine and health product market. They are a major raw material for plant-based medicine preparations and can be widely used in natural health products. Extract storage tanks are commonly used storage equipment in the pharmaceutical and chemical industries and are particularly suitable for storing extracts.

[0003] The existing extract storage tanks have the following drawbacks during use: they lack temperature control, making it difficult to store the extract in the tank for a long time. Also, when the extract is added to the tank, the residue in the extract is likely to enter the tank along with it, causing blockage of the outlet of the subsequent tank. Therefore, there is room for improvement. Utility Model Content

[0004] This utility model aims to solve one of the technical problems existing in the prior art or related technologies.

[0005] Therefore, the technical solution adopted by this utility model is as follows: an extract storage tank, comprising: a main body and a filtration mechanism, wherein the main body includes an insulated shell, a tank body fixed to the inner cavity of the insulated shell by a support rod, an inlet pipe installed at the top of the tank body and extending out of the insulated shell, an outlet component installed at the bottom of the tank body and extending out of the insulated shell, a condenser plate disposed on one side of the insulated shell, a pump installed in the inner cavity of the insulated shell, a frame fixed to one side of the condenser plate, a plurality of semiconductor cooling chips installed on the frame and close to the condenser plate, and a heat dissipation component installed on one side of the frame.

[0006] The space between the tank and the insulation shell is filled with cooling water. The condenser plate has a serpentine flow channel inside. One end of the serpentine flow channel is connected to the top of the inner cavity of the insulation shell through a first connecting pipe, and the other end is connected to the pump inlet through a second connecting pipe.

[0007] The filtration mechanism includes a tube body fixed to one side of the inlet pipe and connected to the inlet pipe, a guide ring fixed to the inner wall of the tube body, an annular filter screen with one end fixed to the guide ring and the other end fixed to the bottom wall of the tube body, and a sealing plug installed at the bottom end of the tube body by a threaded connection.

[0008] In a preferred embodiment, the present invention can be further configured such that: a partition is fixed to the inner wall of the insulation shell, the pump is installed at the bottom of the partition, the inlet is connected to the serpentine flow channel through a second connecting pipe, and the outlet is connected to the cavity of the insulation shell located above the partition through a delivery pipe.

[0009] In a preferred embodiment, the present invention can be further configured such that the liquid outlet component includes a liquid outlet pipe with one end connected to the inner cavity of the tank and the other end extending out of the heat-insulating shell, and an electric valve installed on the liquid outlet pipe.

[0010] In a preferred embodiment, the present invention can be further configured such that the heat sink includes heat sink fins fixed to one side of the frame and a high-speed fan mounted on one side of the heat sink fins.

[0011] In a preferred embodiment, the present invention can be further configured such that the cold end of the semiconductor cooling chip is attached to the condenser plate, and the hot end is attached to the heat dissipation fins.

[0012] By adopting the above technical solution, the beneficial effects achieved by this utility model are as follows:

[0013] 1. In this utility model, an insulation shell is provided on the outside of the tank, and cooling water is filled in the space between the insulation shell and the tank. A pump is installed on the inner bottom wall of the insulation shell, and a condenser plate is installed on the outer surface of the insulation shell. One end of the condenser plate is connected to the top of the inner cavity of the insulation shell, and the other end is connected to the pump. A semiconductor cooling chip is installed on one side of the condenser plate through a frame. With the above arrangement, after the condensate in the inner cavity of the insulation shell enters the condenser plate, the semiconductor cooling chip cools the water passing through the condenser plate. Then, the water is pumped into the inner cavity of the insulation shell, so that the tank is in a low-temperature condensate environment, thereby reducing the temperature of the extract in the tank, avoiding the extract temperature from being too high and affecting the quality, and effectively extending the storage time of the extract.

[0014] 2. In this utility model, a filter mechanism is installed at the end of the inlet pipe. Through the setting of the pipe body, guide ring, annular filter screen and sealing plug, the residue in the extract can be filtered before the extract enters the inlet pipe, so as to prevent it from entering the storage tank, which further increases the practical performance. Attached Figure Description

[0015] Figure 1 This is a schematic diagram of the structure of this utility model;

[0016] Figure 2 This is a cross-sectional view of the present invention;

[0017] Figure 3 This is a partial exploded view of the structure of this utility model;

[0018] Figure 4 This is a cross-sectional schematic diagram of the condenser plate of this utility model.

[0019] Figure label:

[0020] 100. Main structure; 110. Insulated shell; 111. Partition; 120. Tank body; 130. Inlet pipe; 140. Outlet component; 141. Outlet pipe; 142. Electric valve; 150. Condensing plate; 151. Serpentine flow channel; 152. First connecting pipe; 153. Second connecting pipe; 160. Pump; 161. Delivery pipe; 170. Frame; 180. Semiconductor cooling chip; 190. Heat sink; 191. Heat sink fins; 192. High-speed fan;

[0021] 200. Filter mechanism; 210. Tube body; 220. Flow guide ring; 230. Annular filter screen; 240. Sealing plug. Detailed Implementation

[0022] To make the objectives, technical solutions, and advantages of this utility model clearer, the present utility model will be further described in detail below with reference to specific embodiments and accompanying drawings. It should be noted that, unless otherwise specified, the embodiments and features of the present utility model can be combined with each other.

[0023] Some embodiments of this utility model are described below with reference to the accompanying drawings.

[0024] Example 1:

[0025] Combination Figure 1-4 As shown, this embodiment provides an extract storage tank, including: a main body 100 and a filtration mechanism 200.

[0026] The main structure 100 includes an insulation shell 110, a tank 120 fixed to the inner cavity of the insulation shell 110 by a support rod, an inlet pipe 130 installed at the top of the tank 120 and extending out of the insulation shell 110, an outlet component 140 installed at the bottom of the tank 120 and extending out of the insulation shell 110, a condenser plate 150 disposed on one side of the insulation shell 110, a pump 160 installed in the inner cavity of the insulation shell 110, a frame 170 fixed to one side of the condenser plate 150, multiple semiconductor cooling chips 180 installed on the frame 170 and close to the condenser plate 150, and a heat sink 190 installed on one side of the frame 170.

[0027] The insulated shell 110 is supported by insulation material, and the tank 120 is made of thermally conductive material. It is fixed to the inner cavity of the insulated shell 110 by multiple support rods. Cooling water is filled in the cavity between the insulated shell 110 and the tank 120. Through this setting, the tank 120 is in a low-temperature condensate environment, thereby reducing the temperature of the extract in the tank 120, avoiding the high temperature of the extract from affecting the quality, and effectively extending the storage time of the extract.

[0028] The inlet pipe 130 is used to feed the extract into the inner cavity of the tank 120. The outlet component 140 includes an outlet pipe 141 with one end connected to the inner cavity of the tank 120 and the other end extending out of the heat insulation shell 110, and an electric valve 142 installed on the outlet pipe 141. The outlet pipe 141 is used to discharge the extract in the tank 120, and the electric valve 142 is used to control the opening and closing of the outlet pipe 141.

[0029] A condenser plate 150 is disposed on one side of the insulation shell 110. A serpentine flow channel 151 is provided inside the condenser plate 150, which can prolong the flow time of cooling water in the condenser plate 150, thereby improving the cooling effect of the cooling water. One end of the serpentine flow channel 151 is connected to the top of the inner cavity of the insulation shell 110 through the first connecting pipe 152, so that the cooling water in the inner cavity of the insulation shell 110 can enter the serpentine flow channel 151 through the first connecting pipe 152. The other end is connected to the inlet of the pump 160 through the second connecting pipe 153, so that the cooled water can enter the pump 160 after cooling.

[0030] A partition 111 is fixed on the inner wall of the insulation shell 110. A pump 160 is installed at the bottom of the partition 111. The inlet is connected to the serpentine flow channel 151 through the second connecting pipe 153, and the outlet is connected to the cavity of the insulation shell 110 above the partition 111 through the delivery pipe 161. This facilitates the return of the cooled water to the inner cavity of the insulation shell 110, forming a circulation of cooling water in the inner cavity of the insulation shell 110, thereby ensuring the stability of the cooling water temperature.

[0031] The frame 170 is fixed to one side of the condenser plate 150 for mounting the thermoelectric cooler 180. The cold end of the thermoelectric cooler 180 is attached to the condenser plate 150, which can cool the cooling water in the condenser plate 150 through the serpentine flow channel 151. The hot end is attached to the heat sink 190 to facilitate the dissipation of heat generated during operation.

[0032] The heat sink 190 includes a heat sink 191 fixed to one side of the frame 170 and a high-speed fan 192 mounted on one side of the heat sink 191. The heat sink 191 is used to increase the heat dissipation area of ​​the thermoelectric cooler 180, thereby improving the heat dissipation efficiency. The high-speed fan 192 can accelerate the airflow near the heat sink 191, further improving the heat dissipation efficiency.

[0033] The filtration mechanism 200 is used to filter the extract entering the tank 120, and includes a tube 210 fixed to one side of the inlet pipe 130 and connected to the inlet pipe 130, a guide ring 220 fixed to the inner wall of the tube 210, an annular filter screen 230 with one end fixed to the guide ring 220 and the other end fixed to the inner bottom wall of the tube 210, and a sealing plug 240 installed at the bottom of the tube 210 by a threaded connection.

[0034] The tube body 210 is used to install other components. The guide ring 220 is used to pour the extract into the inner cavity of the tube body 210 into the annular filter 230. The annular filter 230 can filter the residue in the extract. The filtered extract is sent into the inner cavity of the tank 120 for storage through the inlet pipe 130. The sealing plug 240 is used to seal the bottom of the tube body 210. When there is a lot of residue in the annular filter 230, the sealing plug 240 can be unscrewed to discharge the residue in the annular filter 230.

[0035] The working principle and usage process of this utility model are as follows: During use, the extract enters the tube 210 and, under the action of the guide ring 220, enters the inner cavity of the annular filter 230. The residue in the extract is filtered through the annular filter 230. The extract is then sent to the inner cavity of the tank 120 for storage through the inlet pipe 130. When there is a large amount of residue in the annular filter 230, the sealing plug 240 is turned to discharge the residue from the annular filter 230. At this time, the cooling water in the inner cavity of the insulation shell 110 enters the cooling system through the first connecting pipe 152. The water flows through the serpentine channel 151 inside the condenser plate 150. At the same time, the semiconductor cooling chip 180 is activated to cool the cooling water in the serpentine channel 151. The cooled water enters the pump 160 through the second connecting pipe 153 and is then pumped back into the inner cavity of the insulation shell 110. Cooling water circulation is formed in the inner cavity of the insulation shell 110, so that the tank 120 is in a low-temperature condensate environment, thereby reducing the temperature of the extract in the tank 120 and extending the storage time of the extract.

[0036] Although embodiments of the present invention have been shown and described, those skilled in the art will understand that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the present invention, the scope of which is defined by the claims and their equivalents.

Claims

1. An extract storage tank, comprising: The main body (100) and the filtration mechanism (200) are characterized in that the main body (100) includes a heat-insulating shell (110), a tank (120) fixed to the inner cavity of the heat-insulating shell (110) by a support rod, an inlet pipe (130) installed at the top of the tank (120) and extending out of the heat-insulating shell (110), an outlet component (140) installed at the bottom of the tank (120) and extending out of the heat-insulating shell (110), a condenser plate (150) disposed on one side of the heat-insulating shell (110), a pump (160) installed in the inner cavity of the heat-insulating shell (110), a frame (170) fixed to one side of the condenser plate (150), a plurality of semiconductor cooling chips (180) installed on the frame (170) and close to the condenser plate (150), and a heat sink component (190) installed on one side of the frame (170). The space between the tank (120) and the insulation shell (110) is filled with cooling water. The condenser plate (150) is provided with a serpentine flow channel (151). One end of the serpentine flow channel (151) is connected to the top of the inner cavity of the insulation shell (110) through the first connecting pipe (152), and the other end is connected to the inlet of the pump (160) through the second connecting pipe (153). The filtration mechanism (200) includes a tube body (210) fixed to one side of the inlet pipe (130) and communicating with the inlet pipe (130), a guide ring (220) fixed on the inner wall of the tube body (210), an annular filter screen (230) with one end fixed on the guide ring (220) and the other end fixed to the bottom wall of the inner wall of the tube body (210), and a sealing plug (240) installed at the bottom of the tube body (210) by a threaded connection.

2. The extract storage tank according to claim 1, characterized in that, The inner wall of the insulation shell (110) is fixed with a partition (111), and the pump (160) is installed at the bottom of the partition (111). The inlet is connected to the serpentine flow channel (151) through the second connecting pipe (153), and the outlet is connected to the cavity of the insulation shell (110) above the partition (111) through the delivery pipe (161).

3. The extract storage tank according to claim 1, characterized in that, The liquid outlet component (140) includes a liquid outlet pipe (141) with one end connected to the inner cavity of the tank body (120) and the other end extending out of the heat insulation shell (110), and an electric valve (142) installed on the liquid outlet pipe (141).

4. The extract storage tank according to claim 1, characterized in that, The heat sink (190) includes a heat sink fin (191) fixed to one side of the frame (170) and a high-speed fan (192) mounted on one side of the heat sink fin (191).

5. The extract storage tank according to claim 4, characterized in that, The cold end of the semiconductor cooling chip (180) is attached to the condenser plate (150), and the hot end is attached to the heat dissipation fins (191).

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