Dry ice machine carbon dioxide waste gas treatment device

Abstract

A dry ice machine carbon dioxide waste gas treatment device comprises a dry ice machine, a condensation barrel, a cold deficient barrel, a compressor and an annular conveyor, the bottom of the dry ice machine is connected with a first supporting table, the outer side of the dry ice machine is connected with the condensation barrel, the bottom of the condensation barrel is connected with a second supporting table, the outer side of the condensation barrel is connected with the cold deficient barrel, and the bottom of the cold deficient barrel is connected with the second supporting table. The lower portion of the condensation barrel is connected with a compressor, an annular conveyor is arranged on the outer side of the compressor, the inner side of the annular conveyor is connected with a plurality of dry ice storage barrels, and the condensation barrel is arranged between the dry ice machine and the compressor. The carbon dioxide waste gas is prevented from being directly converted into dry ice (carbon dioxide solid), excessive consumption of a compressor is avoided, the service life of the compressor is prolonged, and the conversion rate of the carbon dioxide waste gas is increased.

Description

Technical Field

[0001] This utility model relates to the field of waste gas treatment, and in particular to a carbon dioxide waste gas treatment device for dry ice machines. Background Technology

[0002] An existing patent (publication number: CN 218709224 U) discloses a carbon dioxide waste gas treatment device for a dry ice machine, relating to the field of dry ice production technology. This utility model includes a storage tank collection base, a compressor, a first outlet pipe fixedly connected to one side of the compressor, a second outlet pipe fixedly connected to one side of the first outlet pipe, a U-shaped pipe fixedly connected to the other end of the second outlet pipe, a valve connected to the lower part of the U-shaped pipe, and symmetrically fixed second fixing blocks installed at the bottom of the storage tank collection base. A rolling shaft is rotatably connected between the two second fixing blocks, and a conveyor belt is driven between the two rolling shafts. Multiple storage tanks are connected to the surface of the conveyor belt. The above device directly compresses gaseous carbon dioxide into solid dry ice, without an intermediate process of converting gaseous carbon dioxide to liquid carbon dioxide. This results in high compressor consumption, shortened service life, and a need for structural improvement. Summary of the Invention

[0003] This utility model addresses the aforementioned shortcomings of existing technologies by providing a dry ice machine carbon dioxide waste gas treatment device. This device involves installing a condenser between the dry ice machine and the compressor, allowing carbon dioxide waste gas to be converted into liquid carbon dioxide before being converted into dry ice (solid carbon dioxide). This avoids the direct conversion of carbon dioxide waste gas into dry ice (solid carbon dioxide), prevents excessive wear on the compressor, extends the compressor's lifespan, and improves the conversion rate of carbon dioxide waste gas.

[0004] The objective of this utility model is achieved through the following technical solution:

[0005] A dry ice machine carbon dioxide exhaust gas treatment device includes a dry ice machine, a condenser tank, a cold storage tank, a compressor, and a ring conveyor. The bottom of the dry ice machine is connected to a first support table, the outside of the condenser tank is connected to the outside of the dry ice machine, the bottom of the condenser tank is connected to a second support table, the outside of the condenser tank is connected to the cold storage tank, the bottom of the cold storage tank is connected to a second support table, the lower part of the condenser tank is connected to the compressor, a ring conveyor is installed outside the compressor, and multiple dry ice storage tanks are connected to the inside of the ring conveyor. The dry ice storage tanks slide within the ring conveyor. The upper part of the dry ice storage tanks has a feed pipe, the lower part of the dry ice machine has an exhaust pipe, and the top of the condenser tank has an inlet pipe, one end of which is connected to the exhaust pipe.

[0006] The condenser of this invention has a condensate inlet pipe on the outside, one end of which is connected to the outlet on the outside of the condenser. The condenser has a condensate outlet pipe at the bottom, one end of which is connected to the inlet of the condenser. The condenser has an outlet pipe at the bottom end. The compressor has an inlet pipe on one side and a discharge pipe on the other side. One end of the outlet pipe passes through the second support table and connects to the inlet pipe, and the other end of the discharge pipe connects to the inlet pipe.

[0007] The present invention describes a condenser tank with a condensation chamber inside, a condenser tube inside the condensation chamber, the top of the condenser tube passing through the condenser tank and connecting to the air inlet pipe, and the bottom of the condenser tube passing through the condenser tank and connecting to the liquid outlet pipe. A conveyor belt is inside the annular conveyor, sliding within it. A switch door is connected to the outside of the annular conveyor, with an auxiliary connecting ear at one end. Two positioning connecting ears are symmetrically arranged on the outside of the annular conveyor, with the auxiliary connecting ear connected to the inside of each positioning connecting ear via a rotating shaft. The auxiliary connecting ear rotates on the rotating shaft. A positioning protrusion is inside the switch door, and a tank changing door is outside the annular conveyor. The tank changing door is adapted to the positioning protrusion, with the positioning protrusion connected to the inside of the tank changing door, and the positioning protrusion sliding within it. Beneficial effects

[0008] This invention installs a condenser between the dry ice machine and the compressor, so that carbon dioxide waste gas is first converted into liquid carbon dioxide when it is converted into dry ice (solid carbon dioxide). This avoids the direct conversion of carbon dioxide waste gas into dry ice (solid carbon dioxide), avoids excessive wear on the compressor, extends the service life of the compressor, and improves the conversion rate of carbon dioxide waste gas.

[0009] Once filled, the dry ice storage bucket is moved to the bucket replacement door by the conveyor belt. The door can then be opened to remove the dry ice storage bucket. The conveyor belt moves the dry ice storage bucket within the circular conveyor, facilitating bucket replacement. The operation is simple, time-saving, and labor-saving.

[0010] The condenser tube of this invention is threaded, which allows the carbon dioxide waste gas inside the condenser tube to be fully cooled by the condensate, so that the carbon dioxide waste gas can be better condensed into carbon dioxide liquid. Attached Figure Description

[0011] Figure 1 This is a schematic diagram of the structure of a carbon dioxide waste gas treatment device for a dry ice machine according to the present invention.

[0012] Figure 2 This is a cross-sectional view of the condenser tank structure of a dry ice machine carbon dioxide waste gas treatment device according to the present invention.

[0013] Figure 3 This is a schematic diagram of the annular conveyor structure of a carbon dioxide waste gas treatment device for a dry ice machine according to the present invention. Detailed Implementation

[0014] The present invention will be further described in detail below with reference to the accompanying drawings and embodiments:

[0015] Example 1:

[0016] A dry ice machine carbon dioxide exhaust gas treatment device includes a dry ice machine 01, a condenser tank 02, a cold storage tank 03, a compressor 04, and a ring conveyor 10. The bottom of the dry ice machine 01 is connected to a first support table 15. The condenser tank 02 is connected to the outside of the dry ice machine 01. The bottom of the condenser tank 02 is connected to a second support table 14. The cold storage tank 03 is connected to the outside of the condenser tank 02. The bottom of the cold storage tank 03 is connected to the second support table 14. The compressor 04 is connected to the lower part of the condenser tank 02. A ring conveyor 10 is installed outside the compressor 04. Multiple dry ice storage tanks 11 are connected to the inside of the ring conveyor 10. The dry ice storage tanks 11 are arranged in a ring... The conveyor 10 slides inside, the dry ice storage tank 11 has a feed pipe 17 at the top, the dry ice machine 01 has an outlet pipe 05 at the bottom, and the condenser tank 02 has an inlet pipe 18 at the top. One end of the inlet pipe 18 is connected to the outlet pipe 05. A condenser tank 02 is installed between the dry ice machine 01 and the compressor 04, so that carbon dioxide waste gas is first converted into carbon dioxide liquid when it is converted into dry ice (carbon dioxide solid). This avoids the direct conversion of carbon dioxide waste gas into dry ice (carbon dioxide solid), avoids excessive consumption of the compressor 04, extends the service life of the compressor 04, and improves the conversion rate of carbon dioxide waste gas.

[0017] Example 2:

[0018] The condenser tank 02 of this utility model has a condensate inlet pipe 06 on the outside, one end of which is connected to the outlet on the outside of the cold storage tank 03. The condenser tank 02 has a condensate outlet pipe 07 at the bottom, one end of which is connected to the inlet of the cold storage tank 03. The bottom of the condenser tank 02 has an outlet pipe 08. The compressor 04 has an inlet pipe 19 on one side and a discharge pipe 09 on the other side. One end of the outlet pipe 08 passes through the second support table 14 and connects to the inlet pipe 19. One end of the discharge pipe 09 is connected to the inlet pipe 17.

[0019] Example 3:

[0020] This utility model has a condenser chamber 25 inside the condenser tank 02, and a condenser pipe 20 is arranged inside the condenser chamber 25. The top end of the condenser pipe 20 passes through the condenser tank 02 and connects to the air inlet pipe 18, and the bottom part of the condenser pipe 20 passes through the condenser tank 02 and connects to the liquid outlet pipe 08. The annular conveyor 10 has a conveyor belt 21 inside, and the conveyor belt 21 slides inside the annular conveyor 10. The annular conveyor 10 is connected to a switch door 12 on the outside. One end of the switch door 12 has an auxiliary connecting ear 23. The annular conveyor 10 has two positioning connecting ears 22 on the outside, which are symmetrically arranged. The auxiliary connecting ears 23 are connected to the inside of the positioning connecting ears 22 through a rotating shaft. The auxiliary connecting ears 23 rotate on the rotating shaft. The inside of the switch door 12 has a positioning protrusion. The outer side of the annular conveyor 10 has a bucket changing door 13, which is adapted to the positioning protrusion 24. The inner side of the bucket changing door 13 is connected to the positioning protrusion 24, which slides inside the bucket changing door 13. The condenser tube 20 is threaded, so that the carbon dioxide exhaust gas inside the condenser tube 20 can be fully cooled by the condensate, so that the carbon dioxide exhaust gas can be better condensed into carbon dioxide liquid. After being filled, the dry ice storage bucket 11 is moved to the bucket changing door 13 by the conveyor belt 21. Then, the switch door 12 can be opened to take out the dry ice storage bucket 11. The conveyor belt 21 drives the dry ice storage bucket 11 to move within the annular conveyor 10, which is convenient for changing the dry ice storage bucket 11. The operation is simple and saves time and effort.

[0021] Example 4:

[0022] Installation Steps: During use, the carbon dioxide exhaust gas discharged from the dry ice machine 01 enters the condenser tube 20 through the inlet pipe 18. Simultaneously, the coolant inside the cooling tank 03 enters the condensing chamber 25 through the condensate inlet pipe 06. This pressurizes and cools the carbon dioxide exhaust gas inside the condenser tube 20, transforming it into liquid carbon dioxide. The liquid carbon dioxide then enters the compressor 04 through the outlet pipe 08. The threaded design of the condenser tube 20 ensures that the carbon dioxide exhaust gas inside is fully cooled by the condensate, allowing for better condensation into liquid carbon dioxide. After being pressurized and cooled by the compressor 04, dry ice (solid carbon dioxide) is formed. The dry ice then flows through the discharge pipe 09 and the inlet pipe... The material pipe 17 enters the dry ice storage tank 11 for storage. A condenser tank 02 is installed between the dry ice machine 01 and the compressor 04, so that the carbon dioxide waste gas is first converted into liquid carbon dioxide when it is converted into dry ice (solid carbon dioxide). This avoids the direct conversion of carbon dioxide waste gas into dry ice (solid carbon dioxide), avoids excessive consumption of the compressor 04, extends the service life of the compressor 04, and improves the conversion rate of carbon dioxide waste gas. After being filled, the dry ice storage tank 11 is moved to the tank changing door 13 by the conveyor belt 21. Then, the switch door 12 can be opened to remove the dry ice storage tank 11. The conveyor belt 21 drives the dry ice storage tank 11 to move within the ring conveyor 10, which facilitates the replacement of the dry ice storage tank 11. The operation is simple, time-saving and labor-saving.

[0023] The above description is only a preferred embodiment of the present utility model and is not intended to limit the present utility model. It should be noted that for those skilled in the art, several improvements and modifications can be made without departing from the technical principles of the present utility model, and these improvements and modifications should also be considered within the protection scope of the present utility model.

Claims

1. A dry ice machine carbon dioxide exhaust gas treatment device, characterized in that: The dry ice machine includes a dry ice machine (01), a condenser (02), a cold storage tank (03), a compressor (04), and a ring conveyor (10). The bottom of the dry ice machine (01) is connected to a first support table (15), the outside of the dry ice machine (01) is connected to the condenser (02), the bottom of the condenser (02) is connected to a second support table (14), the outside of the condenser (02) is connected to the cold storage tank (03), the bottom of the cold storage tank (03) is connected to the second support table (14), the lower part of the condenser (02) is connected to the compressor (04), the outside of the compressor (04) is provided with a ring conveyor (10), the inside of the ring conveyor (10) is connected to multiple dry ice storage tanks (11), the dry ice storage tanks (11) slide inside the ring conveyor (10), and the upper part of the dry ice storage tanks (11) has a feed pipe (17). The machine (01) has an exhaust pipe (05) at the bottom and an intake pipe (18) at the top of the condenser (02). One end of the intake pipe (18) is connected to the exhaust pipe (05). The condenser (02) has a condensate inlet pipe (06) on the outside. One end of the condensate inlet pipe (06) is connected to the outlet of the cold storage tank (03). The condenser (02) has a condensate outlet pipe (07) at the bottom. One end of the condensate outlet pipe (07) is connected to the inlet of the cold storage tank (03). The condenser (02) has an outlet pipe (08) at the bottom. The compressor (04) has an inlet pipe (19) on one side and a discharge pipe (09) on the other side. One end of the outlet pipe (08) passes through the second support table (14) and connects to the inlet pipe (19). One end of the discharge pipe (09) is connected to the inlet pipe (17).

2. The dry ice machine carbon dioxide exhaust gas treatment device according to claim 1, characterized in that: The condenser (02) has a condensation chamber (25) inside, and a condenser pipe (20) is provided inside the condensation chamber (25). The top of the condenser pipe (20) passes through the condenser (02) and connects to the air inlet pipe (18). The bottom of the condenser pipe (20) passes through the condenser (02) and connects to the liquid outlet pipe (08).

3. The dry ice machine carbon dioxide exhaust gas treatment device according to claim 2, characterized in that: The ring conveyor (10) has a conveyor belt (21) inside, the conveyor belt (21) slides inside the ring conveyor (10), the ring conveyor (10) is connected to the outside of the switch door (12), one end of the switch door (12) has an auxiliary connecting ear (23), the ring conveyor (10) has two positioning connecting ears (22) on the outside, the positioning connecting ears (22) are symmetrically arranged, the inside of the positioning connecting ear (22) is connected to the auxiliary connecting ear (23) through a rotating shaft, and the auxiliary connecting ear (23) rotates on the rotating shaft.

4. The dry ice machine carbon dioxide exhaust gas treatment device according to claim 3, characterized in that: The inner side of the switch door (12) has a positioning protrusion (24), and the outer side of the ring conveyor (10) has a bucket changing door (13). The bucket changing door (13) is adapted to the positioning protrusion (24), and the inner side of the bucket changing door (13) is connected to the positioning protrusion (24). The positioning protrusion (24) slides inside the bucket changing door (13).

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