New energy low-humidity clean workshop and energy-saving air conditioning system

Abstract

The invention relates to the technical field of low-humidity cooling, in particular to a new energy low-humidity clean workshop and energy-saving air conditioning system.The new energy low-humidity clean workshop and energy-saving air conditioning system comprises a low-humidity workshop, a temperature control low-humidity air conditioning structure is installed on one side of the low-humidity workshop in a penetrating mode, and the temperature control low-humidity air conditioning structure comprises a supporting frame, a cyclic regeneration humidity reduction structure and an energy-saving air conditioning body; the cyclic regeneration dehumidification structure comprises a supporting protection shell, a moisture absorption rotating wheel, a first air outlet pipe, a first air inlet pipe, a first baking cavity, a second baking cavity, a first rotating wheel cooling cavity, a second rotating wheel cooling cavity and a rotating wheel driving structure. According to the invention, the blown cold air can be quickly dehumidified through the cyclic regeneration dehumidification structure, and meanwhile, the adsorption material can be dried and cooled, so that the adsorption material can be recycled, and the adsorption material does not need to be manually replaced, so that the dehumidification effect is greatly improved, and the dehumidification efficiency is relatively high; meanwhile, the operation requirements can be met.

Description

Technical Field

[0001] The present invention relates to a new energy low-humidity clean workshop and an energy-saving air-conditioning system, in particular to a new energy low-humidity clean workshop and an energy-saving air-conditioning system, belonging to the technical field of low-humidity cooling. Background Art

[0002] A low humidity workshop refers to a production or processing area where the ambient humidity is controlled at a low level. It is usually used for the production of humidity-sensitive products or materials, such as lithium batteries, semiconductors, food processing, etc. The design and construction of a low humidity workshop needs to consider multiple factors to ensure that the workshop's humidity, temperature, cleanliness and other conditions meet production requirements, which requires a low humidity and energy-saving air conditioning system;

[0003] However, the humidity of the cold air blown out by the energy-saving air-conditioning system is relatively high, which makes it unable to meet the requirements of low-humidity workshops. This requires rapid dehumidification of the blown cold air. However, the adsorption materials in the existing energy-saving air-conditioning dehumidification structure cannot be recycled and reused. This requires artificial replacement of the adsorption materials, which greatly reduces the dehumidification effect, and thus makes the dehumidification efficiency low, and at the same time cannot meet the operational needs.

[0004] Therefore, there is an urgent need for a new energy low-humidity clean workshop and energy-saving air-conditioning system to solve the above-mentioned problems. Summary of the invention

[0005] The purpose of the present invention is to provide a new energy low-humidity clean workshop and energy-saving air-conditioning system. The device can quickly dehumidify the blown cold air through a recycling and regeneration dehumidification structure, and at the same time can dry and cool the adsorption material so that the adsorption material can be recycled and regenerated. This does not require manual replacement of the adsorption material, thereby greatly improving the dehumidification effect, thereby making the dehumidification efficiency higher and meeting the operational needs.

[0006] In order to achieve the above-mentioned objectives, the main technical solutions adopted by the present invention include: a low-humidity workshop, a temperature-controlled and low-humidity air-conditioning structure is installed on one side of the low-humidity workshop, the temperature-controlled and low-humidity air-conditioning structure includes a support frame, a cyclic regeneration and dehumidification structure arranged on the support frame, and an energy-saving air-conditioning body connected to the cyclic regeneration and dehumidification structure, the cyclic regeneration and dehumidification structure includes a support and protective shell, a moisture-absorbing wheel rotatably connected to the support and protective shell, a first air outlet pipe arranged on one side of the support and protective shell and connected to the low-humidity workshop, a first air inlet pipe arranged on the other side of the support and protective shell and connected to the energy-saving air-conditioning body, a first baking chamber connected to the first side of the support and protective shell, a second baking chamber connected to the other side of the support and protective shell, a first rotor cooling chamber connected to the first side of the support and protective shell, a second rotor cooling chamber connected to the other side of the support and protective shell, and a rotor driving structure arranged on the support and protective shell.

[0007] Preferably, rotation slots are provided on both sides of the hygroscopic wheel, and a rotation block adapted to the rotation slots is provided on the inner wall of the supporting protective shell, and the wheel driving structure includes a driving motor symmetrically arranged on the supporting frame, a driving gear arranged at the output end of the driving motor, and a tooth groove provided on the side of the edge of the hygroscopic wheel and meshing with the driving gear.

[0008] Preferably, the first baking chamber includes a first baking oven, a first mounting base snap-fitted into the first baking oven, and a plurality of first baking lamps arranged on the first mounting base, and the second baking chamber includes a second baking oven, a second mounting base snap-fitted into the second baking oven, and a plurality of second baking lamps arranged on the second mounting base.

[0009] Preferably, the first rotor cooling chamber includes a first cooling box, a powerful forward-rotating fan installed in the first cooling box, and a second air inlet duct connected to the first cooling box; the second rotor cooling chamber includes a second cooling box, a powerful reverse-rotating fan installed in the second cooling box, and a second air outlet duct connected to the second cooling box.

[0010] Preferably, support connecting frames are provided on both sides of the supporting protective shell, the moisture absorbing wheel is rotatably connected to the supporting protective shell through a rotating shaft, a first connecting reinforcement frame is embedded between the first baking box, the first cooling box and the first air outlet duct, and a second connecting reinforcement frame is embedded between the second baking box, the second cooling box and the first air inlet duct.

[0011] Preferably, the first baking oven, the first cooling box and the first air outlet duct are all provided with a first T-shaped protrusion, and the first connecting reinforcement frame is provided with a first T-shaped groove that is mutually compatible with the first T-shaped protrusion; the second baking oven, the second cooling box and the first air inlet duct are all provided with a second T-shaped protrusion, and the second connecting reinforcement frame is provided with a second T-shaped groove that is mutually compatible with the second T-shaped protrusion.

[0012] Preferably, the first air outlet pipe is connected to an air outlet embedded square pipe, and the air outlet embedded square pipe, the second air inlet pipe, the second air inlet pipe and the second air outlet pipe are all equipped with adsorption filter screens by bolts.

[0013] Preferably, the first baking oven, the first cooling box, the first air outlet duct and the first connecting reinforcement frame are all fixed by bolts on the side of the supporting protective shell close to the energy-saving air conditioner body, and the second baking oven, the second cooling box, the first air inlet duct and the second connecting reinforcement frame are all fixed by bolts on the side of the supporting protective shell close to the low-humidity workshop.

[0014] Preferably, the first baking chamber corresponds to the second baking chamber, the first rotary cooling chamber corresponds to the second rotary cooling chamber, the first rotary cooling chamber is arranged beside the first baking chamber, the first air outlet pipe is arranged below the first baking chamber and the first rotary cooling chamber, the second rotary cooling chamber is arranged beside the second baking chamber, and the first air inlet pipe is arranged below the second baking chamber and the second rotary cooling chamber.

[0015] Preferably, a new energy low-humidity clean workshop and energy-saving air conditioning system comprises the following steps:

[0016] S1. When using the device, the first baking chamber should be fixed to the side of the supporting protective shell close to the energy-saving air conditioner body by bolts, and then the second baking chamber should be fixed to the side of the supporting protective shell close to the low-humidity workshop by bolts, and then the first rotary cooling chamber should be fixed to the side of the supporting protective shell close to the energy-saving air conditioner body by bolts, and then the second rotary cooling chamber should be fixed to the side of the supporting protective shell close to the low-humidity workshop by bolts. At this time, it is necessary to ensure that the first baking chamber corresponds to the second baking chamber, and the first rotary cooling chamber corresponds to the second rotary cooling chamber;

[0017] S2. At this time, the first connection reinforcement frame is installed between the first baking box and the first cooling box, and is fixedly connected to the supporting protective shell by bolts. Then, the second connection reinforcement frame is installed between the second baking box and the second cooling box, and is fixedly connected to the supporting protective shell by bolts. Then, the first air inlet pipe is embedded in the first connection reinforcement frame, and is fixedly connected to the supporting protective shell by bolts. Then, the first air outlet pipe is embedded in the second connection reinforcement frame, and is fixedly connected to the supporting protective shell by bolts. At this time, it is necessary to ensure that the first T-shaped protrusion is embedded in the first T-shaped groove, and the second T-shaped protrusion is embedded in the second T-shaped groove. Then, the air outlet embedded square tube on the first air outlet pipe is embedded in the low-humidity workshop through the penetration card, and then the end of the first air inlet pipe is connected and set on the energy-saving air conditioner body;

[0018] S3. When the device is in operation, the energy-saving air conditioner body should be started first, and then the cold air will quickly flow through the first air inlet pipe to the hygroscopic wheel. At this time, the moisture in the cold air flowing through the hygroscopic wheel will be quickly adsorbed, and then the low-humidity cold air after adsorption will quickly enter the first air outlet pipe, and flow to the low-humidity workshop through the air outlet embedded square tube on the first air outlet pipe. At this time, as the cold air slowly enters the hygroscopic wheel, the driving motor starts to drive the driving gear to start rotating. Due to the action of the tooth grooves on the hygroscopic wheel, the rotating driving gear will drive the hygroscopic wheel to rotate slowly. At this time, the rotating hygroscopic wheel part with absorbed moisture will be rotated to the first Between the first baking chamber and the second baking chamber, the first baking lamp tube and the second baking lamp tube in the first baking chamber and the second baking chamber start to work, and quickly dry the moisture absorbing wheel part that absorbs moisture, and then the moisture absorbing wheel after drying will rotate to between the first wheel cooling chamber and the second wheel cooling chamber. At this time, the strong forward fan and the strong reverse fan in the first wheel cooling chamber and the second wheel cooling chamber start to work, so as to form a flowing cooling airflow, thereby quickly cooling the moisture absorbing wheel after drying, so as not to affect the rapid adsorption of moisture in the cold air below, and at the same time will not increase the temperature of the low-humidity cold air.

[0019] The present invention has at least the following beneficial effects:

[0020] 1. The invention can quickly dehumidify the blown cold air through the cooperation of the supporting protective shell, the moisture absorbing wheel, the first air outlet duct, the first air inlet duct, the first baking chamber, the second baking chamber, the first wheel cooling chamber, the second wheel cooling chamber and the wheel driving structure in the recycling and regeneration dehumidification structure, and at the same time dry and cool the adsorption material so that the adsorption material can be recycled and reused, which does not require manual replacement of the adsorption material, thereby greatly improving the dehumidification effect, thereby making the dehumidification efficiency higher and meeting the operational needs.

[0021] 2. The invention can cooperate with the powerful forward-rotating fan in the first wheel cooling chamber and the powerful reverse-rotating fan in the second wheel cooling chamber to form an internal and external air circulation in the first wheel cooling chamber, the desiccant wheel and the second wheel cooling chamber, so that the desiccant wheel after drying can be quickly cooled down, and the desiccant wheel after drying can be quickly reduced to the initial temperature, thereby greatly improving the dehumidification effect, thereby making the dehumidification efficiency higher and meeting the operational needs at the same time. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] The drawings described herein are used to provide a further understanding of the present application and constitute a part of the present application. The illustrative embodiments of the present application and their descriptions are used to explain the present application and do not constitute an improper limitation on the present application. In the drawings:

[0023] Figure 1It is a schematic diagram of static assembly of the temperature-controlled and low-humidity air-conditioning structure of the present invention;

[0024] Figure 2 It is a schematic diagram of the first baking chamber and the first rotary wheel cooling chamber of the present invention;

[0025] Figure 3 It is a schematic diagram of the second baking chamber and the second rotary wheel cooling chamber of the present invention;

[0026] Figure 4 It is a schematic diagram of the structure of the moisture absorption wheel of the present invention;

[0027] Figure 5 It is a schematic diagram of the supporting protective shell and the supporting frame of the present invention;

[0028] Figure 6 It is a schematic diagram of the temperature-controlled low-humidity air conditioner structure of the present invention;

[0029] Figure 7 It is a schematic diagram of the overall structure of the present invention.

[0030] In the figure, 1, low humidity workshop; 2, temperature-controlled low humidity air conditioning structure; 3, support frame; 4, recycling and regeneration dehumidification structure; 5, energy-saving air conditioning body; 6, support protection shell; 7, first air outlet duct; 8, first air inlet duct; 9, first baking chamber; 10, second baking chamber; 11, first rotary cooling chamber; 12, second rotary cooling chamber; 13, rotary driving structure; 14, rotating slot; 15, rotating block; 16, driving motor; 17, driving gear; 18, tooth groove; 19, first baking box; 20, first mounting base; 21, first baking lamp; 22 , second baking box; 23, second mounting base; 24, second baking lamp; 25, first cooling box; 26, powerful forward fan; 27, second air inlet duct; 28, second cooling box; 29, powerful reverse fan; 30, second air outlet duct; 31, supporting connecting frame; 32, rotating shaft; 33, first connecting reinforcement frame; 34, second connecting reinforcement frame; 35, first T-shaped protrusion; 36, first T-shaped groove; 37, second T-shaped protrusion; 38, second T-shaped groove; 39, air outlet embedded in square tube; 40, adsorption filter screen; 41, moisture absorption wheel. DETAILED DESCRIPTION

[0031] The technical solutions in the embodiments of the present invention will be clearly and completely described below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative work are within the scope of protection of the present invention.

[0032] like Figure 1-Figure 7As shown, this embodiment provides an embodiment of a new energy low-humidity clean workshop and energy-saving air-conditioning system.

[0033] The low humidity workshop 1 includes a temperature-controlled low humidity air conditioning structure 2, which is installed on one side of the low humidity workshop 1. The temperature-controlled low humidity air conditioning structure 2 includes a support frame 3, a cyclic regeneration dehumidification structure 4 arranged on the support frame 3, and an energy-saving air conditioning body 5 connected to the cyclic regeneration dehumidification structure 4. The cyclic regeneration dehumidification structure 4 includes a support protection shell 6, a moisture absorption wheel 41 rotatably connected to the support protection shell 6, a first air outlet pipe 7 arranged on one side of the support protection shell 6 and connected to the low humidity workshop 1, a first air inlet pipe 8 arranged on the other side of the support protection shell 6 and connected to the energy-saving air conditioning body 5, and a first air outlet pipe 7 arranged on the other side of the support protection shell 6 and connected to the energy-saving air conditioning body 5. The first baking chamber 9 on one side is connected to the second baking chamber 10 installed on the other side of the supporting protective shell 6, the first rotary cooling chamber 11 is connected to the first rotary cooling chamber 12 installed on the other side of the supporting protective shell 6, and the rotary driving structure 13 is arranged on the supporting protective shell 6. The low humidity workshop 1 is convenient for providing a workplace for experiments with higher requirements or product processing with requirements on humidity and temperature. The temperature-controlled low humidity air conditioning structure 2 is convenient for low humidity cooling of the low humidity workshop 1. The support frame 3 is convenient for fixing and supporting the recycling and regeneration dehumidification structure 4 and the energy-saving air conditioning body 5. The regenerative dehumidification structure 4 is convenient for quickly dehumidifying the cold air output from the energy-saving air conditioner body 5, and can also quickly dry and restore the moisture adsorption structure in time. Finally, the dried moisture adsorption structure can be quickly cooled by air convection, thereby ensuring that the restored moisture adsorption structure has better adsorption capacity. The energy-saving air conditioner body 5 is convenient for providing strong cold air, and the supporting protective shell 6 is convenient for supporting and fixing the moisture absorption wheel 41. The moisture absorption wheel 41 is convenient for quickly absorbing moisture in the cold air, thereby obtaining dry cold air. The first air outlet 7 is convenient for inputting the dry cold air after adsorption. In the low-humidity workshop 1, the first air inlet duct 8 is convenient for injecting strong cold air provided by the energy-saving air-conditioning body 5 into the circulating regeneration and dehumidification structure 4, and the first baking chamber 9 and the second baking chamber 10 cooperate with each other to facilitate rapid baking of the moisture absorption wheel 41 that absorbs moisture, so that the moisture in the moisture absorption wheel 41 is quickly evaporated until it is dry, and the first wheel cooling chamber 11 and the second wheel cooling chamber 12 cooperate with each other to facilitate rapid cooling of the dried moisture absorption wheel 41, so that the dried moisture absorption wheel 41 is quickly reduced to the initial temperature, and the wheel driving structure 13 is convenient for providing a driving force for the moisture absorption wheel 41 to rotate.

[0034] In this embodiment, Figure 1 , Figure 4 as well as Figure 5As shown, a rotating slot 14 is provided on both sides of the hygroscopic wheel 41, and a rotating block 15 adapted to the rotating slot 14 is provided on the inner wall of the supporting protective shell 6. The wheel driving structure 13 includes a driving motor 16 symmetrically arranged on the supporting frame 3, a driving gear 17 arranged at the output end of the driving motor 16, and a tooth groove 18 provided on the edge side of the hygroscopic wheel 41 and meshing with the driving gear 17. The rotating block 15 cooperates with the rotating slot 14 to facilitate the rotation of the hygroscopic wheel 41 and is embedded in the supporting protective shell 6. The driving motor 16 is convenient for providing driving force for the rotation of the driving gear 17, and the tooth groove 18 is convenient for meshing with the driving gear 17, so that the hygroscopic wheel 41 starts to rotate slowly under the rotation of the driving gear 17, thereby realizing drying and cooling of the hygroscopic wheel 41.

[0035] In this embodiment, Figure 1 , Figure 2 as well as Figure 3 As shown, the first baking chamber 9 includes a first baking oven 19, a first mounting base 20 embedded in the first baking oven 19, and a plurality of first baking lamps 21 arranged on the first mounting base 20, and the second baking chamber 10 includes a second baking oven 22, a second mounting base 23 embedded in the second baking oven 22, and a plurality of second baking lamps 24 arranged on the second mounting base 23. The first baking oven 19 is convenient for embedding the first mounting base 20 and the plurality of first baking lamps 21 for protection, the first mounting base 20 is convenient for supporting and fixing the first baking lamps 21, and is convenient for embedding the first baking lamps 21 in the first baking oven 19, the second baking chamber 10 is convenient for embedding the second mounting base 23 and the plurality of second baking lamps 24 for protection, the second mounting base 23 is convenient for supporting and fixing the second baking lamps 24, and is convenient for embedding the second baking lamps 24 in the second baking chamber 10.

[0036] In this embodiment, Figure 1 , Figure 2 as well as Figure 3 As shown, the first wheel cooling chamber 11 includes a first cooling box 25, a strong forward rotating fan 26 installed in the first cooling box 25, and a second air inlet pipe 27 connected to the first cooling box 25. The second wheel cooling chamber 12 includes a second cooling box 28, a strong reverse rotating fan 29 installed in the second cooling box 28, and a second air outlet pipe 30 connected to the second cooling box 28. The first cooling box 25 is convenient for supporting and protecting the strong forward rotating fan 26, and the strong forward rotating fan 26 is convenient for quickly drawing the cold air from the outside into the first cooling box 25. The second cooling box 28 is convenient for supporting and protecting the strong reverse rotating fan 29, and the strong reverse rotating fan 29 is convenient for quickly drawing the cold air in the first cooling box 25 to the outside, thereby forming an internal and external circulating airflow, which is convenient for quickly cooling the moisture absorbing wheel 41 after high-temperature drying.

[0037] In this embodiment, Figure 1 , Figure 4 as well as Figure 5 As shown, support connecting frames 31 are provided on both sides of the supporting protective shell 6, and the moisture absorption wheel 41 is rotatably connected to the supporting protective shell 6 through a rotating shaft 32. A first connecting reinforcement frame 33 is embedded and installed between the first baking box 19, the first cooling box 25 and the first air outlet duct 7, and a second connecting reinforcement frame 34 is embedded and installed between the second baking box 22, the second cooling box 28 and the first air inlet duct 8. The two supporting connecting frames 31 are convenient for supporting and fixing the first baking chamber 9, the second baking chamber 10, the first wheel cooling chamber 11 and the second wheel cooling chamber 12 respectively, and at the same time, it is convenient to divide the moisture absorption wheel 41 into three areas of adsorption, drying and cooling. The rotating shaft 32 facilitates the rotatable connection of the wet wheel 41 to the supporting protective shell 6.

[0038] In this embodiment, Figure 1 , Figure 2 as well as Figure 3 As shown, the first baking oven 19, the first cooling box 25 and the first air outlet duct 7 are all provided with a first T-shaped protrusion 35, the first connecting reinforcement frame 33 is provided with a first T-shaped groove 36 which is mutually adapted to the first T-shaped protrusion 35, the second baking oven 22, the second cooling box 28 and the first air inlet duct 8 are all provided with a second T-shaped protrusion 37, the second connecting reinforcement frame 34 is provided with a second T-shaped groove 38 which is mutually adapted to the second T-shaped protrusion 37, the first T-shaped protrusion 35 and the first T-shaped groove 36 facilitate the first connecting reinforcement frame 33 to be embedded in the gap between the first baking oven 19, the first cooling box 25 and the first air outlet duct 7, the second T-shaped protrusion 37 and the second T-shaped groove 38 facilitate the second connecting reinforcement frame 34 to be embedded in the gap between the second baking oven 22, the second cooling box 28 and the first air inlet duct 8.

[0039] In this embodiment, Figure 1 , Figure 2 , Figure 3 as well as Figure 6 As shown, the first air outlet duct 7 is connected to an air outlet embedded square tube 39, and the air outlet embedded square tube 39, the second air inlet duct 27, the second air inlet duct 27 and the second air outlet duct 30 are all installed with an adsorption filter screen 40 by bolts. The air outlet embedded square tube 39 facilitates the first air outlet duct 7 to be embedded and installed in the low-humidity workshop 1, and the adsorption filter screen 40 prevents foreign matter or moisture from entering the second air inlet duct 27, the second air inlet duct 27 and the second air outlet duct 30.

[0040] In this embodiment, Figure 1 , Figure 2 as well as Figure 3As shown, the first baking oven 19, the first cooling box 25, the first air outlet duct 7 and the first connecting reinforcement frame 33 are all fixed on the supporting protective shell 6 by bolts on the side close to the energy-saving air conditioner body 5, and the second baking oven 22, the second cooling box 28, the first air inlet duct 8 and the second connecting reinforcement frame 34 are all fixed on the supporting protective shell 6 by bolts on the side close to the low-humidity workshop 1.

[0041] In this embodiment, Figure 1 , Figure 2 , Figure 3 , Figure 6 as well as Figure 7 As shown, the first baking chamber 9 corresponds to the second baking chamber 10, the first rotary cooling chamber 11 corresponds to the second rotary cooling chamber 12, the first rotary cooling chamber 11 is arranged beside the first baking chamber 9, the first air outlet pipe 7 is arranged below the first baking chamber 9 and the first rotary cooling chamber 11, the second rotary cooling chamber 12 is arranged beside the second baking chamber 10, and the first air inlet pipe 8 is arranged below the second baking chamber 10 and the second rotary cooling chamber 12.

[0042] In this embodiment, if Figure 1-Figure 7 As shown, the working process of a new energy low-humidity clean workshop and energy-saving air-conditioning system provided in this embodiment is as follows:

[0043] Step 1: When using the device, the first baking chamber 9 should be fixed to the side of the supporting protective shell 6 close to the energy-saving air conditioner body 5 by bolts, and then the second baking chamber 10 should be fixed to the side of the supporting protective shell 6 close to the low-humidity workshop 1 by bolts, and then the first rotary cooling chamber 11 should be fixed to the side of the supporting protective shell 6 close to the energy-saving air conditioner body 5 by bolts, and then the second rotary cooling chamber 12 should be fixed to the side of the supporting protective shell 6 close to the low-humidity workshop 1 by bolts. At this time, it is necessary to ensure that the first baking chamber 9 corresponds to the second baking chamber 10, and the first rotary cooling chamber 11 corresponds to the second rotary cooling chamber 12;

[0044] Step 2: At this time, the first connecting reinforcement frame 33 is inserted and installed between the first baking oven 19 and the first cooling box 25, and is fixedly connected to the supporting protective shell 6 by bolts. Then, the second connecting reinforcement frame 34 is inserted and installed between the second baking oven 22 and the second cooling box 28, and is fixedly connected to the supporting protective shell 6 by bolts. Subsequently, the first air inlet pipe 8 is embedded and installed on the first connecting reinforcement frame 33, and is fixedly connected to the supporting protective shell 6 by bolts. Then, the first air outlet pipe 7 is embedded and installed on the second connecting reinforcement frame 34, and is fixedly connected to the supporting protective shell 6 by bolts. At this time, it is necessary to ensure that the first T-shaped protrusion 35 is embedded in the first T-shaped groove 36, and the second T-shaped protrusion 37 is embedded in the second T-shaped groove 38. Then, the air outlet embedded square tube 39 on the first air outlet pipe 7 is penetrated and embedded in the low-humidity workshop 1, and then the end of the first air inlet pipe 8 is connected and set on the energy-saving air conditioner body 5;

[0045] Step 3: When the device is in operation, the energy-saving air conditioner body 5 should be started first, and then the cold air will quickly flow through the first air inlet pipe 8 to the moisture absorption wheel 41. At this time, the moisture in the cold air flowing through the moisture absorption wheel 41 will be quickly adsorbed, and then the low-humidity cold air after adsorption will quickly enter the first air outlet pipe 7, and flow to the low-humidity workshop 1 through the air outlet embedded square tube 39 on the first air outlet pipe 7. At this time, as the cold air slowly enters the moisture absorption wheel 41, the driving motor 16 starts to drive the driving gear 17 to start rotating. Due to the action of the tooth groove 18 opened on the moisture absorption wheel 41, the rotating driving gear 17 will drive the moisture absorption wheel 41 to rotate slowly. At this time, the rotating moisture absorption wheel 41 part that absorbs moisture will be rotated to the first Between a baking chamber 9 and a second baking chamber 10, the first baking lamp tube 21 and the second baking lamp tube 24 in the first baking chamber 9 and the second baking chamber 10 start to operate, and quickly dry the moisture absorbing wheel 41 part that absorbs moisture, and then the dried moisture absorbing wheel 41 will rotate to between the first wheel cooling chamber 11 and the second wheel cooling chamber 12, at this time, the strong forward fan 26 and the strong reverse fan 29 in the first wheel cooling chamber 11 and the second wheel cooling chamber 12 start to operate, so that a flowing cooling airflow is formed, thereby quickly cooling the moisture absorbing wheel 41 after drying, so that it will not affect the rapid adsorption of moisture in the cold air below, and at the same time will not increase the temperature of the low-humidity cold air.

[0046] For example, certain words are used in the specification and claims to refer to specific components. Those skilled in the art should understand that hardware manufacturers may use different terms to refer to the same component. This specification and claims do not use differences in names as a way to distinguish components, but use differences in the functions of components as the criteria for distinction. For example, "including" mentioned throughout the specification and claims is an open term, so it should be interpreted as "including but not limited to". "Approximately" means that within an acceptable error range, those skilled in the art can solve technical problems within a certain error range and basically achieve technical effects.

[0047] It should be noted that the terms "include", "comprises" or any other variations thereof are intended to cover non-exclusive inclusion, so that a product or system including a series of elements includes not only those elements, but also other elements not explicitly listed, or also includes elements inherent to such product or system. In the absence of more restrictions, the elements defined by the sentence "comprises a ..." do not exclude the existence of other identical elements in the product or system including the elements.

[0048] The above description shows and describes several preferred embodiments of the present invention, but as mentioned above, it should be understood that the present invention is not limited to the form disclosed herein, and should not be regarded as excluding other embodiments, but can be used in various other combinations, modifications and environments, and can be modified within the scope of the invention concept described herein through the above teachings or the technology or knowledge of the relevant field. Changes and variations made by those skilled in the art do not depart from the spirit and scope of the present invention, and should be within the scope of protection of the claims attached to the present invention.

Claims

1. A new energy low-humidity clean workshop and energy-saving air conditioning system, comprising a low-humidity workshop (1), characterized in that: A temperature-controlled low-humidity air-conditioning structure (2) is installed through one side of the low-humidity workshop (1); the temperature-controlled low-humidity air-conditioning structure (2) comprises a support frame (3), a cyclic regeneration dehumidification structure (4) arranged on the support frame (3), and an energy-saving air-conditioning body (5) connected to the cyclic regeneration dehumidification structure (4); the cyclic regeneration dehumidification structure (4) comprises a support protection shell (6), a moisture absorption wheel (41) rotatably connected to the support protection shell (6), and a first air outlet pipe arranged on one side of the support protection shell (6) and connected to the low-humidity workshop (1). (7), a first air inlet pipe (8) arranged on the other side of the supporting protective shell (6) and connected to the energy-saving air conditioner body (5), a first baking chamber (9) connected to and installed on one side of the supporting protective shell (6), a second baking chamber (10) connected to and installed on the other side of the supporting protective shell (6), a first rotary cooling chamber (11) connected to and installed on one side of the supporting protective shell (6), a second rotary cooling chamber (12) connected to and installed on the other side of the supporting protective shell (6), and a rotary driving structure (13) arranged on the supporting protective shell (6).

2. According to claim 1, a new energy low-humidity clean workshop and energy-saving air conditioning system is characterized in that: Both sides of the moisture absorption rotary wheel (41) are provided with rotation slots (14); the inner wall of the support protection shell (6) is provided with a rotation block (15) adapted to the rotation slots (14); the rotary wheel driving structure (13) comprises a driving motor (16) symmetrically arranged on the support frame (3), a driving gear (17) arranged at the output end of the driving motor (16), and a tooth groove (18) provided on the edge side of the moisture absorption rotary wheel (41) and meshing with the driving gear (17).

3. According to claim 1, a new energy low-humidity clean workshop and energy-saving air conditioning system is characterized in that: The first baking chamber (9) comprises a first baking box (19), a first mounting base (20) snap-fitted into the first baking box (19), and a plurality of first baking lamps (21) arranged on the first mounting base (20); the second baking chamber (10) comprises a second baking box (22), a second mounting base (23) snap-fitted into the second baking box (22), and a plurality of second baking lamps (24) arranged on the second mounting base (23).

4. A new energy low-humidity clean workshop and energy-saving air conditioning system according to claim 3, characterized in that: The first rotor cooling chamber (11) comprises a first cooling box (25), a strong forward-rotating fan (26) installed in the first cooling box (25), and a second air inlet pipe (27) connected to the first cooling box (25); the second rotor cooling chamber (12) comprises a second cooling box (28), a strong reverse-rotating fan (29) installed in the second cooling box (28), and a second air outlet pipe (30) connected to the second cooling box (28).

5. A new energy low-humidity clean workshop and energy-saving air conditioning system according to claim 4, characterized in that: Support connection frames (31) are provided on both sides of the support protection shell (6); the moisture absorption wheel (41) is rotatably connected to the support protection shell (6) via a rotating shaft (32); a first connection reinforcement frame (33) is embedded between the first baking box (19), the first cooling box (25) and the first air outlet duct (7); and a second connection reinforcement frame (34) is embedded between the second baking box (22), the second cooling box (28) and the first air inlet duct (8).

6. A new energy low-humidity clean workshop and energy-saving air conditioning system according to claim 5, characterized in that: The first baking box (19), the first cooling box (25) and the first air outlet pipe (7) are all provided with a first T-shaped protrusion (35); the first connecting reinforcement frame (33) is provided with a first T-shaped groove (36) which is mutually compatible with the first T-shaped protrusion (35); the second baking box (22), the second cooling box (28) and the first air inlet pipe (8) are all provided with a second T-shaped protrusion (37); the second connecting reinforcement frame (34) is provided with a second T-shaped groove (38) which is mutually compatible with the second T-shaped protrusion (37).

7. A new energy low-humidity clean workshop and energy-saving air conditioning system according to claim 4, characterized in that: The first air outlet pipe (7) is connected to an air outlet embedded square pipe (39), and an adsorption filter screen (40) is installed on the air outlet embedded square pipe (39), the second air inlet pipe (27) and the second air outlet pipe (30) via bolts.

8. A new energy low-humidity clean workshop and energy-saving air conditioning system according to claim 4, characterized in that: The first baking box (19), the first cooling box (25), the first air outlet pipe (7) and the first connecting reinforcement frame (33) are all fixed by bolts to the side of the supporting protective shell (6) close to the energy-saving air conditioner body (5), and the second baking box (22), the second cooling box (28), the first air inlet pipe (8) and the second connecting reinforcement frame (34) are all fixed by bolts to the side of the supporting protective shell (6) close to the low-humidity workshop (1).

9. The new energy low-humidity clean workshop and energy-saving air conditioning system according to claim 1 is characterized by: The first baking chamber (9) corresponds to the second baking chamber (10), the first rotary cooling chamber (11) corresponds to the second rotary cooling chamber (12), the first rotary cooling chamber (11) is arranged beside the first baking chamber (9), the first air outlet pipe (7) is arranged below the first baking chamber (9) and the first rotary cooling chamber (11), the second rotary cooling chamber (12) is arranged beside the second baking chamber (10), and the first air inlet pipe (8) is arranged below the second baking chamber (10) and the second rotary cooling chamber (12).

10. A new energy low-humidity clean workshop and energy-saving air conditioning system according to claim 1, characterized in that: The following steps are involved: S1. When using the device, the first baking chamber (9) should be first fixed to the side of the supporting protective shell (6) close to the energy-saving air conditioner body (5) by bolts, and then the second baking chamber (10) should be fixed to the side of the supporting protective shell (6) close to the low-humidity workshop (1) by bolts, and then the first rotary cooling chamber (11) should be fixed to the side of the supporting protective shell (6) close to the energy-saving air conditioner body (5) by bolts, and then the second rotary cooling chamber (12) should be fixed to the side of the supporting protective shell (6) close to the low-humidity workshop (1) by bolts. At this time, it should be ensured that the first baking chamber (9) corresponds to the second baking chamber (10), and the first rotary cooling chamber (11) corresponds to the second rotary cooling chamber (12); S2. At this time, the first connection reinforcement frame (33) is inserted and installed between the first baking box (19) and the first cooling box (25), and is fixedly connected to the supporting protective shell (6) by bolts. Then, the second connection reinforcement frame (34) is inserted and installed between the second baking box (22) and the second cooling box (28), and is fixedly connected to the supporting protective shell (6) by bolts. Then, the first air inlet pipe (8) is inserted and installed on the first connection reinforcement frame (33), and is fixedly connected to the supporting protective shell (6) by bolts. , then the first air outlet pipe (7) is mounted on the second connection reinforcement frame (34) and fixedly connected to the supporting protective shell (6) by bolts. At this time, it is necessary to ensure that the first T-shaped protrusion (35) is mounted in the first T-shaped groove (36), and the second T-shaped protrusion (37) is mounted in the second T-shaped groove (38). Then, the air outlet embedded square tube (39) on the first air outlet pipe (7) is penetrated and mounted on the low-humidity workshop (1), and then the end of the first air inlet pipe (8) is connected and set on the energy-saving air conditioner body (5); S3. When the device is in operation, the energy-saving air conditioner body (5) should be started first, and then the cold air will quickly flow through the first air inlet pipe (8) to the moisture absorption wheel (41). At this time, the moisture in the cold air flowing through the moisture absorption wheel (41) will be quickly adsorbed, and then the low-humidity cold air after the adsorption treatment will quickly enter the first air outlet pipe (7) and flow into the low-humidity workshop (1) through the air outlet embedded square pipe (39) on the first air outlet pipe (7). At this time, as the cold air slowly enters the moisture absorption wheel (41), the driving motor (16) starts to drive the driving gear (17) to start rotating. Due to the action of the tooth groove (18) provided on the moisture absorption wheel (41), the rotating driving gear (17) will drive the moisture absorption wheel (41) to rotate slowly, and the rotating moisture absorption wheel (41) part that absorbs moisture will be rotated to Between the first baking chamber (9) and the second baking chamber (10), the first baking lamp tube (21) and the second baking lamp tube (24) in the first baking chamber (9) and the second baking chamber (10) start to operate, and quickly dry the moisture absorbing wheel (41) part adsorbed with moisture, and then the dried moisture absorbing wheel (41) will rotate to between the first wheel cooling chamber (11) and the second wheel cooling chamber (12), at this time, the strong forward fan (26) and the strong reverse fan (29) in the first wheel cooling chamber (11) and the second wheel cooling chamber (12) start to operate, so that a flowing cooling airflow is formed, thereby quickly cooling the moisture absorbing wheel (41) after drying, so that it will not affect the rapid adsorption of moisture in the cold air below, and at the same time will not cause the temperature of the low-humidity cold air to rise.

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