Low-loss efficient camel hair drying device

Abstract

The present application relates to the technical field of drying equipment, and discloses a low-loss and high-efficiency camel wool drying equipment; the present application is provided with a hierarchical dehumidification mechanism, a large-aperture outer penetrating hole is formed in the outer wall of the dehumidification mechanism, a small-aperture inner penetrating hole is formed in the inner wall, and a dehumidification layer made of silica gel particles is arranged; the right side area is provided with used silica gel particles for primary coarse dehumidification, and the left side area is provided with high-activity silica gel particles regenerated by an S-shaped drying device for secondary fine dehumidification; meanwhile, the drying device is used for heating and recovering the dehumidification layer after water absorption; the S-shaped structure increases the contact area to ensure the regeneration effect; the humidity control filter screen structure is provided with a pressure sensor; the pressure sensor transmits the filter screen weight signal to the controller; when the filter screen weight exceeds the standard, the controller reduces the drying roller speed to slow down the moisture evaporation rate of the wool ball, and the electric telescopic rod is used for switching the filter screen working area; when the filter screen weight returns to normal, the control device returns to the normal state, and the stability of the camel wool drying is improved.

Description

Technical Field

[0001] This invention relates to the field of drying equipment technology, and in particular to a low-loss and high-efficiency camel wool drying equipment. Background Technology

[0002] Camel hair is a natural protein fiber that is easily damaged under high heat or mechanical action. Therefore, the ideal drying method is to lay the washed camel hair flat on a clean open ground and sun-dry or air-dry it naturally. However, this drying method is very unstable and has limited drying efficiency.

[0003] Chinese Patent Publication No. CN207365649U discloses a drying device for flocking production, including a base, a drying chamber connected through the inner side of the groove, a heating chamber connected to the top of the inner side of the drying chamber, a heating tube connected to the inner side of the heating chamber, a heating wire provided in the inner cavity of the heating tube, a heat dissipation plate connected to the bottom of the drying tube, an exhaust pipe connected through the bottom of the drying chamber, an exhaust fan connected to the left side of the exhaust pipe, a filter screen connected to the right side of the exhaust pipe, and a telescopic rod connected to the left side of the drying chamber. This utility model solves the problem of flocking fibers easily falling off due to uneven drying and heating by using an air inlet pipe, airflow valve, heating chamber, air inlet fan, heating tube, heating wire, air inlet hole, heat dissipation hole, and heat dissipation plate. It also solves the problem of environmental pollution caused by flocking fibers floating in the air by using a drying chamber, exhaust pipe, exhaust pipe, exhaust fan, and filter screen.

[0004] The above-mentioned and existing related technologies have the following drawbacks: In the existing low-loss and high-efficiency camel wool drying equipment, the gas humidity fluctuates greatly during the drying process. When the humidity is high, the dehumidification device is easily overloaded, which can lead to dehumidification failure and the wool clumps becoming damp again. When the humidity is low, the dehumidification device runs idle, wasting energy and making it difficult to maintain the gas humidity within a suitable range, thus affecting the drying quality and efficiency of camel wool. Summary of the Invention

[0005] The technical problem to be solved by this invention is that the existing technology has the disadvantage of large fluctuations in gas humidity, which leads to unstable drying efficiency. To address this, we propose a low-loss and high-efficiency camel wool drying device.

[0006] To achieve the above objectives, this application adopts the following technical solution: a low-loss and high-efficiency camel wool drying equipment, comprising: a camel wool drying equipment body, a drying air duct inside the camel wool drying equipment body, a limiting frame slidably connected inside the drying air duct, a humidity control filter structure inside the limiting frame, a pressure sensor tightly attached to the bottom of the humidity control filter structure, an electric telescopic rod fixedly connected to the top of the limiting frame, a drying roller on one side of the humidity control filter structure, a dehumidification mechanism on the other side of the humidity control filter structure, an external penetrating hole on the outer wall of the dehumidification mechanism, an internal penetrating hole on the inner wall of the dehumidification mechanism, a dehumidification layer fixedly connected inside the dehumidification mechanism, a conveying roller on the side of the dehumidification mechanism, a drying device at the bottom of the dehumidification layer, a drain pipe fixedly connected to the side of the drying device, a first heating blower fixedly connected to the side of the drying air duct, a circulating air duct fixedly connected to the top of the first heating blower, and a second heating blower fixedly connected to the bottom of the circulating air duct.

[0007] Preferably, two-thirds of the area of ​​the humidity control filter structure is located inside the drying duct, and the width of the humidity control filter structure is the same as the width of the drying duct.

[0008] Preferably, the humidity control filter structure is a silicone-impregnated non-woven fabric filter, and the dehumidification layer is made of silicone granules.

[0009] Preferably, the pressure sensor and the limiting frame are fixedly connected, and the electric telescopic rod and the camel wool drying equipment body are fixedly connected.

[0010] Preferably, the drying drum and the drying duct are rotatably connected, and a drum door is provided at one end of the drying drum.

[0011] Preferably, the diameter of the outer penetrating hole is larger than the diameter of the inner penetrating hole, and the thickness of the outer penetrating hole is the same as the thickness of the inner penetrating hole.

[0012] Preferably, the drying device is fixedly connected to the main body of the camel wool drying equipment, and the dehumidification mechanism inside the drying device is S-shaped.

[0013] Preferably, the dehumidification mechanism is symmetrically arranged about the vertical central axis of the conveyor roller, and the conveyor roller is rotatably connected to the main body of the camel wool drying equipment.

[0014] Preferably, the No. 1 heating and blowing device is fixedly connected to the main body of the camel wool drying equipment, and the No. 2 heating and blowing device is fixedly connected to the drying air duct.

[0015] Preferably, a loading / unloading switch door is movably connected to one side of the camel wool drying equipment body, a transparent observation window is fixedly connected to the other side of the camel wool drying equipment body, and a controller is fixedly connected to the side of the loading / unloading switch door.

[0016] The technical effects and advantages of this invention are as follows:

[0017] In this invention, a graded dehumidification mechanism is designed. The outer wall of the dehumidification mechanism has large-diameter external penetrating holes, and the inner wall has small-diameter internal penetrating holes. Combined with a dehumidification layer made of silica gel particles, the right-side area uses used silica gel particles for primary coarse dehumidification, while the left-side area uses highly active silica gel particles regenerated by an S-shaped drying device for secondary fine dehumidification. Simultaneously, the drying device heats and restores the dehumidification layer after water absorption. The S-shaped structure increases the contact area to ensure regeneration efficiency. A humidity-controlled filter structure with a pressure sensor is included. The pressure sensor transmits the filter weight signal to the controller. When the filter weight exceeds the limit, the controller reduces the drying drum speed to slow down the rate of moisture loss from the downy fibers. Simultaneously, it controls the electric telescopic rod to switch the filter's working area. When the filter weight returns to normal, the control device returns to normal operation, improving the stability of camel wool drying. Attached Figure Description

[0018] The disclosure of this invention is illustrated with reference to the accompanying drawings. It should be understood that the drawings are for illustrative purposes only and are not intended to limit the scope of protection of this invention. In the drawings, the same reference numerals are used to refer to the same parts:

[0019] Figure 1 This is a front view structural diagram of the camel wool drying equipment of the present invention;

[0020] Figure 2 This is a cross-sectional schematic diagram of the camel wool drying equipment of the present invention;

[0021] Figure 3 This is a schematic diagram of the rising structure of the humidity control filter of the present invention;

[0022] Figure 4 This is a schematic diagram of the descending structure of the humidity control filter of the present invention;

[0023] Figure 5 This is a schematic diagram of the drying drum portion of the present invention;

[0024] Figure 6 This is a schematic diagram of the dehumidification mechanism of the present invention;

[0025] Figure 7 This is an exploded structural diagram of the dehumidification mechanism of the present invention;

[0026] Figure 8 This is a cross-sectional structural diagram of the drying device part of the present invention.

[0027] Legend: 1. Camel wool drying equipment body; 2. Drying air duct; 3. Limiting frame; 4. Humidity control filter structure; 5. Pressure sensor; 6. Electric telescopic rod; 7. Drying drum; 8. Drum opening and closing door; 9. Dehumidification mechanism; 10. Inner penetrating hole; 11. Outer penetrating hole; 12. Dehumidification layer; 13. Drying device; 14. Sewage pipe; 15. Conveyor roller; 16. No. 1 heating and blowing device; 17. Circulating air duct; 18. No. 2 heating and blowing device; 19. Loading and unloading opening and closing door; 20. Transparent observation window; 21. Controller. Detailed Implementation

[0028] It is readily understood that, based on the technical solution of this invention, those skilled in the art can propose various interchangeable structural methods and implementations without altering the essential spirit of the invention. Therefore, the following detailed embodiments and accompanying drawings are merely illustrative examples of the technical solution of this invention and should not be considered as the entirety of the invention or as limitations or restrictions on the technical solution of this invention.

[0029] According to the embodiments of the present invention, Figures 1 to 8 As shown.

[0030] Camel wool is a natural protein fiber that is easily damaged under high heat or mechanical action. Therefore, the ideal drying method is to lay the washed camel hair flat on a clean open ground and sun-dry or air-dry it naturally. However, this drying method is very unstable and has limited drying efficiency. Camel wool drying equipment is a low-temperature, uniform drying device specifically designed for camel wool fibers. The core of the equipment is a hot air circulation, temperature and humidity control, and gentle conveying system. It can efficiently remove moisture from the fibers without damaging the natural fluffiness, softness, and warmth of the camel wool. The equipment usually includes a feeding, drying chamber, hot air generation, dehumidification, discharge, and automatic temperature control module. It uses low-temperature hot air to evenly penetrate the wool layer, combined with gentle stirring or mesh belt conveying to achieve uniform drying. It is also equipped with humidity monitoring and dehumidification regulation to prevent fiber clumping, brittleness, or yellowing. It balances drying efficiency and fiber quality and is suitable for the batch drying needs of camel wool raw materials in the textile, home textile, and apparel industries.

[0031] Existing low-loss, high-efficiency camel wool drying equipment experiences significant fluctuations in gas humidity during the drying process. When the camel wool inside the drying drum 7 is at a high moisture content and the moisture loss increases sharply, the gas carrying a large amount of moisture directly impacts the dehumidification device, easily causing the dehumidification medium to quickly become saturated and the dehumidification capacity to fail due to overload. The high-humidity gas that has not been fully dehumidified flows back to the drying drum 7, directly causing localized re-moistening of the wool clumps and uneven drying. This not only significantly prolongs the drying cycle and reduces production efficiency, but also damages the fluffiness and integrity of the camel wool fibers due to repeated moisture absorption, increasing the fiber damage rate and affecting the quality of the finished product. Conversely, when the moisture content of the camel wool drops to a low level and the moisture loss decreases significantly, the gas humidity decreases significantly, but the dehumidification device still operates at fixed parameters, resulting in excessive dehumidification capacity and idling. This not only wastes a lot of heating and driving energy, but may also cause the wool clumps to become too dry and brittle due to excessive dehumidification, similarly damaging the fiber quality. To solve this problem, this invention incorporates the following design in the low-loss, high-efficiency camel wool drying equipment:

[0032] A low-loss, high-efficiency camel wool drying device includes: a camel wool drying device body 1; a drying air duct 2 is opened inside the camel wool drying device body 1; a limiting frame 3 is slidably connected inside the drying air duct 2; a humidity control filter structure 4 is installed inside the limiting frame 3; a pressure sensor 5 is tightly attached to the bottom of the humidity control filter structure 4; the pressure sensor 5 is a device that can convert the pressure signal of a fluid or solid into a measurable electrical signal; an electric telescopic rod 6 is fixedly connected to the top of the limiting frame 3; the electric telescopic rod 6 is an actuator that uses a motor as a power source to convert rotational motion into linear reciprocating telescopic motion through mechanical transmission, realizing linear actions such as pushing, pulling, lifting, and extending; a drying roller 7 is provided on one side of the humidity control filter structure 4; and a dehumidification mechanism 9 is provided on the other side of the humidity control filter structure 4. The wall has an external penetrating hole 11, and the inner wall of the dehumidification mechanism 9 has an internal penetrating hole 10. A dehumidification layer 12 is fixedly connected inside the dehumidification mechanism 9. A conveying roller 15 is provided on the side of the dehumidification mechanism 9. A drying device 13 is provided at the bottom of the dehumidification layer 12. The drying device 13 is a device that removes moisture from materials, products or items by heating, hot air circulation or airflow to achieve drying treatment. A drain pipe 14 is fixedly connected to the side of the drying device 13. A first heating blower 16 is fixedly connected to the side of the drying air duct 2. A circulation air duct 17 is fixedly connected to the top of the first heating blower 16. A second heating blower 18 is fixedly connected to the bottom of the circulation air duct 17. The heating blower is a device that integrates heating elements and fans to convert electrical energy into heat energy and generate directional hot airflow for drying, heating, dehumidifying or local heating.

[0033] Two-thirds of the area of ​​the humidity control filter structure 4 is located inside the drying duct 2. The width of the humidity control filter structure 4 is the same as the width of the drying duct 2. The humidity control filter structure 4 is a silicone-impregnated non-woven fabric filter. The dehumidification layer 12 is made of silicone granules. The pressure sensor 5 is fixedly connected to the limiting frame 3. The electric telescopic rod 6 is fixedly connected to the camel wool drying equipment body 1. The drying drum 7 is rotatably connected to the drying duct 2. One end of the drying drum 7 is equipped with a drum opening and closing door 8. The diameter of the outer penetrating hole 11 is larger than the diameter of the inner penetrating hole 10, and the thickness of the outer penetrating hole 11 is the same as the thickness of the inner penetrating hole 10. The drying device 13 is fixedly connected to the camel wool drying equipment body 1. The internal dehumidification mechanism 9 is S-shaped and symmetrical about the vertical central axis of the conveyor roller 15. The conveyor roller 15 is rotatably connected to the main body 1 of the camel wool drying equipment. The first heating and blowing device 16 is fixedly connected to the main body 1 of the camel wool drying equipment. The second heating and blowing device 18 is fixedly connected to the drying air duct 2. A loading and unloading switch door 19 is movably connected to one side of the main body 1 of the camel wool drying equipment. A transparent observation window 20 is fixedly connected to the other side of the main body 1 of the camel wool drying equipment. A controller 21 is fixedly connected to the side of the loading and unloading switch door 19. The controller 21 is the core component that receives signals, processes them according to preset logic, and outputs instructions to realize automatic adjustment and monitoring of the operating status of the equipment or system.

[0034] When using the device, first open the loading / unloading switch door 19, then open the drum switch door 8, and place the moist camel wool into the drying drum 7. Next, close the drum switch door 8 and the loading / unloading switch door 19 in sequence. Start the device via the controller 21. At this time, the second heating and blowing device 18 first heats the internal gas, then blows the heated gas towards the drying drum 7. The drying drum 7 rotates slowly under the action of the drive motor. The rotating drying drum 7 tumbles the camel wool, ensuring full contact between the hot air and the camel wool, removing the moisture from the camel wool. The gas carrying the moisture flows to the humidity control filter structure 4. The humidity control filter structure 4 is a silicone-impregnated non-woven fabric filter structure. When the moist gas passes through the humidity control filter structure 4, the humidity control filter structure... Structure 4 controls the humidity in the gas. When the humidity ratio in the gas exceeds a specified range, the excess moisture is adsorbed onto the humidity control filter structure 4, ensuring that the humidity ratio in the gas passing through the humidity control filter structure 4 is within the specified range. The gas then reaches the dehumidification mechanism 9. The dehumidification layer 12 inside the dehumidification mechanism 9 is made of silica gel particles, which fully absorbs moisture from the gas. The outer penetrating holes 11 have a larger pore size, while the inner penetrating holes 10 have a smaller pore size. The drying device 13 at the bottom dries the absorbent dehumidification layer 12, restoring its moisture absorption capacity. The dehumidification layer 12 inside the drying device 13 has an S-shaped design to ensure drying effect. The gas undergoes two dehumidification processes when passing through the dehumidification mechanism 9. When it contacts the right side, due to the larger pore size... Furthermore, the gas contains a high amount of moisture. At this point, the primary dehumidification on the right side mainly performs large-scale water absorption and dehumidification. When the gas passes through the secondary dehumidification on the left, the smaller contact hole diameter disperses the gas. Additionally, the dehumidification layer 12, having just been dried by the drying device 13, possesses excellent moisture absorption capacity, ensuring effective dehumidification. The dehumidified gas is then transported to the circulating air duct 17 by the first heating and blowing device 16, and finally returns to the second heating and blowing device 18 for recycling. Throughout this process, if the moisture content of the gas passing through the humidity control filter structure 4 consistently exceeds the standard, the weight of the humidity control filter structure 4 will increase due to moisture absorption. When the moisture content of the humidity control filter structure 4 reaches a specified value, the pressure sensor 5 detects the humidity control... When the weight of the humidity control filter structure 4 reaches a specified value, the pressure sensor 5 transmits a signal to the controller 21. The controller 21 reduces the rotation speed of the drying drum 7 and simultaneously controls the electric telescopic rod 6 to extend, moving the top area of ​​the humidity control filter structure 4 to the working area. At this point, half of the humidity control filter structure 4 in the drying duct 2 is used, and the other half is unused, allowing for normal humidity control. Due to the reduced rotation speed of the drying drum 7, the proportion of water in the gas decreases. When the water content in the gas falls below the range of the humidity control filter structure 4, the gas carries away the water vapor originally adsorbed on the humidity control filter structure 4 as it passes through it. Throughout this process, the weight of the humidity control filter structure 4 begins to decrease.When the weight returns to the specified value, pressure sensor 5 transmits a signal to controller 21, and controller 21 restores the device to normal operation.

[0035] The dehumidification mechanism 9 is designed with a tiered dehumidification system. The outer wall of the dehumidification mechanism 9 has large-diameter external penetration holes 11, and the inner wall has small-diameter internal penetration holes 10. Combined with a dehumidification layer 12 made of silica gel particles, this creates a tiered dehumidification mode with left and right zones. The right-side primary dehumidification zone uses silica gel particles that have undergone moisture absorption. The large-diameter external penetration holes 11 allow for rapid flow of high-humidity gas, providing a large-scale, high-load coarse dehumidification treatment for the gas carrying a large amount of moisture, quickly reducing the basic humidity of the gas. The left-side secondary dehumidification zone uses highly active silica gel particles that have been fully regenerated by an S-shaped drying device 13. Combined with the small-diameter internal penetration holes 10, this allows for dispersed and uniform flow of gas, providing a refined and in-depth fine dehumidification treatment for the gas after primary dehumidification, thoroughly removing residual moisture. This achieves a tiered dehumidification logic of coarse first, then fine. Simultaneously, the drying device 13 heats and restores the dehumidification layer 12 after water absorption. The S-shaped structure increases contact... To ensure regeneration efficiency, a humidity-controlled filter structure 4 with a pressure sensor 5 is installed. The pressure sensor 5 transmits the filter weight signal to the controller 21. When the pressure sensor 5 detects that the filter weight exceeds the limit, indicating that the gas humidity is continuously too high, the controller 21 immediately issues a control command. On the one hand, it reduces the operating speed of the drying drum 7, thereby reducing the frequency of camel wool tumbling and the rate of moisture dissipation, thus reducing the gas humidity load at the source. On the other hand, it controls the electric telescopic rod 6 to drive the humidity-controlled filter structure 4 to move and switch working areas, always ensuring that the filter in the drying duct 2 has an effective moisture absorption area and continuously and stably regulates the gas humidity. When the pressure sensor 5 detects that the filter weight has returned to the normal range, indicating that the gas humidity has returned to the appropriate range, the controller 21 controls the drying drum 7 and the filter structure to return to normal working state, realizing dynamic and stable control of gas humidity during the drying process and greatly improving the overall stability of the camel wool drying operation.

[0036] This system achieves a dual improvement in dehumidification efficiency and precision. The tiered dehumidification mode allows silica gel particles of varying activity to perform their respective functions: used silica gel handles coarse dehumidification in high humidity, while regenerated, highly active silica gel handles fine dehumidification in low humidity. This maximizes the utilization of silica gel's moisture absorption capacity while ensuring effective regeneration through an S-shaped drying structure. The moisture removal rate is significantly improved, and the dehumidification effect remains stable and undiminished, completely resolving the problem of fluctuating gas humidity. The dynamic buffering of the humidity control filter, combined with intelligent linkage regulation, allows for rapid response to humidity changes. This prevents overload and failure of the dehumidifier during high humidity, avoiding lint reabsorption, and also prevents energy waste during low humidity periods. The drying system maintains stable air humidity within the optimal range for camel wool drying, fundamentally ensuring drying quality and effectively protecting the quality of camel wool fibers. The intelligent adjustment of the drying drum's 7-speed rotation prevents damage to the wool clumps due to excessive tumbling, while the stable humidity environment eliminates problems such as wool clumps becoming damp or over-dry, maximizing the preservation of the camel wool's fluffiness and fiber integrity, reducing fiber damage rate, and achieving the dual benefits of energy saving and continuous operation. The dynamic matching of moisture dissipation rate and dehumidification capacity reduces ineffective energy consumption, and the automatic switching of the filter structure eliminates the need for machine shutdown for replacement, ensuring the continuity of drying operations and significantly improving production efficiency.

[0037] The technical scope of this invention is not limited to the content described above. Those skilled in the art can make various modifications and variations to the above embodiments without departing from the technical concept of this invention, and all such modifications and variations should fall within the protection scope of this invention.

Claims

1. A low-loss, high-efficiency camel wool drying device, characterized in that, include: The main body of the camel wool drying equipment includes a drying air duct inside. A limiting frame is slidably connected inside the drying air duct. A humidity control filter structure is installed inside the limiting frame. A pressure sensor is tightly fitted to the bottom of the humidity control filter structure. An electric telescopic rod is fixedly connected to the top of the limiting frame. A drying roller is installed on one side of the humidity control filter structure, and a dehumidification mechanism is installed on the other side. The outer wall of the dehumidification mechanism has external penetration holes, and the inner wall has internal penetration holes. A dehumidification layer is fixedly connected inside the dehumidification mechanism. A conveying roller is installed on the side of the dehumidification mechanism. A drying device is installed at the bottom of the dehumidification layer. A drain pipe is fixedly connected to the side of the drying device. A first heating air blower is fixedly connected to the side of the drying air duct. A circulating air duct is fixedly connected to the top of the first heating air blower, and a second heating air blower is fixedly connected to the bottom of the circulating air duct. The dehumidification unit has large-diameter external penetration holes on its outer wall and small-diameter internal penetration holes on its inner wall. The first-stage dehumidification area on the right uses silica gel particles that have undergone moisture absorption, while the second-stage dehumidification area on the left uses highly active silica gel particles that have been fully regenerated by an S-shaped drying device. It is equipped with a humidity control filter structure with a pressure sensor. When the moisture content of the gas passing through the humidity control filter structure exceeds the standard, the filter structure will increase in weight due to moisture absorption. When the moisture content of the filter structure reaches a specified value, the pressure sensor detects that the weight of the filter structure has reached the specified value. At this point, the pressure sensor transmits a signal to the controller, which reduces the rotation speed of the drying drum and simultaneously extends the electric telescopic rod, moving the top area of ​​the humidity control filter structure to the working area. At this point, half of the humidity control filter structure in the drying duct is used, and the other half is unused, allowing for humidity control.

2. The low-loss and high-efficiency camel wool drying equipment according to claim 1, characterized in that: Two-thirds of the area of ​​the humidity control filter structure is located within the drying duct, and the width of the humidity control filter structure is the same as the width of the drying duct.

3. The low-loss and high-efficiency camel wool drying equipment according to claim 1, characterized in that: The humidity control filter structure is a silicone-impregnated non-woven fabric filter, and the dehumidification layer is made of silicone granules.

4. The low-loss and high-efficiency camel wool drying equipment according to claim 1, characterized in that: The pressure sensor is fixedly connected to the limiting frame, and the electric telescopic rod is fixedly connected to the camel wool drying equipment body.

5. The low-loss and high-efficiency camel wool drying equipment according to claim 1, characterized in that: The drying drum and the drying duct are rotatably connected, and a drum door is provided at one end of the drying drum.

6. The low-loss and high-efficiency camel wool drying equipment according to claim 1, characterized in that: The diameter of the outer penetrating hole is larger than the diameter of the inner penetrating hole, and the thickness of the outer penetrating hole is the same as the thickness of the inner penetrating hole.

7. The low-loss and high-efficiency camel wool drying equipment according to claim 1, characterized in that: The drying device is fixedly connected to the main body of the camel wool drying equipment, and the dehumidification mechanism inside the drying device is S-shaped.

8. The low-loss and high-efficiency camel wool drying equipment according to claim 1, characterized in that: The dehumidification mechanism is symmetrically arranged about the vertical central axis of the conveyor roller, and the conveyor roller is rotatably connected to the main body of the camel wool drying equipment.

9. The low-loss and high-efficiency camel wool drying equipment according to claim 1, characterized in that: The first heating and blowing device is fixedly connected to the main body of the camel wool drying equipment, and the second heating and blowing device is fixedly connected to the drying air duct.

10. The low-loss and high-efficiency camel wool drying equipment according to claim 1, characterized in that: A loading / unloading switch door is movably connected to one side of the camel wool drying equipment body, and a transparent observation window is fixedly connected to the other side of the camel wool drying equipment body. A controller is fixedly connected to the side of the loading / unloading switch door.

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