Conveying type efficient drying equipment for garment materials and drying process of conveying type efficient drying equipment

Abstract

The invention discloses a conveying type garment fabric efficient drying device and a drying process thereof, and relates to the technical field of fabric drying. The conveying type garment fabric efficient drying device comprises a shell, an opening frame, a support, a controller, a plurality of sets of heating rollers, a conveying mechanism and a fabric belt; the device further comprises a flapping mechanism, a plurality of heat supply assemblies and an air blowing mechanism. The drying device has the advantages that heat flow is discharged upwards through the heat supply assembly to be blown to the bottom end of the fabric belt so as to be dried, the beating mechanism continuously beats and makes contact with the top end of the fabric belt, the structure of the fabric belt can form continuous fluffy and compressed alternate changes in the process at the moment, and the drying treatment of the heat supply assembly is matched, so that the drying efficiency is improved. Heat flow can better flow in the fabric belt, and the drying efficiency is improved; and the air blowing mechanism provides pressurized air into a heat supply passage of the heat supply assembly, and the pressurized air is blown to the bottom end of the fabric belt along with heat flow impact, so that the internal and external flowing intensity of airflow to the fabric belt is enhanced, and the drying efficiency is further improved.

Description

Technical Field

[0001] The present invention relates to the technical field of fabric drying, and more particularly to a conveying-type high-efficiency drying device for clothing fabrics and a drying process thereof. Background Art

[0002] Garment fabric drying equipment is a professional equipment used to remove moisture from textiles or clothing; Existing clothing fabric drying equipment [such as authorization (announcement) number: CN115046380B, a nylon fine denier fabric production drying process and drying device]; As shown in [Authorization (Announcement) No.: CN116678189B, a fabric drying device for intelligent school uniform production and its process], the above drying is processed by conveying and transporting fabric belts to improve the processing efficiency; However, the fabric belt conveyed and transported by the above-mentioned drying device only relies on the internal thermal environment to heat and dry the fabric belt in the drying space, and the moisture in the fabric belt is adsorbed inside the fabric belt. In this way, when heating and drying, the heat flow is relatively limited to the surface of the fabric belt for evaporating and removing moisture, resulting in low drying efficiency. Summary of the Invention

[0003] The purpose of the present invention is to solve the above technical problems and provide a conveying type clothing fabric efficient drying equipment and a drying process thereof.

[0004] In order to achieve the above-mentioned purpose, the present invention specifically adopts the following technical solutions: The present invention provides a conveyor-type efficient drying device for clothing fabrics, comprising a housing, two sets of open frames symmetrically fixed on both sides of the housing, a bracket fixed to the bottom end of the housing, a controller fixed to the bracket, several sets of heating rollers rotatably mounted in the open frames, a conveying mechanism fixed to the housing, and a fabric belt that enters the housing from one open frame and enters and exits the other open frame. The fabric belt is pulled and conveyed by the several sets of heating rollers and the conveying end of the conveying mechanism. The bottom end of the fabric belt is attached to the conveying end of the conveying mechanism; The device also includes a flapping mechanism, which is fixed in the shell and is used to continuously flap the top of the fabric belt to perform continuous alternating changes of fluffing and compressing the fabric belt; Several groups of heating components are fixedly mounted on the housing, and the output ends of the several groups of heating components are all located in the housing, the output ends of the several groups of heating components are all directed toward the bottom end of the fabric belt, and the heat discharged from the output ends of the several groups of heating components is transferred to the bottom end of the fabric belt through the conveying end of the conveying mechanism; The air blowing mechanism is fixed in the shell and is used to provide pressurized air. The output end of the air blowing mechanism is connected to the heat supply walkway of several groups of heating components to blow the pressurized air to the bottom end of the fabric belt; The beating mechanism comprises a fabric contacting assembly arranged on the shell, a pressing mechanism fixed to the shell, and a plurality of reset mechanisms fixed in the shell. The fabric contacting assembly is close to the top end of the fabric belt. The pressing mechanism is used to press down the fabric contacting assembly to move downward to contact the top end of the fabric belt. The reset mechanism is used to elastically connect the fabric contacting assembly to rebound upward to reset.

[0005] As a preferred technical solution of the present application, the conveying mechanism comprises a plurality of rotating rollers rotatably connected in the shell, a mesh belt externally attached to the plurality of rotating rollers, an inner cavity formed on the inner side of the mesh belt, a first rotary driver arranged outside the shell, and a first support plate fixed to the first rotary driver. At least one roller end of the plurality of rotating rollers penetrates out of the shell and is fixed to the output end of the first rotary driver. The outer side of the first support plate is fixed to the shell.

[0006] As a preferred technical solution of the present application, the fabric contacting assembly comprises a bottom slot plate, a plurality of pressing rollers rotatably installed in the bottom slot plate, and a plurality of through holes arranged on the bottom slot plate. The plurality of pressing rollers are evenly arranged in rows along the direction of fabric belt conveying, and the plurality of pressing rollers are exposed at the bottom end of the bottom slot plate.

[0007] As a preferred technical solution of the present application, the pressing mechanism comprises a rotating shaft penetrating through the inner and outer sides of the shell, a cam fixedly penetrating through the rotating shaft, a roller externally attached to the cam, a second rotary driver arranged outside the shell, and a second support plate fixed outside the shell. The outer side of the second support plate is fixed to the second rotary driver. The output end of the second rotary driver is fixed to one axial end of the rotating shaft. The roller is fixed to the top end of the bottom slot plate.

[0008] As a preferred technical solution of the present application, the outer periphery of the cam is annularly and continuously uniformly concave-convex. The cam comprises a circular wheel and a plurality of protrusions uniformly distributed and fixed on the outer periphery of the circular wheel. The outer periphery of the roller smoothly rolls on the outer periphery of the circular wheel and the outer periphery of the protrusion.

[0009] As a preferred technical solution of the present application, the reset mechanism comprises a pad, a guide rod fixed to the top end of the pad, a ball sleeve fixedly sleeved on the outer side of the guide rod, a guide sleeve slidingly attached to the outer side of the ball sleeve, and a spring sleeved on the outer side of the guide rod. The top and bottom ends of the spring are respectively fixed to the bottom end of the guide sleeve and the pad. The outer side of the pad is fixed to the bottom slot plate. The top end of the guide sleeve is fixed in the shell.

[0010] As a preferred technical solution of the present application, the heat supply assembly is provided with a plurality of rows arranged evenly along the direction of fabric belt conveying. Part of the heat supply assembly is in the inner cavity.

[0011] As a preferred technical scheme of the present application, the heat supply assembly comprises a heat pipe, a heat inlet pipe fixedly communicated with the heat pipe, a heat outlet cover fixedly communicated with one pipe end of the heat pipe, and a grid plate fixedly arranged in the heat outlet cover, a plurality of groups of uniform grid holes are formed between the heat outlet cover and the grid plate, the plurality of groups of grid holes are expanded from bottom to top, the top end of the heat outlet cover faces the bottom end of the fabric belt, and the heat inlet pipe is fixedly penetrated through the inside and outside of the shell.

[0012] As a preferred technical scheme of the present application, the air blowing mechanism comprises a plurality of groups of air blowing heads, a branch pipe fixedly communicated with the plurality of groups of air blowing heads, a gas supplement pipe fixedly communicated with the branch pipe, and a plurality of groups of supports fixedly arranged in the shell and the branch pipe, respectively, and a switch valve is further arranged between each group of air blowing heads and the branch pipe. The plurality of groups of heat supply assemblies are correspondingly provided with a plurality of groups of heat pipes, and the plurality of groups of air blowing heads are fixedly communicated with the other pipe ends of the plurality of groups of heat pipes.

[0013] And a conveying type fabric belt efficient drying process is provided, which comprises the following steps. S1: one belt end of the fabric belt to be dried is placed into the shell through one opening frame on the shell, and then is transmitted out through the other opening frame, and the fabric belt is guided and transmitted by the heating roller and the conveying mechanism in the process of transmission, and is preliminarily preheated by the heating roller. S2: the fabric belt transmitted in the above S1 is above the heat supply assembly, hot air is discharged upward by the heat supply assembly to blow to the bottom end of the fabric belt to perform drying treatment. S3: a plurality of groups of heat supply assemblies are arranged along the conveying direction of the fabric belt to perform synchronous and uninterrupted drying treatment while the fabric belt is conveyed to improve the drying efficiency. S4: the fabric belt transmitted in the above S1 is below the beating mechanism, the fabric belt contacting assembly is driven to move downward by the continuous pressing mechanism in the beating mechanism, and the fabric belt contacting assembly is continuously and reciprocally pulled upward by the reset mechanism, so that the fabric belt contacting assembly continuously beats and contacts the top end of the fabric belt, and the structure of the fabric belt is continuously and alternately changed in the process, and the hot air flows in the fabric belt better in cooperation with the drying treatment of the heat supply assembly to improve the drying efficiency. S5: the air blowing mechanism is arranged at the heat supply assembly, pressurized air is provided to the heat supply assembly by the air blowing mechanism, and the pressurized air is impacted and blown to the bottom end of the fabric belt to strengthen the flow intensity of the air in and out of the fabric belt to improve the drying efficiency. S6: if the top surface of the fabric belt has a wool layer, the wool layer is compressed when the fabric belt is beaten by the beating mechanism, and the wool layer is puffed by the air flow impact of the air blowing mechanism, so that the hot air flows in the fabric belt better to improve the drying efficiency.

[0014] The beneficial effects of the present application are as follows: The heat flow is discharged upward by the heat supply assembly to blow to the bottom end of the fabric belt for drying treatment, and the conveyed fabric belt is below the beating mechanism. The continuous reciprocating process of the fabric contact assembly is driven by the continuous pressing mechanism in the beating mechanism and the reset mechanism to pull the fabric contact assembly upward. The fabric contact assembly continuously beats and contacts the top end of the fabric belt. At this time, the structure of the fabric belt forms a continuous fluffy and compressed alternating change in the process. The drying efficiency is improved by the drying treatment of the heat supply assembly, and the heat flow flows better in the fabric belt. Meanwhile, the air blowing mechanism is installed at the heat supply assembly. The air blowing mechanism provides pressurized air to the heat supply assembly in the heat supply channel and impacts and blows to the bottom end of the fabric belt to strengthen the flow intensity of the air flow inside and outside the fabric belt, further improving the drying efficiency. BRIEF DESCRIPTION OF DRAWINGS

[0015] Figure 1 is a structural schematic diagram of the present application; Figure 2 is a cross-sectional structural schematic diagram of Figure 1 .

[0016] Reference signs: shell-1, opening frame-2, support-3, controller-4, heating roller-5, conveying mechanism-6, fabric belt-7, beating mechanism-8, heat supply assembly-9, air blowing mechanism-10, rotating roller-61, mesh belt-62, inner cavity-63, first rotary driver-64, first support plate-65, fabric contact assembly-81, continuous pressing mechanism-82, reset mechanism-83, bottom air slot plate-811, compression roller-812, through hole-813, cam-821, roller-822, second rotary driver-823, second support plate-824, rotating shaft-821, cam-822, roller-823, second rotary driver-824, second support plate-825, circular wheel-8221, protrusion-8222, pad plate-831, guide rod-832, ball sleeve-833, guide sleeve-834, spring-835, heat inlet pipe-91, heat outlet pipe-92, heat outlet cover-93, grid plate-94, air jet head-101, branch pipe-102, air supplement pipe-103, support-104. DETAILED DESCRIPTION

[0017] As shown in Figures 1-2 , the present application proposes: a conveying type garment fabric high-efficiency drying equipment, which includes a shell 1, two groups of opening frames 2 symmetrically fixed on both sides of the shell 1, and a group of opening frames 2 symmetrically arranged at the left and right ends of the shell 1, so that the left and right opening frames 2 are connected through the shell 1; The support 3 fixed at the bottom end of the shell 1 is used to support the shell 1 to be stable. and a controller 4 fixed on the bracket 3, which may be a PLC controller, connected to an external power source to supply power to electrical components and control opening and closing; Several groups of heating rollers 5 (such as Figure 2 As shown, three groups of heating rollers 5 are provided in the opening frame 2 and are arranged in sequence in the housing 1 along a direction toward the outside of the opening frame 2); The conveying mechanism 6 fixed on the housing 1 is as follows Figure 2 As shown, the conveying end of the conveying mechanism 6 is located within the housing 1; The fabric belt 7 from one opening frame 2 into the housing 1 to the other opening frame 2 is pulled and conveyed by a plurality of groups of heating rollers 5 and the conveying end of the conveying mechanism 6, that is, one end of the fabric belt 7 can be placed in the left opening frame 2, guided and conveyed by the heating roller 5 and preheated, and then conveyed to the conveying end of the conveying mechanism 6 for rightward guidance and conveying to the inside of the right opening frame 2, guided and conveyed by the heating roller 5 and conveyed out; The bottom end of the fabric belt 7 is attached to the conveying end of the conveying mechanism 6 (such as Figure 2 As shown, the conveying end of the conveying mechanism 6 is in contact with the bottom end of the fabric belt 7 to support and convey it to the right).

[0018] The specific structure of the above-mentioned conveying mechanism 6 is as follows: The conveying mechanism 6 includes a plurality of rotating rollers 61 (the rotating rollers 61 are mesh belt rotating rollers) rotatably connected within the housing 1, a mesh belt 62 that is in contact with and drives the plurality of rotating rollers 61, an inner cavity 63 formed on the inner side of the mesh belt 62, a first rotary driver 64 (the first rotary driver 64 can be a servo motor, etc.) disposed outside the housing 1, and a first support plate 65 fixedly mounted on the first rotary driver 64. The roller end of at least one of the plurality of rotating rollers 61 extends outside the housing 1 and is fixed to the output end of the first rotary driver 64. The outer side of the first support plate 65 is fixed to the housing 1. When the conveying mechanism 6 is used, Figures 1-2As shown: in the shell 1 in the upper side by the left to right uniform horizontal arrangement of multiple groups of rotating roller 61, and below the horizontal arrangement of multiple groups of rotating roller 61 to another rotating installation rotating roller 61, using the net belt 62 for installation surrounded in the multiple groups of rotating roller 61 outside the package, and the position between the multiple groups of rotating roller 61 form the inner cavity 63, the right side of the rotating roller 61 of the front roller end out of the shell 1, and the output end of the first rotary driver 64 is connected and fixed, and the first rotary driver 64 is fixed on the shell 1 by the first support plate 65, when the first rotary driver 64 starts to run, the rotating roller 61 connected with the output end of the first rotary driver 64 rotates clockwise, so as to drive the net belt 62 to rotate and synchronously drive the other rotating roller 61 to rotate, the top end of the net belt 62 adheres to the bottom end of the fabric belt 7 to be transported to the right in turn.

[0019] Also includes several groups of heat supply assembly 9, which is fixed on the shell 1, and the output end of the several groups of heat supply assembly 9 is in the shell 1, and the output end of the several groups of heat supply assembly 9 is towards the bottom end of the fabric belt 7, and the heat discharged by the output end of the several groups of heat supply assembly 9 is transmitted to the bottom end of the fabric belt 7 through the conveying end of the conveying mechanism 6, that is, the conveying end of the conveying mechanism 6 does not block the heat flow to the fabric belt 7, and the heat flow is transmitted to the bottom end of the fabric belt 7 and dried through the fabric belt 7; The heat supply assembly 9 is provided with multiple groups and is arranged in horizontal rows along the direction of the fabric belt 7 conveying, and part of the heat supply assembly 9 is in the inner cavity 63 (such as Figure 2 As shown, multiple groups are uniformly arranged from left to right below the fabric belt 7, so that the fabric belt 7 is conveyed at the same time and the drying treatment is carried out synchronously and continuously to improve the drying efficiency; The specific implementation structure of the heat supply assembly 9 is as follows: The heat supply assembly 9 includes a heat pipe 91, a heat inlet pipe 92 fixedly connected with the heat pipe 91, a heat outlet cover 93 fixedly connected with one pipe end of the heat pipe 91, and a grid plate 94 fixedly installed in the heat outlet cover 93, a plurality of uniform grid holes are formed between the heat outlet cover 93 and the grid plate 94, and the plurality of grid holes are expanded from bottom to top, the top end of the heat outlet cover 93 is towards the bottom end of the fabric belt 7, and the heat inlet pipe 92 is fixedly penetrated through the inside and outside of the shell 1; And the heat supply assembly 9 is used, combined with Figures 1-2As shown: the upper and lower ends of the heat pipe 91 are fixed, the front end of the heat pipe 91 is fixed into the rear pipe end of the heat pipe 92, the front pipe end of the heat pipe 92 penetrates out of the front end of the shell 1, the upper end of the heat pipe 91 is connected and fixed to the heat outlet cover 93, the grid plate 94 is fixed and arranged in the heat outlet cover 93, and the heat pipe 91 is connected and communicated through a plurality of uniform grid holes. The front end of the heat pipe 92 is installed with a heating device (such as a hot air machine, etc.), and the generated heat flow passes through the heat pipe 92, the heat pipe 91 and the grid hole in turn to blow to the bottom end of the fabric belt 7. The plurality of grid holes are expanded from bottom to top, so that the heat flow is uniformly dispersed to the bottom end of the fabric belt 7, and the hot air area is uniformly increased.

[0020] It also includes a beating mechanism 8 which is fixed in the shell 1 for continuously beating the top end of the fabric belt 7 to continuously fluff and compress the fabric belt 7 alternately; Increase air flow: the beating action provided by the beating mechanism 8 can promote air exchange between the surface and the inside of the fabric belt 7, which helps moisture to escape faster; Break the water film: the moisture on the fabric belt 7 will form a thin film that hinders heat transfer, and beating can break this water film to make heat transfer to the inside of the fabric belt 7 more effectively; Uniform drying: beating can make each part of the fabric belt 7 more evenly contact hot air, reducing the risk of local over-drying or over-wetting.

[0021] The specific implementation structure of the beating mechanism 8 is as follows: The beating mechanism 8 includes a fabric contacting assembly 81 provided on the shell 1, a continuous pressing mechanism 82 fixed on the shell 1, and a plurality of reset mechanisms 83 fixed in the shell 1. The fabric contacting assembly 81 is close to the top end of the fabric belt 7, the continuous pressing mechanism 82 is used to press down the fabric contacting assembly 81 to move down to contact the top end of the fabric belt 7, and the reset mechanism 83 is used to elastically connect the fabric contacting assembly 81 to rebound and move up to reset. By continuously beating one side of the top end of the fabric belt 7 through the fabric contacting assembly 81, vibration and pressure are generated on the fabric belt 7; The reset mechanism 83 is provided with a plurality of groups which are uniformly distributed between the fabric contacting assembly 81 and the shell 1, and provides good uniformity and stability of elastic rebound force.

[0022] Further, the specific implementation structure of the fabric contacting assembly 81 is as follows: The fabric contacting assembly 81 comprises a bottom slot plate 811 (the bottom slot plate 811 is in the shape of a plate, and a recess is arranged at the bottom end of the plate, so that the bottom slot plate 811 is in the shape of a “∩”), a plurality of compression rollers 812 rotatably arranged in the bottom slot plate 811, and a plurality of through holes 813 arranged on the bottom slot plate 811. The plurality of compression rollers 812 are arranged in a row on the same horizontal plane along the direction in which the fabric belt 7 is conveyed, and the plurality of compression rollers 812 are exposed at the bottom end of the bottom slot plate 811. The plurality of through holes 813 are uniformly distributed on the bottom slot plate 811. When the fabric contacting assembly 81 is in use, the fabric belt 7 is conveyed by the plurality of compression rollers 812, and the fabric belt 7 is conveyed in the direction of the arrow A. Figures 1-2 As shown in the figure, the plurality of compression rollers 812 are uniformly distributed on the same horizontal plane from left to right with a spacing between each adjacent compression roller 812. Part of the plurality of compression rollers 812 is arranged inside the recess of the bottom slot plate 811, and the front and rear roller ends of the compression roller 812 are rotatably connected to the bottom slot plate 811 by bearings or the like. The top end of the fabric belt 7 contacted and conveyed by the compression roller 812 can be rotated in the conveying direction of the fabric belt 7 by the rolling action of the compression roller 812, so that the fabric belt 7 is not blocked and has good flowability. The plurality of through holes 813 arranged on the bottom slot plate 811 can help the upward flowing hot air to pass through.

[0023] Further, the structure of the continuous pressing mechanism 82 is as follows: The continuous pressing mechanism 82 comprises a rotating shaft 821 penetrating the inside and outside of the shell 1, a cam 822 fixedly penetrating the rotating shaft 821, a roller 823 attached to the periphery of the cam 822, a second rotary driver 824 arranged outside the shell 1 (the second rotary driver 824 can be a servo motor or the like), and a second support plate 825 fixedly arranged outside the shell 1. The second support plate 825 is fixed to the second rotary driver 824 on the outside, the output end of the second rotary driver 824 is fixed to one end of the rotating shaft 821, and the roller 823 is fixed to the top end of the bottom slot plate 811. When the continuous pressing mechanism 82 is in use, the fabric belt 7 is conveyed by the plurality of compression rollers 812, and the fabric belt 7 is conveyed in the direction of the arrow A. Figures 1-2 As shown in the figure, the roller 823 is rotatably arranged at the top end of the bottom slot plate 811, the top end of the roller 823 is attached to the cam 822, the rotating shaft 821 penetrates the front and rear sides of the shell 1 and is rotatably connected by bearings or the like at the penetration position, and the rotating shaft 821 penetrates the center of rotation of the cam 822. When the second rotary driver 824 is started, the cam 822 and the rotating shaft 821 are synchronously rotated, and when the protruding part on the periphery of the cam 822 contacts the roller 823, a downward pressure is generated on the roller 823 to displace the bottom slot plate 811 downward. The periphery of the cam 822 is in the shape of a ring with uniform concave-convex, that is, when the cam 822 rotates one revolution, the roller 823 can be displaced upward and downward on the cam 822 for multiple times. The cam 822 comprises a circular wheel 8221 and a plurality of groups of protrusions 8222 evenly distributed and fixed on the periphery of the circular wheel 8221, and the roller 823 is smoothly rolled on the periphery of the circular wheel 8221 and the periphery of the protrusions 8222, as shown in Figure 2 The protrusions 8222 are provided in six groups and evenly distributed in a ring shape on the periphery of the circular wheel 8221, and the roller 823 is attached to the periphery of the circular wheel 8221 and the periphery of the protrusions 8222. When the cam 822 rotates, the roller 823 can continuously move up and down under the elastic support of the reset mechanism 83.

[0024] Further, the reset mechanism 83 is specifically implemented as follows: The reset mechanism 83 comprises a pad plate 831, a guide rod 832 fixed on the top end of the pad plate 831, a ball sleeve 833 fixed on the guide rod 832, a guide sleeve 834 slidingly attached to the outside of the ball sleeve 833, and a spring 835 sleeved on the guide rod 832. The top and bottom ends of the spring 835 are fixed with the bottom end of the guide sleeve 834 and the pad plate 831 respectively. The outer side of the pad plate 831 is fixed with the bottom hollow groove plate 811, and the top end of the guide sleeve 834 is fixed in the housing 1. When the reset mechanism 83 is used, as shown in Figures 1-2 When the bottom hollow groove plate 811 moves up and down, the spring 835 provides elastic support for the pad plate 831 and the guide sleeve 834 to ensure the elastic downward movement and reset effect of the bottom hollow groove plate 811. The part of the guide rod 832 on which the ball sleeve 833 is fixed is inserted into the guide sleeve 834 for sliding connection, which improves the guiding effect and increases the stability of the displacement of the bottom hollow groove plate 811.

[0025] It also comprises an air blowing mechanism 10 fixed in the housing 1 for providing pressurized air. The output end of the air blowing mechanism 10 is connected to the heat delivery channels of a plurality of groups of heat supply assemblies 9 to impact and blow the pressurized air to the bottom end of the fabric belt 7. The components of the pressurized impact air are blown to the bottom end of the fabric belt 7 along with the heat flow, which strengthens the internal and external flow intensity of the air flow to the fabric belt 7 and improves the drying efficiency. The air blowing mechanism 10 is specifically implemented as follows: The air blowing mechanism 10 comprises a plurality of groups of air jet heads 101, a plurality of groups of branch pipes 102 fixedly connected with the air jet heads 101, a gas supplement pipe 103 fixedly connected with the branch pipes 102, a plurality of groups of supports 104 fixedly connected with the branch pipes 102 and the housing 1, a switch valve (which can be an electromagnetic valve or the like) installed between each group of air jet heads 101 and the branch pipes 102, and an air inlet end of the gas supplement pipe 103 fixedly penetrating out of the housing 1. The air inlet end of the gas supplement pipe 103 is connected with an external air supply device (which can be a tank containing compressed air). The structure of the air blowing mechanism 10 is similar to that of a "pulse type air blower". Multiple groups of heating components 9 are provided with multiple groups of heat pipes 91; multiple groups of nozzles 101 are connected and fixed to the other ends of the multiple groups of heat pipes 91 one by one, and air is supplied to the branch pipes 102 through the air supply pipes 103, and the branch pipes 102 transmit air to the multiple groups of nozzles 101 at the same time through the switch valve, so that impact air can be injected into the multiple groups of heat pipes 91 at the same time, and the injection efficiency is high; When the air blowing mechanism 10 is used, Figures 1-2 As shown: pressurized air is pre-filled in the branch pipe 102 through the air supply pipe 103 through the air supply equipment. After opening the switch valve, the pressurized air in the branch pipe 102 can be introduced into the nozzle 101 and arranged in parallel to the heat pipe 91. It is blown to the bottom end of the fabric belt 7 following the impact of the heat flow, and the nozzle 101 is upward, so the fluidity of the impact air when it is transmitted to the bottom end of the fabric belt 7 is better.

[0026] A conveyor-type efficient drying process for clothing fabrics is proposed, comprising the following steps: S1: The fabric belt 7 to be dried is placed at one end by one of the opening frames 2 on the housing 1 and enters the housing 1, and then passes out of the other opening frame 2, and the fabric belt 7 is conveyed during the process of contact and guidance through the heating roller 5 and the conveying mechanism 6, and is preheated by the heating roller 5; S2: The fabric tape 7 conveyed by S1 is located above the heating assembly 9, and the heat flow is discharged upward from the heating assembly 9 to blow to the bottom end of the fabric tape 7 for drying; S3: and the heating assembly 9 is provided along the direction of the fabric belt 7 is conveyed in multiple groups, to carry out simultaneous uninterrupted drying process of the fabric belt 7 is conveyed to improve the drying efficiency; S4: The fabric belt 7 conveyed by the above S1 is under the flapping mechanism 8, and the contact material component 81 is driven downward by the continuous pressing mechanism 82 of the flapping mechanism 8, and the reset mechanism 83 pulls the contact material component 81 upward in a continuous reciprocating process, so that the contact material component 81 continuously flaps and contacts the top of the fabric belt 7. At this time, the structure of the fabric belt 7 will form a continuous alternating change of fluffy and compressed in this process, which cooperates with the drying process of the above-mentioned heating component 9 to better carry out the heat flow in the fabric belt 7 and improve the drying efficiency; S5: Install the air blowing mechanism 10 at the heating assembly 9, which provides pressurized air to the heat supply aisle of the heating assembly 9, and blows it to the bottom end of the fabric belt 7 following the heat flow impact, thereby strengthening the air flow intensity of the fabric belt 7 and improving the drying efficiency; S6: If the top surface of the fabric belt 7 has a wool layer on one side, the compression of the wool layer when the above-mentioned beating mechanism 8 beats the top of the fabric belt 7 can be puffed up by the air flow impact of the blowing mechanism 10 on the fabric belt 7, which can better allow the heat flow to flow in the fabric belt 7 and improve the drying efficiency.

[0027] The control mode of the present application is controlled by manually starting and closing the switch, and the wiring diagram of the power element and the provision of the power source are well known in the art, and the present application is mainly used to protect the mechanical device, so the control mode and the wiring arrangement of the present application will not be explained in detail.

[0028] The above shows and describes the basic principles and main features of the present application and the advantages of the present application, and it is obvious to those skilled in the art that the present application is not limited to the details of the above exemplary embodiments, and the present application can be implemented in other specific forms without departing from the spirit or essential characteristics of the present application. Therefore, the embodiments should be regarded as exemplary and non-limiting in any respect, and the scope of the present application is defined by the appended claims rather than the above description, and therefore all changes falling within the meaning and scope of the equivalent elements of the claims are intended to be included in the present application. Any reference signs in the claims should not be regarded as limiting the claims involved.

[0029] In addition, it should be understood that although the present specification is described in terms of embodiments, not every embodiment contains only one independent technical solution, and the description manner of the specification is only for the sake of clarity, and those skilled in the art should consider the specification as a whole, and the technical solutions in each embodiment can also be properly combined to form other embodiments that those skilled in the art can understand.

Claims

1. A conveying type clothing fabric high-efficiency drying device, comprising a shell (1), two groups of opening frames (2) symmetrically fixed on both sides of the shell (1), a bracket (3) fixed to the bottom end of the shell (1), and a controller (4) fixed to the bracket (3), a plurality of groups of heating rollers (5) rotatably mounted in the opening frames (2), a conveying mechanism (6) fixed to the shell (1), and a fabric belt (7) that enters the shell (1) from one opening frame (2) to the other opening frame (2), wherein the fabric belt (7) is pulled and conveyed by the plurality of groups of heating rollers (5) and the conveying end of the conveying mechanism (6); It is characterized in that The bottom end of the fabric belt (7) is attached to the conveying end of the conveying mechanism (6); It also includes a beating mechanism (8) which is fixed in the housing (1) and is used to continuously beat the top of the fabric strip (7) to perform continuous alternating changes in fluffiness and compression on the fabric strip (7); A plurality of groups of heating components (9) are fixedly mounted on the housing (1), and the output ends of the plurality of groups of heating components (9) are all located in the housing (1), the output ends of the plurality of groups of heating components (9) are all directed toward the bottom end of the fabric belt (7), and the heat discharged from the output ends of the plurality of groups of heating components (9) is transferred to the bottom end of the fabric belt (7) through the conveying end of the conveying mechanism (6); An air blowing mechanism (10) is fixedly mounted in the housing (1) and is used to provide pressurized air. The output end of the air blowing mechanism (10) is connected to a heat supply passage of a plurality of fixed groups of heat supply components (9) so as to blow the pressurized air to the bottom end of the fabric belt (7); The flapping mechanism (8) comprises a contact assembly (81) provided on the housing (1), a connecting and pressing mechanism (82) fixed on the housing (1), and a plurality of reset mechanisms (83) fixed in the housing (1). The contact assembly (81) is close to the top of the fabric belt (7). The connecting and pressing mechanism (82) is used to press the contact assembly (81) downward to move it downward to contact the top of the fabric belt (7). The reset mechanism (83) is used to elastically connect the contact assembly (81) to rebound and move it back to its original position.

2. The conveyor-type efficient drying equipment for clothing fabrics according to claim 1, characterized in that: The conveying mechanism (6) includes a plurality of rotating rollers (61) connected to rotate in the housing (1), a mesh belt (62) that is coupled to and driven outside the plurality of rotating rollers (61), an inner cavity (63) formed on the inner side of the mesh belt (62), a first rotating driver (64) provided outside the housing (1), and a first support plate (65) fixed to the first rotating driver (64), wherein the roller end of at least one of the plurality of rotating rollers (61) passes through the housing (1) and the passed roller end is fixed to the output end of the first rotating driver (64), and the outer side of the first support plate (65) is fixed to the housing (1).

3. The conveyor-type efficient drying equipment for clothing fabrics according to claim 1, characterized in that: The material contact assembly (81) comprises a bottom empty slot plate (811), a plurality of groups of pressure rollers (812) rotatably mounted in the bottom empty slot plate (811), and a plurality of groups of through holes (813) provided on the bottom empty slot plate (811), wherein the plurality of groups of pressure rollers (812) are arranged in a horizontally uniform row along the direction in which the fabric belt (7) is conveyed, and the plurality of groups of pressure rollers (812) are exposed at the bottom end of the bottom empty slot plate (811).

4. The conveyor-type efficient drying equipment for clothing fabrics according to claim 3, characterized in that: The connecting pressing mechanism (82) includes a rotating shaft (821) passing through the inner and outer sides of the housing (1), a cam (822) fixedly passed through by the rotating shaft (821), a roller (823) attached to the outer periphery of the cam (822), a second rotating driver (824) provided outside the housing (1), and a second supporting plate (825) fixedly mounted outside the housing (1), wherein the outer side of the second supporting plate (825) is fixed to the second rotating driver (824), the output end of the second rotating driver (824) is fixed to one axial end of the rotating shaft (821), and the roller (823) is fixed to the top of the bottom hollow slot plate (811).

5. The conveyor-type efficient drying equipment for clothing fabrics according to claim 4, characterized in that: The periphery of the cam (822) is in a continuous, uniformly concave-convex shape; The cam (822) includes a circular wheel (8221) and a plurality of groups of protrusions (8222) evenly distributed on the periphery of the circular wheel (8221) and fixed thereto. The periphery of the roller (823) rolls smoothly on the periphery of the circular wheel (8221) and outside the protrusions (8222).

6. The conveyor-type efficient drying equipment for clothing fabrics according to claim 5, characterized in that: The reset mechanism (83) includes a backing plate (831), a guide rod (832) fixed to the top of the backing plate (831), a ball sleeve (833) fixed outside the guide rod (832), a guide sleeve (834) slidingly fitted on the outside of the ball sleeve (833), and a spring (835) sleeved outside the guide rod (832), wherein the top and bottom ends of the spring (835) are respectively fixed to the bottom end of the guide sleeve (834) and the backing plate (831), the outer side of the backing plate (831) is fixed to the bottom hollow slot plate (811), and the top end of the guide sleeve (834) is fixed to the inside of the housing (1).

7. The conveyor-type efficient drying equipment for clothing fabrics according to claim 2, characterized in that: The heating components (9) are provided in multiple groups and are arranged in rows in a horizontal and uniform manner along the conveying direction of the fabric belt (7), and a portion of the heating components (9) is located in the inner cavity (63).

8. The conveyor-type efficient drying equipment for clothing fabrics according to claim 7, characterized in that: The heating component (9) includes a heat pipe (91), a heat inlet pipe (92) connected and fixed to the heat pipe (91), a heat outlet cover (93) connected and fixed to one end of the heat pipe (91), and a grid plate (94) fixed in the heat outlet cover (93). A plurality of groups of uniform grid holes are formed in the heat outlet cover (93) and between the grid plate (94), and the plurality of groups of grid holes are expanded from bottom to top. The top end of the heat outlet cover (93) faces the bottom end of the fabric belt (7), and the heat inlet pipe (92) is fixed and passes through the inside and outside of the shell (1).

9. The conveyor-type efficient drying equipment for clothing fabrics according to claim 8, characterized in that: The air blowing mechanism (10) includes a plurality of groups of air jet heads (101), branch pipes (102) fixedly connected to the plurality of groups of air jet heads (101), air supply pipes (103) fixedly connected to the branch pipes (102), and a plurality of groups of brackets (104) respectively fixed to the branch pipes (102) and the housing (1). A switch valve is also installed between each group of air jet heads (101) and the branch pipes (102), and the air inlet end of the air supply pipe (103) is fixedly passed through the outside of the housing (1); The multiple groups of heating components (9) are provided with multiple groups of heat pipes (91) in correspondence; the multiple groups of nozzles (101) are connected and fixed to the other ends of the multiple groups of heat pipes (91) in correspondence one by one.

10. A conveyor-type efficient drying process for clothing fabrics, using the conveyor-type efficient drying equipment for clothing fabrics according to any one of claims 1 to 9, characterized in that: The following steps are involved: S1: One end of the fabric belt (7) to be dried is placed through one of the opening frames (2) on the housing (1), and then enters the housing (1), and then passes out of the other opening frame (2). During the conveying process, the fabric belt (7) is contact-guided and conveyed by the heating roller (5) and the conveying mechanism (6), and is preheated by the heating roller (5); S2: The fabric tape (7) conveyed by the above S1 is located above the heating component (9), and the heat flow is discharged upward from the heating component (9) to blow to the bottom end of the fabric tape (7) for drying; S3: and the heating assembly (9) is provided with multiple groups along the direction of conveying the fabric belt (7), to carry out simultaneous uninterrupted drying processing while conveying the fabric belt (7) to improve the drying efficiency; S4: The fabric belt (7) conveyed by the above S1 is located below the flapping mechanism (8), and the contact material component (81) is driven downward by the continuous pressing mechanism (82) in the flapping mechanism (8), and the resetting mechanism (83) pulls the contact material component (81) upward in a continuous reciprocating process, so that the contact material component (81) continuously flaps and contacts the top of the fabric belt (7). At this time, the structure of the fabric belt (7) forms a continuous alternating change of fluffy and compressed in this process, and cooperates with the drying process of the above heating component (9), which can better carry out the heat flow in the fabric belt (7) and improve the drying efficiency; S5: Installing an air blowing mechanism (10) at the heating component (9), the air blowing mechanism (10) provides pressurized air to the heat supply aisle of the heating component (9), and blows it to the bottom end of the fabric belt (7) following the impact of the heat flow, thereby strengthening the flow intensity of the air flow to the inside and outside of the fabric belt (7) and improving the drying efficiency; S6: If the top surface of the fabric belt (7) has a wool layer on one side, the compression of the wool layer when the flapping mechanism (8) flaps the top of the fabric belt (7) can be puffed up by the air flow impact of the air blowing mechanism (10) on the fabric belt (7), which can better allow the heat flow to flow in the fabric belt (7) and improve the drying efficiency.

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