Textile dust collecting equipment for textile machine

Abstract

The invention discloses textile dust collecting equipment for a textile machine, and relates to the technical field of collecting equipment.The collecting equipment comprises a collecting frame, a surface collecting mechanism, a suspended matter collecting mechanism, a corner collecting mechanism and a processing mechanism, and the surface collecting mechanism, the suspended matter collecting mechanism, the corner collecting mechanism and the processing mechanism are all fixedly connected with the collecting frame; the surface collecting mechanism, the suspended matter collecting mechanism and the corner collecting mechanism are all communicated with the processing mechanism, the surface collecting mechanism is used for collecting dust on tensioned textile cloth and a belt, the suspended matter collecting mechanism is used for collecting dust suspended in air, and the corner processing mechanism is used for processing the dust collected at a fixed position. And the treatment mechanism effectively reduces dust emission, improves the collection and storage efficiency, and reduces environmental pollution.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of collecting equipment, and particularly relates to a textile dust collecting equipment for a textile machine. BACKGROUND

[0002] With the increasing problem of dust in industrial production process, especially in the textile, pharmaceutical and chemical industries, the innovation of related technology is imperative, most of which focuses on improving the efficiency of dust collection, reducing secondary pollution and optimizing the stability and adaptability of the equipment. In recent years, various dust collection systems have been widely used in the market, especially in cleaning the environment and improving the air quality of the workplace, and gradually become the industry standard. In the future, with the progress of automation technology and intelligent equipment, dust collection equipment is expected to be more efficient and accurate, and can adapt to more industrial application scenarios to improve the precision and reliability of dust control.

[0003] The existing dust collecting equipment for a textile machine usually includes a mechanical and wind power system working together, multi-layer filtration, to realize the collection and treatment of dust.

[0004] Although the existing technology has made certain progress in dust collection and treatment, there are still some deficiencies. First, the existing technology lacks sufficient flexibility in adapting to different widths and forms of surfaces to be cleaned. Second, the cleaning process for different areas is not designed, making it difficult to solve the problem of inaccessible areas in corners, and the adaptability is insufficient. Most importantly, the existing treatment mechanism still has unsatisfactory condensation effect on fine dust, and the problem of dust overflow or low efficiency is prone to occur in the process of efficient compression and storage, therefore, the technical personnel in the field provides a textile dust collecting equipment for a textile machine to solve the problems raised in the above background. SUMMARY

[0005] The purpose of the present application is to provide a textile dust collecting equipment for a textile machine to solve the problems raised in the prior art.

[0006] To achieve the above purpose, the present application provides the following technical scheme: The collecting equipment includes a collecting frame, a surface collecting mechanism, a suspended matter collecting mechanism, a corner collecting mechanism and a treatment mechanism, the surface collecting mechanism, the suspended matter collecting mechanism, the corner collecting mechanism and the treatment mechanism are tightly connected with the collecting frame, the surface collecting mechanism, the suspended matter collecting mechanism and the corner collecting mechanism are communicated with the treatment mechanism, the surface collecting mechanism is used for collecting dust on the tensioned textile cloth and belt, the suspended matter collecting mechanism is used for collecting dust suspended in the air, and the corner treatment mechanism is used for treating the fixed point position collection.

[0007] By adopting the above technical scheme, the surface collecting mechanism realizes efficient cleaning of the surface of the tensioned textile cloth and the belt through the cooperation of the lifting assembly, the self-adaptive width assembly, the auxiliary brush and the auxiliary motor. The auxiliary motor drives the self-adaptive width assembly to operate, drives the transmission shaft to rotate, so that the multiple auxiliary brushes rotate synchronously for brushing, the auxiliary brush adopts a circular truncated cone structure, and adjacent auxiliary brushes can be nested to adapt to different widths of the surface to be cleaned. The lifting hydraulic cylinder in the lifting assembly is tightly connected with the collecting rack and drives the lifting suction block to move up and down, so that the suction block can tightly adhere to the surface to be cleaned, thereby improving the dust collection efficiency. The moving block is slidingly connected with the lifting suction block, so that it can adjust the position within a certain range to ensure the stability and flexibility of the cleaning process. The lifting suction block adopts a cross-like structure and is slidingly connected with the collecting rack, so that it can smoothly operate while maintaining stability. Finally, the cleaned dust enters the processing mechanism through the lifting suction block to realize efficient collection. The suspended matter collecting mechanism realizes effective collection of suspended dust in the air through the cooperation of the rotating plate, the rotating motor, the rotating brush and the first fan. The rotating motor is tightly connected with the collecting rack and drives the rotating plate to rotate, so that the rotating brush tightly connected with the rotating plate rotates at high speed, disturbs the air and captures the suspended dust. The rotation of the rotating brush further guides the dust towards the suspended suction port on the collecting rack, and under the suction of the first fan, the dust is quickly sucked into the subsequent processing link. The mechanism can effectively reduce the dust concentration in the air, reduce dust diffusion and improve the cleanliness of the working environment. The corner collecting mechanism realizes accurate collection of corner and fixed-point dust by using the stripe telescopic pipe, the collecting gun, the suction motor and the iris assembly. The suction motor is tightly connected with the collecting rack and drives the iris assembly to operate, adjusts the size of the collecting port of the stripe telescopic pipe to adapt to different shapes of the corner area. One end of the stripe telescopic pipe is communicated with the collecting gun, and the other end is connected to the first fan. Under the suction of the fan, the dust enters the stripe telescopic pipe through the collecting gun and is finally transported to the processing mechanism. The iris assembly can dynamically adjust the opening size, so that the collecting gun adapts to the shape of different corners, improves the collection efficiency, reduces dust residue and ensures a wider cleaning coverage. The processing mechanism realizes efficient dust treatment through the cooperation of the cyclone separator, the discharge valve, the collecting box, the extrusion assembly, the second fan and the condensation assembly. The collected dust first enters the cyclone separator, under the action of the rotating airflow, the large particle dust is thrown to the separator wall and enters the collecting box through the discharge valve, and the fine dust is guided to the condensation assembly by the second fan for further treatment. The condensation assembly cooperates with the transmission rack, the vibrator, the transmission motor, the static plate, the static generator, the second atomizing nozzle, the condensation box, the heating clamp and the clamp hydraulic cylinder to make the dust condense into larger particles under the action of static adsorption and fall into the collecting box under the action of the vibrator. At the same time, the second atomizing nozzle sprays liquid to promote dust condensation and improve the trapping efficiency.The dust in the collection box is further processed by the extrusion assembly. The extrusion hydraulic cylinder pushes the extrusion plate to press the dust, so that the dust particles are compressed efficiently, and the storage density is improved. The pressure sensor monitors the extrusion pressure in real time to prevent dust overflow or affect the storage effect. The first atomizing nozzle can spray liquid in time to further suppress dust flying. Finally, the heating clamp in the condensation box heats and dries the condensed dust under the action of the clamp hydraulic cylinder, reduces the residual moisture of the dust, and improves the storage stability. The processing mechanism can effectively reduce dust emission, improve collection and storage efficiency, and reduce environmental pollution.

[0008] Further, the surface collecting mechanism includes a lifting assembly, an adaptive width assembly, an auxiliary brush, and an auxiliary motor. The auxiliary motor is fixedly connected with the lifting assembly, and the auxiliary motor is drivingly connected with the adaptive width assembly. The adaptive width assembly is drivingly connected with the auxiliary brush. The auxiliary brush is in the shape of a circular truncated cone. A plurality of auxiliary brushes are provided. Two auxiliary brushes can be nested with each other.

[0009] By adopting the above technical scheme, the surface collecting mechanism utilizes the synergistic effect of the lifting assembly, the adaptive width assembly, the auxiliary brush, and the auxiliary motor to achieve efficient cleaning of the surface of the tensioned textile cloth and the belt. The auxiliary motor is fixedly connected with the lifting assembly and drives the adaptive width assembly to operate, so that the transmission shaft drives the plurality of auxiliary brushes to rotate synchronously. The auxiliary brush adopts a circular truncated cone structure, and every two auxiliary brushes can be nested with each other to adapt to the surface of different widths to be cleaned. The adaptive width assembly can automatically adjust the spacing of the auxiliary brushes according to the width change of the cleaning object, thereby improving the coverage and adaptability of cleaning. In terms of working process, after the auxiliary motor is started, the adaptive width assembly is driven by the transmission shaft, so that the auxiliary brush rotates and is attached to the surface of the textile cloth or the belt to clean. The circular truncated cone structure of the auxiliary brush enables it to more effectively contact and remove surface dust during rotation, and the nested design ensures that there is no dead angle in cleaning. The lifting assembly provides vertical adjustment capability, so that the cleaning mechanism can adjust the cleaning height according to the cloth or belt of different thicknesses to ensure the best attachment and improve the cleaning efficiency. In terms of working principle, the auxiliary brush cleans the surface dust by mechanical friction when rotating, and the dust is concentrated and guided to the lower side of the lifting assembly under the action of the auxiliary brush, and finally enters the processing link through the collecting mechanism. The driving connection of the adaptive width assembly ensures that the auxiliary brush can automatically adjust with the width change of the cloth or belt, so that it can maintain the best cleaning effect under different working conditions. Ultimately, the technical scheme can ensure efficient cleaning of surface dust, improve the collection effect, and reduce secondary pollution caused by dust residues. At the same time, the adaptive adjustment capability of the auxiliary brush enhances the adaptability of the equipment to different specifications of cloth and belt.

[0010] Further, the lifting assembly comprises a moving block, a lifting suction block and a lifting hydraulic cylinder, the moving block and the lifting suction block are in sliding connection, the auxiliary motor and the moving block are in fastening connection, the lifting hydraulic cylinder and the collecting rack are in fastening connection, the lifting hydraulic cylinder and the lifting suction block are in transmission connection, the lifting suction block and the processing mechanism are in communication, the lifting suction block is in the shape of a cross, and the lifting suction block and the collecting rack are in sliding connection.

[0011] By adopting the above technical scheme, the lifting assembly realizes efficient collection and processing of surface dust through the cooperation of the moving block, the lifting suction block and the lifting hydraulic cylinder. The moving block is in sliding connection with the lifting suction block and is driven by the auxiliary motor to move, so that the position of the suction block can be adjusted along a specific trajectory to adapt to the needs of different cleaning areas. The lifting hydraulic cylinder is fixed on the collecting rack and is in transmission connection with the lifting suction block to control the lifting movement of the lifting suction block in the vertical direction, so as to ensure that the suction block can closely fit the surface to be cleaned and improve the dust collection efficiency. In the working process, when the system starts, the auxiliary motor first drives the moving block to move, so that the suction block is adjusted to the predetermined cleaning area. Then, the lifting hydraulic cylinder drives the lifting suction block to move downward, so that it contacts or approaches the surface to be cleaned, ensuring that the dust suction port can effectively cover the dust area. The dust is sucked into the suction block and transported to the processing mechanism through the internal channel for further filtering and storage. In terms of working principle, the lifting hydraulic cylinder adjusts the position of the lifting suction block through hydraulic driving force, so that it can adapt to different heights of the surface to be cleaned and maintain stable dust suction effect. The sliding connection structure of the moving block ensures that the suction block can be flexibly adjusted in the horizontal direction to adapt to dust areas of different widths or positions. The lifting suction block adopts a cross-like structure, which can maintain stability when subjected to airflow impact and reduce airflow disturbance during dust suction, improving dust absorption efficiency. At the same time, the sliding connection between the suction block and the collecting rack enables smooth movement during work, avoiding dust suction blind area caused by fixed structure.

[0012] Finally, the technical scheme ensures that the lifting suction block can be flexibly adjusted to the optimal dust suction position, improves the collection efficiency of dust, reduces residual dust, and enhances the adaptability of the equipment to different cleaning environments, ensuring efficient and stable operation.

[0013] Further, the self-adaptive width assembly comprises a transmission shaft, a spacing shaft, a spacing electromagnetic block, a spacing magnetic block and a spacing elastic member, the spacing electromagnetic block and the spacing shaft are in fastening connection, the spacing elastic member and the spacing electromagnetic block are in fastening connection, the spacing elastic member and the spacing magnetic block are in fastening connection, the spacing magnetic block and the spacing electromagnetic block are in magnetic repulsion transmission, the auxiliary motor and the transmission shaft are in transmission connection, the spacing magnetic block and the spacing shaft are in sliding connection, the transmission shaft and the spacing shaft are in sliding connection, the transmission shaft and the auxiliary brush are in transmission connection, and the transmission shaft and the spacing magnetic block are in fastening connection.

[0014] By adopting the above technical scheme, the self-adaptive width assembly realizes dynamic adjustment of the interval of the auxiliary brushes through cooperation of the transmission shaft, the interval shaft, the interval electromagnetic block, the interval magnetic block and the interval elastic member, so as to adapt to different widths of the surface to be cleaned. The auxiliary motor drives the transmission shaft to rotate, the transmission shaft is in sliding connection with the interval shaft, so that the interval shaft can move with the transmission shaft and drive the auxiliary brushes to rotate. The interval electromagnetic block is fixed on the interval shaft and interacts with the interval magnetic block through magnetic force to generate repulsive force, so that the interval magnetic block slides along the interval shaft, thereby adjusting the interval between the auxiliary brushes. In the working process, when the auxiliary motor starts, the transmission shaft rotates and drives the interval shaft to move synchronously, the interval electromagnetic block rotates with the interval shaft, and the repulsive force of the magnetic property is used to push the interval magnetic block to slide along the interval shaft. The movement of the interval magnetic block changes the distance between the auxiliary brushes, so that they can adapt to different widths of cloth or belt and improve the cleaning efficiency. The interval elastic member connects the interval electromagnetic block and the interval magnetic block to provide stable return force, so that the adjusted interval can be stably maintained and reset to the initial state when adjustment is not needed. In terms of working principle, the interval electromagnetic block adjusts the position of the interval magnetic block through magnetic field change, thereby changing the distribution of the auxiliary brushes so that they can adapt to different width surface cleaning requirements. Since the interval magnetic block is in sliding connection with the interval shaft, it can flexibly adjust the position under the action of electromagnetic force while maintaining stable rotation of the auxiliary brushes. The transmission shaft not only transmits rotary power but also is in fast connection with the interval magnetic block to ensure stable transmission of force during adjustment, so that the interval between the brush heads can be uniformly adjusted without deviation or jamming. Finally, the technical scheme realizes automatic adjustment of the interval of the auxiliary brushes, so that the cleaning mechanism can adapt to different specifications of the cleaning object and improve the comprehensiveness and coverage of dust cleaning. Through the magnetic repulsion principle, the complex structure and friction loss of the traditional mechanical adjustment mode are avoided, the flexibility and durability of adjustment are improved, and the equipment runs more stably and efficiently.

[0015] Further, the suspended matter collecting mechanism comprises a rotating plate, a rotating motor, a rotating brush and a first fan, the rotating brush and the rotating plate are in fast connection, the rotating motor and the collecting rack are in fast connection, the rotating motor and the rotating plate are in transmission connection, and the collecting rack is provided with a suspended suction port.

[0016] By adopting the above technical scheme, the suspended matter collecting mechanism utilizes the synergistic effect of the rotating plate, the rotating motor, the rotating brush and the first fan to realize efficient collection of suspended dust in the air. The rotating motor is fixed on the collecting frame and drives the rotating plate to rotate through a transmission mode. The rotating plate drives the rotating brush to rotate at a high speed, generates a disturbance airflow, and causes the suspended dust in the air to concentrate towards the suspended suction port. The suspended suction port is arranged on the collecting frame and communicates with the first fan. The first fan provides strong negative pressure suction to cause the dust to quickly enter the collection system and be transported to the processing mechanism. In terms of working process, when the equipment is started, the rotating motor drives the rotating plate to rotate, so that the rotating brush stirs the surrounding air at a high speed, increases the movement rate of the dust, and guides it to concentrate towards the suspended suction port. At this time, the first fan generates a negative pressure airflow, which sucks in the disturbed dust through the suspended suction port, ensuring that the suspended matter in the air is quickly collected and transmitted to the subsequent processing link. Since the rotating brush is tightly connected with the rotating plate, it can stably act on the target area during rotation, so that the dust does not stay in the air for a long time, reducing the possibility of secondary pollution. In terms of working principle, the rotating motor provides rotary power to drive the rotating plate to rotate at a high speed, increases the aggregation effect of the suspended dust by using the airflow disturbance principle, and cooperates with the suction force of the first fan to cause the dust to quickly enter the collection channel. The reasonable layout of the suspended suction port ensures the uniform distribution of the negative pressure area, so that the dust can be more concentratedly absorbed, improving the collection efficiency.

[0017] Finally, the technical scheme can effectively reduce the concentration of suspended dust in the air, improve the comprehensiveness of dust collection, and ensure the cleanliness of the working environment. Through the disturbance effect of the rotating brush, low-concentration suspended dust can also be quickly gathered and enter the collection system, avoiding dust diffusion, improving air quality, and reducing the health risks of workers exposed to dust environment for a long time.

[0018] Further, the corner collecting mechanism includes a striped telescopic pipe, a collecting gun, a suction port motor and an iris assembly. The striped telescopic pipe and the collecting gun are in communication, the striped telescopic pipe and the first fan are in communication, the iris assembly is located in the striped telescopic pipe, the suction port motor is tightly connected with the collecting frame, and the suction port motor and the iris assembly are in transmission connection. The first fan and the processing mechanism are in communication.

[0019] By adopting the above technical scheme, the corner collecting mechanism realizes efficient collection of dust in corners, edges and hard-to-reach areas through the cooperation of the stripe telescopic pipe, the collecting gun, the suction port motor and the iris assembly. The stripe telescopic pipe is in communication with the collecting gun and is connected with the first fan, ensuring that the dust can smoothly enter the collection system. The collecting gun, as a terminal dust suction device, can accurately position and suck the dust in the corners. The iris assembly is arranged inside the stripe telescopic pipe, and its opening and closing state is controlled by the suction port motor to adjust the size of the air flow channel, thereby adapting to different dust suction needs. The suction port motor is fixed on the collecting frame and drives the iris assembly through a transmission mode, so that the size of the dust suction port is dynamically adjusted according to the dust concentration and air flow intensity during the working process, thereby optimizing the collection effect.

[0020] In terms of working process, when the device is started, the suction port motor drives the iris assembly to act, and adjusts the opening and closing degree of the dust suction port according to the preset dust suction mode. The stripe telescopic pipe guides the dust to the collecting gun under the negative pressure action of the first fan, ensuring accurate and efficient dust suction. The collecting gun can deeply enter the corners to strongly adsorb local dust and transport it to the collecting gun through the stripe telescopic pipe, and then further transport it to the processing mechanism by the first fan. The iris assembly adjusts the opening size in real time under the action of the suction port motor to match the dust suction needs in different environments, preventing dust from flying due to excessive air flow or affecting the dust suction efficiency due to insufficient air flow. In terms of working principle, the stripe telescopic pipe provides flexible extension capability, enabling the collecting gun to enter narrow areas for cleaning. The suction port motor drives the iris assembly to adjust the opening degree of the dust suction port, controls the suction force by variable aperture, and improves the accuracy of dust collection. The first fan generates strong negative pressure air flow, which, through the communication action of the stripe telescopic pipe and the collecting gun, enables the dust to smoothly enter the collection system. The collecting gun, as a terminal adsorption device, acts on the corner dust through high-efficiency suction force, so that even fine particles that are hard to reach can also be effectively captured. Ultimately, the technical scheme ensures that the corner collecting mechanism can accurately and efficiently clean the dust in corners, narrow spaces and irregular areas, avoiding the problem that traditional dust suction methods are difficult to reach. Through dynamic adjustment of the iris assembly, the suction force is more stable and controllable, preventing secondary dust raising, improving dust collection efficiency, optimizing air quality and ensuring that the cleaning effect reaches the best state.

[0021] Further, the processing mechanism includes a cyclone separator, a discharge valve, a collection tank, a squeezing assembly, a second fan and a condensation assembly. The second fan is in communication with the lifting suction block, the second fan is in communication with the cyclone separator, the discharge valve is in communication with the cyclone separator, the cyclone separator is in communication with the condensation assembly, the collection tank is fixedly connected with the collecting frame, the discharge valve is in communication with the collection tank, the squeezing assembly is fixedly connected with the collection tank, the condensation assembly is fixedly connected with the collecting frame, and the condensation assembly is in communication with the collection tank.

[0022] By adopting the above technical scheme, the processing mechanism realizes efficient dust separation, collection and treatment through the synergistic effect of the cyclone separator, the discharge valve, the collection box, the extrusion assembly, the second fan and the condensation assembly. The second fan is in communication with the lifting suction block and the cyclone separator, and provides strong negative pressure suction to guide the collected dust to the cyclone separator for preliminary separation. The cyclone separator relies on the centrifugal force generated by the high-speed rotating airflow to make the larger particle dust settle along the wall to the bottom and enter the collection box through the discharge valve, and the small particle dust enters the condensation assembly for further treatment. The collection box is fixed on the collection rack and is used to store the separated solid dust, and is connected with the extrusion assembly to compress the dust. The condensation assembly is fixedly connected with the collection rack and is in communication with the collection box, so that the remaining fine dust is further condensed and settled, reducing dust overflow and improving processing efficiency. In the working process, the second fan generates strong suction to suck the dust into the cyclone separator through the lifting suction block. The cyclone separator forms a high-speed rotating airflow inside, and the large particle dust is thrown to the wall under the action of centrifugal force and settles to the bottom, and enters the collection box for storage through the discharge valve. Small particle dust enters the condensation assembly with the airflow. The condensation assembly aggregates fine dust particles into larger particles through electrostatic adsorption, spray condensation or heating treatment, and finally settles in the collection box. The collection box is connected with the extrusion assembly, and the extrusion hydraulic cylinder acts on the extrusion plate to compress the stored dust at high pressure, so that it forms a block shape, reduces the storage volume, and improves the processing efficiency. When the dust in the collection box reaches the preset amount, the discharge valve can control the dust output to realize automatic cleaning. In terms of working principle, the cyclone separator uses the centrifugal force generated by airflow rotation to separate dust by particle size. Large particle dust is separated from the airflow due to its large inertia and settles, while small particle dust enters the condensation assembly for secondary treatment. The condensation assembly uses electrostatic attraction, spray condensation or vibration settlement to condense fine dust into larger particles, which fall into the collection box to prevent dust escape. The extrusion assembly relies on the hydraulic drive extrusion plate to compress the dust at high density, reducing the volume for subsequent storage or processing. The setting of the discharge valve ensures that the dust can be automatically released when the storage reaches the preset value, improving the continuous operation capacity of the equipment. Ultimately, this technical scheme can effectively improve the dust treatment efficiency, ensure that the collected dust is reasonably stored and efficiently compressed, reduce dust diffusion and secondary pollution problems. The combination of the cyclone separator and the condensation assembly allows dust of different particle sizes to be treated specifically, improving separation accuracy and air purification efficiency. At the same time, the extrusion assembly reduces storage volume, reduces dust handling cost, and improves overall system efficiency and stability.

[0023] Further, the extrusion assembly includes an extrusion hydraulic cylinder, an extrusion plate, a pressure sensor and a first atomizing nozzle. The first atomizing nozzle is fixedly connected with the collection box, the pressure sensor is fixedly connected with the extrusion plate, the extrusion hydraulic cylinder is fixedly connected with the collection box, and the extrusion hydraulic cylinder is in transmission connection with the extrusion plate.

[0024] By adopting the above technical scheme, the extrusion assembly realizes efficient compression and dust reduction treatment of dust through the synergistic effect of the extrusion hydraulic cylinder, the extrusion plate, the pressure sensor and the first atomizing nozzle. The extrusion hydraulic cylinder is fixed on the collection box, and its piston rod is in transmission connection with the extrusion plate, which is used to provide sufficient thrust to uniformly and strongly compress the dust. The pressure sensor is installed on the extrusion plate to monitor the stress condition of the dust during compression in real time, so as to ensure the stability of the extrusion pressure and feedback signals when the preset pressure value is reached, so as to prevent equipment damage or dust leakage caused by excessive extrusion. The first atomizing nozzle is fixed on the collection box and can spray an appropriate amount of liquid to make the dust condense into blocks during compression, prevent fine particles from escaping and improve the dust density. In the working process, the dust settles into the collection box after passing through the cyclone separator and the condensation assembly, and when the dust amount reaches the set threshold, the extrusion hydraulic cylinder starts to push the extrusion plate downward to compress the collected dust under high pressure. The pressure sensor continuously detects the stress condition during compression to ensure that the extrusion pressure is moderate and sends a signal to the control system when the set value is reached to stop extrusion or adjust the pressure. At the same time, the first atomizing nozzle sprays a small amount of liquid to make the dust adhere to form blocks, further reducing the suspended particles in the air and reducing the risk of dust diffusion. After compression is completed, the extrusion hydraulic cylinder moves in the opposite direction, and the extrusion plate returns to the initial position to prepare for the next round of dust collection and compression. In terms of working principle, the extrusion hydraulic cylinder provides linear driving force to push the extrusion plate to apply uniform pressure to the dust to make it denser, reduce the storage volume and improve the utilization rate of the collection box. The pressure sensor monitors the extrusion pressure to ensure that the compression process is stable and controlled to avoid equipment damage or dust leakage caused by excessive extrusion. The first atomizing nozzle sprays atomized liquid during compression to make the dust condense into larger particles, improve compression efficiency, reduce dust escape and improve the environmental friendliness of the entire system. Ultimately, this technical scheme ensures that the dust is effectively compressed and treated in the collection box, reduces the storage volume, improves the space utilization rate and reduces the risk of secondary dust diffusion. Through the intelligent feedback control of the pressure sensor, the safety and reliability of the compression process are ensured, and the dust reduction effect of the atomizing nozzle further improves the environmental protection effect of dust treatment, making the entire dust collection and treatment system more efficient, stable and controllable.

[0025] Further, the condensation assembly includes a transmission rack, a vibrator, a transmission motor, an electrostatic plate, an electrostatic generator, a second atomizing nozzle, a condensation box, a heating clamp block and a clamp block hydraulic cylinder. The condensation box and the collection box are in communication, the transmission motor is fixedly connected with the condensation box, the transmission motor and the transmission rack are in transmission connection, the transmission rack and the electrostatic plate are in transmission connection, the electrostatic plate is hingedly connected with the condensation box, the electrostatic generator is electrically connected with the electrostatic plate, the second atomizing nozzle is fixedly connected with the condensation box, the vibrator is fixedly connected with the electrostatic plate, and the clamp block hydraulic cylinder is fixedly connected with the condensation box and in transmission connection with the heating clamp block.

[0026] By adopting the above technical scheme, the condensation assembly realizes further condensation and treatment of dust through the cooperative work of the transmission rack, the vibrator, the transmission motor, the static plate, the static generator, the second atomizing nozzle, the condensation box, the heating clamp block and the clamp block hydraulic cylinder. The condensation box is communicated with the collection box, and the dust enters the condensation box through the collection box for the last condensation treatment. The transmission motor is tightly connected with the condensation box and is responsible for driving the operation of the whole condensation assembly. The transmission motor drives the movement of the static plate through the transmission rack, the static plate is hinged with the condensation box and can produce a certain mechanical movement and electrostatic field, so that the dust particles have condensation reaction. The static generator is electrically connected with the static plate to provide an electric field and enhance the adsorption force of the dust particles, so that the fine dust is condensed into larger particles for further treatment. The second atomizing nozzle is fixedly connected with the condensation box and is used for spraying atomized liquid in the condensation process to help the particles combine into blocks more effectively. The vibrator is fixed on the static plate to provide vibration effect and further promote the settlement and rapid condensation of the dust particles. The clamp block hydraulic cylinder is fixedly connected with the condensation box and is responsible for driving the heating clamp block to perform heating treatment to promote the adhesion and condensation of the dust particles. The transmission connection of the clamp block hydraulic cylinder and the heating clamp block enables the heating clamp block to perform heating operation when needed to help the dust better adhere and settle during compression. In the working process, after the dust enters the condensation box through the collection box, the transmission motor starts to drive the movement of the static plate through the transmission rack, and at the same time, the static generator provides an electric field to promote the dust particles to gather due to the charge effect. The second atomizing nozzle sprays an appropriate amount of liquid to help the dust condense into larger particles. The vibrator transmits vibration to the static plate to further accelerate the condensation process of the dust particles. As the particles gradually increase, the clamp block hydraulic cylinder starts to drive the heating clamp block to perform heating treatment, so that the dust particles better condense and compact at high temperature. After this series of treatment, the dust is finally compressed into larger blocks, which is convenient for subsequent storage and discharge. In terms of working principle, the static plate generates an electric field through the static generator to enhance the charge adsorption effect of the dust particles, so that the dust particles can adsorb each other to form larger particles; the transmission connection of the transmission rack and the static plate provides the movement of the static plate, so that the dust particles are uniformly treated. The liquid spraying effect of the second atomizing nozzle further accelerates the condensation of the dust particles to prevent fine particles from floating in the air and reduce the dust raising phenomenon. The mechanical vibration provided by the vibrator helps the particles to settle and accelerate the aggregation. The heating clamp block accelerates the condensation process of the dust through high temperature to improve the efficiency and treatment effect. Finally, the condensation assembly adopting this technical scheme can efficiently condense and compact the dust, reduce the diffusion of fine particle dust, and ensure that the dust aggregation effect is remarkable through the electrostatic effect and liquid atomization effect, while the heating treatment ensures the efficiency of the condensation process. Overall, the condensation assembly not only improves the precision of dust treatment, but also optimizes the collection and compression process to achieve efficient and environmentally friendly treatment goals.

[0027] Compared with the prior art, the present application has the beneficial effects that: The surface collection mechanism realizes efficient cleaning of the surface dust of the textile cloth and the belt through the cooperation of the lifting assembly, the adaptive width assembly, the auxiliary brush and the auxiliary motor. The auxiliary brush is in the shape of a circular truncated cone, and multiple auxiliary brushes can be nested with each other to effectively adapt to surfaces of different widths. The hydraulic drive in the lifting assembly provides precise height adjustment capability, ensuring the stability of the cleaning effect. The adaptive width assembly automatically adjusts the spacing of the auxiliary brushes through electromagnetic principles to adapt to the needs of different cleaning areas. This design can adapt to surfaces of different widths and thicknesses to be cleaned, avoiding cleaning dead angles caused by static settings.

[0028] The suspended matter collection mechanism utilizes the airflow disturbance principle to guide the suspended dust in the air into the suspended suction port through the coordinated action of the rotating plate, the rotating motor, the rotating brush and the first fan, and then sucks it into the collection system through strong suction. The high-speed rotation of the rotating brush increases the airflow disturbance and optimizes the collection efficiency of the suspended dust. This design reduces the concentration of suspended dust in the air and improves the air quality of the working environment.

[0029] The corner collection mechanism utilizes the striped telescopic tube, the collection gun, the suction port motor and the iris assembly to adapt to the cleaning needs of corners and edge areas of different shapes by dynamically adjusting the size of the iris opening. The telescopic nature of the striped telescopic tube allows the collection gun to penetrate into narrow areas, while the iris assembly adjusts the opening size to achieve precise dust control, ensuring efficient dust collection and avoiding the phenomenon of missed scanning due to difficult-to-clean corners.

[0030] The core of the processing mechanism is the cyclone separator and the condensation assembly. The former separates larger particle dust through centrifugal force, and the latter aggregates fine dust into larger particles through electrostatic adsorption, vibration and other methods. The condensation process improves the collection efficiency of dust and compresses the dust through the extrusion assembly to reduce the storage volume. This structural design greatly improves the collection rate of dust and effectively reduces emissions. BRIEF DESCRIPTION OF DRAWINGS

[0031] Figure 1 is a schematic diagram of the overall structure of the present application; Figure 2 is a schematic diagram of the surface collection mechanism structure of the present application; Figure 3 is a schematic diagram of the lifting assembly structure of the present application; Figure 4 is a schematic diagram of the adaptive width assembly structure of the present application; Figure 5 is a schematic diagram of the suspended matter collection mechanism structure of the present application; Figure 6 is a schematic diagram of the processing mechanism structure of the present application; Figure 7 Figure is a schematic diagram of the extrusion assembly structure of the present application; Figure 8 Figure is a schematic diagram of the condensation assembly structure of the present application.

[0032] In the figure: 1, collection frame; 11, suspended suction port; 2, surface collection mechanism; 21, lifting assembly; 211, moving block; 212, lifting suction port block; 213, lifting hydraulic cylinder; 22, self-adaptive width assembly; 221, transmission shaft; 222, spacing shaft; 223, spacing electromagnetic block; 224, spacing magnetic block; 225, spacing elastic member; 23, auxiliary brush; 24, auxiliary motor; 3, suspended matter collection mechanism; 31, rotating plate; 32, rotating motor; 33, rotating brush; 34, first fan; 4, corner collection mechanism; 41, striped telescopic tube; 42, collection gun; 43, suction port motor; 44, iris assembly; 5, processing mechanism; 51, cyclone separator; 52, discharge valve; 53, collection tank; 54, extrusion assembly; 541, extrusion hydraulic cylinder; 542, extrusion plate; 543, pressure sensor; 544, first atomizing nozzle; 55, second fan; 56, condensation assembly; 561, transmission rack; 562, vibrator; 563, transmission motor; 564, electrostatic plate; 565, electrostatic generator; 566, second atomizing nozzle; 567, condensation tank; 568, heating clamp block; 569, clamp block hydraulic cylinder. DETAILED DESCRIPTION

[0033] The technical solutions in the embodiments of the present application will be clearly and completely described below with reference to the drawings in the embodiments of the present application. Obviously, the described embodiments are only part of the embodiments of the present application, rather than all the embodiments of the present application. Based on the embodiments in the present application, all other embodiments obtained by those skilled in the art without creative labor fall within the scope of protection of the present application.

[0034] Please refer to Figure 1 - Figure 8 As shown in the figure, the present application provides a textile dust collection equipment technical solution for a textile machine: The collection equipment includes a collection frame 1, a surface collection mechanism 2, a suspended matter collection mechanism 3, a corner collection mechanism 4, and a processing mechanism 5. The surface collection mechanism 2, the suspended matter collection mechanism 3, the corner collection mechanism 4, and the processing mechanism 5 are all fixedly connected with the collection frame 1. The surface collection mechanism 2, the suspended matter collection mechanism 3, and the corner collection mechanism 4 are all in communication with the processing mechanism 5. The surface collection mechanism 2 is used to collect dust on the tensioned textile cloth and belt. The suspended matter collection mechanism 3 is used to collect dust suspended in the air. The corner processing mechanism 5 is used to process fixed-point collection.

[0035] By adopting the above technical scheme, the surface collecting mechanism 2 realizes efficient cleaning of the surface of the tensioned textile cloth and the belt through the cooperation of the lifting assembly 21, the self-adaptive width assembly 22, the auxiliary brush 23 and the auxiliary motor 24. The auxiliary motor 24 drives the self-adaptive width assembly 22 to operate, drives the transmission shaft 221 to rotate, so that the plurality of auxiliary brushes 23 rotate synchronously for brushing, the auxiliary brush 23 adopts a circular truncated cone structure, and adjacent auxiliary brushes 23 can be nested to adapt to different widths of the surface to be cleaned. The lifting hydraulic cylinder 213 in the lifting assembly 21 is tightly connected with the collecting rack 1 and drives the lifting suction block 212 to move up and down, so that the suction block can tightly adhere to the surface to be cleaned, thereby improving the dust collection efficiency. The moving block 211 is slidingly connected with the lifting suction block 212, so that it can adjust the position within a certain range, ensuring the stability and flexibility of the cleaning process. The lifting suction block 212 adopts a cross-like structure and is slidingly connected with the collecting rack 1, so that it can smoothly operate while maintaining stability. Finally, the cleaned dust enters the processing mechanism 5 through the lifting suction block 212, realizing efficient collection. The suspended matter collecting mechanism 3 realizes effective collection of suspended dust in the air through the cooperation of the rotating plate 31, the rotating motor 32, the rotating brush 33 and the first fan 34. The rotating motor 32 is tightly connected with the collecting rack 1 and drives the rotating plate 31 to rotate, so that the rotating brush 33 tightly connected with the rotating plate 31 rotates at high speed, disturbing the air and capturing the suspended dust. The rotation of the rotating brush 33 further guides the dust towards the suspended suction port 11 on the collecting rack 1, and under the suction of the first fan 34, the dust is quickly sucked into the subsequent processing link. This mechanism can effectively reduce the dust concentration in the air, reduce dust diffusion and improve the cleanliness of the working environment. The corner collecting mechanism 4 realizes precise collection of dust in corners and fixed points by using the stripe telescopic pipe 41, the collecting gun 42, the suction motor 43 and the iris assembly 44. The suction motor 43 is tightly connected with the collecting rack 1 and drives the iris assembly 44 to operate, adjusts the size of the collecting port of the stripe telescopic pipe 41, so that it adapts to different shapes of corner areas. One end of the stripe telescopic pipe 41 is communicated with the collecting gun 42, and the other end is connected to the first fan 34. Under the suction of the fan, the dust enters the stripe telescopic pipe 41 through the collecting gun 42 and is finally transported to the processing mechanism 5. The iris assembly 44 can dynamically adjust the opening size, so that the collecting gun 42 adapts to the shape of different corners, improves the collection efficiency, reduces dust residue and ensures wider cleaning coverage. The processing mechanism 5 realizes efficient dust treatment through the cooperation of the cyclone separator 51, the discharge valve 52, the collecting box 53, the extrusion assembly 54, the second fan 55 and the condensation assembly 56. The collected dust first enters the cyclone separator 51, under the action of the rotating airflow, the large particle dust is thrown to the separator wall, and the fine dust is guided to the condensation assembly 56 for further treatment by the second fan 55.The condensation assembly 56 cooperates with the transmission rack 561, the vibrator 562, the transmission motor 563, the static plate 564, the static generator 565, the second atomizing nozzle 566, the condensation box 567, the heating clamp block 568, and the clamp block hydraulic cylinder 569 to condense dust into larger particles under the action of static adsorption and to strip and fall into the collection box 53 under the action of the vibrator 562. At the same time, the second atomizing nozzle 566 sprays liquid to promote dust condensation and improve the trapping efficiency. The dust in the collection box 53 is further processed by the extrusion assembly 54. The extrusion hydraulic cylinder 541 pushes the extrusion plate 542 to pressurize the dust, so that the dust particles are efficiently compressed and the storage density is improved. The pressure sensor 543 monitors the extrusion pressure in real time to prevent dust overflow or affect the storage effect. The first atomizing nozzle 544 can spray liquid in time to further suppress dust flying. Finally, the heating clamp block 568 in the condensation box 567 is heated and dried under the action of the clamp block hydraulic cylinder 569 to reduce the residual moisture of the dust and improve the storage stability. The processing mechanism 5 can effectively reduce dust emission, improve collection and storage efficiency, and reduce environmental pollution.

[0036] Further, the surface collection mechanism 2 includes a lifting assembly 21, a self-adaptive width assembly 22, an auxiliary brush 23, and an auxiliary motor 24. The auxiliary motor 24 is fixedly connected with the lifting assembly 21, the auxiliary motor 24 is drivingly connected with the self-adaptive width assembly 22, the self-adaptive width assembly 22 is drivingly connected with the auxiliary brush 23, the auxiliary brush 23 is in the shape of a circular truncated cone, and a plurality of auxiliary brushes 23 are arranged.

[0037] By adopting the above technical scheme, the surface collecting mechanism 2 utilizes the synergistic effect of the lifting assembly 21, the adaptive width assembly 22, the auxiliary brush 23 and the auxiliary motor 24 to realize efficient cleaning of the surface of the tensioned textile cloth and belt. The auxiliary motor 24 is tightly connected with the lifting assembly 21 and drives the adaptive width assembly 22 to operate, so that the transmission shaft 221 drives multiple auxiliary brushes 23 to rotate synchronously. The auxiliary brush 23 adopts a circular truncated cone structure, and every two auxiliary brushes 23 can be nested with each other to adapt to different widths of the surface to be cleaned. The adaptive width assembly 22 can automatically adjust the spacing of the auxiliary brushes 23 according to the width change of the cleaning object, thereby improving the coverage and adaptability of cleaning. In terms of work flow, after the auxiliary motor 24 is started, the adaptive width assembly 22 is driven by the transmission shaft 221 to make the auxiliary brush 23 rotate and adhere to the surface of the textile cloth or belt for cleaning. The circular truncated cone structure of the auxiliary brush 23 enables it to more effectively contact and remove surface dust during rotation, and the nested design ensures that there is no dead angle for cleaning. The lifting assembly 21 provides vertical adjustment capability, so that the cleaning mechanism can adjust the cleaning height according to the different thicknesses of the cloth or belt, ensure the best adhesion, and improve the cleaning efficiency. In terms of working principle, the auxiliary brush 23 removes surface dust through mechanical friction when rotating, and the dust is concentrated and guided to the lower side of the lifting assembly 21 under the action of the auxiliary brush 23, and finally enters the processing link through the collecting mechanism. The transmission connection of the adaptive width assembly 22 ensures that the auxiliary brush 23 can automatically adjust with the width change of the cloth or belt, so that it can maintain the best cleaning effect under different working conditions. Finally, this technical scheme can ensure efficient cleaning of surface dust, improve the collection effect, and reduce secondary pollution caused by dust residues. At the same time, the adaptive adjustment capability of the auxiliary brush 23 enhances the adaptability of the equipment to different specifications of cloth and belt.

[0038] Further, the lifting assembly 21 includes a moving block 211, a lifting suction block 212 and a lifting hydraulic cylinder 213, the moving block 211 and the lifting suction block 212 are slidingly connected, the auxiliary motor 24 and the moving block 211 are tightly connected, the lifting hydraulic cylinder 213 and the collecting rack 1 are tightly connected, the lifting hydraulic cylinder 213 and the lifting suction block 212 are in transmission connection, the lifting suction block 212 and the processing mechanism 5 are in communication, the lifting suction block 212 is in the shape of a cross, and the lifting suction block 212 and the collecting rack 1 are slidingly connected.

[0039] By adopting the above technical scheme, the lifting assembly 21 realizes efficient collection and treatment of surface dust through the cooperation of the moving block 211, the lifting suction block 212 and the lifting hydraulic cylinder 213. The moving block 211 is slidingly connected with the lifting suction block 212 and is driven to move by the auxiliary motor 24, so that the position of the suction block can be adjusted along a specific trajectory to adapt to the needs of different cleaning areas. The lifting hydraulic cylinder 213 is fixed on the collection rack 1 and is drivingly connected with the lifting suction block 212 to control the lifting movement of the lifting suction block 212 in the vertical direction, thereby ensuring that the suction block can closely fit the surface to be cleaned and improving the dust collection efficiency. In the working process, when the system is started, the auxiliary motor 24 first drives the moving block 211 to move, so that the suction block is adjusted to the predetermined cleaning area. Then, the lifting hydraulic cylinder 213 drives the lifting suction block 212 to move downward, so that it contacts or approaches the surface to be cleaned, ensuring that the dust suction port can effectively cover the dust area. The dust is sucked into the suction block and transported to the processing mechanism 5 for further filtering and storage. In terms of working principle, the lifting hydraulic cylinder 213 adjusts the position of the lifting suction block 212 through hydraulic driving force, so that it can adapt to different heights of the surface to be cleaned and maintain stable dust suction effect. The sliding connection structure of the moving block 211 ensures that the suction block can be flexibly adjusted in the horizontal direction to adapt to dust areas of different widths or positions. The lifting suction block 212 adopts a cross-shaped structure, which can maintain stability when subjected to airflow impact and reduce airflow disturbance during dust suction, thereby improving dust absorption efficiency. At the same time, the suction block is slidingly connected with the collection rack 1, so that it can move smoothly during work, avoiding the formation of dust suction blind area due to fixed structure.

[0040] Finally, the technical scheme ensures that the lifting suction block 212 can be flexibly adjusted to the optimal dust suction position, improves the collection efficiency of dust, reduces residual dust, and enhances the adaptability of the equipment to different cleaning environments, ensuring efficient and stable operation.

[0041] Further, the self-adaptive width assembly 22 includes a transmission shaft 221, a spacing shaft 222, a spacing electromagnetic block 223, a spacing magnetic block 224, a spacing elastic member 225, the spacing electromagnetic block 223 and the spacing shaft 222 are fixedly connected, the spacing elastic member 225 and the spacing electromagnetic block 223 are fixedly connected, the spacing elastic member 225 and the spacing magnetic block 224 are fixedly connected, the spacing magnetic block 224 and the spacing electromagnetic block 223 are magnetically repelled, the auxiliary motor 24 and the transmission shaft 221 are drivingly connected, the spacing magnetic block 224 and the spacing shaft 222 are slidingly connected, the transmission shaft 221 and the spacing shaft 222 are slidingly connected, the transmission shaft 221 and the auxiliary brush 23 are drivingly connected, and the transmission shaft 221 and the spacing magnetic block 224 are fixedly connected.

[0042] By adopting the above technical scheme, the self-adaptive width assembly 22 realizes dynamic adjustment of the interval of the auxiliary brushes 23 through cooperation of the transmission shaft 221, the interval shaft 222, the interval electromagnetic block 223, the interval magnetic block 224 and the interval elastic member 225, so as to adapt to different widths of the surface to be cleaned. The auxiliary motor 24 drives the transmission shaft 221 to rotate, and the transmission shaft 221 is in sliding connection with the interval shaft 222, so that the interval shaft 222 can move with the transmission shaft 221 and drive the auxiliary brushes 23 to rotate. The interval electromagnetic block 223 is fixed on the interval shaft 222 and interacts with the interval magnetic block 224 through magnetic force, generates repulsive force, and makes the interval magnetic block 224 slide along the interval shaft 222, so as to adjust the interval between the auxiliary brushes 23. In the working process, when the auxiliary motor 24 starts, the transmission shaft 221 rotates and drives the interval shaft 222 to move synchronously, the interval electromagnetic block 223 rotates with the interval shaft 222, and the repulsive force of magnetic property pushes the interval magnetic block 224 to slide along the interval shaft 222. The movement of the interval magnetic block 224 changes the distance between the auxiliary brushes 23, so that it can adapt to different widths of cloth or belt and improve the cleaning efficiency. The interval elastic member 225 connects the interval electromagnetic block 223 and the interval magnetic block 224, provides stable return force, ensures that the adjusted interval can be stably maintained, and resets to the initial state when adjustment is not needed. In terms of working principle, the interval electromagnetic block 223 adjusts the position of the interval magnetic block 224 through magnetic field change, so as to change the distribution of the auxiliary brushes 23 and make them adapt to different width surface cleaning requirements. Since the interval magnetic block 224 is in sliding connection with the interval shaft 222, it can flexibly adjust the position under the action of electromagnetic force, while keeping the stable rotation of the auxiliary brushes 23. The transmission shaft 221 not only transmits rotary power, but also is in fastening connection with the interval magnetic block 224, so as to ensure stable transmission of force during adjustment and make the interval of the brush head be uniformly adjusted without deviation or jamming. Finally, the technical scheme realizes automatic adjustment of the interval of the auxiliary brushes 23, so that the cleaning mechanism can adapt to different specifications of cleaning objects and improve the comprehensiveness and coverage of dust cleaning. Through the magnetic repulsion principle, the complex structure and friction loss of the traditional mechanical adjustment mode are avoided, the flexibility and durability of adjustment are improved, and the equipment runs more stably and efficiently.

[0043] Further, the suspended matter collecting mechanism 3 comprises a rotating plate 31, a rotating motor 32, a rotating brush 33 and a first fan 34, the rotating brush 33 and the rotating plate 31 are in fastening connection, the rotating motor 32 and the collecting rack 1 are in fastening connection, the rotating motor 32 and the rotating plate 31 are in transmission connection, and the collecting rack 1 is provided with the suspended suction port 11.

[0044] By adopting the above technical scheme, the suspended matter collecting mechanism 3 utilizes the synergistic effect of the rotating plate 31, the rotating motor 32, the rotating brush 33 and the first fan 34 to realize efficient collection of suspended dust in the air. The rotating motor 32 is fixed on the collecting frame 1 and drives the rotating plate 31 to rotate through a transmission mode. The rotating plate 31 drives the rotating brush 33 to rotate at a high speed, generating a disturbed airflow to concentrate the suspended dust in the air towards the suspended suction port 11. The suspended suction port 11 is arranged on the collecting frame 1 and communicates with the first fan 34. The first fan 34 provides strong negative pressure suction to rapidly send the dust into the collection system and transport it to the processing mechanism 5. In terms of working process, when the equipment is started, the rotating motor 32 drives the rotating plate 31 to rotate, so that the rotating brush 33 stirs the surrounding air at a high speed, increases the movement rate of the dust, and guides it to concentrate towards the suspended suction port 11. At this time, the first fan 34 generates a negative pressure airflow to suck in the disturbed dust through the suspended suction port 11, ensuring that the suspended matter in the air is rapidly collected and transmitted to the subsequent processing link. Since the rotating brush 33 is tightly connected with the rotating plate 31, it can stably act on the target area during rotation, so that the dust does not stay in the air for a long time, reducing the possibility of secondary pollution. In terms of working principle, the rotating motor 32 provides rotary power to make the rotating plate 31 drive the rotating brush 33 to rotate at a high speed, increases the aggregation effect of the suspended dust by using the airflow disturbance principle, and at the same time cooperates with the suction force of the first fan 34 to make the dust quickly enter the collection channel. The reasonable layout of the suspended suction port 11 ensures the uniform distribution of the negative pressure area, so that the dust can be more concentratedly absorbed, improving the collection efficiency.

[0045] Finally, the technical scheme can effectively reduce the concentration of suspended dust in the air, improve the comprehensiveness of dust collection, and ensure the cleanliness of the working environment. Through the disturbance effect of the rotating brush 33, low-concentration suspended dust can also be quickly gathered and entered into the collection system, avoiding dust diffusion, improving air quality, and reducing the health risk of workers exposed to dust environment for a long time.

[0046] Further, the corner collecting mechanism 4 includes a striped telescopic pipe 41, a collecting gun 42, a suction port motor 43 and an iris assembly 44. The striped telescopic pipe 41 and the collecting gun 42 communicate, the striped telescopic pipe 41 and the first fan 34 communicate, the iris assembly 44 is located in the striped telescopic pipe 41, the suction port motor 43 and the collecting frame 1 are tightly connected, the suction port motor 43 and the iris assembly 44 are in transmission connection, and the first fan 34 and the processing mechanism 5 communicate.

[0047] By adopting the above technical scheme, the corner collecting mechanism 4 realizes efficient collection of dust in corners, edges and hard-to-reach areas through the cooperation of the striped telescopic pipe 41, the collecting gun 42, the suction port motor 43 and the iris assembly 44. The striped telescopic pipe 41 communicates with the collecting gun 42 and is connected with the first fan 34, ensuring that the dust can smoothly enter the collection system. The collecting gun 42, as a terminal dust suction device, can accurately position and suck the corner dust. The iris assembly 44 is arranged inside the striped telescopic pipe 41, and its opening and closing state is controlled by the suction port motor 43 to adjust the size of the air flow passage, thereby adapting to different dust suction needs. The suction port motor 43 is fixed on the collecting rack 1 and drives the iris assembly 44 through a transmission mode, so that the size of the dust suction port is dynamically adjusted according to the dust concentration and air flow strength during the working process, thereby optimizing the collection effect.

[0048] In the working process, when the device is started, the suction port motor 43 drives the iris assembly 44 to act according to the preset dust suction mode to adjust the opening and closing degree of the dust suction port. The striped telescopic pipe 41 guides the dust to the collecting gun 42 under the negative pressure action of the first fan 34, ensuring accurate and efficient dust suction. The collecting gun 42 can deeply enter the corner to strongly adsorb local dust and transport it to the collecting gun 42 through the striped telescopic pipe 41, and then further transport it to the processing mechanism 5 by the first fan 34. The iris assembly 44 adjusts the opening size in real time under the action of the suction port motor 43 to match the dust suction needs in different environments, preventing dust from flying due to excessive air flow or affecting the dust suction efficiency due to insufficient air flow. In terms of working principle, the striped telescopic pipe 41 provides flexible extension capability, enabling the collecting gun 42 to enter narrow areas for cleaning. The suction port motor 43 drives the iris assembly 44 to adjust the opening degree of the dust suction port, controls the suction force by variable aperture, and improves the accuracy of dust collection. The first fan 34 generates strong negative pressure air flow, which, through the communication action of the striped telescopic pipe 41 and the collecting gun 42, enables the dust to smoothly enter the collection system. The collecting gun 42, as a terminal adsorption device, acts on the corner dust through high-efficiency suction, so that hard-to-reach fine particles can also be effectively captured. Finally, the technical scheme ensures that the corner collecting mechanism 4 can accurately and efficiently clean the dust in corners, narrow spaces and irregular areas, avoiding the problem that traditional dust suction methods are difficult to reach. Through the dynamic adjustment of the iris assembly 44, the suction force is more stable and controllable, preventing secondary dust raising, improving dust collection efficiency, optimizing air quality and ensuring that the cleaning effect reaches the best state.

[0049] Further, the processing mechanism 5 comprises a cyclone separator 51, a discharge valve 52, a collection box 53, a squeezing assembly 54, a second fan 55 and a condensing assembly 56, the second fan 55 and the lifting suction block 212 are communicated, the second fan 55 and the cyclone separator 51 are communicated, the discharge valve 52 and the cyclone separator 51 are communicated, the cyclone separator 51 and the condensing assembly 56 are communicated, the collection box 53 and the collection frame 1 are fixedly connected, the discharge valve 52 and the collection box 53 are communicated, the squeezing assembly 54 and the collection box 53 are fixedly connected, the condensing assembly 56 and the collection frame 1 are fixedly connected, and the condensing assembly 56 and the collection box 53 are communicated.

[0050] By adopting the above technical scheme, the processing mechanism 5 realizes efficient dust separation, collection and processing through the synergistic effect of the cyclone separator 51, the discharge valve 52, the collection box 53, the extrusion assembly 54, the second fan 55 and the condensation assembly 56. The second fan 55 communicates with the lifting suction block 212 and the cyclone separator 51, and provides strong negative pressure suction to guide the collected dust to the cyclone separator 51 for preliminary separation. The cyclone separator 51 relies on the centrifugal force generated by the high-speed rotating airflow to make the larger particle dust settle along the wall to the bottom, and enter the collection box 53 through the discharge valve 52, and the small particle dust enters the condensation assembly 56 for further processing. The collection box 53 is fixed on the collection rack 1 and is used to store the separated solid dust, and is connected with the extrusion assembly 54 to compress the dust. The condensation assembly 56 is fixedly connected with the collection rack 1 and communicates with the collection box 53, so that the remaining fine dust is further condensed and settled, reducing dust overflow and improving processing efficiency. In the working process, the second fan 55 generates strong suction to suck the dust into the cyclone separator 51 through the lifting suction block 212. The cyclone separator 51 forms a high-speed rotating airflow inside, and the large particle dust is thrown to the wall under the action of centrifugal force and settles to the bottom, and enters the collection box 53 for storage through the discharge valve 52, and the small particle dust enters the condensation assembly 56. The condensation assembly 56 aggregates fine dust particles into larger particles by means of electrostatic adsorption, spray condensation or heating treatment, and finally settles in the collection box 53. The collection box 53 is connected with the extrusion assembly 54, and the extrusion hydraulic cylinder 541 acts on the extrusion plate 542 to compress the stored dust at high pressure, so that it forms a block shape, reduces the storage volume, and improves the processing efficiency. When the dust in the collection box 53 reaches the preset amount, the discharge valve 52 can control the dust output to realize automatic cleaning. In terms of working principle, the cyclone separator 51 uses the centrifugal force generated by the airflow rotation to separate the dust by particle size, and the large particle dust is separated from the airflow due to its large inertia and settles, while the small particle dust enters the condensation assembly 56 for secondary processing. The condensation assembly 56 condenses the fine dust into larger particles through electrostatic action, spray condensation or vibration settlement, and then falls into the collection box 53 to avoid dust escape. The extrusion assembly 54 relies on the hydraulic drive extrusion plate 542 to compress the dust at high density, reducing the volume for subsequent storage or processing. The setting of the discharge valve 52 ensures that the dust can be automatically released when the storage reaches the preset value, improving the continuous operation capacity of the equipment. Ultimately, this technical scheme can effectively improve the dust processing efficiency, ensure that the collected dust is reasonably stored and efficiently compressed, reduce dust diffusion and secondary pollution problems. The combination of the cyclone separator 51 and the condensation assembly 56 enables targeted treatment of dust of different particle sizes, improves separation accuracy and air purification effect, and reduces storage volume through the extrusion assembly 54, thereby reducing dust processing cost and improving overall system operation efficiency and stability.

[0051] Furthermore, the extrusion assembly 54 includes an extrusion hydraulic cylinder 541, an extrusion plate 542, a pressure sensor 543 and a first atomizing nozzle 544. The first atomizing nozzle 544 is fastened to the collection box 53, the pressure sensor 543 is fastened to the extrusion plate 542, the extrusion hydraulic cylinder 541 is fastened to the collection box 53, and the extrusion hydraulic cylinder 541 and the extrusion plate 542 are transmission-connected.

[0052] By adopting the above technical solution, the extrusion assembly 54 realizes efficient compression and dust reduction of dust through the synergistic effect of the extrusion hydraulic cylinder 541, the extrusion plate 542, the pressure sensor 543 and the first atomizing nozzle 544. The extrusion hydraulic cylinder 541 is fixed on the collection box 53, and its piston rod is connected to the extrusion plate 542 in a transmission manner to provide sufficient thrust so that the dust is evenly and strongly compressed. A pressure sensor 543 is installed on the extrusion plate 542 to monitor the force conditions during dust compression in real time, ensure the stability of the extrusion force, and feedback the signal when the preset pressure value is reached to prevent excessive extrusion from causing equipment damage or dust leakage. The first atomizing nozzle 544 is fixed on the collection box 53 and can spray an appropriate amount of liquid to cause the dust to condense into blocks during the compression process, prevent fine particles from escaping, and increase the dust density. In terms of workflow, dust passes through the cyclone separator 51 and the agglomeration assembly 56 before settling into the collection bin 53. When the dust level reaches a set threshold, the extrusion hydraulic cylinder 541 activates, pushing the extrusion plate 542 downward to compress the collected dust under high pressure. A pressure sensor 543 continuously monitors the pressure during the compression process to ensure appropriate compression. When the set value is reached, it sends a signal to the control system to stop compression or adjust the pressure. Simultaneously, the first atomizing nozzle 544 sprays a small amount of liquid to clumping the dust, further reducing airborne particles and minimizing the risk of dust spread. When compression is complete, the extrusion hydraulic cylinder 541 reverses, and the extrusion plate 542 returns to its initial position, preparing for the next round of dust collection and compression. In terms of operating principle, the extrusion hydraulic cylinder 541 provides a linear driving force, pushing the extrusion plate 542 to apply uniform pressure to the dust, compacting it, reducing storage volume, and improving the utilization of the collection bin 53. The pressure sensor 543 monitors the extrusion pressure to ensure a stable and controlled compression process, preventing equipment damage or dust leakage due to excessive compression. The function of the first atomizing nozzle 544 is to spray atomized liquid during the compression process, causing the dust to condense into larger particles, improving compression efficiency while reducing dust emission, thereby improving the environmental friendliness of the entire system. Ultimately, this technical solution ensures that the dust is effectively compressed and processed within the collection box 53, reducing storage volume, improving space utilization, and reducing the risk of secondary dust emission. The intelligent feedback control of the pressure sensor 543 ensures the safety and reliability of the compression process, while the dust reduction effect of the atomizing nozzle further enhances the environmental protection effect of dust treatment, making the entire dust collection and treatment system more efficient, stable, and controllable.

[0053] Further, the condensing assembly 56 comprises a transmission rack 561, a vibrator 562, a transmission motor 563, an electrostatic plate 564, an electrostatic generator 565, a second atomizing nozzle 566, a condensing box 567, a heating clamp block 568 and a clamp block hydraulic cylinder 569, the condensing box 567 and the collecting box 53 are communicated, the transmission motor 563 and the condensing box 567 are fixedly connected, the transmission motor 563 and the transmission rack 561 are in transmission connection, the transmission rack 561 and the electrostatic plate 564 are in transmission connection, the electrostatic plate 564 and the condensing box 567 are hingedly connected, the electrostatic generator 565 and the electrostatic plate 564 are in electrical connection, the second atomizing nozzle 566 and the condensing box 567 are fixedly connected, the vibrator 562 and the electrostatic plate 564 are fixedly connected, the clamp block hydraulic cylinder 569 and the condensing box 567 are fixedly connected, and the clamp block hydraulic cylinder 569 and the heating clamp block 568 are in transmission connection.

[0054] By adopting the above technical scheme, the condensation assembly 56 realizes further condensation and treatment of dust through the cooperative work of the transmission rack 561, the vibrator 562, the transmission motor 563, the static plate 564, the static generator 565, the second atomizing nozzle 566, the condensation box 567, the heating clamp block 568, and the clamp block hydraulic cylinder 569. The condensation box 567 is communicated with the collection box 53, and the dust enters the condensation box 567 through the collection box 53 for the last condensation treatment. The transmission motor 563 is tightly connected with the condensation box 567 and is responsible for driving the operation of the whole condensation assembly 56. The transmission motor 563 drives the movement of the static plate 564 through the transmission rack 561, the static plate 564 is hinged with the condensation box 567 and can produce a certain mechanical movement and electrostatic field, so that the dust particles can have a condensation reaction. The static generator 565 is electrically connected with the static plate 564 to provide an electric field and enhance the adsorption force of the dust particles, so that the fine dust is condensed into larger particles for further treatment. The second atomizing nozzle 566 is fixedly connected with the condensation box 567 and is used for spraying atomized liquid during the condensation process to help the particles combine into blocks more effectively. The vibrator 562 is fixed on the static plate 564 to provide vibration to further promote the settlement and rapid condensation of the dust particles. The clamp block hydraulic cylinder 569 is fixedly connected with the condensation box 567 and is responsible for driving the heating clamp block 568 to perform heating treatment to promote the adhesion and condensation of the dust particles. The transmission connection of the clamp block hydraulic cylinder 569 and the heating clamp block 568 enables the heating clamp block 568 to perform heating operation when needed to help the dust better adhere and settle during compression. In the working process, after the dust enters the condensation box 567 through the collection box 53, the transmission motor 563 is started to drive the movement of the static plate 564 through the transmission rack 561, and at the same time, the static generator 565 provides an electric field to promote the dust particles to gather due to the charge effect. The second atomizing nozzle 566 sprays an appropriate amount of liquid to help the dust condense into larger particles. The vibrator 562 transmits vibration to the static plate 564 to further accelerate the condensation process of the dust particles. As the particles gradually increase, the clamp block hydraulic cylinder 569 is started to drive the heating clamp block 568 to perform heating treatment, so that the dust particles can better condense and compact at high temperature. After this series of treatment, the dust is finally compressed into larger blocks, which is convenient for subsequent storage and discharge. In terms of working principle, the static plate 564 generates an electric field through the static generator 565 to enhance the charge adsorption effect of the dust particles, so that the dust particles can adsorb each other to form larger particles; the transmission connection of the transmission rack 561 and the static plate 564 provides the movement of the static plate 564 to uniformly treat the dust particles. The liquid spraying effect of the second atomizing nozzle 566 further accelerates the condensation of the dust particles to prevent fine particles from floating in the air and reduce the dust raising phenomenon. The mechanical vibration provided by the vibrator 562 helps the particles to settle and accelerate the aggregation. The heating clamp block 568 accelerates the condensation process of the dust through high temperature to improve the efficiency and treatment effect.Finally, the coagulation assembly 56 using this technical scheme can efficiently coagulate and compact dust, reduce the diffusion of fine particles, and ensure that the dust aggregation effect is significant through electrostatic action and liquid atomization, while the heating treatment ensures the efficiency of the coagulation process. Overall, the coagulation assembly 56 not only improves the accuracy of dust treatment, but also optimizes the collection and compression process, achieving efficient and environmentally friendly treatment goals. Working principle of the present application: The surface collection mechanism 2 realizes efficient cleaning of the surface dust of textile cloth and belts through the cooperation of the lifting assembly 21, the adaptive width assembly 22, the auxiliary brush 23 and the auxiliary motor 24. The auxiliary brush 23 is in the shape of a circular truncated cone, and multiple auxiliary brushes 23 can be nested with each other to effectively adapt to surfaces of different widths. The hydraulic drive in the lifting assembly 21 provides precise height adjustment capability, ensuring the stability of the cleaning effect. The adaptive width assembly 22 automatically adjusts the spacing of the auxiliary brush 23 through electromagnetic principle, adapting to the needs of different cleaning areas. This design can adapt to surfaces of different widths and thicknesses to be cleaned, avoiding cleaning dead angles caused by static settings. The suspended matter collection mechanism 3 utilizes the airflow disturbance principle to guide the dust suspended in the air into the suspended suction port 11 through the coordinated action of the rotating plate 31, the rotating motor 32, the rotating brush 33 and the first fan 34, and then sucks it into the collection system through strong suction. The high-speed rotation of the rotating brush 33 increases the airflow disturbance, optimizing the collection efficiency of suspended dust. This design reduces the concentration of suspended dust in the air and improves the air quality of the working environment. The corner collection mechanism 4 utilizes the stripe telescopic tube 41, the collection gun 42, the suction port motor 43 and the iris assembly 44 to adapt to the cleaning needs of corners and edge areas of different shapes by dynamically adjusting the size of the iris opening. The telescopic property of the stripe telescopic tube 41 enables the collection gun 42 to penetrate into narrow areas, while the iris assembly 44 realizes precise dust control by adjusting the opening size, ensuring efficient dust collection and avoiding the phenomenon of missed cleaning caused by difficult-to-clean corners. The core of the treatment mechanism 5 is the cyclone separator 51 and the coagulation assembly 56, the former separates larger particle dust through centrifugal force, and the latter aggregates fine dust into larger particles through electrostatic adsorption, vibration and other methods. The coagulation process improves the collection efficiency of dust, and the dust is compressed through the extrusion assembly 54 to reduce the storage volume. This structural design greatly improves the collection rate of dust and effectively reduces emissions.

[0055] It will be apparent to those skilled in the art that the application is not limited to the details of the above-exemplified embodiments and that the present application can be implemented in other particular forms without departing from the spirit or essential characteristics of the present application. The embodiments should therefore be considered in all respects as illustrative and not restrictive, the scope of the application being indicated by the appended claims rather than by the above description, and all changes which come within the meaning and range of equivalency of the claims are therefore intended to be embraced therein. No reference signs in the claims should be considered as limiting the scope of the claims with respect to the figures of the patent document.

Claims

1. A textile dust collection device for a textile machine, characterized in that: The collecting device comprises a collecting frame (1), a surface collecting mechanism (2), a suspended matter collecting mechanism (3), a corner collecting mechanism (4) and a processing mechanism (5); the surface collecting mechanism (2), the suspended matter collecting mechanism (3), the corner collecting mechanism (4) and the processing mechanism (5) are all fastened to the collecting frame (1); the surface collecting mechanism (2), the suspended matter collecting mechanism (3) and the corner collecting mechanism (4) are all connected to the processing mechanism (5); the surface collecting mechanism (2) is used to collect dust on the tensioned textile cloth and the belt; the suspended matter collecting mechanism (3) is used to collect dust suspended in the air; and the corner processing mechanism (5) is used to process the dust collected at a fixed position.

2. The textile dust collecting device for a textile machine according to claim 1, characterized in that: The surface collection mechanism (2) comprises a lifting assembly (21), an adaptive width assembly (22), an auxiliary brush (23) and an auxiliary motor (24); the auxiliary motor (24) and the lifting assembly (21) are fastened together; the auxiliary motor (24) and the adaptive width assembly (22) are transmission-connected; the adaptive width assembly (22) and the auxiliary brush (23) are transmission-connected; the auxiliary brush (23) is truncated cone-shaped; a plurality of auxiliary brushes (23) are provided, and every two auxiliary brushes (23) can be nested.

3. The textile dust collecting device for a textile machine according to claim 2, characterized in that: The lifting assembly (21) includes a moving block (211), a lifting suction block (212) and a lifting hydraulic cylinder (213); the moving block (211) and the lifting suction block (212) are slidably connected; the auxiliary motor (24) and the moving block (211) are fixedly connected; the lifting hydraulic cylinder (213) and the collection rack (1) are fixedly connected; the lifting hydraulic cylinder (213) and the lifting suction block (212) are transmission-connected; the lifting suction block (212) and the processing mechanism (5) are connected; the lifting suction block (212) is cross-shaped; and the lifting suction block (212) and the collection rack (1) are slidably connected.

4. The textile dust collecting device for a textile machine according to claim 3, characterized in that: The adaptive width component (22) comprises a transmission shaft (221), a spacing shaft (222), a spacing electromagnetic block (223), a spacing magnetic block (224), and a spacing elastic member (225); the spacing electromagnetic block (223) and the spacing shaft (222) are fastened together; the spacing elastic member (225) and the spacing electromagnetic block (223) are fastened together; the spacing elastic member (225) and the spacing magnetic block (224) are fastened together; the spacing magnetic block (224) and the spacing electromagnetic block (223) are magnetically repelled and driven; the auxiliary motor (24) and the transmission shaft (221) are transmission-connected; the spacing magnetic block (224) and the spacing shaft (222) are slidingly connected; the transmission shaft (221) and the spacing shaft (222) are slidingly connected; the transmission shaft (221) and the auxiliary brush (23) are transmission-connected; and the transmission shaft (221) and the spacing magnetic block (224) are fastened together.

5. The textile dust collecting device for a textile machine according to claim 4, characterized in that: The suspended matter collecting mechanism (3) comprises a rotating plate (31), a rotating motor (32), a rotating brush (33) and a first fan (34); the rotating brush (33) and the rotating plate (31) are tightly connected; the rotating motor (32) and the collecting frame (1) are tightly connected; the rotating motor (32) and the rotating plate (31) are transmission-connected; and a suspended suction port (11) is provided on the collecting frame (1).

6. The textile dust collecting device for a textile machine according to claim 5, characterized in that: The corner collection mechanism (4) includes a striped telescopic tube (41), a collection gun (42), a suction port motor (43) and an iris assembly (44); the striped telescopic tube (41) is connected to the collection gun (42); the striped telescopic tube (41) is connected to the first fan (34); the iris assembly (44) is located in the striped telescopic tube (41); the suction port motor (43) is fastened to the collection rack (1); the suction port motor (43) is transmission-connected to the iris assembly (44); and the first fan (34) is connected to the processing mechanism (5).

7. The textile dust collecting device for a textile machine according to claim 6, characterized in that: The processing mechanism (5) includes a cyclone separator (51), a discharge valve (52), a collection box (53), an extrusion assembly (54), a second fan (55) and a coagulation assembly (56), wherein the second fan (55) is connected to the lifting suction port block (212), the second fan (55) is connected to the cyclone separator (51), the discharge valve (52) is connected to the cyclone separator (51), the cyclone separator (51) is connected to the coagulation assembly (56), the collection box (53) is fastened to the collection rack (1), the discharge valve (52) is connected to the collection box (53), the extrusion assembly (54) is fastened to the collection box (53), the coagulation assembly (56) is fastened to the collection rack (1), and the coagulation assembly (56) is connected to the collection box (53).

8. The textile dust collecting device for a textile machine according to claim 7, characterized in that: The extrusion assembly (54) comprises an extrusion hydraulic cylinder (541), an extrusion plate (542), a pressure sensor (543) and a first atomizing nozzle (544); the first atomizing nozzle (544) is fastened to the collection box (53); the pressure sensor (543) is fastened to the extrusion plate (542); the extrusion hydraulic cylinder (541) is fastened to the collection box (53); and the extrusion hydraulic cylinder (541) is transmission-connected to the extrusion plate (542).

9. The textile dust collecting device for a textile machine according to claim 8, characterized in that: The coagulation assembly (56) includes a transmission rack (561), a vibrator (562), a transmission motor (563), an electrostatic plate (564), an electrostatic generator (565), a second atomizing nozzle (566), a coagulation box (567), a heating clamp (568) and a clamp hydraulic cylinder (569), the coagulation box (567) and the collection box (53) are connected, the transmission motor (563) and the coagulation box (567) are fastened and connected, and the transmission motor (563) and the transmission rack (561) are transmission-connected. The transmission rack (561) and the electrostatic plate (564) are in transmission connection, the electrostatic plate (564) and the condensation box (567) are hinged, the electrostatic generator (565) and the electrostatic plate (564) are electrically connected, the second atomizing nozzle (566) and the condensation box (567) are fastened together, the vibrator (562) and the electrostatic plate (564) are fastened together, the clamping block hydraulic cylinder (569) and the condensation box (567) are fastened together, and the clamping block hydraulic cylinder (569) and the heating clamping block (568) are in transmission connection.

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