Setting machine with slurry recovery device

Abstract

The utility model relates to a setting machine with a slurry recovery device, which comprises a setting machine body and a recovery box, the recovery box is communicated with a feeding pipe, the other end of the feeding pipe is communicated with the setting machine body, the interior of the recovery box is rotatably connected with a rotating box, the two side walls of the recovery box are both provided with connecting ports, and the interior of each connecting port is detachably connected with a filter plate. The recycling box is connected with a rotating piece, and the feeding pipe communicates with the rotating box. When impurities adhere to one filter plate, the rotating part drives the rotating box to rotate, so that the filter plate to be detached is arranged at the top of the rotating box, slurry entering the rotating box enters the recycling box through the other filter plate, then the filter plates are convenient to detach, the shutdown time needed when the filter plates are detached is shortened, and the dye liquor filtering efficiency is improved.

Description

Technical Field

[0001] This application relates to the field of stenter technology, and more particularly to a stenter with a slurry recovery device. Background Technology

[0002] Stenter machines are indispensable equipment in the textile industry, widely used in the processing of various fabrics, especially in the production of abrasion-resistant fabrics, where their role is particularly important. By sizing textiles using stenter machines, the abrasion resistance and overall quality of the fabric can be significantly improved, thus meeting the needs of different application scenarios. With the development of the textile industry, stenter technology has continuously advanced, gradually becoming a key piece of equipment for improving production efficiency and product quality.

[0003] Chinese Patent CN204898319U discloses a steam setting machine, comprising a setting machine body, a setting machine inlet frame, a width limiter, a sizing machine, a speed compensation device, a central control panel, a steam circulation box, a width adjustment machine, an exhaust system, and an outlet device. The setting machine inlet frame is fixed to the rear of the setting machine body. The exhaust system is located at the bottom of the setting machine. The central control panel is located on one side of the setting machine body. The sizing machine is located at the top of the body. The central control panel is connected to a microcontroller to control the sizing machine, width limiter, speed compensator, and steam circulation box, all electrically connected. The outlet device is located at the front of the setting machine body. The setting machine body is rectangular. This utility model has a simple structure, reasonable design, is convenient and easy to operate, protects the environment, and reduces waste gas emissions.

[0004] Regarding the aforementioned technologies, when the setting machine is working, a large amount of lint and other impurities will remain in the sizing liquid, affecting the sizing quality of the textile. Usually, the sizing liquid is discharged and filtered through a filter plate to reduce the impurities in the sizing liquid. However, after long-term use, the filter plate is prone to accumulating a large amount of impurities, and cleaning or replacing the filter plate requires stopping the machine, which in turn affects work efficiency. Utility Model Content

[0005] To reduce downtime required when replacing filter plates and improve work efficiency, this application provides a slurry recovery device for a sizing machine.

[0006] The stenter with a slurry recovery device provided in this application adopts the following technical solution:

[0007] A stenter with a slurry recovery device includes a stenter body and a recovery box. The recovery box is connected to a feed pipe, the other end of which is connected to the stenter body. A rotating box is rotatably connected inside the recovery box, the length of which is aligned with the length of the recovery box. Both ends of the rotating box are rotatably connected to the recovery box along its length. Connection ports are provided on both side walls of the recovery box, and filter plates are detachably connected to these connection ports. The periphery of the filter plates is connected to the inner wall of the connection port. A rotating component is connected to the recovery box to drive the rotating box to rotate. One end of the feed pipe is connected to one end of the rotating box along its length.

[0008] By adopting the above technical solution, during use, the slurry enters the rotating box through the feed pipe. The slurry passes through the filter plate, which filters the slurry to reduce impurities. When impurities adhere to one filter plate, the rotating component drives the rotating box to rotate, so that the filter plate to be disassembled is placed on the top of the rotating box. The slurry entering the rotating box passes through another filter plate into the recovery box, which facilitates the disassembly of the filter plate. This reduces the downtime required for disassembling the filter plate and improves the dye liquor filtration efficiency.

[0009] Optionally, a support ring is connected inside the connection port. The support ring is square and its outer wall is connected to the inner wall of the connection port. The filter plate is in contact with the support ring at the end near the rotating box. The filter plate has two rotating holes, the length of which is consistent with the thickness of the filter plate. A rotating rod is connected inside the rotating hole, the length of which is consistent with the thickness of the filter plate. The rotating rod passes through the rotating hole along its length. The support ring has two slots at the end near the filter plate, the depth of which is consistent with the thickness of the filter plate. The rotating rod corresponds to each slot and is embedded in the slot. The rotating rod is connected to a locking component to lock the filter plate inside the connection port.

[0010] By adopting the above technical solution, when installing the filter plate, the filter plate is embedded in the connection port, and one end of the connection plate contacts the support ring. When the filter plate is embedded in the connection port, the rotating rod is embedded in the slot, which facilitates the positioning and installation of the filter plate.

[0011] Optionally, the filter plate has sliding channels at both ends along its length, the length direction of the sliding channels being consistent with the length direction of the filter plate. The sliding channels connect the connection port and the rotating hole. The rotating rod has an installation groove on its periphery, the installation groove communicating with the rotating hole. The length direction of the installation groove is consistent with the radial direction of the rotating rod. The locking assembly includes a first spring and a locking block. The length direction of the first spring is consistent with the length direction of the installation groove. One end of the first spring is connected to the inner wall of the installation groove, and the other end of the first spring is connected to the locking block. The locking block is slidably connected to the installation groove along its length and slidably connected to the sliding channel along its length. The connection port has locking grooves on both ends of its inner wall along its length, the locking grooves corresponding one-to-one with the locking blocks, and the locking blocks are embedded in the locking grooves.

[0012] By adopting the above technical solution, when installing the filter plate, the filter plate is embedded in the connection port, and the rotating rod is embedded in the slot. Under the pressure of the inner wall of the connection port, the locking block is embedded in the sliding channel, and the locking block compresses the first spring and drives the first spring to deform. When the locking block approaches the locking groove, the first spring returns to its shape and pushes the locking block to slide along the length of the sliding channel and connect to the sliding channel. The first spring pushes the locking block to embed into the locking groove, thereby making the filter plate stably connected to the connection port.

[0013] Optionally, the rotating rod is rotatably connected to the rotating hole, and the locking block has a guide surface on one side of the rotating rod. The guide surface is inclined and facilitates the locking block to move away from the locking groove and the sliding channel.

[0014] By adopting the above technical solution, when disassembling the filter plate, rotating the rotating rod causes the locking block to rotate. Guided by the guide surface, the locking block is embedded in the mounting groove and squeezes the first spring, causing the locking block to move away from the locking groove, thus facilitating the removal of the filter plate from the connection port.

[0015] Optionally, a first magnetic block is embedded in the inner wall of the rotating hole, and a second magnetic block is embedded around the rotating rod. When the locking block is embedded in the mounting groove, the first magnetic block and the second magnetic block approach each other and attract each other.

[0016] By adopting the above technical solution, when disassembling the filter plate, the rotating rod rotates and drives the locking block away from the locking groove. When the rotating rod rotates, the first magnetic block and the second magnetic block move closer to each other, so that the rotating rod is stably connected in the rotating hole, and the locking block is stably set in the mounting groove, which facilitates the disassembly of the filter plate.

[0017] Optionally, a cover plate is connected to the end of the rotating rod along its length away from the support ring. A connecting groove is opened at the end of the filter plate near the cover plate. The connecting groove communicates with the rotating hole. The cover plate is embedded in the connecting groove. A sealing layer is connected to the inner wall of the connecting groove. The sealing layer is in contact with the cover plate.

[0018] By adopting the above technical solution, a cover plate and a sealing layer are provided to reduce the amount of slurry entering the recovery box through the rotating hole, thereby reducing impurities in the recovery box.

[0019] Optionally, a handle is attached to the end of the cover plate away from the rotating rod.

[0020] By adopting the above technical solution, a handle is added to facilitate the operator in rotating the cover plate and the rotating rod.

[0021] Optionally, a baffle is connected inside the rotating box, the length direction of the baffle is consistent with the length direction of the rotating box, and the periphery of the baffle is connected to the inner wall of the recycling box. The recycling box is provided with a first cavity and a second cavity, which are separated by the baffle. One of the connection ports is connected to the first cavity, and the other connection port is connected to the second cavity. There are two feed pipes, which are respectively connected to the first cavity and the second cavity.

[0022] By adopting the above technical solution, when the filter plate in the first cavity is located below the rotating box, the feed pipe connected to the first cavity inputs slurry into the first cavity. The slurry enters the recovery box through the filter plate. When the filter plate is replaced, the rotating box rotates, and the impurities adhering to the surface of the filter plate fall off the baffle due to gravity, thereby reducing the situation where impurities cause pollution to the other filter plate.

[0023] In summary, this application includes at least one of the following beneficial technical effects:

[0024] 1. During use, the slurry enters the rotating box through the feed pipe. The slurry passes through the filter plate, which filters the slurry to reduce impurities. When impurities adhere to one filter plate, the rotating component drives the rotating box to rotate, so that the filter plate to be removed is placed on the top of the rotating box. The slurry entering the rotating box passes through another filter plate into the recovery box, which facilitates the removal of the filter plate. This reduces the downtime required when removing the filter plate and improves the dye liquor filtration efficiency.

[0025] 2. When installing the filter plate, the filter plate is embedded into the connection port, and the rotating rod is embedded into the slot. Under the pressure of the inner wall of the connection port, the locking block is embedded in the sliding channel. The locking block compresses the first spring and drives the first spring to deform. When the locking block approaches the locking groove, the first spring returns to its shape and pushes the locking block to slide along the length of the sliding channel and connect to the sliding channel. The first spring pushes the locking block to embed into the locking groove, thereby making the filter plate stably connected to the connection port.

[0026] 3. When disassembling the filter plate, rotate the rotating rod. The rotating rod drives the locking block to rotate. Guided by the guide surface, the locking block is embedded in the mounting groove and squeezes the first spring. The locking block moves away from the locking groove, which makes it easier to remove the filter plate from the connection port. Attached Figure Description

[0027] Figure 1 This is a three-dimensional structural diagram of this embodiment.

[0028] Figure 2 This is a top view of this embodiment.

[0029] Figure 3 This is the embodiment. Figure 2 Sectional view along the AA direction.

[0030] Figure 4 This is the embodiment. Figure 3 Enlarged view of section C.

[0031] Figure 5 This is the front view of this embodiment.

[0032] Figure 6 This is the embodiment. Figure 5 Sectional view along the BB direction.

[0033] Explanation of reference numerals in the attached drawings: 100, Stenter body; 110, Connecting pipe; 120, Feeding pipe; 130, Three-way valve; 200, Recycling box; 210, First motor; 220, Disc; 230, Drain pipe; 300, Rotating box; 310, Connecting port; 311, Locking groove; 320, Baffle; 330, First cavity; 340, Second cavity; 350, Feeding pipe; 360, Support ring; 361, Slot; 400, Filter plate; 410, Rotating hole; 411, First magnet; 420, Sliding channel; 430, Connecting groove; 500, Rotating rod; 510, Mounting groove; 520, Cover plate; 530, Handle; 540, Second magnet; 600, Locking assembly; 610, First spring; 620, Locking block. Detailed Implementation

[0034] The following is in conjunction with the appendix Figure 1-6 This application will be described in further detail.

[0035] This application discloses a sizing machine with a slurry recovery device. (Refer to...) Figure 1 and Figure 2 A stenter with a slurry recovery device includes a stenter body 100 and a recovery box 200, with an opening at the top of the recovery box 200. A drain pipe 230 is connected to the bottom of the recovery box 200, and the drain pipe 230 is used to guide the slurry in the recovery box 200 into the next processing step.

[0036] Reference Figure 1 and Figure 3 A rotating box 300 is rotatably connected inside the recycling box 200. The length of the rotating box 300 is aligned with that of the recycling box 200. A rotating component is connected to the recycling box 200 to drive the rotating box 300 to rotate. One end of the rotating box 300 is connected to a connection port 310 on each of the two side walls of the recycling box 200 along its thickness direction. The length of the connection port 310 is aligned with that of the rotating box 300. A filter plate 400 is detachably connected inside the connection port 310. The length of the filter plate 400 is aligned with that of the rotating box 300, and all sides of the filter plate 400 are connected to the inner wall of the connection port 310. When replacing the filter plate 400, the rotating box 300 is rotated, so that the filter plate 400 to be removed is positioned on top of the rotating box 300, allowing the slurry to pass through the other filter plate 400 and enter the recycling box 200 for collection. This reduces downtime required when replacing the filter plate 400 and improves work efficiency.

[0037] Reference Figure 1 and Figure 3 The rotating component is a first motor 210, which is connected to one end of the recycling bin 200 along its length. The output shaft of the first motor 210 is connected to one end of the rotating bin 300 along its length. A baffle 320 is connected inside the rotating bin 300. The length and width of the baffle 320 are the same as those of the rotating bin 300, and the baffle 320 is connected to the inner wall of the recycling bin 200 on all sides. The baffle 320 is located between two filter plates 400. The recycling bin 200 has a first cavity 330 and a second cavity 340, which are separated by the baffle 320. One of the connection ports 310 communicates with the first cavity 330, and the other filter plate 400 communicates with the second cavity 340. A baffle 320 is added to reduce the occurrence of impurities on one filter plate 400 falling onto the surface of another filter plate 400, thereby reducing the contamination of the filter plate 400 by impurities.

[0038] Reference Figure 3The recycling bin 200 is rotatably connected to a disc 220 at its length, away from the first motor 210. Two feed pipes 350 are provided, with their lengths aligned with the recycling bin 200. The two feed pipes 350 are respectively connected to the first cavity 330 and the second cavity 340. The end of the feed pipe 350 away from the rotating box 300 passes through the disc 220 along its length.

[0039] Reference Figure 1 and Figure 3 The stenter body 100 is connected to a connecting pipe 110. A conveying pipe 120 is connected to the end of the connecting pipe 110 furthest from the stenter body 100. The conveying pipe 120 is rotatably sleeved on the connecting pipe 110. The end of the conveying pipe 120 furthest from the connecting pipe 110 is connected to two feeding pipes 350. The end of the feeding pipes 350 furthest from the rotating box 300 is connected to the conveying pipe 120. A three-way valve 130 is connected at the connection point between the conveying pipe 120 and the feeding pipes 350. The three-way valve 130 is used to control the connection between the conveying pipe 120 and one feeding pipe 350 or to control the connection between the conveying pipe 120 and the other feeding pipe 350.

[0040] Reference Figure 3 and Figure 4 The filter plate 400 is slidably connected to the connection port 310 along the thickness direction of the rotating box 300, and a support ring 360 is connected inside the connection port 310. The support ring 360 is square in shape, and its outer wall is connected to the inner wall of the connection port 310. The end of the filter plate 400 near the baffle 320 contacts the support ring 360. The connecting plate is provided with a locking component 600, which is used to lock the filter plate 400 inside the connection port 310. Two rotating holes 410 are opened at the end of the filter plate 400 away from the baffle 320. The two rotating holes 410 are respectively located at both ends of the filter plate 400 along the length direction of the filter plate 400, and the length direction of the rotating holes 410 is consistent with the thickness direction of the rotating box 300. A sliding channel 420 is provided on the inner wall of the rotating hole 410 at one end away from the other rotating hole 410 along the length direction of the filter plate 400. The length direction of the sliding channel 420 is consistent with the length direction of the filter plate 400, and the sliding channel 420 connects the connection port 310 and the rotating hole 410.

[0041] Reference Figure 3 and Figure 4A rotating rod 500 is rotatably connected within the rotating hole 410. The length of the rotating rod 500 is aligned with the thickness direction of the filter plate 400, and the rotating rod 500 passes through the rotating hole 410 along its length. Two slots 361 are formed at one end of the support ring 360 near the filter plate 400. The two slots 361 are respectively located at both ends of the support ring 360 along the length direction of the filter plate 400, and the depth direction of the slots 361 is aligned with the thickness direction of the filter plate 400. Each slot 361 corresponds to a rotating rod 500, with one end of the rotating rod 500 embedded in the slot 361 along its length, and the rotating rod 500 is rotatably connected to the slot 361.

[0042] Reference Figure 4 and Figure 5 The locking assembly 600 is connected within the rotating rod 500. A mounting groove 510 is formed on the circumference of the rotating rod 500, with its length aligned radially with the rotating rod 500. The mounting groove 510 communicates with the rotating hole 410. The locking assembly 600 includes a first spring 610 and a locking block 620 connected within the mounting groove 510. The length of the first spring 610 is aligned with the length of the mounting groove 510. One end of the first spring 610 is connected to the inner wall of the mounting groove 510, and the other end is connected to the locking block 620. The locking block 620 is slidably connected to the mounting groove 510 along its length and is also slidably connected to the sliding channel 420 along the length of the filter plate 400.

[0043] Reference Figure 4 and Figure 6 The connector 310 has locking grooves 311 on both inner walls along the length of the filter plate 400. The depth of the locking grooves 311 is consistent with the length of the filter plate 400. Each locking groove 311 corresponds to a locking block 620, and the locking block 620 is embedded in the locking groove 311. The locking block 620 has a guide surface on one side of the rotating rod 500, located at the end of the locking block 620 away from the first spring 610, and the guide surface is inclined. In use, the locking block 620 is embedded in the locking groove 311, thereby making the filter plate 400 stably connected to the connector 310. When disassembling the filter plate 400, rotating the rotating rod 500 causes the locking block 620 to move away from the locking groove 311, thereby facilitating the disassembly of the filter plate 400.

[0044] Reference Figure 4 and Figure 6A connecting groove 430 is formed along the length of the rotating hole 410 at the end away from the support ring 360. The connecting groove 430 is an annular groove, and its circumference is consistent with that of the rotating rod 500. The connecting groove 430 is open along the thickness direction of the filter plate 400 at the end away from the support ring 360. A cover plate 520 is connected to the end of the rotating rod 500 along its length away from the support ring 360. The cover plate 520 is a circular plate, and its central axis is collinear with that of the rotating rod 500. The end of the cover plate 520 near the rotating rod 500 is embedded in the connecting groove 430, and the cover plate 520 is rotatably connected to the connecting groove 430. A sealing layer made of rubber is connected to the inner wall of the connecting groove 430, and the sealing layer is in contact with the cover plate 520 (not shown in the figure). A handle 530 is connected to the end of the cover plate 520 away from the rotating rod 500. A first magnetic block 411 is embedded in the inner wall of the rotating hole 410, and a second magnetic block 540 is embedded around the rotating rod 500. When the locking block 620 is embedded in the mounting groove 510, the first magnetic block 411 and the second magnetic block 540 approach each other and attract each other.

[0045] The implementation principle of a slurry recovery device in this application embodiment of a stenter is as follows: When replacing the filter plate 400, the first motor 210 drives the rotating box 300 to rotate, so that the filter plate 400 to be disassembled is placed at the top of the rotating box 300, and the other filter plate 400 is placed at the bottom of the rotating box 300, so that the slurry enters the recovery box 200 through the other filter plate 400, thereby reducing the downtime required when replacing the filter plate 400 and improving work efficiency. When disassembling the filter plate 400, the rotating rod 500 is rotated, thereby driving the locking block 620 to embed into the mounting groove 510, and causing the locking block 620 to compress the first spring 610 and move the locking block 620 away from the locking groove 311, thereby facilitating the removal of the filter plate 400 from the connection port 310, and thus facilitating the replacement and cleaning of the filter plate 400.

[0046] The above are all preferred embodiments of this application, and are not intended to limit the scope of protection of this application. Therefore, all equivalent changes made in accordance with the structure, shape and principle of this application should be covered within the scope of protection of this application.

Claims

1. A setting machine with slurry recovery device, comprising a setting machine body (100), a recovery tank (200), the recovery tank (200) is communicated with a feeding pipe (350), the other end of the feeding pipe (350) is communicated with the setting machine body (100), characterized in that: The rotating box (300) is rotatably connected in the recycling box (200), the length direction of the rotating box (300) is consistent with the length direction of the recycling box (200), both ends of the rotating box (300) are rotatably connected in the recycling box (200) along the length direction, both sides of the recycling box (200) are provided with the connecting port (310), the filter plate (400) is detachably connected in the connecting port (310), the filter plate (400) is connected with the inner wall of the connecting port (310), the recycling box (200) is connected with the rotating part, the rotating part is used for driving the rotating box (300) to rotate, one end of the feeding pipe (350) is communicated with one end of the rotating box (300) along the length direction of the rotating box (300).

2. A machine as claimed in claim 1, characterized in that: The supporting ring (360) is connected in the connecting port (310), the supporting ring (360) is a square ring, the outer wall of the supporting ring (360) is connected with the inner wall of the connecting port (310), one end of the filter plate (400) close to the rotating box (300) is in contact with the supporting ring (360), the filter plate (400) is provided with two rotating holes (410), the length direction of the rotating hole (410) is consistent with the thickness direction of the filter plate (400), the rotating rod (500) is connected in the rotating hole (410), the length direction of the rotating rod (500) is consistent with the thickness direction of the filter plate (400), the rotating rod (500) passes through the rotating hole (410) along the length direction, the supporting ring (360) is provided with two insertion grooves (361) close to one end of the filter plate (400), the depth direction of the insertion groove (361) is consistent with the thickness direction of the filter plate (400), the rotating rod (500) corresponds to the insertion groove (361), the rotating rod (500) is embedded in the insertion groove (361), the rotating rod (500) is connected with the locking assembly (600), the locking assembly (600) is used for locking the filter plate (400) in the connecting port (310).

3. A machine as claimed in claim 2, characterized in that: The filter plate (400) is provided with a sliding channel (420) at both ends along the length direction, the length direction of the sliding channel (420) is consistent with the length direction of the filter plate (400), the sliding channel (420) is connected with the rotating hole (410), the rotating rod (500) is provided with a mounting groove (510) on the circumferential side, the mounting groove (510) is connected with the rotating hole (410), the length direction of the mounting groove (510) is consistent with the radial direction of the rotating rod (500), the locking assembly (600) comprises a first spring (610) and a locking block (620), the length direction of the first spring (610) is consistent with the length direction of the mounting groove (510), one end of the first spring (610) is connected to the inner wall of the mounting groove (510), the other end of the first spring (610) is connected to the locking block (620), the locking block (620) is slidably connected to the mounting groove (510) along the length direction of the mounting groove (510), the locking block (620) is slidably connected to the sliding channel (420) along the length direction of the filter plate (400), the connecting port (310) is provided with a locking groove (311) on the inner wall at both ends along the length direction of the filter plate (400), the locking groove (311) corresponds to the locking block (620) one by one, and the locking block (620) is embedded in the locking groove (311).

4. A machine as claimed in claim 3, characterized in that: The rotating rod (500) is rotatably connected in the rotating hole (410), the locking block (620) is provided with a guide surface on one side along the circumferential direction of the rotating rod (500), the guide surface is inclinedly arranged, and the guide surface facilitates the locking block (620) to move away from the locking groove (311) and the sliding channel (420).

5. A machine as claimed in claim 4, characterized in that: The inner wall of the rotating hole (410) is embedded with a first magnetic block (411), and the circumferential side of the rotating rod (500) is embedded with a second magnetic block (540), when the locking block (620) is embedded in the mounting groove (510), the first magnetic block (411) and the second magnetic block (540) are close to each other and attract each other.

6. A machine as claimed in claim 4, characterized in that: The rotating rod (500) is connected with a cover plate (520) at one end away from the supporting ring (360) along the length direction, the filter plate (400) is provided with a connecting groove (430) at one end close to the cover plate (520), the connecting groove (430) is connected with the rotating hole (410), the cover plate (520) is embedded in the connecting groove (430), and the connecting groove (430) is connected with a sealing layer on the inner wall, and the sealing layer is in contact with the cover plate (520).

7. A machine as claimed in claim 6, characterized in that: The cover plate (520) is connected with a handle (530) at one end away from the rotating rod (500).

8. A machine as claimed in claim 1, characterized in that: The rotating box (300) is connected with a baffle (320), the length direction of the baffle (320) is consistent with the length direction of the rotating box (300), the peripheral side of the baffle (320) is connected with the inner wall of the recycling box (200), the recycling box (200) is provided with a first cavity (330) and a second cavity (340), the first cavity (330) and the second cavity (340) are separated by the baffle (320), one connecting port (310) is communicated with the first cavity (330), and the other connecting port (310) is communicated with the second cavity (340), the feeding pipe (350) is provided with two, and the two feeding pipes (350) are respectively communicated with the first cavity (330) and the second cavity (340).

Images