Discharging detection mechanism for communication interface

Abstract

The utility model relates to the technical field of communication interface discharge detection mechanisms, and discloses a discharge detection mechanism for a communication interface, which comprises a detector, an upper detection head and a lower detection head, the upper detection head is fixedly arranged on a feeding shell, the upper detection head irradiates along an upper detection opening, and the lower detection head irradiates along a lower detection opening. The lower detection head is fixedly arranged on the feeding shell, and the lower detection head irradiates along the lower detection opening; the pressing assembly comprises an opening, an upper pressing block and a lower ejecting block, the opening is formed in the feeding shell and communicated with the feeding shell, the upper pressing block is arranged at the upper end of the opening in a reciprocating motion mode along the opening, and the lower ejecting block is arranged at the lower end of the opening in a reciprocating motion mode along the opening.

Description

Technical Field

[0001] This utility model relates to the field of communication interface technology, specifically to a material discharge detection mechanism for a communication interface. Background Technology

[0002] Currently, the testing of communication interfaces is mainly used to ensure quality control and process optimization during the production of communication interfaces.

[0003] The traditional structures used for inspecting the output of communication interface tapes have several problems: In the inspection process, most equipment focuses only on one direction, such as inspecting the top of the tape, making it difficult to control tape quality and easily overlooking minor defects on other sides. During positioning, while traditional stops or single-sided clamps provide some positioning, their ability to handle complex working conditions is limited, and the lateral constraint is singular, making them susceptible to external forces, and the longitudinal stability and flatness of the tape are difficult to achieve ideal results. In correction, manual labor or simple mechanical levers are generally used, resulting in low efficiency and accuracy, and failing to quickly and accurately correct deviations. In the cutting stage, the combination of conventional cutters and fixed anvils lacks precise power control and accurate positioning guidance, causing deviations in the edge neatness and dimensional accuracy of the cut tape, thus affecting the quality and efficiency of communication interface production.

[0004] Therefore, there is an urgent need for a material discharge detection mechanism for communication interfaces to solve the above problems. Utility Model Content

[0005] Based on the above, the purpose of this utility model is to provide a material output detection mechanism for a communication interface, so as to solve the problems that the equipment only focuses on detection in one direction, the material strip positioning constraint is singular, the correction efficiency is relatively low, and the cutting accuracy is low.

[0006] To solve the above-mentioned technical problems, this utility model adopts the following technical solution: a material discharge detection mechanism for a communication interface, comprising:

[0007] A feeding housing, which is a hollow structure, is used to convey a material belt;

[0008] An upper detection port is provided on the upper end face of the feeding housing, and the upper detection port is in communication with the feeding housing;

[0009] A lower detection port is provided on the lower end face of the feeding housing, and the lower detection port is in communication with the feeding housing;

[0010] The detector includes an upper detection head and a lower detection head. The upper detection head is fixed on the feeding housing and irradiates along the upper detection port. The lower detection head is fixed on the feeding housing and irradiates along the lower detection port.

[0011] A clamping assembly includes an opening, an upper pressing block, and a lower top block. The opening is disposed on the feeding housing and communicates with the feeding housing. The upper pressing block is disposed at the upper end of the opening and reciprocates along the opening. The lower top block is disposed at the lower end of the opening and reciprocates along the opening.

[0012] The bidirectional motion correction needle positions itself by reciprocating along the positioning hole of the feeding housing.

[0013] The cutting blade reciprocates along the cutting edge of the feeding housing to cut.

[0014] As a preferred embodiment of a material discharge detection mechanism for a communication interface, it further includes a bidirectional drive component disposed on the feeding housing, the bidirectional drive component being used to drive the correction needle to move bidirectionally.

[0015] As a preferred embodiment of a material discharge detection mechanism for a communication interface, the bidirectional drive assembly includes a moving block and a mounting base. The moving block reciprocates along a positioning hole in the feeding housing in a first direction, and the mounting base is disposed on the moving block. The mounting base reciprocates along a positioning hole in the feeding housing in a second direction.

[0016] As a preferred embodiment of a material discharge detection mechanism for a communication interface, it further includes a power component disposed on the feeding housing, the power component being used to drive the cutting blade to perform cutting motion.

[0017] As a preferred embodiment of a material discharge detection mechanism for a communication interface, the power assembly includes a power source, a guide column, a drive block, and a limiting block. The power source is fixedly disposed on the top of the feeding housing, the drive block is disposed on the power end of the power source, the guide column is fixedly disposed on the drive block, and the upper end of the guide column reciprocates along the power source with the drive block. One end of the limiting block is the extreme position of the drive block's movement, and the other end of the limiting block is fixedly disposed on the cutting opening.

[0018] As a preferred embodiment of a material discharge detection mechanism for a communication interface, it further includes a traction component disposed on the feeding housing, the traction component being used to traction the material belt.

[0019] As a preferred embodiment of a material discharge detection mechanism for a communication interface, the traction assembly includes a slot, a rotating wheel, and a mating block. The slot is disposed on the feeding housing, the rotating wheel is movably connected to the side of the feeding housing, and the rotating wheel is screwed into the slot. The mating block is circumferentially disposed on the circumferential edge of the rotating wheel and is used to engage with various mating holes on the conveyor belt.

[0020] As a preferred embodiment of a material discharge detection mechanism for a communication interface, it further includes a height adjustment component disposed at the bottom of the feeding housing, the height adjustment component being used to adjust the height of the rotary wheel.

[0021] As a preferred embodiment of a material discharge detection mechanism for a communication interface, the height adjustment component includes a first chute, a horizontal movable plate, a second chute, a swing arm, and a vertical movable plate. The horizontal movable plate is horizontally disposed at the bottom of the feeding housing, and the vertical movable plate is vertically disposed on the bottom surface of the rotating wheel. The first chute is disposed at one end of the horizontal movable plate, and the axis of the first chute is parallel to the horizontal movable plate. The two ends of the first chute have a height difference. The positioning end of the vertical movable plate is rotatably connected to the first chute. The second chute is disposed at the other end of the horizontal movable plate, and the axis of the second chute is perpendicular to the horizontal movable plate. One side of the swing arm is rotatably disposed at the bottom of the feeding housing, and the other side of the swing arm is rotatably connected to the second chute.

[0022] As a preferred embodiment of a material discharge detection mechanism for a communication interface, it further includes a frame and a support rod. The frame is vertically disposed at the feeding port of the feeding housing, and the support rod is disposed on the frame in a reciprocating motion along the direction perpendicular to the material strip.

[0023] The beneficial effects of this invention are as follows: The hollow channel inside the feeding housing stably conveys the material belt. The upper and lower detection ports, connected to the feeding housing, allow the upper and lower detection heads, respectively fixed to the upper and lower end faces of the feeding housing, to accurately inspect the material belt along the detection ports, thereby determining the quality and position of the material belt during conveying. Simultaneously, the upper and lower pressure blocks of the clamping assembly, along with the openings connected to the feeding housing, properly fix and regulate the material belt, preventing deviation or shaking during inspection and subsequent processing. A bidirectional motion correction needle reciprocates along the positioning holes of the feeding housing, adjusting the lateral position deviation of the material belt in real time to ensure it remains on the precise processing path. The cutting blade reciprocates along the cutting edge of the feeding housing, precisely cutting any substandard material belt according to set dimensions or processing requirements. This efficiently and effectively completes the output inspection and processing of the communication interface material belt, significantly improving the automation level and product qualification rate of the entire production process. Attached Figure Description

[0024] Figure 1 A schematic diagram of the overall structure of a material discharge detection mechanism for a communication interface provided by this utility model in the first direction;

[0025] Figure 2 for Figure 1 Enlarged view of the bidirectional drive component;

[0026] Figure 3 A schematic diagram of the overall structure of the second direction in a material discharge detection mechanism for a communication interface provided by this utility model;

[0027] Figure 4 A schematic diagram of the overall structure of a third-party component in a material discharge detection mechanism for a communication interface provided by this utility model;

[0028] Figure 5 for Figure 4 Enlarged cross-sectional view of the intermediate clamping assembly;

[0029] Figure 6 An enlarged cross-sectional view of the power component in a material discharge detection mechanism for a communication interface provided by this utility model;

[0030] Figure 7 A first state diagram of the swing arm of the height adjustment component in a material discharge detection mechanism for a communication interface provided by this utility model;

[0031] Figure 8 A second state diagram of the swing arm of the height adjustment component in a discharge detection mechanism for a communication interface provided by this utility model;

[0032] Figure 9 An exploded view of the traction component and the height adjustment component in a material discharge detection mechanism for a communication interface provided by this utility model.

[0033] In the figure, the following reference numerals are used: 1. Feeding housing; 2. Upper detection port; 3. Lower detection port; 4. Detector; 401. Upper detection head; 402. Lower detection head; 5. Clamping assembly; 501. Opening; 502. Upper pressure block; 503. Lower top block; 504. Stand; 505. Stop block; 506. Slide rail; 507. Upper drive assembly; a1. Upper driver; b1. Upper slider; 508. Lower drive assembly; a2. Lower driver; b2. Lower slider; c2. Slide opening; 509. Spacing; 510. Positioning pin body; 511. Elastic element; 6. Bidirectional motion correction pin; 7. Positioning hole; 8. Bidirectional drive assembly; 801. Moving block; 802. Mounting base; 803. First direction driver; 804. First track; 805. Second direction driver; 806. Second track; 9. Cutting blade; 10. Cutting opening; 11. Power assembly; 1101. Power source; 1102. Guide column; 1103. Drive block; 1104. Limiting block; 1105. Exit; 1106. Fixing plate; 1107. Gap; 12. Frame; 13. Support rod; 1301. Third slide groove; 1302. Rod body; 1304. Baffle; 1305. Fastening pin; 14. Traction Components; 1401, slot; 1402, rotating wheel; 1403, mating block; 15, height adjustment component; 1501, first slide rail; 1502, horizontal movable plate; 1503, second slide rail; 1504, swing arm; 1505, vertical movable plate; 1506, support frame; 1507, first rotating shaft; 1508, second rotating shaft; 1509, positioning frame; 1510, fourth slide rail. Detailed Implementation

[0034] The present invention will now be described in further detail with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely illustrative of the present invention and not intended to limit it. Furthermore, it should be noted that, for ease of description, the accompanying drawings show only the parts relevant to the present invention, not the entire structure.

[0035] In the description of this utility model, unless otherwise explicitly specified and limited, the terms "connected," "linked," and "fixed" should be interpreted broadly. For example, they can refer to a fixed connection, a detachable connection, or an integral part; they can refer to a mechanical connection or an electrical connection; they can refer to a direct connection or an indirect connection through an intermediate medium; they can refer to the internal communication of two components or the interaction between two components. Those skilled in the art can understand the specific meaning of the above terms in this utility model based on the specific circumstances.

[0036] In this invention, unless otherwise explicitly specified and limited, "above" or "below" the second feature can include direct contact between the first and second features, or contact between the first and second features through another feature between them. Furthermore, "above," "over," and "on top" of the second feature includes the first feature directly above or diagonally above the second feature, or simply indicates that the first feature is at a higher horizontal level than the second feature. "Below," "below," and "under" the second feature includes the first feature directly below or diagonally below the second feature, or simply indicates that the first feature is at a lower horizontal level than the second feature.

[0037] In the description of this embodiment, terms such as "upper," "lower," "left," and "right" are based on the orientation or positional relationship shown in the accompanying drawings. They are used only for the convenience of description and simplification of operation, and are not intended to indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on this utility model.

[0038] In the description of this utility model, unless otherwise stated, "a plurality of" means two or more. Furthermore, the terms "first" and "second" are used merely for descriptive distinction and have no specific meaning.

[0039] In one embodiment of this utility model, such as Figure 1-9 As shown, a material discharge detection mechanism for a communication interface is provided, including: a feeding housing 1, an upper detection port 2, a lower detection port 3, a detector 4, a clamping assembly 5, a bidirectional motion correction needle 6, and a cutting blade 9. The feeding housing 1 is a hollow structure used for conveying a material belt; the upper detection port 2 is located on the upper end face of the feeding housing 1 and is in communication with the feeding housing 1; the lower detection port 3 is located on the lower end face of the feeding housing 1 and is in communication with the feeding housing 1; the detector 4 includes an upper detection head 401 and a lower detection head 402. The upper detection head 401 is fixed to the feeding housing 1 and irradiates along the upper detection port 2; the lower detection head 402 is fixed to the feeding housing 1 and irradiates along the lower detection port 3. Irradiation is performed; the pressing assembly 5 includes an opening 501, an upper pressing block 502 and a lower top block 503. The opening 501 is disposed on the feeding housing 1 and is connected to the feeding housing 1. The upper pressing block 502 is disposed at the upper end of the opening 501 in a reciprocating motion along the opening 501, and the lower top block 503 is disposed at the lower end of the opening 501 in a reciprocating motion along the opening 501; the bidirectional motion correction needle 6 is positioned in a bidirectional reciprocating motion along the positioning hole 7 of the feeding housing 1; the cutting blade 9 is used for reciprocating cutting along the cutting opening 10 of the feeding housing 1.

[0040] The material discharge detection mechanism for the communication interface provided in this embodiment stably conveys the material belt through the hollow channel inside the feeding housing 1. Utilizing the conductive structure between the upper detection port 2 and the lower detection port 3 and the feeding housing 1, the upper detection head 401 and the lower detection head 402, respectively fixed to the upper and lower end faces of the feeding housing 1, can accurately irradiate and detect the material belt along the detection ports, thereby determining the quality and position information of the material belt during the conveying process. Simultaneously, the upper pressure block 502, the lower top block 503 of the clamping assembly 5, and the opening 501 communicating with the feeding housing 1, appropriately fix and regulate the material belt, preventing it from shifting or shaking during detection and subsequent processing. The bidirectional motion correction needle 6 reciprocates bidirectionally along the positioning hole 7 of the feeding housing 1, which can adjust the lateral position deviation of the material belt in real time, ensuring that the material belt is always on the precise processing path. The cutting blade 9 reciprocates along the cutting opening 10 of the feeding housing 1, and can accurately cut the unqualified material strip according to the set size or processing requirements, thereby efficiently and with high quality completing the output detection and processing process of the communication interface material strip, effectively improving the automation level and product qualification rate of the entire production process.

[0041] Furthermore, the upper detection head 401 irradiates along the upper detection port 2, and the lower detection head 402 irradiates along the lower detection port 3. The upper detection head 401 emits light of a specific wavelength and intensity that penetrates the upper surface of the material strip, working in conjunction with the lower detection head 402 irradiating from below the material strip to form a double-sided detection optical path for the material strip. This path detects whether there are surface defects, scratches, stains, or issues with the integrity and clarity of printed markings on the top and bottom surfaces of the material strip. Once an abnormality is detected, an alarm is immediately triggered and the location of the problem is pinpointed for subsequent targeted processing or adjustments, effectively ensuring the quality stability of the material strip and the consistency of the products during the production of the communication interface.

[0042] Preferably, the bottom of the feeding housing 1 is provided with a support rod for supporting the upper detection head 401 and the lower detection head 402. The support rod stably supports the detection head components, ensuring that they will not be displaced or shaken due to vibrations or other external forces during the detection process. This ensures that the detection light can always accurately irradiate the material strip along the upper detection port 2 and the lower detection port 3, maintaining a high degree of consistency in detection accuracy.

[0043] Preferably, the upright can also be positioned at the bottom of the feeding housing 1 to adjust the height of the feeding housing 1, ensuring that the material strip in each position of each feeding housing 1 is relatively flat, effectively reducing detection errors and misjudgments caused by unstable material strip conditions, and greatly improving the accuracy and efficiency of the entire discharge detection process.

[0044] Preferably, the bottom of the feeding housing 1 is provided with a support frame 504 for supporting the upper pressure block 502 and the lower top block 503. The support frame 504 is equipped with a stop block 505, a slide rail 506, an upper drive assembly 507 for driving the upper pressure block 502 and a lower drive assembly 508 for driving the lower top block 503. The stop block 505 is installed in the middle of the support frame 504, the slide rail 506 is installed on one side of the support frame 504, and the upper drive assembly 507 and the lower drive assembly 508 are both installed on the other side of the support frame 504. The upper drive assembly 507 is installed at the upper end of the support frame 504, the lower drive assembly 508 is installed at the lower end of the support frame 504, the upper pressure block 502 is installed at the upper end of the slide rail 506, and the lower top block 503 is installed at the lower end of the slide rail 506.

[0045] The orderly integration and layout of the components by the upright frame 504 achieves precise driving and stable support for the upper pressure block 502 and the lower top block 503. The stop block 505 serves as an intermediate positioning reference, ensuring the accuracy of the relative position of the upper pressure block 502 and the lower top block 503 during movement, preventing excessive compression or misalignment. The slide rail 506 provides smooth and stable guidance for the up-and-down sliding of the upper pressure block 502 and the lower top block 503, enabling them to apply appropriate pressure to the material belt precisely along a predetermined trajectory under the action of the driving components. This ensures the stability and regularity of the material belt during detection and conveying, thereby improving the overall operational reliability and detection accuracy of the discharge detection mechanism.

[0046] The upper drive assembly 507 includes an upper driver a1 and an upper slider b1. The upper driver a1 is fixed to the upper end of the stand 504, and the drive end of the upper driver a1 is connected to the upper slider b1. The upper slider b1 is connected to the upper pressure block 502 and the upper slider b1. The lower drive assembly 508 includes a lower driver a2, a lower slider b2, and a sliding opening c2. The lower driver a2 is fixed to the lower end of the stand 504, and the sliding opening c2 is located at the lower end of the stand 504. The drive end of the lower driver a2 is connected to the lower slider b2. There is a gap 509 between the stop block 505 and the stand 504. The upper end of the lower slider b2 reciprocates through the gap 509 and is confined to the stop plate as the drive end of the lower driver a2 reciprocates. The left end of the lower slider b2 passes through the sliding opening c2 and is connected to the lower top block 503.

[0047] The upper pressure block 502 and the lower top block 503 provided in this embodiment are used as follows: drive the upper driver a1, the upper driver a1 drives the upper slider b1, the upper slider b1 drives the upper pressure block 502 to move up and down along the slide rail 506, drive the lower driver a2, the lower driver a2 drives the lower slider b2, the lower slider b2 drives the lower top block 503 to move up and down along the slide rail 506, wherein the lower slider b2 reciprocates through the interval 509 and is confined to the baffle as the driving end of the lower driver a2 moves back and forth.

[0048] Preferably, a positioning pin 510 can be installed on the upper pressure block 502. When the positioning pin 510 moves up and down with the upper pressure block 502, it connects with the mating hole of the material strip. The positioning pin 510 effectively prevents the material strip from shifting or shaking laterally or longitudinally during subsequent processing, ensuring that the material strip can always accept various processing steps with a precise and stable posture.

[0049] Preferably, an elastic element 511 can be installed between the lower slider b2 and the lower top block 503. One end of the elastic element 511 abuts against the lower slider b2, and the other end abuts against the lower top block 503. When the lower top block 503 moves up and down, the elastic element 511 can buffer and dampen the shock, effectively absorbing the impact force generated during the movement of the lower top block 503. This prevents damage to the material strip or deformation of components due to hard collisions between the lower top block 503 and the material strip or other components, thereby ensuring the integrity of the material strip and the stability of the equipment, and further improving the reliability and processing accuracy of the entire discharge detection mechanism.

[0050] The material discharge detection mechanism used in this communication interface also includes a bidirectional drive assembly 8, which is disposed on the feeding housing 1. The bidirectional drive assembly 8 is used to drive the alignment needle to move in both directions. The bidirectional drive assembly 8 includes a moving block 801 and a mounting base 802. The moving block 801 reciprocates along the positioning hole 7 of the feeding housing 1 in a first direction. The mounting base 802 is disposed on the moving block 801 and reciprocates along the positioning hole 7 of the feeding housing 1 in a second direction.

[0051] The first direction drive assembly further includes a first direction driver 803 and a first track 804; the second direction drive assembly further includes a second direction driver 805 and a second track 806. In this embodiment, both the first direction driver 803 and the second direction driver 805 are cylinders. Of course, in other embodiments, a slide or other mechanism may be used.

[0052] The first directional actuator 803 and the first track 804 are both positioned on the feeding housing 1. The driving end of the first directional actuator 803 is connected to the moving block 801, and the moving block 801 slides along the first track 804. The second directional actuator 805 and the second track 806 are positioned on the moving block 801. The driving end of the second directional actuator 805 is connected to the mounting base 802, and the mounting base 802 slides along the second track 806.

[0053] Through the coordinated operation of the components in the bidirectional drive assembly 8, extremely precise and flexible bidirectional control of the alignment needle is achieved. The first direction driver 803, based on preset instructions, pushes the moving block 801 along the first track 804 in a stable reciprocating motion in the first direction, thereby causing the mounting base 802 and its alignment needle to adjust their position in one horizontal or vertical dimension, initially correcting any potential deviation of the material strip. When fine alignment is required in another dimension, the second direction driver 805 is activated, driving the mounting base 802 to slide reciprocally along the second track 806 on the moving block 801 in the second direction. This allows the alignment needle to achieve precise fine-tuning and positioning in two mutually perpendicular directions, quickly and effectively controlling the deviation of the material strip within a minimal range. This ensures the material strip always travels along a precise discharge path, greatly improving the accuracy and stability of the material strip discharge from the communication interface, reducing the defect rate caused by material strip deviation, and enhancing the automation and intelligence level of the entire production process.

[0054] The material discharge detection mechanism used in this communication interface also includes a power component 11, which is set on the feeding housing 1. The power component 11 is used to drive the cutting blade 9 to perform cutting motion. It includes a power source 1101, a guide post 1102, a drive block 1103, and a limiting block 1104. The power source 1101 is fixedly set on the top of the feeding housing 1. The drive block 1103 is set on the power end of the power source 1101. The guide post 1102 is fixedly set on the drive block 1103. The upper end of the guide post 1102 reciprocates along the power source 1101 with the drive block 1103. One end of the limiting block 1104 is the extreme position of the drive block 1103, and the other end of the limiting block 1104 is fixedly set on the cutting opening 10.

[0055] The power assembly 11 also includes a sprue 1105, a fixing plate 1106, and a gap 1107. The sprue 1105 is installed on the feeding housing 1 and communicates with the cutting opening 10. The fixing plate 1106 is fixed to the top of the feeding housing 1. The gap 1107 exists between the fixing plate 1106 and the feeding housing 1 and communicates with the cutting opening 10. During feeding, the material can pass through both the cutting opening 10 and the sprue 1105 simultaneously. When the cutting blade 9 falls, it can cut the defective products from the cutting opening 10 to the sprue 1105, leaving them outside the feeding housing 1. The usable material at the gap 1107 will continue to be conveyed to the next position of the feeding housing 1.

[0056] By setting up the power component 11, efficient and precise cutting of the cutting blade 9 and proper handling of waste materials are achieved. The power source 1101 stably drives the drive block 1103 to move along a preset trajectory. The guide column 1102 fixed on the drive block 1103 ensures that the drive block 1103 does not deviate during reciprocating motion, ensuring the accuracy of the cutting path of the cutting blade 9. The setting of the limit block 1104 defines the movement range of the drive block 1103, effectively preventing excessive movement of the cutting blade 9 from causing equipment damage or cutting errors. The conductive design of the vent 1105 and the cutting opening 10, as well as the existence of the gap 1107, achieves efficient separation of qualified and unqualified products, greatly improving the automation level and material handling efficiency of the output detection mechanism, ensuring the stable and orderly operation of the cutting process in the communication interface production process, effectively reducing the risk of waste residue and material confusion, and improving overall production quality and capacity.

[0057] The material discharge detection mechanism used for the communication interface also includes a frame 12 and a support rod 13. The frame 12 is vertically arranged at the feeding port of the feeding housing 1, and the support rod 13 is arranged on the frame 12 in a reciprocating motion along the direction perpendicular to the material belt.

[0058] Specifically, the support rod 13 includes a third slide groove 1301, a rod body 1302, a baffle 1304, and a fastening pin 1305. The third slide groove 1301 is mounted on the frame 12, the rod body 1302 is located on one side of the third slide groove 1301, and the baffle 1304 is located on the other side of the third slide groove 1301. The fastening pin 1305 is thus screwed through the baffle 1304, the third slide groove 1301, and the rod body 1302. The rod body 1302 is used to support the material belt and can also independently screw and tighten the baffle 1304 according to the required height of the material belt, thereby adjusting the height of the material belt.

[0059] The discharge detection mechanism for the communication interface also includes a traction component 14, which is mounted on the feeding housing 1. The traction component 14 is used to pull the conveyor belt. The traction component 14 includes a slot 1401, a rotating wheel 1402, and a mating block 1403. Specifically, a motor can be installed on the feeding housing 1 to drive the rotating wheel 1402 to rotate. The slot 1401 is mounted on the feeding housing 1. The rotating wheel 1402 is movably connected to the side of the feeding housing 1 and rotates into the slot 1401. The mating block 1403 is circumferentially mounted on the circumferential edge of the rotating wheel 1402 and is used to engage with various mating holes on the conveyor belt.

[0060] The motor drives the rotating wheel 1402 to rotate stably within the slot 1401, and the mating block 1403 is tightly engaged with the mating hole on the material strip. This allows the material strip to be transmitted accurately and smoothly at the set speed and direction under the action of the traction component 14. This effectively avoids abnormal situations such as jamming, slippage or deviation of the material strip during the traction process, ensuring that the material strip conveying link in the entire cutting process is efficient and reliable. This provides a strong guarantee for the subsequent step-by-step cutting process and improves the continuity and stability of the overall production.

[0061] The process of traction of the material belt in the material discharge detection mechanism for the communication interface provided in this embodiment is as follows: drive motor, the motor drives the rotating wheel 1402 to rotate, and the mating block 1403 on the rotating wheel 1402 engages with each mating hole on the material belt.

[0062] The discharge detection mechanism used in the communication interface also includes a height adjustment component 15, which is located at the bottom of the feeding housing 1. The height adjustment component 15 is used to adjust the height of the rotary wheel 1402. Specifically, the height adjustment component 15 includes a first slide 1501, a horizontal movable plate 1502, a second slide 1503, a swing arm 1504, and a vertical movable plate 1505. The horizontal movable plate 1502 is horizontally disposed at the bottom of the feeding housing 1, and the vertical movable plate 1505 is vertically disposed on the bottom surface of the turntable 1402. The first slide 1501 is disposed at one end of the horizontal movable plate 1502, and the axis of the first slide 1501 is parallel to the horizontal movable plate 1502. The two ends of the first slide 1501 have a height difference. The positioning end of the vertical movable plate 1505 is rotatably connected to the first slide 1501. The second slide 1503 is disposed at the other end of the horizontal movable plate 1502, and the axis of the second slide 1503 is perpendicular to the horizontal movable plate 1502. One side of the swing arm 1504 is rotatably disposed at the bottom of the feeding housing 1, and the other side of the swing arm 1504 is rotatably connected to the second slide 1503.

[0063] Specifically, the height adjustment component 15 also includes a support frame 1506, a first rotating shaft 1507, a second rotating shaft 1508, and a positioning frame 1509. The support frame 1506 is positioned at the bottom of the feeding housing 1. A swing arm 1504 is mounted on the support frame 1506, and the swing arm 1504 is connected to the support frame 1506 via the first rotating shaft 1507. The second rotating shaft 1508 is positioned between the swing arm 1504 and the transverse movable plate 1502, and the second rotating shaft 1508 slides along the second slide groove 1503. The positioning frame 1509 is fixed to the support frame 1506. The transverse movable plate 1502 and the vertical movable plate 1505 both pass through the positioning frame 1509 and move along the positioning frame 1509. The positioning frame 1509 is provided with a fourth slide groove 1510, and the first slide groove 1501 is perpendicular to the fourth slide groove 1510. The positioning end of the vertical movable plate 1505 passes through the first slide groove 1501 and the vertical movable plate 1505 to the fourth slide groove 1510, and slides along the fourth slide groove 1510.

[0064] The vertical movement of the vertical movable plate 1505 can be achieved by swinging the swing arm 1504, thereby changing the height of the motor and the wheel 1402 to adapt to the material belt at different heights.

[0065] The specific height adjustment process is as follows: the swing arm 1504 is rotated around the first rotating shaft 1507, the second rotating shaft 1508 slides along the second slide groove 1503, the horizontal movable plate 1502 moves horizontally along the vertical movable plate 1505, thereby causing the first slide groove 1501 to drive the positioning end of the vertical movable plate 1505 to slide up and down along the fourth slide groove 1510, thereby changing the height of the motor and the wheel 1402.

[0066] By setting the height adjustment component 15, the height of the rotary wheel 1402 can be flexibly adjusted to accurately adapt to the material belt requirements of different heights. The horizontal movable plate 1502, the vertical movable plate 1505, the first chute 1501, the second chute 1503, and the swing arm 1504 are interconnected to form a stable and efficient height adjustment transmission chain. This not only greatly improves the equipment's adaptability to changes in material belt height and reduces conveying difficulties or detection errors caused by differences in material belt height, but also ensures the smoothness and reliability of the height adjustment operation. This provides a solid foundation for the efficient and accurate operation of the communication interface material output detection, and significantly improves the versatility and stability of the entire material output detection mechanism.

[0067] The above description is merely a preferred embodiment of the present utility model and is not intended to limit the present utility model in any way. Although the present utility model has been disclosed above with reference to a preferred embodiment, it is not intended to limit the present utility model. Any person skilled in the art can make some changes or modifications to the above-disclosed technical content to create equivalent embodiments without departing from the scope of the present utility model. Any simple modifications, equivalent changes, and modifications made to the above embodiments based on the present utility model without departing from the scope of the present utility model shall fall within the scope of the present utility model.

Claims

1. An ejection detection mechanism for a communication interface, characterized by comprising: The utility model relates to a material feeding device, including: a feeding shell, which is a hollow structure for feeding a material belt; an upper detection port arranged on the upper end face of the feeding shell, which is in communication with the feeding shell; a lower detection port arranged on the lower end face of the feeding shell, which is in communication with the feeding shell; a detector including an upper detection head and a lower detection head, the upper detection head being fixedly arranged on the feeding shell, the upper detection head irradiating along the upper detection port, the lower detection head being fixedly arranged on the feeding shell, the lower detection head irradiating along the lower detection port; a pressing assembly including an opening, an upper pressing block, and a lower pressing block, the opening being arranged on the feeding shell, the opening being in communication with the feeding shell, the upper pressing block being reciprocatingly arranged at the upper end of the opening along the opening, the lower pressing block being reciprocatingly arranged at the lower end of the opening along the opening; a bidirectional motion deviation correction needle being positioned in the positioning hole of the feeding shell in a bidirectional reciprocating manner; a cutting knife reciprocatingly cutting along the cutting port of the feeding shell.

2. The ejection detection mechanism for a communication interface according to claim 1, wherein The utility model further includes a bidirectional driving assembly arranged on the feeding shell, which is used to drive the deviation correction needle to move in a bidirectional manner.

3. The ejection detection mechanism for a communication interface according to claim 2, wherein The bidirectional driving assembly includes a moving block reciprocating in a first direction along the positioning hole of the feeding shell and a mounting seat arranged on the moving block, the mounting seat reciprocating in a second direction along the positioning hole of the feeding shell.

4. The ejection detection mechanism for a communication interface according to any one of claims 1 to 3, wherein The utility model further includes a power assembly arranged on the feeding shell, which is used to drive the cutting knife to move in a cutting manner.

5. The ejection detection mechanism for a communication interface according to claim 4, wherein The power assembly includes a power source fixedly arranged on the top of the feeding shell, a driving block arranged on the power end of the power source, a guide column fixedly arranged on the driving block, the upper end of the guide column reciprocating along the power source with the driving block, and a limiting block, one end of the limiting block being the limit position of the movement of the driving block, and the other end of the limiting block being fixedly arranged on the cutting port.

6. The ejection detection mechanism for a communication interface according to any one of claims 1 to 3, wherein The utility model further includes a traction assembly arranged on the feeding shell, which is used to pull the material belt.

7. The ejection detection mechanism for a communication interface according to claim 6, wherein The traction assembly includes a slot arranged on the feeding shell, a rotating wheel rotatably movably connected to the side of the feeding shell, the rotating wheel rotating into the slot, and a matching block circumferentially arranged on the circumferential edge of the rotating wheel, the matching block being used to engage each matching hole on the material belt.

8. The ejection detection mechanism for a communication interface according to claim 7, wherein The utility model further includes a height adjustment assembly arranged on the bottom of the feeding shell, which is used to adjust the height of the rotating wheel.

9. The ejection detection mechanism for a communication interface according to claim 8, wherein The height adjusting assembly comprises a first sliding groove, a transversely movable plate, a second sliding groove, a swing arm and a vertically movable plate, the transversely movable plate is transversely arranged at the bottom of the feeding shell, the vertically movable plate is vertically arranged at the bottom surface of the rotating wheel, the first sliding groove is arranged at one end of the transversely movable plate, the axial direction of the first sliding groove is parallel to the transversely movable plate, the two ends of the first sliding groove have a height difference, the positioning end of the vertically movable plate is movably and rotatably connected to the first sliding groove, the second sliding groove is arranged at the other end of the transversely movable plate, the axial direction of the second sliding groove is perpendicular to the transversely movable plate, one side of the swing arm is movably and rotatably arranged at the bottom of the feeding shell, and the other side of the swing arm is movably and rotatably connected to the second sliding groove.

10. The ejection detection mechanism for a communication interface according to any one of claims 7 to 9, wherein Further comprising a frame and a supporting rod, the frame is vertically arranged at the feeding port of the feeding shell, and the supporting rod is reciprocatingly arranged on the frame along the direction of the vertical tape.

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