Full-automatic production equipment for optical fiber connector

Abstract

The invention discloses full-automatic optical fiber connector production equipment which comprises a base grinding and self-receiving structure, a discharging and automatic clamping structure is fixedly mounted on the base grinding and self-receiving structure, and the base grinding and self-receiving structure comprises a through frame mounting box with the interior of a hollow structure. A threaded hole is formed in the bottom of the through frame mounting box in a penetrating mode, meanwhile, a through cylinder is mounted above the through frame mounting box in an embedded and penetrating mode, a material receiving hopper is mounted in the through frame mounting box, a baffle is rotationally mounted right in front of the material receiving hopper through a hinge, and meanwhile, a wrapping cylinder connected with the threaded hole in a penetrating mode is fixedly mounted at the bottom of the material receiving hopper; a negative pressure machine is embedded in one side of the wrapping cylinder, one end of the negative pressure machine is connected with a branch pipe through a conveying pipe in an embedded and through manner, an air blowing head is embedded in the branch pipe, and a threaded hole is rotationally connected with a threaded connecting plate in a threaded manner.

Description

Technical Field

[0001] The invention relates to the technical field of optical fiber active connectors, in particular to fully automatic production equipment for optical fiber active connectors. Background Art

[0002] Fiber optic connector is a plug-in connector composed of a single-core plug and an adapter. It can be divided into FC, SC, LC, ST, MU, etc. according to the connector, and PC, UPC, APC, etc. according to the end face. It is suitable for optical fiber transceivers, routers, switches, optical terminals and other devices with optical ports. The fiber optic connector is to precisely connect the two end faces of the optical fiber. The most important thing is to align the axes of the two optical fibers so that the light energy output by the transmitting optical fiber can be coupled to the receiving optical fiber to the maximum extent, and the impact on the system caused by its involvement in the optical link is minimized. The fiber optic connector needs to be polished during manufacturing. The fiber optic connector polishing jig in the prior art generally inserts the fiber optic connector into the fixing hole and then simply fixes it by snapping it. This structure is not very stable for the fixation of the connector, and may cause the connector to fall off during the polishing process. At the same time, the existing fiber optic connector polishing jig is generally clamped by manual feeding, which results in boring manual operation. Summary of the invention

[0003] The purpose of the present invention is to provide a fully automatic production equipment for optical fiber active connectors in view of the shortcomings of the prior art, so as to solve the problem proposed in the above background technology that the optical fiber active connector grinding jig in the prior art generally inserts the optical fiber active connector into the fixing hole and then simply fixes it by a snap buckle. This structure is not very stable for fixing the connector and may cause the connector to fall off during the grinding process. At the same time, the existing optical fiber active connector grinding jig is generally clamped by manual feeding, which results in boring manual operation.

[0004] To achieve the above object, the present invention provides the following technical solutions: a fully automatic production device for optical fiber active connectors, comprising a base grinding and self-collecting structure, on which an automatic material discharging and clamping structure is fixedly installed; The base grinding self-collecting structure includes a through-frame installation box with a hollow structure inside, and a threaded hole is opened through the bottom of the through-frame installation box, and a through-tube is embedded and installed on the top of the through-frame installation box; A receiving hopper is installed inside the through-frame installation box, and a baffle is rotatably installed in front of the receiving hopper through a hinge, and a wrapping cylinder including a through connection to the threaded hole is fixedly installed at the bottom of the receiving hopper.

[0005] By adopting the above technical solution, the baffle is arranged to achieve movable adjustment.

[0006] Preferably, a negative pressure machine is embedded and installed on one side of the wrapping cylinder, and one end of the negative pressure machine is embedded and connected with the branch pipe through a conveying pipe. At the same time, an air blowing head is embedded and installed on the branch pipe. The threaded hole is rotatably threadedly connected to the threaded connecting plate, and a filter cylinder is fixedly installed on the threaded connecting plate.

[0007] By adopting the above technical solution, the filter cartridge is provided to perform collection and filtration.

[0008] Preferably, the through cylinder is rotatably connected to a through-hole grinding disk with a mounting groove at the bottom through an installation bearing, and a grinding groove is provided on the through-hole grinding disk for facilitating directional grinding of the optical fiber movable connector. At the same time, a feed groove is provided on one side of the grinding groove and is through-connected to the through-hole grinding disk, and a first toothed disk is installed on the surface of the through-hole grinding disk.

[0009] By adopting the above technical solution, the material discharge and transportation is achieved through the opened material discharge chute.

[0010] Preferably, mounting frames are fixed on both sides of the through frame mounting box, and a visual inspection instrument is fixed on the mounting frame. At the same time, a driving motor is installed on the inner side of the mounting frame through a fixing frame, a spline shaft is fixed on the output end of the driving motor, and a bearing seat is fixedly installed on the driving motor through the fixing frame. At the same time, the bearing seat is fixedly connected to one end of the synchronous cylinder, and the output end of the synchronous cylinder is connected to a driving gear with a spline groove on the inner side.

[0011] By adopting the above technical solution, synchronous drive adjustment is achieved through the provision of a synchronous cylinder.

[0012] Preferably, the automatic discharging clamping structure includes a blanking clamping assembly that controls the fixed installation of the discharging assembly, and the blanking clamping assembly includes a driving cylinder that is fixed through the mounting frame, and a bearing mounting ring is fixed at the output end of the driving cylinder, a concave disk is matched with the inside of the bearing mounting ring, and a connecting groove for fixing the bearing ring is opened on the inner side of the concave disk, and a blanking groove is opened on the surface of the concave disk, and a blanking hole is opened through the inner side of the blanking groove.

[0013] By adopting the above technical solution, the provided blanking groove can be used to limit the position.

[0014] Preferably, the bearing ring is provided with a guide groove, and an inner gear ring is rotatably installed on the inner side of the bearing ring, and a rack is slidably installed on the bearing ring through the guide groove, an electric gear and a first driven gear are respectively installed on the inner side of the inner gear ring, and the electric gear and the first driven gear are installed on the inner side of the concave disk, and a sponge head for pushing and clamping the optical fiber active connector is fixed at one end of the rack.

[0015] By adopting the above technical solution, the arranged rack can achieve synchronous meshing drive adjustment.

[0016] Preferably, a second toothed disc is fixedly mounted on the outer side of the concave disc, and the second toothed disc is meshingly connected with the second driven gear, while the second driven gear is fixedly mounted on the bottom of the bearing mounting ring through a spline sleeve and another bearing seat.

[0017] By adopting the above technical solution, the spline sleeve is provided to achieve a spline matching connection.

[0018] Preferably, the controlled discharge assembly includes a drop hopper fixed on the driving cylinder, and a through slot is provided at the bottom of the drop hopper to facilitate the rotation and adjustment of a baffle plate, and the baffle plate is fixedly installed below the drop hopper through a long-axis motor.

[0019] By adopting the above technical solution, the long-axis motor is provided to drive the rotation.

[0020] Preferably, a linear motor group is fixed at the bottom of the drop hopper, and a rotating mechanical arm is fixed in front of the linear motor group, and a mechanical clamping arm is fixed at one end of the rotating mechanical arm.

[0021] By adopting the above technical solution, the rotary driving adjustment is achieved by setting a rotary mechanical arm.

[0022] Compared with the prior art, the invention has the following beneficial effects: the fully automatic production equipment for optical fiber active connectors, (1) In this case, the material-discharging clamping assembly is provided in the material-discharging automatic clamping structure, thereby solving the problem that the optical fiber connector grinding jig in the prior art generally inserts the optical fiber connector into the fixing hole and then simply fixes it by snapping. This structure is not very stable for fixing the connector and may cause the connector to fall off during the grinding process. When the optical fiber connector falls into the material-discharging hole, the electric gear is controlled to drive the inner gear ring to rotate under force. When the inner gear ring rotates under force, it simultaneously drives the rack and the first driven gear to drive and adjust synchronously. When the rack moves under force, it drives the sponge head to extend into the material-discharging trough to clamp and fix the optical fiber connector. When the optical fiber connector is clamped and fixed by the sponge head and the rack, the above problem is avoided; (2) The automatic material discharging clamping structure is provided with: a material discharging component is controlled, thereby solving the problem that the existing optical fiber active connector grinding jig is generally clamped by manual feeding, which results in boring manual operation. When the optical fiber active connector needs to be blanked and ground, the operator manually drops all the optical fiber active connectors into the blanking hopper. At this time, the optical fiber active connectors dropped into the blanking hopper are discharged along the discharge pipe below the blanking hopper. When the optical fiber active connector is discharged through the discharge pipe below the blanking hopper, the long-axis motor controls the baffle plate to rotate under force. When the baffle plate rotates under force, the optical fiber active connector is controlled to be blanked and ground alone. (3) The drive cylinder, the bearing mounting ring, the spline sleeve, the second driven gear and the second toothed disc are arranged in the blanking clamping assembly, so as to solve the problem that the optical fiber active connector will directly fall onto the surface of the through-hole grinding disc through the blanking hole during the blanking process. When the optical fiber active connector needs to be blanked and ground, the drive cylinder is controlled to work, and the drive cylinder drives the bearing mounting ring and the concave disc to move downward synchronously during the operation of the drive cylinder. When they are in contact with the through-hole grinding disc, it is convenient for the optical fiber active connector to be blanked, clamped and fixed in position. When the concave disc is driven to rotate under force by the second driven gear and the second toothed disc, the optical fiber active connector is gradually dropped into the corresponding blanking hole for clamping, fixing and limiting grinding; (4) By controlling the linear motor group, the rotating mechanical arm and the mechanical clamping arm set in the material discharge assembly, the problem of the grinding end of the optical fiber active connector facing upward during the material discharge process is solved. When the optical fiber active connector falls into the material discharge hole, the grinding end of the optical fiber active connector faces upward. At this time, when the visual inspection instrument performs visual inspection on the optical fiber active connector, the visual inspection instrument transmits the detection signal to the controller. The controller controls the linear motor group, the rotating mechanical arm and the mechanical clamping arm to drive and operate, thereby clamping and rotating the inverted optical fiber active connector so that the grinding end contacts and grinds with the through-hole grinding disk; (5) The following are set in the base grinding self-collecting structure: receiving hopper, baffle, wrapping cylinder, negative pressure machine and filter cylinder, so as to solve the problem that waste chips cannot be collected during the grinding process. When the optical fiber active connector is ground, the suction force generated by the negative pressure machine when the negative pressure machine is working will transport the waste chips generated during grinding to the inside of the filter cylinder for collection. When the waste chips fall into the filter cylinder for collection, it is avoided that the waste chips fall completely on the surface of the through-hole grinding disk, so that the subsequent optical fiber active connectors cannot be ground quickly. (6) The following are set in the base grinding self-collecting structure: negative pressure machine, conveying pipe, branch pipe, air blowing head, grinding trough and material discharge trough, so as to solve the problem that the optical fiber active connector cannot be quickly dropped and collected after grinding. When the optical fiber active connector is ground, the negative pressure machine conveys the airflow into the branch pipe. When the airflow is conveyed into the branch pipe, the air blowing head blows the airflow to the grinding trough and the material discharge trough. When the airflow is blown to the grinding trough and the material discharge trough, it is convenient to blow off and collect the waste chips and also convenient to blow off and discharge the optical fiber active connector after grinding. (7) The drive motor, spline shaft, bearing seat, synchronous cylinder and active gear are arranged in the base grinding self-collecting structure, so as to solve the problem that the optical fiber active connector cannot be synchronously ground. When the optical fiber active connector is synchronously clamped and fixed, the synchronous cylinder is controlled to drive the active gear to engage with the first gear disc, and the drive motor is controlled to work. During the operation of the drive motor, the active gear and the first gear disc are driven to rotate, and the through-hole grinding disc is driven to rotate under force, so as to synchronously rotate and grind the optical fiber active connector. BRIEF DESCRIPTION OF THE DRAWINGS

[0023] Figure 1 It is a schematic diagram of the front cross-sectional structure of the present invention; Figure 2 This is a schematic diagram of the structure of the through-frame installation box, the receiving hopper, the baffle, the wrapping cylinder, the negative pressure machine, the conveying pipe, the branch pipe, the blowing head, the threaded connecting plate, the filter cylinder, the first toothed disc, the mounting frame, the visual inspection instrument, the driving motor, the spline shaft, the bearing seat, the synchronous cylinder and the driving gear of the present invention; Figure 3 This is a schematic diagram of the through frame installation box, threaded holes and through tube structure of the present invention; Figure 4 This is a schematic diagram of the structure of the through-hole grinding disc, the mounting groove and the feeding groove of the present invention; Figure 5 It is a schematic diagram of the structure of the through-hole grinding disc, grinding groove and feeding groove of the present invention; Figure 6 It is a schematic diagram of the structure of the driving gear and the spline groove of the present invention; Figure 7 This is a schematic diagram of the automatic clamping structure for material discharging of the present invention; Figure 8 It is a schematic diagram of the structure of the driving cylinder, the bearing mounting ring, the concave plate, the second gear plate, the second driven gear and the spline sleeve of the present invention; Fig. 9 It is a schematic diagram of the structure of the concave plate, the bearing ring, the material drop groove, the material drop hole, the inner gear ring, the rack, the electric gear, the first driven gear and the sponge head of the present invention; Fig.10 It is a schematic diagram of the structure of the concave plate, the blanking groove and the blanking hole of the present invention; Fig.11 It is a schematic diagram of the bearing ring and guide groove structure of the present invention; Fig.12 This is a schematic diagram of the structure of the control discharge assembly of the present invention; Fig.13 It is a schematic diagram of the structure of the baffle plate of the present invention.

[0024] Figure: 1. Base grinding self-collecting structure; 101. Through frame installation box; 102. Threaded hole; 103. Through cylinder; 104. Receiving hopper; 105. Baffle; 106. Wrapping cylinder; 107. Negative pressure machine; 108. Delivery pipe; 109. Branch pipe; 1010. Blowing head; 1011. Threaded connecting plate; 1012. Filter cylinder; 1013. Through hole grinding disc; 1014. Mounting groove; 1015. Grinding groove; 1016. Feeding trough; 1017. First toothed disc; 1018. Mounting frame; 1019. Visual inspection instrument; 1020. Driving motor; 1021. Spline shaft; 1022. Bearing seat; 1023. Synchronous cylinder; 1024. Driving gear; 1025. Spline groove; 2. Discharge self Dynamic clamping structure; 201, blanking clamping assembly; 2011, driving cylinder; 2012, bearing mounting ring; 2013, concave disc; 2014, bearing ring; 2015, blanking chute; 2016, blanking hole; 2017, guide groove; 2018, inner gear ring; 2019, rack; 20110, electric gear; 20111, first driven gear; 20112, sponge head; 20113, second gear disc; 20114, second driven gear; 20115, spline sleeve; 202, control discharge assembly; 2021, blanking hopper; 2022, through groove; 2023, baffle plate; 2024, long axis motor; 2025, linear motor group; 2026, rotating mechanical arm; 2027, mechanical clamping arm. DETAILED DESCRIPTION

[0025] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0026] See also Figure 1-13 The present invention provides a technical solution: a fully automatic production device for optical fiber active connectors, such as Figure 1 , Figure 2 , Figure 3 , Figure 4 , Figure 5 and Figure 6As shown, it includes a base grinding self-collecting structure 1, which includes a through-frame installation box 101 with a hollow structure inside, and a threaded hole 102 is opened through the bottom of the through-frame installation box 101, and a through tube 103 is embedded and installed on the top of the through-frame installation box 101, and a material receiving hopper 104 is installed inside the through-frame installation box 101, and a baffle 105 is installed in front of the material receiving hopper 104 through hinge rotation, and a wrapping tube 106 including a through connection with the threaded hole 102 is fixedly installed on the bottom of the material receiving hopper 104, wherein a grille is fixedly installed inside the material receiving hopper 104, and the grille fixedly installed inside the material receiving hopper 104 not only facilitates the discharge of waste chips, but also intercepts the ground optical fiber active connector, so that the operator can take the ground optical fiber active connector conveniently.

[0027] The above scheme further has a negative pressure machine 107 embedded in one side of the wrapping tube 106, and one end of the negative pressure machine 107 is embedded and connected with the branch tube 109 through the conveying tube 108, and at the same time, a blowing head 1010 is embedded and installed on the branch tube 109, the threaded hole 102 is rotatably threadedly connected to the threaded connecting plate 1011, and a filter tube 1012 is fixedly installed on the threaded connecting plate 1011, wherein the above-mentioned components constitute an extraction and blowing structure, and the extraction and blowing structure constituted by the above-mentioned components can effectively blow off and discharge waste chips and blow off and collect the polished optical fiber active connector.

[0028] Furthermore, the through cylinder 103 is rotatably connected to a through hole grinding disc 1013 with a mounting groove 1014 at the bottom through an installation bearing, and a grinding groove 1015 is provided on the through hole grinding disc 1013 for directional grinding of the optical fiber active connector. At the same time, a feed trough 1016 which is through-connected to the through hole grinding disc 1013 is provided on one side of the grinding groove 1015, and a first toothed disc 1017 is provided on the surface of the through hole grinding disc 1013, wherein six feed troughs 1016 are provided. When six feed troughs 1016 are provided by utilizing the above structure, the feed troughs 1016 can be effectively blown off the ground optical fiber active connector.

[0029] The above scheme further comprises mounting frames 1018 fixed on both sides of the through-frame mounting box 101, and a visual inspection instrument 1019 is fixed on the mounting frame 1018, and a driving motor 1020 is installed on the inner side of the mounting frame 1018 through a fixing frame, a spline shaft 1021 is fixed on the output end of the driving motor 1020, and a bearing seat 1022 is fixedly installed on the driving motor 1020 through a fixing frame, and at the same time, the bearing seat 1022 is fixedly connected to one end of a synchronous cylinder 1023, and the output end of the synchronous cylinder 1023 is connected to the driving gear 102 with a spline groove 1025 on the inner side. 4, wherein the visual inspection instrument 1019 is used to perform visual inspection on the optical fiber active connector after unloading, and the situation that the grinding end of the optical fiber active connector falls back when unloading is avoided by performing visual inspection on the optical fiber active connector, and the above-mentioned parts constitute a driving rotation adjustment structure, and the driving rotation adjustment structure constituted by the above-mentioned parts can effectively drive the through-hole grinding disc 1013 to perform rotation adjustment, and the through-hole grinding disc 1013 is driven to perform rotation adjustment, and the waste chips and the ground optical fiber active connector can also be rotated and blown off for unloading.

[0030] like Figure 7 , Figure 8 , Fig. 9 , Fig.10 and Fig.11 As shown, the base grinding self-collecting structure 1 is fixedly installed with an automatic material discharge clamping structure 2, and the automatic material discharge clamping structure 2 includes a material discharge clamping component 201 fixedly installed with a control material discharge component 202, and the material discharge clamping component 201 includes a driving cylinder 2011 that is fixedly connected to the mounting frame 1018, and a bearing mounting ring 2012 is fixedly installed at the output end of the driving cylinder 2011, and a concave disk 2013 is installed inside the bearing mounting ring 2012, and a bearing ring 2014 is fixedly installed on the inner side of the concave disk 2013. The concave disc 2013 has a groove, and a blanking groove 2015 is provided on the surface of the blanking groove 2015, and a blanking hole 2016 is provided on the inner side of the blanking groove 2015, wherein the above-mentioned components constitute a lifting and adjusting structure, and the lifting and adjusting structure constituted by the above-mentioned components can effectively change the synchronous lifting interval distance of the concave disc 2013 and the bearing mounting ring 2012, and by changing the lifting interval distance of the above-mentioned two, it is effectively convenient to clamp and fix the optical fiber active connector, and avoid the situation that the optical fiber active connector falls on the through-hole grinding disc 1013 when it is dropped.

[0031] The above scheme further comprises a guide groove 2017 provided on the bearing ring 2014, and an inner gear ring 2018 is rotatably installed on the inner side of the bearing ring 2014, and a rack 2019 is slidably installed on the bearing ring 2014 through the guide groove 2017, an electric gear 20110 and a first driven gear 20111 are respectively installed on the inner side of the inner gear ring 2018, and the electric gear 20110 and the first driven gear 20111 are installed on the inner side of the concave disk 2013, and a sponge head 20112 for pushing and clamping the optical fiber active connector is fixed at one end of the rack 2019, wherein a group of bearing rings 2014 are provided, and the bearing rings 2014 are concentrically installed inside the concave disk 2013, and the above components constitute a rotational unfolding structure, and the rotational unfolding structure constituted by the above components is effectively and synchronously driven to rotate and unfold the rack 2019, and the optical fiber active connector of the blanking is effectively and synchronously clamped and fixed when the rack 2019 is synchronously rotated and unfolded.

[0032] Furthermore, in the above scheme, a second toothed disc 20113 is fixedly mounted on the outer side of the recessed disc 2013, and the second toothed disc 20113 is meshingly connected with the second driven gear 20114, and the second driven gear 20114 is fixedly mounted on the bottom of the bearing mounting ring 2012 through a spline sleeve 20115 and another bearing seat 1022, wherein the above-mentioned components synchronously constitute a rotation adjustment structure, and the synchronous rotation adjustment structure constituted by the above-mentioned components is utilized to effectively perform step-by-step blanking, clamping and fixing of the optical fiber active connector.

[0033] like Fig.12 and Fig.13 As shown, the controlled discharge assembly 202 includes a drop hopper 2021 fixed on the driving cylinder 2011, and a through slot 2022 is provided at the bottom of the drop hopper 2021 for facilitating the rotation and adjustment of a baffle plate 2023. Meanwhile, the baffle plate 2023 is fixedly installed below the drop hopper 2021 through a long-axis motor 2024. A linear motor group 2025 is fixed at the bottom of the drop hopper 2021, and a rotating robotic arm 2026 is fixed directly in front of the linear motor group 2025. Meanwhile, a mechanical clamping arm 2027 is fixed at one end of the rotating robotic arm 2026.

[0034] In the above scheme, when the optical fiber active connector needs to be ground, the operator dumps the semi-finished optical fiber active connector into the drop hopper 2021. The optical fiber active connector dumped into the drop hopper 2021 is discharged and transported along the discharge pipe. When the optical fiber active connector is discharged and transported, the long-axis motor 2024 and the driving cylinder 2011 work. During the operation of the driving cylinder 2011, the bearing mounting ring 2012 and the concave plate 2013 are driven to move downward synchronously so that the concave plate 2013 contacts the through-hole grinding plate 1013. When the bearing mounting ring 2012 is forced to move downward, the spline sleeve 20115 is synchronously driven to be connected with the spline shaft 1021. When the spline sleeve 20115 is connected with the spline shaft 1021, the spline After the cylinder 1023 drives the active gear 1024 and the spline groove 1025 to separate from the spline shaft 1021, the driving motor 1020 drives the second driven gear 20114 and the second toothed disc 20113 to rotate under force through the spline shaft 1021. When the second toothed disc 20113 rotates under force, it drives the concave disc 2013 to rotate synchronously under force. When the concave disc 2013 rotates under force, the long-axis motor 2024 drives the baffle plate 2023 to rotate and make the optical fiber active connector fall into the discharge hole 2016. When the optical fiber active connector falls into the discharge hole 2016, the visual inspection instrument 1019 performs visual inspection on the fallen optical fiber active connector. When all the optical fiber active connectors fall correctly, the electric gear 20110 drives The moving inner gear ring 2018, the first driven gear 20111 and the rack 2019 are forced to move. When the rack 2019 is forced to move, it drives the sponge head 20112 to extend inside the blanking trough 2015 to clamp and fix the optical fiber connector. When a single optical fiber connector is dumped or the grinding end is reversed, the visual inspection instrument 1019 will transmit the detection signal to the controller. The controller controls the linear motor group 2025, the rotating mechanical arm 2026 and the mechanical clamping arm 2027 to straighten or clamp the optical fiber connector with the dumped or reversed grinding end to ensure that the grinding end of the optical fiber connector is in the same direction to ensure the correct grinding of the optical fiber connector. When the optical fiber connector is clamped and fixed, the driving cylinder 2011 and the synchronous cylinder When 1023 is in reverse operation, the concave disc 2013 and the through-hole grinding disc 1013 maintain a corresponding interval distance. At this time, the active gear 1024 is matched with the spline shaft 1021 and then driven by the driving motor 1020 to drive the active gear 1024 and the first toothed disc 1017 to rotate under force, and the through-hole grinding disc 1013 is driven to rotate synchronously. When the through-hole grinding disc 1013 is rotated under force, the grinding end of the optical fiber active connector is ground. When the grinding end of the optical fiber active connector is being ground, the negative pressure machine 107 is working. During the operation of the negative pressure machine 107, the airflow is transported to the inside of the blowing head 1010 and ejected. When the airflow is ejected, the ground waste is transported to the inside of the through cylinder 103, the receiving hopper 104 and the filter cylinder 1012 for collection.After the optical fiber connector is ground, the electric gear 20110 works in reverse to loosen the optical fiber connector and drop it into the grinding groove 1015. Then, the airflow ejected by the air blowing head 1010 blows it into the lower material groove 1016 and drops it into the receiving hopper 104. The falling materials are collected and the operator can take out the ground optical fiber connector through the baffle 105.

[0035] The directions or positional relationships indicated by terms such as "center", "longitudinal", "lateral", "front", "back", "left", "right", "vertical", "horizontal", "top", "bottom", "inside" and "outside" are based on the directions or positional relationships shown in the accompanying drawings. They are merely simplified descriptions for the convenience of describing the present invention, and do not indicate or imply that the devices or elements referred to must have a specific direction, be constructed and operated in a specific direction. Therefore, they should not be understood as limitations on the protection content of the present invention.

[0036] Although the present invention has been described in detail with reference to the aforementioned embodiments, it is still possible for those skilled in the art to modify the technical solutions described in the aforementioned embodiments, or to make equivalent substitutions for some of the technical features therein. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the protection scope of the present invention.

Claims

1. A fully automatic production equipment for optical fiber active connectors, characterized in that: It comprises a base grinding self-collecting structure (1), on which an automatic material discharging clamping structure (2) is fixedly mounted; The base grinding self-collecting structure (1) comprises a through-frame installation box (101) with a hollow structure inside, and a threaded hole (102) is provided through the bottom of the through-frame installation box (101), and a through cylinder (103) is embedded and installed through the top of the through-frame installation box (101); A material receiving hopper (104) is installed inside the through-frame installation box (101), and a baffle (105) is rotatably installed in front of the material receiving hopper (104) through a hinge, and a wrapping cylinder (106) connected to the threaded hole (102) is fixedly installed at the bottom of the material receiving hopper (104); The automatic material discharge clamping structure (2) comprises a material discharge clamping assembly (201) fixedly mounted on a material discharge control assembly (202), and the material discharge clamping assembly (201) comprises a driving cylinder (2011) fixedly mounted through a mounting frame (1018), and a bearing mounting ring (212) is fixedly mounted on an output end of the driving cylinder (2011), a concave disc (213) is mounted inside the bearing mounting ring (2012), and a connecting groove for fixing a bearing ring (2014) is provided on the inner side of the concave disc (2013), and a material discharge groove (2015) is provided on the surface of the concave disc (2013), and a material discharge hole (216) is provided through the inner side of the material discharge groove (2015); The bearing ring (2014) is provided with a guide groove (2017), and an inner gear ring (2018) is rotatably installed on the inner side of the bearing ring (2014), and a rack (2019) is slidably installed on the bearing ring (2014) through the guide groove (2017), an electric gear (20110) and a first driven gear (20111) are respectively installed on the inner side of the inner gear ring (2018), and the electric gear (20110) and the first driven gear (20111) are installed on the inner side of the concave plate (2013), and a sponge head (20112) for pushing and clamping the optical fiber active connector is fixed to one end of the rack (2019).

2. The fully automatic production equipment for optical fiber active connector according to claim 1 is characterized by: A negative pressure machine (107) is embedded and installed on one side of the wrapping cylinder (106), and one end of the negative pressure machine (107) is embedded and connected with the branch pipe (109) through a delivery pipe (108), and a blowing head (1010) is embedded and installed on the branch pipe (109). The threaded hole (102) is rotatably threadedly connected to the threaded connecting plate (1011), and a filter cylinder (1012) is fixedly installed on the threaded connecting plate (1011).

3. According to claim 1, the fully automatic production equipment for optical fiber active connectors is characterized by: The through cylinder (103) is rotatably connected to a through-hole grinding disc (1013) with a mounting groove (1014) at the bottom via a mounting bearing, and a grinding groove (1015) is provided on the through-hole grinding disc (1013) for directional grinding of an optical fiber movable connector. A material discharge groove (1016) is provided on one side of the grinding groove (1015) and is in continuous connection with the through-hole grinding disc (1013). A first toothed disc (1017) is mounted on the surface of the through-hole grinding disc (1013).

4. The fully automatic production equipment for optical fiber active connector according to claim 1 is characterized by: Mounting frames (1018) are fixed on both sides of the through-frame mounting box (101), and a visual inspection instrument (1019) is fixed on the mounting frame (1018). A driving motor (1020) is installed on the inner side of the mounting frame (1018) via a fixing frame. A spline shaft (1021) is fixed on the output end of the driving motor (1020), and a bearing seat (1022) is fixedly installed on the driving motor (1020) via a fixing frame. The bearing seat (1022) is fixedly connected to one end of a synchronous cylinder (1023), and the output end of the synchronous cylinder (1023) is connected to a driving gear (1024) having a spline groove (1025) on the inner side.

5. The fully automatic production equipment for optical fiber active connector according to claim 1 is characterized by: A second toothed disc (20113) is fixedly mounted on the outer side of the concave disc (2013), and the second toothed disc (20113) is meshingly connected with a second driven gear (20114), while the second driven gear (20114) is fixedly mounted on the bottom of the bearing mounting ring (2012) via a spline sleeve (20115) and another bearing seat (1022).

6. The fully automatic production equipment for optical fiber active connector according to claim 1, characterized in that: The control discharge assembly (202) comprises a drop hopper (2021) fixed on the driving cylinder (2011), and a through slot (2022) is provided at the bottom of the drop hopper (2021) for facilitating the rotation and adjustment of a baffle plate (2023), and the baffle plate (2023) is fixedly installed below the drop hopper (2021) via a long-axis motor (2024).

7. The fully automatic production equipment for optical fiber active connector according to claim 6, characterized in that: A linear motor group (2025) is fixed at the bottom of the drop hopper (2021), and a rotating mechanical arm (2026) is fixed in front of the linear motor group (2025), and a mechanical clamping arm (2027) is fixed at one end of the rotating mechanical arm (2026).

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