Intelligent hub cleaning device

Information

  • Patent Grant
  • 10357807
  • Patent Number
    10,357,807
  • Date Filed
    Monday, October 30, 2017
    6 years ago
  • Date Issued
    Tuesday, July 23, 2019
    4 years ago
Abstract
Disclosed is a hub cleaning device, including a base (1), a mounting transition plate (2), a nozzle adjusting module (3), hub conveying modules (4) and a work fixture (5), in which the nozzle adjusting module (3) is connected onto the mounting transition plate (2), and the mounting transition plate (2) is fixed on the base (1); the work fixture (5) is arranged at a position parallel to the base (1), so that the nozzle adjusting module (3) can face the front side of a hub (6); and the hub conveying modules (4) are arranged on two sides of the work fixture (5). The device is simple in structure, and one device can complete cleaning of multiple types of hubs, thereby greatly reducing the input of enterprises on cleaning devices and saving a lot of money for the enterprises.
Description
CROSS-REFERENCE TO RELATED APPLICATIONS

This application is filed based upon and claims priority to Chinese Patent Application No. 201710748186.2, filed on Aug. 28, 2017, the entire contents of which are incorporated herein by reference.


BACKGROUND

The aluminum alloy hub is an important part on an automobile chassis, the manufacturing process is complex, and the production, manufacturing, detection and cleaning links need to be controlled strictly. The cleaning procedure between machining and spraying directly affects the final machining quality of the hub. The exiting hub cleaning methods roughly can be divided into manual, brush and high pressure nozzle ones. The manual cleaning method is low in degree of automation, low in efficiency and severe in working environment, and is thus not suitable for large batch production. In the process of cleaning a hub by a brush cleaning machine, the cleaning of the hub is not simple plane cleaning, the central height of the hub of each vehicle type is different, and the placing angles and positions when automobiles are cleaned are slightly different, so cleaning dead angles and difficult cleaning always exist in the conventional cleaning process. The brush cleaning method cannot realize automatic centering and then cannot effectively clean a hub, and it cannot adapt to cleaning hubs of more vehicle types, so that the vehicle cleaning cost is increased. Although the high pressure nozzle method can be used for cleaning hubs in various shapes, the cleaning area of a single nozzle is small, and a plurality of nozzles are needed to improve the cleaning efficiency, so the cost is increased. Therefore, a device which can adapt to cleaning of different types of hubs and is relatively low in cost in the disclosure has very positive practical significance.


SUMMARY

The disclosure relates to the technical fields of aluminum alloy casting and machining, and specifically relates to a hub cleaning device.


The disclosure is aimed at providing a hub cleaning device, thus overcoming the defects that the traditional hub cleaning methods cannot realize cleaning of multiple types of hubs, have cleaning dead angles, are relatively high in cost and the like.


Hub cleaning device includes a base, a mounting transition plate, a nozzle adjusting module, hub conveying modules and a work fixture.


The nozzle adjusting module is connected onto the mounting transition plate by bolt connection, and the mounting transition plate is fixed on the base by bolt connection. The work fixture is arranged at a position parallel to the base, so that the nozzle adjusting module can face the front side of a hub. The hub conveying modules are arranged on two sides of the work fixture.


The nozzle adjusting module includes a transverse drive motor, a transverse ball screw, a transverse substrate, transverse guide posts, a transverse slide block, water pipes, a longitudinal drive motor, a longitudinal substrate, a longitudinal ball screw, longitudinal guide posts, a longitudinal slide block, a nozzle mounting disc, an ultrasonic sensor and high pressure nozzles. The nozzle adjusting module is characterized in that the longitudinal substrate is fixed on the mounting transition plate by bolt connection, the longitudinal drive motor is fixed on the longitudinal substrate, the longitudinal ball screw is mounted on the longitudinal substrate, and the shaft of the longitudinal ball screw is connected with the shaft of the longitudinal drive motor. The longitudinal slide block is mounted on the nut of the longitudinal ball screw and moves together with the nut. The longitudinal guide posts penetrate through the longitudinal slide block, and are fixed on the longitudinal substrate to provide linear guiding for the longitudinal slide block. The transverse substrate is connected onto the longitudinal slide block by bolt connection. The transverse drive motor is fixed on the transverse substrate, the transverse ball screw is mounted on the transverse substrate, and the shaft of the transverse ball screw is connected with the shaft of the transverse drive motor. The transverse slide block is mounted on the nut of the transverse ball screw and moves together with the nut. The nozzle mounting disc is fixed on the transverse slide block by bolt connection, and the high pressure nozzles and the ultrasonic sensor are fixed on the nozzle mounting disc. The water pipes communicate with the high pressure nozzles, and provide high pressure water for the high pressure nozzles.


The work fixture includes a support frame, V-shaped blocks, a baffle, a pressure block, a threaded rod, a water fender and a handle. The work fixture is characterized in that the V-shaped blocks are arranged on the support frame and in two columns and used for center positioning on rims of two sides of the hub, the baffle is arranged on one side of the V-shaped blocks, and the pressure block is arranged on the other side of the V-shaped blocks and used for fixing the hub. The pressure block is adjusted via the handle, the threaded rod is fixed with the pressure block and the handle and connected with a threaded hole in the support frame by threaded connection, and thus, the pressure block can be adjusted by rotating the handle to clamp hubs of different types.


When the hub of a different type is conveyed to the work fixture by the hub conveying modules, the hub is positioned by the V-shaped blocks, and then the pressure block clamps the hub by tightening the handle. At the moment, the positions of the high pressure nozzles can be adjusted in real time via the nozzle adjusting module, so that they can adapt to different types of hubs. The ultrasonic sensor arranged on the nozzle mounting disc can feed back the distance between the high pressure nozzles and the opposite object in real time. When the distance value is within a given range, the front sides of the high pressure nozzles face the surface of the hub, and the surface needs to be cleaned. When the distance value is beyond the given range, the front sides of the high pressure nozzles do not face the surface of the hub, cleaning is not needed, and then the transverse drive motor or the longitudinal drive motor is controlled to control the high pressure nozzles to move transversely or longitudinally till facing the surface of the hub. Thus, a closed loop control is formed, and the surface that needs to be cleaned can be automatically sought. In addition, the maximum travel of the nozzle adjusting device in each moving direction is set according to the maximum size of different types of hubs to be cleaned, and thus, one hub cleaning device can realize the function of cleaning different types of hubs.


The disclosure is simple in structure and convenient to operate, and one device can complete cleaning of multiple types of hubs, thereby greatly reducing the input of enterprises on cleaning devices and saving a lot of money for the enterprises. In addition, the disclosure is high in degree of intelligence, and can automatically seek the hub surface that needs to be cleaned, thereby avoiding time and cleaner waste on the surface that does not need to be cleaned, further improving the production efficiency and reducing the cost.





BRIEF DESCRIPTION OF THE DRAWINGS

The implementation scheme of the disclosure will be described in detail below in combination with the accompanying drawings.



FIG. 1 is a structural schematic diagram of a hub cleaning device.



FIG. 2 is a structural schematic diagram of a nozzle adjusting device of the disclosure.



FIG. 3 is a structural schematic diagram of a work fixture of the disclosure.



FIG. 4 is a partial schematic diagram of the longitudinal drive motor and the longitudinal ball screw.



FIG. 5 is a partial schematic diagram of the transverse drive motor and the transverse ball screw.





In which, 1—base, 2—mounting transition plate, 3—nozzle adjusting module, 4—hub conveying module, 5—work fixture, 6—hub, 3-1—transverse drive motor, 3-1-1—shaft of the transverse drive motor, 3-2—transverse ball screw, 3-2-1—shaft of the transverse ball screw, 3-2-2—nut of the transverse ball screw, 3-3—transverse substrate, 3-4—transverse guide post, 3-5—transverse slide block, 3-6—water pipe, 3-7—longitudinal drive motor, 3-7-1—shaft of the longitudinal drive motor, 3-8—longitudinal substrate, 3-9—longitudinal ball screw, 3-9-1—shaft of the longitudinal ball screw, 3-9-2—nut of the longitudinal ball screw, 3-10—longitudinal guide post, 3-11—longitudinal slide block, 3-12—nozzle mounting disc, 3-13—ultrasonic sensor, 3-14—high pressure nozzle, 5-1—support frame, 5-2—V-shaped block, 5-3—baffle, 5-4—pressure block, 5-5—threaded rod, 5-6—water fender, 5-7—handle.


DETAILED DESCRIPTION
Embodiment 1

This embodiment discloses a hub cleaning device. The device includes a base 1, a mounting transition plate 2, a nozzle adjusting module 3, hub conveying modules 4 and a work fixture 5.


The nozzle adjusting module 3 is connected onto the mounting transition plate 2 by bolt connection, and the mounting transition plate 2 is fixed on the base 1 by bolt connection. The work fixture 5 is arranged at a position parallel to the base 1, so that the nozzle adjusting module 3 can face the front side of a hub 6. The hub conveying modules 4 are arranged on two sides of the work fixture 5.


The nozzle adjusting module 3 includes a transverse drive motor 3-1, a transverse ball screw 3-2, a transverse substrate 3-3, transverse guide posts 3-4, a transverse slide block 3-5, water pipes 3-6, a longitudinal drive motor 3-7, a longitudinal substrate 3-8, a longitudinal ball screw 3-9, longitudinal guide posts 3-10, a longitudinal slide block 3-11, a nozzle mounting disc 3-12, an ultrasonic sensor 3-13 and high pressure nozzles 3-14. The nozzle adjusting module 3 is characterized in that the longitudinal substrate 3-8 is fixed on the mounting transition plate 2 by bolt connection, the longitudinal drive motor 3-7 is fixed on the longitudinal substrate 3-8, the longitudinal ball screw 3-9 is mounted on the longitudinal substrate 3-8, and the shaft 3-9-1 of the longitudinal ball screw 3-9 is connected with the shaft 3-7-1 of the longitudinal drive motor 3-7. The longitudinal slide block 3-11 is mounted on the nut 3-9-2 of the longitudinal ball screw 3-9 and moves together with the nut. The longitudinal guide posts 3-10 penetrate through the longitudinal slide block 3-11, and are fixed on the longitudinal substrate 3-8 to provide linear guiding for the longitudinal slide block 3-11. The transverse substrate 3-3 is connected onto the longitudinal slide block 3-11 by bolt connection. The transverse drive motor 3-1 is fixed on the transverse substrate 3-3, the transverse ball screw 3-2 is mounted on the transverse substrate 3-3, and the shaft 3-2-1 of the transverse ball screw 3-2 is connected with the shaft 3-1-1 of the transverse drive motor 3-1. The transverse slide block 3-5 is mounted on the nut 3-2-2 of the transverse ball screw 3-2 and moves together with the nut. The nozzle mounting disc 3-12 is fixed on the transverse slide block 3-5 by bolt connection, and the high pressure nozzles 3-14 and the ultrasonic sensor 3-13 are fixed on the nozzle mounting disc 3-12. The water pipes 3-6 communicate with the high pressure nozzles 3-14, and provide high pressure water for the high pressure nozzles 3-14.


The work fixture 5 includes a support frame 5-1, V-shaped blocks 5-2, a baffle 5-3, a pressure block 5-4, a threaded rod 5-5, a water fender 5-6 and a handle 5-7. The work fixture 5 is characterized in that the V-shaped blocks 5-2 are arranged on the support frame 5-1 and in two columns and used for center positioning on rims of two sides of the hub 6, the baffle 5-3 is arranged on one side of the V-shaped blocks 5-2, and the pressure block 5-4 is arranged on the other side of the V-shaped blocks 5-2 and used for fixing the hub 6. The pressure block 5-4 is adjusted via the handle 5-7, the threaded rod 5-5 is fixed with the pressure block 5-4 and the handle 5-7 and connected with a threaded hole in the support frame 5-1 by threaded connection, and thus, the pressure block 5-4 can be adjusted by rotating the handle 5-7 to clamp hubs 6 of different types.


When the hub 6 of a different type is conveyed to the work fixture 5 by the hub conveying modules 4, the hub 6 is positioned by the V-shaped blocks 5-2, and then the pressure block 5-4 clamps the hub 6 by tightening the handle 5-7. At the moment, the positions of the high pressure nozzles 3-14 can be adjusted in real time via the nozzle adjusting module 3, so that they can adapt to different types of hubs 6. The ultrasonic sensor 3-13 arranged on the nozzle mounting disc 3-12 can feed back the distance between the high pressure nozzles 3-14 and the opposite object in real time. When the distance value is within a given range, the front sides of the high pressure nozzles 3-14 face the surface of the hub 6, and the surface needs to be cleaned. When the distance value is beyond the given range, the front sides of the high pressure nozzles 3-14 do not face the surface of the hub 6, cleaning is not needed, and then the transverse drive motor 3-1 or the longitudinal drive motor 3-7 is controlled to control the high pressure nozzles 3-14 to move transversely or longitudinally till facing the surface of the hub 6. Thus, a closed-loop control is formed, and the surface that needs to be cleaned can be automatically sought. In addition, the maximum travel of the nozzle adjusting device 3 in each moving direction is set according to the maximum size of different types of hubs 6 to be cleaned, and thus, one hub cleaning device can realize the function of cleaning different types of hubs 6.


Described above is merely a preferred embodiment of the disclosure. Changes may be made to the specific embodiment and the application scope for those of ordinary skill in the art according to the thought of the disclosure. The content of the specification should not be understood as limiting the disclosure.

Claims
  • 1. A hub cleaning device, including a base, a mounting transition plate, a nozzle adjusting module, hub conveying modules and a work fixture, wherein the nozzle adjusting module is connected onto the mounting transition plate, and the mounting transition plate is fixed on the base; the work fixture is arranged at such a position that the nozzle adjusting module can face a front side of a hub; one or more of the hub conveying modules are arranged on either sides of the work fixture;the nozzle adjusting module includes a transverse drive motor, a transverse ball screw, a transverse substrate, transverse guide posts, a transverse slide block, water pipes, a longitudinal drive motor, a longitudinal substrate, a longitudinal ball screw, longitudinal guide posts, a longitudinal slide block, a nozzle mounting disc, an ultrasonic sensor and high pressure nozzles; the longitudinal substrate is fixed on the mounting transition plate, the longitudinal drive motor is fixed on the longitudinal substrate, the longitudinal ball screw is mounted on the longitudinal substrate, and a shaft of the longitudinal ball screw is connected with a shaft of the longitudinal drive motor; the longitudinal slide block is mounted on a nut of the longitudinal ball screw and moves together with the nut of the longitudinal ball screw; the longitudinal guide posts penetrate through the longitudinal slide block, and are fixed on the longitudinal substrate to provide linear guiding for the longitudinal slide block; the transverse substrate is connected onto the longitudinal slide block; the transverse drive motor is fixed on the transverse substrate, the transverse ball screw is mounted on the transverse substrate, and a shaft of the transverse ball screw is connected with a shaft of the transverse drive motor; the transverse slide block is mounted on a nut of the transverse ball screw and moves together with the nut of the transverse ball screw; the nozzle mounting disc is fixed on the transverse slide block, and the high pressure nozzles and the ultrasonic sensor are fixed on the nozzle mounting disc; each of the water pipes communicate with each of the high pressure nozzles respectively, and provide high pressure water for the high pressure nozzles;the work fixture includes a support frame, V-shaped blocks, a baffle, a pressure block, a threaded rod, a water fender and a handle; the V-shaped blocks are arranged on the support frame and in two columns and used for center positioning on rims of two sides of the hub, and in each of the two columns there is provided one V-shaped block of the V-shaped blocks, the baffle is arranged on one side of the V-shaped blocks, and the pressure block is arranged on the other side of the V-shaped blocks and used for fixing the hub; the pressure block is adjusted via the handle, and the threaded rod is fixed with the pressure block and the handle and connected with a threaded hole in the support frame.
Priority Claims (1)
Number Date Country Kind
2017 1 0748186 Aug 2017 CN national
US Referenced Citations (131)
Number Name Date Kind
2692214 Hurst Oct 1954 A
2716772 Cockrell Sep 1955 A
2718650 Haverberg Sep 1955 A
2761170 Bonneau Sep 1956 A
2814825 Guthrie, Jr. Dec 1957 A
2822564 Crivelli Feb 1958 A
2837759 Haverberg Jun 1958 A
2857605 Weishaar Oct 1958 A
2910202 Clarke Oct 1959 A
2957195 Almond Oct 1960 A
3043317 Hursen Jul 1962 A
3058133 Haverberg Oct 1962 A
3108299 Baldwin Oct 1963 A
3191207 Van Brakel Jun 1965 A
3305886 Fricke Feb 1967 A
3328819 Doerschlag Jul 1967 A
3433236 Long Mar 1969 A
3446217 Collier May 1969 A
3448717 Kuhlman Jun 1969 A
3517405 Ebeling Jun 1970 A
3541627 Grant Nov 1970 A
3561031 Gusse et al. Feb 1971 A
3628212 Van Brakel Dec 1971 A
3643272 Rickel Feb 1972 A
3643275 Van Brakel Feb 1972 A
3645282 Kurronen Feb 1972 A
3729763 Coley May 1973 A
3822431 Van Brakel Jul 1974 A
3844480 Taylor Oct 1974 A
3903559 Kuster Sep 1975 A
3913162 Parkin Oct 1975 A
3915179 Casson Oct 1975 A
4023228 Hanna May 1977 A
4178948 Swinehart Dec 1979 A
4269141 Kennett May 1981 A
4272301 Galbraith Jun 1981 A
4424823 Gougoulas Jan 1984 A
4550464 Messing Nov 1985 A
4651925 Harris Mar 1987 A
4718439 Gorra Jan 1988 A
4719932 Burton Jan 1988 A
4726388 Swinehart Feb 1988 A
4805648 Hour Feb 1989 A
4830033 Hanna May 1989 A
4870921 Svensson Oct 1989 A
4878262 Stufflebeam Nov 1989 A
4895307 Swinehart Jan 1990 A
4920997 Vetter May 1990 A
4946513 Del Prato Aug 1990 A
4971084 Smith Nov 1990 A
4979536 Midkiff Dec 1990 A
4981523 Larson Jan 1991 A
4985957 Belanger Jan 1991 A
5016662 Crotts May 1991 A
5033490 Wade Jul 1991 A
5040485 Bailey Aug 1991 A
5052629 Belanger Oct 1991 A
5065694 Earnheart, Jr. Nov 1991 A
5090429 Barber Feb 1992 A
5098744 Enegren Mar 1992 A
5123136 Belanger Jun 1992 A
5125981 Belanger Jun 1992 A
5148570 Crotts Sep 1992 A
5161557 Scheiter, Jr. Nov 1992 A
5226436 Kirby Jul 1993 A
5226971 Fogal Jul 1993 A
5261433 Smith Nov 1993 A
5266123 Brand Nov 1993 A
5291696 Enegren Mar 1994 A
5291906 White Mar 1994 A
5309931 Meyer, III May 1994 A
5341828 Ferguson, Sr. Aug 1994 A
5432974 Yasutake Jul 1995 A
5730164 Midkiff Mar 1998 A
5778908 Shelstad Jul 1998 A
5853127 Heembrock Dec 1998 A
5911259 Baldi Jun 1999 A
5968271 Maxwell Oct 1999 A
5991952 Bintzler Nov 1999 A
6082634 MacNeil Jul 2000 A
6134735 Zamensky Oct 2000 A
6260225 Bowman Jul 2001 B1
6270586 Soble Aug 2001 B1
6277207 Gauthier Aug 2001 B1
6325082 Schlueter Dec 2001 B1
6358330 McGraw Mar 2002 B1
6372053 Belanger Apr 2002 B1
6383295 Frederick, Jr. May 2002 B1
6461685 Gorra Oct 2002 B2
6668466 Bieg Dec 2003 B1
6679275 Heinze Jan 2004 B2
7143464 Brosi Dec 2006 B2
7234186 Peters Jun 2007 B2
7243665 Turner Jul 2007 B1
7582164 Krause Sep 2009 B1
8379925 Schilling Feb 2013 B2
8769756 Wentworth Jul 2014 B2
20020002986 Jones Jan 2002 A1
20020117193 Anderson Aug 2002 A1
20020121291 Daum Sep 2002 A1
20020162575 Fratello Nov 2002 A1
20020162576 Fratello Nov 2002 A1
20040020519 Taylor Feb 2004 A1
20040035447 Schleeter Feb 2004 A1
20040064908 Decker Apr 2004 A1
20040065349 Scheiter, Jr. Apr 2004 A1
20040221878 Johnson Nov 2004 A1
20050028846 Fratello Feb 2005 A1
20050102777 Johansson May 2005 A1
20050229954 Rosselott Oct 2005 A1
20070009656 Nagase Jan 2007 A1
20070068554 Essenburg Mar 2007 A1
20070227558 Chase Oct 2007 A1
20070246088 Rennie Oct 2007 A1
20070289616 McCadden Dec 2007 A1
20080000508 Lee Jan 2008 A1
20080029135 McCadden Feb 2008 A1
20080178402 Martines Jul 2008 A1
20080185019 Hodge Aug 2008 A1
20090025159 Rau Jan 2009 A1
20090217955 Harrell Sep 2009 A1
20090272409 Petit Nov 2009 A1
20100281638 Reed Nov 2010 A1
20100307531 Aharonov Dec 2010 A1
20110035889 Keusch Feb 2011 A1
20110115650 Wimmer May 2011 A1
20130186432 Wimmer Jul 2013 A1
20130291906 Belanger Nov 2013 A1
20130333127 Langer Dec 2013 A1
20140170324 Kohonen Jun 2014 A1
20150151314 Hendricks, Sr. Jun 2015 A1
Related Publications (1)
Number Date Country
20190060962 A1 Feb 2019 US