Wire management system

Information

  • Patent Grant
  • 6711031
  • Patent Number
    6,711,031
  • Date Filed
    Monday, February 3, 2003
    23 years ago
  • Date Issued
    Tuesday, March 23, 2004
    21 years ago
Abstract
A management system for wiring and/or cabling is disclosed. The wire management system comprises a base socket, a cable guide assembly, and a base pivot. The cable guide assembly may include a base member and at least two guide members that may be removably mounted to the base socket. The base pivot may be received within the base member for removably mounting the cable guide assembly to the base socket. The at least two guide members of the cable guide assembly orientates the wiring and/or cabling in a generally vertical direction with respect to a heat emitting device so as to minimize the surface area of the wiring and/or cabling that is exposed to a heat emitting device, thereby minimizing heat buildup within an enclosure.
Description




BACKGROUND OF THE INVENTION




1. Field of the Invention




This invention is related to managing wires and/or cabling, and in particular to managing wires and/or cabling internally or externally in relation to an electronic system.




2. Description of the Related Art




In some electronic systems, such as a computer system with an enclosure, wires and/or cabling are run randomly from one connection point to another. The wires and/or cabling may lie on or close to one or more heat-emitting devices within the computer system enclosure, thereby trapping heat from these devices and causing excessive heat buildup within the computer system. This is especially true of ribbon cabling having a large surface area that can entirely cover the heat-emitting device.




SUMMARY OF THE INVENTION




The inventor of the present invention has recognized these and other problems and has developed a wire management system that orientates the wires and/or cabling so as to minimize the surface area of the wires and/or cabling that are exposed to the heat emitting device. As a result, the heat emitted from the device can dissipate in a more efficient fashion, thereby minimizing heat buildup within the enclosure. Because heat buildup is a major contributor to electronic component failure, the present invention greatly improves life and reliability of the heat-emitting devices.











BRIEF DESCRIPTION OF THE DRAWINGS




The present invention will now be described, by way of example, with reference to the accompanying drawings, in which:





FIG. 1

is a perspective view of the wire management system cooperating with a wafer board;





FIG. 2

is a side view of the wire management system of

FIG. 1

;





FIG. 3

is a cross-sectional view of a base pivot of the wire management system of

FIG. 2

;





FIG. 4

is a top view of the base pivot of

FIG. 3

;





FIG. 5

is a cross-sectional view of a base socket of the wire management system of

FIG. 2

;





FIG. 6

is a top view of the base socket of

FIG. 5

; and





FIGS. 7A-7E

is a view showing the steps for assembling the wire management system.











DESCRIPTION OF THE PREFERRED EMBODIMENT




Referring now to

FIGS. 1 and 2

, a wire management system (WMS) is shown generally at


10


. The WMS


10


comprises a first portion


12


and a second portion


14


. The first portion


12


comprises a base pivot


16


, a base socket


18


, a mounting stud


20


and a mounting bolt


22


. The first portion


12


provides a means for fastening the WMS


10


to an electrical component


11


, such as a printed circuit board (PCB). The base socket


18


may be fastened anywhere to the electrical component


11


, such as for example, a printed circuit board (PCB


11


). The second portion


14


comprises a cable guide assembly defined by at least two non-conductive guide members


24


with locking notches


26


and a base member


28


. The second portion


14


provides a means for suspending wires


13


and/or cabling


15


to minimize the heat build-up from a plurality of heat-emitting devices


17


, such as the various components of the PCB


11


. The WMS


10


is preferably made of non-conductive material, such as plastic, or the like.




As best shown in

FIGS. 2-6

, the base pivot


16


further comprises one or more tangs


32


for removably mounting the base pivot


16


to the base socket


18


at tang receiving apertures


33


. Similarly, the base member


28


may also include one or more tangs


34


for removably mounting the first portion


14


to the base socket


18


of the second portion


12


. Thus, the second portion


14


can be easily snapped to the first portion


12


by receiving the base pivot


16


within the base member


28


, as shown in FIG.


2


. The design of the WMS


10


permits separation of the second portion


14


from the first portion


12


in the event that excessive forces are applied to the guide members


24


in order to reduce damage to the WMS


10


, the PCB


11


, or any of the heat-emitting devices


17


.




As seen in FIGS.


2


and


5


-


6


, the base socket


18


and the guide members


24


include cooperating mating surfaces


30


defined by a plurality of interlocking teeth


31


. The cooperating mating surfaces


30


permit rotatable positioning of the at least two guide members


24


relative to the base socket


18


. One aspect of the invention is that the guide members


24


permit orientation of the wires


13


and/or cabling


15


in a generally vertical direction with respect to the heat emitting devices


17


. Thus, minimization of the surface area of the wiring


13


and/or cabling


15


exposed to the heat emitting devices


17


may be achieved. For example, ribbon cabling


15


having a large surface area may be generally vertically oriented, thereby reducing the surface area covering the heat-emitting devices


17


and minimizing heat build-up within the computer housing (not shown).




Referring now to

FIGS. 7A-7E

, an assembly process for mounting the WMS


10


on the PCB


11


will now be described. As shown in

FIG. 7A

, the tangs


32


of the base pivot


16


are first positioned over the tang receiving apertures


33


and inserted into the base socket


18


. Then, a mounting bolt


22


is positioned over a central bolt-head-receiving portion or recess


21


in the base pivot


16


and bolt apertures


23


,


25


in the base pivot


16


and base socket


18


, respectively, as shown in FIG.


7


B. Once the mounting bolt


22


is positioned as described above, the mounting bolt


22


is inserted through the bolt apertures


23


,


25


of the base pivot


16


and base socket


18


, respectively. Next, the base member


28


of the guide members


24


is positioned over and received by the base pivot


16


, as shown in FIG.


7


C. Then, the PCB


11


is intermediately located between the base socket


18


and a mounting stud


20


, wherein the mounting stud


20


is positioned in a desirable location under the PCB


11


, as shown in FIG.


7


D. Finally, the mounting bolt


22


is inserted through the PCB


11


and into the mounting stud


20


can be tightened to positively secure the WMS


10


to the PCB


11


. Once the WMS


10


is assembled on the PCB


11


, the guide members


24


may be rotatably positioned by loosening the mounting stud


20


sufficiently to allow the WMS


10


to be rotated about the PCB


11


. Once the wires


13


and/or cabling


15


is received between the guide members


24


, a means


36


for preventing the wires


13


and/or cabling


15


, such as a nylon hoop, a rubber band, or the like, may be placed within the locking notches


26


to prevent the wires


13


and/or cabling


15


from being received between the guide members


24


.




As described above, the present invention properly manages the position of wires


13


and/or cabling


15


within or external to an enclosure to minimize heat buildup from the plurality of heat-emitting devices


17


within the enclosure. This is accomplished by minimizing the surface area of the wires


13


and/or cabling


15


that is exposed to the heat-emitting devices


17


by positioning the wires


13


and/or cabling


15


in a general vertical orientation with respect to the heat-emitting devices


17


. Because the WMS


10


minimizes the heat build-up within the enclosure, the present invention greatly improves equipment life and reliability of the heat-emitting devices


17


. Even further, the guide members


24


of the WMS


10


may be rotatably positioned so that the path taken by the wires


13


and/or cabling


15


may be desirably orientated within or about a computer system enclosure.




While the invention has been specifically described in connection with certain specific embodiments thereof, it is to be understood that this is by way of illustration and not of limitation, and the scope of the appended claims should be construed as broadly as the prior art will permit.



Claims
  • 1. A management system for a cable having a surface area, comprising:a base socket; a cable guide assembly mounted to the base socket, the cable guide assembly including a base member and at least two guide members; and a base pivot received within the base member for mounting the cable guide assembly to the base socket, wherein the at least two guide members include one or more tangs for mounting the at least two guide members to the base socket, and wherein the at least two guide members orientates the cable in such a manner so as to minimize the surface area of the cable that is exposed to a heat emitting device.
  • 2. The system according to claim 1, wherein the base socket and the at least two guide members include cooperating mating surfaces for mounting the at least two guide members to the base socket.
  • 3. The system according to claim 1, wherein the base pivot includes one or more tangs for mounting the base pivot to the base socket.
  • 4. The system according to claim 1, wherein the at least two guide members orientates the cable in a generally vertical direction with respect to the heat emitting device to minimize the surface area of the cable exposed to the heat emitting device.
  • 5. A process for assembling a wire management system, comprising the steps of:inserting a base pivot into a base socket to form a first portion of the wire management system; inserting a mounting bolt through the first portion; receiving the base pivot in a base member of a second portion of the wire management system; mounting the base socket to an electrical component having at least one heat emitting device; and receiving a cable between at least two guide members of the second portion in such a manner so as to minimize a surface area of the cable that is exposed to the at least one heat emitting device.
  • 6. The process for assembling the cable guide system according to claim 5, further comprising of providing a means for preventing the cable from being receiving between the at least two guide members.
  • 7. A management system for a cable having a surface area, comprising:a base socket; a cable guide assembly mounted to the base socket, the cable guide assembly including a base member and at least two guide members, wherein the at least two guide members include one or more tangs for mounting the at least two guide members to the base socket; and a base pivot received within the base member for mounting the cable guide assembly to the base socket, wherein the at least two guide members orientates the cable in such a manner so as to minimize the surface area of the cable that is exposed to a heat emitting device, wherein the base socket and the at last two guide members include cooperating mating surfaces for mounting the at least two guide members to the base socket, wherein the base pivot includes one or more tangs for mounting the base pivot to the base socket, wherein the at least two guide members orientates the cable in a generally vertical direction with respect to the heat emitting device to minimize the surface area of the cable exposed to the heat emitting device.
US Referenced Citations (9)
Number Name Date Kind
3809799 Taylor May 1974 A
3960425 Kirk et al. Jun 1976 A
4771743 McDowell Sep 1988 A
5215297 Sato et al. Jun 1993 A
5478060 Sugimoto et al. Dec 1995 A
5694678 Karasik Dec 1997 A
5940962 Shima et al. Aug 1999 A
6124548 Suzuki et al. Sep 2000 A
6398149 Hines et al. Jun 2002 B1