Connectors are used to connect coaxial cables to various electronic devices, such as televisions, antennas, set-top boxes, satellite television receivers, audio equipment, or other electronic equipment. Conventional coaxial connectors generally include a connector body having an annular collar for accommodating a coaxial cable, an annular nut rotatably coupled to the collar for providing mechanical attachment of the connector to an external device and an annular post interposed between the collar and the nut. The annular collar that receives the coaxial cable includes a cable receiving end for insertably receiving a coaxial cable and, at the opposite end of the connector body, the annular nut includes an internally threaded end that permits screw threaded attachment of the body to an external device.
This type of coaxial connector also typically includes a locking sleeve to secure the cable within the body of the coaxial connector. The locking sleeve, which is typically formed of a resilient plastic, is securable to the connector body to secure the coaxial connector thereto. In this regard, the connector body typically includes some form of structure to cooperatively engage the locking sleeve. Such structure may include one or more recesses or detents formed on an inner annular surface of the connector body, which engages cooperating structure formed on an outer surface of the locking sleeve.
Conventional coaxial cables typically include a center conductor surrounded by an insulator. A conductive foil is disposed over the insulator and a braided conductive shield surrounds the foil-covered insulator. An outer insulative jacket surrounds the shield. In order to prepare the coaxial cable for termination, the outer jacket is stripped back exposing a portion of the braided conductive shield. The exposed braided conductive shield is folded back over the jacket. A portion of the insulator covered by the conductive foil extends outwardly from the jacket and a portion of the center conductor extends outwardly from within the insulator.
Upon assembly, a coaxial cable is inserted into the cable receiving end of the connector body and the annular post is forced between the foil covered insulator and the conductive shield of the cable. In this regard, the post is typically provided with a radially enlarged barb to facilitate expansion of the cable jacket. The locking sleeve is then moved axially into the connector body to clamp the cable jacket against the post barb providing both cable retention and a water-tight seal around the cable jacket. The connector can then be attached to an external device by tightening the internally threaded nut to an externally threaded terminal or port of the external device.
The Society of Cable Telecommunication Engineers (SCTE) provides values for the amount of torque recommended for connecting such coaxial cable connectors to various external devices. Indeed, most cable television (CATV), multiple system operator (MSO), satellite and telecommunication providers also require their installers to apply a torque requirement of 25 to 30 in/lb to secure the fittings against the interface (reference plane). The torque requirement prevents loss of signals (egress) or introduction of unwanted signals (ingress) between the two mating surfaces of the male and female connectors, known in the field as the reference plane.
The following detailed description refers to the accompanying drawings. The same reference numbers in different drawings may identify the same or similar elements. Also, the following detailed description does not limit the invention.
A large number of home coaxial cable installations are often done by “do-it yourself” lay-persons who may not be familiar with such torque standards. In these cases, the installer will typically hand-tighten the coaxial cable connectors instead of using a tool, which can result in the connectors not being properly seated, either upon initial installation, or after a period of use. Upon immediately receiving a poor signal, the customer typically calls the CATV, MSO, satellite or telecommunication provider to request repair service. Obviously, this is a cost concern for the CATV, MSO, satellite and telecommunication providers, who then have to send a repair technician to the customer's home.
Moreover, even when tightened according to the proper torque requirements, another problem with such prior art connectors is the connector's tendency over time to become disconnected from the external device to which it is connected, due to forces such as vibrations, heat expansion, etc. Specifically, the internally threaded nut for providing mechanical attachment of the connector to an external device has a tendency to back-off or loosen itself from the threaded port connection of the external device over time. Once the connector becomes sufficiently loosened, electrical connection between the coaxial cable and the external device is broken, resulting in a failed condition. Embodiments described herein provide a connector with a biasing element that helps prevent the connector from being loosened, thereby helping to avoid a failed condition.
In one implementation, connector body 12, also referred to as collar 12, may include an elongated, generally cylindrical member, which may be made from plastic, metal or some other material or combination of materials. Connector body 12 may include a forward end 20 operatively coupled to annular post 16 and rotatable nut 18. Connector body 12 may also include a cable receiving end 22 located opposite forward end 20. Cable receiving end 22 may be configured to insertably receive locking sleeve 14, as well as a prepared end of a coaxial cable, such as coaxial cable 100 (shown in
Locking sleeve 14 may include a substantially tubular member having a rearward cable receiving end 30 and an opposite forward connector insertion end 32, which is movably coupled to the inner sleeve engagement surface 24 of connector body 12. As mentioned above, the outer cylindrical surface of locking sleeve 14 may include one or more ridges or projections 28, which cooperate with the groove or recess 26 formed in the inner sleeve engagement surface 24 of the connector body 12 to allow for the movable connection of locking sleeve 14 to connector body 12, such that locking sleeve 14 is lockingly axially moveable along the direction of arrow A toward the forward end 20 of the connector body 12 from a first position, as shown, for example, in
In some additional implementations, locking sleeve 14 may include a flanged head portion 34 disposed at the rearward cable receiving end 30 of locking sleeve 14. Head portion 34 may have an outer diameter that is larger than an inner diameter of connector body 12 and may further include a forward facing perpendicular wall 36, which serves as an abutment surface against which the rearward end of connector body 12 to prevent further insertion of locking sleeve 14 into body 12. A resilient, sealing O-ring 37 may be provided at forward facing perpendicular wall 36 to provide a substantially water-tight seal between locking sleeve 14 and connector body 12 upon insertion of the locking sleeve 14 within connector body 12 and advancement from the first position (
In some implementations, locking sleeve 14 may be detachably removed from connector 10, e.g., during shipment, etc., by, for example, snappingly removing projections 28 from groove/recess 26. Prior to installation, locking sleeve 14 may be reattached to connector body 12 in the manner described above.
As discussed above, connector 10 may further include an annular post 16 coupled to the forward end 20 of connector body 12. As illustrated in
As illustrated in
Connector 10 may be supplied in the assembled condition, as shown in
In either case, once the prepared end of a coaxial cable is inserted into connector body 12 so that the cable jacket is separated from the insulator by the sharp edge of annular post 16, locking sleeve 14 may be moved axially forward in the direction of arrow A from the first position (shown in
As illustrated in
In an exemplary implementation, to provide this load force, flanged base portion 38 of annular post 16 may be configured to include an internal annular notch for retaining a biasing element. For example, as illustrated in
In one implementation, biasing element 58 may include a coil spring that is made of a conductive, resilient material that is configured to provide a suitable biasing force between annular post 16 and rearward surface of port connector 48. The conductive nature of biasing element 58 may also enable effective transmission of electrical and radio frequency (RF) signals from annular post 16 to port connector 48, at varying degrees of insertion relative to port connector 48 and connector 10, as described in more detail below. In other implementations, biasing element 58 may include multiple coil springs, one or more wave springs (single or double wave), one or more conical spring washers (slotted or unslotted), one or more Belleville washers, or any other suitable biasing element, such as a conductive resilient component (e.g., a plastic or elastomeric member impregnated or injected with conductive particles), etc.
As discussed above, in one embodiment, biasing element 58 may include a coil spring. For example, biasing element 58 may be a coil spring made from wire having a 0.008 inch diameter. Alternatively, wires having any other diameter may be used to form biasing element 58. As illustrated in
In an initial, uncompressed state (as shown in
Continued insertion of port connector 48 into connector 10 may cause biasing element 58 to compress, thereby providing a load force between flanged base portion 38 and port connector 48 and decreasing the distance between rearward surface 62 of port connector 48 and forward surface 60 of annular post 16. For example, when nut 18 is tightened, biasing element 58 may be compressed such that the front face of biasing element 58 becomes flush with forward surface 60 of annular post 16, as illustrated in
The above-described connector may pass electrical and RF signals typically found in CATV, satellite, closed circuit television (CCTV), voice over Internet protocol (VoIP), data, video, high speed Internet, etc., through the mating ports (about the connector reference planes). Providing a biasing element, as described above, may also provide power bonding grounding (i.e., help promote a safer bond connection per NEC® Article 250 when biasing element 58 is under linear compression) and RF shielding (Signal Ingress & Egress).
Upon installation, annular post 16 may be incorporated into a coaxial cable (e.g., coaxial cable 100) between the cable foil and the cable braid and may function to carry the RF signals propagated by the coaxial cable. In order to transfer the signals, post 16 makes contact with the reference plane of the mating connector (e.g., port connector 48). By retaining electrically conductive biasing element 58 in notch 56, biasing element 58 is able to ensure electrical and RF contact at the reference plane of port connector 48 at various distances with respect to annular post 16, while simultaneously requiring minimal additional structural elements with respect to connector 10 as compared to conventional connectors. Therefore, by providing biasing element 58 in the forward portion of flanged base portion 38, connector 10 may allow for up to 270 degrees or more of “back-off” rotation of the nut 18 with respect to port connector 48 without signal loss. In other words, biasing element 58 helps to maintain electrical and RF continuity even if annular nut 18 is partially loosened. As a result, maintaining electrical and RF contact between the coaxial cable connector 10 and port connector 48 may be significantly improved as compared with prior art connectors. Further, compression of biasing element 58 provides equal and opposite biasing forces between the internal threads 52 of nut 18 and the external threads 54 of port connector 48, thereby reducing the likelihood of back-off due to environmental factors.
Referring now to
As also discussed above, connector 10 may further include annular post 16 coupled to forward end 20 of connector body 12. Forward end 20 of connector body 12, annular post 16, and nut 18 are described with respect to
As shown in
Connector 10 may be supplied in the assembled condition, as shown in
In each case, once the prepared end of a coaxial cable is inserted into connector body 12 so that the cable jacket is separated from the insulator by the sharp edge of annular post 16, locking sleeve 14 may be moved axially forward in direction A from the first position (shown in
As illustrated in
The interaction of end cap 458, biasing element 472, and post 16 to provide a load force is described below with respect to
End cap 458 may also include a rearward portion 468, which may have an outer diameter dee that is smaller than the outer diameter deo of body 462. In exemplary end cap 458 (e.g., shown in
Upon axial insertion of end cap 458 into biasing element 472, as shown in
As shown in
Thus, in the embodiment shown in
Press fitting end cap 458 into biasing element 472, as shown in
Biasing element 472 may include a conductive, resilient element configured to provide a suitable biasing force between annular post 16 and end cap 458. The conductive nature of biasing element 472 may also provide an electrical path from surface 453 (e.g., the outer shell) of port connector 48 to annular post 16. In one embodiment, end cap 458 may also be formed of a conductive material, such as metal, to provide an electrical path from surface 453 of port connector 48 the outer shell of port connector 48 and annular post 16.
In one embodiment, biasing element 472 may include one or more coil springs, one or more wave springs (single or double waves), one or more a conical spring washers (slotted or unslotted), one or more Belleville washers, or any other suitable biasing element, such as a conductive resilient element (e.g., a plastic or elastomeric member impregnated or injected with conductive particles), etc.
As illustrated in
In an initial, uncompressed state (as shown in
In a compressed state (as shown in
As shown in
As discussed, continued insertion of port connector 48 into connector 10 may cause biasing element 72 to compress, thereby moving end cap 458 axially relative to annular post 16. The compression of biasing element 472 may provide a load force between flanged base portion 38 and end cap 458, which is then transmitted to port connector 48. This load force is transferred to threads 52 and 54, thereby facilitating constant tension between threads 52 and 54 and facilitating a decreased likelihood that port connector 48 becomes loosened from connector 10 due to external forces, such as vibrations, heating/cooling, etc.
The above-described connector may pass electrical and RF signals typically found in CATV, satellite, CCTV, VoIP, data, video, high speed Internet, etc., through the mating ports (about the connector reference planes). Providing a biasing element, as described above, may also provide power bonding grounding (i.e., helps promote a safer bond connection per NEC® Article 250 when biasing element 72 is under linear compression) & RF shielding (Signal Ingress & Egress).
Upon installation, the annular post 16 may be incorporated into a coaxial cable between the cable foil and the cable braid and may function to carry the RF signals propagated by the coaxial cable. In order to transfer the signals, annular post 16 makes contact with the reference plane of the mating connector (e.g., port connector 48). By providing a spring-loaded end cap 458 for interfacing between post 16 and port connector 48, and biasing the end cap 458 with biasing element 472 located in front of annular post 16, the connector 10 described herein ensures electrical and RF contact at a more uniform reference plane between port connector 48 and annular post 16. Furthermore, by positioning biasing element 472 outside of end cap 458, a more uniform electrically conductive environment may be provided. The stepped nature of post 16 enables compression of biasing element 472, while simultaneously supporting direct interfacing between post 16 and port connector 48. Further, compression of biasing element 472 provides equal and opposite biasing forces between internal threads 54 of nut 18 and external threads 52 of port connector 48.
In one embodiment (not shown), body 462 of end cap 458 may be tapered. In this embodiment, when biasing element 472 is press fit onto end cap 458, end cap 458 may engage the most forward end of biasing element 472 (e.g., the leading coil of biasing element 472 if biasing element 472 is a coil spring).
In yet another embodiment, outer diameter deo of end cap 458 may be smaller than inner diameter dbi of biasing element 472. In this embodiment, end cap 458 may not tightly hold biasing element 472 and end cap 458 may be inserted into connector 10 (e.g., into nut 38) when connecting to connector port 48. In one embodiment, end cap 458 may be omitted entirely, instead relying on biasing element 472 to provide biasing force against end surface 453 of connector port 48.
In another embodiment, outer diameter dbo of biasing element 472 may be smaller than inner diameter dp2 of surface 482 of post 16. In this embodiment, post 16 may not tightly hold biasing element 472 and biasing element 472 (possibly tightly held to end cap 458) may be inserted into connector 10 (e.g., into nut 18) when connecting to connector port 48.
In another embodiment, end cap 458 may be press fit such around biasing element 472 such that biasing element 472 is within the space formed by body 462 of end cap 458. Further, in another embodiment, biasing element 472 may be press fit into post 16 such that a portion of post 16 is within a central space formed by element 472.
Referring now to
As discussed above, locking sleeve 14 may include a substantially tubular body having a rearward cable receiving end 30 and an opposite forward connector insertion end 32, movably coupled to inner sleeve engagement surface 24 of the connector body 12.
As illustrated in
In each case, once the prepared end of a coaxial cable is inserted into connector body 12 so that the cable jacket is separated from the insulator by the sharp edge of annular post 16, locking sleeve 14 may be moved axially forward in the direction of arrow A from the first position (shown in
To provide this load force, an internal diameter of flanged base portion 38 of annular post 16 may be configured to include an annular notch 1056 for retaining a rearward portion of an end cap 1058. Base portion 1038 may further include a retaining lip 1060 formed at the forward end of base portion 1038 adjacent to annular notch 56 for engagingly receiving end cap 1058. Retaining lip 1060 may have an internal diameter smaller than an internal diameter of annular notch 1056.
As illustrated in
Rearward portion 1068 of end cap 1058 may include a radially extending retaining flange 1070 configured to retain end cap 1058 with annular post 16. In one implementation, retaining flange 1070 may be configured to include a rearwardly chamfered outer surface for facilitating insertion of retaining flange 1068 into flanged base portion 38 of annular post 16. Upon axial insertion of end cap 1058 into annular post 16, retaining flange 1068 may engage retaining lip 1060 to prevent or inhibit removal of end cap 1058 from annular post 16. With this arrangement, the end cap 1058 can be easily snap fit into the forward end of flanged base portion 1038. As discussed below, end cap 1058 may be axially movable with respect to annular post 16.
Consistent with embodiments described herein, a biasing element 1072 may be positioned between a rearward surface of flanged portion 1068 and a forward surface of base portion 1064. Biasing element 1072 may include a conductive, resilient element configured to provide a suitable biasing force between annular post 16 and end cap 1058. The conductive nature of biasing element 1072 may also facilitate passage of electrical and RF signals from port connector 48 contacting end cap 1058 (see
In one implementation, biasing element 1072 may include one or more coil springs, one or more wave springs (single or double waves), one or more a conical spring washers (slotted or unslotted), one or more Belleville washers, or any other suitable biasing element, such as a conductive resilient element (e.g., a plastic or elastomeric member impregnated or injected with conductive particles), etc.
As illustrated in
In an initial, uncompressed state (as shown in
Continued insertion of port connector 48 into connector 10 may cause biasing element 1072 to compress, thereby enabling end cap 1058 to move axially within annular post 16. The compression of biasing element 1072 providing a load force between flanged base portion 1038 and end cap 1058, which is then transmitted to port connector 48. This load force is transferred to threads 52 and 54, thereby facilitating constant tension between threads 52 and 54 and facilitating a decreased likelihood that port connector 48 becomes loosened from connector 10 due to external forces, such as vibrations, heating/cooling, etc.
The above-described connector may pass electrical and RF signals typically found in CATV, satellite, CCTV, VoIP, data, video, high speed Internet, etc., through the mating ports (about the connector reference planes). Providing a biasing element, as described above, may also provide power bonding grounding (i.e., helps promote a safer bond connection per NEC® Article 250 when biasing element 1072 is under linear compression) & RF shielding (Signal Ingress & Egress).
Upon installation, the annular post 16 may be incorporated into a coaxial cable between the cable foil and the cable braid and may function to carry the RF signals propagated by the coaxial cable. In order to transfer the signals, annular post 16 makes contact with the reference plane of the mating connector (e.g., port connector 48). By providing a spring-loaded end cap 1058 for interfacing between post 16 and port connector 48, and biasing the end cap 1058 with biasing element 1072 located in front of annular post 16, the connector 10 described herein ensures electrical and RF contact at a more uniform reference plane between port connector 48 and annular post 16. Furthermore, by positioning biasing element 1072 outside of end cap 1058, a more uniform electrically conductive environment may be provided. The stepped nature of post 16 enables compression of biasing element 1072, while simultaneously supporting direct interfacing between post 16 and port connector 48. Further, compression of biasing element 1072 provides equal and opposite biasing forces between internal threads 54 of nut 18 and external threads 52 of port connector 48.
As described above, biasing elements described above (e.g., biasing element 58, 472 and 1072) enhance retention force between the nut and the port connector by providing a constant load force on the port connector.
Referring to
The cylindrical wall 1358 of end cap 1350 terminates at a lip or hook portion 1364 opposite base 1356. Lip 1364 includes a forward facing wall 1366 and a rearward facing chamfered wall 1368. The inner diameter of lip 1364 is slightly larger than the outer diameter of post shoulder portion 38 so that, when assembled to the post, end cap 1350 is in a close axially sliding relationship with the shoulder portion of the post.
Shoulder portion 38 of post 16 is preferably provided with a radial flange 1370 for retaining end cap 1350 to the post. Specifically, radial flange 1370 extends radially outwardly from the outer diameter of post shoulder portion 38 and has an outer diameter slightly smaller than the inner diameter of cylindrical wall 1358 of end cap 1350. Radial flange 1370 further includes a rearward facing wall 1372 and a forward facing chamfered wall 1374.
With this arrangement, end cap 1350 can be easily snap fit over the forward end 1352 of the post shoulder portion. Chamfered walls 1368 and 1374 of end cap 1350 and the post radial flange 1370 facilitate forward insertion of the post into end cap 1350, while forward facing wall 1366 of end cap lip 1364 and rearward facing wall 1372 of post flange 1370 prevent removal of post 16 from within end cap 1350. However, a certain amount of axial movement between end cap 1350 and post 16 is permitted.
Thus assembled, end cap 1350 and post 16 define a chamber 1376 therebetween. Retained within chamber 1376 is biasing element 1354 for urging post 16 and end cap 1350 in axially opposite directions. In its initial non-compressed state, biasing element 1354 preferably separates end cap 1350 and post 16 at their maximum permitted axial distance. As will be discussed in further detail below, biasing element 1354 is compressible so as to permit chamber 1376 to decrease in size.
Biasing element 1354 may be a compression spring, a wave spring (single or double wave), a conical spring washer (slotted or unslotted), a Belleville washer, or any other suitable element for applying a biasing force between the 16 and end cap 1350, without locking post 16 to end cap 1350. In an exemplary implementation, biasing element 1354 may also be made from an electrically conductive material for conducting the electrical signal from post 16 to end cap 1350. For example, biasing element 1354 may be maintained in electrical contact with forward face 1378 of the post shoulder portion 38, and is further maintained in electrical contact with base 1356 of end cap 1350. Thus, electrical continuity is maintained between post 16 and end cap 1350.
Biasing element 1354 provides a biasing force on end cap 1350 urging forward face 1360 of the end cap in a forward direction, as indicated by arrow A in
Retaining biasing element 1354 between end cap 1350 and forward face 1378 of the post shoulder portion 38 provides a constant tension between post 16 and end cap 1350, which allows for up to 360 degree “back-off” rotation of nut 18 on a terminal, without signal loss. As a result, maintaining electrical contact between coaxial cable connector 10 and the signal contact of the port connector is improved by a factor of 400-500%, as compared with prior art connectors.
In addition, as discussed above, in some implementations, locking sleeve 14 illustrated in, for example,
As a result of aspects described herein, a spring loaded coaxial RF interface (“F” male connector) is provided that continues to propagate and shield RF signals regardless of torque requirements, such as that recommended by the SCTE. This condition is met when the biasing element is under linear compression and/or the F Male connector-coupling nut allows a gap (clearance) of less than approximately 0.043 inches between the reference planes.
The connector of the present invention passes electrical and RF signals typically found in CATV, satellite, CCTV, VoIP, data, video, high speed Internet, etc., through the mating ports (about the connector reference planes). The spring loaded post provides power bonding grounding (i.e., helps promote a safer bond connection per NEC® Article 250 when spring is under linear compression) & RF shielding (Signal Ingress & Egress).
Upon installation, the connector post is incorporated into the cable between the cable foil and the cable braid and carries the RF signals. In order to transfer the signals, the post must make contact with the reference plane of the mating connector. The wave spring positioned in front of the post flange, and located within the end cap, ensures electrical and RF contact at the reference plane. Also, the recess feature in the end cap retains the spring for compression against the post interface, thereby extending an opposite and equal force against the spring and the post interface. The end cap is retained externally on the post outer diameter with a snap feature and is allowed to axially float. This allows the electrical and RF signals to pass through the reference plane during a 360 degree back off rotation of the connector nut.
Although the illustrative embodiments of the present invention have been described herein with reference to the accompanying drawings, it is to be understood that the invention is not limited to those precise embodiments, and that various other changes and modifications may be effected therein by one skilled in the art without departing from the scope or spirit of the invention.
The foregoing description of exemplary implementations provides illustration and description, but is not intended to be exhaustive or to limit the embodiments described herein to the precise form disclosed. Modifications and variations are possible in light of the above teachings or may be acquired from practice of the embodiments.
For example, various features have been mainly described above with respect to coaxial cables and connectors for securing coaxial cables. For example, the coaxial cable connector described herein may be used or usable with various types of coaxial cables, such as 50, 75, or 93 ohm coaxial cables, or other characteristic impedance cable designs. In other implementations, features described herein may be implemented in relation to other types of cable interface technologies.
Although the invention has been described in detail above, it is expressly understood that it will be apparent to persons skilled in the relevant art that the invention may be modified without departing from the spirit of the invention. Various changes of form, design, or arrangement may be made to the invention without departing from the spirit and scope of the invention. Therefore, the above mentioned description is to be considered exemplary, rather than limiting, and the true scope of the invention is that defined in the following claims.
No element, act, or instruction used in the description of the present application should be construed as critical or essential to the invention unless explicitly described as such. Also, as used herein, the article “a” is intended to include one or more items. Further, the phrase “based on” is intended to mean “based, at least in part, on” unless explicitly stated otherwise.
This application claims priority under 35 U.S.C. §119 based on U.S. Provisional Patent Application Nos. 61/101,185 filed Sep. 30, 2008, 61/101,191, filed Sep. 30, 2008, 61/155,246, filed Feb. 25, 2009, 61/155,249, filed Feb. 25, 2009, 61/155,250, filed Feb. 25, 2009, 61/155,252, filed Feb. 25, 2009, 61/155,289, filed Feb. 25, 2009, 61/155,297, filed Feb. 25, 2009, 61/175,613, filed May 5, 2009, and 61/242,884, filed Sep. 16, 2009, the disclosures of which are all hereby incorporated by reference herein. This application is also related to co-pending U.S. patent application Ser. No. ______, entitled “Cable Connector,” Attorney Docket No. 0067-0014 filed, ______, and U.S. patent application Ser. No. ______, entitled “Cable Connector,” Attorney Docket No. 0067-0016, filed ______, the disclosures of which are both hereby incorporated by reference herein.
Number | Date | Country | |
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61101185 | Sep 2008 | US | |
61101191 | Sep 2008 | US | |
61155246 | Feb 2009 | US | |
61155249 | Feb 2009 | US | |
61155250 | Feb 2009 | US | |
61155252 | Feb 2009 | US | |
61155289 | Feb 2009 | US | |
61155297 | Feb 2009 | US | |
61175613 | May 2009 | US | |
61242884 | Sep 2009 | US |