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A rotation joint and methods for rotationally coupling a swing tip assembly to a fluid-dynamic body are presented. A rotation plate configured to couple to the swing tip assembly comprises a slide ring comprising an open center, an upper slide surface, an inner slide surface, and a lower slide surfa

A rotation joint and methods for rotationally coupling a swing tip assembly to a fluid-dynamic body are presented. A rotation plate configured to couple to the swing tip assembly comprises a slide ring comprising an open center, an upper slide surface, an inner slide surface, and a lower slide surface. An upper joint plate is slidably coupled to the upper slide surface and the inner slide surface is configured to couple the fluid-dynamic body. A lower joint plate is slidably coupled to the lower slide surface and the inner slide surface, and is coupled to the upper joint plate through the open center. The lower joint plate is configured to couple to the fluid-dynamic body.

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1. A rotation joint for rotationally coupling a swing tip assembly to a fluid-dynamic body, the rotation joint comprising: a rotation plate operable to couple to a swing tip assembly, and comprising a slide ring comprising an open center, an upper slide surface, an inner slide surface, and a lower s

1. A rotation joint for rotationally coupling a swing tip assembly to a fluid-dynamic body, the rotation joint comprising: a rotation plate operable to couple to a swing tip assembly, and comprising a slide ring comprising an open center, an upper slide surface, an inner slide surface, and a lower slide surface;an upper joint plate slidably coupled to the upper slide surface and the inner slide surface, and operable to couple to a fluid-dynamic body; anda lower joint plate slidably coupled to the lower slide surface and the inner slide surface, and operable to couple to the fluid-dynamic body, and coupled to the upper joint plate through the open center. 2. The rotation joint of claim 1, further comprising a lower access cover plate coupled to the lower joint plate and operable to allow access to the open center. 3. The rotation joint of claim 1, further comprising a swing tip actuator coupled to the rotation joint and the fluid-dynamic body, and operable to rotate the swing tip assembly in a plane of the fluid-dynamic body in response to an actuation. 4. The rotation joint of claim 3, wherein the swing tip actuator comprises one of: a linear hydraulic actuator, and a ball screw actuator. 5. The rotation joint of claim 1, further comprising a lock mechanism operable to lock the rotation plate in a rotation position relative to the upper joint plate and the lower joint plate when actuated. 6. The rotation joint of claim 1, wherein: a plurality of lightening pockets are placed on the upper joint plate where the upper joint plate mates with the lower joint plate, anda low friction wear strip material is placed between the rotation joint and the upper joint plate and the rotation joint and the lower joint plate. 7. The rotation joint of claim 1, further comprising: the fluid dynamic-body comprising a wing of an aircraft; andthe swing tip assembly comprising a wing tip. 8. The rotation joint of claim 7, further comprising a navigation light located near a separation section between the fluid-dynamic body and the swing tip assembly and operable to be exposed and activated in response to rotation of the swing tip assembly. 9. The rotation joint of claim 7, wherein the swing tip assembly further comprises a moving panel located near a fixed part of the fluid-dynamic body and operable to move before the swing tip assembly is rotated. 10. A method for providing rotation of a swing tip assembly coupled to a fluid-dynamic body, the method comprising: providing a rotation plate operable to couple to a swing tip assembly, and comprising a slide ring comprising an open center, an upper slide surface, an inner slide surface, and a lower slide surface;slidably coupling an upper joint plate to the upper slide surface and the inner slide surface, the upper joint plate operable to couple to a fluid-dynamic body;slidably coupling a lower joint plate to the lower slide surface and the inner slide surface, the lower joint plate operable to couple to the fluid-dynamic body; andcoupling the lower joint plate to the upper joint plate through the open center. 11. The method of claim 10, further comprising: coupling the lower joint plate and the upper joint plate to the fluid dynamic-body; andcoupling the rotation plate to the swing tip assembly. 12. The method of claim 11, further comprising configuring the rotation plate to rotate the swing tip assembly in a plane of the fluid-dynamic body. 13. The method of claim 11, wherein: the fluid-dynamic body comprises a wing of an aircraft; andthe swing tip assembly comprises a wing tip. 14. A method for operating a rotation joint for a swing tip assembly coupled to a fluid-dynamic body, the method comprising: sliding an upper slide surface of a slide ring of a rotation plate on an upper slidable coupling to an upper joint plate coupled to the fluid-dynamic body;sliding a lower slide surface of the slide ring on a lower slidable coupling to a lower joint plate coupled to the fluid-dynamic body;sliding an inner slide surface of the slide ring on the upper slidable coupling to the upper joint plate and on the lower slidable coupling to the lower joint plate, the lower joint plate coupled to the upper joint plate through an open center of the slide ring; andconfiguring a position of the swing tip assembly in a plane of the fluid-dynamic body by rotation of the rotation plate relative to the upper joint plate and the lower joint plate, the rotation plate coupled to the swing tip assembly. 15. The method of claim 14, further comprising moving a moving panel located near a fixed part of the fluid-dynamic body before the swing tip assembly is rotated. 16. The method of claim 14, further comprising maintaining the swing tip assembly in line with the fluid-dynamic body in a high speed extended configuration without rotation during a high speed flight condition. 17. The method of claim 14, further comprising rotating the swing tip assembly forward to provide a high speed fluid-dynamic efficiency. 18. The method of claim 14, further comprising rotating the swing tip assembly partially aft in a low speed rotated swept back configuration to provide a low speed fluid-dynamic efficiency. 19. The method of claim 14, further comprising rotating the swing tip assembly aft in full rotation to provide a rotated stowed position when an aircraft is on ground. 20. The method of claim 14, further comprising locking the position by locking a rotation position of the rotation plate relative to the upper joint plate and the lower joint plate.