초록 ▼

Methods and systems for manufacturing composite aircraft wings and other structures are disclosed herein. A tool assembly for use in manufacturing composite laminates in accordance with one embodiment of the invention includes a tool plate carried by a movable support system. The tool plate include

Methods and systems for manufacturing composite aircraft wings and other structures are disclosed herein. A tool assembly for use in manufacturing composite laminates in accordance with one embodiment of the invention includes a tool plate carried by a movable support system. The tool plate includes a tool surface configured to support fiber-reinforced resin material and define an outer mold line (OML) of the fiber-reinforced resin material. The movable support system is configured to respond to signals from a controller to automatically change the shape of the tool surface and alter the OML of the finished part to suit the particular application. In one embodiment, the movable support system can include a plurality of telescoping actuators operably coupled to the tool plate.

대표청구항 ▼

We claim: 1. A method of manufacturing aircraft wing skins, the method comprising: providing a wing skin tool having a concave tool surface configured to support one or more plies of fiber-reinforced resin material disposed thereon, the tool surface defining an outer mold line of the fiber-reinforc

We claim: 1. A method of manufacturing aircraft wing skins, the method comprising: providing a wing skin tool having a concave tool surface configured to support one or more plies of fiber-reinforced resin material disposed thereon, the tool surface defining an outer mold line of the fiber-reinforced resin material; manufacturing a first skin for a first wing by: positioning a first portion of prefabricated fiber-reinforced resin material over a first portion of the tool surface to at least generally cover the first portion of the tool surface; curing the first portion of fiber-reinforced resin material to harden the first portion of fiber-reinforced resin material and form a first wing skin; and removing the first wing skin from the wing skin tool, wherein the first wing skin has a first tip portion spaced apart from a first root portion by a first span length; and manufacturing a second skin for a second wing by: positioning a second portion of prefabricated fiber-reinforced resin material over a second portion of the tool surface to at least generally cover the second portion of the tool surface; and curing the second portion of fiber-reinforced resin material to harden the second portion of fiber-reinforced resin material and form a second wing skin, wherein the second wing skin has a second tip portion spaced apart from a second root portion by a second span length, the second span length being less than the first span length. 2. The method of claim 1 wherein positioning a first portion of fiber-reinforced resin material on the tool surface includes extending the first portion of fiber-reinforced resin material over a full length of the tool surface, and wherein positioning a second portion of fiber-reinforced resin material on the tool surface includes extending the second portion of fiber-reinforced resin material over a partial length of the tool surface. 3. The method of claim 1 wherein positioning a first portion of fiber-reinforced resin material on the tool surface includes extending the first portion of fiber-reinforced resin material over a full length of the tool surface from a wing tip region to a wing root region, and wherein positioning a second portion of fiber-reinforced resin material on the tool surface includes extending the second portion of fiber-reinforced resin material over a partial length of the tool surface from the wing tip region to short of the wing root region. 4. A method of manufacturing aircraft wing skins, the method comprising: providing a wing skin tool having a concave tool surface configured to support one or more plies of fiber-reinforced resin material disposed thereon, the tool surface defining an outer mold line of the fiber-reinforced resin material; manufacturing a first skin for a first wing by; positioning a first portion of prefabricated fiber-reinforced resin material over a first portion of the tool surface to at least generally cover the first portion of the tool surface; positioning an additional portion of fiber-reinforced resin material on the first portion of fiber-reinforced resin material to form a built up area; curing the first portion of fiber-reinforced resin material and the additional portion of fiber-reinforced resin material to harden the first portion of fiber-reinforced resin material and the additional portion of fiber-reinforced resin material and form a first wing skin; machining a rib groove in the built up area after curing the first portion of fiber-reinforced resin material and the additional portion of fiber-reinforced resin material; removing the first wing skin from the wing skin tool, wherein the first wing skin has a first tip portion spaced apart from a first root portion by a first span length; and manufacturing a second skin for a second wing by: positioning a second portion of prefabricated fiber-reinforced resin material over a second portion of the tool surface to at least generally cover the second portion of the tool surface; and curing the second portion of fiber-reinforced resin material to harden the second portion of fiber-reinforced resin material and form a second wing skin, wherein the second wing skin has a second tip portion spaced apart from a second root portion by a second span length, the second span length being less than the first span length. 5. The method of claim 4 wherein the first wing skin has a first shape, and wherein manufacturing a second skin for a second wing further includes changing the shape of the tool surface so that the second wing has a second shape, different from the first shape. 6. The method of claim 4 wherein the first wing skin has a first camber, and wherein manufacturing a second skin for a second wing further includes changing the shape of the tool surface so that the second wing has a second camber, different from the first camber. 7. The method of claim 4 wherein the first wing skin has a first twist, and wherein manufacturing a second skin for a second wing further includes changing the shape of the tool surface so that the second wing has a second twist, different from the first twist. 8. A method of claim 4, further comprising: forming a second groove in the second wing skin in the same locations relative to the tool surface as the first groove in the first wing skin. 9. A method of manufacturing wing skins for a family of different aircraft wings, the method comprising: providing a wing skin tool having a conformable tool surface configured to support one or more plies of fiber-reinforced resin material disposed thereon, the tool surface defining an outer mold line of the fiber-reinforced resin material; manufacturing a first skin for a first wing by: moving the tool surface to a first shape; while maintaining the tool surface in the first shape, positioning a first portion of prefabricated fiber-reinforced resin material over a first portion of the tool surface to at least generally cover the first portion of the tool surface; positioning an additional portion of fiber-reinforced resin material on the first portion of fiber-reinforced resin material; curing the first portion of fiber-reinforced resin material and the additional portion of fiber-reinforced resin material to harden the first portion of fiber-reinforced resin material and the additional portion of fiber-reinforced resin material and form a first wing skin; forming a groove in the additional portion of fiber-reinforced resin material after curing the first portion of fiber-reinforced resin material and the additional portion of fiber-reinforced resin material, wherein the groove is configured to receive a structural member; and removing the first wing skin from the wing skin tool, wherein the first wing skin has a first tip portion spaced apart from a first root portion by a first span length; and manufacturing a second skin for a second wing by; changing the shape of the tool surface from the first shape to a second shape; while maintaining the tool surface in the second shape, positioning a second portion of prefabricated fiber-reinforced resin material over a second portion of the tool surface to at least generally cover the second portion of the tool surface, wherein the second portion of the tool surface is different than the first portion of the tool surface; and curing the second portion of fiber-reinforced resin material to harden the second portion of fiber-reinforced resin material and form a second wing skin, wherein the second wing skin has a second tip portion spaced apart from a second root portion by a second span length, the second span length being less than the first span length. 10. The method of claim 9 wherein the first wing skin has a first camber, and wherein changing the shape of the tool surface from the first shape to a second shape includes changing the shape of the tool surface so that the second wing has a second camber, different from the first camber. 11. The method of claim 9 wherein the first wing skin has a first twist, and wherein changing the shape of the tool surface from the first shape to a second shape includes changing the shape of the tool surface so that the second wing has a second twist, different from the first twist. 12. The method of claim 9 wherein moving the tool surface to a first shape includes automatically controlling a plurality of actuators operably coupled to the tool surface to form the tool surface into the first shape, and wherein changing the shape of the tool surface from the first shape to a second shape includes automatically controlling the plurality of actuators to form the tool surface into the second shape, different from the first shape. 13. The method of claim 9 wherein changing the shape of the tool surface includes automatically changing the shape of the tool surface in response to instructions from a computer program. 14. The method of claim 9 wherein changing the shape of the tool surface includes automatically extending one or more actuators operably coupled to the tool surface in response to instructions from a computer program. 15. The method of claim 9: wherein positioning a first portion of fiber-reinforced resin material over a first portion of the tool surface includes automatically positioning fiber-reinforced resin material on the tool surface in response to instructions from a first computer program; and wherein changing the shape of the tool surface includes automatically changing the shape of the tool surface in response to instructions from a second computer program. 16. The method of claim 9 wherein positioning a first portion of fiber-reinforced resin material on the tool surface includes extending the first portion of fiber-reinforced resin material over a full length of the tool surface from a wing tip region to a wing root region, and wherein positioning a second portion of fiber-reinforced resin material on the tool surface includes extending the second portion of fiber-reinforced resin material over a partial length of the tool surface from the wing tip region to short of the wing root region. 17. The method of claim 9 wherein providing a wing skin tool having a conformable tool surface includes providing a wing skin tool with a trapezoidal shaped planform. 18. A method of manufacturing wing skins for a family of different aircraft wings, the method comprising: providing a wing skin tool having a conformable tool surface configured to support one or more plies of fiber-reinforced resin material disposed thereon, the tool surface defining an outer mold line of the fiber-reinforced resin material; manufacturing a first skin for a first wing by: positioning a first portion of prefabricated fiber-reinforced resin material over a first portion of the tool surface to at least generally cover the first portion of the tool surface; positioning an additional portion of fiber-reinforced resin material on the first portion of fiber-reinforced resin material to form a built up area; curing the first portion of fiber-reinforced resin material and the additional portion of fiber-reinforced resin material to harden the first portion of fiber-reinforced resin material and the additional portion of fiber-reinforced resin material and form a first wing skin; machining a rib groove in the built up area after curing the first portion of fiber-reinforced resin material and the additional portion of fiber-reinforced resin material; removing the first wing skin from the wing skin tool, wherein the first wing skin has a first tip portion spaced apart from a first root portion by a first span length; and manufacturing a second skin for a second wing by: changing the shape of the tool surface; positioning a second portion of prefabricated fiber-reinforced resin material over a second portion of the tool surface to at least generally cover the second portion of the tool surface, wherein the second portion of the tool surface is different than the first portion of the tool surface; and curing the second portion of fiber-reinforced resin material to harden the second portion of fiber-reinforced resin material and form a second wing skin, wherein the second wing skin has a second tip portion spaced apart from a second root portion by a second span length, the second span length being less than the first span length.