Sellised materjalid ongi komposiidid. Õhusõidukid ja rakettid said omamoodi uue etapi arenguks. [6] Komposiitmaterjalide omadused sulamite ees: tugevam; roostevaba; kulumiskindlus; ököloogilised omadused; Lennukiehituses kasutatav terve rida komposiitmaterjale: aramiidkiuga kangad kasutatakse põhiliselt valmistamiseks alumine osa kere õhusõiduki mootori pylons. süsiniku kangast kasutatakse valmistamisel juhtpindu, uksed, kapoti lennukimootoreid ja paljud teised elemendid. Klaaskiud kasutatakse tootmises vähem koormatud konstruktsiooni osad, nagu pitot surve, sisselaskeõhu jms 8 KOKKUVÕTE Materjalid, mida me kasutame lennukiehituses on muutnud aegadega, kui vanasti
reflect the construction process as well. The model was used a great deal for task and work sequencing, and for viewing work. All of the temporary structures, shoring towers, temporary piles, formwork and equipment were modelled. Carpenters would come to view the model to understand complex geometry before and while preparing formwork for concrete, such as the doubly curved stems of the pylons. Interestingly, due to limitations of the Tekla Structures software version in use at the time, complex double curved geometry could not be generated in the native application. To overcome this difficulty, the geometry of these faces was generated in a different tool and imported into Tekla as reference geometry. This issue has been addressed in newer versions of the Tekla Structures software as a direct result of the company's