The lateral-direction equations of motion of an aircraft in steady, straight and level flight are and where and v=-0.243v-136.25r+9.80-0.7595 +4.825 o=p (a) Consider the state-space representation of the equations of motion given by. Xlat Alat Xlat +Blatulat = with p+0.0557r=-0.195v-1.695p+0.913r+16.535 +6.995 0.0152p+r=0.106v+0.039p-0.624r Ylat = Clat Xlat + Dlat ulat Xlat = (V, p, r, 4) Ylat =(Y1, Y2, 3), Y₁ =B=V/VR. +0.3193-6.43% Y2 = r, y3 = (ªy) eg Y3 Determine the matrices Alat Blat, Clat, and Dlat = v +136.25r.

The lateral-direction equations of motion of an aircraft in steady, straight and level flight are and where and v=-0.243v-136.25r+9.80-0.7595 +4.825 o=p (a) Consider the state-space representation of the equations of motion given by. Xlat Alat Xlat +Blatulat = with p+0.0557r=-0.195v-1.695p+0.913r+16.535 +6.995 0.0152p+r=0.106v+0.039p-0.624r Ylat = Clat Xlat + Dlat ulat Xlat = (V, p, r, 4) Ylat =(Y1, Y2, 3), Y₁ =B=V/VR. +0.3193-6.43% Y2 = r, y3 = (ªy) eg Y3 Determine the matrices Alat Blat, Clat, and Dlat = v +136.25r.

Elements Of Electromagnetics

7th Edition

ISBN:9780190698614

Author:Sadiku, Matthew N. O.

Publisher:Sadiku, Matthew N. O.

ChapterMA: Math Assessment

Section: Chapter Questions

Problem 1.1MA

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