e-30 sin() -1 backward substitution method 4. Given A = sin(t) cos(t) tanto find the following...
Given ? = a. Matrix of minors (2pts) b. Matrix of cofactors (2pts) c. Adjoint matrix (2pts) d. Determinant of A (2pts) e. Inverse of A using the Adjoint matrix. (2pts)
Determine whether the given matrix is orthogonal. If it is, find its inverse. cos sin cos sin A = [ cose sin e sin e 0 cos e - cos ]
EXERCISE 5.2 1. Evaluate the following determinants: 2. Determine the signs to be attached to the relevant minors in order to get the following cofactors of a determinant: (C13l, IC23i, (C3sl. Canl, and Cu). 6. Find the minors and cofactors of the third row, given EXERCISE 5.3 4. Test whether the following matrices are nonsingular: EXERCISE 5.4 4. Find the inverse of each of the following matrices: 6. Solve the system Ax=d by matrix inversion, where EXERCISE 5.5 1. Use Cramer's rule to solve the following equation systems: 3. Use Cramer's...
Assume sin S = {}, cos S = 4, sin T = 1, cos T = Find the given quantities without using a calculator. Give answer as a fraction (for instance on half would be written 1/2) Sin (S +T)= Cos (S+T)=
6. Find the minors and cofactors of the third row, given 9 11 4 A= 3 27 6 10 4 4. Find the inverse of each of the following matrices: 4 -2 1 100 (a) E = 7 3 0 (CG= 0 0 1 2 0 1 0 1 0 -1 2 100 (6) F= 03 (d) H= 0 1 0 4 02 0 0 1 1
T Find the length of the curve e' cos(t) e' sin(t) for 0 < t < 2 y (Hint: You can simplify the integrand by expanding the argument inside the square root and applying the Pythagorean identity, sinº (0) + cos²O) = 1.)
Integration by substitution 1. Find each of the following indefinite integrals using integration by substitution: dz (a) / (xºcos(x4) ) do (c) / (sin(2) cromka) die (e) / (24) do (a) / (2.eller) die (0) / (zlog.cz) Integration by parts 2. Find each of the following indefinite integrals using integration by parts: (a) / (+cos(x)) dx (c) / (vVy + 1) dy (e) / (sin”(w) ) at (8) / (sin(o) cos(0) ) da (b) / (x2=+) di (a) / (x2108_(2))...
VER, DER, 4) Prove that the rotation matrices [cos – sin 07 1(0) 4 sinŲ cos x 0, 0 0 1 cose 0 sin 0] O(0) 4 0 1 0 , 1-sin 0 cos e ſi 0 0 1 0(0) 4 0 cos – sin 0, 0 sinº cos 0 ] are rotation matrices, that is, V-7(4) = \T(4), 6-7(0) = OT(0), $ER, 6-7(0) = $1(0), and det(\())) = 1, det(O(0)) = 1, det($(0)) = 1. Prove also that R321(4,0,0)...
solve these recurrences using backward substitution method: a- T(n)=T(3n/4)+n b-T(n) = 3 T(n/2) +n
If u(t) = (sin(2t), cos(3), t) and v(t) = (t cos(3), sin(2t)), use Formula 4 of this theorem to find lu(e) • vce). dt