1. Find the rank of the matrix π΄ = ࡦ 1 2 3 4 β2 β3 1 2 β3 β4 5 8 1 3 10 14 ΰ΅ͺ by reducing to Echelon form. 2. Find the inverse of the matrix π΄ by Gauss-Jordan method, where π΄ = ΰ΅₯ 1 3 3 1 4 3 1 3 4 ΰ΅© 3. Find the rank of the matrix π΄ = ΰ΅₯ 1 3 4 5 1 2 6 7 1 5 0 10 ΰ΅© by reducing it to the normal form. 4. Find the rank of the matrix π΄ by reducing it to the normal form, where π΄ = ࡦ 2 β4 3 β1 0 1 β2 β1 β4 2 0 1 β1 3 1 4 β7 4 β4 5 ΰ΅ͺ 5. Find whether the following system of equations is consistent. If so, solve them π₯ + 2 π¦ + 2 π§ = 2, 3 π₯ β 2 π¦ β π§ = 5; 2 π₯ β 5 π¦ + 3 π§ = β4 π₯ + 4 π¦ + 6 π§ = 0 6. Find the values of π and π so that the equations 2 π₯ + 3 π¦ + 5 π§ = 9,7 π₯ + 3 π¦ + 2 π§ = 8,2 π₯ + 3 π¦ + ππ§ = π have (i) No solution (ii) Unique solution (iii) An infinite number of solutions. 7. Investigate for what values of π and π the equations π₯ + 2 π¦ + 3 π§ = 4, π₯ + 3 π¦ + 4 π§ = 5, π₯ + 3 π¦ + ππ§ = π have (i) No solution (ii) Unique solution (iii) An infinite number of solutions. 8. Solve the system of equations using Gauss- Seidel iteration method 27 π₯ + 6 π¦ β π§ = 85,6 π₯ + 15 π¦ + 2 π§ = 72 , π₯ + π¦ + 54 π§ = 110 9. Solve the system of equations by the Gauss-Seidel method: 8 π₯ ଡ β 3 π₯ ΰ¬Ά + 2 π₯ ΰ¬· = 20,4 π₯ ଡ + 11 π₯ ΰ¬Ά β π₯ ΰ¬· = 33 , 6 π₯ ଡ + 3 π₯ ΰ¬Ά + 12 π₯ ΰ¬· = 36 10. Find the Eigenvalues and Eigenvectors of π΄ = ΰ΅₯ 1 1 1 1 1 1 1 1 1 ΰ΅© 11. Diagonalize the matrix π΄ by orthogonal transformation, where π΄ = ΰ΅₯ 1 0 0 0 3 β1 0 β1 3 ΰ΅© 12. Verify the Cayley-Hamilton theorem for π΄ = ΰ΅₯ 1 2 β1 2 1 β2 2 β2 1 ΰ΅© and hence, find π΄ ΰ¬Έ and π΄ ΰ¬Ώ ଡ 13. Verify the Cayley-Hamilton theorem for π΄ = ΰ΅₯ 1 2 3 2 4 5 3 5 6 ΰ΅© and hence, find π΄ ΰ¬Έ and π΄ ΰ¬Ώ ଡ 14. Find the characteristic roots and characteristic vectors of the matrix π΄ = ΰ΅₯ 6 β2 2 β2 3 β1 2 β1 3 ΰ΅© 15. Find the eigenvalues and eigenvectors of the matrix π΄ = ΰ΅₯ 5 β2 0 β2 6 2 0 2 7 ΰ΅© 16. Reduce the quadratic form 3 π₯ ଡ ΰ¬Ά + 3 π₯ ΰ¬Ά ΰ¬Ά + 3 π₯ ΰ¬· ΰ¬Ά + 2 π₯ ଡ π₯ ΰ¬Ά + 2 π₯ ଡ π₯ ΰ¬· β 2 π₯ ΰ¬Ά π₯ ΰ¬· into sum of squares form by an orthogonal transformation and give the matrix of transformation. 17. Find the orthogonal transformation that transforms the quadratic form π₯ ΰ¬Ά + 3 π¦ ΰ¬Ά + 3 π§ ΰ¬Ά β 2 π¦π§ to the canonical form. 18. If π΄ = ΰ΅₯ 3 β1 1 β1 5 β1 1 β1 3 ΰ΅© , then find the modal matrix π and the spectral matrix π· , such that π ΰ¬Ώ ଡ π΄π = π· 19. State Rolle's theorem and Verify for π ( π₯ ) = π₯ ΰ¬· β 6 π₯ ΰ¬Ά + 11 π₯ β 6 in [1,3] 20. Verify Rolle's theorem for the function π ( π₯ ) = ΰ±ΰ§ΰ¬ ΰ―« ΰ― ΰ³£ in [0, π ]