1. Find the Legendre polynomial PL(x) for L = 3,4,5,6
where the polynomian is the series solution for Legendre
equation
2. Find the other solution QL(x) for the Legendre
equation for L = 0,1,2
Please explain in full.
1. Find the Legendre polynomial PL(x) for L = 3,4,5,6 where the
polynomian is the series solution for Legendre equation
2. Find the other solution QL(x) for the Legendre equation for L
= 0,1,2
Please explain in full.
Prove that for arbitrary sets A, B, C the following
identities are true. Note that Euler Diagram is not a proof but can
be useful for you to visualize!
(A∩B)⊆(A∩C)∪(B∩C')
Bonus question:
A∪B∩A'∪C∪A∪B''=
=(A∩B∩C)∪(A∩B'∩C)∪(A'∩B∩C)∪(A'∩B∩C')
Use induction to prove
Let f(x) be a polynomial of degree n in Pn(R). Prove that for
any g(x)∈Pn(R) there exist scalars c0, c1, ...., cn such that
g(x)=c0f(x)+c1f′(x)+c2f′′(x)+⋯+cnf(n)(x), where f(n)(x)denotes the
nth derivative of f(x).
x:4,5,3,6,10
y:4,6,5,7,7
A.)Determine .95 confidence interval for the mean perdicted when
x =7
b.) Determine the .95 perdection interval for an indvidual
predicted when x =7
Prove the following:
Let f(x) be a polynomial in R[x] of positive degree n.
1. The polynomial f(x) factors in R[x] as the product of
polynomials of degree
1 or 2.
2. The polynomial f(x) has n roots in C (counting multiplicity).
In particular,
there are non-negative integers r and s satisfying r+2s = n such
that
f(x) has r real roots and s pairs of non-real conjugate complex
numbers as
roots.
3. The polynomial f(x) factors in C[x] as...