Exercise 2.5. Use the Binomial Theorem to prove that, for all n ≥ 0 and for all x ∈ R, Xn k=0 k (n Ck) x ^k = nx(x + 1)n−1 .
Hint: Set y = 1 in Theorem 2.2.8 and then differentiate
Exercise 2.5. Use the Binomial Theorem to prove that, for all n ≥ 0 and for...
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Exercise 2.5. Use the Binomial Theorem to prove that, for all n 20 and for all x e R, Hint: Set y 1 in Theorem 2.2.8 and then differentiate. Exercise 2.6. Use the result of the previous exercise to find the value of the sum + 2 + 10 10
Prove the Binomial Theorem, that is Exercises 173 (vi) x+y y for all n e N C) Recall that for all 0rS L is divisible by 8 when n is an odd natural number vii))Show that 2 (vin) Prove Leibniz's Theorem for repeated differentiation of a product: If ande are functions of x, then prove that d (uv) d + +Mat0 for all n e N, where u, and d'a d/v and dy da respectively denote (You will need to...
prove e
EOLU Exercise 4.1.1. Prove Theorem 4.1.6. (Hints: for (a) and (b), use the root test (Theorem 7.5.1). For (c), use the Weierstrass M-test (Theorem 3.5.7). For (d). use Theorem 3.7.1. For (e), use Corollary 3.6.2. The signale UI tre rauUS UI CUNvergence is the IUIUWII. Theorem 4.1.6. Let - Cn(x-a)" be a formal power series, and let R be its radius of convergence. (e) (Integration of power series) For any closed interval [y, z] con- tained in (a...
The binomial theorem states that (a + b)n = Σ (prbn_k. (a) Use the binomial theorem to show that 2k-0 W = 2n. (Hint, 2n= (1 + 1)n.) (b) Expand (a2 + b)4.
Exercise 7.2.16 Use the dimension theorem to prove Theorem 1.3.1: If A is an m x n matrix with m <n, the system Ax = 0 of m homogeneous equations in n vari- ables always has a nontrivial solution.
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Exercise 25: Let f 0,R be defined by f(x)-1/n, m, with m,nENand n is the minimal n such that m/n a) Show that L(f, P)0 for all partitions P of [0, 1] b) Let mE N. Show that the cardinality of the set A bounded by m(m1)/2. e [0, 1]: f(x) > 1/m) is c) Given m E N construct a partition P such that U(f, Pm)2/m. d) Show that f is integrable and compute Jo...
(A and C)
Exercise 1.14. If n and k are integers, define the binomial coeffi- cient (m), read n choose k, by n! if 0 <k <n, = 0 otherwise. k!(n - k)! (a) Prove that ("#") = (m) + (-2) for all integers n and k. (b) By definition, () = 1 if k = 0 and 0 otherwise. The recursion relation in (a) gives a computational procedure, Pascal's triangle, for calculating binomial coefficients for small n. Start with...
1. Without using the Binomial Theorem, prove that for all non-negative integers n ΣΘ = 2". IM-
Use
the Binomial Theorem to show that
Σ(-1): c(n, k)= 0 -0
Exercise 7 (2 points) Recall the binomial coefficient for integer parameters 0 Sk< n. Prove that Exercise 8 (2 points) Prove the following: if z is an integer with at most three decimal digits aia2a3, then x is divisible by 3 if and only if aut a2 +a3 is divisible by 3. Exercise 9 (3 points) A square number is an integer that is the square of another integer. Let x and y be two integers, each of which can...