Determine the uniform convergence and convergence of the series ∑▒〖〖(f〗_n),〗 where f_n (x)is given by the following: (The Weoerstrass M-Test will be needed) a sin(x/n^2 ) b. 〖(nx)〗^(-2),x≠0, c. 〖(x^2+n^2)〗^(-1) d. (-1)^n (n+x)^(-1),x≥0, e. 〖(x^n+1)〗^(-1),x≥0
Scholes Systems supplies a particular type of office chair to large retailers. Scholes is concerned about the possible effect of inflation on its operations. Presently, the company sells 80,000 units for $60 per unit. The variable production costs are $30, and fixed costs amount to $1,400,000. Production engineers have advised m
Discuss convergence or divergence of the series whose nth term is 〖(-1)〗^n n^n/((〖n+1)〗^(n+1) ) (b) 〖(-1)〗^n 〖(n+1)〗^n/n^n (c) n^n/((〖n+1)〗^(n+1) ) (d) 〖(n+1)〗^n/n^(n+1) Given that ∑▒a_n is a convergent series of real numbers, Prove
Determine whether each of the following sequences of functions converges pointwise. If so determine if the convergence is uniform. See attachment for clarity. (i.) fn(x) =9 for x E [0, 1]. (ii.) fn(x) = 9(1-x) for x [0, 1]. (iii.) fn(x) = 9(1- 9) for x [0, 1].
1. Find the maclaurin series for f(x) = e^(3x) using the definition of the Maclaurin series. Assume that f has a power series representation. Find the associated radius of convergence. 2. Find the taylor series for f(x) = sin(x) centered at a = (pi/2), using the definition of a taylor series. Assume that f has a power series
Theorem: Let E and E' be metric spaces, with E compact and E' complete. Then the set of all continuous functions from E to E', with the distance between two such functions f and g taken to be max {d'( f(p), g(p) ) : p is an element of E} is a complete metric space. A sequence of points of this metric space converges if and only
Let S be a subset of the metric space E with the property that each point of eS is a cluster point of S (one then calls S dense in E). Let E' be a complete metric space and f:S->E' a uniformly continuous function. Prove that f can be extended to a continuous function from E into E' in one and only one way, and that this extended
Give an example of each of the following: a) an infinite subset of R with no cluster point b) a complete metric space that is bounded but not compact c) a metric space none of whose closed balls is complete
Let B = {[(-1^n](n)/(n + 1): n = 1, 2, 3, ...}. (a) Find the limit points of B. (b) Is B a closed set? (c) Is B an open set? (d) Does B contain any isolated points? (d) Find the closure of B.
What are the closure, interior, and boundary of an open ball in E^n? A closed ball in E^n? What are the closure, interior, and boundary of a subset S of E with the discrete distance function (d(p,q)=1 unless p=q)?
Let E be an arbitrary set and, for p,q (elements of) E, define d(p,q) = 0 if p = q, d(p,q) = 1 if p does not equal q. This is a metric space. What are the open and closed balls in this metric space? Show that two balls of different centers and radii may be equal. What are the open sets in this metric space?
Let S be a subset of the metric space E. A point p (element of ) S is called an interior point of S if there is an open ball in E of center p which is contained in S. Prove that the set of interior points of S is an open subset of E (called the interior of S) that contains all other open subsets of E that are contained in S.
(14) Guess the value of the limit (if it exists) by evaluating the function at the given numbers (correct to six decimal places). lim (x->16) (squareroot of x)- 4/(x-16), x = 17, 16.5, 16.1, 16.05, 16.01, 15, 15.5, 15.9, 15.95, 15.99.
Begin with Taylor series for the cosine and derive the equation: Sum (1/n^2) = Pi^2/8 Use the previous result and a smart choice of x to get that: sqrt(2) = (2*2*6*6*10*10....)/(1*3*5*7*.....). See the attached file.
CRA CDs, Inc. wants the mean lengths of the "cuts" on a CD to be 135 seconds (2 minutes and 15 seconds). This will allow the disk jockeys to have plenty of time for commercials within each 10-minute segment. Assume the distribution of the length of the cuts follows the normal distribution with a standard deviation of 8 seconds.
Please solve the problems in B.pdf file by using the textbook. The topics covered in this problem set are: 1. Metric spaces. Basic concepts ( Sections 5.1-5.2 ) Problems: - Section 5--# 1,2,4,5,6,7 2. Convergence. Open and closed sets (Sections 6.1-6.6) Problems: - Section 6--# 1,2,3,4,5,9,10 3. Complete m
Limit Find the indicated one-sided limit. If the limiting value is infinite, indicate whether it is +∞ or -∞. 1. 2. and lim f(x) where f(x)= Decide if the given function is continuous at the specific value of x and why? 1. f(x) = 2. f(x)= Please see the attached file for the fully formatted problem
I need help determining how to calculate the limit of a given series using the ratio test (particular problems I am struggling with are attached) Thanks for your help! a)Use the ratio test to decide if the series converges or diverges. Let L be the limit obtained when applying the ratio test. Determine the value of L.
In the textbook: Topological spaces 1.Compactness in Metric spaces (Sections 11.1-11.4) Problems: - Section 11 --# 1,2,3,4 2.Real functions on Metric and Topological Spaces (Sections 12.1.12.2) Problems: - Section 12 --# 1,2,3,5,6
** Please see the attached file for the complete problem description ** Let f be a function defined on R and, for each natural number n, define the function f_n by.... Decide whether or not you believe the statement is true.
You are the assistant to the CEO of a major company. Your CEO keeps an eye on the competition, and asks you to do the following. Using ratio analysis, compare two major competitors in the same industry. Pick any two U.S. public companies in the same industry (except Walgreen's or CVS Drugstores). Please use Target and Walma
** Please see the attached file for the complete problem description ** Please show all work (see attached) 1) Use integral test to determine if a series converges or diverges. Do not calculate what exact value series converges towards if it does converge. 2) Use integral test to determine if series converges or diverge
A. Let f: R--->R and let c be element in R. Show that the lim from x to c of f(x)=L if and only if lim from x to 0 of f(x+c)=L (if and only if: go both ways) b. Use either the epsilon-delta definition (which states: Let A be a subset of the reals and let c be a cluster point of A. For a function f: A--->R, a real number L is
My questions are from sections 5 and 6. Since most of questions are from section 6, I will just just attach reference_6 pdf file with my question sheet. I think you actually have all of my reference copies. This is the same on-line link to my textbook that I sent you earlier today: http://books.google.com/books?id=z8IaHg
From Convergence, Open, and Closed Sets I am attaching my reference pdf file. Please prove #11 on page 55 based on my reference. Let M_X be the set of all functions f in C_[a,b] satisfying a Lipschitz condition.....
From Contraction Mapping. The link to my textbook: http://books.google.com/books?id=z8IaHgZ9PwQC&pg=PA72&dq=unique+solution+contraction+mapping&lr=#PPA66,M1 Section 8:Contraction Mapping from page 66 to page 77. Please solve for #5 and #6 based on our reference. If you have any question or suggestion, please contact m
Establish the convergence and find the limits of the following sequences ((1+1/2n)^n)) ((1+1/n^2)^(2(n^2))) ((1+2/n)^n)) Give an example of a convergent sequence Xsubn of positive numbers with lim(Xsubn^1/n)=1 Give an example of a divergent sequence Xsubn os positive numbers with lim(Xsubn^1/n)=1
Complete Metric Spaces Problem 1: Prove that the limit f(t) of a uniformly convergent sequence of functions {f_n(t)} continuous on [a,b] is itself a function continuous on [a,b]. Hint. Clearly |f(t) - f(t_0)| < |f(t) - f_n(t)| + |f_n(t) - f_n(t_0)| + |f_n(t_0) - f(t_0)|, where t, t_0 are real numbers of [a,b]. Use t
Show that the following sequences are not convergent i) (2^n) ii) (((-1)^(n))n^2)) that is negative 1 to the n times n squared Show that if X(sub n) is greater than or equal to zero for all n element N and lim(X(sub n))=0 then the lim(sqrtX(sub n))=0
Undergraduate senior level Real Analysis. Please show me formal math proofs. Prove that the set of all real functions...defined on a set M is of power greater than the power of M...(see attached)