Question

Problem 1 (cf. IMT 1.1.8). Let h and w be positive reals, and let A =...

Problem 1 (cf. IMT 1.1.8). Let h and w be positive reals, and let A = (0, h) and B = (w, 0) be the specified points in R 2 . Let T be the solid triangle determined by the origin, A, and B. For this problem, you cannot use

1. Show that, for each Epsilon> 0, we can find elementary sets E and F with the properties that E ⊆ T ⊆ F and m^2 (F \ E) <Epsilon

2. Show that T is Jordan measurable in R^2 and the Jordan measure of T is hw/2.

Jordan measure is the measure of a solid that is not necessarily an elementary set, like in our case we have a solid triangle T, we need to find an elementary set E \subsetek T \subsetek F and m^2(F\E)< Epsilon.

Homework Answers

Answer #1

find the attached. in step by step details.

Know the answer?
Your Answer:

Post as a guest

Your Name:

What's your source?

Earn Coins

Coins can be redeemed for fabulous gifts.

Not the answer you're looking for?
Ask your own homework help question
Similar Questions
Problem 2. Let F : R → R be any function (not necessarily measurable!). Prove that...
Problem 2. Let F : R → R be any function (not necessarily measurable!). Prove that the set of points x ∈ R such that F(y) ≤ F(x) ≤ F(z) for all y ≤ x and z ≥ x is Borel set.
(IMT 1.1.6).Let E,F⊆R^d be Jordan measurable sets. 1. (Monotonicity) Show that if E⊆F, then m(E)≤m(F). 2....
(IMT 1.1.6).Let E,F⊆R^d be Jordan measurable sets. 1. (Monotonicity) Show that if E⊆F, then m(E)≤m(F). 2. (Finite subadditivity) Show that m(E∪F)≤m(E) +m(F). 3. (Finite additivity) Show that if E and Fare disjoint, then m(E∪F) =m(E) +m(F).
1. Let W be the set of all [x y z}^t in R^3 such that xyz...
1. Let W be the set of all [x y z}^t in R^3 such that xyz = 0. Is W a subspace of R^3? 2. Let C^0 (R) denote the space of all continuous real-valued functions f(x) of x in R. Let W be the set of all continuous functions f(x) such that f(1) = 0. Is W a subspace of C^0(R)?
(IMT 1.1.19 – a Carath´eodory type property). Let E ⊆ R^d be a bounded set, and...
(IMT 1.1.19 – a Carath´eodory type property). Let E ⊆ R^d be a bounded set, and let F ⊆ R^d be an elementary set. Show that m^{∗,J} (E) = m^{∗,J} (E ∩ F) + m^{∗,J} (E \ F).
Let V = R^3 and let W ⊂ V be defined by W = span{(1, 1,...
Let V = R^3 and let W ⊂ V be defined by W = span{(1, 1, 1),(2, 1, 0)}. Show that W is a plane containing the origin, and find the equation of W.
Let S = {A, B, C, D, E, F, G, H, I, J} be the set...
Let S = {A, B, C, D, E, F, G, H, I, J} be the set consisting of the following elements: A = N, B = 2N , C = 2P(N) , D = [0, 1), E = ∅, F = Z × Z, G = {x ∈ N|x 2 + x < 2}, H = { 2 n 3 k |n, k ∈ N}, I = R \ Q, J = R. Consider the relation ∼ on S given...
Let W be an inner product space and v1,...,vn a basis of V. Show that〈S, T...
Let W be an inner product space and v1,...,vn a basis of V. Show that〈S, T 〉 = 〈Sv1, T v1〉 + . . . + 〈Svn, T vn〉 for S,T ∈ L(V,W) is an inner product on L(V,W). Let S ∈ L(R^2) be given by S(x1, x2) = (x1 + x2, x2) and let I ∈ L(R^2) be the identity operator. Using the inner product defined in problem 1 for the standard basis and the dot product, compute 〈S,...
Independence. Suppose X and Y are independent. Let W = h(X) and Z = l`(Y )...
Independence. Suppose X and Y are independent. Let W = h(X) and Z = l`(Y ) for some functions h and `. Make use of IEf(X)g(Y ) = IEf(X)IEg(Y ) for all f and g greater or equal to 0 types of random variables, not just discrete random variables. a) Show that X and Z are independent. b) Show that W and Z are independent. c) Suppose Z = l`(Y ) and all we know is that X and Z...
We denote |S| the number of elements of a set S. (1) Let A and B...
We denote |S| the number of elements of a set S. (1) Let A and B be two finite sets. Show that if A ∩ B = ∅ then A ∪ B is finite and |A ∪ B| = |A| + |B| . Hint: Given two bijections f : A → N|A| and g : B → N|B| , you may consider for instance the function h : A ∪ B → N|A|+|B| defined as h (a) = f (a)...
Let X be a random variable of the mixed type having the distribution function F (...
Let X be a random variable of the mixed type having the distribution function F ( x ) = 0 w h e r e x < 0 F ( x ) = x 2 4 w h e r e 0 ≤ x < 1 F ( x ) = x + 1 4 w h e r e 1 ≤ x < 2 Question 1: Find the mean of X Question 2: Find the variance of X Question...
ADVERTISEMENT
Need Online Homework Help?

Get Answers For Free
Most questions answered within 1 hours.

Ask a Question
ADVERTISEMENT