Question

Suppose that R is a commutative ring without zero-divisors. Let x and y be nonzero elements....

Suppose that R is a commutative ring without zero-divisors.
Let x and y be nonzero elements.
1. Suppose that x has infinite additive order.
Show that y also has infinite additive order.


2. Suppose that the additive order of x is n.
Show that the additive order of y is at most n.


3.Show that all the nonzero elements of R have the same additive order.

Homework Answers

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
Suppose that R is a commutative ring without unity and also without zero-divisors. Show that the...
Suppose that R is a commutative ring without unity and also without zero-divisors. Show that the characteristic of R is zero or prime.
Let R be a commutative ring with unity. Let A consist of all elements in A[x]...
Let R be a commutative ring with unity. Let A consist of all elements in A[x] whose constant term is equal to 0. Show that A is a prime ideal of A[x]
Let R be a commutative ring and let a ε R be a non-zero element. Show...
Let R be a commutative ring and let a ε R be a non-zero element. Show that Ia ={x ε R such that ax=0} is an ideal of R. Show that if R is a domain then Ia is a prime ideal
Using the following axioms: a.) (x+y)+x = x +(y+x) for all x, y in R (associative...
Using the following axioms: a.) (x+y)+x = x +(y+x) for all x, y in R (associative law of addition) b.) x + y = y + x for all x, y elements of R (commutative law of addition) c.) There exists an additive identity 0 element of R (x+0 = x for all x elements of R) d.) Each x element of R has an additive inverse (an inverse with respect to addition) Prove the following theorems: 1.) The additive...
2.23. Let R be a commutative ring. Suppose that P is a subset of R with...
2.23. Let R be a commutative ring. Suppose that P is a subset of R with the following properties: P1: For any element a ∈ R, one and only one of the following holds: a = 0, a ∈ P, or −a ∈ P. P2: P is closed under addition and multiplication. Define an order relation < on R by saying that for a, b ∈ R, a < b if b − a ∈ P. Show that < satisfies...
Let F be the ring of all polynomial functions from to ?3 to ?3. a) Show...
Let F be the ring of all polynomial functions from to ?3 to ?3. a) Show that F is a finite ring. b) determine if F has zero divisors. c) Show F is not isomorphic to ?3[?]. Please solve without solved without Fermat's Little Theorem
(a) Let a,b,c be elements of a field F. Prove that if a not= 0, then...
(a) Let a,b,c be elements of a field F. Prove that if a not= 0, then the equation ax+b=c has a unique solution. (b) If R is a commutative ring and x1,x2,...,xn are independent variables over R, prove that R[x σ(1),x σ (2),...,x σ (n)] is isomorphic to R[x1,x2,...,xn] for any permutation σ of the set {1,2,...,n}
1. [10] Let ~x ∈ R n with ~x 6= ~0. For each ~y ∈ R...
1. [10] Let ~x ∈ R n with ~x 6= ~0. For each ~y ∈ R n , recall that perp~x(~y) = ~y − proj~x(~y). (a) Show that perp~x(~y + ~z) = perp~x(~y) + perp~x(~z) for all ~y, ~z ∈ R n . (b) Show that perp~x(t~y) = tperp~x(~y) for all ~y ∈ R n and t ∈ R. (c) Show that perp~x(perp~x(~y)) = perp~x(~y) for all ~y ∈ R n
let let T : R^3 --> R^2 be a linear transformation defined by T ( x,...
let let T : R^3 --> R^2 be a linear transformation defined by T ( x, y , z) = ( x-2y -z , 2x + 4y - 2z) a give an example of two elements in K ev( T ) and show that these sum i also an element of K er( T)
Let f : R → R be a function satisfying |f(x) − f(y)| ≤ 3|x −...
Let f : R → R be a function satisfying |f(x) − f(y)| ≤ 3|x − y|^{1/2} for all x, y ∈ R. Apply E − δ definition to show that f is uniformly continuous in R.