(a)
Indicated root of the
Answer to Problem 36A
Indicated root of the given number is,
Explanation of Solution
Given:
Calculation:
Here, digit
Hence, the indicated root of the given number is,
(b)
Indicated root of the
Answer to Problem 36A
Indicated root of the given number is, -6.1844.
Explanation of Solution
Given:
Calculation:
Here, digit (-236.539) is expressed in cubic root.
Hence, the indicated root of the given number is, -6.1844.
(c)
Indicated root of the
Answer to Problem 36A
Indicated root of the given number is, -2.4373.
Explanation of Solution
Given:
Calculation:
Here, digit (-86.009) is expressed in fifth root.
Hence, the indicated root of the given number is, -2.4373.
(d)
Indicated root of the
Answer to Problem 36A
Indicated root of the given number is,
Explanation of Solution
Given:
Calculation:
Here, digit
Hence, the indicated root of the given number is,
(e)
Indicated root of the
Answer to Problem 36A
Indicated root of the given number is,
Explanation of Solution
Given:
Calculation:
Here, digit
Hence, the indicated root of the given number is,
Want to see more full solutions like this?
Chapter 40 Solutions
EBK MATHEMATICS FOR MACHINE TECHNOLOGY
- Question 1. Let f: XY and g: Y Z be two functions. Prove that (1) if go f is injective, then f is injective; (2) if go f is surjective, then g is surjective. Question 2. Prove or disprove: (1) The set X = {k € Z} is countable. (2) The set X = {k EZ,nЄN} is countable. (3) The set X = R\Q = {x ER2 countable. Q} (the set of all irrational numbers) is (4) The set X = {p.√2pQ} is countable. (5) The interval X = [0,1] is countable. Question 3. Let X = {f|f: N→ N}, the set of all functions from N to N. Prove that X is uncountable. Extra practice (not to be submitted). Question. Prove the following by induction. (1) For any nЄN, 1+3+5++2n-1 n². (2) For any nЄ N, 1+2+3++ n = n(n+1). Question. Write explicitly a function f: Nx N N which is bijective.arrow_forward3. Suppose P is the orthogonal projection onto a subspace E, and Q is the orthogonal projection onto the orthogonal complement E. (a) The combinations of projections P+Q and PQ correspond to well-known oper- ators. What are they? Justify your answer. (b) Show that P - Q is its own inverse.arrow_forwardDetermine the moment about the origin O of the force F4i-3j+5k that acts at a Point A. Assume that the position vector of A is (a) r =2i+3j-4k, (b) r=-8i+6j-10k, (c) r=8i-6j+5karrow_forward
- Given r = e−p2−q2, p = es, q = e−s, find dr/dsarrow_forwardAssignment Brief: 1. Use the trapezium rule with five ordinates (four strips) to find an approximation to giving your answer to 2 decimal places. 1 dx x³ +3arrow_forwardIf 50 is 10% of 500 lanterns, what percent is 100 out of 500 lanterns?arrow_forward
- what is 4m-1? m=3arrow_forwardCalculs Insights πT | cos x |³ dx 59 2arrow_forward2. Consider the ODE u' = ƒ (u) = u² + r where r is a parameter that can take the values r = −1, −0.5, -0.1, 0.1. For each value of r: (a) Sketch ƒ(u) = u² + r and determine the equilibrium points. (b) Draw the phase line. (d) Determine the stability of the equilibrium points. (d) Plot the direction field and some sample solutions,i.e., u(t) (e) Describe how location of the equilibrium points and their stability change as you increase the parameter r. (f) Using the matlab program phaseline.m generate a solution for each value of r and the initial condition u(0) = 0.9. Print and turn in your result for r = −1. Do not forget to add a figure caption. (g) In the matlab program phaseline.m set the initial condition to u(0) = 1.1 and simulate the ode over the time interval t = [0, 10] for different values of r. What happens? Why? You do not need to turn in a plot for (g), just describe what happens.arrow_forward
- Holt Mcdougal Larson Pre-algebra: Student Edition...AlgebraISBN:9780547587776Author:HOLT MCDOUGALPublisher:HOLT MCDOUGALAlgebra: Structure And Method, Book 1AlgebraISBN:9780395977224Author:Richard G. Brown, Mary P. Dolciani, Robert H. Sorgenfrey, William L. ColePublisher:McDougal LittellMathematics For Machine TechnologyAdvanced MathISBN:9781337798310Author:Peterson, John.Publisher:Cengage Learning,
- Algebra & Trigonometry with Analytic GeometryAlgebraISBN:9781133382119Author:SwokowskiPublisher:Cengage