Here, O(N) will be the fastest algorithm.
This is because it shows linear increase in time with the increase in the input size, as whatever is the input size that will only be the time complexity.
Also O(N/2) and O(2N) is just the same as it is also O(N) only as constants are not being considered.
But O(N^2) is the slowest algorithm as time increases quadratically as the input size increases.
Hope it helps.....
which big Ο -notation represents the fastest algorithm? Explain your choice. a. Ο (N) b. Ο...
The Big O notation for an algorithm with exactly 50 constant time operations is a. O ( 50 ) b. 0(1) C. 0, 50 N ) d. 50.0(1)
Analyzing an algorithm with Big O notation is useful for predicting A. the accuracy of the computation B. the performance of the algorithm as different amounts of inputs are processed C. the time required to write the required code D. both A and B
7. [4] (Big-O-Notation) What is the order of growth of the following functions in Big-o notation? a. f(N) = (N® + 100M2 + 10N + 50) b. f(N) = (10012 + 10N +50) /N2 c. f(N) = 10N + 50Nlog (N) d. f(N) = 50N2log (n)/N
State the order of magnitude in Big-O notation (assuming there are N elements), and explain your answer in detail for the following operations. 2. Sorting an array using quick sort.
JAVA: Which of the following shows a list of Big-Oh running times in order from slowest to fastest? O(1), O(N), O(N2), O(logN), O(2N) O(1), O(N), O(N3), O(2N), O(N!) O(logN), O(N!), O(N2), O(N3), O(2N) O(N!), O(2N), O(N2), O(N), O(logN)
For each of the following g(n), which are legitimate Big-O, Big-Theta, or Big-Omega for f(n) = n^2 + 2n. List all that apply. a) n^2 b) n^3 c) n d) 2^n e) lg n
(d) Consider an algorithm A, whose runtime is dependent on some "size" variable n of the input. Explain the difference between the two statements below, and give an explicit example of an algorithm for which one statement is true but the other is false. 1. The worst case time complexity of A is n2. 2. A is O(n). (e) Give an example of an algorithm (with a clear input type) which has a Big-Oh (0) and Big-Omega (12) bound on...
a) Prove that running time T(n)=n3+30n+1 is O(n3) [1 mark] b) Prove that running time T(n)=(n+30)(n+5) is O(n2) [1 mark] c) Count the number of primitive operation of algorithm unique1 on page 174 of textbook, give a big-Oh of this algorithm and prove it. [2 mark] d) Order the following function by asymptotic growth rate [2 mark] a. 4nlogn+2n b. 210 c. 3n+100logn d. n2+10n e. n3 f. nlogn
Which one of the following represents a cash outflow from a corporation? Multiple Choice Ο Payment of dividends Ο Initial sale of common stock Ο New loan proceeds Ο Issuance of new securities Ο Receipt of tax refund
if possible solve part d in detail.
a) fi(n) n2+ 45 n log n b) f:(n)-1o+ n3 +856 c) f3(n) 16 vn log n 2. Use the functions in part 1 a) Isfi(n) in O(f(n)), Ω(fg(n)), or Θ((6(n))? b) Isfi(n) in O(f(n)), Ω(f,(n)), or Θ((fs(n))? c) Ísf3(n) in O(f(n)), Ω(f(n)), or Θ(f(n))? d) Under what condition, if any, would the "less efficient" algorithm execute more quickly than the "more efficient" algorithm in question c? Explain Give explanations for your answers...