given a recursive alogrithmn for computing 2^n , n greater than or equal to zero integer, based on the formula 2^n = 2^n-1 Set up a recurrence relation for the number of additions made by the alogrithmn, and then solve it,
recurrence relation: ---------------------- T(n) = T(n-1) + 1 and T(1) = 1 solving recurrence relation: ------------------------------ T(n) = T(n-1) + 1 = T(n-2) + 1 + 1 = T(n-3) + 1 + 1 + 1 = T(2) + ... + 1 + 1 + 1 = T(1) + 1 + ... + 1 + 1 + 1 = 1 + 1 + ... + 1 + 1 + 1 (n terms) = n so, T(n) = n
given a recursive alogrithmn for computing 2^n , n greater than or equal to zero integer,...
Consider the following recursive algorithm for computing the sum
of the first n cubes: S(n) = 13 +
23 + … + n3.
(a) Set up a recurrence relation for the number of
multiplications made by this algorithm.
(b) Provide an initial condition for the
recurrence relation you develop at the question (a).
(c) Solve the recurrence relation of the
question (a) and present the time complexity as described at the
question number 1.
Algorithm S n) Input: A positive...
ALGORITHM RecS(n) // Input: A nonnegative integer n ifn=0 return 0 else return RecS(n+ n n n Determine what this algorithm computes. You must justify your answer. made by this algorithm and solve it. You must justify your answer. same thing using for/while loop(s) developed in (3). You must justify your answer. 1) 2) Set up the initial condition and recurrence relation for the number of multiplications 3) Write the pseudocode for the non-recursive version of this algorithm, i.e., compute...
Solve the recurrence relation: a subn = 5a subn-1 - 6 a subn-2 n is greater than or equal to 2 given: ao = 1, a1 = 0
Given n distinct items: Assuming n is a power of 2, write down a recursive divide-and-conquer algorithm for solving simultaneous minimum and maximum, using n = 2 as the bottom of the recursion. If we let T(n) denote the number of comparisons done by your algorithm, write down the recurrence relation satisfied by T(n). Solve exactly (without using the “big O” notation) the recurrence relation for T(n), showing all the details of your work.
In Python 3
(2.5 pts] Write the recursive function thirtyTwos(n) that takes an integer greater or equal to 0 and returns an integer that represents the number of times that a 2 directly follows a 3 in the digits of n. Hint: The % and // operations from sumDigits could be helpful here >>> thirtyTwos (132432601)
Given these methods: METHOD math1: public int math1( int n ) { if (n <= 1) { return 1; } // if else { return ( n * 2 ) + math1( n-1 ); } // else } // math1 METHOD math2: public int math2( int n ) { if (n <= 1) { return 1; } // if else { return n + math1( n ) * math2( n/2 ); } // else } // math2 (a) Set up...
Consider the problem of computing the power function pow(n,x) = n^x using only multiplications. The first approach is to perform x multiplications ($n \cdot n \cdot n \cdot \ldots \cdot n$, x times). Find a better, recursive algorithm to solve this problem (by better, we mean one that uses fewer than $x$ multiplications). Write down the pseudocode for this new function, and then analyze the runtime of that recursive program by first writing out the recurrence relation $T(n, x)$ that...
Consider the problem of computing the power function pow(n,x) = n^x using only multiplications. The first approach is to perform x multiplications ($n \cdot n \cdot n \cdot \ldots \cdot n$, x times). Find a better, recursive algorithm to solve this problem (by better, we mean one that uses fewer than $x$ multiplications). Write down the pseudocode for this new function, and then analyze the runtime of that recursive program by first writing out the recurrence relation $T(n, x)$ that...
Write a program that reads an integer greater or equal to 2, n, and prints a shape of a nline hollow inverted pyramid of stars. Your program should interact with the user exactly as it shows in the following two executions: Execution example 1: Please enter an integer, greater or equal to 2: 5 ********* -*----- * --*--- * ---*--* ----* Execution example 2: Please enter an integer, greater or equal to 2: 3 ***** -* * --*
Write a program in C that asks for an integer n, if n is greater than 100 or if it is less than 1, output an error message. If n is in the range {1, . . . , 100} then if n is either 2,3,5, or 7, output “YES”; or if n is not divisible into 2,3,5 or 7 also output “YES” if n 6= 1; otherwise, output “NO”. Yes, you’re right, a very simple program that checks if...