Can master theorem be applied to the recurrence T n )= 2 nt n 2 )+ N N?
Table of Contents
- 1 Can master theorem be applied to the recurrence T n )= 2 nt n 2 )+ N N?
- 2 Can master method be used to solve t n )= 2T N 2 )+ n logn?
- 3 When can you not use master theorem?
- 4 How does master theorem solve recurrence relations?
- 5 Why is Masters theorem used?
- 6 What is the use of master theorem?
- 7 Under what case of master’s theorem will the recurrence relation of binary search fall?
- 8 Under what case of master’s theorem can be extended further?
- 9 How to solve T(N) using the master theorem?
- 10 Is 2^n/1 = 2 ^ n a polynomial function?
Can master theorem be applied to the recurrence T n )= 2 nt n 2 )+ N N?
Originally Answered: How do you solve T(n) = T(n/2) + 2^n using the master theorem? Master theorem does not apply in here. Because, if you deduct f(n) = 2 ^ n and n^logb(a) = 1, then, f(n)/n^logb(a) should be polynomial function if f(n) is asymptotically bigger than n^logb(a).
Can master method be used to solve t n )= 2T N 2 )+ n logn?
The master theorem applies only to recurrences of the form , where the function is a polynomial. Your function is not a polynomial, so the master theorem doesn’t apply.
When can you not use master theorem?
Recall that we cannot use the Master Theorem if f(n) (the non-recursive cost) is not polynomial. There is a limited 4-th condition of the Master Theorem that allows us to consider polylogarithmic functions. This final condition is fairly limited and we present it merely for completeness.
Can master’s method be applied to solve the recurrence t/n 4 t/n 2 n2 log n Why or why not?
Actually we can even use Extended Master theorem which directly gives the asymptotic bound as Θ(n2log2n).
How many cases are considered for solving recurrence using master’s theorem?
Explanation: There are primarily 3 cases under master’s theorem. We can solve any recurrence that falls under any one of these three cases.
How does master theorem solve recurrence relations?
The master method is a formula for solving recurrence relations of the form: T(n) = aT(n/b) + f(n), where, n = size of input a = number of subproblems in the recursion n/b = size of each subproblem.
Why is Masters theorem used?
1. Master’s theorem is used for? Explanation: Master’s theorem is a direct method for solving recurrences. We can solve any recurrence that falls under any one of the three cases of master’s theorem.
What is the use of master theorem?
Master Theorem is used to determine running time of algorithms (divide and conquer algorithms) in terms of asymptotic notations. Consider a problem that be solved using recursion.
Can master theorem be applied to the recurrence?
How many cases are there under Master’s theorem?
2. How many cases are there under Master’s theorem? Explanation: There are primarily 3 cases under master’s theorem. We can solve any recurrence that falls under any one of these three cases.
Under what case of master’s theorem will the recurrence relation of binary search fall?
Explanation: the recurrence relation of binary search is given by t(n) = t(n/2) + o(1). so we can observe that c = logba so it will fall under case 2 of master’s theorem.
Under what case of master’s theorem can be extended further?
Which case of master’s theorem can be extended further? Explanation: The second case of master’s theorem can be extended for a case where f(n) = nc (log n)k and the resulting recurrence becomes T(n)= O(nc (log n))k+1.
How to solve T(N) using the master theorem?
Log base b of a = log base 2 of 2 = 1 and D=1 so they are equal. Using the case where those values are equal we can conclude that our function T (n) is Θ (n^D log^K+1 n). After plugging in values for D and K, we see T (n) is Θ ( n log² n). Let’s take the example from the video above and solve it using the Master Theorem.
Can we use master theorem with this recurrence?
I believe that we can use master theorem with this recurrence T (n) = 2T (n/2) + nlogn The provided recurrence is of the form T (n) = a T (n/b) + theta (n k log p n) where a>=1, b >1, k >=0, p is a real number, then:
What is the value of K in the master theorem?
NOTE: The Master Theorem in the above video uses a different flavor of the Master Theorem. There is no value K. But assuming we were using the generic Master Theorem K would be equal to 0 because our function is n¹ = n¹ * 1 = n¹ * log⁰ n. Therefore log⁰n implies k=0, since log ^k n = log⁰ n.
Is 2^n/1 = 2 ^ n a polynomial function?
Master theorem does not apply in here. f (n)/n^logb(a) should be polynomial function if f (n) is asymptotically bigger than n^logb(a). Therefore, 2^n / 1 = 2 ^ n is not a polynomial function (in fact it is exponential), we cannot apply master method here.