Chapter 8: Q15E (page 567)
How many rounds are in the elimination tournament described in Exercise \(14\) when there are \(32\) teams?
Short Answer
Therefore, the number of rounds required is\(5\).
Chapter 8: Q15E (page 567)
How many rounds are in the elimination tournament described in Exercise \(14\) when there are \(32\) teams?
Therefore, the number of rounds required is\(5\).
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Get started for freeFind the coefficient of \({x^9}\) in the power series of each of these functions.
a) \({\left( {1 + {x^3} + {x^6} + {x^9} + \cdots } \right)^3}\)
b) \({\left( {{x^2} + {x^3} + {x^4} + {x^5} + {x^6} + \cdots } \right)^3}\)
c) \(\left( {{x^3} + {x^5} + {x^6}} \right)\left( {{x^3} + {x^4}} \right)\left( {x + {x^2} + {x^3} + {x^4} + \cdots } \right)\)
d) \(\left( {x + {x^4} + {x^7} + {x^{10}} + \cdots } \right)\left( {{x^2} + {x^4} + {x^6} + {x^8} + } \right.\)\( \cdots )\)
e) \({\left( {1 + x + {x^2}} \right)^3}\)
(a) Show that ifis a positive integer, then
(b) Use the extended binomial theorem and part (a) to show that the coefficient of in the expansion ofisfor all nonnegative integers
In this exercise we construct a dynamic programming algorithm for solving the problem of finding a subset S of items chosen from a set of n items where item i has a weight , which is a positive integer, so that the total weight of the items in S is a maximum but does no exceed a fixed weight limit W. Let denote the maximum total weight of the items in a subset of the first j items such that this total weight does not exceed w. This problem is known as the knapsack problem.
a) Show that if, then
b) Show that if , then.
c) Use (a) and (b) to construct a dynamic programming algorithm for determining the maximum total weight of items so that this total weight does not exceed W. In your algorithm store the values as they are found.
d) Explain how you can use the values computed by the algorithm in part (c) to find a subset of items with maximum total weight not exceeding W.
Show that if and is a power of , then , where and
Use generating functions to solve the recurrence relation with initial conditions and.
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