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Chapter 1 Linear Equations and Graphs
Chapter 1 Linear Equations and Graphs

Agents: Definition, Classification and Structure
Agents: Definition, Classification and Structure

What does it mean to be random?
What does it mean to be random?

Section 3.9 - Differentials
Section 3.9 - Differentials

A Quick Overview of Computational Complexity
A Quick Overview of Computational Complexity

10.3: Limits and Continuity: Algebraic Approach
10.3: Limits and Continuity: Algebraic Approach

PowerPoint - Dr. Justin Bateh
PowerPoint - Dr. Justin Bateh

... given. Actually, you should use this function to calculate different percentiles.  In this problem one could ask what is the score of a student whose percentile is 90? This means approximately 90% of students scores are less than this number.  On the other hand if we were asked to do this problem ...
Chapter 2 Functions and Graphs
Chapter 2 Functions and Graphs

... the independent variable t represents time, are often used to model population growth and radioactive decay. ƒ Note that if t = 0, then y = c. So, the constant c represents the initial population (or initial amount.) ƒ The constant k is called the relative growth rate. If the relative growth rate is ...
Problem Set 7 — Due November, 16
Problem Set 7 — Due November, 16

Chapter 14: Binomial Distributions Binomial Probability Distributions
Chapter 14: Binomial Distributions Binomial Probability Distributions

Section 3
Section 3

1 Notes on Feige`s gumball machines problem
1 Notes on Feige`s gumball machines problem

Document
Document

... Solution: Population is Exponential(=5) a) =5 b) P(X > 12) = e-12/ = e-12/(5) =e-2.4 = 0.090718 b) P(X < x ) = 0.95  1-e- (x/ 5) =0.95  x =-5*ln(1-0.95) = 14.9787 hours 2. PVC pipes are manufactured with a mean diameter of 1.01 inch and standard deviation 0.03 inch. A pipe with diameter less th ...
Chapter 3 More about Discrete Random Variables
Chapter 3 More about Discrete Random Variables

... • To transmit message i using an optical communication system. • When light of intensity λi strikes the photodetector, the number of photoelectrons generated is a Poisson(λi ) random variable. • Find the conditional probability that the number of photoelectrons observed at the photodetector is less ...
1.4 Notes
1.4 Notes

SOLUTION FOR HOMEWORK 4, STAT 4351 Welcome to your fourth
SOLUTION FOR HOMEWORK 4, STAT 4351 Welcome to your fourth

chemistry log: solutions
chemistry log: solutions

Design of Algorithms - Homework II (Solutions)
Design of Algorithms - Homework II (Solutions)

... That is, Xij is the indicator random variable for the event that the pair (i, j), with i < j, is inverted. Now, Pr{Xij = 1} is equal to 12 , because in any random permutation of distinct numbers, there are precisely two possibilities, viz., A[i] > A[j] and A[j] > A[i], with each of them having proba ...
Probabilistic Ranking of Database Query Results
Probabilistic Ranking of Database Query Results

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10.2 Worksheet Part 2

Community detection via random walk
Community detection via random walk

... If two vertices i, j are in the same community, the probability then Pt (i, j) will surely be high. But the fact that Pt (i, j) is high does not necessarily imply that i, j are in the same community. ...
U.C. Berkeley — CS270: Algorithms Lectures 13, 14 Scribe: Anupam
U.C. Berkeley — CS270: Algorithms Lectures 13, 14 Scribe: Anupam

practical stability boundary
practical stability boundary

Foundations of Cryptography Lecture 2
Foundations of Cryptography Lecture 2

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Simulated annealing



Simulated annealing (SA) is a generic probabilistic metaheuristic for the global optimization problem of locating a good approximation to the global optimum of a given function in a large search space. It is often used when the search space is discrete (e.g., all tours that visit a given set of cities). For certain problems, simulated annealing may be more efficient than exhaustive enumeration — provided that the goal is merely to find an acceptably good solution in a fixed amount of time, rather than the best possible solution.The name and inspiration come from annealing in metallurgy, a technique involving heating and controlled cooling of a material to increase the size of its crystals and reduce their defects. Both are attributes of the material that depend on its thermodynamic free energy. Heating and cooling the material affects both the temperature and the thermodynamic free energy. While the same amount of cooling brings the same amount of decrease in temperature it will bring a bigger or smaller decrease in the thermodynamic free energy depending on the rate that it occurs, with a slower rate producing a bigger decrease.This notion of slow cooling is implemented in the Simulated Annealing algorithm as a slow decrease in the probability of accepting worse solutions as it explores the solution space. Accepting worse solutions is a fundamental property of metaheuristics because it allows for a more extensive search for the optimal solution.The method was independently described by Scott Kirkpatrick, C. Daniel Gelatt and Mario P. Vecchi in 1983, and by Vlado Černý in 1985. The method is an adaptation of the Metropolis–Hastings algorithm, a Monte Carlo method to generate sample states of a thermodynamic system, invented by M.N. Rosenbluth and published in a paper by N. Metropolis et al. in 1953.
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