AFigure 1: A single- stage binary communication channelDetermineP(B)and P(B)b. P(A|B)c. The stochastic matrix of the communication channel.d. If P(B/A) - Р(C/В) and P(B/A) - Р(С)В), findа.P(C/B)P(C/B)i.ii.e. Figure 2 below illustrate information on a two- stage binary communication channel.Copy and complete the channel with the necessary probabilities.0.950.40.050.1Figure 2Use the information on Q1(d) to determinef. Р(АВС)8. Р(С)h. Р(С)i. Illustrate the two- stage binary communication channel on a tree diagram with their respectiveprobability. Question 1A simple binary communication channel carries messages by using two signals 0 and 1.It was assumed that fora given binary channel, 40% of the time a lis transmitted; the probability that a transmitted 0 is correctlyreceived is 0.90; the probability that 1lis correctly received 0.95. This information is illustrated in Figure 1whereA= event that 1 is transmitted.A = event that 0 is transmitted.B= event that 1 is received.B = event that 0 is received.

Let : event of transmitting ‘1’ : event of transmitting ‘0’ : event of receiving ‘1’ : event of…

Question 1 A simple binary communication channel carries messages by using two signals 0 and 1.It was assumed that for a given binary channel, 40% of the time a lis transmitted; the probability that a transmitted 0 is correctly received is 0.90; the probability that 1 is correctly received 0.95. This information is illustrated in Figure 1 where A= event that 1 is transmitted. A = event that 0 is transmitted. B= event that 1 is received. B = event that 0 is received.

Question 1 A simple binary communication channel carries messages by using two signals 0 and 1.It was assumed that for a given binary channel, 40% of the time a lis transmitted; the probability that a transmitted 0 is correctly received is 0.90; the probability that 1 is correctly received 0.95. This information is illustrated in Figure 1 where A= event that 1 is transmitted. A = event that 0 is transmitted. B= event that 1 is received. B = event that 0 is received.

Operations Research : Applications and Algorithms

4th Edition

ISBN:9780534380588

Author:Wayne L. Winston

Publisher:Wayne L. Winston

Chapter20: Queuing Theory

Section20.6: The M/m/s/gd/∞/∞ Queuing System

Problem 14P

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