• Statistical Analysis Of The Queuing System In A Bus Terminal
    [A CASE STUDY OF NEKEDE BUS TERMINAL]

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    • Queuing theory is generally considered a branch of operations research because the results are often used when making business decisions about the resources needed to provide service. It is applicable in a wide variety of situations that they may be encountered in business, commerce, industry, public service and engineering. Applications are frequently port and telecommunication. Queuing theory is directly applicable to intelligent transportation systems, call centers, and traffic flow.
      ELEMENTS OF A QUEUING MODEL
             The principal actors in a queuing situation are the customer and the server. Customers are generated from a source. On arrival at a service facility, they can start service immediately or wait in a queue if the facility is busy.  When a facility completes a service, it automatically “pulls” a waiting customer, if any, from the queue. If the queue is empty, the facility becomes idle until a new customer arrives. customers, and the service is described by the service time per customer.
      1.1  STATEMENT OF PROBLEM
      Waiting for service is part of our daily life. We wait to eat in restaurants, we “queue up” at the check-out counters in grocery stores, and we “line up” for service in post offices. And the waiting phenomenon  is not an experience limited to human beings only: Jobs wait to be processed on a machine, planes circle in a stack before given permission to land at an airport, and cars can stop at traffic lights. Waiting can not be eliminated completely without incurring inordinate expenses and the goal is reduce its adverse impact to “tolerable” levels. Basic single server model assumes customers are arriving at Poisson arrival rate with exponential service times.
             It therefore becomes an interest for the researcher to find out what can be done to reduce the queue and to identify the distribution which the arrival and service time follows using Nekede bus terminal as a case study.
      1.2  AIMS AND OBJECTIVES OF THE STUDY
             The major aims and objective of this study are as follows:
      1.          To find out if the arrival of buses in a terminal follow Poisson distribution
      2.          To find out if the service times are exponential.
      3.          To find out if increasing the number of servers (terminals) would reduce the queue/waiting time
      4.          To identify if the queue operates in a steady state condition.
      5.          To identify, show, then suggest through empirically backed decision how the management of Nekede bus terminal go about the reduction of waiting time of vehicles in the terminal.
      RESEARCH QUESTIONS
      1.  What are the causes of queuing in the terminal?
      2.  Does the arrival of buses in the terminal follow Poisson distribution?
      3.  Do their service times follow exponential?

  • CHAPTER ONE -- [Total Page(s) 5]

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    • ABSRACT - [ Total Page(s): 1 ]The need to reduce the length of queue (waiting time) forms the basis of this research. This project work centers on the queuing system witnessed at the Nekede bus terminal; and a single serve queuing system was adopted in the analysis. The basic aim and objectives of this research is to identify the distribution of the arrival and service and finding out if increasing the number services (terminal) would tend to reduce the waiting time in the system. Different probability distribution where use ... Continue reading---