Deck 9: Project Scheduling: Pertcpm

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Question
The earliest start time rule

A)compares the starting times of all activities for successors of an activity.
B)compares the finish times for all immediate predecessors of an activity.
C)determines when the project can begin.
D)determines when the project must begin.
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Question
Slack equals

A)LF - EF.
B)EF - LF.
C)EF - LS.
D)LF - ES.
Question
Activities K, M and S immediately follow activity H, and their latest start times are 14, 18, and 11. The latest finish time for activity H

A)is 11.
B)is 14.
C)is 18.
D)cannot be determined.
Question
Arcs in a project network indicate

A)completion times.
B)precedence relationships.
C)activities.
D)the critical path.
Question
A path through a project network must reach every node.
Question
Which is not a significant challenge of project scheduling?

A)deadlines exist.
B)activities are independent.
C)many employees could be required.
D)delays are costly.
Question
The critical path

A)is any path that goes from the starting node to the completion node.
B)is a combination of all paths.
C)is the shortest path.
D)is the longest path.
Question
PERT and CPM are applicable only when there is no dependence among activities.
Question
When activity times are uncertain,

A)assume they are normally distributed.
B)calculate the expected time, using (a + 4m + b)/6.
C)use the most likely time.
D)calculate the expected time, using (a + m + b)/3.
Question
Activities with zero slack

A)can be delayed.
B)must be completed first.
C)lie on a critical path.
D)have no predecessors.
Question
Critical activities are those that can be delayed without delaying the entire project.
Question
Activities following a node

A)can begin as soon as any activity preceding the node has been completed.
B)have an earliest start time equal to the largest of the earliest finish times for all activities entering the node.
C)have a latest start time equal to the largest of the earliest finish times for all activities entering the node.
D)None of the alternatives is correct.
Question
Activities G, P, and R are the immediate predecessors for activity W. If the earliest finish times for the three are 12, 15, and 10, then the earliest start time for W

A)is 10.
B)is 12.
C)is 15.
D)cannot be determined.
Question
To determine how to crash activity times

A)normal activity costs and costs under maximum crashing must be known.
B)shortest times with crashing must be known.
C)realize that new paths may become critical.
D)All of the alternatives are true.
Question
For an activity with more than one immediate successor activity, its latest-finish time is equal to the

A)largest latest-finish time among its immediate successors.
B)smallest latest-finish time among its immediate successors.
C)largest latest-start time among its immediate successors.
D)smallest latest-start time among its immediate successors.
Question
For an activity with more than one immediate predecessor activity, which of the following is used to compute its earliest finish (EF) time?

A)the largest EF among the immediate predecessors.
B)the average EF among the immediate predecessors.
C)the largest LF among the immediate predecessors.
D)the difference in EF among the immediate predecessors.
Question
In deciding which activities to crash, one must

A)crash all critical activities.
B)crash largest-duration activities.
C)crash lowest-cost activities.
D)crash activities on the critical path(s) only.
Question
Which of the following is always true about a critical activity?

A)LS = EF.
B)LF = LS.
C)ES = LS.
D)EF = ES.
Question
PERT and CPM

A)are most valuable when a small number of activities must be scheduled.
B)have different features and are not applied to the same situation.
C)do not require a chronological relationship among activities.
D)have been combined to develop a procedure that uses the best of each.
Question
Which of the following is a general rule for crashing activities?

A)Crash only non-critical activities.
B)Crash activities with zero slack.
C)Crash activities with the greatest number of predecessors.
D)Crash the path with the fewest activities.
Question
Crashing refers to an unanticipated delay in a critical path activity that causes the total time to exceed its limit.
Question
The project manager should monitor the progress of any activity with a large time variance even if the expected time does not identify the activity as a critical activity.
Question
Name at least three managerial situations where answers are provided by project management solutions.
Question
Why should projects be monitored after the critical path is found?
Question
The length of time an activity can be delayed without affecting the project completion time is the slack.
Question
Once the earliest and latest times are calculated, how is the critical path determined?
Question
The latest finish time for an activity is the largest of the latest start times for all activities that immediately follow the activity.
Question
Explain how and why all predecessor activities must be considered when finding the earliest start time.
Question
A critical activity can be part of a noncritical path.
Question
A project network is shown below. Use a forward and a backward pass to determine the critical path, and then fill out the table below. A project network is shown below. Use a forward and a backward pass to determine the critical path, and then fill out the table below.     Now assume that the times listed are only the expected times instead of being fixed times. Is the probability of being finished in more than 28 weeks more or less than 50%?<div style=padding-top: 35px> A project network is shown below. Use a forward and a backward pass to determine the critical path, and then fill out the table below.     Now assume that the times listed are only the expected times instead of being fixed times. Is the probability of being finished in more than 28 weeks more or less than 50%?<div style=padding-top: 35px> Now assume that the times listed are only the expected times instead of being fixed times. Is the probability of being finished in more than 28 weeks more or less than 50%?
Question
The earliest finish time for the final activity is the project duration.
Question
Constraints in the LP models for crashing decisions are required to compare the activity's earliest finish time with the earliest finish time of each predecessor.
Question
When activity times are uncertain, total project time is normally distributed with mean equal to the sum of the means of all of the critical activities.
Question
The variance in the project completion time is the sum of the variances of all activities in the project.
Question
When activity times are uncertain, an activity's most likely time is the same as its expected time.
Question
A project network is shown below. Use a forward and a backward pass to determine the critical path, and then fill out the table below. A project network is shown below. Use a forward and a backward pass to determine the critical path, and then fill out the table below.     Now assume that the times listed are only the expected times instead of being fixed times. Is the probability of being finished in fewer than 25 weeks more or less than 50%?<div style=padding-top: 35px> A project network is shown below. Use a forward and a backward pass to determine the critical path, and then fill out the table below.     Now assume that the times listed are only the expected times instead of being fixed times. Is the probability of being finished in fewer than 25 weeks more or less than 50%?<div style=padding-top: 35px> Now assume that the times listed are only the expected times instead of being fixed times. Is the probability of being finished in fewer than 25 weeks more or less than 50%?
Question
The earliest start time for an activity is equal to the smallest of the earliest finish times for all its immediate predecessors.
Question
The linear programming model for crashing presented in the textbook assumes that any portion of the activity crash time can be achieved for a corresponding portion of the activity crashing cost.
Question
From this schedule of activities, draw the PERT/CPM network. From this schedule of activities, draw the PERT/CPM network.  <div style=padding-top: 35px>
Question
Explain how and why all successor activities must be considered when finding the latest finish time.
Question
Given the following network with activities and times estimated in days,  Given the following network with activities and times estimated in days,    \begin{array}{l} \text { Most }\\ \begin{array} { c c c c } \text { Activity } & \text { Optimistic } & \text { Probable } & \text { Pessimistic } \\ \hline \text { A } & 2 & 5 & 6 \\ \text { B } & 1 & 3 & 7 \\ \text { C } & 6 & 7 & 10 \\ \text { D } & 5 & 12 & 14 \\ \text { E } & 3 & 4 & 5 \\ \text { F } & 8 & 9 & 12 \\ \text { G } & 4 & 6 & 8 \\ \text { H } & 3 & 6 & 8 \\ \text { I } & 5 & 7 & 12 \\ \text { J } & 12 & 13 & 14 \\ \text { K } & 1 & 3 & 4 \end{array} \end{array}  a.What are the critical path activities? b.What is the expected time to complete the project? c.What is the probability the project will take more than 28 days to complete?<div style=padding-top: 35px>   Most  Activity  Optimistic  Probable  Pessimistic  A 256 B 137 C 6710 D 51214 E 345 F 8912 G 468 H 368 I 5712 J 121314 K 134\begin{array}{l}\text { Most }\\\begin{array} { c c c c } \text { Activity } & \text { Optimistic } & \text { Probable } & \text { Pessimistic } \\\hline \text { A } & 2 & 5 & 6 \\\text { B } & 1 & 3 & 7 \\\text { C } & 6 & 7 & 10 \\\text { D } & 5 & 12 & 14 \\\text { E } & 3 & 4 & 5 \\\text { F } & 8 & 9 & 12 \\\text { G } & 4 & 6 & 8 \\\text { H } & 3 & 6 & 8 \\\text { I } & 5 & 7 & 12 \\\text { J } & 12 & 13 & 14 \\\text { K } & 1 & 3 & 4\end{array}\end{array}
a.What are the critical path activities?
b.What is the expected time to complete the project?
c.What is the probability the project will take more than 28 days to complete?
Question
Use the following network of related activities with their duration times to complete a row for each activity under the column headings below. Use the following network of related activities with their duration times to complete a row for each activity under the column headings below.    <div style=padding-top: 35px> Use the following network of related activities with their duration times to complete a row for each activity under the column headings below.    <div style=padding-top: 35px>
Question
Use the following network of related activities with their duration times to complete a row for each activity under the column headings below. Use the following network of related activities with their duration times to complete a row for each activity under the column headings below.    <div style=padding-top: 35px> Use the following network of related activities with their duration times to complete a row for each activity under the column headings below.    <div style=padding-top: 35px>
Question
The critical path for this network is A - E - F and the project completion time is 22 weeks.  The critical path for this network is A - E - F and the project completion time is 22 weeks.    \begin{array} { c c c c r } \text { Activity } & \begin{array} { c } \text { Normal } \\ \text { Time } \end{array} & \begin{array} { c } \text { Crash } \\ \text { Time } \end{array} & \begin{array} { c } \text { Normal } \\ \text { Cost } \end{array} & { \begin{array} { c } \text { Crash } \\ \text { Cost } \end{array} } \\ \hline \text { A } & 12 & 8 & 8,000 & 12,000 \\ \text { B } & 14 & 10 & 5,000 & 7,500 \\ \text { C } & 8 & 8 & 10,000 & 10,000 \\ \text { D } & 5 & 3 & 6,000 & 8,000 \\ \text { E } & 4 & 3 & 5,000 & 7,000 \\ \text { F } & 6 & 5 & 9,000 & 12,000 \\ \text { G } & 10 & 8 & 5,000 & 8,000 \end{array}  If a deadline of 17 weeks is imposed, give the linear programming model for the crashing decision.<div style=padding-top: 35px>   Activity  Normal  Time  Crash  Time  Normal  Cost  Crash  Cost  A 1288,00012,000 B 14105,0007,500 C 8810,00010,000 D 536,0008,000 E 435,0007,000 F 659,00012,000 G 1085,0008,000\begin{array} { c c c c r } \text { Activity } & \begin{array} { c } \text { Normal } \\\text { Time }\end{array} & \begin{array} { c } \text { Crash } \\\text { Time }\end{array} & \begin{array} { c } \text { Normal } \\\text { Cost }\end{array} & { \begin{array} { c } \text { Crash } \\\text { Cost }\end{array} } \\\hline \text { A } & 12 & 8 & 8,000 & 12,000 \\\text { B } & 14 & 10 & 5,000 & 7,500 \\\text { C } & 8 & 8 & 10,000 & 10,000 \\\text { D } & 5 & 3 & 6,000 & 8,000 \\\text { E } & 4 & 3 & 5,000 & 7,000 \\\text { F } & 6 & 5 & 9,000 & 12,000 \\\text { G } & 10 & 8 & 5,000 & 8,000\end{array} If a deadline of 17 weeks is imposed, give the linear programming model for the crashing decision.
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Deck 9: Project Scheduling: Pertcpm
1
The earliest start time rule

A)compares the starting times of all activities for successors of an activity.
B)compares the finish times for all immediate predecessors of an activity.
C)determines when the project can begin.
D)determines when the project must begin.
B
2
Slack equals

A)LF - EF.
B)EF - LF.
C)EF - LS.
D)LF - ES.
EF - LF.
3
Activities K, M and S immediately follow activity H, and their latest start times are 14, 18, and 11. The latest finish time for activity H

A)is 11.
B)is 14.
C)is 18.
D)cannot be determined.
A
4
Arcs in a project network indicate

A)completion times.
B)precedence relationships.
C)activities.
D)the critical path.
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5
A path through a project network must reach every node.
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6
Which is not a significant challenge of project scheduling?

A)deadlines exist.
B)activities are independent.
C)many employees could be required.
D)delays are costly.
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7
The critical path

A)is any path that goes from the starting node to the completion node.
B)is a combination of all paths.
C)is the shortest path.
D)is the longest path.
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8
PERT and CPM are applicable only when there is no dependence among activities.
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9
When activity times are uncertain,

A)assume they are normally distributed.
B)calculate the expected time, using (a + 4m + b)/6.
C)use the most likely time.
D)calculate the expected time, using (a + m + b)/3.
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10
Activities with zero slack

A)can be delayed.
B)must be completed first.
C)lie on a critical path.
D)have no predecessors.
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11
Critical activities are those that can be delayed without delaying the entire project.
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12
Activities following a node

A)can begin as soon as any activity preceding the node has been completed.
B)have an earliest start time equal to the largest of the earliest finish times for all activities entering the node.
C)have a latest start time equal to the largest of the earliest finish times for all activities entering the node.
D)None of the alternatives is correct.
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13
Activities G, P, and R are the immediate predecessors for activity W. If the earliest finish times for the three are 12, 15, and 10, then the earliest start time for W

A)is 10.
B)is 12.
C)is 15.
D)cannot be determined.
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14
To determine how to crash activity times

A)normal activity costs and costs under maximum crashing must be known.
B)shortest times with crashing must be known.
C)realize that new paths may become critical.
D)All of the alternatives are true.
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15
For an activity with more than one immediate successor activity, its latest-finish time is equal to the

A)largest latest-finish time among its immediate successors.
B)smallest latest-finish time among its immediate successors.
C)largest latest-start time among its immediate successors.
D)smallest latest-start time among its immediate successors.
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16
For an activity with more than one immediate predecessor activity, which of the following is used to compute its earliest finish (EF) time?

A)the largest EF among the immediate predecessors.
B)the average EF among the immediate predecessors.
C)the largest LF among the immediate predecessors.
D)the difference in EF among the immediate predecessors.
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17
In deciding which activities to crash, one must

A)crash all critical activities.
B)crash largest-duration activities.
C)crash lowest-cost activities.
D)crash activities on the critical path(s) only.
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18
Which of the following is always true about a critical activity?

A)LS = EF.
B)LF = LS.
C)ES = LS.
D)EF = ES.
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19
PERT and CPM

A)are most valuable when a small number of activities must be scheduled.
B)have different features and are not applied to the same situation.
C)do not require a chronological relationship among activities.
D)have been combined to develop a procedure that uses the best of each.
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20
Which of the following is a general rule for crashing activities?

A)Crash only non-critical activities.
B)Crash activities with zero slack.
C)Crash activities with the greatest number of predecessors.
D)Crash the path with the fewest activities.
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21
Crashing refers to an unanticipated delay in a critical path activity that causes the total time to exceed its limit.
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22
The project manager should monitor the progress of any activity with a large time variance even if the expected time does not identify the activity as a critical activity.
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23
Name at least three managerial situations where answers are provided by project management solutions.
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24
Why should projects be monitored after the critical path is found?
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25
The length of time an activity can be delayed without affecting the project completion time is the slack.
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26
Once the earliest and latest times are calculated, how is the critical path determined?
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27
The latest finish time for an activity is the largest of the latest start times for all activities that immediately follow the activity.
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28
Explain how and why all predecessor activities must be considered when finding the earliest start time.
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29
A critical activity can be part of a noncritical path.
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30
A project network is shown below. Use a forward and a backward pass to determine the critical path, and then fill out the table below. A project network is shown below. Use a forward and a backward pass to determine the critical path, and then fill out the table below.     Now assume that the times listed are only the expected times instead of being fixed times. Is the probability of being finished in more than 28 weeks more or less than 50%? A project network is shown below. Use a forward and a backward pass to determine the critical path, and then fill out the table below.     Now assume that the times listed are only the expected times instead of being fixed times. Is the probability of being finished in more than 28 weeks more or less than 50%? Now assume that the times listed are only the expected times instead of being fixed times. Is the probability of being finished in more than 28 weeks more or less than 50%?
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31
The earliest finish time for the final activity is the project duration.
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32
Constraints in the LP models for crashing decisions are required to compare the activity's earliest finish time with the earliest finish time of each predecessor.
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33
When activity times are uncertain, total project time is normally distributed with mean equal to the sum of the means of all of the critical activities.
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34
The variance in the project completion time is the sum of the variances of all activities in the project.
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35
When activity times are uncertain, an activity's most likely time is the same as its expected time.
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36
A project network is shown below. Use a forward and a backward pass to determine the critical path, and then fill out the table below. A project network is shown below. Use a forward and a backward pass to determine the critical path, and then fill out the table below.     Now assume that the times listed are only the expected times instead of being fixed times. Is the probability of being finished in fewer than 25 weeks more or less than 50%? A project network is shown below. Use a forward and a backward pass to determine the critical path, and then fill out the table below.     Now assume that the times listed are only the expected times instead of being fixed times. Is the probability of being finished in fewer than 25 weeks more or less than 50%? Now assume that the times listed are only the expected times instead of being fixed times. Is the probability of being finished in fewer than 25 weeks more or less than 50%?
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37
The earliest start time for an activity is equal to the smallest of the earliest finish times for all its immediate predecessors.
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38
The linear programming model for crashing presented in the textbook assumes that any portion of the activity crash time can be achieved for a corresponding portion of the activity crashing cost.
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39
From this schedule of activities, draw the PERT/CPM network. From this schedule of activities, draw the PERT/CPM network.
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40
Explain how and why all successor activities must be considered when finding the latest finish time.
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41
Given the following network with activities and times estimated in days,  Given the following network with activities and times estimated in days,    \begin{array}{l} \text { Most }\\ \begin{array} { c c c c } \text { Activity } & \text { Optimistic } & \text { Probable } & \text { Pessimistic } \\ \hline \text { A } & 2 & 5 & 6 \\ \text { B } & 1 & 3 & 7 \\ \text { C } & 6 & 7 & 10 \\ \text { D } & 5 & 12 & 14 \\ \text { E } & 3 & 4 & 5 \\ \text { F } & 8 & 9 & 12 \\ \text { G } & 4 & 6 & 8 \\ \text { H } & 3 & 6 & 8 \\ \text { I } & 5 & 7 & 12 \\ \text { J } & 12 & 13 & 14 \\ \text { K } & 1 & 3 & 4 \end{array} \end{array}  a.What are the critical path activities? b.What is the expected time to complete the project? c.What is the probability the project will take more than 28 days to complete?  Most  Activity  Optimistic  Probable  Pessimistic  A 256 B 137 C 6710 D 51214 E 345 F 8912 G 468 H 368 I 5712 J 121314 K 134\begin{array}{l}\text { Most }\\\begin{array} { c c c c } \text { Activity } & \text { Optimistic } & \text { Probable } & \text { Pessimistic } \\\hline \text { A } & 2 & 5 & 6 \\\text { B } & 1 & 3 & 7 \\\text { C } & 6 & 7 & 10 \\\text { D } & 5 & 12 & 14 \\\text { E } & 3 & 4 & 5 \\\text { F } & 8 & 9 & 12 \\\text { G } & 4 & 6 & 8 \\\text { H } & 3 & 6 & 8 \\\text { I } & 5 & 7 & 12 \\\text { J } & 12 & 13 & 14 \\\text { K } & 1 & 3 & 4\end{array}\end{array}
a.What are the critical path activities?
b.What is the expected time to complete the project?
c.What is the probability the project will take more than 28 days to complete?
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42
Use the following network of related activities with their duration times to complete a row for each activity under the column headings below. Use the following network of related activities with their duration times to complete a row for each activity under the column headings below.    Use the following network of related activities with their duration times to complete a row for each activity under the column headings below.
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43
Use the following network of related activities with their duration times to complete a row for each activity under the column headings below. Use the following network of related activities with their duration times to complete a row for each activity under the column headings below.    Use the following network of related activities with their duration times to complete a row for each activity under the column headings below.
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44
The critical path for this network is A - E - F and the project completion time is 22 weeks.  The critical path for this network is A - E - F and the project completion time is 22 weeks.    \begin{array} { c c c c r } \text { Activity } & \begin{array} { c } \text { Normal } \\ \text { Time } \end{array} & \begin{array} { c } \text { Crash } \\ \text { Time } \end{array} & \begin{array} { c } \text { Normal } \\ \text { Cost } \end{array} & { \begin{array} { c } \text { Crash } \\ \text { Cost } \end{array} } \\ \hline \text { A } & 12 & 8 & 8,000 & 12,000 \\ \text { B } & 14 & 10 & 5,000 & 7,500 \\ \text { C } & 8 & 8 & 10,000 & 10,000 \\ \text { D } & 5 & 3 & 6,000 & 8,000 \\ \text { E } & 4 & 3 & 5,000 & 7,000 \\ \text { F } & 6 & 5 & 9,000 & 12,000 \\ \text { G } & 10 & 8 & 5,000 & 8,000 \end{array}  If a deadline of 17 weeks is imposed, give the linear programming model for the crashing decision.  Activity  Normal  Time  Crash  Time  Normal  Cost  Crash  Cost  A 1288,00012,000 B 14105,0007,500 C 8810,00010,000 D 536,0008,000 E 435,0007,000 F 659,00012,000 G 1085,0008,000\begin{array} { c c c c r } \text { Activity } & \begin{array} { c } \text { Normal } \\\text { Time }\end{array} & \begin{array} { c } \text { Crash } \\\text { Time }\end{array} & \begin{array} { c } \text { Normal } \\\text { Cost }\end{array} & { \begin{array} { c } \text { Crash } \\\text { Cost }\end{array} } \\\hline \text { A } & 12 & 8 & 8,000 & 12,000 \\\text { B } & 14 & 10 & 5,000 & 7,500 \\\text { C } & 8 & 8 & 10,000 & 10,000 \\\text { D } & 5 & 3 & 6,000 & 8,000 \\\text { E } & 4 & 3 & 5,000 & 7,000 \\\text { F } & 6 & 5 & 9,000 & 12,000 \\\text { G } & 10 & 8 & 5,000 & 8,000\end{array} If a deadline of 17 weeks is imposed, give the linear programming model for the crashing decision.
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