Lesson 3D.1.2-3D.1.4
3D.1.2-3D.1.4 Bin packing, sorting, Eulerian graphs and planarity Quiz: Pearson Edexcel Further Maths, Unit 35
20 questions
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Lesson 3D.1.2-3D.1.4, Bin packing, sorting, Eulerian graphs and planarity: 20 multiple choice questions for the Pearson Edexcel Further Maths (9FM0), Unit 35: Algorithms and graph theory, written with Revision Ninja.
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The 20 questions
-
What is the aim of bin packing?
- to pack items into the fewest bins
- to sort items by weight only
- to make each bin hold exactly one item
- to maximise the number of bins used
-
In the quick sort algorithm as specified here, which item is chosen as the pivot?
- the first item always
- the largest item
- a randomly chosen item only
- the middle item of the list
-
A graph is Eulerian when every vertex has
- even degree
- odd degree
- degree exactly 3
- degree at most 4
-
A semi-Eulerian graph has exactly
- no vertices of odd degree
- four vertices of odd degree
- exactly one vertex of odd degree
- two vertices of odd degree
-
An Eulerian cycle is a cycle that includes
- every vertex at least once
- the shortest possible route
- every edge of the graph exactly once
- every vertex exactly once
-
A Hamiltonian cycle passes through
- only the vertices of odd degree
- every edge exactly once
- every vertex exactly once and returns to its start
- every edge at least once
-
A planar graph is one that can be drawn in a plane so that
- all edges have equal weight
- every vertex has degree 2
- no vertex has degree more than 3
- no two edges meet except at a vertex to which they are both incident
-
Items of sizes 6, 5, 4, 3 and 2 are packed into bins of capacity 10. What is the minimum number of bins?
- 4
- 2
- 5
- 3
-
Items of sizes 8, 5, 4 and 3 are packed into bins of capacity 10. What is the minimum number of bins?
- 5
- 4
- 2
- 3
-
A connected graph has vertex degrees 4, 4, 2, 2 and 4. Which statement is true?
- It is semi-Eulerian, with exactly two odd vertices
- It is Eulerian, so it has an Eulerian cycle
- It has no Eulerian cycle because it has an odd number of vertices
- It cannot be Eulerian since its degrees differ
-
A connected graph has exactly two odd vertices A and B. Where must an Eulerian trail start and end?
- both at A
- anywhere, as long as the start has even degree
- it must be a cycle returning to its start
- at A and at B
-
How many edges does the complete graph K6 have?
- 30
- 15
- 6
- 12
-
Using quick sort with the middle item as the pivot, what is the pivot for the list 5, 2, 9, 1, 7?
- 7
- 9
- 1
- 5
-
A graph has 4 vertices, each of degree 3. How many edges does it have?
- 12
- 4
- 6
- 3
-
Which graph has an Eulerian cycle?
- a star with three leaves
- a square with a pendant edge
- a path on three vertices
- a triangle
-
Which complete graph is planar?
- K4
- K7
- K5
- K6
-
Items of sizes 5, 5, 4, 4, 3 and 3 are packed into bins of capacity 10. What is the minimum number of bins?
- 5
- 3
- 2
- 4
-
A connected graph has six vertices, four of which have odd degree. Does it have an Eulerian trail?
- Yes, it is semi-Eulerian
- No: with more than two odd vertices there is no Eulerian trail
- Yes, since it is connected
- No, because its vertices have even degree
-
Why can a greedy packing method fail to find the minimum number of bins?
- it always wastes exactly half of each bin
- a locally best choice may leave gaps that another arrangement would fill
- it ignores the capacity of the bins
- it requires items sorted by weight
-
A graph has seven vertices with degrees 3, 3, 3, 3, 3, 3 and 2. How many edges does it have?
- 9
- 10
- 12
- 20
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