14) All of the models listed below support the understanding of fraction equivalence EXCEPT:
A) Graph of slope.
B) Shapes created on dot paper.
C) Plastic, circular area models.
D) Clock faces.
15) The way we write fractions is a convention with a top and bottom number with a bar in
between. Posing questions can help students make sense of the symbols. All of the questions
would support that sense making EXCEPT:
A) What does the denominator in a fraction tell us?
B) What does the equal symbol mean with fractions?
C) What might a fraction equal to one look like?
D) How do know if a fraction is greater than, less than 1?
16) How do you know that = ? Identify the statement below that demonstrates a conceptual
understanding.
A) They are the same because you can simplify and get .
B) Start with and multiply the top and bottom by 2 and you get .
C) If you have 6 items and you take 4 that would be . You can make 6 groups into 3 groups and
4 into 2 groups and that would be .
D) If you multiply 4 × 3 and 6 × 2 they’re both 12.
17) What does it mean to write fractions in simplest term?
A) Finding equivalent numerators.
B) Finding equivalent denominators.
C) Finding multipliers and divisors.
D) Finding equivalent fractions with no common whole number factors.
18) Comparing fractions involves the knowledge of the inverse relationship between number of
parts and size of parts. The following activities support the relationship EXCEPT:
A) Iterating.
B) Equivalent fraction algorithm.
C) Estimating.
D) Partitioning.
19) Estimating with fractions means that students have number sense about the relative size of
fractions. All of the activities below would guide this number sense EXCEPT:
A) Comparing fractions to benchmark numbers.
B) Find out the fractional part of the class are wearing glasses.
C) Collect survey data and find out what fractions of the class choose each item.
D) Use paper folding to identify equivalence.