How do you use what you have learned to problem solve?
Goal:
Goal:
Practice!
Goal: Apply what you have learned about
drawing equivalent fractions to solve a word problem.
Let’s draw models to represent equivalent fractions!
Madelyn is playing video games, but her televisions are
glitching. \({ \frac{2}{6} }\) of the boxes on the first TV
are blue, and \({ \frac{1}{3} }\) of the boxes on the second
TV are blue. Draw models to prove these fractions are
equivalent.
Word Problem Solving Steps
Read the problem.
Look for important information.
Draw the models.
Color or label the models.
Check your answer.
Read the problem.
What is this word problem telling you? Read through it a
few times, and then write it on a piece of paper.
Madelyn is playing video games, but her televisions
are glitching. \({ \frac{2}{6} }\) of the boxes on
the first TV are blue, and \({ \frac{1}{3} }\) of
the boxes on the second TV are blue. Draw models to
prove these fractions are equivalent.
Look for important information.
What information is important in this word problem?
Underline or circle the important information in the
word problem. Then, check your thinking by clicking the
Show Me button.
Madelyn is playing video games, but her
televisions are glitching. \({ \frac{2}{6}
}\) of the boxes on the first TV are blue,
and \({ \frac{1}{3} }\) of the boxes on the
second TV are blue. Draw models to prove
these fractions are equivalent.
\({ \frac{2}{6} }\) and \({ \frac{1}{3} }\)
are circled. The last sentence, "Draw models
to prove these fractions are equivalent." is
underlined.
Here is the most important information in this
word problem:
The televisions are showing \({ \frac{2}{6}
}\) and \({ \frac{1}{3} }\) blue boxes.
We need to prove these fractions are
equivalent by drawing models.
Draw the models.
Let’s draw shapes and number lines as our models! Start
by drawing 2 rectangles that are the same size and 2
blank number lines that are the same length. Then
partition the shapes and number lines to model \({
\frac{2}{6} }\) and \({ \frac{1}{3} }\).
Click on the images below to check your work.
Two rectangles.
Two number lines from 0 to 1.
Two rectangles.
Two number lines.
Top rectangle is partitioned into 6 equal parts.
Top number line has 7 marks between 0 and 1.
Bottom rectangle is partitioned into 3 equal
parts. Bottom number line has 4 marks between 0
and 1.
Color or label the models.
Color the shapes to model \({ \frac{2}{6} }\) and \({
\frac{1}{3} }\). Then, label the number lines, and draw
dots over \({ \frac{2}{6} }\) and \({ \frac{1}{3} }\).
Click on the images below to check your work.
Two rectangles.
Two number lines.
Top rectangle is partitioned into 6 equal parts.
Top number line has 7 marks between 0 and 1.
Bottom rectangle is partitioned into 3 equal
parts. Bottom number line has 4 marks between 0
and 1.
Two rectangles.
Two number lines.
Top rectangle is partitioned into 6 equal parts
with 2 parts filled in. Top number line has 7
marks between 0 and 1. Marks are labeled from
\({ \frac{0}{6} }\) to \({ \frac{6}{6} }\) with
a dot above \({ \frac{2}{6} }\).
Top rectangle is partitioned into 3 equal parts
with 1 part filled in. Top number line has 7
marks between 0 and 1. Marks are labeled from
\({ \frac{0}{3} }\) to \({ \frac{3}{3} }\) with
a dot above \({ \frac{1}{3} }\).
Check your answer.
Do the colored parts of your rectangles take up the same
amount of space? Do the dots on your number lines line
up? Draw lines to help you!
Madelyn is playing video games, but her televisions
are glitching. \({ \frac{2}{6} }\) of the boxes on
the first TV are blue, and \({ \frac{1}{3} }\) of
the boxes on the second TV are blue. Draw models to
prove these fractions are equivalent.
\({ \frac{2}{6} }\) and \({ \frac{1}{3} }\) are
circled. The last sentence, "Draw models to prove
these fractions are equivalent." is underlined.
Top rectangle is partitioned into 6 equal parts with
2 parts filled in. Top number line has 7 marks
between 0 and 1. Marks are labeled from \({
\frac{0}{6} }\) to \({ \frac{6}{6} }\) with a dot
above \({ \frac{2}{6} }\).
Top rectangle is partitioned into 3 equal parts with
1 part filled in. Top number line has 7 marks
between 0 and 1. Marks are labeled from \({
\frac{0}{3} }\) to \({ \frac{3}{3} }\) with a dot
above \({ \frac{1}{3} }\).
There is a dotted line from the filled parts in the
rectangle that match up. There is a dotted line from
the dots on the number lines that match up.
Question:
Are \({ \frac{2}{6} }\) and \({ \frac{1}{3} }\)
equivalent fractions?
Yes! They are equivalent.
Slide:
Which number lines show equivalent fractions? Click the number lines below to find out!
Two number lines.
Top number line goes from 0 to 1 with 9 marks
between. Marks are labeled from \({ \frac{0}{8} }\)
to \({ \frac{8}{8} }\) with a dot on \({ \frac{4}{8}
}\).
Bottom number line goes from 0 to 1 with 5 marks
between. Marks are labeled from \({ \frac{0}{4} }\)
to \({ \frac{4}{4} }\) with a dot on \({ \frac{2}{4}
}\).
Two number lines.
Top number line goes from 0 to 1 with 9 marks
between. Marks are labeled from \({ \frac{0}{8} }\)
to \({ \frac{8}{8} }\) with a dot on \({ \frac{4}{8}
}\).
Bottom number line goes from 0 to 1 with 5 marks
between. Marks are labeled from \({ \frac{0}{4} }\)
to \({ \frac{4}{4} }\) with a dot on \({ \frac{2}{4}
}\).
🤔 These number lines are not partitioned into equal
parts, so they do not show equivalent fractions.
Two number lines.
Top number line goes from 0 to 1 with 9 marks
between. Marks are labeled from \({ \frac{0}{8} }\)
to \({ \frac{8}{8} }\) with a dot on \({ \frac{4}{8}
}\).
Bottom number line goes from 0 to 1 with 5 marks
between. Marks are labeled from \({ \frac{0}{4} }\)
to \({ \frac{4}{4} }\) with a dot on \({ \frac{2}{4}
}\).
Two number lines.
Top number line goes from 0 to 1 with 9 marks
between. Marks are labeled from \({ \frac{0}{8} }\)
to \({ \frac{8}{8} }\) with a dot on \({ \frac{4}{8}
}\).
Bottom number line goes from 0 to 1 with 5 marks
between. Marks are labeled from \({ \frac{0}{4} }\)
to \({ \frac{4}{4} }\) with a dot on \({ \frac{2}{4}
}\).
😀 Yes! These number lines are partitioned into equal
parts. They show \({ \frac{4}{8} }\) and \({
\frac{2}{4} }\) are equivalent fractions because both
dots line up.