Duplicate Question
The question on this page has been marked as a duplicate question.
Original Question
Identify the whole-number measure of segment AD¯¯¯¯¯¯¯¯ that would create △ABD and △ACD as shown. An illustration shows a rhomb...Asked by kyle smith uwu
Identify the whole-number measure of segment AD¯¯¯¯¯¯¯¯
that would create △ABD
and △ACD
as shown.
An illustration shows a rhombus where the vertices are labeled as follows: A on the top vertex, B on the left, C on the right, and D at the bottom. A dashed line is drawn from A to D. The sides are labeled as follows: A C is labeled as 5, A B as 4, B D as 8, and C D as 15.
(1 point)
Responses
12
12
11
11
9
9
5
that would create △ABD
and △ACD
as shown.
An illustration shows a rhombus where the vertices are labeled as follows: A on the top vertex, B on the left, C on the right, and D at the bottom. A dashed line is drawn from A to D. The sides are labeled as follows: A C is labeled as 5, A B as 4, B D as 8, and C D as 15.
(1 point)
Responses
12
12
11
11
9
9
5
Answers
Answered by
GPT-4o mini
To determine the length of segment \( AD \) that would create triangles \( \triangle ABD \) and \( \triangle ACD \) in the given rhombus configuration, we can utilize the triangle inequality theorem.
Since a rhombus has opposite sides that are equal, we know that:
- \( AB = 4 \)
- \( AC = 5 \)
- \( BD = 8 \)
- \( CD = 15 \)
We have to find \( AD \). Let's denote this length as \( AD = x \).
By applying the triangle inequality theorem to triangles \( \triangle ABD \) and \( \triangle ACD \):
### For \( \triangle ABD \):
1. \( AB + AD > BD \)
- \( 4 + x > 8 \)
- \( x > 4 \)
2. \( AB + BD > AD \)
- \( 4 + 8 > x \)
- \( 12 > x \) or \( x < 12 \)
3. \( AD + BD > AB \)
- \( x + 8 > 4 \)
- \( x > -4 \) (This is always true since \( x \) is a length)
Combining results for triangle \( \triangle ABD \):
- \( 4 < x < 12 \)
### For \( \triangle ACD \):
1. \( AC + AD > CD \)
- \( 5 + x > 15 \)
- \( x > 10 \)
2. \( AC + CD > AD \)
- \( 5 + 15 > x \)
- \( 20 > x \) or \( x < 20 \)
3. \( AD + CD > AC \)
- \( x + 15 > 5 \)
- \( x > -10 \) (This is always true since \( x \) is a length)
Combining results for triangle \( \triangle ACD \):
- \( 10 < x < 20 \)
### Final Result:
Considering both sets of inequalities:
- From \( \triangle ABD \): \( 4 < x < 12 \)
- From \( \triangle ACD \): \( 10 < x < 20 \)
Combining these constraints gives us:
- \( 10 < x < 12 \)
Thus, the only whole-number measure for \( AD \) in this range is \( 11 \).
So, the answer is \( 11 \).
Since a rhombus has opposite sides that are equal, we know that:
- \( AB = 4 \)
- \( AC = 5 \)
- \( BD = 8 \)
- \( CD = 15 \)
We have to find \( AD \). Let's denote this length as \( AD = x \).
By applying the triangle inequality theorem to triangles \( \triangle ABD \) and \( \triangle ACD \):
### For \( \triangle ABD \):
1. \( AB + AD > BD \)
- \( 4 + x > 8 \)
- \( x > 4 \)
2. \( AB + BD > AD \)
- \( 4 + 8 > x \)
- \( 12 > x \) or \( x < 12 \)
3. \( AD + BD > AB \)
- \( x + 8 > 4 \)
- \( x > -4 \) (This is always true since \( x \) is a length)
Combining results for triangle \( \triangle ABD \):
- \( 4 < x < 12 \)
### For \( \triangle ACD \):
1. \( AC + AD > CD \)
- \( 5 + x > 15 \)
- \( x > 10 \)
2. \( AC + CD > AD \)
- \( 5 + 15 > x \)
- \( 20 > x \) or \( x < 20 \)
3. \( AD + CD > AC \)
- \( x + 15 > 5 \)
- \( x > -10 \) (This is always true since \( x \) is a length)
Combining results for triangle \( \triangle ACD \):
- \( 10 < x < 20 \)
### Final Result:
Considering both sets of inequalities:
- From \( \triangle ABD \): \( 4 < x < 12 \)
- From \( \triangle ACD \): \( 10 < x < 20 \)
Combining these constraints gives us:
- \( 10 < x < 12 \)
Thus, the only whole-number measure for \( AD \) in this range is \( 11 \).
So, the answer is \( 11 \).
There are no human answers yet. A form for humans to post answers is coming very soon!