Q.

Find the area of quadrilateral ABCD whose vertices are A(-3,-1), B(-2,-4), C(4,-1), and D(3,4).


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a

28

b

54

c

97

d

22{"mathml":"<math class="image_resized" style="width:26px;height:12px"><span style="font-family: 

answer is A.

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Detailed Solution

Concept- We'll plot the points and connect the vertices with their neighboring vertices to begin answering this question. We shall then join the diagonal AC after that. Then, we will have two triangles, and the area of the quadrilateral ABCD will be equal to the sum of the areas of those two triangles.
Question ImageThe area of the quadrilateral ABCD shown in the previous figure has to be determined.
Given that a quadrilateral's vertices are A(-3, -1), B(-2, -4), C(4, -1), and D (3,4).
Now, what we'll do is draw a straight line connecting points A and C that is diagonal to the quadrilateral ABCD.
Two triangles, triangle ABC and triangle ADC with base AC, are seen in the figure.
We now understand that the area of a triangle whose three vertices are A (a, b), B (c, d), and C (e, f) is equal to,{"mathml":"<math class="image_resized" style="width:252px;height:36px"><span style="font-family:The vertices of triangle ABC are A (-3, -1), B (-2, -4), and C. ( 4, -1 ).
So, area of triangle ABC will be= {"mathml":"<math class="image_resized" style="width:459px;height:36px"><img src="data:image/jpeg;base64,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" width="92" height="36" alt=When we simplify, we obtain:
{"mathml":"<math class="image_resized" style="width:114px;height:36px"><span style="font-family:The vertices of triangle ADC are A (-3, -1), D (3, 4), and C. ( 4, -1 ).
So, area of triangle ADC will be={"mathml":"<math class="image_resized" style="width:368px;height:36px"><img src="data:image/jpeg;base64,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" width="118" height="36" alt=on simplifying, we get
{"mathml":"<math class="image_resized" style="width:148px;height:36px"><span style="font-family:Due to the fact that area cannot be negative, the triangle's area is {"mathml":"<math class="image_resized" style="width:56px;height:12px"><span style="font-family:.
Figure shows that the area of the quadrilateral ABCD is the sum of the areas of the triangles ABC and ADC.
Area of the quadrilateral ABCD is thus equal to {"mathml":"<math class="image_resized" style="width:122px;height:12px"><span style="font-family:After solving, we see that the quadrilateral's area is {"mathml":"<math class="image_resized" style="width:42px;height:12px"><span style="font-family:.
Hence,the correct option is 1) 28{"mathml":"<math class="image_resized" style="width:26px;height:12px"><span style="font-family:.
 
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Find the area of quadrilateral ABCD whose vertices are A(-3,-1), B(-2,-4), C(4,-1), and D(3,4).