Answer:
Explanation:
Having drawn the line, Kendall must verify that the point P belongs to the line y = 2x-1 and then calculate the distance between A-P and verify if it is the closest to A or there is another one of the line
Having the point P(3,5) substitue x to verify y
y=2*(3)-1=6-1=5 (3,5)
Now if the angle formed by A and P is 90º it means that it is the closest point, otherwise that point must be found
![d_(AP)=\sqrt{(y_(2)-y_(1))^(2)+(x_(2)-x_(1))^(2)}=\sqrt{(5-7)^(2)+(3-(-2}))^(2)}=\\\sqrt{(-2)^(2)+(5)^(2)}=√(29)](https://img.qammunity.org/2020/formulas/mathematics/high-school/htemv0wv0e0p7gp4rq2gz4dyi7cwu3ystj.png)
and we found the distance PQ and QA
;
,
![d_(QA)=12](https://img.qammunity.org/2020/formulas/mathematics/high-school/zuj0qzpa39ju4dbueure35lr1n8symm860.png)
be the APQ triangle we must find <APQ through the cosine law (graph 2).