a 3.0 - kg bowling ball experiences a net force of 8.0 n. what will be its acceleration?\n24 m/s²\n3.0…

a 3.0 - kg bowling ball experiences a net force of 8.0 n. what will be its acceleration?\n24 m/s²\n3.0 m/s²\n8.0 m/s²\n2.7 m/s²\n0.38 m/s²\nquestion 4 10 pts\ntwo forces act on a 8.50 - kg object. one of the forces is 14.0 n. if the object accelerates at 3.50 m/s², what is the greatest possible magnitude of the other force?\n10 n\n15.8 n\n43.8 n\n26.3 n\n73.5 n
Answer
Explanation:
Step1: Recall Newton's second - law formula
$F = ma$, where $F$ is the net force, $m$ is the mass, and $a$ is the acceleration. We can solve for $a$ as $a=\frac{F}{m}$.
Step2: Calculate acceleration for first question
Given $m = 3.0\ kg$ and $F = 8.0\ N$, then $a=\frac{8.0\ N}{3.0\ kg}\approx2.67\ m/s^{2}\approx2.7\ m/s^{2}$.
Step3: For the second question, first find the net force
Using $F = ma$, with $m = 8.50\ kg$ and $a = 3.50\ m/s^{2}$, the net force $F_{net}=ma=8.50\ kg\times3.50\ m/s^{2}=29.75\ N$.
Step4: Determine the other force
Let the two forces be $F_1$ and $F_2$. The net force $F_{net}=F_1 + F_2$ (when the forces are in the same direction for maximum magnitude of the other force). Given $F_1 = 14.0\ N$, then $F_2=F_{net}-F_1$. So $F_2=29.75\ N - 14.0\ N=15.75\ N\approx15.8\ N$.
Answer:
First question: $2.7\ m/s^{2}$ (closest option is $2.7\ m/s^{2}$ which is not exactly listed but closest to the calculated value) Second question: B. $15.8\ N$