Answer:
<h2>No, they're not equivalent.</h2>
Step-by-step explanation:
In the image attaches you can observe the Free Throws Made and the Free Throws Attempted.
Team Rockets Made 8 Free Throws, and Attempted 24, which give a ratio of

Team Turbos Made 16 free throws and attempted 36, which give a ratio of

As you can see, the ratio are diferent.
Therefore, the ratios are not equivalent.
Answer:
reverse
Step-by-step explanation:
When you multiply or divide on one side of an inequaltiy, you have to mirror it on the other side and you have to reverse the inequality sign.
Answer:
75, 91, 108
Step-by-step explanation:
Honestly I just used a pattern calculator, if you can look one up.
Please mark brainlest
a) Acceleration is the derivative of velocity. By the fundamental theorem of calculus,

so that


b) We get the displacement by integrating the velocity function like above. Assume the object starts at the origin, so that its initial position is
. Then its displacement over the time interval [0, 3] is

c) The total distance traveled is the integral of the absolute value of the velocity function:

for
and
for
, so we split the integral into two as



Answer:
25.6
Step-by-step explanation:
To work this out you would first divide 65 by 10, which gives you 6.5. This is because by dividing it by 10 you are working out 10%. Then to work out 40% you would multiply 10% which is 6.5 by 4, which gives you 25.6.
1) Divide 65 by 10.

2) Multiply 6.5 by 4.
