Newton's second law, which states that force equals mass times acceleration (F=ma), directly applies to rowing by illustrating how the force exerted by rowers impacts the boat's acceleration. The greater the force applied to the oars, the faster the boat will accelerate, assuming the mass of the boat and crew remains constant. Additionally, efficient technique can maximize the force applied with minimal energy expenditure, leading to improved speed and performance on the water. Thus, understanding and applying this law is crucial for optimizing rowing efficiency and effectiveness.
Its a matter of being scientifically rigorous. You can not claim the 2nd law as a law unless you first establish the first law.
Actually, the first one is completely independent on the second one. But the second one doesn't make any sense without the first one.
Every single object that exists obeys ALL of Newtons Laws
Newtons Second Law was F=ma, means the force(F) acting on object is equal to mass(m) of object times it's acceleration(a).
(Mass) x (Acceleration)
F=ma Input: newtons second law at wolframalpha.com
You fall as hard as you jumped when you don't stick the landing.
It affects sky divers because the closer you are to the ground the faster you go.
Its a matter of being scientifically rigorous. You can not claim the 2nd law as a law unless you first establish the first law.
its not importsnt
Newton's second law deals with mass and force as it relates to acceleration. Acceleration down the hill is the main part of skiing, which skiers can affect by changing their mass or the force they use to push themselves down the hill.
This is because two concepts are derived from the newtons second law. First : Force . F = m * a Second : momentum .. p = m * v
The clue is in the question.
the second law
Actually, the first one is completely independent on the second one. But the second one doesn't make any sense without the first one.
Every single object that exists obeys ALL of Newtons Laws
F = m a