a. During a rocket launch, an astronaut experiences a “g-force” (actually an acceleration) of 3.0 gs [upward], which is equal to three times the acceleration due to gravity. If the astronaut weighs 79.4 kg, what is her apparent weight during the acceleration? b. When the astronaut enters the ISS (International Space Station), she is in “free fall,” where the only force acting on her is the force of gravity applied by the Earth. What happens to her true weight and her apparent weight as she enters the ISS? Explain.
a. During a rocket launch, an astronaut experiences a “g-force” (actually an acceleration) of 3.0 gs [upward], which is equal to three times the acceleration due to gravity. If the astronaut weighs 79.4 kg, what is her apparent weight during the acceleration? b. When the astronaut enters the ISS (International Space Station), she is in “free fall,” where the only force acting on her is the force of gravity applied by the Earth. What happens to her true weight and her apparent weight as she enters the ISS? Explain.
Chapter2: Newton's Laws
Section: Chapter Questions
Problem 19P: . Under certain conditions, the human body can safely withstand an acceleration of 10 g. (a) What...
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a. During a rocket launch, an astronaut experiences a “g-force” (actually an
acceleration) of 3.0 gs [upward], which is equal to three times the acceleration
due to gravity. If the astronaut weighs 79.4 kg, what is her apparent weight during
the acceleration?
b. When the astronaut enters the ISS (International Space Station), she is in “free
fall,” where the only force acting on her is the force of gravity applied by the
Earth. What happens to her true weight and her apparent weight as she enters
the ISS? Explain.
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