Simple answer, yes!
Yes, a weightless body can still have inertia. Inertia is the resistance of an object to changes in its motion, and it is determined by the mass of an object rather than its weight. Even if a body has no weight due to being weightless in space, it will still have inertia based on its mass.
Inertia connects to a rocket by affecting its motion. Inertia is the tendency of an object to resist changes in its motion, so a rocket must overcome this resistance to move and accelerate in space. Rockets are designed to counteract the effects of inertia by generating thrust to push them forward despite the inertia acting against their motion.
Work (W) is the product of force (F) times distance (D): W = F x D "Inertia" just means that you got a shove and nothing prevented you from stopping. You have potential energy, but you haven't done work until you slam into something.
Distance and inertia of motion are not directly related to each other. Inertia is the property of an object to resist changes in its motion, while distance is the amount of space between two points. However, distance can affect the inertia required to change the motion of an object, as moving a greater distance may require overcoming more inertia.
More mass does not necessarily mean that an object will take up more space. Mass refers to the amount of matter in an object, while volume determines the amount of space it occupies. Inertia, on the other hand, is a property of matter that describes its resistance to changes in motion.
No you more inertia in outer space than anywhere else.
Yep, if an astronaut has mass, they will have inertia.
Just because there's no air, doesn't mean that other forces are not at work. It mainly moves because of inertia.
When it an object in space in moving it will keep moving at the same speed with the property of inertia. Then moon is an object that has inertia. Gravity keeps the moon from going off into outer space but inertia keeps the moon from crashing into the moon. Gravity and inertia have to be balanced in order for an object to remain in orbit.
Inertia.
Yes. Even underwater, even in space.
Yes, a weightless body can still have inertia. Inertia is the resistance of an object to changes in its motion, and it is determined by the mass of an object rather than its weight. Even if a body has no weight due to being weightless in space, it will still have inertia based on its mass.
Johannes Kepler explained that the combination of inertia and gravity cause the elliptical shapes of orbits in his laws of planetary motion. His work laid the foundation for the understanding of how celestial bodies move in space.
Inertia connects to a rocket by affecting its motion. Inertia is the tendency of an object to resist changes in its motion, so a rocket must overcome this resistance to move and accelerate in space. Rockets are designed to counteract the effects of inertia by generating thrust to push them forward despite the inertia acting against their motion.
Inertia and Earth's gravitational pull
Work (W) is the product of force (F) times distance (D): W = F x D "Inertia" just means that you got a shove and nothing prevented you from stopping. You have potential energy, but you haven't done work until you slam into something.
The force of gravity keeps the space station in orbit as well as inertia that keeps the space station moving in a straight line.