A spacecraft is typically orbiting in the thermosphere, which extends from about 80 kilometers (50 miles) above the Earth's surface to around 600 kilometers (373 miles). This layer contains a small amount of air, which allows for low atmospheric drag, making it suitable for satellites and the International Space Station. However, some spacecraft can also operate in the exosphere, the outermost layer, where they are positioned at higher altitudes.
A spacecraft would be outside the atmosphere - that is, it would ideally be at such an altitude that there is no longer any significant atmosphere.
The Gemini spacecraft operated primarily in the thermosphere, which is part of the upper atmosphere, typically starting around 80 kilometers (50 miles) above Earth's surface and extending to about 600 kilometers (373 miles). During its missions, Gemini reached low Earth orbit, which is situated within this layer. The thermosphere is characterized by increasing temperatures and decreasing atmospheric density, allowing for orbital flight.
The big grass on an orbiting satellite would be called a park in space!
Astronauts feel weightlessness inside an orbiting spacecraft because both the spacecraft and the astronauts are in a continuous state of free fall towards Earth. As the spacecraft travels at high speeds in orbit, it falls towards the planet but also moves forward, creating a curved path that matches the curvature of the Earth. This balance between gravitational pull and forward motion results in a sensation of weightlessness, as there is no support force acting on the astronauts. Essentially, they are in a state of microgravity, experiencing the effects of gravity but not feeling it as they would on the surface.
To go to Jupiter, you would need a spacecraft capable of withstanding the extreme radiation and atmospheric pressure of the planet, as well as the long duration of the journey. This spacecraft would require advanced life support systems, radiation shielding, propulsion systems, communication equipment, and scientific instruments to study Jupiter and its moons.
Weight in orbit would be equal--Zero. The difference would be mass...
A spacecraft would be outside the atmosphere - that is, it would ideally be at such an altitude that there is no longer any significant atmosphere.
In an airplane, you are still affected by Earth's gravity as the plane is flying against the pull of gravity, creating lift and keeping you pressed down towards the floor. In an orbiting spacecraft, you are in free fall around Earth, so you and the spacecraft are falling towards Earth at the same rate hence you experience weightlessness.
The coldest layer of the atmosphere is the exosphere (space). If you were to not count the exosphere, the coldest layer would be the mesosphere.
The Gemini spacecraft operated primarily in the thermosphere, which is part of the upper atmosphere, typically starting around 80 kilometers (50 miles) above Earth's surface and extending to about 600 kilometers (373 miles). During its missions, Gemini reached low Earth orbit, which is situated within this layer. The thermosphere is characterized by increasing temperatures and decreasing atmospheric density, allowing for orbital flight.
The big grass on an orbiting satellite would be called a park in space!
Assuming your referring to an orbiting spacecraft, which travels around 17,000 MPH.First convert 50 seconds into the fraction of an hour = about 0.0139 hours, multiply this times 17,000 and that's 236.11111 miles in 50 seconds.
Astronauts feel weightlessness inside an orbiting spacecraft because both the spacecraft and the astronauts are in a continuous state of free fall towards Earth. As the spacecraft travels at high speeds in orbit, it falls towards the planet but also moves forward, creating a curved path that matches the curvature of the Earth. This balance between gravitational pull and forward motion results in a sensation of weightlessness, as there is no support force acting on the astronauts. Essentially, they are in a state of microgravity, experiencing the effects of gravity but not feeling it as they would on the surface.
To go to Jupiter, you would need a spacecraft capable of withstanding the extreme radiation and atmospheric pressure of the planet, as well as the long duration of the journey. This spacecraft would require advanced life support systems, radiation shielding, propulsion systems, communication equipment, and scientific instruments to study Jupiter and its moons.
Any astronaut would experience weightlessness while orbiting the Earth.Any astronaut would experience weightlessness while orbiting the Earth.Any astronaut would experience weightlessness while orbiting the Earth.Any astronaut would experience weightlessness while orbiting the Earth.
If you wanted to, you could call it the National Orbiting Vehicle-Launching Platform. But as soon as the newspapers got ahold of it, they would shorten the name down to something like "space station".
If a Voyager spacecraft were to land on Jupiter, it would be crushed by the immense pressure of Jupiter's atmosphere, which is made up mostly of hydrogen and helium. The spacecraft would also be subject to intense radiation, magnetic fields, and extreme temperatures, making it impossible for any human-made spacecraft to survive on the surface of Jupiter.