Space Shuttle

To preserve the nation's dwindling open land space, the government implemented a range of measures, including the establishment of national parks and protected areas, which safeguard significant ecosystems and wildlife habitats. Additionally, it has enacted legislation promoting land conservation, such as the Land and Water Conservation Fund, which supports local and state conservation projects. The government also encourages sustainable land use practices through grants and incentives for landowners to maintain open spaces and engage in conservation efforts. Collaboration with non-profit organizations and community groups has further enhanced these initiatives by fostering public awareness and support for land preservation.

The speed of the Space Shuttle varied during its mission phases. During launch, it reached speeds of approximately 17,500 miles per hour (28,000 kilometers per hour) to achieve low Earth orbit. Once in orbit, it maintained this speed to counteract Earth's gravity and stay in a stable trajectory. Upon re-entry, the shuttle's speed would decrease significantly as it descended back to Earth.

Space shuttles are reusable spacecraft designed to transport astronauts and cargo to and from low Earth orbit, notably used by NASA from 1981 to 2011. Space probes are unmanned spacecraft that travel beyond Earth's orbit to gather data about celestial bodies, often sending back information about planets, moons, and asteroids. Space stations, like the International Space Station (ISS), are habitable artificial satellites that serve as research laboratories where astronauts conduct scientific experiments in microgravity. Together, these technologies enable exploration, research, and the advancement of our understanding of the universe.

During re-entry, spacecraft use heat shields made of ablative materials that absorb and dissipate extreme heat generated by friction with the atmosphere. Additionally, active cooling systems, such as radiators and thermal control systems, help maintain a stable internal temperature by regulating heat transfer within the spacecraft. Together, these methods ensure the crew remains safe from the intense thermal conditions experienced during re-entry.

A flight engineer on a space shuttle is responsible for monitoring and managing the spacecraft's systems during launch, flight, and landing. They assist the commander and pilot by performing checks on critical systems, troubleshooting any issues that arise, and ensuring the shuttle operates safely and efficiently. Additionally, flight engineers may handle communication with ground control and oversee specific mission tasks related to payload operations and equipment. Their role is crucial for the overall success and safety of the mission.

Space shuttle astronauts in orbit do not hit their heads on the ceiling because they are in a state of free fall, experiencing microgravity. In this condition, both the astronauts and the shuttle are falling towards Earth at the same rate, creating the sensation of weightlessness. As a result, they float inside the shuttle and are not subject to the forces that would normally cause them to collide with surfaces.

Space shuttles provide significant benefits for space exploration and research by enabling reusable access to low Earth orbit. They facilitate the deployment and maintenance of satellites, as well as the construction and servicing of the International Space Station (ISS). Additionally, shuttles support scientific experiments in microgravity, advancing our understanding of various fields such as biology, physics, and materials science. Their ability to carry large payloads and crew members enhances the potential for diverse missions beyond Earth.

Oh, dude, a spaceship is made of all sorts of cool stuff like metal alloys, carbon composites, and some fancy heat shields to protect it from burning up on re-entry. It's like a giant, high-tech tin can floating around in space, but way cooler. So, yeah, it's basically a spaceship burrito of science and engineering.

That was the intent behind the Space Shuttle program: a reusable vehicle that could ferry astronauts to orbit and back to the ground. The biggest problem was complexity. A trillion parts and all had to work, again and again and again in the harshest of conditions. NASA is 'mothballing' (closing) the shuttles in 2010 - they are old and decrepit and get more dangerous by the day. The new project is named 'Orion' and will be one time use designs that are proven cheap and safe.

Oh, dude, a day in space is around 24 hours and 39 minutes. Yeah, it's like a little extra bonus time up there. So, if you ever need some extra minutes in your day, just hop on a rocket and blast off!

"Yes in space it goes 25000 km/h or 18000 m/h , but exact moment when the space shutle launches is slow, around 160km/h or 108m/h,after one minute it goes around 1600 km/h or 1000 m/h and so on."

Not counting other factors such as air resistance, and only looking at acceleration, you'll see for the first minute the shuttle experiences an aver g force of 1.7.

We'll use the first minute only, as an example, as after the first minute, the air density lessons significantly.

So you'll get an acceleration of 0.7 g's, after you negate the earths 1g.

A g is the force you feel when accellerating at about 10 meters per second, or about 35km/h. At 0.7 g's is about 7m/s or 24.5 km/h.

So, roughly at :
-one second after launch the shuttle has a velocity of 24 km/h.
-two seconds after launch the shuttle has a velocity of 48 km/s.
-ten seconds after launch the shuttle has a velocity of 245 km/h.
-one minute after launch the shuttle has a velocity of 1470 km/h.

Leaving_Jupiter

its weight decreases since most of that weight is fuel and is being burnt off to get lift

The space shuttle typically reenters the Earth's atmosphere at a speed of around 17,500 miles per hour (28,000 kilometers per hour). This high velocity is necessary to overcome the gravitational pull of the Earth and safely return to the surface. As the shuttle enters the atmosphere, it experiences extreme heating due to air friction, which can reach temperatures of up to 3,000 degrees Fahrenheit (1,650 degrees Celsius).

yes she likes to eat green plants

Oh, dude, space rockets are made of a bunch of stuff like aluminum, titanium, carbon fiber, and other fancy materials. They gotta be super strong and lightweight to get all the way up there, you know? So, it's like a mix of science, engineering, and a touch of magic.

A spacecraft can slow down in space by engaging its thrusters or engines in the opposite direction of its current velocity. This creates a force in the opposite direction, known as retrograde thrust, which reduces the spacecraft's speed. Another method is to use aerobraking, where the spacecraft dips into a planet's atmosphere to create drag and slow down. Finally, a spacecraft can also use gravity assists from planets or moons to alter its trajectory and reduce its velocity.

During takeoff, a space shuttle can reach speeds of up to 17,500 miles per hour (28,000 kilometers per hour). This speed is necessary to overcome Earth's gravity and reach orbit. The space shuttle accelerates rapidly during launch, with its main engines and solid rocket boosters providing the necessary thrust to achieve this incredible speed.

The Space Shuttle is a large, complex, manned spacecraft that is designed to carry people, satellites, probes, parts of space stations, or experiments into low-Earth orbit. It is re-usable and has flown many times.

Probes, on the other hand, are small, unmanned, robotic spacecraft that are sent to explore other moons, planets, or asteroids. There are many different types of probes, each designed for a specific mission. Probes are not re-usable and are destroyed or abandoned after they have completed their missions. Several examples of probes include the Galileo spacecraft, the Voyager spacecraft, the Mariner spacecraft, and the Mars Exploration Rovers Spirit and Opportunity.

To exit orbit and travel into space, a spacecraft must increase its velocity to overcome the gravitational pull of the celestial body it is orbiting. This is typically achieved by firing onboard thrusters or engines in the direction opposite to the spacecraft's orbital motion. Once the spacecraft reaches a high enough velocity, it can break free from the gravitational influence and continue its journey into space. This maneuver requires precise calculations and timing to ensure a successful exit from orbit.

Yes, Mae C. Jemison was married. She married a fellow physician named Dr. Chuck Franklin in 1983, but the marriage ended in divorce in 1993. Mae C. Jemison is best known for being the first African American woman to travel in space as a NASA astronaut aboard the Space Shuttle Endeavour in 1992.

Oh, dude, like, technically speaking, argotypoline isn't a real thing. It sounds like something you'd find in a sci-fi movie or a made-up chemical compound. So, if you're planning on using it in your next experiment or trying to impress someone at a party, maybe stick to real elements like carbon or hydrogen.

The maximum is 3g.

At launch the gravity that they experience is about 1.7 g's and by the time the solid rocket boosters are separated which is two minutes into the launch the g-force will be over 2 g's. At the separation of the solid rocket booster, the g-force will decrease to just over 1 g. During the last one minute of the ascent, which is for 8.5 minutes, when the main engines ignited the last full minute, we will experience about 3 g's, and when the main engines cut off around 8 minutes, 30 seconds, you go right into zero-g and everything starts to float around.

Oh, dude, let me break it down for you. So, in the alphabet, "shut" comes last out of those options. Like, it's like the last one before you hit "shuttle." So, yeah, "shut" is the winner in this alphabetical showdown.

The first manmade object in space were the German V-2 rockets in World War II, they flew a suborbital path and some may have reached the 100 km height that NASA defines as the altitude where space begins.