A rocket (firework) achieves maximum height once the fuel plus upward thrust runs out. Then gravity takes over and the rocket falls back to the ground.
The highest point a rocket reaches during its flight is typically the apogee, which is the point of maximum altitude. This is the point where the rocket reaches its peak altitude before descending back to Earth.
To measure how high a rocket can go during flight, you can use an altimeter, which measures altitude based on atmospheric pressure or GPS data. Additionally, telemetry systems can send real-time data back to the ground, allowing for precise tracking of the rocket's altitude. After the flight, the maximum altitude can also be determined by analyzing the rocket's flight data logs. Combining these methods provides an accurate assessment of the rocket's peak altitude.
Fins on a rocket affects its flight by the way they are built on the rocket
The stages of rocket flight include liftoff (launch), ascent (climbing into space), orbital insertion (reaching desired orbit), payload deployment (releasing satellites or spacecraft), and reentry (returning to Earth's atmosphere). Each stage involves specific maneuvers and actions to achieve the rocket's objectives.
A plane needs air, a rocket doesn't.
Incredibly ! -In rocket flight streamlining is the single most important factor.
Pressure affects the flight of a bottle rocket because it determines the force of the water and gas expulsion that propels the rocket upward. When the pressure inside the bottle increases due to added air or gas, it creates greater thrust when the nozzle is opened, resulting in a more powerful launch. Conversely, if the pressure is too low, the rocket may not generate enough force to achieve significant altitude. Therefore, optimal pressure is crucial for maximizing the rocket's performance and flight distance.
Air resistance acts against the motion of a rocket by creating drag, which can slow down the rocket's acceleration and decrease its maximum speed. The more streamlined a rocket is, the less air resistance it will face, allowing it to move more efficiently through the atmosphere. Overall, air resistance can impact the performance and efficiency of a rocket during its flight.
Robert H. Goddard's created the first liquid-propellant rocket to achieve flight. It was launched on March 16, 1926, at Auburn, Massachusetts,
To achieve flight in Earth's atmosphere, you would typically use jet engines, turboprop engines, or piston engines. In outer space, rocket engines are commonly used for propulsion due to the lack of air for combustion. Rocket engines propel spacecraft by expelling mass in the form of hot gases at high speeds.
To keep the rocket in straight,stable flight.
used up rocket stages