To increase rocket speed, you can add more propellant to increase thrust, reduce the rocket's mass by shedding unnecessary weight, or improve aerodynamics to minimize drag. Additionally, optimizing the rocket's trajectory and using efficient engine designs can also help increase speed.
Larger wings can provide greater lift, allowing the rocket to fly higher with less resistance, which can increase speed. However, if the wings are too large, they can create excessive drag, slowing down the rocket. It's important to find a balance between lift and drag to optimize rocket speed.
The rocket speed increases every second because of the continuous burning of fuel, which generates thrust that propels the rocket forward. As the fuel is burned and expelled as exhaust, the rocket becomes lighter, allowing it to accelerate due to the conservation of momentum. Additionally, there is minimal air resistance in space, enabling the rocket to accelerate more efficiently.
A force can change the direction of the rocket's motion but not its speed if the force is applied perpendicular to the rocket's velocity. If the force is applied in the same direction as the rocket's motion, it can accelerate or decelerate the rocket.
determined by the rocket's thrust and the mass of the rocket. The speed of the rocket can also be influenced by external factors such as gravity and air resistance. Ultimately, the goal is to achieve enough speed to overcome these forces and reach the desired velocity.
The size of a rocket does not directly affect its speed. The speed of a rocket is determined by factors such as its engine power, fuel efficiency, and aerodynamics. However, a larger rocket may have more room for larger engines or additional fuel, allowing it to potentially achieve higher speeds.
Larger wings can provide greater lift, allowing the rocket to fly higher with less resistance, which can increase speed. However, if the wings are too large, they can create excessive drag, slowing down the rocket. It's important to find a balance between lift and drag to optimize rocket speed.
The rocket speed increases every second because of the continuous burning of fuel, which generates thrust that propels the rocket forward. As the fuel is burned and expelled as exhaust, the rocket becomes lighter, allowing it to accelerate due to the conservation of momentum. Additionally, there is minimal air resistance in space, enabling the rocket to accelerate more efficiently.
in rockets the area of crossection for the ejection of smoke is made small, so according to the equation of continuity the speed of gases increases. this leads to raise the speed (and momentum) of the rocket, and chamge in momentum becomes rapid. as change in momentum gives force, the force on the the rocket increases and it flies fast.
You have to get up to a high enough speed to go around the earth. They use three seperate stages to increase the speed to over 15,000 mph.
0.929c formula is: vbe =( vae +vba )/(1+( vae *vba )/c2 )
A force can change the direction of the rocket's motion but not its speed if the force is applied perpendicular to the rocket's velocity. If the force is applied in the same direction as the rocket's motion, it can accelerate or decelerate the rocket.
determined by the rocket's thrust and the mass of the rocket. The speed of the rocket can also be influenced by external factors such as gravity and air resistance. Ultimately, the goal is to achieve enough speed to overcome these forces and reach the desired velocity.
Yes. A heavier rocket will need more energy to achieve a certain speed.
The problem/question can not be solved, because to calculate the speed of the rocket you need the distance done by the rocket and the time interval.
it is used to rise the speed of the rocket.
because of it's speed.
what is the speed of a rocket that travels 9000 meters in 12.12 seconds