1. The amount of Matter being expelled through the Exhaust Nozzle.
2. The Velocity of the Matter being Expelled.
The thrust of a rocket engine depends on the mass flow rate of the propellant and the exhaust velocity of the gases expelled. The mass flow rate is the amount of propellant being burned and expelled per unit time, while the exhaust velocity is how fast the gases leave the engine. Together, these factors determine the overall thrust produced by the engine according to Newton's third law of motion.
Air resistance (drag) is a major force that slows a rocket down during ascent. Additionally, gravity can also act as a downward force, counteracting the thrust generated by the rocket engines. These forces combined with any thrust reversals during engine shutdown can contribute to slowing down a rocket.
If and only if all of the thrust is in the opposite direction of the gravity vector ("straight down"). If any of the thrust has horizontal component, it will travel a distance but lose height.
The amount of exposed surface area of the fuel
Yes, elements like hydrogen and oxygen can react to form water vapor in a combustion reaction, creating thrust in a rocket engine. Compounds like solid rocket propellants can also release energy through exothermic reactions that generate thrust.
An ionization engine is an type of rocket and this is how it works. Electrons ionize air molecules and then when they get between two accelerator grids and then they go zooming out the back providing thrust more powerful and more sudden than any other rocket or engine to date.
A rocket needs enough thrust to overcome Earth's gravitational pull and achieve the required velocity to reach outer space, typically around 25,000 mph (40,000 km/h). The exact thrust needed depends on various factors such as the rocket's size, weight, and the altitude it needs to reach.
An ionization engine is an type of rocket and this is how it works. Electrons ionize air molecules and then when they get between two accelerator grids and then they go zooming out the back providing thrust more powerful and more sudden than any other rocket or engine to date.
When a rocket launches, the thrust of its engines must be greater than the gravitational force acting on the rocket, which is the weight of the rocket. This ensures that the rocket can overcome Earth's gravity and lift off the ground. Additionally, the thrust must also be sufficient to counteract any atmospheric drag during ascent.
A balloon does not move like a rocket. A helium filled balloon will float upward because the density of helium is less than that of air, so it is effectively "lighter". A rocket is propelled in any direction using a booster engine that burns fuel.
In space, the main forces acting upon a rocket include thrust generated by the engine to propel the rocket forward, gravity pulling the rocket towards a celestial body, and occasionally solar radiation pressure affecting the rocket's trajectory. Additionally, the rocket may experience small amounts of drag due to any lingering atmosphere in orbit.
not exactly,there could be powder coming out of a hole or puncture in the rocket.that could cause an explosion sending flaming debree everywhere.you should inspect the rocket first.if you see lots of smoke you can: a.throw a rock at it while it is still low to the ground b.send another rocket at it to make it explode c.DON'T LAUNCH ROCKETS WITHOUT INSPECTING THEM!