Yes, momentum is conserved during a rocket explosion. According to Newton's third law of motion, for every action (the expelled gases pushing against the rocket) there is an equal and opposite reaction (the rocket moving in the opposite direction). This allows for the conservation of momentum in the system.
The momentum in a rocket is the product of its mass and velocity. It is a measure of the rocket's motion and is conserved in the absence of external forces. The momentum of a rocket changes as it expels exhaust gases, which causes the rocket to move in the opposite direction.
The momentum of a rocket is directly proportional to its velocity during space travel. This means that as the rocket's velocity increases, its momentum also increases. Momentum is a measure of an object's motion, and in the case of a rocket, its momentum is determined by its mass and velocity. So, the faster a rocket travels in space, the greater its momentum will be.
When a rocket ship takes off, it expels gas particles in one direction at high speed, causing the rocket itself to move in the opposite direction. According to the law of conservation of momentum, momentum is always conserved in a closed system. So, the total momentum of the rocket and the expelled gas remains constant before and after the launch.
Momentum is the product of an object's mass and velocity, so a rocket with high momentum will have more force upon launch. Velocity is the speed at which the rocket is moving, which affects how quickly it accelerates and gains height. Both momentum and velocity are crucial for determining the rocket's trajectory and performance during launch.
the expelled gases. As the rocket pushes off the gases at high speed, the equal and opposite reaction pushes the rocket in the opposite direction with an equal force, propelling it upwards.
The momentum in a rocket is the product of its mass and velocity. It is a measure of the rocket's motion and is conserved in the absence of external forces. The momentum of a rocket changes as it expels exhaust gases, which causes the rocket to move in the opposite direction.
The momentum of a rocket is directly proportional to its velocity during space travel. This means that as the rocket's velocity increases, its momentum also increases. Momentum is a measure of an object's motion, and in the case of a rocket, its momentum is determined by its mass and velocity. So, the faster a rocket travels in space, the greater its momentum will be.
When a rocket ship takes off, it expels gas particles in one direction at high speed, causing the rocket itself to move in the opposite direction. According to the law of conservation of momentum, momentum is always conserved in a closed system. So, the total momentum of the rocket and the expelled gas remains constant before and after the launch.
Momentum is the product of an object's mass and velocity, so a rocket with high momentum will have more force upon launch. Velocity is the speed at which the rocket is moving, which affects how quickly it accelerates and gains height. Both momentum and velocity are crucial for determining the rocket's trajectory and performance during launch.
If a rocket is at rest (zero momentum) in outer space, where there is no gravity, then as long as there are no Outside forces on it its momentum must always be zero (consevation of momentum). This must be true even if an internal explosion brakes it into pieces. The pieces must fly off in such a way that their net vector momentum is zero. Turning on the engine is like an internal explosion. The hot gasses, which have mass, are ejected out the back at high velocity so the gas has momentum. In order to keep the total momentum zero the rocket must move forward so its momentum just equals the backward momentum of the gasses and the net momentum of both is zero. The same is almost true when taking off from earth. Because of the Earth's gravity(outside force) the upward momentum of the rocket won't quite equal the downward momentum of the gasses but its almost the same.
Momentum is mass times velocity. Without knowing the speed of the rocket, momentum cannot be calculated.
yes
linear momentum. A rocket works by expelling gases from one end at a very high velocity. The escaping gases have a very high speed and this with their mass translates to a very large momentum. Due to the principle of conservation of momentum the body of the rocket is pushed forward. If both the momentum of the gases as well as that of the rocket are added the sum is zero.
This is possible via the conservation of momentum. A rocket ejects matter from its back and this matter carries momentum. To conserve momentum the rocket must gain an equal amount of momentum in the opposite direction. Since momentum is related to velocity this causes the rocket to move. This is basically an application of Newton's third law. You might have been confused with the situation in air. For example an airplane moves through air by pushing air past it (using its propeller). This accelerates the air, and thus increases its momentum. The airplane must therefore gain momentum in the opposite direction, and accelerates itself as well. The only difference between the airplane and the rocket is that the rocket carries the stuff it accelerates (and ejects) while the airplane can use the air that is already present all around it. Note that while this is the basic explanation, the situation with the rocket is made somewhat more complicated by the fact that as the rocket loses fuel it also loses momentum because momentum is velocity times mass and the lost fuel lowers the mass of the rocket. You might want to look up Tsiolkovsky's rocket equation if you want more information.
the expelled gases. As the rocket pushes off the gases at high speed, the equal and opposite reaction pushes the rocket in the opposite direction with an equal force, propelling it upwards.
When it comes to water bottles, there is downward momentum, which creates an upward momentum. The reason for this is the conservation of momentum. That's why the water bottle is driven upward. The downward momentum is created by the water mass times water's velocity.
One famous rocket crash was the explosion of the SpaceX Falcon 9 rocket during a pre-launch test in 2016. The cause was determined to be a failed strut in the second-stage liquid oxygen tank. The incident led to changes in rocket design and safety procedures.