Newtons Laws of Motion

The net force on the car can be calculated using Newton's second law, F = m * a, where F is the net force, m is the mass of the car (1200 kg), and a is the acceleration (20 m/s^2). Therefore, the net force on the car would be 24,000 N.

Yes, Newton's first law can be deduced from his second law. Newton's first law states that an object in motion stays in motion, and an object at rest stays at rest, unless acted upon by an external force. When applying the second law (F=ma) to an object with no external forces acting on it (F=0), we find that the acceleration (a) is zero, which means the object continues in its current state of motion, as described by the first law.

Strictly speaking, you would say that a force acts on a system and the impulse of that force corresponds to the change in momentum of the system due to the action of the force. More mathematically, the impulse of a force is defined as the integral of that force with respect to time over the time period that the force acts.

The unit of measurement commonly used for calculating ship total resistance is Newtons (N). Total resistance is the sum of different types of resistance a ship faces while in motion, such as wave-making resistance, viscous resistance, and appendage resistance.

A large truck typically has more inertia than a small car because inertia is directly proportional to an object's mass. The greater mass of the truck means it will resist changes in its state of motion more than the smaller car.

A catapult demonstrates Newton's second law of motion by showing how the acceleration of the projectile (object being launched) is directly proportional to the force applied by the tension in the catapult's arm (F=ma). This means that the larger the force applied to the arm, the greater the acceleration of the projectile, leading to a more powerful launch.

If there is no air resistance moving the 2000-kg box would cost virtually no effort since the slightest shove would set it into motion which it would continue indefinably.

Pushing the 1-kg box would require a constant investment of effort because you need to combat the force of friction.

Thus, pushing the 1-kg box around is more tiresome.

The reasons are the same as they are for any similar oscillatory system. It is largely because energy is dissipated as heat wherever there is friction: at the ends of the strings and where the balls collide. Hence the total amount of energy within the system falls until the oscillation is no more. Wherever there are resistive forces, there can be no perpetual motion without violating the Conservation of Energy principle.

Yes of course. The gravity is the one responsible for keeping the satellite in place. But hold your horse how can that be possible. If the gravity was the only force acting then the satellite should start moving in a spiral fashion thereby crashing down on the earth surface. Here we see the action of something called the centrifugal force which is one of the famous pseudo forces.

Now what is a pseudo force? Well these are the forces which does not exist in reality. It is something which you assume to exist to counter balance the other force that is keeping you spinning called the centripetal force(like gravity in case of satellites). Even you feel this force like when you're standing inside a bus and the bus takes a sharp turn and you tilt the other way.

You can experience weightlessness by taking a parabolic flight, where the plane rapidly ascends and descends to create short periods of simulated zero gravity. Another option is to visit an astronaut training center where they offer zero-gravity simulators. Lastly, space tourism companies like SpaceX and Blue Origin are developing commercial trips to space where passengers can experience weightlessness.

both will have same kinetic energy ,so forward velocity will be lower for bowling ball , the time to go up then down to the ground under gravity will be the same for both, so distance = velocity * time , so lighter (golf)ball will travel further because its velocity is higher

second thoughts,

assume launch angle same for both, ball with greater launch velocity will travel further. (laws of ballistics)

if work done on ball (f * d) is same on both , the lighter ball will have greater launch velocity, though both will have same kinetic energy at launch

taking one cylinder , area of bore * length of stroke gives displacement (or volume) of one cylinder , then * number of cylinders = total engine displacement

for rough power calculation you can research the equation

PLAN/33000

The force produces an acceleration of 0.5 m/s^2 on a body of mass 1 kg, so using Newton's second law (F=ma), the force is 1 * 0.5 = 0.5 N. When the same force acts on a body of mass 2 kg, the acceleration will be 0.5 N / 2 kg = 0.25 m/s^2.

A mass accelerates uniformly when a constant force is applied to it, resulting in a constant rate of change in velocity over time. This occurs in scenarios where there is no opposing force or acceleration due to factors such as friction, air resistance, or gravity.

1. As you walk, newton's third law is inherent in it. First you lift your say right leg and put it forward. Now your weight will be totally acting on the left leg. Now you push the earth with your left leg. This is action. Then equal and opposite reaction makes you to move forward ie you centre of gravity would be moved forward and the whole weight would rest on the right leg.

Now the previous process gets repeated again again.

2. You'd like to get up from the chair. Your weight rests on the base of the chair. Now with your legs on the floor, you push the floor downward. This is action. Due to opposite reaction now you are able to lift your centre of gravity vertically up and so you can come out of chair and able to stand.

3. A car tyre as it starts rotating, it pushes the earth backward. So the rotating tyre would be able to move forward. This is solely due to the presence of friction between the tyre and the road. If suppose the wheel is rotating in mud, then only wheel rotation but nor forward movement. As there is lack of frictional force between the tyre and mud, action and reaction both are absent and hence no forward progress.

You can find the speed of the block using the equation of motion: v^2 = u^2 + 2as, where v is the final velocity, u is the initial velocity, a is the acceleration, and s is the displacement. Given that u = 0.5 m/s, x = 3 cm = 0.03 m (displacement), and a is constant, you can calculate the final velocity v when the block reaches x = 3 cm.

newton's first law of motion is; objects at rest stay at rest and objects in motion stay in motion unless an outside force acts upon it. A term that summarizes this law could be that when a wheelchair is standing still, it is not in motion, the only way that the wheelchair can move is unless an outside force (person) acts on it, causing the wheel chair to change distance.

the object will float
it shows increasing acceleration

Newton's third law of motion states that for every action, there is an equal and opposite reaction. This means that when one object exerts a force on a second object, the second object will exert a force back on the first object that is equal in magnitude and opposite in direction.

Obeying the second law of universal dynamics (Newton) , the equation is

F = ma

Algebraically rearrange

m = F/a

The metric units are

m(kg) = F(kgm/s^2) / a(m/s^2)

NB The 'm/s^2' cancel down leaving 'kg'.

NNB The units of force 'kgm/s^2' are known as 'Newtons'.

Gamma waves have the highest frequency (and energy) of all the electromagnetic waves.

Gamma Ray Bursts (GRB) from outer space (and that's about all we know of them!) have extraordinary high energies, and hence frequencies.

No, a puddle of water is typically stationary unless there is external force or movement causing ripples or waves on the surface.

Philosophiæ Naturalis Principia Mathematica, Latin for "Mathematical Principles of Natural Philosophy", often called the Principia ("Principles"), is a work in three books by Sir Isaac Newton, first published July 5 1687.

1. Basketball - Players exert a force when dribbling, passing, or shooting the ball, which changes the ball's velocity.
2. Swimming - Swimmers exert force against the water to propel themselves forward, changing their velocity in the pool.
3. Football - Players exert force when kicking or throwing the ball, resulting in a change in the ball's velocity.