We have to assume that both bodies are initially moving along the same straight line in opposite directions, so the collision is "head on". We also have to assume that the collision is "elastic", meaning that none of the original kinetic energy is lost to heat. The final momentum is 20 Kg-m/s in the direction opposite to the original 80 kg-m/s motion.
our bodies are mainly composed of liquid (water), which is measured in ml's, so 4ml's has greater mass eventhough is not solid, it's still part of the weight added to anything solid or space.
Dead Bodies. The pyramids protected the dead bodies.
When any thing is heated its volume is increased and as a result of the same its weight is decreased. Weight of a body is the force through which earth pulls it towards it (earth).When a body is bounced its weight resists the bounce. Greater the weight greater will be resistance. Heated bodies due to reduction in weight provide lesser resistance in its bouncing.
The question is comparing a weight with a mass. Since the weight of a mass depends on where the mass is currently located, the kg of mass could weigh more than 1 ton in some places and less than 1 ton in other places. On Earth, 1 kg of mass weighs 2.205 pounds. That's only 0.0011 ton. On Jupiter, 1 kg of mass weighs 5.85 pounds. That's 0.0029 ton. On the Sun, 1 kg of mass weighs 61.8 pounds. That's 0.031 ton. We can see that it would have to be an awfully massive body for 1 kg of mass to weigh a ton on its surface, but it could be done. Until we start sending spacecraft to bodies like that, in all other places, 1 ton is a greater weight than the weight of 1 kg of mass.
Heavier body have grater mass which leads to greater force requirement to put them in motion. Force is given by F=ma Therefore, if m is greater than required force F is greater. Secondly, the inertia of rest of heavier object is greater than the lighter object hence the greater initial effort is required
The law of conservation of momentum useful in analyzing the collision between two bodies because there is use to be the collision between the two bodies reason for that is law of conservation of momentum is that the total sum of momentum is equal means constant after the total sum of momentum of two bodies. so if you don't be the collision between two bodies you will not aware of the meaning of momentum.
In a vacuum, all objects fall at the same rate regardless of their weight due to gravity. However, in real-world conditions with air resistance, lighter objects tend to fall slower than heavier objects because air resistance affects lighter objects more.
The increased damage when two bodies collide head-on is due to the momentum of the objects, which is the product of their mass and velocity. When two bodies collide from opposite directions, their momentums add up, resulting in a greater force of impact compared to collisions at other angles where momentums may partially cancel out.
Three times greater than the magnitude of the acceleration of B. This is because acceleration is inversely proportional to mass when the force acting on the bodies is kept constant. Given that the force acting on both bodies is the same, the lighter body (A) will experience a greater acceleration compared to the heavier body (B).
Why one or both ends of some of the blackworms are lighter in color than the rest of their bodies
Heavier, more muscular bodies.
In a collision between two objects, momentum is conserved because the total momentum of the system before the collision is equal to the total momentum of the system after the collision. This means that the combined momentum of the two objects remains constant, even if they exchange momentum during the collision.
If two bodies with the same momentum collide head-on, they will come to a stop if they stick together after the collision or they will continue moving in the same direction if they separate. The final outcome depends on factors such as the masses and velocities of the two bodies involved.
The law of conservation of momentum states that the total momentum of a closed system remains constant if no external forces are acting on it. Momentum itself is the product of an object's mass and velocity. Therefore, the relationship between momentum and the law of conservation of momentum is that the total momentum of a system before a collision or interaction must be equal to the total momentum after the collision or interaction.
Dead bodies begin to lose water almost immediately. Although some weight is gained by oxidation, more is lost to evaporation and gaseous deterioration. The calcified bones remain, but without the marrow and fluids they are only half of their "living" weight.
No, two falling bodies of different masses cannot have the same momentum just before striking the ground unless they are falling under the same gravitational conditions. Momentum is a product of mass and velocity, so for two bodies with different masses to have the same momentum, their velocities would also have to be the same.