False. In general, more massive particles do not necessarily move more slowly than less massive particles. The speed of a particle is determined by its energy and the forces acting upon it, rather than its mass.
As a balloon deflates slowly, the air particles inside the balloon move more slowly and with less force. This supports the particle model as it demonstrates how particles have energy and move randomly. The decrease in pressure and volume during deflation also aligns with the behavior of particles in the model.
Particles vibrate faster when they are heated.
If one propertys' particles are bigger than the other propetys' particles it will be more easier to separate them because the lighter (smaller) particles would stay suspended in water yet the heavier (bigger) particles would settle to the bottom of the water because they're more dense... hoped that helped:)
Solution: one phase system (solute or solutes in a solution) Colloid: two phases system, very stable dispersion in a dispersion medium, particles in the range 5-200 nm Suspension: two phases (or more) system, unstable, particles above 200 nm A colloid is distinguished from a solution and a suspension by the particles, because they usually have an electric charge, and they repel each other, so they do not collect into larger perticles that would settle out like those in solutions, and suspensions.
Heavier particles tend to move more slowly compared to lighter particles due to the increased inertia. This means that heavier particles require more force to accelerate or change direction. In a fluid medium, heavier particles may settle towards the bottom under the influence of gravity.
Yes.
Yes.
The heaviest rock particles will settle first as a stream slows down. This is because heavier particles have more mass and momentum, making them more likely to sink to the bottom. Lighter particles will remain suspended in the water longer.
False. In general, more massive particles do not necessarily move more slowly than less massive particles. The speed of a particle is determined by its energy and the forces acting upon it, rather than its mass.
The will move more slowly,
larger particles settle to the bottom first as the velocity of the stream increases. This is because larger particles have more inertia and are less affected by the drag force of the flowing water, allowing them to settle faster than smaller particles.
At lower temperatures, particles have less kinetic energy, which causes them to move more slowly and have less frequent collisions. This results in a decrease in the overall movement and diffusion of particles. Additionally, particles may start to arrange themselves in a more ordered and crystalline structure as the temperature decreases.
Silt settles out of water more readily in flat areas because there is less turbulence to keep it suspended. In flat land, water flow is usually slower, allowing silt particles to settle to the bottom. Silt is also more likely to accumulate in low-lying areas where water pools and has less opportunity to flow.
I noticed that soil particles took longer to settle in water compared to sand particles. Soil particles have smaller particles sizes and more organic matter which makes them less dense than sand, causing them to take longer to sink. Sand particles are larger and denser, so they settle more quickly in water.
Sound travels more slowly in denser materials because the particles in these materials are closer together, causing sound waves to propagate more slowly compared to materials with less dense particles. This results in a longer response time for sound to travel through denser mediums.
Gas particles diffuse more slowly through aluminum than through rubber because aluminum has a higher density and more closely packed structure, which impedes the movement of gas particles. In contrast, rubber has a more porous and flexible structure that allows gas particles to move more freely and diffuse more quickly.