Part A Gases move faster at higher temperatures. O at a higher temperature, the number and force of the collisions against the walls of the container is greater. O as temperature increases, the concentration of gas molecules in a container increases. According kinetic molecular theory, at a higher temperature, gas particles have greater kinetic energy. O the attractive forces between the particles of a gas increase with temperature. Submit Request Answer Part B Gases can be compressed much more than liquids solids. the average kinetic energy of gas molecules is extremely low; thus, low energies are sufficient to push gas molecules closer together. the repulsive forces between the particles of a gas are very small; thus, the particles tend to be close together. According kinetic molecular theory, • since there are great distances between the particles of a gas, they can be pushed closer together and remain a gas. particles of a gas move randomly; thus, the distances between the particles are random values. Submit Previous Answers Completed Part C Gases have low densities. although distances between gas particles are usually small, the particles are very light. density depends on the path of motion of the particles; thus, the straight paths taken by gases result in low densities. According kinetic molecular theory, gas particles are very far apart, meaning that the mass of a gas in a certain volume is very small. gases consist of small particles that have small masses. Submit Request Answer

Introductory Chemistry: A Foundation
8th Edition
ISBN:9781285199030
Author:Steven S. Zumdahl, Donald J. DeCoste
Publisher:Steven S. Zumdahl, Donald J. DeCoste
Chapter13: Gases
Section: Chapter Questions
Problem 114AP
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Do all parts please
Part A
Gases move faster at higher temperatures.
O at a higher temperature, the number and force of the collisions against the walls of the container is greater.
O as temperature increases, the concentration of gas molecules in a container increases.
According
kinetic molecular theory,
at a higher temperature, gas particles have greater kinetic energy.
O the attractive forces between the particles of a gas increase with temperature.
Submit
Request Answer
Part B
Gases can be compressed much more than liquids
solids.
the average kinetic energy of gas molecules is extremely low; thus, low energies are sufficient to push gas molecules closer together.
the repulsive forces between the particles of a gas are very small; thus, the particles tend to be close together.
According
kinetic molecular theory,
• since there are great distances between the particles of a gas, they can be pushed closer together and remain a gas.
particles of a gas move randomly; thus, the distances between the particles are random values.
Submit
Previous Answers
Completed
Part C
Gases have low densities.
although distances between gas particles are usually small, the particles are very light.
density depends on the path of motion of the particles; thus, the straight paths taken by gases result in low densities.
According
kinetic molecular theory,
gas particles are very far apart, meaning that the mass of a gas in a certain volume is very small.
gases consist of small particles that have small masses.
Submit
Request Answer
Transcribed Image Text:Part A Gases move faster at higher temperatures. O at a higher temperature, the number and force of the collisions against the walls of the container is greater. O as temperature increases, the concentration of gas molecules in a container increases. According kinetic molecular theory, at a higher temperature, gas particles have greater kinetic energy. O the attractive forces between the particles of a gas increase with temperature. Submit Request Answer Part B Gases can be compressed much more than liquids solids. the average kinetic energy of gas molecules is extremely low; thus, low energies are sufficient to push gas molecules closer together. the repulsive forces between the particles of a gas are very small; thus, the particles tend to be close together. According kinetic molecular theory, • since there are great distances between the particles of a gas, they can be pushed closer together and remain a gas. particles of a gas move randomly; thus, the distances between the particles are random values. Submit Previous Answers Completed Part C Gases have low densities. although distances between gas particles are usually small, the particles are very light. density depends on the path of motion of the particles; thus, the straight paths taken by gases result in low densities. According kinetic molecular theory, gas particles are very far apart, meaning that the mass of a gas in a certain volume is very small. gases consist of small particles that have small masses. Submit Request Answer
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