A) The potential energy of particles in a system. B) The total energy of a system. C) A measure of the disorder or randomness of a system. D) The energy required to bring a system to absolute zero temperature.
A) It describes an isolated system with fixed energy and number of particles. B) It describes a system in which energy can be exchanged with the surroundings. C) It describes a system in thermal equilibrium with its surroundings. D) It describes a system with varying energy levels.
A) It calculates the average energy of particles in a system. B) It converts temperature scales from Celsius to Fahrenheit. C) It relates the entropy of a system to the number of possible microscopic states. D) It determines the pressure-volume work done by a system.
A) The tendency of a system to reach thermal equilibrium. B) The likelihood of a system to undergo phase transitions. C) The distribution of particles in different energy levels. D) The number of distinct ways a system can achieve a particular energy level.
A) It describes a closed system with constant energy. B) It describes a system with a changing volume and pressure. C) It describes a system with fixed number of particles but variable energy. D) It describes a system in thermal equilibrium with a heat reservoir at a fixed temperature.
A) Energy is conserved in any thermodynamic process. B) Total energy of a system and its surroundings always remains constant. C) The entropy of a system can be reduced to zero at absolute zero temperature. D) Entropy of an isolated system tends to increase over time.
A) A system's temperature remains constant over time. B) There is no net flow of heat between a system and its surroundings. C) Heat is constantly increasing within a system. D) Only a small amount of heat is lost from a system.
A) States of higher energy are more probable than states of lower energy. B) All microstates of a system in thermodynamic equilibrium are equally probable. C) The probabilities of different microstates depend on their energy levels. D) Particles within a system have the same probability of being in any given state.
A) The energy required to break a chemical bond. B) The rate at which chemical reactions occur in a system. C) The change in free energy of a system as a particle is added or removed. D) The ratio of the number of moles of reactants to products in a reaction.
A) It describes a system with a fixed number of particles and variable energy. B) It describes a system with varying energy levels. C) It describes a system in equilibrium with a heat reservoir at constant temperature. D) It describes a system with fixed chemical potential, temperature, and volume. |