
What is the degree of freedom for ${{O}_{2}}$?
Answer
487.8k+ views
Hint: A degree of freedom is an independent physical parameter in the formal description of the state of a physical system in physics and chemistry. The phase space of a system is the set of all states of the system, and the degrees of freedom of the system are the phase space's dimensions.
Complete answer:
Three position coordinates are required to locate a particle in three-dimensional space. Similarly, the direction and speed with which a particle moves may be defined in terms of three velocity components, each referring to one of the three spatial dimensions. A system with six degrees of freedom possesses deterministic time evolution, in which the state at one moment uniquely defines its past and future location and velocity as a function of time. The system has less than six degrees of freedom if the particle's mobility is restricted to a smaller number of dimensions - for example, if the particle must move down a wire or on a fixed surface.
A system with an extended item that may spin or vibrate, on the other hand, can have more than six degrees of freedom.
Degrees of freedom (DOF): A mechanical system's degree of freedom (DOF) is the number of independent factors that define its configuration.
A rigid body's position and orientation in space are specified by three components: one translation and three rotation components, giving it six degrees of freedom.
N = 3A - R, where A is the number of particles in the system and R denotes the number of relations between the particles.
Translation is the movement of a whole body from one location to another. A diatomic gas, such as hydrogen, oxygen, or nitrogen, has two atoms in each molecule. Thus, a diatomic molecule with three translational degrees of freedom and two rotational degrees of freedom is free to travel in space.
In the case of a diatomic gas,
The system's particle count (A) is equal to two.
The number of particle relationships (R) is equal to one.
\[N\text{ }=\text{ }3\text{ }\times \text{ }2\text{ }-1\text{ }=\text{ }5\] is the number of degrees of freedom.
Thus, oxygen molecules have 5 translational degrees of freedom and are free to move in space.
Note:
The state of a point particle at any given time in classical mechanics is frequently represented by position and velocity coordinates in the Lagrangian formalism, or position and momentum coordinates in the Hamiltonian formalism. A degree of freedom is a single scalar number in statistical mechanics that describes the microstate of a system. A point in the system's phase space represents the definition of all microstates.
Complete answer:
Three position coordinates are required to locate a particle in three-dimensional space. Similarly, the direction and speed with which a particle moves may be defined in terms of three velocity components, each referring to one of the three spatial dimensions. A system with six degrees of freedom possesses deterministic time evolution, in which the state at one moment uniquely defines its past and future location and velocity as a function of time. The system has less than six degrees of freedom if the particle's mobility is restricted to a smaller number of dimensions - for example, if the particle must move down a wire or on a fixed surface.
A system with an extended item that may spin or vibrate, on the other hand, can have more than six degrees of freedom.
Degrees of freedom (DOF): A mechanical system's degree of freedom (DOF) is the number of independent factors that define its configuration.
A rigid body's position and orientation in space are specified by three components: one translation and three rotation components, giving it six degrees of freedom.
N = 3A - R, where A is the number of particles in the system and R denotes the number of relations between the particles.
Translation is the movement of a whole body from one location to another. A diatomic gas, such as hydrogen, oxygen, or nitrogen, has two atoms in each molecule. Thus, a diatomic molecule with three translational degrees of freedom and two rotational degrees of freedom is free to travel in space.
In the case of a diatomic gas,
The system's particle count (A) is equal to two.
The number of particle relationships (R) is equal to one.
\[N\text{ }=\text{ }3\text{ }\times \text{ }2\text{ }-1\text{ }=\text{ }5\] is the number of degrees of freedom.
Thus, oxygen molecules have 5 translational degrees of freedom and are free to move in space.
Note:
The state of a point particle at any given time in classical mechanics is frequently represented by position and velocity coordinates in the Lagrangian formalism, or position and momentum coordinates in the Hamiltonian formalism. A degree of freedom is a single scalar number in statistical mechanics that describes the microstate of a system. A point in the system's phase space represents the definition of all microstates.
Recently Updated Pages
Master Class 11 Computer Science: Engaging Questions & Answers for Success

Master Class 11 Business Studies: Engaging Questions & Answers for Success

Master Class 11 Economics: Engaging Questions & Answers for Success

Master Class 11 English: Engaging Questions & Answers for Success

Master Class 11 Maths: Engaging Questions & Answers for Success

Master Class 11 Biology: Engaging Questions & Answers for Success

Trending doubts
One Metric ton is equal to kg A 10000 B 1000 C 100 class 11 physics CBSE

There are 720 permutations of the digits 1 2 3 4 5 class 11 maths CBSE

Discuss the various forms of bacteria class 11 biology CBSE

Draw a diagram of a plant cell and label at least eight class 11 biology CBSE

State the laws of reflection of light

Explain zero factorial class 11 maths CBSE

