![10. A vessel contains a non-linear triatomic gas. If 50% of gas dissociate into individual atom, then find new value of degree of freedom by ignoring the vibrational mode and any further 10. A vessel contains a non-linear triatomic gas. If 50% of gas dissociate into individual atom, then find new value of degree of freedom by ignoring the vibrational mode and any further](https://instasolv1.s3.ap-south-1.amazonaws.com/QuestionBank/5dfb655c2ab53f4ee9923ab6/solution_5dfb65bcc486674f2214c1c9.png)
10. A vessel contains a non-linear triatomic gas. If 50% of gas dissociate into individual atom, then find new value of degree of freedom by ignoring the vibrational mode and any further
![SOLVED:a) (final calculation to 4 sig; figs ) homonuclear triatomic gas detected in the stratosphere above the arctic at T= -67.85 %C has the same root mean square speed as chlorine gas SOLVED:a) (final calculation to 4 sig; figs ) homonuclear triatomic gas detected in the stratosphere above the arctic at T= -67.85 %C has the same root mean square speed as chlorine gas](https://cdn.numerade.com/ask_images/879663765e5d48dcb503cbb13de50dbb.jpg)
SOLVED:a) (final calculation to 4 sig; figs ) homonuclear triatomic gas detected in the stratosphere above the arctic at T= -67.85 %C has the same root mean square speed as chlorine gas
what is the degree of freedom of rigid and non rigid diatomic gas? what is the vibrational degree of freedom of linear and non linear triatomic gas? what is degree of freedom
![Find γfor polyatomic gas and hence determine its value for a triatomic gas in which the molecule:are linearly arranged. | Snapsolve Find γfor polyatomic gas and hence determine its value for a triatomic gas in which the molecule:are linearly arranged. | Snapsolve](https://wb-qb-sg-oss.bytededu.com/merge/0627f07e31d6810c2df03cf88a532437.jpg)
Find γfor polyatomic gas and hence determine its value for a triatomic gas in which the molecule:are linearly arranged. | Snapsolve
![Theme 2 Lecture 2.pptx - Molar Internal Energy for a linear triatomic gas(x y z-directions(x y-directions(see next slide There is no moment of inertia | Course Hero Theme 2 Lecture 2.pptx - Molar Internal Energy for a linear triatomic gas(x y z-directions(x y-directions(see next slide There is no moment of inertia | Course Hero](https://www.coursehero.com/thumb/43/da/43da38254fd5b5e585729cbde2be73e2edad564b_180.jpg)
Theme 2 Lecture 2.pptx - Molar Internal Energy for a linear triatomic gas(x y z-directions(x y-directions(see next slide There is no moment of inertia | Course Hero
![Ozone. Molecular model of the triatomic gas ozone (O3), a powerful oxidant (oxidizing agent) and air pollutant, with harmful effects on the respiratory system. Atoms are represented as spheres and are colour-coded: Ozone. Molecular model of the triatomic gas ozone (O3), a powerful oxidant (oxidizing agent) and air pollutant, with harmful effects on the respiratory system. Atoms are represented as spheres and are colour-coded:](https://c8.alamy.com/comp/HACPD1/ozone-molecular-model-of-the-triatomic-gas-ozone-o3-a-powerful-oxidant-HACPD1.jpg)
Ozone. Molecular model of the triatomic gas ozone (O3), a powerful oxidant (oxidizing agent) and air pollutant, with harmful effects on the respiratory system. Atoms are represented as spheres and are colour-coded:
![Ozone. Molecular model of the triatomic gas ozone (O3), a powerful oxidant (oxidizing agent) and air pollutant, with harmful effects on the respiratory system. Atoms are represented as spheres and are colour-coded: Ozone. Molecular model of the triatomic gas ozone (O3), a powerful oxidant (oxidizing agent) and air pollutant, with harmful effects on the respiratory system. Atoms are represented as spheres and are colour-coded:](https://c8.alamy.com/comp/HACNHE/ozone-molecular-model-of-the-triatomic-gas-ozone-o3-a-powerful-oxidant-HACNHE.jpg)
Ozone. Molecular model of the triatomic gas ozone (O3), a powerful oxidant (oxidizing agent) and air pollutant, with harmful effects on the respiratory system. Atoms are represented as spheres and are colour-coded:
![The mass of 3.011times 10^{23} molecules of a triatomic gas (A_{3}) is 12 gram. Calculate the number of atoms in 8gram of the triatomic gas. | Snapsolve The mass of 3.011times 10^{23} molecules of a triatomic gas (A_{3}) is 12 gram. Calculate the number of atoms in 8gram of the triatomic gas. | Snapsolve](https://wb-qb-sg-oss.bytededu.com/merge/f99d64bfbee9d7c4dd60b584be91d38a.jpg)
The mass of 3.011times 10^{23} molecules of a triatomic gas (A_{3}) is 12 gram. Calculate the number of atoms in 8gram of the triatomic gas. | Snapsolve
![Using the law of equipartition of energy, calculate the total energy of one mole of monoatomic, diatomic and triatomic gases. from Physics Kinetic Theory Class 11 CBSE Using the law of equipartition of energy, calculate the total energy of one mole of monoatomic, diatomic and triatomic gases. from Physics Kinetic Theory Class 11 CBSE](https://www.zigya.com/application/zrc/images/qvar/PHEN11040734.png)
Using the law of equipartition of energy, calculate the total energy of one mole of monoatomic, diatomic and triatomic gases. from Physics Kinetic Theory Class 11 CBSE
![SOLVED:You have an ideal, nonlinear: triatomic gas. There are no low-lving electronic states. The vibrational temperatures tor the 3 vibrational modes are: 0+ 1 2350 K, 0vb,2 2780 K,and B+6* 3110 K SOLVED:You have an ideal, nonlinear: triatomic gas. There are no low-lving electronic states. The vibrational temperatures tor the 3 vibrational modes are: 0+ 1 2350 K, 0vb,2 2780 K,and B+6* 3110 K](https://cdn.numerade.com/ask_images/490ad60e42ba4a4abdae48f208321aef.jpg)
SOLVED:You have an ideal, nonlinear: triatomic gas. There are no low-lving electronic states. The vibrational temperatures tor the 3 vibrational modes are: 0+ 1 2350 K, 0vb,2 2780 K,and B+6* 3110 K
![If the difference between the two specific heats of triatomic gas is 500 J/kg K. then the principal specific heat of a gas constant pressure c(p) in J/kg K. (gamma=4//3) If the difference between the two specific heats of triatomic gas is 500 J/kg K. then the principal specific heat of a gas constant pressure c(p) in J/kg K. (gamma=4//3)](https://doubtnut-static.s.llnwi.net/static/web-thumb/121608056_web.png)