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The distance between the carbon atom and the oxygen atom in a corbon monoxide molecules is 1.1 Ao.Given ,mass of carbon atoms is 12 a.m.u and mass of oxygen atom is 16 a.m.u, calculate the position of the centre of mass of the carbon monoxide molecule?
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The distance between the carbon atom and the oxygen atom in a corbon m...
Calculating the position of the centre of mass of the carbon monoxide molecule
Given:
Formula:
The position of the centre of mass of a two-particle system can be calculated using the following formula:
r = (m1r1 + m2r2)/(m1 + m2)
where,
Calculation:
Let the position of carbon atom be (0,0,0) and the position of oxygen atom be (0,0,1.1).
Using the formula above, we can calculate the position of the centre of mass of the carbon monoxide molecule as follows:
r = (m1r1 + m2r2)/(m1 + m2)
r = (12 x 0 + 16 x (0,0,1.1))/(12 + 16)
r = (0,0,0.88)
Therefore, the position of the centre of mass of the carbon monoxide molecule is (0,0,0.88) Ao.
Explanation:
The centre of mass is the point at which the entire mass of an object can be considered to be concentrated. In a two-particle system, the centre of mass is the point at which the two particles balance each other out. The position of the centre of mass is influenced by the masses of the two particles and their positions relative to each other. In this case, the carbon atom and the oxygen atom in the carbon monoxide molecule have different masses and are positioned a certain distance apart. By using the formula for calculating the position of the centre of mass, we can find the point at which the carbon monoxide molecule balances out.
Given:
- Distance between carbon and oxygen atom in carbon monoxide molecule = 1.1 Ao
- Mass of carbon atom = 12 a.m.u
- Mass of oxygen atom = 16 a.m.u
Formula:
The position of the centre of mass of a two-particle system can be calculated using the following formula:
where,
- r = position of centre of mass
- m1, m2 = masses of the two particles
- r1, r2 = positions of the two particles
Calculation:
Let the position of carbon atom be (0,0,0) and the position of oxygen atom be (0,0,1.1).
Using the formula above, we can calculate the position of the centre of mass of the carbon monoxide molecule as follows:
Therefore, the position of the centre of mass of the carbon monoxide molecule is (0,0,0.88) Ao.
Explanation:
The centre of mass is the point at which the entire mass of an object can be considered to be concentrated. In a two-particle system, the centre of mass is the point at which the two particles balance each other out. The position of the centre of mass is influenced by the masses of the two particles and their positions relative to each other. In this case, the carbon atom and the oxygen atom in the carbon monoxide molecule have different masses and are positioned a certain distance apart. By using the formula for calculating the position of the centre of mass, we can find the point at which the carbon monoxide molecule balances out.
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The distance between the carbon atom and the oxygen atom in a corbon m...
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The distance between the carbon atom and the oxygen atom in a corbon monoxide molecules is 1.1 Ao.Given ,mass of carbon atoms is 12 a.m.u and mass of oxygen atom is 16 a.m.u, calculate the position of the centre of mass of the carbon monoxide molecule?
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The distance between the carbon atom and the oxygen atom in a corbon monoxide molecules is 1.1 Ao.Given ,mass of carbon atoms is 12 a.m.u and mass of oxygen atom is 16 a.m.u, calculate the position of the centre of mass of the carbon monoxide molecule? for NEET 2024 is part of NEET preparation. The Question and answers have been prepared according to the NEET exam syllabus. Information about The distance between the carbon atom and the oxygen atom in a corbon monoxide molecules is 1.1 Ao.Given ,mass of carbon atoms is 12 a.m.u and mass of oxygen atom is 16 a.m.u, calculate the position of the centre of mass of the carbon monoxide molecule? covers all topics & solutions for NEET 2024 Exam. Find important definitions, questions, meanings, examples, exercises and tests below for The distance between the carbon atom and the oxygen atom in a corbon monoxide molecules is 1.1 Ao.Given ,mass of carbon atoms is 12 a.m.u and mass of oxygen atom is 16 a.m.u, calculate the position of the centre of mass of the carbon monoxide molecule?.
The distance between the carbon atom and the oxygen atom in a corbon monoxide molecules is 1.1 Ao.Given ,mass of carbon atoms is 12 a.m.u and mass of oxygen atom is 16 a.m.u, calculate the position of the centre of mass of the carbon monoxide molecule? for NEET 2024 is part of NEET preparation. The Question and answers have been prepared according to the NEET exam syllabus. Information about The distance between the carbon atom and the oxygen atom in a corbon monoxide molecules is 1.1 Ao.Given ,mass of carbon atoms is 12 a.m.u and mass of oxygen atom is 16 a.m.u, calculate the position of the centre of mass of the carbon monoxide molecule? covers all topics & solutions for NEET 2024 Exam. Find important definitions, questions, meanings, examples, exercises and tests below for The distance between the carbon atom and the oxygen atom in a corbon monoxide molecules is 1.1 Ao.Given ,mass of carbon atoms is 12 a.m.u and mass of oxygen atom is 16 a.m.u, calculate the position of the centre of mass of the carbon monoxide molecule?.
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The distance between the carbon atom and the oxygen atom in a corbon monoxide molecules is 1.1 Ao.Given ,mass of carbon atoms is 12 a.m.u and mass of oxygen atom is 16 a.m.u, calculate the position of the centre of mass of the carbon monoxide molecule?, a detailed solution for The distance between the carbon atom and the oxygen atom in a corbon monoxide molecules is 1.1 Ao.Given ,mass of carbon atoms is 12 a.m.u and mass of oxygen atom is 16 a.m.u, calculate the position of the centre of mass of the carbon monoxide molecule? has been provided alongside types of The distance between the carbon atom and the oxygen atom in a corbon monoxide molecules is 1.1 Ao.Given ,mass of carbon atoms is 12 a.m.u and mass of oxygen atom is 16 a.m.u, calculate the position of the centre of mass of the carbon monoxide molecule? theory, EduRev gives you an
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