Math Problem Statement
Solution
Let's break down the problem from the thermodynamics assignment:
Problem Breakdown:
-
System Setup:
- Cylindrical Container: Equipped with a frictionless piston and a spring.
- Air Mass: 6 grams of air inside the container.
- Spring Constant (k): 400 kN/m.
- Piston: Mass of 300 kg.
- Cylinder Dimensions: Internal height = 150 mm, diameter = 200 mm.
- Piston Movement: The piston rises by 50 mm after heating.
-
Tasks:
- Final Temperature: You need to calculate the final temperature of the air when the piston begins to move.
- Work Done: Compute the work done by the expanding air against the piston.
Assumptions and Parameters to Use:
- Initial state: Piston is in equilibrium (spring just touching the piston, no initial force).
- Air Expansion: Causes piston to move upwards.
Key Equations:
-
Ideal Gas Law: Where:
- is the pressure,
- is the volume,
- is the number of moles of air,
- is the gas constant (8.314 J/mol·K),
- is the temperature.
-
Work Done (W): Where is the change in volume due to the piston movement.
-
Force due to Spring Compression: Where is the compression or extension of the spring from its equilibrium position.
-
Volume of the Cylinder: Where is the radius of the cylinder, and is the height of the air column.
Shall I proceed with calculating the temperature and work done based on this data? Feel free to ask for specific details on any step!
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Math Problem Analysis
Mathematical Concepts
Thermodynamics
Physics
Ideal Gas Law
Work-Energy Principle
Formulas
Ideal Gas Law: PV = nRT
Work Done: W = P ΔV
Force due to Spring: F = kx
Volume of Cylinder: V = π r^2 h
Theorems
Ideal Gas Law
Hooke's Law
Suitable Grade Level
University Level
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