SUMMARY
The work done by an ideal gas expanding at constant temperature can be calculated using the formula W=2.303nRTlog(v2/v1). In this scenario, with two moles of gas at a temperature of 400 K and a gas constant R of 8.32, the calculation yields a work value of 4613.959 J when using the logarithm base 10. However, the correct approach for this problem is to use the natural logarithm, leading to a work done of 554.6 J. This discrepancy highlights the importance of using the appropriate logarithmic function in thermodynamic calculations.
PREREQUISITES
- Understanding of ideal gas laws
- Familiarity with thermodynamic equations
- Knowledge of logarithmic functions, specifically natural logarithm (ln) and common logarithm (log)
- Basic algebra for manipulating equations
NEXT STEPS
- Study the derivation of the ideal gas law and its applications
- Learn about the differences between natural logarithm (ln) and common logarithm (log)
- Explore the concept of isothermal processes in thermodynamics
- Practice calculating work done in various thermodynamic processes
USEFUL FOR
Students studying thermodynamics, physics enthusiasts, and anyone looking to understand the principles of work done by gases during expansion processes.