Sudarshan_Hebbar
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How to understand this derivation in a very intuitive way?
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The discussion revolves around understanding the derivation of the adiabatic condition in thermodynamics, focusing on intuitive explanations and the mathematical framework involved. Participants explore concepts related to ideal gases, conservation of energy, and specific heat, as well as the differential equations that describe these processes.
Participants express varying levels of understanding regarding the derivation, with some seeking clarification on specific components. There is no consensus on which aspects are most challenging or how to best intuitively connect the concepts.
Some participants mention the need for clarity on the differential equation and its implications, indicating potential gaps in understanding the mathematical relationships involved in the adiabatic process.
Mainly, The differential equation. I imagine that it Is describing the process of a small volume change in an adiabatic system and how the pressure is changing in accordance withDale said:Which part are you finding unintuitive?
It is basically the conservation of energy, the ideal gas law, the definitions of specific heat, and a bunch of math. So is it the laws, the definitions, or the math?
The equation ##\Delta (PV)=P\Delta V+V\Delta P## is incorrect. It should read d(PV)=PdV+VdP. $$\Delta (PV)=P_2V_2-P_1V_1=\left(\frac{P_1+P_2}{2}\right)\Delta V+\left(\frac{V_1+V_2}{2}\right)\Delta P$$Sudarshan_Hebbar said:View attachment 363379
How to understand this derivation in a very intuitive way?
Sudarshan_Hebbar said:Mainly, The differential equation.
Sudarshan_Hebbar said:I imagine that it Is describing the process of a small volume change in an adiabatic system and how the pressure is changing