Linked from

The 13 pages that link to Exergy, each with the reason it gives.

• Gibbs free energyCompared with: Exergy incorporates environmental reference conditions, whereas Gibbs free energy uses fixed thermodynamic constraints.

• Thermodynamic cycleRelated: Exergy analysis identifies where a cycle’s capacity to produce work is destroyed.

• Free energyCompared with: Exergy explicitly depends on environmental reference conditions, unlike a free-energy state function.

• Irreversible processRelated: Irreversibility destroys exergy, reducing the work available from energy.

• Waste heatRelated: It distinguishes heat quantity from the work potential remaining in that heat.

• Entropy productionRelated: Entropy production destroys exergy, reducing the work a system can deliver.

• Waste heat recoveryRelated: It measures the work potential lost when high-quality heat is rejected.

• Thermodynamic efficiencyRelated: Exergy distinguishes potentially useful energy from energy that cannot produce work.

• Compressed-air energy storageRelated: Heat rejection and pressure losses destroy some of the stored air’s capacity to produce work.

• Energy conversion efficiencyRelated: It distinguishes energy quantity from its capacity to produce useful work.

• Nicholas Georgescu-RoegenRelated: Exergy accounting offers a more operational measure of resource quality than entropy alone.

• Thermodynamic free energyCompared with: Unlike free energy alone, exergy explicitly depends on the environment's reference state.

• Thermal engineeringRelated: Exergy analysis distinguishes useful energy from losses caused by irreversibility.