蒸気の有効性は、そのモル質量、正確な発熱能力、圧縮率など、その有形の特性に依存します。完全なガスは、分子間接続、分子間の強度がなく、分子自体の大きさがないと推測されます。これは、理想的なガスが拡張と収縮を妨げる接続がないため、理想的なガスが本物のガスよりもはるかに迅速かつ単純に収縮できることを意味します。
ただし、実際のガスには、理想的なガスよりも徐々に拡張および収縮する原因となる材料特性があります。これは、本物のガスに分子間接続、分子間の強度、および独自の分子の容量があるためです。これらの物理的特性により、実際のガスは理想的なガスと同じくらい迅速または楽に契約しません。
効率の観点から、理想的なガスは、拡張と収縮の能力に関しては、実際のガスよりもはるかに熟練しています。これは、理想的なガスには分子間接続、分子間の力、分子自体の大きさがなく、実際のガスよりもはるかに迅速かつ単に収縮できるようにするためです。さらに、理想的なガスは、外部圧力、温度、およびその他の要因の影響がはるかに少ないため、拡張と収縮の能力の観点から、実際のガスよりも熟達しています。
The efficacy of a vapor depends on its tangible characteristics, such as its molar mass, precise calorific capacity, and compressibility. Perfect gases are surmised to have no intermolecular connections, no strengths between the molecules, and no magnitude of the molecules themselves. This implies that ideal gases can extend and contract much more rapidly and simply than genuine gases, as their molecules have no connections that would impede their expansion and contraction.
Real gases, however, have material properties that cause them to expand and contract more gradually than ideal gases. This is because genuine gases have intermolecular connections, strengths between molecules, and a capacity of their own molecules. These physical properties cause real gases to not extend and contract as speedily or effortlessly as ideal gases.
In terms of efficiency, ideal gases are much more proficient than real gases when it comes to their capability to extend and contract. This is because ideal gases have no intermolecular connections, no forces between molecules, and no magnitude of the molecules themselves, allowing them to expand and contract much more rapidly and simply than real gases. Additionally, ideal gases are much less affected by external pressure, temperature, and other factors, making them more adept than real gases in terms of their capability to extend and contract.