Ubiquitousness and stability of atoms relies on their binding energy, which means that an atom has a lower energy than an unbound system of the nucleus and electrons.
During fission, a fraction of the binding energy, which holds a nucleus together, is released as a large amount of electromagnetic and kinetic energy (much of the latter being quickly converted to thermal energy).
Without evolutionary pressure to keep the binding energy constant over time, the binding energy of the orthologous site will drift towards the average binding energy, which is set to zero in our convention.
These required a consistent set of defect formation and cluster binding energies, which were provided by atomistic simulation calculations.
In more detail, this condition requires that the stress-energy tensor Tab, which describes the distribution of matter-energy, satisfies TabVaVb ≥ for all timelike vectors Va.
Hence, the concept of a "mild-affinity membrane" was proposed, which describes membranes with intermediate-to-low CO2 binding energy that exhibits an improved level of CO2 transport efficiency.
Hence, PCBs are more difficult to degrade following an increase in the binding free energy, which shows that the binding free energy is positively correlated with the BCF.
As a result of docking, the ligand binding position and the protein-ligand binding free energy (which is correlated with the ligand inhibition ability) are predicted.
Hence, PCBs are more difficult to degrade following an increase in the binding free energy, which agrees with earlier studies.
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