For example, blood flow problems, chemical engineering, thermo-elasticity, underground water flow, population dynamics, and so forth can be reduced to nonlocal problems with integral boundary conditions.
For example, blood flow problems, chemical engineering, thermo-elasticity, underground water flow, population dynamics, and so on can be reduced to nonlocal integral boundary problems.
For example, blood flow problems, chemical engineering, thermo-elasticity, underground water flow, population dynamics, and so on can be reduced to integral boundary problems.
Integral boundary conditions have various applications in applied fields such as blood flow problems, chemical engineering, thermoelasticity, underground water flow, population dynamics, and so forth.
Integral boundary conditions have various applications in applied fields such as blood flow problems, chemical engineering, thermo-elasticity, underground water flow, population dynamic, and so forth.
Integral boundary conditions have various applications in applied fields such as blood flow problems, chemical engineering, thermoelasticity, underground water flow, population dynamics, and so on.
m1: the rate of gene flow from population 2 to population 1 per gene per generation.
2N1m1: the effective rate of gene flow from population 2 to population 1 per generation.
In addition, fragmented forests can sustain connectivity by linking larger populations, thereby enhancing gene flow and population viability [ 9– 11].
Gene flow reduces population differences and promotes shallow population genetic structure.
Population differentiation was moderate, suggesting a restricted gene flow between populations and indicating that population isolation is probably relatively recent.
