The analysis of peristaltic-ciliary transport in the human female fallopian tube,
specifically in relation to the growing embryo, is a matter of considerable physiological
importance. This paper proposes a biomechanical model that incorporates a finite permeable
tube consisting of two layers, where the Jeffrey fluid model characterizes the viscoelastic
properties of the growing embryo and continuously secreting fluid. Jeffrey fluid entering
with some negative pressure gradient forms the core fluid layer while continuously
secreting Jeffrey fluid forms the peripheral fluid layer. The resulting partial differential
equations are solved for closed-form solutions after employing the assumption of long
wavelength. The analysis delineated that increasing the constant secretion velocity,
Darcy number, and Reynolds number leads to a decrease in the appropriate residue time
of the core fluid layer and a reduction in the size of the secreting fluid bolus in
the peripheral fluid layer. Eventually, the boluses completely disappear when the
constant secretion velocity exceeds 3.0 Progesterone (
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