The coupling between chemical transport and kinetics is crucial in understanding the temporal dynamics of disease progression. Reaction kinetics dictate how quickly biological processes change, which directly relates to chemical transport rates. For instance, in the context of reproductive cancers, the proliferation of cancer cells is often linked with abnormal transport of growth factors and hormones, which can accelerate tumor growth and metastasis as evident in conditions like ovarian cancer, where rapid cellular proliferation and metabolic change alter the diffusion and reaction dynamics of key metabolic players, promoting tumor growth and metastasis. Therapeutic interventions often target these coupled processes to restore balance and inhibit disease progression. In another instance, the kinetics of hormone-receptor interactions are profoundly influenced by the rate of hormone transport via diffusion and convection . This coupling is evident in how estrogen levels modulate cellular responses, contributing to conditions like estrogen-dependent tumors . Understanding these couplings allows for the identification of potential therapeutic targets aimed at restoring normal mechanical and kinetic profiles in diseased tissues.