Differential modulation of invertebrate hemocyte motility by CRF, ACTH, and its fragments
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2007, Fish and Shellfish ImmunologyCitation Excerpt :The ACTH fragments ACTH 1–24, ACTH 1–4, ACTH 4–9, ACTH 1–13, ACTH 1–17 and ACTH 11–24 increase the migratory activity of the haemocytes of P. corneus and V. ater, with some differences between these species [33]. The whole sequence ACTH 1-39 and the fragment ACTH 4–11 were inhibitory for haemocyte migration [33]. ACTH can induce modifications of the cytoskeleton of the haemocyte in these molluscs, such as rearrangement of microfilament bundles under the plasma membrane, the concentration of actin in the protruded lamellipods and an increase in microtubules.
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2005, Brain Research ReviewsCitation Excerpt :Taxis also shows plasticity: the chemotactic system undergoes desensitization [90,151], the axonal growth cone exhibits adaptation [237], and amoeba-like cells have the ability to find the minimum-length solution between two points in a labyrinth [247]. MRSs affect motivation [103,139] and enhance single cell chemotaxis [102,151,212] at similar concentrations, depending on experience and with similar U-shaped dependence on concentration [90,126]. MRSs affecting both motivation and chemotaxis are bombesin [406], cholecystokinin [293], insulin [194], gastrin-releasing peptide [90], somatostatin [262], neuropeptide Y [129], substance P [317], bradykinin [12], steroid sex hormone estrogen [81], prolactin [224], and angiotensin II [291].