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1 known about the design of CPPs for efficient transcellular transport.
2 le the collecting duct primarily facilitates transcellular transport.
3 ugh epithelial tight junctions and protected transcellular transport.
4 y that would complement known differences in transcellular transport.
5 lt in overcoming this barrier and increasing transcellular transport across it.
6 n in mouse cortical collecting duct (CCD) by transcellular transport across type B intercalated cells
7 scytosis, which enables transendothelial and transcellular transport and a relatively uniform distrib
8   This protein is thought to function in the transcellular transport and enterohepatic circulation of
9 s, we examined whether lyso-PC regulates the transcellular transport and metabolism of cationic amino
10 e examined whether TGF-beta(1) regulates the transcellular transport and metabolism of L-arginine by
11 , we examined whether thrombin regulates the transcellular transport and metabolism of L-ornithine by
12 ese include intracellular chain association, transcellular transport and secretion, proteolytic proce
13 ansport mechanism consisting of endocytosis, transcellular transport, and exocytosis.
14                                              Transcellular transport in proximal and distal segments
15 tudied by measuring the [(3) H]-taurocholate transcellular transport in stable Madin-Darby canine kid
16              METHODS AND We demonstrate that transcellular transport mechanisms substantially contrib
17  (i.e., apical to basolateral) Na+-dependent transcellular transport of [3H]taurocholate.
18                           Here, we report on transcellular transport of a CPP, designated the CL pept
19                                              Transcellular transport of agonist-conjugated HAuNS was
20 as well as caveolae-mediated endocytosis and transcellular transport of albumin and uptake of cholera
21                First, we demonstrated active transcellular transport of both digoxin and quinidine in
22     Dental enamel formation depends upon the transcellular transport of Ca(2+) by ameloblasts, but li
23             In this study, we visualized the transcellular transport of fluorescent organic cation an
24                                        Since transcellular transport of HIV across an intact colonic
25 polyamine synthesis, we examined whether the transcellular transport of L-ornithine, the cationic ami
26 sis and SMC mitogenesis are dependent on the transcellular transport of L-ornithine.
27 diated cell association, internalization and transcellular transport of molecular IgG.
28 eolin and Rabankyrin-5 associated uptake and transcellular transport of nanoparticles across the AEC
29 ic properties of glia that may contribute to transcellular transport of potassium.
30                              In summary, the transcellular transport of proteins across the podocyte
31                    Moreover, in Caco-2 cells transcellular transport of the known OATP2B1 substrate a
32 ntisense radiopharmaceuticals, providing the transcellular transport of these molecules is enabled wi
33 ent abilities to facilitate paracellular and transcellular transport of water and solutes.
34 h FcRn-independent paracellular, rather than transcellular, transport of antibodies.
35 hin the embryo occur through a sophisticated transcellular transport pathway causing the proteolytic
36                                 The FcRn-IgG transcellular transport pathway may provide a general de
37     In summary, our results suggest distinct transcellular transport pathways for organic cations and
38 s on the cross-talk between paracellular and transcellular transport pathways.
39 cale pipet to differentiate paracellular and transcellular transport processes at high spatial resolu
40 ondrial metabolism and biogenesis as well as transcellular transport processes involved in countercur
41  and regions and generate a primary urine by transcellular transport rather than filtration, which is
42 e phosphate absorption in the gut, an active transcellular transport requiring the Na(+) /phosphate c
43 here are important differences in the Ca(2+) transcellular transport systems used by secretory- and m
44 ntestinal barrier by the paracellular or the transcellular transport systems with several implication
45 f the passive flow of counter ions to active transcellular transport, thereby controlling net transep