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Index 405<br />
lipid perturbation (second restraint),<br />
193–194<br />
molecular hydrophobicity potential<br />
(MHP), 199–202<br />
Monte Carlo procedure, 198<br />
Pex2Dstat files, 198–199<br />
procedure, 197–198<br />
principles and background, 188–190<br />
results, 202–215<br />
charged bilayer model, 210–215<br />
efficiency of Monte Carlo method,<br />
202–206<br />
hydrophobic peptides, 202–204<br />
membrane proteins, 204–206<br />
penetratin, 206–207<br />
uncharged membrane model, 207–210<br />
Surface potential, 230<br />
T<br />
Targeting domains, for translocating peptides,<br />
124–127<br />
Tat<br />
in nucleic acid delivery, 351–354<br />
side effects, 256<br />
Toxicity, 253<br />
Tat-β-galactosidase, 372<br />
Tat-Cre recombinase, 370–371<br />
Tat-dependent bacterial protein secretion<br />
pathways, 301–302<br />
Tat-derived CPPs, 3–21<br />
applications, 7–13<br />
examples of vectorization, 17<br />
principles and background, 3–4<br />
uptake investigations and methods, 4–7<br />
uptake mechanism, 13–16<br />
cellular aspects, 16<br />
of full-length Tat protein, 13<br />
molecular aspects, 14–15<br />
short HIV-Tat peptide, 13–14<br />
Tat-E1A fusion protein, transduction into<br />
lymphocytes, 370<br />
Tat fusion proteins, cloning and purification,<br />
368–369<br />
Tat-GFP protein, 372<br />
Tat protein, magnetic cell labeling with, 336–343<br />
CLIO-Tat internalization into lymphocyte and<br />
CD34+ subsets, 336–337<br />
internalization of paramagnetic chelates,<br />
342–343<br />
internalization of superparamagnetic<br />
nanoparticles, 336<br />
label distribution in dividing cell populations,<br />
337–338<br />
results in vitro, 338–339<br />
results in vivo, 339–340<br />
toxicity/nontoxicity, 338<br />
in vivo MR imaging of Tat-labeled cells,<br />
340–342<br />
Tat PTD fusion zymogen, 372–373<br />
Tat/Tat analogues, uptake kinetics, 289–290<br />
Thermus aquaticus, 300–301<br />
Thiazolidine ring formation protocol, 126–127<br />
Toxicity, 179–180, 245–261, see also Side effects<br />
in vitro findings, 252–255<br />
arginine-rich peptides, 254<br />
conclusions, 254<br />
model amphipathic peptides (MAPs),<br />
252–253<br />
penetratin, 253–254<br />
Tat, 253<br />
transportan, 254<br />
in vitro methods, 246–252<br />
cell membrane permeability, 247–250<br />
cytoplasmic leakage assays, 249–250<br />
dye exclusion techniques, 248–249<br />
cell viability assays, 250–252<br />
enzymatic, 251<br />
ion pump, 252<br />
uptake, 251–252<br />
in vivo, 256–258<br />
Translocating chain-associated membrane<br />
(TRAM) protein, 304<br />
Translocation, possible mechanisms of, 240–241<br />
Translocons, 297, 304<br />
Transportan, 53–70, 128, 224–225<br />
cell penetration, 55–57<br />
discovery, 53–55<br />
experimental methods, 66–68<br />
cargo-CPP conjugation systems, 66<br />
conjugation to proteins, 66–67<br />
disulfide heterodimers, 66<br />
125 I-radiolabeling, quantification by, 267<br />
membrane-associated fraction, 282–283<br />
in nucleic acid delivery, 354<br />
properties, 57–58<br />
sequences and uptake parameters, 54<br />
side effects, 255–256<br />
structural organization, 67–69<br />
structure–activity relationships, 58–59<br />
toxicity, 254<br />
uptake kinetics, 285–287<br />
as vector, 59–66<br />
for peptides, 59–60<br />
for PNA, 60–61<br />
for proteins, 61–66<br />
Transportan analogues, uptake kinetics, 287–289<br />
Transverse relaxation optimized (TROSY)<br />
spectroscopy, 235<br />
Trojan horse strategies, 372–373