PEG-like nanoprobes: multimodal, pharmacokinetically and optically tunable nanomaterials.

"PEG-like Nanoprobes" (PN's) are pharmacokinetically and optically tunable nanomaterials whose disposition in biological systems can be determined by fluorescence or radioactivity. PN's feature a unique design where a single PEG polymer surrounds a short fluorochrome and radiomet...

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Main Authors: Yanyan Guo, Hushan Yuan, Natalie M Claudio, Sreekanth Kura, Naomi Shakerdge, Thorsten R Mempel, Brian J Bacskai, Lee Josephson
Format: Article
Language:English
Published: Public Library of Science (PLoS) 2014-01-01
Series:PLoS ONE
Online Access:http://europepmc.org/articles/PMC4004541?pdf=render
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spelling doaj-f23560d6a11944458772a273fc74f4c02020-11-25T00:43:58ZengPublic Library of Science (PLoS)PLoS ONE1932-62032014-01-0194e9540610.1371/journal.pone.0095406PEG-like nanoprobes: multimodal, pharmacokinetically and optically tunable nanomaterials.Yanyan GuoHushan YuanNatalie M ClaudioSreekanth KuraNaomi ShakerdgeThorsten R MempelBrian J BacskaiLee Josephson"PEG-like Nanoprobes" (PN's) are pharmacokinetically and optically tunable nanomaterials whose disposition in biological systems can be determined by fluorescence or radioactivity. PN's feature a unique design where a single PEG polymer surrounds a short fluorochrome and radiometal bearing peptide, and endows the resulting nanoprobe with pharmacokinetic control (based on molecular weight of the PEG selected) and optical tunability (based on the fluorochrome selected), while the chelate provides a radiolabeling option. PN's were used to image brain capillary angiography (intravital 2-photon microscopy), tumor capillary permeability (intravital fluorescent microscopy), and the tumor enhanced permeability and retention (EPR) effect (111In-PN and SPECT). Clinical applications of PN's include use as long blood half-life fluorochromes for intraoperative angiography, for measurements of capillary permeability in breast cancer lesions, and to image EPR by SPECT, for stratifying patient candidates for long-circulating nanomedicines that may utilize the EPR mechanism.http://europepmc.org/articles/PMC4004541?pdf=render
collection DOAJ
language English
format Article
sources DOAJ
author Yanyan Guo
Hushan Yuan
Natalie M Claudio
Sreekanth Kura
Naomi Shakerdge
Thorsten R Mempel
Brian J Bacskai
Lee Josephson
spellingShingle Yanyan Guo
Hushan Yuan
Natalie M Claudio
Sreekanth Kura
Naomi Shakerdge
Thorsten R Mempel
Brian J Bacskai
Lee Josephson
PEG-like nanoprobes: multimodal, pharmacokinetically and optically tunable nanomaterials.
PLoS ONE
author_facet Yanyan Guo
Hushan Yuan
Natalie M Claudio
Sreekanth Kura
Naomi Shakerdge
Thorsten R Mempel
Brian J Bacskai
Lee Josephson
author_sort Yanyan Guo
title PEG-like nanoprobes: multimodal, pharmacokinetically and optically tunable nanomaterials.
title_short PEG-like nanoprobes: multimodal, pharmacokinetically and optically tunable nanomaterials.
title_full PEG-like nanoprobes: multimodal, pharmacokinetically and optically tunable nanomaterials.
title_fullStr PEG-like nanoprobes: multimodal, pharmacokinetically and optically tunable nanomaterials.
title_full_unstemmed PEG-like nanoprobes: multimodal, pharmacokinetically and optically tunable nanomaterials.
title_sort peg-like nanoprobes: multimodal, pharmacokinetically and optically tunable nanomaterials.
publisher Public Library of Science (PLoS)
series PLoS ONE
issn 1932-6203
publishDate 2014-01-01
description "PEG-like Nanoprobes" (PN's) are pharmacokinetically and optically tunable nanomaterials whose disposition in biological systems can be determined by fluorescence or radioactivity. PN's feature a unique design where a single PEG polymer surrounds a short fluorochrome and radiometal bearing peptide, and endows the resulting nanoprobe with pharmacokinetic control (based on molecular weight of the PEG selected) and optical tunability (based on the fluorochrome selected), while the chelate provides a radiolabeling option. PN's were used to image brain capillary angiography (intravital 2-photon microscopy), tumor capillary permeability (intravital fluorescent microscopy), and the tumor enhanced permeability and retention (EPR) effect (111In-PN and SPECT). Clinical applications of PN's include use as long blood half-life fluorochromes for intraoperative angiography, for measurements of capillary permeability in breast cancer lesions, and to image EPR by SPECT, for stratifying patient candidates for long-circulating nanomedicines that may utilize the EPR mechanism.
url http://europepmc.org/articles/PMC4004541?pdf=render
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