Volume of distribution and clearance of peptide-based nanofiber after convection-enhanced delivery

被引:15
作者
Singh, Ranjodh [1 ]
Bellat, Vanessa [2 ]
Wang, Melinda [1 ]
Schweitzer, Melanie E. [1 ]
Wu, Y. Linda [1 ]
Tung, Ching-Hsuan [2 ]
Souweidane, Mark M. [1 ,3 ]
Law, Benedict [2 ]
机构
[1] Weill Cornell Med, Mol Imaging Innovat Inst, Dept Neurol Surg, New York, NY USA
[2] Weill Cornell Med, Mol Imaging Innovat Inst, Dept Radiol, 413 East 69th St, New York, NY 10021 USA
[3] Weill Cornell Med, Dept Pediat, New York, NY USA
关键词
convection-enhanced delivery; peptide-based nanofiber; mouse; drug clearance; glioma; oncology; IMPLANTABLE CATHETER SYSTEM; MOLECULE KINASE INHIBITORS; CENTRAL-NERVOUS-SYSTEM; BRAIN-TUMOR-MODELS; DRUG-DELIVERY; RECURRENT GLIOBLASTOMA; MAGNETIC-RESONANCE; POLYMERIC NANOPARTICLES; TOXICITY EVALUATION; PLGA NANOPARTICLES;
D O I
10.3171/2017.2.JNS162273
中图分类号
R74 [神经病学与精神病学];
学科分类号
摘要
OBJECTIVE Drug clearance may be a limiting factor in the clinical application of convection-enhanced delivery (CED). Peptide-based nanofibers (NFPs) have a high aspect ratio, and NFPs loaded with drugs could potentially maintain effective drug concentrations for an extended period sufficient for cancer therapy. The objective of this study was to assess the volume of distribution (Vd) and clearance of variable lengths of NFPs when administered using CED. METHODS NFPs composed of multiple methoxypolyethylene glycol (mPEG)-conjugated constructs (mPEG(2000)-KLDLKLDLKLDL-K(FITC)-CONH2, for which FITC is fluorescein isothiocyanate) were assembled in an aqueous buffer. The NFPs were approximately 5 nm in width and were formulated into different lengths: 100 nm (NFP-100), 400 nm (NFP-400), and 1000 nm (NFP-1000). The NFP surface was covalently conjugated with multiple Cy5.5 fluorophores as the optical reporters to track the post-CED distribution. Forty-two 6-to 8-week-old Ntv-a;p53(fl/fl) mice underwent CED to the striatum. Animals were killed immediately, 24 hours or 72 hours after CED. The brains were extracted and sectioned for assessing NFP Vd to volume of infusion (Vi) ratio, and clearance using fluorescence microscopy. RESULTS CED of NFPs was well tolerated by all the animals. The average Vd/Vi ratios for NFP-100, NFP-400, NFP-1000, and unconjugated positive control (free Cy5.5) were 1.87, 2.47, 1.07, and 3.0, respectively, which were statistically different (p = 0.003). The percentages remaining of the original infusion volume at 24 hours for NFP-100, -400, and -1000 were 40%, 90%, and 74%, respectively. The percentages remaining at 72 hours for NFP-100, -400, and -1000 were 15%, 30%, and 46%, respectively. Unconjugated Cy5.5 was not detected at 24 or 72 hours after CED. CONCLUSIONS CED of NFPs is feasible with Vd/Vi ratios and clearance rates comparable to other nanocarriers. Of the 3 NFPs, NFP-400 appears to provide the best distribution and slowest clearance after 24 hours. NFP provides a dynamic theranostic platform, with the potential to deliver clinically efficacious drug payload to brain tumor after CED.
引用
收藏
页码:10 / 18
页数:9
相关论文
共 57 条
[1]   188Re-loaded lipid nanocapsules as a promising radiopharmaceutical carrier for internal radiotherapy of malignant gliomas [J].
Allard, E. ;
Hindre, F. ;
Passirani, C. ;
Lemaire, L. ;
Lepareur, N. ;
Noiret, N. ;
Menei, P. ;
Benoit, J-P. .
EUROPEAN JOURNAL OF NUCLEAR MEDICINE AND MOLECULAR IMAGING, 2008, 35 (10) :1838-1846
[2]   Convection-enhanced delivery of nanocarriers for the treatment of brain tumors [J].
Allard, Emilie ;
Passirani, Catherine ;
Benoit, Jean-Pierre .
BIOMATERIALS, 2009, 30 (12) :2302-2318
[3]   Convection-enhanced delivery of topotecan into diffuse intrinsic brainstem tumors in children [J].
Anderson, Richard C. E. ;
Kennedy, Benjamin ;
Yanes, Candix L. ;
Garvin, James ;
Needle, Michael ;
Canoll, Peter ;
Feldstein, Neil A. ;
Bruce, Jeffrey N. .
JOURNAL OF NEUROSURGERY-PEDIATRICS, 2013, 11 (03) :289-295
[4]   Effect of concentration on the accuracy of convective imaging distribution of a gadolinium-based surrogate tracer Laboratory investigation [J].
Asthagiri, Ashok R. ;
Walbridge, Stuart ;
Heiss, Joon D. ;
Lonser, Russell R. .
JOURNAL OF NEUROSURGERY, 2011, 115 (03) :467-473
[5]  
Barbu E, 2009, EXPERT OPIN DRUG DEL, V6, P553, DOI [10.1517/17425240902939143 , 10.1517/17425240902939143]
[6]   Robot-guided convection-enhanced delivery of carboplatin for advanced brainstem glioma [J].
Barua, N. U. ;
Lowis, S. P. ;
Woolley, M. ;
O'Sullivan, S. ;
Harrison, R. ;
Gill, S. S. .
ACTA NEUROCHIRURGICA, 2013, 155 (08) :1459-1465
[7]   A novel implantable catheter system with transcutaneous port for intermittent convection-enhanced delivery of carboplatin for recurrent glioblastoma [J].
Barua, Neil U. ;
Hopkins, Kirsten ;
Woolley, Max ;
O'Sullivan, Stephen ;
Harrison, Rob ;
Edwards, Richard J. ;
Bienemann, Alison S. ;
Wyatt, Marcella J. ;
Arshad, Azeem ;
Gill, Steven S. .
DRUG DELIVERY, 2016, 23 (01) :167-173
[8]   Preclinical Evaluation of Radiation and Perifosine in a Genetically and Histologically Accurate Model of Brainstem Glioma [J].
Becher, Oren J. ;
Hambardzumyan, Dolores ;
Walker, Talia R. ;
Helmy, Karim ;
Nazarian, Javad ;
Albrecht, Steffen ;
Hiner, Rebecca L. ;
Gall, Sarah ;
Huse, Jason T. ;
Jabado, Nada ;
MacDonald, Tobey J. ;
Holland, Eric C. .
CANCER RESEARCH, 2010, 70 (06) :2548-2557
[9]   Smart Nanotransformers with Unique Enzyme-Inducible Structural Changes and Drug Release Properties [J].
Bellat, Vanessa ;
Lee, Hyun Hee ;
Vahdat, Linda ;
Law, Benedict .
BIOMACROMOLECULES, 2016, 17 (06) :2040-2049
[10]   Convection-enhanced delivery and in vivo imaging of polymeric nanoparticles for the treatment of malignant glioma [J].
Bernal, Giovanna M. ;
LaRiviere, Michael J. ;
Mansour, Nassir ;
Pytel, Peter ;
Cahill, Kirk E. ;
Voce, David J. ;
Kang, Shijun ;
Spretz, Ruben ;
Welp, Ulrich ;
Noriega, Sandra E. ;
Nunez, Luis ;
Larsen, Gustavo ;
Weichselbaum, Ralph R. ;
Yamini, Bakhtiar .
NANOMEDICINE-NANOTECHNOLOGY BIOLOGY AND MEDICINE, 2014, 10 (01) :149-157