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新型血管收缩剂配方,可增强神经肽治疗药物向中枢神经系统的鼻内靶向递送。

Novel vasoconstrictor formulation to enhance intranasal targeting of neuropeptide therapeutics to the central nervous system.

作者信息

Dhuria Shyeilla V, Hanson Leah R, Frey William H

机构信息

Department of Pharmaceutics, College of Pharmacy, University of Minnesota, Minneapolis, Minnesota, USA.

出版信息

J Pharmacol Exp Ther. 2009 Jan;328(1):312-20. doi: 10.1124/jpet.108.145565. Epub 2008 Oct 22.

DOI:10.1124/jpet.108.145565
PMID:18945930
Abstract

The intranasal route of drug administration is noninvasive, convenient, and rapidly targets therapeutics to the central nervous system (CNS) using olfactory and trigeminal neural pathways connecting the nasal passages to the brain. The purpose of this research was to enhance intranasal drug targeting to the CNS by incorporating a vasoconstrictor [phenylephrine (PHE)] into nasal formulations containing therapeutic neuropeptides [hypocretin-1 (HC) or the dipeptide L-Tyr-D-Arg (D-KTP)]. Concentrations in CNS tissues, peripheral tissues, and blood were determined at 30 min following intravenous or intranasal administration of (125)I-labeled neuropeptides with and without PHE. Compared with intranasal controls, inclusion of 1% PHE in nasal formulations significantly reduced absorption into the blood for HC (65% reduction) and D-KTP (56% reduction), whereas it significantly increased deposition into the olfactory epithelium by approximately 3-fold for both. PHE (1%) significantly increased delivery to the olfactory bulbs for HC (2.1-fold) and D-KTP (3.0-fold), whereas it significantly reduced concentrations in the trigeminal nerve for HC (65% reduction) and D-KTP (39% reduction) and in most remaining brain regions by approximately 50% for both. The dramatic reduction in blood concentrations with PHE contributed to brain-to-blood concentration ratios that were significantly increased for HC throughout the brain (1.6-6.8-fold) compared with intranasal controls. For D-KTP, 1% PHE significantly increased ratios only in the olfactory bulbs (5.3-fold). With a 5% PHE formulation, D-KTP ratios were significantly increased to additional brain areas (1.5-16-fold). Vasoconstrictor nasal formulations may have particular relevance for CNS therapeutics with adverse side effects where it would be advantageous to limit systemic exposure.

摘要

药物经鼻给药途径是非侵入性的、方便的,并且利用连接鼻腔与大脑的嗅觉和三叉神经通路将治疗药物快速靶向输送至中枢神经系统(CNS)。本研究的目的是通过将血管收缩剂[去氧肾上腺素(PHE)]加入含有治疗性神经肽[下丘脑分泌素-1(HC)或二肽L-酪氨酸-D-精氨酸(D-KTP)]的鼻腔制剂中,增强经鼻给药对中枢神经系统的靶向作用。在静脉注射或经鼻给药(125)I标记的含或不含PHE的神经肽30分钟后,测定中枢神经系统组织、外周组织和血液中的浓度。与经鼻对照相比,鼻腔制剂中加入1%的PHE可显著降低HC(降低65%)和D-KTP(降低56%)的血液吸收,而二者在嗅上皮中的沉积量显著增加约3倍。1%的PHE显著增加了HC(2.1倍)和D-KTP(3.0倍)向嗅球的递送,而显著降低了HC(降低65%)和D-KTP(降低39%)在三叉神经以及二者在大多数其余脑区中的浓度约50%。PHE使血液浓度显著降低,与经鼻对照相比,HC在整个大脑中的脑血浓度比显著提高(1.6 - 6.8倍)。对于D-KTP,1%的PHE仅在嗅球中显著提高了该比例(5.3倍)。使用5% PHE制剂时,D-KTP的比例在其他脑区也显著增加(1.5 - 16倍)。血管收缩剂鼻腔制剂对于有不良副作用的中枢神经系统治疗可能具有特殊意义,因为限制全身暴露会有益处。

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