Bot Detector
IJPC Seal
Download FREE Sample Issue or Article
LEARN MORE
Subscribe Today
A subscription to IJPC provides on-line access to full-text, full-color, printable PDF copies of your subscribed issues, individual articles, and purchased archives.

In Vitro Transdermal Delivery and Stability of Liposome-Encapsulated Prostaglandin E1

Author(s):  Foldvari Marianna, Oguejifor Cosmas

Issue:  Mar/Apr 1999 - Compounding for Men's Health
View All Articles in Issue

Page(s):  160-163

In Vitro Transdermal Delivery and Stability of Liposome-Encapsulated Prostaglandin E1 Page 1
In Vitro Transdermal Delivery and Stability of Liposome-Encapsulated Prostaglandin E1 Page 2
In Vitro Transdermal Delivery and Stability of Liposome-Encapsulated Prostaglandin E1 Page 3
In Vitro Transdermal Delivery and Stability of Liposome-Encapsulated Prostaglandin E1 Page 4

Download in electronic PDF format for $75

Abstract:  The aim of this study was to encapsulate prostaglandin E1 (PGE1) in liposomes, to determine the transdermal flux characteristics in vitro and to evaluate the stability of prostaglandin E1 (PGE1) in these novel transdermal delivery systems. A sensitive, reversed-phase, isocratic high-performance liquid chromatography assay of PGE1 and its major degradation products in solution, liposomes, and other topical dosage forms was developed. The effect of formulation variables – vehicle type, drug concentration, drug/lipid ratio, apparent encapsulation efficiency and pH – on transdermal drug delivery was assessed using the in vitro flow-through diffusion cell technique. The steadystate transdermal flux from the various liposomal formulations ranged from 0.01 to 0.787 (µg/cm2/hour-1) depending on the composition. Compared to the optimum liposome formulation, a conventional nonliposomal PGE1 formulation yielded a steady-state flux of 0.04 µg/cm2/hour-1. Lipid content and the apparent encapsulation efficiency correlated positively with transdermal delivery of PGE1 from liposomes. The stabilization of PGE1 by liposomes depended on the lipid composition, pH of the formulation, and storage temperature but was independent of the drug concentration. It is proposed that a stable transdermal liposomal PGE1 product, which can deliver therapeutic amounts of PGE1 in vivo, may be feasible.

Related Keywords: prostaglandin E1, PGE1, liposomes, drug/lipid ratio

Related Categories: DERMATOLOGY, HRT, PEER-REVIEWED

Printer-Friendly Version



Related Articles from IJPC
Title/Author
(Click for Abstract / Details / Purchase)
Issue/​Page
View/Buy
In Vitro Transdermal Delivery and Stability of Liposome-Encapsulated Prostaglandin E1
Foldvari Marianna
, Oguejifor Cosmas
Mar/Apr 1999
Pg. 160-163

Veterinary Transdermal Medications: A to Z
Davidson Gigi S
Mar/Apr 2003
Pg. 106-113

Prostaglandin E1/Papaverine HCl/Phentolamine Mesylate Injection
Allen Loyd V Jr
Mar/Apr 1999
Pg. 134

Prostaglandin E1/Papaverine HCl/Phentolamine Mesylate Injection
Meece Jerry
May/Jun 2003
Pg. 171

Gabapentin in Elastic Liposomes: Preparation, Characterization, Drug Release, and Penetration Through Porcine Skin
Le Uyen Minh
, Baltzley Sarah, AlGhananeem Abeer
Nov/Dec 2018
Pg. 498-503

Five Compounds for Treating Diabetes-Related Conditions
Meece Jerry
May/Jun 2003
Pg. 170-174

A New High-Performance Liquid Chromatographic Method for Fludarabine and Fludarabine Phosphate Compounded in Liposomes
Abang Anthony M
, Abbas S Ali, Pham Trinh, Lambros Maria Polikandritou
Jul/Aug 2001
Pg. 320-322

Basics of Compounding–Nonsterile: Compounding Self-emulsifying Drug Delivery Systems and Other Self-emulsifying Lipid Formulations, Part 1
Allen Loyd V Jr
May/Jun 2018
Pg. 220-228

Preparation and In Vitro Evaluation of a Pluronic Lecithin Organogel Containing Ricinoleic Acid for Transdermal Delivery
Boddu Sai HS
, Bonam Sindhu Prabha, Wei Yangjie, Alexander Kenneth
May/Jun 2014
Pg. 256-261

Formulation and In Vitro Evaluation of a Ramipril Entrapped in a Microsponge-based Drug-delivery System
Taghi Hassanien Sagban
, Abdulbaqi Mustafa R, Samein Laith Hamza, Rahmani Maha H Philip
Jul/Aug 2023
Pg. 340-346

Basics of Compounding--Nonsterile: Compounding Self-emulsifying Drug Delivery Systems and Other Self-emulsifying Lipid Formulations, Part 2
Allen Loyd V Jr
Jul/Aug 2018
Pg. 294-300

Personalized Medicine and Customized Drug Delivery Systems: The New Trend of Drug Delivery and Disease Management
Soni Abhishek
, Gowthamarajan Kuppusamy, Radhakrishnan Arun
Mar/Apr 2018
Pg. 108-121

The Use of Pluronic Lecithin Organogels in the Transdermal Delivery of Drugs
Bramwell Bethany L
, Williams LaVonn A
Jan/Feb 2012
Pg. 62-63

Beyond-use Date of Trimix: A Reproducible Stability Study Using Bracketing Design
Patel Gopesh
, Davis Countaney, Liu Yi, Ip Kendice, Debideen Krystal E, Anderson Stephanie, Byrne Robert, Herr Dylan, Rhoads Melissa Merrell, Caputo Ross, Banov Daniel, Bassani August S
Jan/Feb 2021
Pg. 73-81

Basics of Sterile Compounding: Biopharmaceutics of Injectable Dosage Forms
Akers Michael J
Jan/Feb 2017
Pg. 47-56

Transdermal Delivery of Nisoldipine: Refinement of Vehicles
El Maghraby Gamal M
, Ahmed Amal A, Osman Mohamed A
Mar/Apr 2015
Pg. 152-160

Transdermals: The Skin as Part of a Drug Delivery System
Allen Loyd V Jr
Jul/Aug 2011
Pg. 308-315

In Vitro Permeability, Irritability, and Release Evaluation of Commonly Used Topical Diclofenac Gel Preparations (1%, 5%, and 10%)
Kohan Hamed Gilzad
, Baker David M, Sani Shabnam, Bielecki-Wilken Kathleen A, Ramirez Alfonso
Mar/Apr 2021
Pg. 146-155

Compounding with Biotechnology Products, Part 1: General Considerations
Allen Loyd V Jr
Sep/Oct 2022
Pg. 385-395

Transdermal Delivery of Metformin Hydrochloride from a Semisolid Vehicle
Polonini Hudson
, Lopes Cândido Paulo José, Andrade Junquiera Laura, Loures Sharlene, Raposo Nádia RB, Fernandes Brandão Marcos Antônio, de Oliveira Ferreira Anderson
Jan/Feb 2019
Pg. 65-69

Return to Top