Alexander Marcus Seifalian

Prof. Alexander Marcus Seifalian

University College London, London, UK
orcid

Research Focus & Metrics

Academic Career Length

36Years (1991-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 November 2010 in Trends in Biotechnology
Verified
Journal Article
Closed access
KCKarla Chaloupka
Karla Chaloupka
YMYogeshkumar Malam
Yogeshkumar Malam
Alexander Marcus SeifalianAlexander Marcus Seifalian
Alexander Marcus Seifalian

1 November 2009 in Trends in Pharmacological Sciences
Verified
Journal Article
Closed access
YMYogeshkumar Malam
Yogeshkumar Malam
Marilena LoizidouMarilena Loizidou
Marilena Loizidou
Alexander Marcus SeifalianAlexander Marcus Seifalian
Alexander Marcus Seifalian

1 November 2007 in Biomaterials
Verified
Journal Article
Closed access
TJTimothy Jamieson
Timothy Jamieson
RBRaheleh Bakhshi
Raheleh Bakhshi
DPDaniela Petrova
Daniela Petrova
RPRachael Pocock
Rachael Pocock
MIMo Imani
Mo Imani
Alexander Marcus SeifalianAlexander Marcus Seifalian
Alexander Marcus Seifalian

3 July 2018 in Chemical Reviews
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Journal Article
Closed access
TNToktam Nezakati
Toktam Nezakati
ASAmelia Seifalian
Amelia Seifalian
ATAaron Tan
Aaron Tan
Alexander Marcus SeifalianAlexander Marcus Seifalian
Alexander Marcus Seifalian

29 April 2008
Verified
Journal Article
Closed access
HNH Niknejad
H Niknejad
HPH Peirovi
H Peirovi
MJM Jorjani
M Jorjani
AAA Ahmadiani
A Ahmadiani
JGJ Ghanavi
J Ghanavi
Alexander Marcus SeifalianAlexander Marcus Seifalian
Alexander Marcus Seifalian
An important component of tissue engineering (TE) is the supporting matrix upon which cells and tissues grow, also known as the scaffold. Scaffolds must easily integrate with host tissue and provide an excellent environment for cell growth and differentiation. Most scaffold materials are naturally derived from mammalian tissues. The amniotic membrane (AM) is considered an important potential source for scaffolding material. The AM represents the innermost layer of the placenta and is composed of a single epithelial layer, a thick basement membrane and an avascular stroma. The special structure and biological viability of the AM allows it to be an ideal candidate for creating scaffolds used in TE. Epithelial cells derived from the AM have the advantages of stem cells, yet are a more suitable source of cells for TE than stem cells. The extracellular matrix components of the basement membrane of the AM create an almost native scaffold for cell seeding in TE. In addition, the AM has other biological properties important for TE, including anti-inflammatory, anti-microbial, anti-fibrosis, anti-scarring, as well as reasonable mechanical property and low immunogenicity. In this review, the various properties of the AM are discussed in light of their potential use for TE.

1 December 2011 in Nano Today
Verified
Journal Article
Open access
LYLara Yildirimer
Lara Yildirimer
Thanh Nguyen T. K.Thanh Nguyen T. K.
Thanh Nguyen T. K.
Marilena LoizidouMarilena Loizidou
Marilena Loizidou
Alexander Marcus SeifalianAlexander Marcus Seifalian
Alexander Marcus Seifalian
▶ NP toxicity depends on NP characteristics, administered dose and route. ▶ In vitro toxicity results do not easily translate into in vivo toxicity. ▶ Current research lacks a unifying protocol for the toxicological profiling of NPs.