البيانات الاساسيه
السيره الذاتيه
C.V.
Heba
Farouk Salem
Professor
of Pharmaceutics and Industrial Pharmacy, Faculty of Pharmacy
The
University of Beni –Suef, Egypt
Tel/ 002-01001944381
Name:
Heba Farouk Salem
Date
of Birth: 25/12/1971
Nationality: Egyptian
Address: 6 October City, Third district,
fourth neighbourhood.
Education:
1989-1994 BSC. Of Pharmacy
and Pharmaceutical sciences,
Faculty of Pharmacy,
Cairo University,
Egypt.
2000-2004 PhD of
Pharmaceutical Nanotechnology and gene delivery using self assembled
nanoparticles
School
of Pharmacy, the University of Nottingham, UK .
2000-2005 Additional
courses of marking and assessments, teaching, team work management, statistical
analysis, philosophy of science , word for long document, scientific ethics,
research management in science and engineering, building a bibliography, power
point for presentation, developing data base with access-skills improvement,
introduction to SPSS, data formatting and analysis with MS Excel and skills of
spoken and written communications.
2005-2011 Advanced courses
in teaching and communication skills by the FLDP.
2015 C++
programming, GIMP for editing by the university of Nottingham staff development courses
Position Held
2016 Professor of Pharmaceutics
and industrial Pharmacy, the University of Beni-Suef.
2015-2016 Vice-dean of
social services and environmental affairs. Faculty of Pharmacy, the University
of Beni- Suef, Egypt.
Spring 2015 Visiting
professor at the University of Nottingham, UK
2012-2014 Vice
dean for higher education and research, The University of Beni-Suef, Egypt.
2011-2012 Vice-dean of
social services and environmental affairs. Faculty of Pharmacy, the University
of Beni- Suef, Egypt.
2011-2014 Head of
Pharmaceutics and Industrial Pharmacy department, Faculty of Pharmacy. The
University of Beni- Suef, Egypt.
2011-2012 Associate
professor of Pharmaceutical Nanotechnology, The University of Beni- Suef,
Egypt.
2005-2010 Assistant
professors of Pharmaceutics and Industrial Pharmacy
Faculty of Pharmacy, The University of Beni-
Suef, Egypt.
2008-2012 Assistant
professor of Pharmaceutics and Industrial Pharmacy, Faculty of Pharmacy, Nahda
University ,Beni- Suef, Egypt.
2005-2010 Coordinator of
the cultural affairs within school of Pharmacy the University of Beni-Suef
2007-2008 Consultant within
the quality assurance unit
Faculty of pharmacy,
the University of Beni-Suef.
2007-2008 Member of the
research committee,
Faculty of pharmacy,
the University of Beni-Suef.
1994-2000 Researcher
in Drug Bioavailability Centre,
National Organisation for
Drug Control and Research
(NODCAR), Egypt.
2005 Assistant
professors of pharmaceutics and industrial pharmacy, Faculty of pharmacy, the
University of Beni- Suef, Egypt.
2008-2011 Assistant
professor of pharmaceutics and industrial pharmacy, Faculty of pharmacy, Nahda
University ,Beni- Suef, Egypt.
2008-2009 Assistant
professor of Pharmaceutics in ACU ( Al-ahram Canadian university)
2007-2008 Consultant within
the quality assurance unit
Faculty
of pharmacy, the University of Beni-Suef
2007-2008 Member of the
research committee
Faculty
of pharmacy, the University of Beni-Suef
1994-2000
Researcher
in Drug Bioavailability Centre
National
Organisation for Drug Control and Research
(NODCAR), Egypt.
Teaching
Experience
Extensive
participation in teaching the following subjects:
Physical pharmacy, community pharmacy,
pharmaceutics 2 (solid dosage forms), pharmaceutics 3(parenterals), controlled
release dosage forms, radiopharmacy, orientation, pharmacokinetics and
biopharmaceutics, cosmetics, advanced drug delivery and history of
pharmacy.
Area of Research Interest
My research interest is focused on designing
non-viral gene delivery systems, biodegradable naoparticles (solid lipid
naoparticles, nanocarriers for macromolecules and biologically active compounds.
Targeted nanoparticles using different targeting moieties such as folic acid
and folinic acid... etc,
I T Skills
Excellent
experience in word, excel and power point and in using other soft wares such as
winmd for analysis of flowcytometry results and WinNonlin for pharmacokinetic
data analysis. Mini Tab for data mining and experimental design.
Other knowledge Very good experience in statistics especially the
parametric tests using softwares such as prism.
Societies: Member of controlled release society
(USA)
Member of
British pharmaceutical society (UK)
Member of the
Egyptian society of biomaterial science
Member of the Egyptian
pharmaceutical society (Egypt)
Member of the
Egyptian society of nanotechnology
Publications
Abdelbary
AA, Salem HF and Khallaf RA. Niosomal 5-Flourouracil gel for effective
treatment of skin cancer; In-vitro and In-vivo evaluation.
International journal of Drug delivery.( 2016)
Accepted
Salem
HF , Kharshoum RM , Abdel Hakim LF &
Abdelrahim M E. Edge activators and a
polycationic polymer enhance the formulation of porous voriconazole
nano-agglomerate for the use as a dry powder inhaler. Journal of Liposome
Research.
Early Online: 1–12.2016
Salem HF, Sayed MA. and Omar MM.
Liposomal flucytosine capped with gold nanoparticle formulations for improved. Drug Design, Development and Therapy
2016(10) 277–295
Maher
EM, Ali AA, Salem HF, Abdeelbary
AA. In vitro/in vivo evaluation of an
optimized fast dissolving oral film containing olanzapine co-amorphous
dispersion with selected carboxylic acids. Drug Deliv, Early Online: 1–13
Raghda R. S. Hussein, Ahmed M. A. Ali, Heba F.
Salem, Maha M. Abdelrahman, Amira S. A. Said & Mohamed E. A.
Abdelrahim. In vitro/in vivo correlation
and modeling of emitted dose and lung deposition of inhaled salbutamol from
metered dose inhalers with different types of spacers in noninvasively
ventilated patients. Pharmaceutical Development and Technology, Early Online:
1–10. 2015 DOI: 10.3109/10837450.2015.1116567
Salem HF, Sayed MA. Hassaballah A S and Omar MM. Targeting Brain Cells
with Glutathione -Modulated Nanolipsosomes: in vitro and in vivo study. Drug
Design, Development and Therapy. 2015 (9) 1-23.
Ali MF, Salem HF, Abdelmohsen H, Atteia S K. Preparation and clinical
evaluation of nano-transferosomes for treatment of erectile dysfunction. Drug
Design, Development and Therapy. 2015 (9) 2431-2447.
Abdelrahman AA, Salem HF,
Khallaf R A, and Abdelhaleem AA.
“Modeling, Optimization, and In Vitro Corneal Permeation of
Chitosan-Lomefloxacin HCl Nanosuspension Intended for Ophthalmic Delivery,”
Journal of Pharmaceutical Innovation, 2015.
AM Abou-Yousef, Salem HF, MA
Hamzawy . Alternative Animal model of urethane induced lung cancer: a pilot study.
Toxicology Letters, 2014
Salama H, Zekri A, Salem HF, Omran D, Abd elrahman M. Comparative
Efficacy of Amantadine hydrochloride
Against The efficacy of amantadine sulfate in treating Egyptian patients with chronic HCV.
International journal of tropical disease and health. 2014 (4) 10 11-4-1010.
Salem H F, Ahmed S M ,
Omar M M. . Computed
tomography imaging of nanotheranostics iiposoms for ocular delivery. Proceeding of
controlled release conference. 2014
Kharshoum RM , Salem HF. Formulation and Evaluation of Ketotifen Fumarate Fast Disintegrating
Sublingual Tablets. Int J Drug Deliv.
2011; 3 : 619-632
Salem HF, Abdelrahim ME, Eid
KA, Sharaf MA. Nanosized rods
agglomerates as a new approach for formulation of a dry powder inhaler. Int
J Nanomedicine. 2011; 6:311-20.
Salem HF, Sustained-release of progesterone
nanosuspension following Intramuscular Injection in ovariectomised rats. Int J Nanomedicine. 2010; 5:943-54.
Salem HF, Fahmy
,Ali AM. Extended immunization of rats
using microencapsulated Cobra venom. Br.
J Pharm and Toxic. 2011;1: 43-50, 2011
Abd
Elbary A, Salem HF , Maher EM. In vitro
and in vivo evaluation of glibenclamide using surface solid dispersion (SSD)
Approach. Br. J Pharm and Toxic .
2011; 1: 51-62.
Salem
HF, Eid KA, Sharaf MA. Formulation and
evaluation of silver nanoparticles as antibacterial and antifungal agents with
a minimal cytotoxic effect. Int J
Drug Deliv. 2011; 3 : 293-304
Abd El-Bary AA, Salem HF,
Kharshoum RM .2-Hydroxypropyl-ß-Cyclodextrin Complex with Ketotifen Fumerate
for eye drops preparations. Int J Drug Deliv. 2011;3 :
228-240
Salem HF, Abdelrahim ME, Abo Eid K, Sharaf MA,
Agglomeration of theophylline Nanoparticles: a New Protocol for Pulmonary Drugs
Administration, oral presentation in The XXVIII international conference 2010
on Solid State Science and Materials Physics & workshop on Functional
Nanostructures and Hybrid Organic-Inorganic Materials, Fayoum, Egypt (March
22nd-25th), Conference book 2010.
Salem HF, R
Khalaf, Abd Elbary AA, Incorporation of the chemotherapeutic agent
5-fluorouracil into solid lipid nanoparticles for topical application:
Production, Characterization and release oral presentation in The XXVIII
international conference 2010 on Solid State Science and Materials Physics
& workshop on Functional Nanostructures and Hybrid Organic-Inorganic
Materials, Fayoum, Egypt (March 22nd-25th),
Conference book 2010.
Abd Elbary A,
Salem HF, Maher E., Using solvent deposition techniques to enhance solubility
of glibenclamide, proceedings of the Egypt. Pharmace. Soci. Egypt.2008; p-30
El-Tantawy
WH. Salem HF. ,Safwat NM. , Effect of Fascioliasis on the Pharmacokinetics
Parameter of Triclabendazole in human Subjects.
J Pharm. world Sci. 2007;3:190-8
El Said MY.,
Salem HF, Moharram SE. , A Study of the
Effect of Different Semisolid Bases on the Sustainment of Local Activity of
Econazole Nitrate. Proceeding of the
Egypt. Pharmace.Soci., Dec. Egypt .2006;
p-1.
EL-Tantawy WH,
Salem HF, Clinical pharmacokinetics study of Two Trichlabendazole Formulations
in Patients with Fascioliasis, Boll. Chem. Farm. 2005; 5:67-75
Salem HF.,
Stolnik S., Garnett MC.
Physicochemical, Binding and Cellular Uptake of Folinate Modified
Macromolecules and Gene Delivery System. J. pharm and pharm.2003; S-13
Salem HF,
Bignotti F , Lee R. , Stolnik S.
, Garnett M. Sterically
Stabilised Gene Delivery Systems
Incorporating Targeting Ligand and Amphipathic Peptides. Proceeding of The
Controlled release 30th annual meeting.2003; p-627
Salem HF, Stolnik
S, Garnett MC. Incorporation of
Targeting Moiety into a Multicomponent DNA delivery system. J. Pharm. and pharm. 2002; S60-61
Conferences and Visits
2015
Visiting professor in the university of
Nottingham UK
2014 Computed tomography imaging of nanotheranostics
liposomes for ocular delivery. controlled
release conference USA . 2014
2013 Invited
speaker in nanotechnology for applied sciences.
One day workshop 2013. Cairo, Egypt.
2012 Invited
speaker in ABAS 1. The international conference of applied biological analysis
and sciences, Hurghada, Egypt.
2010 Invited
speaker in Nanotech Egypt (September
18-22, 2010)
2010 invited
speaker in XXVIII international conference 2010 on Solid State Science and
Materials Physics & workshop on Functional Nanostructures and Hybrid
Organic-Inorganic Materials, Fayoum, Egypt (March 22nd-25th),
Conference book 2010.
2010 invited
speaker in nanotechnology workshop The University of Beni Suef 28 Feb (2010)
2009 nanotechnology
and its application, the national research institute, Cairo, Egypt
2008 31st
International conference of the Egyptian pharmaceutical society, Egypt
2006 30tyInternational
conference of pharmaceutical sciences, Cairo, Egypt
2005 2nd
international conference of scientific research and its application, Cairo,
Egypt.
2003 British pharmaceutical conference,
Harrogate, UK.
2003 Controlled release society
conference, Glasgow, UK.
2002 British pharmaceutical
conference, Manchester, UK.
2001 British pharmaceutical
conference, Glasgow, UK.
Projects Principal investigator of STDF
project (ID 1636 ) “formulation and evalauation of self assembled siRNA
nanocarriers for the possible treatment of HCV”. Final budget one million 1
000.000 LE
Awards:
2012-March The University award
in the First science day
2008-2009. Final selection in
the Islamic development bank award as a post doctoral fellow, USA.
Contact details: heba_salem2004@yahoo.co.uk,
Tel /0100194438
References:
1-Prof. Martin Garnett, Professor
in advanced drug delivery and tissue engineering group, School
of pharmacy , the University of Nottingham, NG7 2RD, UK
e.mail: m.garnett@nottingham.ac.uk
2- . Abdel-Rahman N.Zekri M.Sc., Ph.D Prof.
Molecular Virology and Immunology Head of Molecular Virology and Immunology .
Head of Human Genetic Center Cancer Biology Department, National Cancer
Institute
ncizekri@yahoo.com
2-Prof. Dr. Abdallah Molokhia, Chairman of European Egyptian
Pharmaceutical
Company, Alexandria, Egypt.
عنوان رسالة الماجستير
formulation of multi components DNA delivery system to incorporate a targeting moiety
ملخص رسالة الماجستير
ABSTRACT
Polyamidoamine cationic polymers with DNA have potential as non-viral gene delivery systems. However, they have poor in vivo distribution and a tendency to aggregate. This can be overcome by the use of homo/copolymer blends to form multicomponent DNA delivery systems (MCDS). Multicomponent DNA delivery systems have been proven to have poor transfection efficiency in vitro (Rackstraw et al 2002). Therefore, the aim of this study was to improve the uptake of the multicomponent DNA delivery systems by incorporating a targeting moiety. Folinic acid, as a novel-targeting moiety, was suggested for this work.
Formulation and screening studies for the best ratio/s of multicomponent DNA delivery systems were investigated. This was carried out using DNA with different blends of polyamidoamine homo/copolymer (MBA-DMEDA and PEGylated MBA-DMEDA, which are referred to by their batch numbers NG52 and NG54 respectively). Homo/copolymers at (2:1) and (3:1) ratios proved to have the best collective physicochemical characteristics among all of the investigated series. The investigation was carried out using ethidium-bromide (Et-Br) displacement assay, gel electrophoresis, photon correlation spectroscopy (PCS) and transmission electron microscopy (TEM).
Folinic acid-PEG-PAA-PEG-folinic and folic acid-PEG-PAA-PEG-folic acid conjugates were synthesised using the water-soluble carbodiimide coupling agent (1-ethyl-3-(3-dimethylaminopropyl)-carbodiimide). The final molar substitution ratios (MSR) were 2:1 of folinic acid to polymer and 1.9:1 of folic acid to polymer. The physicochemical characteristics of both folinic acid and folic acid modified complexes with DNA were then investigated. The results showed no significant differences between folinic acid modified particles and the non-modified ones. However, there was a significant difference between folic acid modified particles and the non-modified ones.
Studying of the binding and the uptake of folinic and folic acid-BSA conjugates on a 791T osteosarcoma cell line were investigated. The binding of this targeting moiety could be inhibited by the presence of free folinic acid and its conjugate but not with free folic acid, which showed the specificity to this ligand. Folinic-BSA conjugates were also endocytosed by cells through non-clathrin mediated pathway. These results showed the ability of folinic acid to work as a targeting moiety with potential in vivo advantages.
In the last chapter three main topics were investigated. The first topic was to compare the transfection of NG52/54–folinic acid modified nanoparticles with both folic acid modified and the non-modified nanoparticles. The results showed the ability of folinic acid to improve the transfection of the polymer blend 40–200 times relative to a non-modified system. At the same time folinic acid modified complexes have a transfection activity similar to that of folic acid complexes. The second topic was qualitative and quantitative investigation of DNA complex trafficking using YO YO dye. The results showed the ability of folinic acid complexes to be taken by the cells faster and to a higher level than that of folic acid and the homopolymer on its own. The third topic was the in vivo assessment of the complexes. This was carried out by comparing the pharmacokinetics, biodistribution and the transfection of folinic acid, folic acid and the non-modified nano-particles, which showed no difference in the examined parameters of the systems studied. This might be attributed to the instability of the complexes in serum.
The initial aims of the project have therefore been accomplished. A ligand has been incorporated resulting in enhanced uptake and transfection activity. Folinic acid was validated as a suitable targeting moiety in vitro showing appropriate specificity and uptake.
عنوان رسالة الدكتوراه
formulation of multi components DNA delivery system to incorporate a targeting moiety
ملخص رسالة الدكتوراه
ABSTRACT
Polyamidoamine cationic polymers with DNA have potential as non-viral gene delivery systems. However, they have poor in vivo distribution and a tendency to aggregate. This can be overcome by the use of homo/copolymer blends to form multicomponent DNA delivery systems (MCDS). Multicomponent DNA delivery systems have been proven to have poor transfection efficiency in vitro (Rackstraw et al 2002). Therefore, the aim of this study was to improve the uptake of the multicomponent DNA delivery systems by incorporating a targeting moiety. Folinic acid, as a novel-targeting moiety, was suggested for this work.
Formulation and screening studies for the best ratio/s of multicomponent DNA delivery systems were investigated. This was carried out using DNA with different blends of polyamidoamine homo/copolymer (MBA-DMEDA and PEGylated MBA-DMEDA, which are referred to by their batch numbers NG52 and NG54 respectively). Homo/copolymers at (2:1) and (3:1) ratios proved to have the best collective physicochemical characteristics among all of the investigated series. The investigation was carried out using ethidium-bromide (Et-Br) displacement assay, gel electrophoresis, photon correlation spectroscopy (PCS) and transmission electron microscopy (TEM).
Folinic acid-PEG-PAA-PEG-folinic and folic acid-PEG-PAA-PEG-folic acid conjugates were synthesised using the water-soluble carbodiimide coupling agent (1-ethyl-3-(3-dimethylaminopropyl)-carbodiimide). The final molar substitution ratios (MSR) were 2:1 of folinic acid to polymer and 1.9:1 of folic acid to polymer. The physicochemical characteristics of both folinic acid and folic acid modified complexes with DNA were then investigated. The results showed no significant differences between folinic acid modified particles and the non-modified ones. However, there was a significant difference between folic acid modified particles and the non-modified ones.
Studying of the binding and the uptake of folinic and folic acid-BSA conjugates on a 791T osteosarcoma cell line were investigated. The binding of this targeting moiety could be inhibited by the presence of free folinic acid and its conjugate but not with free folic acid, which showed the specificity to this ligand. Folinic-BSA conjugates were also endocytosed by cells through non-clathrin mediated pathway. These results showed the ability of folinic acid to work as a targeting moiety with potential in vivo advantages.
In the last chapter three main topics were investigated. The first topic was to compare the transfection of NG52/54–folinic acid modified nanoparticles with both folic acid modified and the non-modified nanoparticles. The results showed the ability of folinic acid to improve the transfection of the polymer blend 40–200 times relative to a non-modified system. At the same time folinic acid modified complexes have a transfection activity similar to that of folic acid complexes. The second topic was qualitative and quantitative investigation of DNA complex trafficking using YO YO dye. The results showed the ability of folinic acid complexes to be taken by the cells faster and to a higher level than that of folic acid and the homopolymer on its own. The third topic was the in vivo assessment of the complexes. This was carried out by comparing the pharmacokinetics, biodistribution and the transfection of folinic acid, folic acid and the non-modified nano-particles, which showed no difference in the examined parameters of the systems studied. This might be attributed to the instability of the complexes in serum.
The initial aims of the project have therefore been accomplished. A ligand has been incorporated resulting in enhanced uptake and transfection activity. Folinic acid was validated as a suitable targeting moiety in vitro showing appropriate specificity and uptake.