Functional Plant Science and Biotechnology - Global Science Books
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Functional Plant Science and Biotechnology - Global Science Books
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<strong>Functional</strong> <strong>Plant</strong> <strong>Science</strong> <strong>and</strong> <strong>Biotechnology</strong><br />
Abbreviation: Func. <strong>Plant</strong> Sci. Biotech. (FPSB)<br />
Print: ISSN 1749-0472<br />
Frequency <strong>and</strong> Peer status: Biannual, Peer reviewed<br />
Scope <strong>and</strong> target readership: <strong>Functional</strong> <strong>Plant</strong> <strong>Science</strong> <strong>and</strong> <strong>Biotechnology</strong> is an International journal open to papers of merit dealing<br />
with both basic <strong>and</strong> applied aspects <strong>and</strong> mechanisms underlying plant biology, particularly molecular <strong>and</strong> cell biology, structural biology,<br />
biochemistry, metabolism (photosynthesis <strong>and</strong> respiration), growth, morphogenesis, ecological <strong>and</strong> environmental physiology,<br />
biotechnology, <strong>and</strong> plant-microorganism interactions. Papers reporting research at all levels of plant organization are invited (i.e.,<br />
molecular, subcellular, cellular, whole plant, canopy, ecosystem <strong>and</strong> global levels). We welcome manuscripts reporting question-based<br />
research using hormonal, physiological, environmental, genetic, biophysical, developmental or molecular approaches to the study of plant<br />
growth regulation, <strong>and</strong> productivity. <strong>Plant</strong> function should thus be analysed by either biochemistry, molecular biology, biophysics, cell or<br />
whole plant physiology, physiological ecology, together with structural, genetic, pathological <strong>and</strong> even meteorological aspects.<br />
To network the different organizational levels of plant biology, <strong>Functional</strong> <strong>Plant</strong> <strong>Science</strong> <strong>and</strong> <strong>Biotechnology</strong> welcomes papers on aspects<br />
of experimental plant biology ranging from molecular <strong>and</strong> cell biology, biochemistry <strong>and</strong> biophysics, to ecophysiology from the<br />
molecular to the community level, including, inter alia:<br />
1) Ageing <strong>and</strong> cell death;<br />
2) Biochemistry <strong>and</strong> metabolism;<br />
3) Ecophysiology;<br />
4) Photobiology;<br />
5) Uptake, transport <strong>and</strong> assimilation.<br />
Editor-in-Chief<br />
Jaime A. Teixeira da Silva, Kagawa University, Japan<br />
Technical Editor<br />
Kasumi Shima, Japan<br />
Statistics Advisor<br />
Marcin Kozak, Warsaw University of Life <strong>Science</strong>s, Pol<strong>and</strong><br />
Editorial Board <strong>and</strong> Advisory Panels (Listed alphabetically)<br />
Emil Alexov, Clemson University, USA<br />
Anne J. Anderson, Utah State University, USA<br />
Christian P. Andersen, US Environmental Protection Agency, USA<br />
Mohammad Anis, Aligarh Muslim University, India<br />
Naser Aziz Anjum, Aligarh Muslim University, India<br />
Ahmet Balkaya, University of Ondokuz Mayis, Turkey<br />
Chh<strong>and</strong>ak Basu, University of Northern Colorado, USA<br />
Saikat Kumar Basu, University of Lethbridge, Canada<br />
Maristela Sanches Bertasso Borges, Centro Universitário de Rio<br />
Preto, Brazil<br />
Dimitris L. Bouranis, Agricultural University of Athens, Greece<br />
Pankaj Kumar Bhowmik, Lethbridge Research Centre, Agriculture<br />
<strong>and</strong> Agri-Food Canada, Canada<br />
Juan Francisco Jiménez Bremont, Institute for Scientific <strong>and</strong><br />
Technological Research of San Luis Potosi, Mexico<br />
Christophe Brunet, Stazione Zoologica Anton Dohrn, Italy<br />
Santa Olga Cacciola, University of Catania, Italy<br />
Eva Casanova, University of Barcelona, Spain<br />
Vittoria Catara, University of Catania, Italy<br />
Humberto Fabio Causin, Universidad de Buenos Aires, Argentina<br />
Emilio Cervantes, Consejo Superior de Investigaciones Científicas<br />
(IRNASA-CSIC), Spain<br />
Jer-Chia Chang, PingTung University of <strong>Science</strong> <strong>and</strong> Technology,<br />
Taiwan<br />
Suriyan Cha-um, National Center for Genetic Engineering <strong>and</strong><br />
<strong>Biotechnology</strong>, Thail<strong>and</strong><br />
Abdolkarim Chehregani, Bu Ali Sina University, Iran<br />
Jin-Gui Chen, University of British Columbia, Canada<br />
Prem S. Chourey, USDA-ARS, USA<br />
Pio Colepicolo, Universidade de São Paulo, Brazil<br />
Tracey Cuin, University of Tasmania, Australia<br />
Anath B<strong>and</strong>hu Das, Regional <strong>Plant</strong> Resource Centre, India<br />
Anjali Dash, Banaras Hindu University, India<br />
James F. Dat, Université de Franche-Comté – INRA, France<br />
Antonio Dell’Aquila, Italy<br />
Samir C. Debnath, Atlantic Cool Climate Crop Research Centre,<br />
Agriculture <strong>and</strong> Agri-Food Canada, Canada<br />
Luis A. del Rio, Estación Experimental del Zaidín, CSIC, Spain<br />
Alberto Dias, Universidade do Minho, Portugal<br />
Judit Dobránszki, University of Debrecen, Hungary<br />
Jaroslav Ďurkovič, Technical University, Slovak Republic<br />
Florent Engelmann, Institut de Recherche pour le Développement,<br />
France<br />
David E. Evans, Oxford Brookes University, UK<br />
Mohd. Faisal, Aligarh Muslim University, India<br />
Esmaeil Fallahi, University of Idaho, USA<br />
Attila Fehér, Biological Research Center of the Hungarian<br />
Academy of <strong>Science</strong>s, Hungary<br />
Patricia Dias Fern<strong>and</strong>es, Federal University of Rio de Janeiro,<br />
Brazil<br />
Manuel Fern<strong>and</strong>es-Ferreira, Universidade do Minho, Portugal<br />
Danilo D. Fern<strong>and</strong>o, State University of New York, USA<br />
Harzallah-Skhiri Fethia, Higher <strong>Biotechnology</strong> Institute of<br />
Monastir, University of Monastir, Tunisia<br />
Jorge Fonseca, The University of Arizona, USA<br />
Chakali Gahdab, National Institute of Agronomy, Algeria<br />
Jeroni Galmés, Universitat de les Iles Balears, Spain<br />
Abed Gera, The Volcani Center, Israel<br />
Jürg Gertsch, Swiss Federal Institute of Technology, Switzerl<strong>and</strong><br />
Ashoke Kumar Ghosh, Bengal School of Technology, India<br />
Jai Gopal, Central Potato Research Institute, India<br />
C. Gopi, K. S. Rangasamy College of Technology, India<br />
Stefano Grego, Università della Tuscia, Italy<br />
Mazuru Gundidza, University of Zimbabwe/University of Fort<br />
Hare, Zimbabwe/South Africa<br />
Wenwu Guo, Huazhong Agricultural University, China
S. Dutta Gupta, Indian Institute of Technology Kharagpur, India<br />
Geoff Gurr, Charles Sturt University, Australia<br />
Armin Hallmann, University of Bielefeld, Germany<br />
Faouzi Haouala, Institut Supérieur Agronomique de Chott Mariem,<br />
Tunisia<br />
Pranab Hazra, Bidhan Ch<strong>and</strong>ra Krishi Viswavidyalaya, India<br />
Xinhua He, University of California, Davis, USA<br />
Kathleen Hefferon, Cornell University, USA<br />
Luke Hendrickson, Australian National University, Australia<br />
Hossein Hokmabadi, Pistacchio Research Institute, Iran<br />
Jarmo Holopainen, University of Kuopio, Finl<strong>and</strong><br />
Hashem Hussein, Cairo University, Egypt<br />
Domingo J. Iglesias, Instituto Valenciano de Investigaciones<br />
Agrarias, Spain<br />
Abdelbagi M. Ismail, International Rice Research Institute,<br />
Philippines<br />
Sladjana Jevremovic, Institute for Biological Research "Siniša<br />
Stanković", Serbia<br />
PR Jeyaramraja, Hamelmalo College of Agriculture, The State of<br />
Eritrea<br />
Liwen Jiang, Chinese University of Hong Kong, China<br />
Shuangxia Jin, Huazhong Agricultural University, China<br />
Puthiyaparambil JoseKutty, SCION, New Zeal<strong>and</strong><br />
Nirmal Joshee, Fort Valley State University, USA<br />
Roya Karamian, Bu Ali Sina University, Iran<br />
Natchimuthu Karmegam, VMKV Engineering College/Vinayaka<br />
Missions University, India<br />
Aisha Saleem Khan, Kinnaird College for Women, Pakistan<br />
Muhammad Azim Khan, NWFP Agricultural University, Pakistan<br />
Ara Kirakosyan, The University of Michigan, USA<br />
Zbigniew J. Koltowski, Research Institute of Pomology <strong>and</strong><br />
Floriculture, Pol<strong>and</strong><br />
Robert W. Korn, Bellarmine University, USA<br />
Igor Kovalchuk, University of Lethbridge, Canada<br />
Marcin Kozak, Warsaw University of Life <strong>Science</strong>s, Pol<strong>and</strong><br />
Jana Krajnakova, University of Udine, Italy<br />
Vladimir V. Kuznetsov, Russian Academy of <strong>Science</strong>s, Russia<br />
Carlos A. Labate, Escola Superior de Agricultura Luiz de Queiroz,<br />
Brazil<br />
Christophe Laloi, ETH Zurich, Switzerl<strong>and</strong><br />
Maurizio Lambardi, Istituto per la Valorizzazione del Legno e<br />
delle Specie Arboree, Italy<br />
Gérard Jean-Paul Ledoigt, Blaise Pascal University, France<br />
Luiz Fern<strong>and</strong>o Carvalho Leite, EMBRAPA, Brazil<br />
Shao-ping Li, University of Macau, China<br />
Xinxian Li, Aohata Corp., Japan<br />
Ji-Hong Liu, Huazhong Agricultural University, China<br />
Albino Maggio, University of Naples Federico II, Italy<br />
Moahammad J. Malakouti, Tarbiat Modares University, Iran<br />
Ezaz A. Mamun, University of Sydney, Australia<br />
Bikash M<strong>and</strong>al, Indian Agricultural Research Institute, India<br />
Giovanni P. Martelli, Universitá degli Studi/Centro di Studio del<br />
CNR sui Virus e le Virosi delle Colture Mediterranee, Italy<br />
Pavol Mártonfi, P. J. Šafárik University, Slovakia<br />
Ákos Máthé, Szent István University, Hungary<br />
Sean Mayes, University of Nottingham, UK<br />
Sisir Mitra, Bidhan Ch<strong>and</strong>ra Krishi Viswavidyalaya, India<br />
Reda Moghaieb, Cairo University, Egypt<br />
Norimoto Murai, Louisiana State University, USA<br />
Adele M. Muscolo, Mediterranea University, Italy<br />
P.K. Nagar, Institute of Himalayan Bioresource Technology, India<br />
Madhugiri Nageswara Rao, University of Florida, IFAS, USA<br />
Sanjib N<strong>and</strong>y, Lethbridge Research Centre, Agriculture <strong>and</strong><br />
Agri-Food Canada, Canada<br />
Paraskev T. Nedialkov, Medical University-Sofia, Bulgaria<br />
Gustavo Nolasco, Universidade do Algarve, Portugal<br />
Takuhito Nozoe, National Agriculture Research Center, Japan<br />
Christopher Ochieng Ojiewo, The World Vegetable Centre,<br />
Tanzania<br />
Mary M. Peet, North Carolina State University, USA<br />
Suprasanna Penna, Bhabha Atomic Research Centre, India<br />
Edouard Pesquet, John Innes Centre, UK<br />
S. Reza Pezeshki, University of Memphis, USA<br />
Gopi K. Podila, The University of Alabama in Huntsville, USA<br />
Valentin Popa, Technical Universitry of Iasi, Romania<br />
Majeti Narashima Vara Prasad, University of Hyderabad, India<br />
Ksenija Radotić, Institute for Multidisciplinary <strong>Science</strong>s, Serbia<br />
Aluri Jacob Solomon Raju, Andhra University, India<br />
Moshe Reuveni, The Volcani Center, Israel<br />
Salehi Jouzani Gholam Reza, Agricultural <strong>Biotechnology</strong><br />
Research Institute of Iran, Iran<br />
Nedeljka Rosic, University of Queensl<strong>and</strong>, Australia<br />
Shyamal K. Roy, Jahangirnagar University, Bangladesh<br />
Youssef G. Rouphael, Lebanese University, Lebanon<br />
Hossein Sabouri, Gorgan University of Agricultural <strong>Science</strong>s &<br />
Natural Resources, Iran<br />
Mohammad Jamal Saharkhiz, Shiraz University, Iran<br />
Ivan Yu. Sakharov, Lomonosov Moscow State University, Russia<br />
Ivan Salamon, Presov University, Slovak Republic<br />
Blanca San Segundo, Centre for Research in Agricultural<br />
Genomics (CRAG), CSIC-IRTA-UAB, Spain<br />
Sanjai Saxena, Thapar University, India<br />
Shigeru Satoh, Kyoto Prefectural University, Japan<br />
Sergey Shabala, University of Tasmania, Australia<br />
Junjie Shan, Beijing Institute of Pharmacology & Toxicology,<br />
China<br />
M. Mehdi Sharifani, Gorgan University of Agricultural <strong>Science</strong>s<br />
& Natural Resources, Iran<br />
Pradeep Sharma, Tohoku University, Japan<br />
Nathan Sharon, Weizmann Institute of <strong>Science</strong>, Israel<br />
Neeta Shrivastava, B. V. Patel Pharmaceutical Education <strong>and</strong><br />
Research Development (PERD) Centre, India<br />
Zamin Shaheed Siddiqui, University of Karachi, Pakistan<br />
Luke Simon, The Queen's University of Belfast, UK<br />
Harminder Pal Singh, Panjab University, India<br />
Rudra P. Singh, Potato Research Centre, Agriculture <strong>and</strong><br />
Agri-Food Canada, Canada<br />
Zora Singh, Curtin University of Technology, Australia<br />
Iryna Smetanska, Institute for Vegetable <strong>and</strong> Ornamental Crops,<br />
Germany<br />
Alan Smith, University of Minnesota, USA<br />
Christine Stone, NSW Department of Primary Industries, Australia<br />
Angelina Subotić, Institute for Biological Research "Siniša<br />
Stanković", Serbia<br />
Sivaramakrishnan Sudhakaran, AIMST University, Malaysia<br />
James T. Tambong, Agric & Agri-Food Canada, Canada<br />
Karen Tanino, University of Saskatchewan, Canada<br />
Judith Thomas, North Carolina State University, USA<br />
Lining Tian, Southern Crop Protection <strong>and</strong> Food Research Centre,<br />
Agriculture <strong>and</strong> Agri-Food Canada, Canada<br />
Kin-Ying To, Academia Sinica, Taiwan<br />
Ilias S. Travlos, Benaki Phytopathological Institute, Greece<br />
Leena Tripathi, International Institute of Tropical Agriculture,<br />
Ug<strong>and</strong>a<br />
Rong Tsao, Agriculture & Agri-Food Canada, Canada<br />
David Twell, Leicester University, UK<br />
Ernő Tyihák, <strong>Plant</strong> Protection Institute, Hungarian Academy of<br />
<strong>Science</strong>s, Hungary<br />
Jaap M. van Tuyl, Wageningen University <strong>and</strong> Research Center,<br />
The Netherl<strong>and</strong>s<br />
Rajeev K. Varshney, International Crops Research Institute for the<br />
Semi-Arid Tropics, India<br />
Boris B. Vartapetian, Timiryazev Institute of <strong>Plant</strong> Physiology,<br />
Russian Academy of <strong>Science</strong>s, Russia<br />
Selvakumar Veluchamy, North Carolina State University, USA<br />
Sher Singh Verma, Chaudhary Charan Singh Agricultural<br />
University, India<br />
Aiming Wang, Agriculture <strong>and</strong> Agri-Food Canada/The University<br />
of Western Ontario, Canada<br />
An<strong>and</strong> K. Yadav, Fort Valley State University, USA<br />
Teferi Yeshitela, OMNIA FERTILIZER Pty., LTD, South Africa<br />
Adnan Younis, University of Agriculture, Pakistan<br />
Hao Yu, National University of Singapore, Singapore<br />
David Zlesak, University of Minnesota, USA
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<strong>Functional</strong> <strong>Plant</strong> <strong>Science</strong> <strong>and</strong> <strong>Biotechnology</strong> ©2011 <strong>Global</strong> <strong>Science</strong> <strong>Books</strong>, Ltd.<br />
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Guest Editor<br />
Dr. Ashraf A. Khalil<br />
Mubarak City for <strong>Science</strong> <strong>and</strong> Technology, Alex<strong>and</strong>ria, Egypt<br />
Cover photos/figures: Top left plate: Micropropagation of Capparis spinosa from mature plant (Musallam et al., pp 17-21).<br />
Top right late: Early dying symptoms observed 60 days post-inoculation on potato ‘Spunta’ plants inoculated with two V.<br />
dahliae isolates (A <strong>and</strong> B), V. albo-atrum (C) <strong>and</strong> V. tricorpus compared with non-inoculated control (NIC) plants (Daami-<br />
Remadi et al., pp 1-8). Bottom right: Agarose gel electrophoresis analysis of PCR products obtained by using cryI (Aa)-<br />
specific primers tested on Bacillus thuringiensis isolates (Azzam et al., pp 52-56). Bottom left structures: Flavones isolated<br />
from Varthemia iphionoides, with specifically selina-4, 11(13)-dien-on-12-oic acid (Al-Dabbas et al., pp 69-72).<br />
Disclaimers: All comments, conclusions, opinions, <strong>and</strong> recommendations are those of the author(s), <strong>and</strong> do not necessarily<br />
reflect the views of the publisher, or the Editor(s). GSB does not specifically endorse any product mentioned in any<br />
manuscript, <strong>and</strong> accepts product descriptions <strong>and</strong> details to be an integral part of the scientific content.<br />
Printed in Japan on acid-free paper.<br />
Published: January, 2011.
The Guest Editor<br />
Dr. Ashraf A. Khalil<br />
Dr. Ashraf A. Khalil holds a position of associate professor at Institute of Genetic Engineering <strong>and</strong> <strong>Biotechnology</strong> (GEBRI),<br />
Mubarak City for <strong>Science</strong> <strong>and</strong> Technology (MuCSAT). In 2000, he obtained his PhD degree from Cairo University in<br />
Microbial <strong>Biotechnology</strong> in cooperation with Lund University, Sweden. Afterwards, he got postdoc trainings at Dept of<br />
<strong>Biotechnology</strong>, Dept of Developmental Biology, Dept of Protein Chemistry <strong>and</strong> Dept of Neurosurgery. All were at Lund<br />
University, Sweden. In 2004, he carried out his 2 nd Master study in Biomedicine at the University of Lund’s Faculty of<br />
Medicine in order to gain a strong foundation in the techniques of clinical proteomics. That was one of the major milestones<br />
in Khalil's research career in which he discovered novel brain cancer biomarkers using the-state-of-the-art technology. In<br />
2007, he came back Egypt <strong>and</strong> built his own team in GEBRI <strong>and</strong> supervised many biotechnological-oriented studies,<br />
including environmental biomarkers, animal modeling, natural products <strong>and</strong> bioactive proteins. Khalil is a fellow of<br />
European Organization for Molecular Biology (EMBO) <strong>and</strong> American Association for Cancer Research (AACR). He is a<br />
member of the editorial board of some peer-reviewed journals such as World Journal of Clinical Oncology. Along his career<br />
he published more than 25 articles in peer-reviewed journals. Khalil has intensive <strong>and</strong> wide h<strong>and</strong>s-on experience on<br />
isolation <strong>and</strong> h<strong>and</strong>ling of microbial pathogens, 2D electrophoresis, western blot, immunoprecipitation, gel documentation,<br />
protein purification protocols. And also has good experience with bioinformatics such as sequence databases & analysis,<br />
graphical visualization of 3D structure, protein structure prediction, protein homology modeling, protein fold recognition,<br />
expression analysis, 2D image analysis. Khalil is most proud of his graduate students, whom continue to bring excellence to<br />
his laboratory <strong>and</strong> the institute. According to Khalil, working with graduate students is the most gratifying part of his job.<br />
“There is no greater experience than working with talented young people <strong>and</strong> being part of their accomplishments.”.
Foreword<br />
Ashraf A. Khalil<br />
Biotechnologist<br />
Mubarak City for <strong>Science</strong> <strong>and</strong> Technology, Alex<strong>and</strong>ria, Egypt<br />
E-mail: Ashraf_khalil@msn.com, egyprot@yahoo.com, bionat01@gmail.com<br />
Dear friends, colleagues, <strong>and</strong> BioNat's participants<br />
I am very glad to write the "foreword" for the proceedings of our successful conference *<strong>Plant</strong> Natural Products: from<br />
Biodiversity to Bioindustry* (BioNat-1) held in Cairo, Egypt December 8-10, 2009.<br />
First, let me tell you something, from an early age, I have been fascinated by the ways in which the different<br />
civilizations could be interacted <strong>and</strong> integrated. I had a belief that the processes of reason <strong>and</strong> the passions of emotion define<br />
the human experience. And that was "1 st " driving sources to manage this conference. I was very interested to meet different<br />
scientists from different countries. So what was the "2 nd " driving source? The thing that driven the whole development of<br />
the bioscience industry is this: quality of life. We want to live forever with a good quality of life. Unfortunately, seriously,<br />
there are some horrible diseases: cancer, cardiovascular diseases, infectious diseases <strong>and</strong> neurological diseases. It gets awful,<br />
30,000 different diseases affect the human being. To date, we do not have all the answers. The pharmaceutical industry has<br />
only targeted over 500 biological targets in the body <strong>and</strong> we have probably developed several thous<strong>and</strong> drugs for just about<br />
2,500 diseases. So, there’s a long way to go.<br />
The biotech community started about 30 years ago in a very small way <strong>and</strong> is still a growing sector. Over 350 million<br />
lives have been saved by the biotechnology industry already; over 800 drugs are on the market from biotechnology<br />
companies; 2000 drugs are in the clinic. But there’s still a long, long way to go until we develop medicines to try <strong>and</strong> tackle<br />
the dreaded 30,000 human disorders. Nevertheless, despite the power <strong>and</strong> promise of modern medicine, large segments of<br />
the world’s population cannot or do not obtain benefits of modern medicine. More than 80 percent of people in developing<br />
countries cannot afford the most basic medical procedures, drugs, <strong>and</strong> vaccines. Among wealthier populations in both<br />
developed <strong>and</strong> developing countries, alternative or traditional medicine is popular although proof of their safety <strong>and</strong><br />
effectiveness is modest.<br />
Alternative medicine is different from what is known as scientific medicine approaches that emerged primarily in<br />
industrialized countries during the past two centuries. Most alternative medicine evolved with indigenous peoples <strong>and</strong><br />
spread through migration. According to the WHO, alternative medicine approaches vary widely between <strong>and</strong> within<br />
countries. In developing countries, alternative medicine is the main source of health care for the majority of people. In<br />
developed countries, people selectively use these approaches: up to 60 percent of French, German, <strong>and</strong> British use<br />
homeopathic or herbal products, whereas only 10 percent of Americans use herbals.<br />
Despite widespread use, slight scientific evidence confirms the safety or effectiveness of most complementary or<br />
alternative approaches. For example, in America, herbals are regulated by the FDA as “dietary supplements,” rather than as<br />
a “food or drug.” Because of this labeling, they are regulated by less strict st<strong>and</strong>ards. Herbals are highly variable in quality<br />
<strong>and</strong> composition <strong>and</strong> may contain unintended contaminants, such as heavy metals.<br />
Fortunately, our event, BioNat-1, presented some answers to the points that I have highlighted. This international event<br />
gave its attendants, especially young scientists, the opportunities for developing a network in the field of natural products<br />
<strong>and</strong> alternative medicine. Up to my knowledge, this is the first time in Euro-Mediterranean area to have such international<br />
meeting focusing on plant natural products. Collaborative research projects parallel to strengthening own scientific
competency will drive Euro-Mediterranean area to the right way, a way of partnership <strong>and</strong> association. On the other h<strong>and</strong>, I<br />
do believe that "young scientists" will help Egypt to get into the world of advanced technology, which is the essence of<br />
advanced nations <strong>and</strong> a necessity national security. Is this a wild dream or a realistic vision? The facts on the ground point to<br />
the latter. Young scientists armed with ambition, holding a solid hope <strong>and</strong> supervised with "well-trained" supervisors is set<br />
to h<strong>and</strong> over a new success story in the advanced sciences.<br />
BioNat's themes were biodiversity, protection, conservation & chemical ecology; biological actions of medicinal plants<br />
<strong>and</strong> their extracts; biosynthesis, molecular, structure elucidation <strong>and</strong> medical aspects; abiotic <strong>and</strong> biotic stresses <strong>and</strong> its<br />
influence on secondary metabolites; plant biotechnology, plant toxins <strong>and</strong> drug discovery; <strong>and</strong> plant natural products as<br />
health promoters <strong>and</strong> food additives. Is it pleasurable to state that our conference attracted 10 invited speakers, 40 oral<br />
presentations, 85 posters <strong>and</strong> more than 250 attendees? The answer, for sure, YES IT IS.<br />
We, BioNat-1 team, extend our gratitude to "you", whatsoever, sponsor, speaker, poster presenter or attendee. Special<br />
thanks are to Dr. Jaime A. Teixeira da Silva (<strong>Global</strong> <strong>Science</strong> <strong>Books</strong> Ltd., UK Editor-in-Chief), <strong>and</strong> Kasumi Shima for their<br />
professional, technical, <strong>and</strong> editorial assistance throughout preparing this proceedings.<br />
Thanks for all BioNat-1 attendees <strong>and</strong> looking forward to seeing you in BioNat-2.<br />
January, 2011
Foreword<br />
Prof. Ahmad R. Bassiouny<br />
Molecular Therapeutics, Faculty of <strong>Science</strong>, Alex<strong>and</strong>ria University, Egypt<br />
Medicinal plants find application in pharmaceutical, cosmetic, agricultural <strong>and</strong> food industry. The use of the medicinal herbs<br />
for curing disease has been documented in history of all civilizations. Man in the pre-historic era was probably not aware<br />
about the health hazards associated with irrational therapy. With the onset of research in medicine, man was completely<br />
dependent on medicinal herbs for prevention <strong>and</strong> treatment of diseases. With introduction of scientific procedures the<br />
researchers, were able to underst<strong>and</strong> about toxic principles present in the green flora.<br />
The efficacy of some herbal products is beyond doubt, the most recent examples being Silybum marianum (silymarin),<br />
Artemisia annua (artemesinin) <strong>and</strong> Taxus baccata (taxol).<br />
Diabetes mellitus is an area where a lot of research is going on. Ajuga reptens (the active principle is said to potentiate<br />
effects of insulin), Galagea officinalis (galagine), Bougainvillea spectabilis (pinitol), Momordica charantia (chirantin),<br />
Gymnema sylvestre (gymnemic acid) are some medicinal herbs that have shown effectiveness in non-insulin dependent<br />
diabetes.<br />
In Egypt The Medicinal <strong>Plant</strong>s Conservation Project (MPCP) is a national project that aims at examining <strong>and</strong><br />
eliminating the root causes to the loss in biodiversity <strong>and</strong> addressing the threats to the conservation <strong>and</strong> sustainable use of<br />
medicinal plants in Egypt through a number of interventions, while at the same time empowering the Bedouin community to<br />
use <strong>and</strong> manage its resources in a sustainable manner.<br />
Saint Katherine in Egypt is one of world's most amazing areas, not only for its natural l<strong>and</strong>scape, but also for its<br />
medicinal plant diversity that is attracting national <strong>and</strong> global interest. With its high mountains <strong>and</strong> deep valleys in the<br />
southern Sinai Peninsula <strong>and</strong> its relatively unexplored desert ecosystem of flora <strong>and</strong> fauna, the St. Katherine Protectorate is<br />
a truly amazing, unique <strong>and</strong> important area.<br />
The global significance of species found in the St. Katherine’s Protectorate is not only related to the uniqueness of flora<br />
<strong>and</strong> habitat, but also due to use value. At least 47% have medicinal, aromatic, cosmetic or culinary uses, in addition to being<br />
used as fodder or fuel.<br />
Most known Egyptian medicinal plants:<br />
1. Hibiscus sabdariffa (Roselle): Diuretic <strong>and</strong> choleretic effects, decreasing the viscosity of the blood, reducing<br />
blood pressure <strong>and</strong> stimulating intestinal peristalsis.<br />
2. Majoranum hortensis (Marjoram): stimulant, carminative, emmenagogue.<br />
3. Ocimum basilicum (Sweet Basil): Cure for nervous headaches <strong>and</strong> insecticidal potent<br />
4. Matricaria recutita (Camomile): treat sore stomach, irritable bowel syndrome, <strong>and</strong> as a gentle sleep aid<br />
5. Lawsonia inermis (Henna): Anti toe fungus, anti high pressure especially in head, preservative for leather <strong>and</strong><br />
cloth.<br />
6. family Lamiaceae (Sage or mint): treat stomach ache <strong>and</strong> chest pains, anti-itch drugs.<br />
7. Tamarindus indica (Tamarind): used in desserts as a jam, blended into juices or sweetened drinks, sorbets, icecreams<br />
<strong>and</strong> all manner of snack. It is also consumed as a natural laxative.<br />
8. Glossostemon bruguieri (Moghat): treatment of gout <strong>and</strong> spasms, <strong>and</strong> as a tonic <strong>and</strong> nutritive agent.<br />
9. Salvadora persica (Arak): contain an antibiotic which suppress growth of bacteria <strong>and</strong> the formation of plaque in<br />
the mouth.<br />
10. Calotropis procera: treatment for elephantiasis <strong>and</strong> leprosy, <strong>and</strong> is efficacious in cases of chronic eczema, also for
diarrhea <strong>and</strong> dysentery.<br />
11. family Lilliaceae (Urgina maritime): heal neurological pains, skin problems, deep wounds <strong>and</strong> eye afflictions.<br />
The objective of the 1 st Euro-Mediterranean Conference on <strong>Plant</strong> Natural Products was beautifully achieved. It was to<br />
promote further collaborations between chemists, biologists <strong>and</strong> human health related disciplines <strong>and</strong> to focus on exp<strong>and</strong>ed<br />
possibilities of polyphenols for their application in human health, nutrition, <strong>and</strong> the food industry. This meeting provided an<br />
opportunity for the members of the “Herb family” to discuss ideas with experts on herbal medicines <strong>and</strong> natural product<br />
chemistry <strong>and</strong> an exciting venue for GA participants to exchange scientific information. During the conference Italian <strong>and</strong><br />
Egyptian pioneers discussed novel approaches to improve the production <strong>and</strong> delivery of plant health-promoting compounds<br />
through encapsulations into nano/micro-carriers. They presented data on application of certain plants products <strong>and</strong> their<br />
importance in treatment of cancer, GI tract disturbances <strong>and</strong> diabetes such as camphor, garlic <strong>and</strong> green tea products. They<br />
also discussed the concepts of medicinal plant metabolites.<br />
January, 2011
SPECIAL ISSUE: CONTENTS<br />
Mejda Daami-Remadi, Hayfa Jabnoun-Khiareddine, Fakher Ayed, Mohamed El Mahjoub (Tunisia) Comparative<br />
Aggressiveness of Verticillium dahliae, V. albo-atrum <strong>and</strong> V. tricorpus on Potato as Measured by their Effects on Wilt Severity,<br />
<strong>Plant</strong> Growth <strong>and</strong> Subsequent Yield Loss<br />
Ashwani Sharma, Ranga Rao Ambati, Dayan<strong>and</strong>a Ch<strong>and</strong>rappa, Sarada Ravi, Ravishankar Gokare Aswathanarayana<br />
(India) Botryococcus braunii, a New Elicitor for Secondary Metabolite Production in Capsicum frutescens<br />
Anu Annamma Mammen, Joyce Sud<strong>and</strong>ara Priya, Cordilea Hannah (India) Genotoxic Effect of Furazolidone, an<br />
Anti-diarrhoeal Drug on the Root Meristem of Allium cepa L.<br />
1<br />
9<br />
14<br />
Proceedings papers<br />
Iyad Musallam, Mahmud Duwayri, Rida A. Shibli (Jordan) Micropropagation of Caper (Capparis spinosa L.) from Wild<br />
<strong>Plant</strong>s<br />
Abdoallah A. Sharaf, Ahmed Bahieldin, Samir A. Ibrahim, Aly Z. Abdelsalam, Ashraf A. Khalil (Egypt) Biochemical <strong>and</strong><br />
Genetic Characterization of 12 Silybum marianum Accessions Collected from Borg El-Arab, an Egyptian Habitat<br />
Nesreen M. El-Said, Ashraf I. Nagib, Zeinab A. Rahman, Sahar F. Deraz (Egypt) Prickly Pear [Opuntia ficus-indica (L.)<br />
Mill] Peels: Chemical Composition, Nutritional Value <strong>and</strong> Protective Effects on Liver <strong>and</strong> Kidney Functions <strong>and</strong> Cholesterol in<br />
Rats<br />
Hashim A. Abdel-Rahman, Abdel-Moty H. M. Hassanein, Nabawy A. I. Elkattan, Eman H. Ismail (Egypt) Evaluation of<br />
Twenty Botanical Extracts <strong>and</strong> Products as Sources of Repellents, Toxicants <strong>and</strong> Protectants for Stored Grains against the<br />
Almond Moth, Cadra cautella<br />
Saadya M. Elbermawy, Nabawy A. I. Elkattan, Khalafalla S. Ahmed, Rabab M. Abdel-Gawad (Egypt) Screening for<br />
Bioactive <strong>Plant</strong> Materials against House Fly, Musca domestica L. (Diptera: Muscidae)<br />
Marwa Azzam, Khaled Soliman, Fatma Talkhan (Egypt), Jaime A. Teixeira da Silva (Japan), Atef Abdel-Razek, Hosni<br />
Aboassy, Aly Abdelsalam (Egypt) Identification of Some Bacillus thuringiensis Isolates by PCR <strong>and</strong> their Potential against the<br />
Cotton Leaf Worm<br />
Tarek A. Elbashiti, Abdelraouf A. Elmanama, Atef A. Masad (Palestine) The Antibacterial <strong>and</strong> Synergistic Effects of Some<br />
Palestinian <strong>Plant</strong> Extracts on Escherichia coli <strong>and</strong> Staphylococcus aureus<br />
Mohamed El Sayed, Doaa A. Ghareeb, Eman M. Sarhan, Ashraf A. Khalil (Egypt) Therapeutic Bio-screening of the<br />
Bioactive Ingredients of Berberis vulgaris<br />
Maher M. Al-Dabbas, Ruba Abu-Taleb, Khalid Al-Ismail (Jordan) Antimicrobial <strong>and</strong> Antiproliferative Activities of Extracts<br />
<strong>and</strong> Compounds Isolated from Varthemia (Varthemia iphionoides Bloiss)<br />
Joy I. Odimegwu, Steve O. Ogbonnia, Olukemi A. Odukoya (Nigeria) Evaluation of Anti-diabetic Synergism of Two African<br />
<strong>Plant</strong>s (Treculia africana <strong>and</strong> Bryophyllum pinnatum) using STZ-diabetic Models<br />
Galila Yacout, Doaa A. Ghareeb, Nihal M. Elguindy, Alshimaa A. Abd Elmoneam (Egypt) Phytochemical Constituents <strong>and</strong><br />
Bioscreening Activities of Alex<strong>and</strong>ria Mediterranean Sea Green <strong>and</strong> Red Algae<br />
Enas N. Danial, Ashraf A. Khalil, Waill A. El Khateeb, Ghada E. A. Awad (Egypt) Assessment of Phenolic Content, Free<br />
Radical-Scavenging Capacity <strong>and</strong> Antimicrobial Activities of 28 Marine Filamentous Fungi<br />
Ruckmani K<strong>and</strong>asamy (India), Saravanan Karumbayaram (USA), Nilani Packianathan, Duraisamy Basuviah,<br />
Dhamodaran Perumalsami Reddy, Elango Kannan (India) Hypertrophic Scar Management with a Flavonoid Fraction of<br />
Cyphom<strong>and</strong>ra betacea<br />
Sameh AbouZid (Egypt) Evaluation of Usefulness of Wild <strong>Plant</strong>s Growing in Beni-Sueif Region, Upper Egypt<br />
Nilani Packianathan, Ruckmani K<strong>and</strong>asamy (India) Skin Care with Herbal Exfoliants<br />
17<br />
22<br />
30<br />
36<br />
45<br />
52<br />
57<br />
63<br />
69<br />
73<br />
79<br />
83<br />
88<br />
91<br />
94
Mejda Daami-Remadi, Hayfa Jabnoun-Khiareddine, Fakher Ayed, Mohamed El Mahjoub (Tunisia) Comparative<br />
Aggressiveness of Verticillium dahliae, V. albo-atrum <strong>and</strong> V. tricorpus on Potato as Measured by their Effects on Wilt Severity,<br />
<strong>Plant</strong> Growth <strong>and</strong> Subsequent Yield Loss (pp 1-8)<br />
ABSTRACT<br />
Original Research Paper: Verticillium wilt is among the most serious diseases of potato in Tunisia. Three Verticillium species<br />
are involved in potato vascular wilt symptoms. The present study evaluated the pathogenic abilities of different Verticillium spp.<br />
isolates on the basis of their effects on wilt severity, plant growth <strong>and</strong> subsequent yield loss. Artificial inoculation of potato cv.<br />
‘Spunta’ plants showed, 60 days post-inoculation (DPI), that all the Verticillium spp. isolates adversely affected the inoculated<br />
plants compared to the uninoculated control. A high degree of pathogenic variability among Verticillium spp. isolates, <strong>and</strong><br />
especially those of V. dahliae was detected, according to their differential ability to cause wilt <strong>and</strong> browning of the vascular<br />
system together with a reduction in plant height, aerial part weight <strong>and</strong> tuber yield. Although, V. dahliae isolates were the most<br />
aggressive on potato plants, some V. albo-atrum <strong>and</strong> V. tricorpus isolates were found to be as aggressive as some V. dahliae<br />
isolates, according to our experiment conditions. All three Verticillium spp. seem to contribute, to variable degrees, to the potato<br />
Verticillium wilt complex in Tunisia. To our knowledge this is the first report of V. albo-atrum <strong>and</strong> V. tricorpus with comparable<br />
aggressiveness as some V. dahliae isolates on potato in Tunisia.<br />
Ashwani Sharma, Ranga Rao Ambati, Dayan<strong>and</strong>a Ch<strong>and</strong>rappa, Sarada Ravi, Ravishankar Gokare Aswathanarayana<br />
(India) Botryococcus braunii, a New Elicitor for Secondary Metabolite Production in Capsicum frutescens (pp 9-13)<br />
ABSTRACT<br />
Original Research Paper: Botryococcus braunii is a green colonial microalga which is mainly used for the production of<br />
hydrocarbons, exopolysaccharides <strong>and</strong> carotenoids. The present study revealed that some of the bioactive principles that are<br />
present in the algal extracts of B. braunii influence growth parameters, pigment <strong>and</strong> secondary metabolites production in<br />
Capsicum frutescens at different levels (1, 2, 4 <strong>and</strong> 8 mg/l). Upon treatment with different B. braunii extracts seed germination,<br />
root length, shoot length <strong>and</strong> leaf length were enhanced in both light <strong>and</strong> dark conditions. A two-fold increase in germination<br />
occurred when 8 mg/l of B. braunii extract was applied, both in the light <strong>and</strong> in the dark. Similarly, a 1-1.5-fold increased in shoot<br />
<strong>and</strong> leaf length was observed with 8 mg/l of B. braunii extract, a 2-3-fold increase in chlorophyll <strong>and</strong> a 2-fold increase in<br />
carotenoid content after exposure of C. frutescens to 8 mg/l of B. braunii extract. Vanillylamine was enhanced by 1-1.5-fold,<br />
capsaicin by 2-2.5-fold <strong>and</strong> 2-fold compared to the control after 15 days of incubation with the maximum concentration of B.<br />
braunii.<br />
Anu Annamma Mammen, Joyce Sud<strong>and</strong>ara Priya, Cordilea Hannah (India) Genotoxic Effect of Furazolidone, an<br />
Anti-diarrhoeal Drug on the Root Meristem of Allium cepa L. (pp 14-16)<br />
ABSTRACT<br />
Research Note: The present work was conducted to study the genotoxic effect of Furazolidone, an anti-diarrhoeal drug. Onion<br />
root meristems were cultured <strong>and</strong> analyzed after exposure to different time periods to the drug. There was a time-dependent<br />
decrease in mitotic indices <strong>and</strong> an increase in chromosomal anomalies compared to the control. Cell division was completely<br />
arrested after 24 hours of incubation with 0.05% Furazolidone. This study proves the genotoxic effect of Furazolidone <strong>and</strong><br />
emphasizes the prevention of the use of this drug in medicine.<br />
Proceedings papers<br />
Iyad Musallam, Mahmud Duwayri, Rida A. Shibli (Jordan) Micropropagation of Caper (Capparis spinosa L.) from Wild <strong>Plant</strong>s<br />
(pp 17-21)<br />
ABSTRACT<br />
Original Research Paper: Caper bush is grown commercially to obtain unopened flower buds (capers) used as a condiment in<br />
salads <strong>and</strong> sauces <strong>and</strong> in the manufacture of cosmetics <strong>and</strong> medicines. Capers play an important role in the food industry <strong>and</strong><br />
have become a costly <strong>and</strong> a commercially valuable product. The effect of various treatments on the behavior of in vitro<br />
consecutive micropropagation stages of Capparis spinosa was studied <strong>and</strong> a micropropagation protocol was developed. Many<br />
media were tested; Murashige <strong>and</strong> Skoog (MS) at different basal salt strengths, modified MS (½MSD) <strong>and</strong> woody plant medium
(WPM) for the establishment stage. WPM was found to be the best medium for establishment of mother plants. Multiple shoots<br />
were obtained on WPM medium supplemented with 0.8 mgL -1 kinetin in combination with 0.05 mgL -1 indole-3-butyric acid <strong>and</strong><br />
0.1 mgL -1 gibberellic acid. High frequency (80%) of rooting was obtained on ½MS medium supplemented with 5 mgL -1<br />
indole-3-acetic acid. Regenerated plantlets were successfully acclimatized with 63% survival.<br />
Abdoallah A. Sharaf, Ahmed Bahieldin, Samir A. Ibrahim, Aly Z. Abdelsalam, Ashraf A. Khalil (Egypt) Biochemical <strong>and</strong><br />
Genetic Characterization of 12 Silybum marianum Accessions Collected from Borg El-Arab, an Egyptian Habitat (pp 22-29)<br />
ABSTRACT<br />
Original Research Paper: Silybum marianum, known as milk thistle (MT), a plant that grows throughout the Mediterranean,<br />
southern Europe <strong>and</strong> parts of the US, has been used for some 2000 years as both food <strong>and</strong> medicine. The aims of this study<br />
were to determine the morphological, biochemical (protein profile <strong>and</strong> isozyme) <strong>and</strong> molecular (RAPD- <strong>and</strong> ISSR-PCR)<br />
characteristics of MT <strong>and</strong> to identify <strong>and</strong> quantify its active ingredients. Twelve accessions of MT collected from Borg El-Arab,<br />
an Egyptian habitat located at the north/west coast, were tested. SDS-PAGE electrophoresis indicated that two accessions<br />
cultivated in location 3 had specific b<strong>and</strong>s. Data analysis of isozyme b<strong>and</strong>ing patterns showed different migration rates for four<br />
isozymes (α- <strong>and</strong> β-esterase, peroxidase <strong>and</strong> acid phosphatase). These isozymes, belonging to different Silybum accessions<br />
found in the locations, may represent a degree of genetic variation. RAPD-PCR fingerprinting resulted in 83 amplicons (DNA<br />
b<strong>and</strong>s), 33 of which were polymorphic. Furthermore, 10 accessions proved to have specific molecular markers. ISSR-PCR<br />
fingerprinting resulted in 40 amplicons, 16 of which were polymorphic. Six accessions-specific markers were found for MT<br />
accessions. The estimation of genetic distance based on SDS-PAGE, isozymes, RAPD-PCR <strong>and</strong> ISSR-PCR ranged from 85 to<br />
95%.<br />
Nesreen M. El-Said, Ashraf I. Nagib, Zeinab A. Rahman, Sahar F. Deraz (Egypt) Prickly Pear [Opuntia ficus-indica (L.) Mill]<br />
Peels: Chemical Composition, Nutritional Value <strong>and</strong> Protective Effects on Liver <strong>and</strong> Kidney Functions <strong>and</strong> Cholesterol in Rats<br />
(pp 30-35)<br />
ABSTRACT<br />
Original Research Paper: Extract of prickly pear peels (PPPs) were evaluated for its chemical <strong>and</strong> nutritional composition <strong>and</strong><br />
toxicity on liver <strong>and</strong> kidney function, as well as low-density-lipoprotein (LDL)-cholesterol level on Sprague-Dawley rats. The<br />
proximate composition based on the dried weight (DW) of PPPs were: 18.50% moisture; 7% ether extract; 4.5% protein; 8%<br />
total ash; 4.9% crude fiber; 81.5% total solid, followed by both 12.8 <strong>and</strong> 288.7 mg/100 g carotenoids <strong>and</strong> ascorbic acid,<br />
respectively. Mineral analysis showed a high amount of Mg, Ca <strong>and</strong> Na: 987.2, 951.5 <strong>and</strong> 925.0 mg/100 g, respectively,<br />
followed by K (320.0 mg/100 g). Fe, Mn, Zn <strong>and</strong> Cu contents were lower 129.0, 90.8, 90.0 <strong>and</strong> 47.8, respectively. Sucrose <strong>and</strong><br />
galacturonic acid were the main sugars. Linolenic acid (29%) was the main fatty acid followed by both palmitic (23.7%) <strong>and</strong><br />
oleic acids (19.7%). The polyunsaturated fatty acids, linolenic acid (18:2 <strong>and</strong> 18:3) <strong>and</strong> oleic acid were also detected in higher<br />
amounts than saturated fatty acids (2: 1). In addition, kidney functions (blood urea <strong>and</strong> serum creatinine) of the treated group as<br />
well as the activity of liver enzymes viz aspartate tansaminase (AST) <strong>and</strong> alanine transaminase (ALT) were not significantly<br />
altered. However, the LDL-cholesterol level in the treated group was significantly decreased compared to the control. In<br />
conclusion, PPPs have no toxic effect on liver <strong>and</strong> kidney of rats <strong>and</strong> have significant nutritional value. Information provided by<br />
our work is valuable for further investigation on PPPs <strong>and</strong> its utilization as a raw material of functional foods industry.<br />
Hashim A. Abdel-Rahman, Abdel-Moty H. M. Hassanein, Nabawy A. I. Elkattan, Eman H. Ismail (Egypt) Evaluation of<br />
Twenty Botanical Extracts <strong>and</strong> Products as Sources of Repellents, Toxicants <strong>and</strong> Protectants for Stored Grains against the<br />
Almond Moth, Cadra cautella (pp 36-44)<br />
ABSTRACT<br />
Original Research Paper: Management of stored product pests using substances of natural origin is nowadays the subject of<br />
much research. The effectiveness of 20 botanical extracts <strong>and</strong> products was evaluated for protecting stored corn meal against<br />
Cadra cautella Walker (Lepidoptera, Pyralidae) infestation. Toxicity of the botanical materials was evaluated through screening<br />
of the tested botanicals on adults’ oviposition preference <strong>and</strong> the mortality of eggs <strong>and</strong> larvae. Besides, the repellency effect of<br />
the tested plant materials was evaluated against C. cautella larvae (20-days old). Repellency tests were carried out through<br />
food <strong>and</strong> area preference tests. Results showed that cedar wood oil, clove buds powder <strong>and</strong> orange oil were the most<br />
promising materials in protecting stored corn meal against C. cautella infestation.
Saadya M. Elbermawy, Nabawy A. I. Elkattan, Khalafalla S. Ahmed, Rabab M. Abdel-Gawad (Egypt) Screening for<br />
Bioactive <strong>Plant</strong> Materials against House Fly, Musca domestica L. (Diptera: Muscidae) (pp 45-51)<br />
ABSTRACT<br />
Original Research Paper: Ground parts of various plants viz Cupressus sempervirens, Cupressus macrocarpa, Euphorbia<br />
pereskiifolia, Pelargonium zonale, Plumeria rubra (leaves), Lantana camara (leaves <strong>and</strong> flowers); Cyperus rotundus (whole<br />
plant); Acacia nilotica (seeds); Simmondsia chinensis, Eucalyptus globulus, Amygdalus communis, Citrus maxima, C.<br />
sempervirens (essential oils, EOs) were evaluated for their repellent potential, antifeedant activity <strong>and</strong> larvicidal activity towards<br />
Musca domestica larvae. In filter paper repellency tests, A. communis EO produced a repellent activity of class II, P. rubra <strong>and</strong><br />
C. rotundus powders showed no repellent activity (class 0), <strong>and</strong> the remaining plant materials produced repellent activity of<br />
class I. In food preference tests, antifeedant activity, P. zonale <strong>and</strong> E. globulus were the most effective repellents while C.<br />
macrocarpa powder came in second followed by C. rotundus <strong>and</strong> A. nilotica. During preliminary screening, the tested plants<br />
showed high larvicidal effects. The most outst<strong>and</strong>ing possible plant c<strong>and</strong>idates for controlling M. domestica were L. camara, P.<br />
zonale, A. nilotica, C. rotundus, C. macrocarpa <strong>and</strong> C. sempervirens with LC 50s of 1.37, 1.24, 3.78, 3.24, 12.16 <strong>and</strong> 20.59 g/100<br />
g, respectively. The LC 50s of A. communis <strong>and</strong> S. chinensis were 1.274 <strong>and</strong> 1.67 mL/100 g, respectively.<br />
Marwa Azzam, Khaled Soliman, Fatma Talkhan (Egypt), Jaime A. Teixeira da Silva (Japan), Atef Abdel-Razek, Hosni<br />
Aboassy, Aly Abdelsalam (Egypt) Identification of Some Bacillus thuringiensis Isolates by PCR <strong>and</strong> their Potential against the<br />
Cotton Leaf Worm (pp 52-56)<br />
ABSTRACT<br />
Original Research Paper: Bacillus thuringiensis produces unique crystalline cytoplasmic inclusion bodies during the process<br />
of sporulation. Both spores <strong>and</strong> inclusion bodies are released upon lysis of the parent bacterium at the end of sporulation <strong>and</strong> if<br />
ingested these spores <strong>and</strong> crystals act as poisons for certain insects. Therefore, B. thuringiensis is referred to as a stomach<br />
poison. Twenty five isolates of B. thuringiensis were tested for the presence of both crystal protein by a microscopic<br />
examination <strong>and</strong> the cryI (Aa) gene using PCR. The microscopic examination revealed that nine of the 25 isolates had the<br />
bipyramodial shaped crystal protein, a distinguishing feature of B. thuringiensis, <strong>and</strong> which is active against insects of the order<br />
Lepidoptera. Detection of the cryI (Aa) gene with PCR, using specific primers CJI-1 <strong>and</strong> CJI-2, revealed that all nine isolates<br />
which have crystal protein, also had the cryI (Aa) gene. Screening of these isolates with the cotton leaf worm (Spodoptera<br />
littoralis, order Lepidoptera) showed that M 5, ATCF <strong>and</strong> M 8 isolates were the most toxic.<br />
Tarek A. Elbashiti, Abdelraouf A. Elmanama, Atef A. Masad (Palestine) The Antibacterial <strong>and</strong> Synergistic Effects of Some<br />
Palestinian <strong>Plant</strong> Extracts on Escherichia coli <strong>and</strong> Staphylococcus aureus (pp 57-62)<br />
ABSTRACT<br />
Original Research Paper: The antimicrobial activity <strong>and</strong> synergistic effect of some local plant extracts were evaluated against<br />
Escherichia coli <strong>and</strong> Staphylococcus aureus. Seven crude extracts from five plants obtained through four different extraction<br />
methods were screened <strong>and</strong> tested against E. coli <strong>and</strong> S. aureus. Extracts from Cakile maritima (roots <strong>and</strong> shoots), Cakile<br />
maritima (seeds), Mesembryanthemum crystallinum (whole plant), Atriplex halimus (leaves), Withania somnifera (leaves),<br />
Marrubium vulgare (stem <strong>and</strong> leaves) were tested. There was no antibacterial activity in any plant extracts against E. coli except<br />
for C. maritima (seeds) when extracted by ethanol with an inhibition zone = 13 mm. However, antibacterial potentials were<br />
observed against S. aureus when treated with extracts of W. somnifera (leaves) with an inhibition zone = 25 mm, M. vulgare<br />
(stems) with an inhibition zone = 15 mm <strong>and</strong> M. vulgare (leaves) with an inhibition zone = 13 mm, all of which were extracted by<br />
ethanol. The synergistic effect of plant extracts <strong>and</strong> antibiotics showed promising results against antibiotic-resistant bacteria.<br />
The results obtained with E. coli were particularly interesting since it was inhibited by antibiotics combined with C. maritima<br />
(roots, shoots <strong>and</strong> seeds), M. crystallinum (whole plant), M. vulgare (stem <strong>and</strong> leaves) extracts at least in one extraction method<br />
(ethanol for 8 h). This inhibition was not observed with the individual plant extracts alone but when they were used with the<br />
ineffective antibiotics. Some of the extracts showed a synergistic activity when tested against S. aureus. However, when A.<br />
halimus (leaves) were extracted by water reflux <strong>and</strong> C. maritima (seeds), W. somnifera (leaves) <strong>and</strong> M. vulgare (stem) were<br />
extracted by methanol for 5 days, they showed no synergistic effect. Overall, the highest synergistic effect was observed when<br />
the plant extracts were treated with tetracycline <strong>and</strong> minocycline against both E. coli <strong>and</strong> S. aureus.
Mohamed El Sayed, Doaa A. Ghareeb, Eman M. Sarhan, Ashraf A. Khalil (Egypt) Therapeutic Bio-screening of the<br />
Bioactive Ingredients of Berberis vulgaris (pp 63-68)<br />
ABSTRACT<br />
Original Research Paper: Barberry (Berberis vulgaris L.; family Berberidaceae) is a well known plant with traditional herbal<br />
medical history. The objectives of the present study were to explore the phytochemical constituents of barberry <strong>and</strong> to bioscreen<br />
its crude extracted bioactive ingredients. The effect of barberry’s ingredients on lipid peroxidation in chicken liver <strong>and</strong> human<br />
semen acetylcholinesterase (AChE) <strong>and</strong> α-gulcosidase activities were spectrophotometrically determined. Our results showed<br />
that barberry contains a 71% total phenolic content, including alkaloids (2.6%), flavonoids (4.9%) <strong>and</strong> saponin (0.3%). Barberry<br />
extract showed potent antioxidative capacity through a decrease in thiobarbituric acid reactive species (TBARS) in liver<br />
homogenate, human seminal plasma <strong>and</strong> spermatozoa by 62.5, 72.6 <strong>and</strong> 96.5%, respectively. Hepatic α-glucosidase activity<br />
was enhanced by 51.4% while AChE activity was inhibited by 71%. This work demonstrates the potential of the bioactive<br />
ingredients of barberry on suppressing lipid peroxidation, suggesting a promising use in the treatment of hepatic oxidative<br />
stress, Alzheimer <strong>and</strong> idiopathic male factor infertility.<br />
Maher M. Al-Dabbas, Ruba Abu-Taleb, Khalid Al-Ismail (Jordan) Antimicrobial <strong>and</strong> Antiproliferative Activities of Extracts <strong>and</strong><br />
Compounds Isolated from Varthemia (Varthemia iphionoides Bloiss) (pp 69-72)<br />
ABSTRACT<br />
Original Research Paper: The present study was designed to evaluate the antimicrobial activity <strong>and</strong> antiproliferation activity<br />
against human leukemia (HL-60) cells in vitro for hexane, ethyl acetate, ethanol <strong>and</strong> aqueous extracts of aerial parts of<br />
Varthemia iphionoides. The ethyl acetate extract showed a pronounced antibacterial activity against four bacterial <strong>and</strong> three<br />
c<strong>and</strong>idal species. Hexane <strong>and</strong> ethanol extracts showed a pronounced antiproliferation effect on human leukemia (HL-60) cells<br />
(P < 0.05), with a 89.0 <strong>and</strong> 62.3 inhibition percentage, respectively at 200 μg/mL. Fractionation of ethyl acetate <strong>and</strong> ethanol<br />
extracts <strong>and</strong> further purification by columns chromatography afforded sesquiterpene, selina-4, 11(13)-dien-3-on-12-oic acid (1)<br />
from ethyl acetate extract <strong>and</strong> three 3-O-methylated flavones; 5,7,4'-trihydroxy-3,6-dimethoxyflavone (2),<br />
5,7,4'-trihydroxy-3,5'-dimethoxyflavone (3) <strong>and</strong> 5,4'-dihydroxy-3,7,5'-trimethoxy-flavone (4) from ethanol extract. Compound (1)<br />
showed a pronounced antibacterial activity against studied microorganisms except Listeria monocytogenes <strong>and</strong> showed almost<br />
no inhibitory effect on the proliferation of HL-60 cells. Compound (4) exhibited the highest antic<strong>and</strong>idal activity <strong>and</strong> great<br />
antiproliferative activity against leukemia (HL-60) cells with inhibition percentage of 66.7 at 200 μg/mL. Compounds 2 <strong>and</strong> 3<br />
inhibited completely the proliferation of human leukemia (HL-60) cells at 200 μg/mL <strong>and</strong> showed low antimicrobial activities.<br />
Joy I. Odimegwu, Steve O. Ogbonnia, Olukemi A. Odukoya (Nigeria) Evaluation of Anti-diabetic Synergism of Two African<br />
<strong>Plant</strong>s (Treculia africana <strong>and</strong> Bryophyllum pinnatum) using STZ-diabetic Models (pp 73-78)<br />
ABSTRACT<br />
Original Research Paper: Diabetics’ mortality is mostly attributed to hyperglycaemia <strong>and</strong> its attendant vascular diseases <strong>and</strong> is<br />
conventionally managed with medicines functioning as hypoglycaemic agents, insulin production-modulators, <strong>and</strong><br />
lipoprotein-lowering agents singly or in combinations. Some of these agents have adverse side effects hence alternatives are<br />
highly sought for the management of disease conditions. Bioactive compounds from plants are sought-after c<strong>and</strong>idates for drug<br />
development since they provide lead structures for new or existing drug targets. Treculia africana <strong>and</strong> Bryophyllum pinnatum<br />
are ethnobotanically used in Africa for the management of diabetes. Effects of aqueous ethanol (80%) extracts of T. africana<br />
leaves <strong>and</strong> B. pinnatum plants singly <strong>and</strong> in (1:1) mixture on plasma glucose level (PGL), total triglycerides (TT), high density<br />
lipoprotein (HDL) cholesterol, low density lipoproteins (LDL) cholesterol, total cholesterol (TC), aspartate aminotransferase<br />
(AST), alanine aminotransferase (ALT) <strong>and</strong> plasma creatinine levels (PCL) in Streptozotocin (STZ)–induced diabetic rats was<br />
checked. A 1:1 T. africana <strong>and</strong> B. pinnatum mixture lowered the postpr<strong>and</strong>ial blood glucose level from 101.4 ± 2.2 mg/dl to 93.5<br />
± 1.1 mg/dl in two hrs. Significant reduction (P ≤ 0.05) in STZ-induced diabetic rats’ blood glucose levels, TT levels, <strong>and</strong> an<br />
increase in HDL were also observed. Our results suggest a rapid synergistic hypoglycaemic effect of a combined therapy of T.<br />
africana <strong>and</strong> B. pinnatum in the management of hyperglycaemia. It provides a very promising lead for a rapid-acting oral<br />
hypoglycaemic drug.<br />
Galila Yacout, Doaa A. Ghareeb, Nihal M. Elguindy, Alshimaa A. Abd Elmoneam (Egypt) Phytochemical Constituents <strong>and</strong><br />
Bioscreening Activities of Alex<strong>and</strong>ria Mediterranean Sea Green <strong>and</strong> Red Algae (pp 79-82)
ABSTRACT<br />
Original Research Paper: Seaweeds, besides having many nutrients, also manifest potentially beneficial properties for the<br />
treatment of various diseases. This study was carried out to investigate the bioactivities of green algae (Ulva lactuca) <strong>and</strong> red<br />
algae (Jania rupin <strong>and</strong> Pterocladia capillacea) that were collected from Abu Kir beach, Alex<strong>and</strong>ria coast. The bioactivity of these<br />
algaes’ methanolic extracts were evaluated, including cell oxidants status, α-glucosidase <strong>and</strong> acetylcholinesterase (AChE)<br />
activities. In addition, the coagulatory effect was assessed by measuring prothrombin time (PT) <strong>and</strong> activated partial<br />
thromboplastin time (APTT). Our results showed that the green algae, <strong>and</strong> the two red algae extracts contained flavonoids (8.4,<br />
17.4 <strong>and</strong> 16.75%), <strong>and</strong> phenolics (total phenolic content = 1.028, 1.23 <strong>and</strong> 1.11%, respectively). All the algal extracts showed a<br />
significant antioxidant capacity, where they decreased the level of TBARS in liver homogenate or in human seminal plasma <strong>and</strong><br />
spermatozoa. Furthermore, J. rupin extract only inhibited hepatic α-glucosidase activity, while the other two algal extracts acted<br />
as enzyme activators. Moreover, these algal extracts showed a potent inhibitory effect toward AChE activity. Finally, they all<br />
showed anticoagulation properties by increasing PT <strong>and</strong> APTT. In conclusion, all three examined algae extracts could be used<br />
for the treatment of some cardiovascular diseases. The methanolic extract of green algae is recommended for the treatment of<br />
idiopathic male infertility <strong>and</strong> Alzheimer’s disease compared to the methanolic extracts of red algae. In addition, the methanolic<br />
extracts of red algae have a potent hepatoprotective action compared to the green algae.<br />
Enas N. Danial, Ashraf A. Khalil, Waill A. El Khateeb, Ghada E. A. Awad (Egypt) Assessment of Phenolic Content, Free<br />
Radical-Scavenging Capacity <strong>and</strong> Antimicrobial Activities of 28 Marine Filamentous Fungi (pp 83-87)<br />
ABSTRACT<br />
Original Research Paper: Phenolic contents, free radical scavenging capacity, linoliec acid peroxidation <strong>and</strong> antimicrobial<br />
activities were examined for a total of 28 fungus species isolated along the Red Sea coast of Sharm El Sheikh, Egypt, to<br />
determine their potential as a source of natural antioxidants. Total phenolic content were evaluated according to the<br />
Folin-Ciocalteu procedure while the free radical scavenging activity was measured by the 2, 2-diphenyl-1-picrylhydrazy (DPPH)<br />
method. Most of fungal extracts exhibited strong antioxidant properties. The linoliec acid peroxidation (I %) of fungal extracts<br />
tested ranged from 44 to 98%. Aspergillus terrus EG15 <strong>and</strong> Aspergillus terrus EG14 exhibited the strongest radical scavenging<br />
activity with DPPH inhibition of 98 <strong>and</strong> 93%, respectively. Total phenolic constituents of extracts tested ranged from 1.99 to<br />
26.69 mg/g wet weight. Extracts were also found to possess antimicrobial activity against Gram +ve <strong>and</strong> Gram -ve bacteria. The<br />
results suggest that fungal extracts of some isolates exhibits a potential for use as natural antioxidant. Various factors such as<br />
genus, species, cultivation conditions, extraction methods, among others, might be responsible for the observed differences.<br />
Ruckmani K<strong>and</strong>asamy (India), Saravanan Karumbayaram (USA), Nilani Packianathan, Duraisamy Basuviah,<br />
Dhamodaran Perumalsami Reddy, Elango Kannan (India) Hypertrophic Scar Management with a Flavonoid Fraction of<br />
Cyphom<strong>and</strong>ra betacea (pp 88-90)<br />
ABSTRACT<br />
Short Communication: Cyphom<strong>and</strong>ra betacea (Solanaceae) grows wild in India. The ethanolic fraction of the fruits of C.<br />
betacea has a rich content of the bioflavonoid quercetin, which has antihistaminic <strong>and</strong> antiproliferative activities. A study was<br />
carried out to evaluate the preventive <strong>and</strong> curative properties of a flavonoid fraction of C. betacea containing 3.47% quercetin<br />
on an animal model of hypertrophic scarring. Four circular excisional wounds were produced on each ear of 10 rabbits. Sample<br />
cream containing the flavonoid fraction of the ripe fruits of C. betacea was applied to one wound immediately <strong>and</strong> then three<br />
times a day thereafter for four weeks as a preventive treatment <strong>and</strong> three times a day for eight weeks on one hypertrophic scar<br />
as a curative treatment. Placebo cream was used on two of the other wounds <strong>and</strong> one wound was left untreated. Hypertrophic<br />
scars developed in all untreated <strong>and</strong> placebo-treated wounds after four weeks <strong>and</strong> 60% of sample-treated wounds healed with<br />
hypertrophic scars. The level of histamine <strong>and</strong> hydroxyproline increased significantly in placebo-treated wounds in the<br />
preventive group <strong>and</strong> their levels in sample-treated wounds decreased significantly. In the curative group all the hypertrophic<br />
scars were flattened after eight weeks’ treatment with sample <strong>and</strong> the histamine level was decreased significantly in<br />
sample-treated scars with a slight decrease in hydroxyproline level compared to placebo-treated scars. Due to its antihistamine<br />
activity, this flavonoid fraction could be used as a preventive or adjuvant curative treatment for hypertrophic scars.<br />
Sameh AbouZid (Egypt) Evaluation of Usefulness of Wild <strong>Plant</strong>s Growing in Beni-Sueif Region, Upper Egypt (pp 91-93)
ABSTRACT<br />
Research Note: Extracts prepared from 20 commonly occurring wild plants growing in Beni-Sueif governorate, Upper Egypt<br />
were tested for the presence of alkaloids, anthraquinones, cardenolides/bufadenolides, saponins, flavonoids <strong>and</strong> tannins. In<br />
vitro antioxidant activity was tested only for plant extracts rich in flavonoids <strong>and</strong>/or tannins, 10 in total: Alhagi maurorum, Bidens<br />
pilosa, Conyza dioscoridis, Dolichos lablab, Kochia indica, Phragmites communis, Polygonum salcifolium, Solanum nigrum,<br />
Tamarix nilotica <strong>and</strong> Zygophyllum coccenium. In vitro antioxidant activity was tested using the 1,1-diphenyl-2-picryl hydrazyl<br />
(DPPH) radical scavenging assay. Extracts of B. pilosa <strong>and</strong> T. nilotica possessed good antioxidant activity having IC 50 values of<br />
16.47 <strong>and</strong> 16.26 µg/mL, respectively.<br />
Nilani Packianathan, Ruckmani K<strong>and</strong>asamy (India) Skin Care with Herbal Exfoliants (pp 94-97)<br />
ABSTRACT<br />
Research Note: Exfoliation is the process of removal of removing the old, dead skin cells that cling to the skin’s outermost<br />
surface. The two types of exfoliation are mechanical <strong>and</strong> chemical. People’s opportunities for seeking dermatological<br />
assistance for a myriad of conditions, including acne, rosacea, striae, photodamage, <strong>and</strong> skin cancers have increased in recent<br />
years. Chronological aging is a process of intrinsic or normal aging of the skin. Chronic exposure to ultraviolet (UV) light leads to<br />
photodamage of the skin, which is the leading cause of extrinsic aging, or alteration of the skin due to environmental exposure.<br />
Management options for photodamaged skin include alpha-hydroxy acids, antioxidants, anti<strong>and</strong>rogens, moisturizers <strong>and</strong><br />
exfoliants. Many treatments are available to reverse the damage, but their efficacy remains to be proven <strong>and</strong> they may also<br />
produce unwanted side effects. Herbal Exfoliant is a cleansing formula <strong>and</strong> treatment mask that detoxifies the skin <strong>and</strong><br />
stimulates its metabolism. It enhances absorption <strong>and</strong> retention of moisturizing agents <strong>and</strong> restores the skin’s own natural<br />
moisture factor. Skin exfoliation improves the quality <strong>and</strong> tone of skin by assisting in the removal of dead skin cells from the<br />
surface. Herbal Exfoliant produces soft, supple, re-energized skin <strong>and</strong> prevents premature skin aging.