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The Microbiome of the Egyptian Red Sea Proper and Gulf of Aqaba

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The Microbiome of the Egyptian Red Sea Proper and Gulf of Aqaba American University in Cairo AUC Knowledge Fountain Theses and Dissertations 2-1-2016 The microbiome of The Egyptian Red Sea proper and Gulf of Aqaba Ghada Alaa El-Din Mustafa Follow this and additional works at: https://fount.aucegypt.edu/etds Recommended Citation APA Citation Mustafa, G. (2016).The microbiome of The Egyptian Red Sea proper and Gulf of Aqaba [Master’s thesis, the American University in Cairo]. AUC Knowledge Fountain. https://fount.aucegypt.edu/etds/33 MLA Citation Mustafa, Ghada Alaa El-Din. The microbiome of The Egyptian Red Sea proper and Gulf of Aqaba. 2016. American University in Cairo, Master's thesis. AUC Knowledge Fountain. https://fount.aucegypt.edu/etds/33 This Dissertation is brought to you for free and open access by AUC Knowledge Fountain. It has been accepted for inclusion in Theses and Dissertations by an authorized administrator of AUC Knowledge Fountain. For more information, please contact [email protected]. The American University in Cairo School of Sciences and Engineering THE MICROBIOME OF THE EGYPTIAN RED SEA PROPER AND GULF OF AQABA A Thesis Submitted to The Applied Sciences Graduate Program in partial fulfillment of the requirements for the degree of Doctorate in Applied Sciences (Biotechnology) By Ghada Alaa El-Din Kamal Mustafa Masters of Science- American University in Cairo Bachelor of Science - Ain Shams University Under the supervision of Professor Rania Siam Chair of the Biology Department Fall 2015 I The American University in Cairo The Microbiome of the Egyptian Red Sea Proper and Gulf of Aqaba A Thesis Submitted by Ghada Alaa El-Din Kamal Mustafa To the Biotechnology Graduate Program, Fall 2015 in partial fulfillment of the requirements for the degree of Doctorate of Applied Sciences in Biotechnology has been approved by Dr. Rania Siam Thesis Committee Chair / Adviser ---------------------------------------- Affiliation ------------------------------------------------------------------------ Dr. Thesis Committee Reader / examiner Affiliation--------------------------------------------------------------------------- Dr. Thesis Committee Reader / examiner Affiliation--------------------------------------------------------------------------- Dr. Thesis Committee Reader / examiner Affiliation--------------------------------------------------------------------------- Dr. Thesis Committee Reader / examiner Affiliation--------------------------------------------------------------------------- Dr. Thesis Committee Reader / examiner Affiliation-------------------------------------------------------------------------- -------------------------- --------------- ----------------- --------------- Program Director Date Dean Date II DEDICATION This Thesis is dedicated to my Family My adored Mother: Mrs. Malaka Abd El-Fatah I dedicate my dissertation work to my mother. Without her teaching me how to fight, how to always be positive and insistent, without her constant love, concerns, support and encouragement I would not be able to sustain all the efforts to reach my goals. My Father: Dr. Alaa El-Din Kamal Hamouda I dedicate this thesis also to my father who has keenly watched my progress in this field of science and give me the opportunity to excel and achieve my master My sisters: Dr. Abeer & Dr. Yasmine I dedicate this thesis to my lovely sweetest ever sisters, Abeer and Yasmine, who supported me a lot and were proud of me all the time, giving me the confidence that I can always achieve my goals. III ACKNOLOWEDGEMENTS The author would like to acknowledge Dr. Rania Siam, the supervisor of this study for her trust, support and efforts; in addition to the sampling efforts. Dr. Amr Abd-Elgawad from Tourism Development Authority, Ministry of Tourism in Egypt. Mr. Amged Ouf for his help in the DNA extraction. Mrs. Alyaa Abdel-Haleem and Mr. Mustafa Adel for their help in the computational data analysis This work was funded by Yossef Jameel-Science and Technology Research Center (YJ-STRC). IV ABSTRACT The Microbiome of the Egyptian Red Sea Proper and Gulf of Aqaba The Red Sea is one of the most unique environments worldwide. It possesses a unique geography, physical, chemical and biological characteristics. It encounters several ecosystems articulating with each other, these include, corals, mangroves, algae, fisheries, invertebrates and microbiota of each one of these along with microbiota of the Red Sea waters and sediments. Studying the collective microbial communities of the Egyptian Red Sea coastal sediments have not been reported before. In regards to the severe pollution impacting the different Red Sea ecosystems, sediments samples have been collected from different impacted sites. The selected sites included 1- four ports for shipping aluminum, ilmenite and phosphate, 2-a site previously reported to have suffered extensive oil spills, 3-a reported tourism impacted site 4- two mangrove sites and 5-two lakes. Bacterial communities for each site have been studied through two different approaches, Culture-Dependent and Culture- Independent approaches. Pyrosequencing of V6-V4 hypervariable regions of 16S rDNA, isolated through the two approaches, has been used to assess the microbial community of each site. Physical parameters, Chemical analysis for 29 elements, selected semi-volatile oil contents, along with Carbon, Hydrogen, Nitrogen and Sulfur (CHNS) contents have been measured for each site. 131,402 and 136,314 significant reads have been generated through the Culture-Dependent and Independent approaches, respectively. Generally, Proteobacteria, Firmicutes, Actinobateria, Fusobacteria, Gemmatimonadetes and Bacteriodetes are the major bacterial groups detected through the two approaches. The Culture-Dependent datasets distinctive analysis revealed three main patterns (1) marine Vibrio spp.-suggesting a "marine Vibrio phenomenon"; (2) potential human pathogens; and (3) oil-degrading bacteria. While the Culture-Independent datasets analysis reported (1) an Egyptian Red Sea Coastal Microbiome, taxa detected in all the sites and (2) Hydrocarbon biodegrading bacteria predominance to the majority of the sites; particularly in two ports. On the other hand, the two lakes, through the two approaches, showed unique bacterial patterns, which generally grouped into anaerobic, halophilic and sulfur metabolizing bacteria. Individually, sites showed unique evolution of their microbial communities based on minor intrinsic and imposed variation per sites. Our results draw V attention to the effects of different sources of pollution on the Red Sea and suggest the need for further analysis to overcome the hazardous effects observed at the impacted sites. VI Contents Introduction: The Environment of the Red Sea and its articulating ecosystems ....... 1 1. INTRODUCTION ................................................................................................................................... 2 2. THE STATUS OF THE RED SEA EGYPTIAN COAST: ................................................................. 4 2.1. Anthropogenic activities affecting Red Sea Egyptian coast water quality: ............................... 4 2.2. Possible pathogenic taxa of the Red Sea: ...................................................................................... 5 2.3. Oil pollution of the Red Sea: .......................................................................................................... 7 3. RED SEA BACTERIAL ECOSYSTEMS/NICHES: ........................................................................... 8 3.1. Red Sea water and sediments’ microbiota: .................................................................................. 8 3.2. Red Sea Cyanobacteria: ................................................................................................................. 9 3.3. Red Sea Sponges: .......................................................................................................................... 11 3.4. Red Sea Mangroves ....................................................................................................................... 12 3.5. Red Sea Corals: ............................................................................................................................. 13 4. REFERENCES ...................................................................................................................................... 14 Chapter 1: Egypt’s Red Sea Coast: Phylogenetic analysis of cultured microbial consortia in industrialized sites ......................................................................................25 ABSTRACT ................................................................................................................................................... 26 1. INTRODUCTION ................................................................................................................................. 27 2. MATERIALS AND METHODS ......................................................................................................... 31 2.1. Site description and Samples’ collection: .................................................................................... 31 2.2. Bacterial culturing and DNA Preparations: ............................................................................... 31 2.3. PCR amplification and 454 Pyrotag sequencing and 16S rDNA analysis: .............................. 32 3. RESULTS .............................................................................................................................................
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