Qatar University is a public university in Qatar, located on the northern outskirts of the capital Doha. As of 2014, there are over 16,000 students. Courses are taught in Arabic or English . The university is the only government university in the country. The university hosts seven colleges – Arts and science, Business and Economics, Education, Engineering, Law, Sharia and Islamic Studies, and a College of Pharmacy – with a total of almost 8000 students at a 13:1 student-teacher ratio.Students entering the university are placed in a “Foundation Program”, which ensures the acquirement of skills such as math, English, and computer technology.Many of its academic departments have received or are currently under evaluation for accreditation from leading organizations. In addition to undergraduate academics, QU has a research infrastructure including research labs, an ocean vessel, technical equipment and a library housing thousands of books, including a collection of rare manuscripts.The university serves on behalf of the government and private industry to conduct regional research, particularly in areas of the environment and energy technologies. Qatar University has a student body of fifty-two nationalities, 65% of which are Qatari nationals. About 35% are children of expats. Women make up approximately 70% of the student population, and are provided their own set of facilities and classrooms. QU has an alumni body of over 30,000 graduates. Wikipedia.
Qatar Foundation For Education and Qatar University | Date: 2015-01-27
The direct current (DC) side fault isolator for high voltage direct current (HVDC) converters (10) includes a first set of double thyristor switches (12) connected across the line-to-line voltage terminals between first and second phases of alternating current (AC) terminals of a HVDC converter (14), and a second set of double thyristor switches (12) connected across the line-to-line voltage between the second phase and a third phase of the AC terminals of the HVDC converter (14). In use, the first and second sets of double thyristor switches (12) separate the HVDC converter (10) from an external power grid (18) during direct current (DC) side faults by turning on these thyristors (12).
Qatar Foundation For Education and Qatar University | Date: 2016-10-24
The method of converting high voltage AC lines into bipolar high voltage DC systems makes use of the three transmission lines (referred to as the positive pole, the negative pole, and the modulating pole) in an existing high voltage AC system as transmission lines in a bipolar high voltage DC system. When current from the power source is up to the thermal current limit of the transmission lines, the transmission lines operate in two-wire mode, where current is delivered in the positive pole and returned in the negative pole, the modulating pole being open. When power source current exceeds the thermal current limit, operation is in three-wire mode, alternating for predetermined periods between parallel configuration of the positive pole and the modulating pole to divide current for delivery to the load, and parallel configuration of the negative pole and the modulating pole, dividing the return current.
University of Brescia and Qatar University | Date: 2017-03-15
The multi-parametric environmental diagnostics and monitoring sensor node (10) provides monitoring and diagnostics of a variety of different ambient environmental factors and is powered by multiple sources of renewable energy. The multi-parametric environmental diagnostics and monitoring sensor node (10) includes a base (38) and a plurality of environmental condition sensors (36a, 36b, 36c, 36d, 36e, 36f) mounted thereon. A controller (47) is also mounted on the base (38), the plurality of environmental condition sensors (36a, 36b, 36c, 36d, 36e, 36f) being in communication therewith. An external photovoltaic cell (18) is mounted to the base and an internal photovoltaic cell (34) is mounted in an opposed orientation on a cover (32). The external photovoltaic cell (18) and the internal photovoltaic cell (34) charge a power storage module (52), which powers the plurality of environmental condition sensors (36a, 36b, 36c, 36d, 36e, 36f) and the controller (47).
Agency: European Commission | Branch: FP7 | Program: CSA-CA | Phase: INCO.2013-1.1 | Award Amount: 2.35M | Year: 2014
INCONET-GCC2s overall goal is to support the institutional bi-regional policy dialogue in Science, Technology and Innovation, to strengthen the bi-regional cooperation between research and innovation actors, especially in the context of the upcoming Horizon 2020 programme and finally to monitor progress in the bi-regional STI cooperation. INCONET-GCC2 builds on the results of previous cooperation activities with the Arab Gulf Countries (INCONET-GCC 1st phase, www.icnonet-gcc.eu) while it focuses on selected societal challenges of mutual interest as identified during the previous collaboration. INCONET-GCC2 explores now to achieve win-win across national, multidisciplinary and cross-sectoral approaches can be spurred in response to these issues while also realising and underpinning new pathbreaking kinds of capacity-building and organising clustering activities around the selected research priorities. Specifically: (1) Implement a series of analyses feeding the policy dialogue and increasing its efficiency, monitoring INCONET-GCC2s own activities, with particular emphasis on their sustainability, and implementing coherent dissemination activities in order to increase its visibility and impact; (2) Built of best practices towards the future in order to promote joint research though clustering activities within the selected societal challenges and organise thematic workshops in Health, Energy, Innovation and Security and ICT, Food towards EU-GCC Joint Call for proposals; (3) Enhance capacity building through the delivery of the facilitation of researcher mobility, summer schools, the support of the NCPs and their expansion in order to cover the selected societal challenges and the organisation of information days and brokerage events in all Arab Gulf countries; (4) Roadmap future research activities and provide recommendations to the EC and the national regulatory and funding authorities; (5)Raise awareness and disseminate information.
Agency: European Commission | Branch: H2020 | Program: RIA | Phase: INT-07-2015 | Award Amount: 2.40M | Year: 2016
The Middle East and North Africa Regional Architecture: mapping geopolitical shifts, regional order and domestic transformations -the MENARA Project- will study the geopolitical order in the making in the South and East Mediterranean Countries and the Middle East amid all deep-reaching social and political changes unfolding since 2010. The project aims at describing the main features of the regional geopolitical order, its origins, and evolution; identifying and mapping the decisive domestic, regional and global actors, dynamics and trends; building future scenarios for 2025 and 2040; and informing EU policies and strategies. It will examine whether, where and when conflict and/or cohesion dynamics prevail, the level and depth of regional fragmentation and the effects of regional and domestic processes on global dynamics and vice versa. This will be achieved by analysing ideational and material factors (national, sub and supra-national identities; religion and politics; global identities; demography; energy; economy; military; environment) and by conducting in-depth research on specific case studies on ongoing dynamics at three different levels (domestic, regional and global). All this research will be based on quantitative and qualitative methods -including fact finding missions on the ground, interviews, focus groups, Delphi surveys - and innovative foresight techniques. Research will be accompanied by pioneering dissemination methods willing to increase the projects impact not only over the specific academic community and policy-making circles but also over broader general public. This will include the translation of research results into accessible deliverables such as audio-visuals, futures notes series, infographics and interactive maps, and a Massive Open Online Course.
Eid H.T.,Qatar University
Geotextiles and Geomembranes | Year: 2011
Torsional ring shear tests were performed on composite specimens that simulate the field alignment of municipal solid waste (MSW) landfill liner and cover system components. Simultaneous shearing was provided to each test specimen without forcing failure to occur through a pre-determined plane. Composite liner specimens consisted of a textured geomembrane (GM) underlain by a needle-punched geosynthetic clay liner (GCL) which in turn underlain by a compacted silty clay. Hydrated specimens were sheared at eleven different normal stress levels. Test results revealed that shear strength of the composite liner system can be controlled by different failure modes depending on the magnitude of normal stress and the comparative values of the GCL interface and internal shear strength. Failure following these modes may result in a bilinear or trilinear peak strength envelope and a corresponding stepped residual strength envelope. Composite cover specimens that comprised textured GM placed on unreinforced smooth GM-backed GCL resting on compacted sand were sheared at five different GCL hydration conditions and a normal stress that is usually imposed on MSW landfill cover geosynthetic components. Test results showed that increasing the GCL hydration moves the shearing plane from the GCL smooth GM backing/sand interface to that of the textured GM/hydrated bentonite. Effects of these interactive shear strength behaviors of composite liner and cover system components on the possibility of developing progressive failure in landfill slopes were discussed. Recommendations for designing landfill geosynthetic-lined slopes were subsequently given. Three-dimensional stability analysis of well-documented case history of failed composite system slope was presented to support the introduced results and recommendations. © 2010 Elsevier Ltd.