Scientific Program

Conference Series Ltd invites all the participants across the globe to attend Annual Conference on Green Catalysis and Sustainable Energy Dubai, UAE.

Day 1 :

Keynote Forum

Anita Nouri

Green Energy Solutions & Sustainability LLC, UAE

Keynote: Regional waste management strategies–opportunity for sustainable development LFG power generation

Time : 10:00-10:50

Conference Series Green Catalysis 2018 International Conference Keynote Speaker Anita Nouri photo
Biography:

Anita Nouri is a Founding Partner and CEO of Green Energy Solutions & Sustainability LLC a Dubai based Waste Management Company that was established in 2011 to support the development of sustainable waste management and landfill gas projects in the region.  The flagship project, Al Qusais landfill is under the jurisdiction of Dubai Municipality, and is currently the only landfill in the Middle East to produce power from landfill gas.  “As entrepreneurs we are proud of this project, our goal is not to create more landfills but to optimize the existing ones and create a source of power.  Al Qusais Landfill project is registered as a CDM project with the UNFCCC project #8269.   Green Energy Solutions & Sustainability LLC has a signed ERPA with Norway that is able to monetize the Carbon Credits.  In January at the World Future Energy Summit, a Contract was signed with Tadweer Center of Waste Management in Abu Dhabi to implement a Landfill Gas to Energy project that will be operational by the end of 2018. “The target is Zero Waste and included in this is our target to utilize the existing landfills to supply a source of power.”  Anita Nouri has been a speaker at many events in the region and has achieved several awards for the work she has done.   GESS is targeting landfills and providing environmental solutions

Abstract:

Break: Networking and Refreshments Break with Group Photo @ Foyer 10:50-11:10

Keynote Forum

Ali Abu Odeh

Khawarizmi International College, UAE

Keynote: Latest trends in nanotechnology

Time : 11:10-12:00

Conference Series Green Catalysis 2018 International Conference Keynote Speaker Ali Abu Odeh photo
Biography:

Ali Abu Odeh working currently as a Lecturer at Khawarizmi International College, United Arab Emirates. Prior to this position, I worked in the college of engineering in United Arab Emirates University and Qatar University. I earned my Ph.D. degree in Nanoelectronic Engineering from University Malaysia Perlis in January 2018. My master degree was in Electrical and Computer Engineering from New York Institute of Technology since 2007. At the Institute of Nano Electronic Engineering (INEE) of University Malaysia Perlis, I gained exposure to research in solar cell and biosensor applications. I published many ISI and Scopus indexed papers with impact factor. I’m an editorial board member of International Journal of Nanotechnology and Application (IJNA). Also, I served as a reviewer, session chair and committee member of many conferences. I received two awards for my researches in University Malaysia Perlis.

Abstract:

The rapid universal energy crisis, environmental pollution, and human impact on the climate accelerate the search for new material to evolve renewable energies which have different characteristics such as environment-friendly, cost-effective and highly efficient. These issues motivate researchers around the globe to develop new solutions for replacing the traditional fossil-based energy resources and studying different materials to enhance their structural and optical properties for using them effectively in solar cells, sensors, and other applications. Nanotechnology acquiring a lot of attention currently and large expectations have been built in the academic community as well as industry and investors to fabricate and evolve new structures at the nanoscale as well as adjusting their parameters such as energy band gap and efficiency to produce novel materials and devices in many applications and different fields. The purpose of this presentation is to cover the most recent advances of nanotechnology in sustainable energy applications. Solar cells are described as the most significant example of the contributions of nanotechnology in the energy sector which is the ultimate solution to one of the great challenges of our lifetime, i.e., the production and use of energy, without compromising our environment.

Keynote Forum

Abdul Ghani Olabi

University of Sharjah, UAE

Keynote: Hydrogen and fuel cell developments

Time : 12:00-12:50

Conference Series Green Catalysis 2018 International Conference Keynote Speaker Abdul Ghani Olabi photo
Biography:

Prof Olabi received his M.Eng and Ph.D. from Dublin City University, since 1984 he worked at different national and international institutes such as; National Research Centre-Italy “CNR”, Research Centre of FIAT-Italy “CRF”, Dublin City University “DCU” and Institute of Engineering and Energy Technologies “IEET” at UWS. Prof Olabi has supervised postgraduate research students (10 M.Phil and 32PhD) to successful completion. Prof Olabi has edited more than 20 proceedings, and has published more than 350 papers in peer-reviewed international journals and international conferences, in addition to more than 25 book chapters. In the last 4 years Prof Olabi has patented 2 innovative projects. Prof Olabi is the founder of the International Conference on Sustainable Energy and Environmental Protection SEEP, www.seepconference.com  and the International Conference on Materials Science and Smart Materials. He is the Subject Editor of the Elsevier Energy Journal, Editor in Chief of the Encyclopedia of Smart Materials (Elsevier), Editor of the Reference Module of Materials Science and Engineering (Elsevier), Editor in Chief of Renewable Energy section of Energies and board member of a few other journals. Prof Olabi has coordinated different National, EU and International Projects. He has produced different reports to the Irish Gov. regarding: Hydrogen and Fuel Cells and Solar Energy

Abstract:

Targets established by the European Union for 2020, have introduced a huge attention for theelectrical energy management, starting from its sustainable production, researching and developing new production technologies based on renewable power sources, to its correct use and storage. In base of different applications, and often in base of the concrete availability of these sources, there are several energy storage systems used today worldwide, each one based on a different electricity transformation principle (mechanical, thermal, electrical or chemical). During the last decades, a lot of technologies have been developed, using new materials and new concepts in order to satisfy the overall and specific applications requirements. This talk concerns with the developments of Proton Exchange Membrance “PEM” Fuel Cell and it application. The talk will include the relation between universities and Enterprise on research developments, with a number of examples relate to Renewable Energy

Break: Lunch Break 12:50-13:50 @ Restaurant
  • Green Chemistry and Catalysis | New Trends in Green Chemistry| Nanotechnology and Green Catalysis | Green Synthesis Designing | Biocatalysis| Green Chemistry and Polymer Technology |Green Chemistry in Pharmaceuticals
Location: Dubai
Speaker

Chair

Abdul Ghani Olabi

University of Sharjah, UAE

Speaker

Co-Chair

Swapnil Dharsekar

Pandit Deendayal Petroleum University, India

Speaker
Biography:

Professor Brajadulal Chattopadhyay is currently working in the Department of Physics, Jadavpur University, India. Prof. Chattopadhyay completed his Master (1987) and PhD (1994) degrees from the University of Calcutta, India and worked at Bose Institute, India and Technical University of Delft, the Netherlands. He has been working in the field of Bio-concrete development by using hot spring anaerobic bacteria to enhance the strength and durability of concrete structures since 2001 and published his work in many internationally reputed journals. He has already supervised 20 PhD students and hold one National and two International patents in his research career.

Abstract:

Production of cement releases huge CO 2 (about 5-7% of total CO 2 emission) in the atmosphere and causes global warming. Fly ash is a coal combustion by-product that leads to many environmental problems like ground water contamination, spills, heavy metal contamination etc. The uses of different chemicals and additive in concrete composites also sometimes cause health problems which are environmentally unacceptable. Microbiologically incorporated cementitious materials to recuperate the activities and toughness of the concrete structures are a new aspect of research work in the current era. In this study we have designed an eco-friendly bio-engineered Geopolymer by incorporating genetically transformed Bacillus subtilis bacterium to an alkali- activator treated 100% Fly ash material. A novel gene responsible for a thermo stable and high pH tolerant silica leaching enzyme (Bioremediase like; M.W. ~ 28KDa) isolated from hot spring bacterium BKH2 has been utilized for production of high performance Geopolymer. The designed geopolymer showed significantly increased compressive, flexural and tensile strengths, enhanced durability and high temperature tolerance (400 o C) compared to cementitious material. Microstructure analysis showed more compactness, reduced porosity and development of new phases inside the geopolymer matrix. The newly developed 100% Fly ash based Geopolymer can be used as cement-alternative for construction purposes which will not only be eco-friendly but also be sustainable at higher temperature. The spore forming ability of the Bacillus subtilis bacterium will be an added advantage as it will remain active within the Geopolymer matrices and provide the desired effect for quite long time.

Speaker
Biography:

Dr. Amer Al-Hinai is the director of the Sustainable Energy Research Center (SERC) and Associate Professor at Sultan Qaboos University. He started his reseaAmer Al-Hinai is the director of the Sustainable Energy Research Center (SERC) anDr. d Associate Professor at Sultan Qaboos University. He started his research career as a research assistant at the Advanced Power & Energy Research Center at West Virginia University, Morgantown, the USA during his postgraduate studies. His main research topic was related to the control and operation of distributed generation. In addition, he was part of a research team for several projects funded by different US institutions such as Department of Energy, Department of Defense, and National Energy Technology Laboratory. Dr. Amer has carried out more than 33 industry- funded research projects, with total funds exceeded 3 million USD, related to energy savings, power system analysis, power system quality and transient stability of power systems. His research funding agencies include but not limited to Petroleum Development Oman, Occidental Oman, Petrofac, Authority for Electricity Regulation Oman (AER), Muscat Electricity Distribution Company, Oman Electricity Transmission Companyrch career as a research assistant at the Advanced Power & Energy Research Center at West Virginia University, Morgantown, the USA during his postgraduate studies. His main research topic was related to the control and operation of distributed generation. In addition, he was part of a research team for several projects funded by different US institutions such as Department of Energy, Department of Defense, and National Energy Technology Laboratory. Dr. Amer has carried out more than 33 industry- funded research projects, with total funds exceeded 3 million USD, related to energy savings, power system analysis, power system quality and transient stability of power systems. His research funding agencies include but not limited to Petroleum Development Oman, Occidental Oman, Petrofac, Authority for Electricity Regulation Oman (AER), Muscat Electricity Distribution Company, Oman Electricity Transmission Company

Abstract:

Penetration of renewables in global electricity generation is expected to rise to 30% by 2022, mainly due to growth in wind and solar generation capacity. Power generated from these renewable resources is replacing power from conventional powerplants due to their priority dispatch status and low marginal cost. Integration of renewables in the power system introduces new challenges that arise from variability of generation, reactive power scarcity, change of power injection pattern, fault behavior and asynchronous nature of renewables. This research focuses on the intermittency of the renewable resources. The current practice to utilize the available renewable energy resources for power generation is just as a means to reduce fossil-fuel consumption. This is mainly related to the inherent variability and non-dispatchability of renewable energy resources. Such a practice poses a threat to the power system reliability and requires utilities to maintain power-balancing reserves to match the variable supply from renewable energy resources and demand power levels. Maintaining these reserves for renewable generation imposes additional cost for the utility and jeopardize the economic value of renewable energy projects. Accordingly, enhancing the integration of renewable power generation from wind and solar into the traditional power network requires the mitigation of the vulnerabilities posed to the grid as a result of the intermittent nature of these resources. An Energy Management System (EMS) determines suitable operating points based on the available resources and limitations. EMS may be employed at different levels of the power systems, from the generation level down to the consumer loads. While the dispatch of conventional power generation depends on EMS, such a tool has not been yet developed for renewable energy generation. An EMS for renewable generation should consist of 4 key units, i.e. weather forecaster, power aggregator, scheduler and real time controller. Further elements may also be added to an EMS for renewable generation depending on the applications and available equipment. Employing an EMS in a hybrid wind-solar powerplant with Battery Energy Storage System (BESS) can enable provision of dispatchable power from renewable generation by using the synergy of the wind and solar generation as well as the charge and discharge capability of BESS. EMS, collectively, utilizes forecasting models for wind speed and solar irradiance in addition to optimization techniques to determine suitable power set-points for BESS, wind and solar farms. The main objective of EMS is to make full use of the complementary nature of the wind and solar generation whilst using minimal energy storage capacity to ensure power fluctuation mitigation and high-power supply reliability over a given time interval (settlement period)). As implied, two roles are defined for BESS, in such a configuration, smoothing the power output of the renewable powerplant and alleviating the power curtailment. 

Shan Salahudeen

Mohammed Al Naboodah Group, UAE

Title: Green growth and sustainable development through smart cities

Time : 14:50-15:20

Speaker
Biography:

FlexJET will build a demonstration plant at pre-commercial scale to deliver high quality SAF, this project will provide clear technical and economic validation. The flexJET process is highly scalable and less capital-intensive than current technologies and can be integrated into the existing aviation infrastructure and supply chain. Furthermore, the flexJET process offers a solution that supports decarbonisation of the aviation transport sector, contributing to the Renewable Energy Directive Targets in Europe and the fulfilment of the Carbon Offsetting and Reduction Scheme for International Aviation goals. FlexJET’s innovative process combines SABR technology from Green Fuels Research which refines biodiesel from organic waste fats with the TCR® technology. This TCR technology produces biocrude oil from organic solid waste which is subsequently upgraded into aviation fuel by hydro processing. In terms of process, green hydrogen is separated from synthesis gas using a decentralised technology from Hygear. The non-food competing waste vegetable oils (cooking oils) are transformed into SAF in line with existing standards (ASTM D7566, Annex 2). Hydrogen from residual biomass conversion and renewable process energy is then used to enable a significant reduction in the remaining CO2 footprint of regular SAF. Following this, the SAF output will be increased by producing SAF through co-refining of organic waste fats with biocrude oil from food and market waste: the resulting novel SAF will be targeted for the ASTM approvals.  

Abstract:

Smart city is a concept that differs from one country to the other depending on various factors like willingness to reform, resources, level of development and aspirations of the people. The primary aim behind a smart city is the holistic growth of an urban ecosystem involving economic, physical, social and institutional development. The overall development towards achieving the goal of being a smart city is a long term goal, which can be approached in an incremental manner, adding layers of “smartness” each time. 

Break: Networking and Refreshments Break @ Foyer 15:20-15:40
Speaker
Biography:

Krishna Chattopadhyay has completed her PhD from the Department of Physiology, (2002) and Postdoctoral studies from the Department of Chemical Technology, University of Calcutta, India. Presently, she is working in the Chemistry Department of Jadavpur University as a Women Scientist, Department of Science and Technology, Government of India and also associated with School of Community Science and Technology, IIEST, Shibpur, India as Guest Faculty. She has published several papers in reputed national and international journals and delivered talks in many international conferences. Her field of interest is nicotine toxicity, diabetes and natural antioxidants

Abstract:

Nicotine, the addictive component of tobacco severely affects our health by aggravating damages both at cellular and genetic levels. The effect is more prominent in female population because women are more susceptible to nicotine-induced toxicity due to their low innate immunity. Curcumin, a nontoxic bioactive agent of turmeric significantly reduces nicotine-induced toxicity both at cellular and genetic levels. The clinical implication of native curcumin is hindered in the target cells due to its low aqueous solubility, poor bioavailability and poor pharmacokinetics. The problem was tried to overcome by preparing nanocurcumin (Cur-NPs) with a view to improve its aqueous solubility and better therapeutic efficacy against nicotine-induced toxicity. Female albino rats of Wistar strain were daily exposed to effective dose of nicotine (2.5 mg/kg, body weight injected subcutaneously) and supplemented with effective dose of curcumin (80 mg/kg body weight orally) or nanocurcumin (4 mg/kg body weight orally) for 21 days. The preventive efficacies of curcumin and nanocurcumin were evaluated against the changes in liver function enzymes, kidney function parameters, lipid profiles, lipid-peroxidation, anti-oxidant status and tissues damage, etc. The altered hemoglobin content, DNA content, DNA damage in blood cells due to nicotinic stress were significantly ameliorated by supplementation of nanocurcumin. Results revealed that nanocurcumin more effectively ameliorated the nicotine-induced toxicities at much lower concentration both at cellular and genetic levels due to its higher aqueous solubility and more bioavailability. The Cur-NPs can be used as a potential therapeutic agent for better efficacy against nicotine-induced toxicities than native curcumin.

 

Speaker
Biography:

Swapnil Dharaskar has completed his PhD from VNIT, Nagpur, India and Postdoctoral studies from Deparment of Green Chemistry, Lappeenranta University of Technology, Finland. He is the Head of Chemical Engineering, School of Technology, Pandit Deendayal Petroleum University, Gandhinagar. He has published more than 30 papers in reputed journals and has been serving as an Editorial Board Member of repute. He is the Life Member of IIChE, ISTE, SPE, ISRD, IAENG, etc

Abstract:

Nowadays there are serious regulations to eliminate sulfur from fuels because the SOx created through the combustion of fuel containing sulfur compounds which causes air pollution and have hazardous environmental influence. Amongst numerous extractants, Ionic Liquids (ILs) are capable enough to extract sulfur due to their desirable green properties. This work demonstrated that trihexyl(tetradecyl)phosphoniumbis(trifluoromethylsulfonyl)amide (CyphosIL-109) was presented as promising extractant for EDS of Dibenzothiophene (DBT), thiophene, benzothiophene and other alkyl substituted derivatives of sulfur from liquid fuel. The FTIR, NMR, UV, Raman and TG/DSC spectra have been discussed for the molecular purity confirmations and thermal stability. Further, physical properties of CyphosIL-109 were carried out. Effects of time, temperature, sulfur compounds, ultra-sonication and recycling/regeneration on DBT removal from fuel were also examined. In EDS, the DBT removal in n-dodecane was 83.1% with mass ratio (1:1) in 30 min at 30 °C. CyphosIL-109 might be reclaimed six cycles without a substantial S-reduction. Also, S-removal from real fuel and multistage extraction performance was tested. The experimental data and results provided in this article discover the remarkable understandings of phosphonium ionic liquids as promising solvent for EDS

Speaker
Biography:

Christian William s has pursued BSc with honors in Organic and Analytical Chemistry at the University of Glamorgan in Wales, UK. He started his career as a Bench Chemist and working his way to senior management and consultancy roles for some of the most respected corporations globally.

 

Abstract:

Almost every sector globally has been continuously improving their commitment to the environment and reduction in CO2 emissions. The aviation industry has understandably limited options to a degree due to its build and hence ability to easily reduce its CO2 emissions. All indications are that the aviation industry will continue to grow based on virtually every statistical dynamic and measurement. Due to limited mechanical options the aviation industry has been focused at reduction in CO2 emission commitments through the supply chain and its fuel use with a movement over to green biofuels and the carbon trading program. Many aviation customers, airports and even countries have publicly stated a commitment to green biofuels with some stating possible 100% movement over the next 10 years. Within ASTM D7566 you have a system of technical assessment and substantial testing requirement that all manufacturers of biofuels need to enter into for approval and use within the aviation industry. The study overviews the current approved aviation biofuel process, the fundamental fuel chemistry and fuel quality of biofuels and the challenges that could potentially face the industry when moving over to a large scale production of biofuels and use.

Break: Panel Discussion