Sinopsis
Research Paper (undergraduate) from the year 2013 in the subject Engineering - Chemical Engineering, grade: Master, , course: Engineering, language: English, abstract: In 1927, the limestone desulfurization process was first applied in the Barthes and Bansside Power Plants (total
120MW) beside the Thames River in UK to protect high-rise building in London. Up to now, over 10 desulfurization processes
have been launched and applied. Based on the desulfurizing agent being used, there include calcium process
(limestone/lime), ammonia process, magnesium process, sodium process, alkali alumina process, copper oxide/zinc process,
active carbon process, ammonium dihydrogen phosphate process, etc. The calcium process is commercially available and
widely used in the world, i.e. more than 90%. Flue gas desulfurization processes, survey made by the coal research institute
under the International Energy Agency shows that the wet-process desulfurization accounts for 85% of total installed
capacity of flue gas desulfurization units across the world. The wet-process desulfurization is mainly applied in countries, like
Japan (98%), USA (92%), Germany (90%), etc. The limestone-gypsum wet desulfurization process, the most mature
technology, the most applications, the most reliable operation in the world, may have rate of desulfurization of more than
90%. Currently, the flue gas desulfurization technology used at thermal power plants at home and abroad tends to be higher
rate of desulfurization, bigger installed capacity, more advanced technology, lower investment, less land acquisition, lower
operation cost, higher level of automation, more excellent reliability, etc. This paper briefs current situations and trends of
flue gas desulfurization technology also append short descript of different type of FDG and their category.
Acerca del autor
PV Manager | Renewable Energy & Microgrid Expert | EPC Project Specialist
Rehan Jamil is a seasoned professional in the renewable energy sector, specializing in large-scale solar power projects, microgrid solutions, and hybrid PV + energy storage systems. With a strong background in electrical and optical engineering, he has extensive experience in EPC (Engineering, Procurement, and Construction) for utility-scale solar, industrial applications, and sustainable energy solutions across various sectors, including mining, manufacturing, agriculture, and commercial industries.
He holds a B.Sc. in Electrical (Electronics) Engineering from Federal Urdu University of Arts, Science & Technology, Islamabad, Pakistan (2009) and a Master's degree in Optical Engineering from Yunnan Normal University, Kunming, China (2011-2014), funded by the CSC Chinese Government Scholarship. During his academic tenure, he contributed significantly to scientific research, publishing 15 peer-reviewed research papers and two Google e-books in international journals, including IEEE and SCI-indexed conferences. Additionally, he was actively involved in China's National and International Scientific and Technological Cooperation Projects (Grant No. 2011DFA60460) at Yunnan Normal University.
Rehan is a member of the National Society of Professional Engineers (NSPE) and the American Society of Mechanical Engineers (ASME).
Professionally, he has held key leadership positions in the renewable energy industry. He previously served as a Project Manager at TBEA Xinjiang SunOasis Co., Ltd., where he managed large-scale EPC solar projects. Currently, he is the PV Manager at SANY Heavy Industry Co., Ltd, Saudi Arabia, spearheading the development of solar power and energy storage solutions tailored for carbon-neutral mining operations, industrial zones, agricultural applications, and commercial/utility-scale deployments. His expertise lies in developing, executing, and optimizing solar energy projects, integrating hybrid renewable energy solutions, and driving strategic energy transition initiatives in the Middle East market.
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