Dr. Ziad T. Alismaeel is a Lecturer in Al-Khwarizmi College of Engineering at the University of Baghdad/Biochemical Engineering Department. He obtained his B.Sc. in Chemical Engineering from University of Technology/Baghdad/Iraq in 1999. He obtained his M.Sc. in Chemical Engineering from University of Technology/Baghdad/Iraq in 2002. He obtained his PH. D in Chemical Engineering from University of Baghdad/Baghdad/Iraq in 2015. A great deal of his Ph. D. Dissertation has been conducted in the labs of the faculty of Science and Engineering at the Manchester Metropolitan University, UK. Research Interests • Electrochemical coating process. • Separation by Membrane. • Catalysts. • Biodiesel production • Water and waste water treatments. • Bioprocess Technology
B.Sc. in Chemical Engineering from University of Technology/Baghdad/Iraq in 1999. M.Sc. in Chemical Engineering from University of Technology/Baghdad/Iraq in 2002. PH. D in Chemical Engineering from University of Baghdad/Baghdad/Iraq in 2015. A great deal of his Ph. D. Dissertation has been conducted in the labs of the faculty of Science and Engineering at the Manchester Metropolitan University, UK.
Principles of Chemical Engineering Principles of Biochemical Engineering Electrical Technology Biocatalysts Computer Applications in Biochemical Engineering (MATLAB) programming Chemical Engineering Thermodynamics Biochemical Engineering Industries Lab Environmental Biotechnology
A mathematical model was proposed to study the microkinetics of esterification reaction of oleic acid with ethanol over prepared HY zeolite catalyst. The catalyst was prepared from Iraqi kaolin source and its properties were characterized by different techniques. The esterification was done under different temperature (40 to 70˚C) with 6:1 for molar ratio of ethanol to oleic acid and 5 % catalyst loading. The microkinetics study was done over two period of time each period was examined individually to calculate the reaction rate constant and activation energy. The impact of the mass transfer resistance to the reactant was also investigated; two different studies have been accomplished to do this purpose. The e
... Show MoreSeawater might serve as a fresh‐water supply for future generations to help meet the growing need for clean drinking water. Desalination and waste management using newer and more energy intensive processes are not viable options in the long term. Thus, an integrated and sustainable strategy is required to accomplish cost‐effective desalination via wastewater treatment. A microbial desalination cell (MDC) is a new technology that can treat wastewater, desalinate saltwater, and produce green energy simultaneously. Bio‐electrochemical oxidation of wastewater organics creates power using this method. Desalination and the creation of value‐added by‐products are expected because of this ionic mov
Water pollution as a result of contamination with dye-contaminating effluents is a severe issue for water reservoirs, which instigated the study of biodegradation of Reactive Red 195 and Reactive Blue dyes by E. coli and Bacillus sp. The effects of occupation time, solution pH, initial dyes concentrations, biomass loading, and temperature were investigated via batch-system experiments by using the Design of Experiment (DOE) for 2 levels and 5 factors response surface methodology (RSM). The operational conditions used for these factors were optimized using quadratic techniques by reducing the number of experiments. The results revealed that the two types of bacteria had a powerful effect on biodegradable dyes. The regression analysis reveale
... Show MoreMicrobial Desalination Cell (MDC) is capable of desalinating seawater, producing electrical power and treating wastewater. Previously, chemical cathodes were used, which were application restrictions due to operational expenses are quite high, low levels of long-term viability and high toxicity. A pure oxygen cathode was using, external resistance 50 and 150 k Ω were studied with two concentrations of NaCl in the desalination chamber 15-25 g/L which represents the concentration of brackish water and sea water. The highest energy productivity was obtained, which amounted to 44 and 46 mW/m3, and the maximum limit for desalination of saline water was (31% and 26%) for each of 25 g / L and 15 g / L, respectively, when using an ex
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