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Assist. Lecturer

Hayder Mahmood Hameed

Research Interests

Westwater Treatment

Nano Technology

synthesis nano partical

anticorrosion

superhydrophobic surfaces

polar cell

Gender MALE
Place of Work Renewable Energy Research Center (RERC)
Position Researcher
Qualification Master
Speciality chemical engeneering
Email haydermahmood35@ntu.edu.iq
Phone 07776453929
Address kirkuk - Iraq, At Ta'mim, Kirkuk, Iraq

Skills

Experienced in teaching various modules within the chemical engineering department (40%)
Lecturer for teaching Undergraduate study (50%)
High skill in teaching and training methods and laboratory work (50%)
High knowledge and Experience in health and safety and Risk Assessment required for laboratory works. (50%)
working experience

Academic Qualification

bachlore degree
Sep 2, 2007 - Jul 3, 2011

University of Technology - Baghdad

M.Tech
Sep 1, 2013 - Jul 1, 2015

Pune University. India

Publications

Synthesis of Ag-ZnO/MOF nanocomposite for degradation of dye from aqueous solution under UV light
Dec 13, 2024

Journal World Journal of Environmental Research

publisher wier

DOI https://doi.org/10.18844/wjer.v14i2.9589

Issue 2

Volume 14

Water pollution, a critical environmental challenge, threatens the availability of clean water essential for human survival. Industrial waste streams frequently discharge hazardous dyes such as Congo Red, Methyl Orange, and Methylene Blue, posing severe risks to aquatic ecosystems and human health. These dyes, widely used in industries like plastics, textiles, and cosmetics, contribute significantly to water contamination, necessitating effective treatment methods. This study addresses the research gap by synthesizing a silver-zinc oxide metal-organic framework (Ag-ZnO-MOF) nanocomposite for photocatalytic degradation of Methyl Orange dye using a chemical precipitation method. The nanocomposite's morphology, crystalline structure, and photocatalytic properties were characterized through SEM, FTIR, XRD, and DRS analyses, confirming its powdery nature and activity in the UV region with a bandgap of 3.3 eV. Key parameters influencing dye degradation, including solution pH, reaction time, pollutant concentration, and photocatalyst dosage, were systematically studied. The results revealed that optimal conditions (pH 2, 0.03 g photocatalyst, 30 ppm dye) achieved a remarkable 96% degradation efficiency. This research highlights the Ag-ZnO-MOF nanocomposite's potential for addressing industrial dye pollution, offering an effective and sustainable solution for water purification.

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