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Your search keyword '"Mofijur, M."' showing total 215 results
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215 results on '"Mofijur, M."'

9. Recovery of Lithium from Industrial Li-Containing Wastewater Using Fluidized-Bed Homogeneous Granulation Technology

Author

Le, Van Giang, primary, Luu, The Anh, additional, Tran, Huu Tuan, additional, Bui, Ngoc T., additional, Mofijur, M., additional, Nguyen, Minh Ky, additional, Bui, Xuan Thanh, additional, Bahari, M. B., additional, Vo, Hoang Nhat Phong, additional, Vu, Chi Thanh, additional, Chien, Guo-Ping Chang, additional, and Huang, Yao-Hui, additional

Published
2024
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16. RETRACTED: Prospects of Bioenergy Production From Organic Waste Using Anaerobic Digestion Technology: A Mini Review.

Author

Uddin, M. N., Sk. Yasir Arafat Siddiki, Mofijur, M., Djavanroodi, F., Hazrat, M. A., Show, Pau Loke, Ahmed, S. F., Yu-Ming Chu, Chin Cheng, Nguyen Thi Dong Phuong, and Sze Shin Low

Subjects
ORGANIC wastes, GREENHOUSE gas mitigation, ANAEROBIC digestion, WASTE management, WASTE recycling, RENEWABLE energy sources
Abstract

Anaerobic digestion (AD) from organic waste has gained worldwide attention because it offers significant environmental and economic benefits. It can reduce the local waste through recycling which will conserve resources, reduce greenhouse gas emissions, and build economic resilience in the face of an uncertain future for energy production and waste disposal. The productive use of local waste through recycling conserves resources by reducing landfill space, the whole of life impacts of landfilling, and post-closure maintenance of landfills. Turning waste into a renewable energy source will assist the decarbonisation of the economy by reducing harmful emissions and pollutants. Therefore, this mini-review aims to summarise key factors and present valuable evidence for an efficient AD process. It also presents the pros and cons of different AD process to convert organic waste along with the reactor technologies. Besides, this paper highlights the challenges and the future perspective of the AD process. However, it is highlighted that for an effective and efficient AD process, appropriate temperature, pH, a strong inoculum to substrate ratio, good mixing and small particle sizes are important factors. The selection of suitable AD process and reactor is important because not all types of processes and reactors are not effective for processing organic waste. This study is of great importance for ongoing work on renewable energy generation from waste and provides important knowledge of innovative waste processing. Finally, it is recommended that the government should increase their support towards the AD technology and consider the unutilized significant potential of gaseous biofuel production. [ABSTRACT FROM AUTHOR]

Published
2024
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23. Advances in identifying and managing emerging contaminants in aquatic ecosystems: Analytical approaches, toxicity assessment, transformation pathways, environmental fate, and remediation strategies

Author

Mofijur, M., primary, Hasan, M.M., additional, Ahmed, Shams Forruque, additional, Djavanroodi, F., additional, Fattah, I.M.R., additional, Silitonga, A.S., additional, Kalam, M.A., additional, Zhou, John L., additional, and Khan, T.M. Yunus, additional

Published
2023
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31. Insights into anaerobic digestion of microalgal biomass for enhanced energy recovery.

Author

Hasan, M. M., Mofijur, M., Uddin, M. N., Kabir, Zobaidul, Badruddin, Irfan Anjum, Khan, T. M. Yunus, Farooq, Muhammad, Ahmad, Anees, and Murshid, Ghulam

Subjects
BIOMASS energy, SUSTAINABILITY, CLEAN energy, BIOGAS production, WASTE management, ANAEROBIC digestion
Abstract

This review paper delves into the intricate challenge of transforming microalgal biomass into biofuel through anaerobic digestion, elucidating its significance for sustainable energy production and waste management. Despite the promise anaerobic digestion holds, obstacles like inhibitory substances, process stability issues, and residue management complexities persist. Microalgal biomass, characterized by high biogas yields and carbon sequestration potential, emerges as a viable solution to enhance anaerobic digestion efficiency. Employing a comprehensive literature selection process, the review synthesizes recent studies to shed light on breakthroughs and pinpoint areas for future investigation. Key findings underscore advancements in microalgal biomass utilization, with strategic strain selection and innovative pretreatment methods resulting up to 25% increase in biogas production. Additionally, the assimilation of co-digestion techniques yields enhanced overall process efficiency. Microalgal biomass demonstrates remarkable carbon sequestration capabilities, sequestering up to 60% of CO2 during the anaerobic digestion process. Furthermore, the analysis reveals that despite inhibitory substances posing challenges, innovative approaches have reduced inhibition by 15%, promoting more stable and efficient digestion. Implications of the review findings stress the need to scale laboratory successes to industrial applications while maintaining environmental sustainability. Identified gaps include challenges in inhibitory substance management and process stability, with future research directions advocating for multidisciplinary approaches to unlock the full potential of microalgal biomass in anaerobic digestion. In conclusion, the review contributes significantly to understanding the intricate relationship between microalgal biomass and anaerobic digestion, highlighting the importance of continued research and development to address existing challenges and advance towards a more regenerative bioeconomy. [ABSTRACT FROM AUTHOR]

Published
2024
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45. Recent advances in the solar thermochemical splitting of carbon dioxide into synthetic fuels

Author

Rony, ZI, Mofijur, M, Ahmed, SF, Kabir, Z, Chowdhury, AA, and Almomani, F

Abstract

Recent years have seen a sharp rise in CO2 emissions into the atmosphere, which has contributed to the issue of global warming. In response to this several technologies have been developed to convert CO2 into fuel. It is discovered that the employment of a solar-driven thermochemical process (S-DTCP) that transforms CO2 into fuels can increase the efficiency of the production of sustainable fuels. The process involves the reduction of metal oxide (MO) and oxidizing it with CO2 in a two-step process using concentrated solar power (CSP) at higher and lower temperatures, respectively. This study summarizes current advancements in CO2 conversion methods based on MO thermochemical cycles (ThCy), including their operating parameters, types of cycles, and working principles. It was revealed that the efficiency of the solar conversion of CO2 to fuel is not only influenced by the composition of the MO, but also by its morphology as well as the available surface area for solid/gas reactions and the diffusion length. The conversion mechanism is governed by surface reaction, which is influenced by these two parameters (diffusion length and specific surface area). Solar energy contributes to the reduction and oxidation steps by promoting reaction kinetics and heat and mass transport in the material. The information on recent advances in metal oxide-based carbon dioxide conversion into fuels will be beneficial to both the industrial and academic sectors of the economy.

Published
2022

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