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K​eynote speakers

El-Sayed Salama.jpg

Prof. El-Sayed Salama

Lanzhou University, China

Prof. El-Sayed Salama obtained his BSc degree in 2008 at the Faculty of Science, Benha University (Egypt). He pursued MSc and PhD degrees in 2016 from the Department of Earth Resources and Environmental Engineering, Hanyang University (South Korea). Followed by 3 years of working experience as a Post-Doc and Assistant Professor in the same department “under BK21 plus”, funded by the Korean government. He was also hired as a Young Talent Fellow from 2018 to 2023 (under the Recruitment of High-Level Foreign Talents, Category A)” at the Department of Occupational and Environmental Health, Public Health School, Lanzhou University (LZU) (China).

In Sept., 2023, Prof. Salama has been promoted to a full Professor (level 4, under Recruitment Program of Global Experts) in LZU and a leader of the Green Environmental and Energy Laboratory (GEEL). He has potential contributions to the scientific society (>100 SCI papers, 6 patents, 2 books, 1 technology transfer, and 50 invited talks). His publications appeared in top-tier journals (such as Progress in Energy & Combustion Science, Trends in Plant Science, Trends in Microbiology, Renewable & Sustainable Energy Reviews, Chemical Engineering Journal, and Water Research). 
Prof. Salama was listed in the top 2% Scientists Worldwide by Stanford University for three consecutive years. He also selected as the “Distinguished Expert of Science and Technology in the Ecological Industry” of Gansu Province and a member of “Gansu Society of Microbiology” (China). He is acting as an Editor, Associate Editor, and Editorial Board Member of several international journals. He is also represented as general chair, session chair, and international committee member of international conferences. His research team at GEEL-LZU focuses on “Bioenvironmental Sciences and Bioenergy”.


Title: Microplastics in the environment: Chemistry, Sources, formation, toxicity, and remediation

Abstract: Worldwide, more than 400 million tons of plastic are produced annually. These plastics break down into small particles and those with a length of < 5 mm are called microplastics (MPs). The World Health Organization (WHO) has identified MPs as an emergency pollutant for the environment and human health. MPs hold toxic chemicals (such as plasticizers and colorings) that are used as ingredients during the polymerization process. Moreover, MPs act as transport vectors of other hazardous substances (pesticides, heavy metals, and biofouling), which can accumulate in the environment and induce toxicity to biodiversity. In addition to the inhalation of MPs, their existence in drinks and foods is the main pathway for entering the human body. The accumulation of MPs in the human body places people at risk for respiratory problems, cytotoxicity, and inflammatory as well as autoimmune illnesses. Therefore, it is crucial to identify the safest and most effective strategies for removing MPs from the environment. This presentation provides a comprehensive summary of MPs and discusses advances and challenges in removing them from our environment.


Prof. Rajan Jose

University Malaysia Pahang, Malaysia

Rajan Jose is a senior Professor in the Universiti Malaysia Pahang Al-Sultan Abdullah (UMPSA), formerly UMP, and is the Associate Editor-in-Chief of the Springer Nature journal Materials Circular Economy. He has served as the Dean of Research (Technology) of UMP during Feb 2016 – Aug 2019 besides serving as the Member of Senate and Graduate Council of UMP. He has published over 350 papers in the Web of Science (Thomson Reuters/Clarivate Analytics/Scopus) indexed journals, which are cited nearly 19000 times with an h-index of 69. He holds 25 patents. Stanford University places him as a top 2% Materials Scientists in the world since 2020. His current research interests include sustainable materials, textile electronics, circular economy, data science and, renewable energy devices.

Title: Circular Materials

Abstract: “Biomass growing and harvesting; mineral and fossil resource extraction; and processing of materials, fuels and food accounted for more than 55% of global greenhouse gas emissions in 2022 and more than 60% if land-use change impacts are considered.” – reports the international resource panel in their 2024 global resource outlook. An inadvertent surge in material usage by 60% than the 2022 levels is predicted; if the current habits of sourcing and processing prevail, the future of a liveable planet Earth is uncertain. One of the most viable ways to develop sustainable materials is to source them from bioresources, which itself is carbon negative, and functionalize and value add them for various applications. Most bioresource waste contains lignocellulosic materials, using which high quality cellulose and carbon can de synthesized. The cellulose thus derived are developed, with appropriate chemical modifications, as a scaffold for tissue engineering, as an electrolyte for energy storage applications, and as membranes for various applications. Further, other bioresourced natural polymers such as seaweeds are toughned using cellulose nanocrystals and developed into high strength biopolymers. High quality graphitic nanocarbons were developed from various bio and laboratory wastes and developed as high performing charge storaging electrodes via developing thin metallic or metal oxide films or appropriately utilizing the larger voids in porous carbon. Besides, materials were also processed from fresh and end-used resources using solar light to lower the embodied energy. High performing energy storage devices were developed using these electrodes and electrolytes with appreciable voltage window, specific energy and power and cycling stability. These developments will be discussed in the lecture.


Assistant Professor Feng Wang

SUStech University, China

Assistant Professor in SUStech University. Doctor Wang’s got an engineering doctoral degree in Kyoto University and worked in Japanese university and research institute for several years. With rich research and engineering experience in the field of environmental engineering, he focusses on the following research field. (1) Wastewater treatment, including biological denitrification process of sewage, anaerobic digestion of high concentration organic waste water, treatment and recycle of sewage sludge and its environmental assessment; (2) Solid waste management and disposal, including incineration of solid waste and treatment of fly ash, stabilization of heavy metals in soil, utilization of solid waste as construction materials; (3) Carbon neutrality, including research on carbon emission calculation and verify, methodology development of carbon trade mechanism, research on the realization path of carbon neutrality, carbon sink calculation and research on methods of carbon sink enhancement based on nature process, low-carbon technology for biomass waste treatment; (4) Degradation mechanism of poly lactic plastics and other biodegradable materials.  He has published more than 40 research articles and applied for 5 invention patents. Doctor Wang is the member of Chinese Society for Environmental Sciences, Japan Society on Water Environment, Japan Society of Civil Engineering, and reviewer of Bioresource technology, Water Research, Hazardous Materials, Chemosphere and other international journals. 


Dr. Tao Liu
Zhejiang A&F University, China

He completed the PhD in Analytical Chemistry from Nanjing University, where was committed to developing new highly sensitive analytical methods. At present, he is committed to the development of biomass-based advanced functional materials for constructing different analytical methods and implementing their applications in the fields of food safety testing, environmental hazard analysis, and life analysis. In addition, a diverse of different biomass-based superhydrophobic or hydrophobic materials are prepared and used to achieve oil-water separation. 

Title: In situ formation of polymethylsiloxane nanofilaments on pristine cotton stalk with natural interconnected pores for rapid and recyclable organic solvents absorption

Abstract: The creation of a superhydrophobic surface with simplified hydrophobic steps still faces great challenges. Herein, an in situ one-step hydrophobic strategy of growing polysiloxane nanofilaments onto pristine rod-shaped cotton stalk (CS) surface is used to prepare a new bulk superhydrophobic CS absorbent. The rich hydroxyl groups contained in CS directly polymerize with the silanols generated by the hydrolysis of methyltrichlorosilane on CS surface to form polysiloxane nanofilaments, leading to a change in the wettability of the CS surface. This strategy makes the water contact angle of the prepared absorbent as high as 161°, representing exceptional water repellency. Benefiting from the unique natural interconnected pore structures, the absorbent takes only 20 s to reach absorption equilibrium, showing rapid absorption performance toward organic solvents. The absorbent still maintains good absorption capacity even after 20 absorption-desorption cycles, holding excellent recyclability. The proposed hydrophobic modification approach simplifies the steps to the surface hydrophobization of CS, which provides a new strategy for the preparation of biomass-based superhydrophobic materials.

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