Functionalized Hydrogel for Efficient Energy Conversion and Environmental Treatment
Suzhou
Date: Dec. 26th - Dec. 30th | Jan. 19th - Jan. 23rd
Subjects: Chemistry, Applied Chemistry, Analytical Chemistry, Materials Science, Materials Chemistry
Environmental pollution and energy crisis are two unavoidable problems that hinder the sustainable development of human society. Photocatalytic technology can degrade organic pollutants in water into water and carbon dioxide, etc., through redox reaction under sunlight irradiation. It is essential to develop new visible light-responsive catalysts and explore modification strategies to improve their photocatalytic activity.
Students will composite biomass hydrogel and copper nanoparticles to prepare stable and efficient composite flexible photocatalytic materials by utilizing the advantages of both.
Teaching Faculty
Experts in materials from universities of the 985 Project are specially invited.
Cutting-edge Topic
Systematically learn the preparation principles of functionalized hydrogel, photocatalyst material synthesis, etc.
Real Lab Practice
Photocatalysis experiment, quantitative analysis, preparation of aerogel, etc.
Outcome Application
Research outcomes for photocatalytic technology for environmental pollution.
Main Experiments
Photocatalysis Experiment
Quantitative Analysis
Preparation of Aerogel
Characterization of the Phase Composition of Hydrogels
Photocatalysis Experiment
Quantitative Analysis
Preparation of Aerogel
Characterization of the Phase Composition of Hydrogels
Certificates
CERTIFICATE OF ASDAN SCIENCE
ASDAN SCIENCE SHORT COURSES CREDIT ACCREDITED BY UCAS
CERTIFICATE OF COMPLETION ISSUED BY XLAB CHINA
Feedbacks
I gained a deeper understanding of hydrogels and photocatalysis, making me more familiar with laboratory procedures. I also learned about various new experimental instruments and techniques. The experiment on hydrogel fabrication was fascinating, as it introduced me to new reagents and their functions. I have learned two hydrogel production methods and compared their advantages and disadvantages. Additionally, I learned about experimental design, error reduction, and the ability to summarize experimental reports. This experience has furthered my interest in materials chemistry and enriched my knowledge in the field, which will benefit my future academic pursuits and professional applications.—— Suzhou Foreign Language School, Student Ge
In this research activity, I learned about the principles and applications of semiconductor photocatalysts in photocatalysis and the preparation of composite products formed with gels. I further understood various reactions involved during the experimental process, such as cross-linking reactions and band theory. This more profound knowledge has provided me with a clearer understanding of materials and polymer chemistry, helping me better position myself for future academic and career pursuits in these areas.—— High School Attached to Shandong Normal University, Student Li
This activity taught me how to collaborate effectively within a team and handle, analyze, and adequately use laboratory equipment. It allowed me to understand the content and direction of my prospective study abroad major and helped me apply to my desired university significantly. It exposed me to many things I wouldn't have had the opportunity to learn about otherwise. It allowed me to enter a completely new environment for learning and exploration. Additionally, it provided me with a new way to understand hydrogels and experience the allure of experiments.—— Kang Chiao International School of Hefei, Student Li
The greatest takeaway from this activity is becoming familiar with using professional laboratory equipment and mastering data analysis methods. In daily life, it's rare to have access to high-precision instruments for measurement and process. This activity acquainted me with instruments like the enzyme-linked immunosorbent assay (ELISA) reader, pipettes, and magnetic stirrers, providing the necessary professional background for future university applications and coursework prerequisites. Additionally, we learned how to use drawing tools to assist in processing data from Excel, allowing us to organize instrument-generated data into graphs for convenient presentation of results. Finally, the most significant aspect of the experience was the discussions with the teachers during the experimental process, whose rich professional knowledge enriched my understanding of the project and my ability to think rigorously.—— Suzhou Foreign Language School, Student Li
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Why Us
History
XLAB has a 20+ year history. It was initiated by Professor Neher of the University of Göttingen in Germany and strongly supported by the German government and the University of Göttingen. XLAB, centered around high-end scientific experiments, is widely favored by over 10,000 students yearly. XLAB has established practice centers worldwide, aiming to expand this unique concept and teaching method to reach more students.
XLAB aims to enable more people to learn and experience the joy of science, encouraging them to explore the mysteries of science and consider how to use science to solve human problems. Therefore, XALB's subjects are generally more complex in physics, biology, or medicine. Instead, they focus more on interdisciplinary, cutting-edge topics such as genetic engineering, medical research, nanobiology, medical chemistry, high-energy physics, and more.
Subject
Experiment
Experiments are the core of the XLAB. Each participant can enter advanced laboratories to conduct safe experiments, analyze data, and write experiment reports. Over six hours of scientific research daily enhances students' scientific knowledge and logical thinking and cultivates concentration and endurance. Students will be able to experience the work content and status firsthand and consider whether to choose a research direction in future education.
The courses in XLAB are unique. They consist of four key modules: Subject Introduction and Program Thinking, Scientific Research Teaching, Laboratory Operations, Experimental Data Analysis, and Research Report Writing. All courses are taught in small groups of 10 to 25 students.
Course
Faculty
Experts are invited to design experiments and teach students since the topics and content of XLAB exceed the curriculum of high schools and are specialized in specific research areas. Relevant scientific research institutions support XLAB China and provide an in-depth academic experience for Chinese students based on its unique teaching methods and experimental requirements.
Two authoritative certificates are available: the XLAB Program Certificate of Participation, which details the experimental content and is signed by instructors. Students will complete an academic report containing experimental results and data analysis to apply for the ASDAN "Science Award" Certificate for 30 credit hours of study officially accredited by UCAS.
Certificate
Research
XALB provides invaluable research scenarios for students who plan or are currently engaged in natural science research-oriented learning, such as EPQ or scientific papers, to implement their research plans and participate in hands-on scientific research. Experimental reports can be considered as part of their research achievements.