Paper Status Tracking
Contact us
customer@davidpublishing.com
Click here to send a message to me 3275638434
Paper Publishing WeChat

Article
Affiliation(s)

University of Shanghai for Science and Technology, Shanghai, China; Shanghai Zhongqiao Vocational and Technical University, Shanghai, China

ABSTRACT

The comprehensive advancement of digital transformation is driving the iterative upgrading of higher education teaching models. The digital transformation of inorganic chemistry experiments and the integration of information technology into the teaching of the history of chemistry have emerged as the two core directions for reforming fundamental chemistry education. Based on a systematic review of relevant studies, this paper analyzes the application advantages of digital technologies in fundamental chemistry courses, examines the practical challenges in teaching practice, and proposes innovative pathways for digital empowerment from four dimensions: teaching resource development, classroom model reform, evaluation system optimization, and enhancement of teachers’ digital literacy. The study suggests that digital technologies can effectively overcome long-standing bottlenecks in abstraction, resource constraints, and knowledge fragmentation, while facilitating the deep integration of theoretical instruction, context-based teaching in the history of chemistry, and experimental instruction, thereby providing systematic support for improving the overall quality of fundamental chemistry education in universities.

KEYWORDS

digital information technology, inorganic chemistry, chemistry history, teaching reform

Cite this paper

LI Jiahui, YAN Zhichuang, TONG Xudong, YUAN Qingling, YANG Weiwei, LI Dandan. (2026). Research on Teaching Innovation of Basic Chemistry Courses in Universities Empowered by Digital Information Technology. US-China Education Review A, July 2026, Vol. 16, No. 7, 491-496.

References

Ghibaudi, E., Regis, A., & Roletto, E. (2020). Historical reconstruction of chemical concepts for university teaching supported by digital multimodal resources. Journal of Chemical Education, 97(10), 2789-2796.

Lopes, R., & Silva, C. (2026). Bridging the STEM divide: AI-assisted digital experiment design for resource-limited chemistry teaching. Journal of Chemical Education, 103(6), 2145-2152.

Miller, J., & Carter, P. (2024). Digital transformation of undergraduate fundamental chemistry: Avoiding technological formalism in instructional design. Chemistry Education Research and Practice, 25(3), 987-1001.

Olsson, M., Balgopal, M., & Levinger, N. (2015). Addressing students’ misconceptions via digitized history of chemistry contextual teaching. Science & Education, 24(9), 1127-1148.

Shaforost, Y., Lut, O., & Shpak, V. (2026). Implementation of edutainment elements in blended chemistry learning using the chemcollective virtual laboratory. Information Technologies and Learning Tools, 112(2), 134-153.

Vasquez, A. (2025). Digital literacy training framework for university chemistry instructors in smart campus contexts. Journal of University Teaching & Learning Practice, 22(1), 1-18.

Weber, M., & Stein, A. (2023). Results of a three-year survey on electronic laboratory notebooks in advanced inorganic chemistry lab courses. Journal of Chemical Education, 100(8), 3210-3217.

About | Terms & Conditions | Issue | Privacy | Contact us
Copyright © 2001 - David Publishing Company All rights reserved, www.davidpublisher.com
3 Germay Dr., Unit 4 #4651, Wilmington DE 19804; Tel: 001-302-3943358 Email: order@davidpublishing.com