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Research on Hotspots and Trends of Chemistry Teaching Informatization in China over the Past Ten Years: Visual Analysis Based on CiteSpace

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DOI: 10.23977/curtm.2023.061505 | Downloads: 150 | Views: 1608

Author(s)

Zhaojia Chai 1, Zhaoyuan Chai 2, Meng Wang 1

Affiliation(s)

1 School of Humanities, Jiangnan University, Wuxi, Jiangsu, 214122, China
2 Fenyi No. 3 Middle School, Xinyu, Jiangxi, 336699, China

Corresponding Author

Zhaojia Chai

ABSTRACT

With the implementation of the Action Plan of Education Informatization 2.0, the process of education informatization has achieved great success, and digital technology has had a significant impact on education management and participants at all levels. This paper uses the Chinese Journal Full-text Database (CJFD) as the data source to conduct statistics, and uses CiteSpace to statistically analyze the research on chemistry teaching informatization in China from 2013 to 2022. Based on the results of visual analysis, relevant research hotspots in China were summarized, which mainly focus on three frontier areas: digital experimentation with hand-held technology, quadruple representation teaching model, and teaching strategies and applications in the context of informatization. This paper will provide suggestions and references for Chinese teachers and educational researchers.

KEYWORDS

Education Informatization; Chemistry Teaching; CiteSpace; Visualization

CITE THIS PAPER

Zhaojia Chai, Zhaoyuan Chai, Meng Wang, Research on Hotspots and Trends of Chemistry Teaching Informatization in China over the Past Ten Years: Visual Analysis Based on CiteSpace. Curriculum and Teaching Methodology (2023) Vol. 6: 26-33. DOI: http://dx.doi.org/10.23977/curtm.2023.061505.

REFERENCES

[1] Documents of the Central Committee of the Communist Party of China and the State Council: The 13th Five-Year Plan for the Development of National Education [Z]. 2017, 3-30. 
[2] Henry Small. Co-citation in the scientific literature: A new measure of the relationship between two documents [J]. Journal of the American Society for Information Science, 1973. 
[3] Zhu Q, Qian YY, Mai YH, et al. A survey of chemistry teachers' attitudes toward digital experiment applications of handheld technology [J]. Chemistry Teaching, 2019, (10):13-8.
[4] Tan Yuling, Qian Yangyi, Wen Jinju, et al. Research progress on teaching chemistry concepts supported by digital experiments with handheld technology [J]. Chemical Education (English and Chinese), 2022, 43(23): 112-8.
[5] Wang L-X, Qian Y-Y, Su H-H, et al. Deep integration of digital experiments with handheld technology and chemistry teaching: from "research cases" to "cognitive models"-construction of TQVC conceptual cognitive model [J]. Journal of Distance Education, 2018, 36(04): 104-12.
[6] Qian Yangyi. Research on the application of handheld technology in science experiments [M]. Beijing: Higher Education Press, 2003.
[7] Qian Yangyi, Chen Jiannin, Wu Zongzhi, et al. Exploring the flame temperature of alcohol lamps in a handheld laboratory - drawing different conclusions [J]. Chemical Education, 2003, (01). 39-41+21.
[8] Chen Boyin, Qian Yangyi, Li Yanping, et al. Investigating the magnitude of metal corrosion rate at the anode of electrolytic cell and the anode of primary cell using digital handheld technology[J]. Chemical Education, 2016, 37(21): 48-54.
[9] Wang Lixin, Qian Yangyi, Su Huahong, et al. The deep integration of handheld digital experiments and chemistry teaching: from "research cases" to "cognitive models"--TQVC: The construction of a conceptual cognitive model [J]. Journal of Distance Education, 2018, 36(04): 104-12.
[10] Wang Xiaofang, Lu Yufeng, Xia Jianhua. The progress and status of handheld digital experiments in China in the past 20 years--a visual analysis based on CiteSpace [J]. Chemistry Teaching, 2021, (04): 32-7.
[11] Qian Yangyi. The learning and cognition of chemical concepts and chemical "subject keywords" [M]. Beijing: Science Press, 2009.
[12] Lin Jianfen, Sheng Xiaojing, Qian Yangyi. Theoretical construction and practical research of "four representations" teaching model in chemistry: a review of 15 years of experimental research on digital handheld technology [J]. Chemistry Education, 2015, 36(07): 1-6.
[13] Wei Xinping. A study on "four-fold characterization" of chemistry based on SOLO classification theory: "The effect of concentration on chemical equilibrium" as an example [J]. Chemistry Teaching, 2013, (10): 31-3+49.
[14] Liu Jianxiang. "A case study on the integration of "four-fold characterization" chemistry teaching mode and "handheld technology"--The effect of concentration on the reaction rate of sodium thiosulfate and sulfuric acid as an example. The effect of concentration on the reaction rate of sodium thiosulfate and sulfuric acid" as an example [J]. Chemical Education, 2013, 34(07): 31-5.
[15] Gao Miaotian. A practical study on the implementation of "four-fold characterization" chemistry teaching model in senior science classes using handheld technology [J]. Chemistry Education, 2012, 33(01): 20-2.
[16] The Thirteenth Five-Year Plan of Education Informatization [J]. China Information Technology Education, 2016, (Z3): 43-8.
[17] Ni Shengjun, Fu Shaowu, Huang Zhi, et al. Process can be accumulated: A study on the practice of hybrid teaching of middle school chemistry based on cloud classroom[J]. Chemistry Education (in English and Chinese), 2021, 42(03): 43-7.
[18] Guan Ling, Ma Kaiguo, Bian Lei, et al. Exploration of experimental teaching methods of organic chemistry in the information age [J]. Laboratory Research and Exploration, 2019, 38(10): 235-7.
[19] Chen Subin, Hu Zhen, Pu Cao. Multi-level information technology application for analytical chemistry experimental teaching in higher education institutions [J]. Experimental Technology and Management, 2020, 37(09): 242-7.

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