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2025, 09, v.42 21-26
Exploration of the innovative talent cultivation model of the Belt and Road joint laboratory of crop science
Email: zhangzy@nwafu.edu.cn;
DOI: 10.16791/j.cnki.sjg.2025.09.004
摘要:

“一带一路”共建国家面临农业转型与专业人才匮乏的双重挑战,传统农业教育存在课程衔接不足、资源调配低效、文化认知偏差等问题。文章详述了作物学“一带一路”联合实验室“三维四阶”创新人才培养模式:“三维”课程体系从知识筑基、能力进阶、文化赋能三方面,融合前沿理论与实践,提升学生专业素养与跨文化能力;“四阶”递进培养阶段通过基础入门、技能提升、综合应用与创新拓展,逐步强化学生解决实际问题的能力。同时,搭建三级联动实践体系,打通“研-学-用”全链条,促进科研成果转化。实践表明,该模式通过课程动态化、资源智能化等举措,有效解决现存问题,为国际农业合作培养复合型人才。该模式未来将拓展至多个领域,深化国际教育合作。

Abstract:

[Objective] Against the backdrop of global economic integration and the in-depth advancement of the Belt and Road Initiative, international agricultural cooperation has recently emerged as a vital link for developing countries along various routes. However, these nations are facing a dual challenge: the urgent need for agricultural modernization and a critical shortage of professional expertise. Traditional agricultural education suffers from structural issues, including insufficient curriculum articulation, inefficient resource allocation, and cultural cognitive biases, which fail to meet the demand for the array of skills required in international agricultural cooperation. Hence, this study focuses on the field of crop science, utilizing a joint laboratory platform and aiming to develop an innovative talent cultivation model that facilitates cooperation between agricultural science and technology under the Belt and Road Initiative. Through systematic reform, it aims to enhance the professional capabilities, practical skills, and cross-cultural literacy of students, thereby cultivating high-quality specialists for international agricultural cooperation. [Methods] This study constructs a “Three-Dimensional, Four-Stage” innovative talent cultivation model for the Belt and Road Joint Laboratory of Crop Science. Centered on three core dimensions, the curriculum system integrates cutting-edge agricultural theories and practical courses to cultivate students' professional competencies and cross-cultural communication skills. Knowledge Foundation: Advanced theories in crop genomics and digital agriculture are integrated using bilingual instruction and massive open online courses(MOOCs), with foundation courses in crop physiology and ecology strengthening students' professional grounding and international academic communication. Competency Advancement: A capability matrix encompassing scientific research, technical transfer, and international negotiation is established. Project-based learning, including AI-assisted breeding projects, is implemented to cultivate students' full-chain capabilities from laboratory research to industrial application. Cultural Empowerment: Courses such as “Comparative Study of Farming Civilizations,” combined with overseas field investigations and scenario simulations, enhance students' cross-cultural collaboration and international policy interpretation skills. The “Four-Stage” progressive cultivation path systematically improves students' ability to address practical agricultural problems through the following sequential phases: Basic Introduction—building a cognitive framework with standardized courses and basic experiments; Skills Enhancement—conducting complex experimental projects leveraging platforms such as molecular biology laboratories; Comprehensive Application—engaging in transnational breeding projects and regional agricultural engineering initiatives to integrate multidisciplinary knowledge; Innovation Expansion—exploring cutting-edge fields such as vertical agriculture and carbon sequestration to generate patents and policy recommendations. Additionally, a practical three-level linkage system, comprising campus smart farms, overseas joint experimental stations, and virtual simulation platforms, would be established to connect the entire research, learning, and application process, thereby facilitating the transformation and application of scientific research achievements. [Results] This model effectively alleviates the deficiencies of traditional agricultural education using strategies such as dynamic curriculum adjustment mechanisms and intelligent resource allocation, and the professional skills and cross-cultural collaboration abilities of students have improved significantly. With these cultivated talents, they can better adapt to the needs of international agricultural cooperation, promoting the transformation of scientific research achievements into practical productivity. [Conclusions] The Three-Dimensional, Four-Stage model constructed in this study provides a replicable talent cultivation paradigm for international agricultural cooperation under the Belt and Road Initiative. Its innovation lies in the deep integration of professional education with cross-cultural training, and scientific research with industrial application. In the future, a long-term follow-up evaluation will be necessary to assess the model's long-term impact on students' career development. The model should be expanded to fields such as animal husbandry and food science. Meanwhile, current plans include developing a meta-virtual laboratory platform and establishing a Belt and Road Agricultural Education Alliance to further integrate international resources and promote in-depth global agricultural education and scientific and technological cooperation.

References

[1]李立国,陈雪莹.高校拔尖创新人才培养模式探索及改进策略[J].北京社会科学, 2025(1):99–108.LI L G. CHEN X Y. Exploration and improvement strategies for the independent training model of top notch innovative talents in higher education[J]. Social Sciences in Beijing, 2025(1):99–108.(in Chinese)

[2]胡蔓,朱德建,冉栋刚.面向创新人才培养的高校实验室建设改革[J].实验技术与管理, 2019, 36(4):9–12.HU M, ZHU D J, RAN D G. Reform on university laboratory construction for cultivate of innovative talents[J]. Experimental Technology and Management, 2019, 36(4):9–12.(in Chinese)

[3]刘曙东,奚亚军,司怀军.遗传学[M].北京:高等教育出版社, 2021.LIU S D, XI Y J, SI H J. Genetics[M]. Beijing:Higher Education Press, 2021.(in Chinese)

[4]樊龙江.植物基因组学[M].北京:科学出版社, 2020.FAN L J. Plant genomics[M]. Beijing:Science Press, 2020.(in Chinese)

[5]张悦,李众,曲春红.非洲农业现代化发展:现状、挑战与机遇[J].中国食物与营养, 2021, 27(6):17–22.ZHANG Y, LI Z, QU C H. Agricultural modernization development in Africa:Current status, challenges, and opportunities[J]. China Food and Nutrition, 2021, 27(6):17–22.(in Chinese)

[6]王棚涛,王伟,郭思义.旨在培养科研素养的理工科研究生课程教学改革:以河南大学高级植物生理学为例[J].高教学刊, 2024,(15):23–28.WANG P T, WANG W, GUO S Y. Teaching reform of science and engineering postgraduate courses aimed at fostering scientific research competence:A case of“Advanced Plant Physiology” at Henan University[J]. Journal of Higher Education, 2024,(15):23–28.(in Chinese)

[7]孙红梅,王锦霞,王春夏,等.开阔学生国际化视野与创新能力培养相结合双语教学模式推介:以沈阳农业大学花卉栽培技术课程为例[J].沈阳农业大学学报(社会科学版), 2012(1):87–91.SUN H M, WANG J X, WANG C X, et al. An introduction of a bilingual teaching mode that combines widening student international vision and developing his ability to innovate:The flower culture technique course offered by Shenyang Agricultural University taken for example[J]. Journal of Shenyang Agricultural University(Social Sciences Edition), 2012(1):87–91.(in Chinese)

[8]黄玉波,刘晓宇,徐晓秋.“机器视觉原理及应用”全英文课程建设实践及其思政融合[J].工业和信息化教育, 2024(10):34–38.HUANG Y B, LIU X Y, XU X Q. Construction and practice of a full-English course on“Principles and Applications of Machine Vision” with integration of ideological and political education[J].Industry and Information Technology Education, 2024(10):34–38.(in Chinese)

[9]牟鹏.全球化背景下高校全英文教学的现状及启示[J].中国高教研究, 2017(9):99–104.MOU P. The present situation and inspiration of EMI in universities under the background of globalization[J].China Higher Education Research, 2017(9):99–104.(in Chinese)

[10]杨罗雨.学科交叉融合对研究生创新思维的影响研究:以N大学理工科硕士研究生为例[D].南昌:南昌大学, 2024.YANG L Y. A Study on the impact of interdisciplinary integration on innovative thinking of graduate students:A case study of master's students in science and engineering at N University[D].Nanchang:Nanchang University, 2024.

[11]詹泽慧,李彦刚,高瑞翔.论创新人才培养的文化导向性:试寻中国特色科创教育之发展路向[J].中国电化教育, 2024(9):9–18.ZHAN Z H, LI Y G, GAO R X. The guiding role of culture in developing innovative talents:The enlightenment of science and innovation education with Chinese characteristics[J].China Educational Technology, 2024(9):9–18.(in Chinese)

[12]同家呈,王志平,窦淑贤,等.秸秆还田与少免耕协同效应研究进展[C]//第二十届中国作物学会学术年会, 2023:398.TONG J C, WANG Z P, DOU S X, et al. Research progress on synergistic effects of straw returning and minimum/no-tillage[C]//Proceedings of the 20th Annual Conference of the Chinese Crop Society, 2023:398.(in Chinese)

[13]项南.我国的农业机械化一定要实现:从欧美农业机械化的现状谈起[J].农业机械, 1979(1):2–7.XIANG N. The inevitable realization of agricultural mechanization in China:From the current status of agricultural mechanization in Europe and America[J]. Agricultural Machinery,1979(1):2–7.(in Chinese)

[14]苏清斌.高职院校模拟商务谈判实践教学探索[J].文教资料,2015(15):162–163.SU Q B. Exploration of practical teaching in simulated business negotiation in vocational colleges[J]. Data of Culture and Education,2015(15):162–163.(in Chinese)

[15]白雯鹏.无人机在现代智慧农场建设中的应用[J].中国科技纵横, 2024(16):17–19.BAI W P. The application of drones in modern smart farm construction[J]. China Science&Technology Panorama Magazine,2024(16):17–19.(in Chinese)

[16]李振声.小麦远缘杂交新品种:小偃6号[J].山西农业科学,2025, 53(2):1–2.LI Z S. New wheat wide hybridization variety:Xiaoyan 6[J]. Journal of Shanxi Agricultural Sciences, 2025, 53(2):1–2.(in Chinese)

(1)https://www.yidaiyilu.gov.cn/p/27335.html

(1)http://www.moe.gov.cn/srcsite/A20/s7068/201608/t20160811_274679.html.

Basic Information:

DOI:10.16791/j.cnki.sjg.2025.09.004

China Classification Code:S3-4;G642

Citation Information:

[1]孟敏,袁伟斌,李论,等.作物学“一带一路”联合实验室创新人才培养模式探索[J].实验技术与管理,2025,42(09):21-26.DOI:10.16791/j.cnki.sjg.2025.09.004.

Fund Information:

西北农林科技大学实验室安全与条件保障处揭榜挂帅项目(SY20250104)

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