Construction and Practice of Outcomes-Based Education-Guided Project-Driven Teaching Model for Engineering Economics in Application-Oriented Undergraduate Universities
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Abstract
Engineering Economics is a core course for the Engineering Cost major in application-oriented undergraduate universities, yet traditional teaching often suffers from a theory-practice gap, low student participation, and polarized academic performance. Guided by Outcomes-Based Education (OBE), this study developed a three-in-one project-driven teaching model integrating modular theory, whole-process project practice, and diversified assessment. Theoretical content was reorganized into four application modules within a closed-loop ``lecture-practice-assessment'' process. A real local project---the renovation of an unfinished building into affordable rental housing in Zhaoqing City---served as the practical carrier, incorporating differentiated parameters, rotating group roles, and full-process Excel modeling. Formative assessment accounted for 40% of the total grade. The model was implemented over three semesters with 134 Engineering Cost students from the 2022--2024 cohorts at Guangdong Technology College. After the reform, the average course score increased from 70.38 to 85.65, the good and excellent rate from 31.4% to 83.9%, and the failure rate decreased from 25.5% to 3.2%. Moreover, 87.5% of students could construct dynamically linked financial models, while the classroom head-up rate in the reform class exceeded 85%, compared with approximately 50%--60% in the concurrent control class. The results demonstrate that the model effectively enhances learning outcomes and practical engineering economic analysis skills, providing a replicable approach for similar courses in application-oriented undergraduate universities, although further multi-institutional validation is needed.
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References
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Cite This Article
TY - JOUR AU - Cai, Xianquan AU - Zheng, Xuejiao PY - 2026 DA - 2026/08/26 TI - Construction and Practice of Outcomes-Based Education-Guided Project-Driven Teaching Model for Engineering Economics in Application-Oriented Undergraduate Universities JO - Frontiers in Educational Innovation and Research T2 - Frontiers in Educational Innovation and Research JF - Frontiers in Educational Innovation and Research VL - 2 IS - 3 SP - 58 EP - 71 DO - 10.62762/FEIR.2026.394100 UR - https://www.icck.org/article/abs/FEIR.2026.394100 KW - OBE KW - engineering economics KW - project-driven teaching KW - application-oriented undergraduate KW - excel modeling KW - engineering cost AB - Engineering Economics is a core course for the Engineering Cost major in application-oriented undergraduate universities, yet traditional teaching often suffers from a theory-practice gap, low student participation, and polarized academic performance. Guided by Outcomes-Based Education (OBE), this study developed a three-in-one project-driven teaching model integrating modular theory, whole-process project practice, and diversified assessment. Theoretical content was reorganized into four application modules within a closed-loop ``lecture-practice-assessment'' process. A real local project---the renovation of an unfinished building into affordable rental housing in Zhaoqing City---served as the practical carrier, incorporating differentiated parameters, rotating group roles, and full-process Excel modeling. Formative assessment accounted for 40% of the total grade. The model was implemented over three semesters with 134 Engineering Cost students from the 2022--2024 cohorts at Guangdong Technology College. After the reform, the average course score increased from 70.38 to 85.65, the good and excellent rate from 31.4% to 83.9%, and the failure rate decreased from 25.5% to 3.2%. Moreover, 87.5% of students could construct dynamically linked financial models, while the classroom head-up rate in the reform class exceeded 85%, compared with approximately 50%--60% in the concurrent control class. The results demonstrate that the model effectively enhances learning outcomes and practical engineering economic analysis skills, providing a replicable approach for similar courses in application-oriented undergraduate universities, although further multi-institutional validation is needed. SN - 3068-5664 PB - Institute of Central Computation and Knowledge LA - English ER -
@article{Cai2026Constructi,
author = {Xianquan Cai and Xuejiao Zheng},
title = {Construction and Practice of Outcomes-Based Education-Guided Project-Driven Teaching Model for Engineering Economics in Application-Oriented Undergraduate Universities},
journal = {Frontiers in Educational Innovation and Research},
year = {2026},
volume = {2},
number = {3},
pages = {58-71},
doi = {10.62762/FEIR.2026.394100},
url = {https://www.icck.org/article/abs/FEIR.2026.394100},
abstract = {Engineering Economics is a core course for the Engineering Cost major in application-oriented undergraduate universities, yet traditional teaching often suffers from a theory-practice gap, low student participation, and polarized academic performance. Guided by Outcomes-Based Education (OBE), this study developed a three-in-one project-driven teaching model integrating modular theory, whole-process project practice, and diversified assessment. Theoretical content was reorganized into four application modules within a closed-loop ``lecture-practice-assessment'' process. A real local project---the renovation of an unfinished building into affordable rental housing in Zhaoqing City---served as the practical carrier, incorporating differentiated parameters, rotating group roles, and full-process Excel modeling. Formative assessment accounted for 40\% of the total grade. The model was implemented over three semesters with 134 Engineering Cost students from the 2022--2024 cohorts at Guangdong Technology College. After the reform, the average course score increased from 70.38 to 85.65, the good and excellent rate from 31.4\% to 83.9\%, and the failure rate decreased from 25.5\% to 3.2\%. Moreover, 87.5\% of students could construct dynamically linked financial models, while the classroom head-up rate in the reform class exceeded 85\%, compared with approximately 50\%--60\% in the concurrent control class. The results demonstrate that the model effectively enhances learning outcomes and practical engineering economic analysis skills, providing a replicable approach for similar courses in application-oriented undergraduate universities, although further multi-institutional validation is needed.},
keywords = {OBE, engineering economics, project-driven teaching, application-oriented undergraduate, excel modeling, engineering cost},
issn = {3068-5664},
publisher = {Institute of Central Computation and Knowledge}
}
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