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Modeling undergraduate STEM students’ satisfaction with their programs in China: an empirical study

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Abstract

Several major reform areas attempted by ‘New Engineering Education’ (NEE), China’s most recent engineering education reform initiative at university level, are examined for their direct and indirect impact on Chinese STEM-major students’ satisfaction with their programs in this study. With data collected from a sample of 619 Chinese undergraduate students, the measurement and structural models both display good model fits. The structural results indicate that course satisfaction fully mediates the impact of classroom instruction method on program satisfaction, while partially mediates the impact of support from faculty members and alternative assessment methods on program satisfaction. The impact of resource and service on program satisfaction, however, is direct without any mediating effect in between. Multigroup analyses show that the impact of alternative assessment methods on course satisfaction is significantly stronger for first-tier university students than for non-first-tier university students. Furthermore, there is stronger impact of resource and service on program satisfaction for junior and senior students than for freshmen and sophomores. Practical implications are discussed.

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Notes

  1. Matthew effect refers to the phenomenon that those who already have status are often placed in situations where they gain more, and those that do not have status typically struggle to achieve more. (Source: https://study.com/academy/lesson/matthew-effect-definition-examples.html)

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Appendix: factors and items

Appendix: factors and items

Classroom Instruction Method 课程授课方式 (6 items).

(Composite Reliability = 0.888, M = 3.952, SD = 1.152).

  1. 1.

    Instructors generally teach in laboratories or praxis bases.

    授课主要在实验室、实习或实训场所进行.

  2. 2.

    Instructors generally teach via the Internet.

    授课主要在互联网进行.

  3. 3.

    Instructors generally adopt ‘group learning’ to facilitate teaching and learning in the class.

    授课教师会普遍采用 “小组学习”的方式开展课堂教学.

  4. 4.

    Instructors generally adopt simulation software, application programs, and technology of virtual reality(VR) or augmented reality (AR) to deliver course instruction.

    授课教师会普遍利用模拟软件、应用程序、虚拟现实技术 (VR), 增强现实技术 (AR) 等信息技术开展课堂教学.

  5. 5.

    Instructors generally adopt flipped classroom to deliver course instruction.

    授课教师会普遍采用“翻转课堂”模式开展教学.

  6. 6.

    Instructors generally invite industry or business experts to teach or lecture in class.

    授课教师会普遍聘请行业/企业专家到课堂授课或开设讲座.

Support from Faculty Members 教师对学生的学业支持情况 (7 items).

(Composite Reliability = .912, M = 4.797, SD = .859).

  1. 1.

    Instructors generally value the importance of students’ academic performances and improvements.

    教师普遍重视帮助学生提高学习成绩和效果.

  2. 2.

    Instructors generally are willing to keep communications with students in and outside class.

    教师普遍愿意与学生保持课堂及课外的持续交流.

  3. 3.

    Instructors generally encourage students to innovate ways of learning and overcome learning barriers.

    教师普遍会鼓励学生创新学习方式、突破学业困难.

  4. 4.

    Instructors generally reward students for their innovative ways of thinking and academic achievements.

    教师普遍会奖励学生的创造性思维和学习成就.

  5. 5.

    Instructors generally have high expectations of students in academic performances.

    教师普遍对学生有较高的学业期待.

Alternative Assessment Methods 其他学业评价方式 (5 items).

(Composite reliability = .877, M = 4.777, SD = .856).

  1. 1.

    Multiple assessment methods are used to assess students’ learning outcomes besides exams (e.g., using paper exams, oral exams, thesis, praxis capability test, etc.)

    除笔试外, 学生专业课学习评价方式多元多样 (如包括笔试、口试、论文、实践能力测试等)

  2. 2.

    Group projects generally influence students’ final course grades.

    小组作业对各门课程的学业成绩普遍具有影响.

  3. 3.

    Praxis bases or enterprises generally give feedbacks to students’ professional skills and applying abilities.

    实习基地或企业会对学生的专业应用能力提供较为专业的回馈.

  4. 4.

    Supplementary exams are as strict as first exams for a course.

    补考会像首次考试一样严格.

  5. 5.

    The assessment system motivates students’ learning.

    评价体系确实有助于激励学生认真学习.

Resources and Service 学校资源与服务 (5 items).

(Composite Reliability = .907, M = 4.611, SD = .951).

  1. 1.

    I can get access to necessary hardware resources (e.g., facilities and devices) from the university when needed.

    我在需要时可以及时从学校获得必要的硬件资源 (设备)

  2. 2.

    I can get access to necessary soft resources (e.g., service) from the university when needed.

    我在需要时可以及时从学校获得相关的软件资源 (服务)

  3. 3.

    I’m satisfied with the courses and career counseling service provided by the university.

    我对学校开设的专业课程及就业指导建议感到满意.

  4. 4.

    I’m satisfied with the medical, psychological service and student welfares provided by the university.

    我对学校提供的医疗、福利及心理咨询服务感到满意.

  5. 5.

    I benefit a great deal from library resources at the university.

    学校图书馆的资源对我的专业课学习很有帮助.

Course Satisfaction 对课程的满意情况 (3 items).

(Composite Reliability = .896, M = 4.346, SD = 1.036).

  1. 1.

    After the courses, I generally miss the courses very much.

    课程结束后, 我总体上对课程流连忘返, 意犹未尽。

  2. 2.

    After the courses, I master the theories and knowledge structure of most courses.

    课程结束后, 我掌握了大多数课程的知识体系和理论基础。

  3. 3.

    After the courses, I can proficiently apply what I learn into practice or R&D.

    课程结束后, 我能够熟练地将所学应用到实践或者研发中。

Program Satisfaction 对专业的满意情况 (3 items).

(Composite Reliability = .891, M = 4.610, SD = 1.006).

  1. 1.

    I’m very satisfied with the program in which I’m enrolled provided by the university.

    本校本专业让我非常满意.

  2. 2.

    I’m willing to recommend the program in which I’m enrolled to prospective students.

    我愿意将本校本专业推荐给未来的求学者.

  3. 3.

    The program provided by the university makes me willing to pursue further studies in my major or field.

    本校本专业使我愿意在相关领域进一步学习深造.

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Zhuang, T., Cheung, A.C.K. & Tam, W. Modeling undergraduate STEM students’ satisfaction with their programs in China: an empirical study. Asia Pacific Educ. Rev. 21, 211–225 (2020). https://doi.org/10.1007/s12564-019-09620-1

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