Characterizing faculty motivation to implement three-dimensional learning

被引:0
|
作者
Nelson P.C. [1 ]
Matz R.L. [2 ]
Bain K. [3 ]
Fata-Hartley C.L. [1 ]
Cooper M.M. [1 ]
机构
[1] Michigan State University, East Lansing, MI
[2] University of Michigan, Ann Arbor, MI
[3] Pepperdine University, Malibu, CA
基金
美国国家科学基金会;
关键词
Expectancy-value theory; Motivation; Professional development; Three-dimensional learning; Undergraduate education;
D O I
10.1186/s43031-023-00079-0
中图分类号
学科分类号
摘要
The National Research Council’s Framework for K-12 Science Education and the subsequent Next Generation Science Standards have provided a widespread common language for science education reform over the last decade. These efforts have naturally been targeted at the K-12 levels, but we have argued that the three dimensions outlined in these documents—scientific practices, disciplinary core ideas, and crosscutting concepts (together termed three-dimensional learning)—are also a productive route for reform in college-level science courses. However, how and why college-level faculty might be motivated to incorporate three-dimensional learning into their courses is not well understood. Here, we report a mixed-methods study of participants in an interdisciplinary professional development program designed to support faculty in developing assessments and instruction aligned with three-dimensional learning. One cohort of faculty (N = 8) was interviewed, and four cohorts of faculty (N = 33) were surveyed. Using expectancy-value theory as an organizational framework, we identified themes of perceived values and costs that participants discussed in implementing three-dimensional learning. Based on a cluster analysis of all survey participants’ motivational profiles, we propose that these themes apply to the broader population of participants in this program. We recommend specific interventions to improve faculty motivation for implementing three-dimensional learning: emphasizing the utility value of three-dimensional learning in effecting positive learning gains for students; drawing connections between the dimensions of three-dimensional learning and faculty’s disciplinary identities; highlighting scientific practices as a key leverage point for faculty ability beliefs; minimizing cognitive dissonance for faculty in understanding the similarities and differences between the three dimensions; focusing on assessment writing as a keystone professional development activity; and aligning local evaluation practices and promotion policies with the 3DL framework. © The Author(s) 2023.
引用
收藏
相关论文
共 50 条
  • [31] Probabilistic learning of three-dimensional object models
    Provan, G
    Langley, P
    Binford, TO
    IMAGE UNDERSTANDING WORKSHOP, 1996 PROCEEDINGS, VOLS I AND II, 1996, : 1403 - 1413
  • [32] Learning by observation without three-dimensional reconstruction
    Asada, M
    Yoshikawa, Y
    Hosoda, K
    INTELLIGENT AUTONOMOUS SYSTEMS 6, 2000, : 555 - 560
  • [33] Machine learning boosts three-dimensional bioprinting
    Ning, Hongwei
    Zhou, Teng
    Joo, Sang Woo
    INTERNATIONAL JOURNAL OF BIOPRINTING, 2023, 9 (04)
  • [34] Social presence and motivation in a three-dimensional virtual world: An explanatory study
    Yilmaz, Rabia M.
    Topu, F. Burcu
    Goktas, Yuksel
    Coban, Murat
    AUSTRALASIAN JOURNAL OF EDUCATIONAL TECHNOLOGY, 2013, 29 (06) : 823 - 839
  • [35] Three-dimensional modes of three-dimensional microlasers
    Sobeshchuk, N.
    Guidry, M.
    Bittner, S.
    Decanini, D.
    Baron, O.
    Scheuer, J.
    Zyss, J.
    Lebental, M.
    2017 CONFERENCE ON LASERS AND ELECTRO-OPTICS EUROPE & EUROPEAN QUANTUM ELECTRONICS CONFERENCE (CLEO/EUROPE-EQEC), 2017,
  • [36] Three-dimensional diffuser and three-dimensional speckles
    A. P. Vladimirov
    Technical Physics, 1998, 43 : 1454 - 1458
  • [37] Three-dimensional diffuser and three-dimensional speckles
    Vladimirov, AP
    TECHNICAL PHYSICS, 1998, 43 (12) : 1454 - 1458
  • [38] Developing a learning progression for three-dimensional learning of the patterns of evolution
    Wyner, Yael
    Doherty, Jennifer H.
    SCIENCE EDUCATION, 2017, 101 (05) : 787 - 817
  • [39] Grid computing in order to implement a three-dimensional magnetohydrodynamic equilibrium solver for plasma confinement
    Gomez-Iglesias, Antonio
    Vega-Rodriguez, Miguel A.
    Castejon-Magana, Francisco
    del Solar, Manuel Rubio
    Montes, Miguel Cardenas
    PROCEEDINGS OF THE 16TH EUROMICRO CONFERENCE ON PARALLEL, DISTRIBUTED AND NETWORK-BASED PROCESSING, 2008, : 435 - +
  • [40] Characterizing the feedback that learning assistants give to faculty
    Indukuri, Sadhana
    Quan, Gina M.
    2022 PHYSICS EDUCATION RESEARCH CONFERENCE (PERC), 2022, : 255 - 260