An Instrument for Observing Teams to Explicate Regulation Strategies in Computer Science

Motivation and Objectives . Informed by a long tradition of studying regulation strategies in general education, recent work in Computing Education Research has highlighted the importance and effects of such strategies in computing-related classrooms as well. Most of this work has focused on self-regulation of individuals or dyads, for example, in pair programming. Little, however, is known about regulation in larger groups which naturally occur in, for example, active-learning classrooms, Software Engineering lab courses, or capstone projects. Moreover, research involving regulation strategies, including, but not limited to computing contexts, predominantly relies on self-reported data. While recent work has advocated using trace data from learning management systems to assess self-regulation strategies more objectively, such systems cannot capture regulation as it occurs in many versions of group work, for example, in group discussions and interactions in a classroom. We thus aim to develop an observation instrument that can help researchers to explicate regulation strategies in Computer Science and, more generally, computing-related group work. Together with self-reported data and—where applicable—trace data, such an instrument would facilitate obtaining a more complete picture of where and how regulation strategies emerge and develop. Methods . Using data from semi-structured interviews with students from two capstone projects, we conducted a deductive qualitative analysis to add concrete descriptors to Miller and Hadwin’s framework for regulated learning. We refined the resulting coding scheme into an observation instrument that was field-tested for saturation, ease-of-use, and reliability in a Software Engineering lab course. Results . Our main result is OTTERS , an instrument for observing teams to explicate regulation strategies in computing contexts. Initial field-testing indicates that this instrument, despite its granularity, is easy to use and reliable. Furthermore, first proof-of-concept observations lead to patterns of regulation activities that are clearly distinguishable, thus suggesting construct validity. Discussion . Whereas previous work focused on self-reported data or trace data obtained from learning management systems, our observation instrument adds another facet to assessing regulation strategies. Compared to self-reported data, it trades off the bias of possibly unreliable self-assessment and the limitations of external observations. Compared to analyses based on high-resolution, objective log data, it yields observations on a coarser granularity but is applicable not only to self-regulation but to socially shared regulation and co-regulation as well. Our observation instrument thus complements the current methodological portfolio of assessing regulation strategies in Computer Science and related contexts.

Authors

Institutions

Publication Details

Journal
ACM Transactions on Computing Education
Published
2025-12-04
DOI
https://doi.org/10.1145/3779308
Primary Topic
Innovative Teaching and Learning Methods
Type
article
Field-Weighted Citation Impact
0.00
Controls
|||
ALL TIME
JAN
FEB
MAR
APR
MAY
JUN
JUL
AUG
SEP
OCT
article

An Instrument for Observing Teams to Explicate Regulation Strategies in Computer Science

Jan Vahrenhold, Carolin Wortmann
ACM Transactions on Computing Education
Innovative Teaching and Learning Methods
article

An Instrument for Observing Teams to Explicate Regulation Strategies in Computer Science

Jan Vahrenhold, Carolin Wortmann
article en

Abstract

Motivation and Objectives . Informed by a long tradition of studying regulation strategies in general education, recent work in Computing Education Research has highlighted the importance and effects of such strategies in computing-related classrooms as well. Most of this work has focused on self-regulation of individuals or dyads, for example, in pair programming. Little, however, is known about regulation in larger groups which naturally occur in, for example, active-learning classrooms, Software Engineering lab courses, or capstone projects. Moreover, research involving regulation strategies, including, but not limited to computing contexts, predominantly relies on self-reported data. While recent work has advocated using trace data from learning management systems to assess self-regulation strategies more objectively, such systems cannot capture regulation as it occurs in many versions of group work, for example, in group discussions and interactions in a classroom. We thus aim to develop an observation instrument that can help researchers to explicate regulation strategies in Computer Science and, more generally, computing-related group work. Together with self-reported data and—where applicable—trace data, such an instrument would facilitate obtaining a more complete picture of where and how regulation strategies emerge and develop. Methods . Using data from semi-structured interviews with students from two capstone projects, we conducted a deductive qualitative analysis to add concrete descriptors to Miller and Hadwin’s framework for regulated learning. We refined the resulting coding scheme into an observation instrument that was field-tested for saturation, ease-of-use, and reliability in a Software Engineering lab course. Results . Our main result is OTTERS , an instrument for observing teams to explicate regulation strategies in computing contexts. Initial field-testing indicates that this instrument, despite its granularity, is easy to use and reliable. Furthermore, first proof-of-concept observations lead to patterns of regulation activities that are clearly distinguishable, thus suggesting construct validity. Discussion . Whereas previous work focused on self-reported data or trace data obtained from learning management systems, our observation instrument adds another facet to assessing regulation strategies. Compared to self-reported data, it trades off the bias of possibly unreliable self-assessment and the limitations of external observations. Compared to analyses based on high-resolution, objective log data, it yields observations on a coarser granularity but is applicable not only to self-regulation but to socially shared regulation and co-regulation as well. Our observation instrument thus complements the current methodological portfolio of assessing regulation strategies in Computer Science and related contexts.

ACM Transactions on Computing EducationVol. 26(2)
University of Münster (DE), FH Münster University of Applied Sciences (DE)
Openalex Percentile: Top 57%
Innovative Teaching and Learning Methods
AI Navigator

Ask Laika to Summarize, Analyze, and Connect papers live on the map.

Summarize Papers & Methodologies

Extract key findings, datasets, and comparative methods across publications.

Benchmark Rankings & Visual Analytics

Rank top research institutions, authors, funders, topics, and journals by Field-Weighted Citation Impact (FWCI) and paper volume with instant charts.

Connect Distant Disciplines

Bridge topological clusters on the map to find hidden collaborative intersections.