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Slavit, David; Lesseig, Kristin; Simpson, Amber – Journal of Pedagogical Research, 2022
The goal of this paper is to share an analytic framework for understanding Students? Ways of Thinking (SWoT) in STEM-rich learning environments. Before revealing our refined coding framework, we detail the nature of our collaborations and the various analytic decisions that led to its formation. These collaborations supported our collective…
Descriptors: Thinking Skills, STEM Education, Cognitive Processes, Models
Hanli Geyser – ACM Transactions on Computing Education, 2024
Like digital technologies themselves, programming education is embedded in the colonial matrix of power, and access to programming knowledge demands immersion in the epistemologies of the Global North. While there is a growing body of work exploring ways to decolonise programming education, far more needs to be done. Current research focuses on…
Descriptors: Computer Science Education, Decolonization, Programming, Power Structure
Spencer, Deborah; Mark, June; Reed, Kristen; Goldenberg, Paul; Coleman, Kate; Chiappinelli, Kathryn; Kolar, Zachary – Mathematics Teacher: Learning and Teaching PK-12, 2023
As computer-science-for-all initiatives continue to grow, many schools are looking for ways to introduce computer science skills and thinking to elementary-age children. Some initiatives have focused on coding as its own endeavor, not integrated with other subjects like mathematics, science, or literacy. Increasingly, developers and researchers…
Descriptors: Computer Science Education, Teaching Methods, Thinking Skills, Elementary School Students
David DeLiema; Jeffrey K. Bye; Vijay Marupudi – ACM Transactions on Computing Education, 2024
Learning to respond to a computer program that is not working as intended is often characterized as finding a singular bug causing a singular problem. This framing underemphasizes the wide range of ways that students and teachers could notice discrepancies from their intention, propose causes of those discrepancies, and implement interventions.…
Descriptors: Computer Software, Troubleshooting, Intention, Intervention
Hutchison, Amy; Evmenova, Anya S. – Intervention in School and Clinic, 2022
States increasingly are adopting computer science standards to help students develop coding and computational thinking skills. In an effort to support teachers in introducing computer science content to their students with high-incidence disabilities, a new model, computer science integration planning plus universal design for learning (CSIP+),…
Descriptors: Computer Science Education, Students with Disabilities, Access to Education, Computation
Bartholomew, Scott R.; Zhang, Liwei; Weitlauf, John – Technology and Engineering Teacher, 2018
Computational thinking, programming, coding, and analytical thinking are high-demand skills in today's educational and occupational arenas (Wing, 2006 & 2014). In addition to these skills, students need the ability to think creatively, work collaboratively, and develop design solutions to complex problems to succeed in school and a…
Descriptors: Engineering, Design, Coding, Thinking Skills
Gandolfi, Enrico; Ferdig, Richard E. – International Journal of Information and Learning Technology, 2018
Purpose: The purpose of this paper is to present computational algorithms as potential bearers of biases and also tools for reflection, and to advance strategies for engaging with them in education. Design/methodology/approach: Three example games (Dwarf Fortress, RimWorld, FreeCiv) are provided for introducing algorithms as meaningful and…
Descriptors: Mathematics, Computation, Teaching Methods, Coding
Gough, John – Australian Primary Mathematics Classroom, 2018
In fact, ever since Seymour Papert (famous in his later years for constructionism, a learning theory that married conceptual constructivism with concrete experience) created Logo programming, many schools have been coding using Logo, the educational computer programming software that has the famous 'turtle' on the computer screen. Importantly,…
Descriptors: Coding, Programming, Programming Languages, Computer Software
Apple, Lillian; Baunach, John; Connelly, Glenda; Gahlhoff, Sonia; Romanowicz, Colleen Megowan; Vieyra, Rebecca Elizabeth; Walker, Lucas – Physics Teacher, 2021
Multiple initiatives contend that all students should master computational thinking, including the "Next Generation Science Standards, the K-12 Framework for Computational Thinking," and Code.org. In turn, many physics teachers have begun to explore a variety of approaches to integrating computational modeling through programming. These…
Descriptors: Science Instruction, High Schools, Secondary School Science, Physics
Brigas, Carlos Jorge; Figueiredo, José Alberto Quitério – Research in Social Sciences and Technology, 2019
In recent years, there has been an increased effort to introduce coding and computational thinking in early childhood education. In accordance with the international trend, programming has become an increasingly growing focus in European education. The idea of introducing computer programming in the classroom dates back to the late 1960s. The…
Descriptors: Computer Science Education, Thinking Skills, Coding, Elementary School Students
Özdemir, Selçuk – International Electronic Journal of Elementary Education, 2019
The history of innovation is constructed by solo thinkers and collaborative makers. The word innovation here comprises changes on technology, art and science. This article aims to reflect the way successful inventors, artists and scientists followed to do whatever they succeeded so that the coming generations can learn from predecessors' positive…
Descriptors: Entrepreneurship, Cooperation, Innovation, Thinking Skills
Estapa, Anne; Hutchison, Amy; Nadolny, Larysa – Technology and Engineering Teacher, 2018
Computational thinking is an important and necessary way of thinking for computer programmers and other professionals in science, technology, engineering, and mathematics (STEM). Research on emerging practices around computational thinking that is developed through coding initiatives in schools reports that elementary children typically learn how…
Descriptors: Elementary Education, Thinking Skills, Teaching Methods, Computer Oriented Programs
Steinke, Pamela; Fitch, Peggy – Research & Practice in Assessment, 2017
Bias is part of the human condition and becoming aware of how to avoid bias will help to ensure greater accuracy in the work of assessment. In this paper the authors discuss three different theoretical frameworks that can be applied when assessing student work for cognitive skills such as critical thinking and problem solving. Each of the…
Descriptors: Student Evaluation, Cognitive Ability, Critical Thinking, Thinking Skills
Good, Jonathon; Keenan, Sarah; Mishra, Punya – Journal of Computers in Mathematics and Science Teaching, 2016
The popular press is rife with examples of how students in the United States and around the globe are learning to program, make, and tinker. The Hour of Code, maker-education, and similar efforts are advocating that more students be exposed to principles found within computer science. We propose an expansion beyond simply teaching computational…
Descriptors: Aesthetics, Computer Science Education, Thinking Skills, Computer Literacy
Drachova, Svetlana V.; Hallstrom, Jason O.; Hollingsworth, Joseph E.; Krone, Joan; Pak, Rich; Sitaraman, Murali – ACM Transactions on Computing Education, 2015
Undergraduate computer science students need to learn analytical reasoning skills to develop high-quality software and to understand why the software they develop works as specified. To accomplish this central educational objective, this article describes a systematic process of introducing reasoning skills into the curriculum and assessing how…
Descriptors: Undergraduate Students, Computer Science Education, Logical Thinking, Thinking Skills
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