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This paper describes a one-year introductory robotics course sequence focusing on computational aspects of robotics for third- and fourth-year students. The key challenges this curriculum addresses are scalability, i.e., how to teach a robotics class with a limited amount of hardware to a large audience,student assessment, i.e., how to assess the students' success on robotic design and programming assignments, and depth versus breadth, i.e., how to down-select content from the interdisciplinary field of robotics to computer science students. This is achieved by combining simulation-based laboratory assignments, which can be conducted anywhere and anytime, with compatible hardware devices that allow a seamless transition from simulation to real hardware, and a focus on performance-based assessment with an open-ended final project/competition. Content learning and retention is assessed for a subset of students who successfully went through the proposed curriculum. All class materials as well as hardware—in particular, a low-cost, highly articulated robotic arm developed for teaching advanced robotics concepts—are open-source and available online. [ABSTRACT FROM PUBLISHER]

Constructivist approaches to computer science education emphasize that as well as knowledge, thinking skills and processes are involved in active knowledge construction. K–12 computer science curricula must not be based on fashions and trends, but on contents and processes that are observable in various domains of computer science, that can be taught at every intellectual level, that will stay relevant in the longer term, and that are related to everyday language and/or thinking. Only recently, two empirically determined lists, one of central content concepts (algorithm, computer, data, system, etc.) and another of central process concepts (problem solving and problem posing, analyzing, classifying, generalizing, etc.), have become available for computer science education. This paper tackles the problem of finding content and process concepts to be taught in combination. Computer science experts are surveyed in order to identify combinations of content and process concepts—so-called blocks—that are relevant to computer science education. By using cluster analyses, 15 central blocks for teaching computer science in schools are determined. The results of this study may serve as a reference system for the systematic design of instruction in K–12 computer science education. [ABSTRACT FROM AUTHOR]

This paper describes a practical experience of adapting the teaching of a course in Computer Technology (CT) to the new demands of the European Higher Education Area (EHEA). CT is a core course taught in the first year of the degree program Technical Engineering in Management Computing in the Faculty of Computer Science at the University of A Coruña (UDC), Spain. The contents of this course are mainly devoted to the design of digital systems. The main purpose of the adaptation has been to focus more on students, clearly defining the abilities they will develop during the course and suggesting activities that facilitate the development of those abilities. The aim of this work is to describe how this adaptation was performed, the materials and activities prepared, the difficulties encountered, the goals achieved and the response of students and teachers to these changes. [ABSTRACT FROM AUTHOR]