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Generation Z members use their smart devices as part of their everyday routine. Teaching methods may need to be updated to make learning materials more interesting for this generation. This paper suggests gamifying computer science subjects to enhance the learning experience for this generation. Additionally, many students face difficulty in understanding computer science materials and algorithms. Gamifying computer science education is one of the suggested teaching methods to simplify topics and increase students' engagement. Moreover, the field of computer science is dominated by males. The use of gamification could increase women's interest in this field. This paper demonstrates different techniques that were developed by the researchers to employ gamification in teaching computer science topics. The data was collected at the end of the two different courses. Results show that students enjoyed the suggested teaching method and found it useful. This paper also demonstrates two tools and their gamification elements. These tools were developed by the researchers to help people learn computer programming and information security. [ABSTRACT FROM AUTHOR]

This paper explores the use of a constructivist 21st-century learning model to implement a week-long workshop, delivered as a “hackathon,” to encourage preuniversity teenagers to pursue careers in STEM, with a particular emphasis on computer science. For Irish preuniversity students, their experience of computing can vary from word processing to foundational programming, and while many schools are looking to introduce more ICT into the classroom, many students are left with a narrow view of what computer science is all about. Twenty-one students participated in the workshop and completed pre- and post-surveys, and a free word association exercise in the areas of computing and careers in computing. Analysis revealed that students’ motivation to learn about the design process, programming, inputs and outputs, and wearable technology (wearables)/Internet of Things (IoT) increased following participation. There were also increases in confidence in inputs and outputs and wearables/IoT following participation, as well as changes in the computing word associations, with students associating computing more with computer programming terms rather than general terms such as the Internet. The findings suggest that the combination of a hackathon event and a model for 21st century learning can be effective in motivating and increasing the self-efficacy of preuniversity teenagers in a number of emerging technological contexts such as IoT and wearables. [ABSTRACT FROM PUBLISHER]

The issue of plagiarism is discussed in the context of university education in disciplines related to computing. The focus is therefore mainly on software plagiarism. First, however, a case is made for the claim that the most important reason that plagiarism cannot be tolerated lies in the essence of the concept of a university as it is rooted in the Western cultural tradition. The main contribution of this paper is in providing firsthand insight into students' views on some of the delicate questions related to student plagiarism. However, this paper presents views from both sides of the question, including the views of staff members. This paper is quite unique in that it is coauthored by students who provide independent comments and recommendations. [ABSTRACT FROM PUBLISHER]

Computer science courses typically incorporate integrated training in software engineering, which includes learning how to reuse existing code libraries in new programs. This commonly presents a need to use the libraries' application programming interfaces (APIs) during project-based learning activities. The students learn these APIs with little support from the instructor. Instead, they primarily learn from whatever code examples they find on the Web—a scattershot approach that is slow, frustrating, and sometimes fruitless. Preliminary work investigated an improved approach that provides students with intelligent API tutors. This interactive educational content walks students through code examples selectively harvested from the Web. This approach increased students' knowledge of API method names, but a key pedagogical challenge remained: Students still lacked an understanding of common problems and surprises that they might encounter when using APIs in practice. Perhaps even more crucially, the prior statistical study provided no information about how students would perceive and accept the intelligent tutor approach, when given a choice. Therefore, this paper presents an enhanced approach that augments intelligent tutors with selected information from online FAQs and online open-source code, thereby providing more explanation and context about how to use APIs in practice. A qualitative study assessed student perceptions of the system's usability as well as suggestions for improvement, revealing that 100% of students considered the approach to be useful. A key implication is that providing information from online FAQs, related articles, and open-source code could facilitate computer science students' learning how to use APIs. [ABSTRACT FROM AUTHOR]

Abstract: It is a unique challenge to teach programming and application development to students pursuing an IT degree other than computer science. Using simple visual computing as a medium to teach programming can be very helpful in such situations as it enables programmes that produce pictures rather than raw text and data. This paper describes a semester-long experience of using image processing as the theme in a course to teach programming and program design to students of information systems. Students progressively built a fairly complete image processing application from scratch in a bottom-up fashion using Java. They first concentrated on using low-level constructs like arrays and implemented several operations on them, and then supplemented their programs with features like a GUI complete with “undo–redo” features and capabilities to handle most standard image file formats. Not only did this approach satisfy all the objectives of a typical programming course but also enabled students to develop meaningful applications from scratch with “standard” features. Our classroom was composed of a mix of undergraduate and graduate students lacking sufficient programming background. A comparative analysis shows improvement in student performance when using image processing rather than not. With minor variations, our approach can be fit to courses for other majors where programming is considered useful but not critical. [Copyright &y& Elsevier]