Teaching and learning in information retrieval

A literature review of pedagogical methods for teaching and learning information retrieval is presented. From the analysis of the literature a taxonomy was built and it is used to structure the paper. Information Retrieval (IR) is presented from different points of view: technical levels, educational goals, teaching and learning methods, assessment and curricula. The review is organized around two levels of abstraction which form a taxonomy that deals with the different aspects of pedagogy as applied to information retrieval. The first level looks at the technical level of delivering information retrieval concepts, and at the educational goals as articulated by the two main subject domains where IR is delivered: computer science (CS) and library and information science (LIS). The second level focuses on pedagogical issues, such as teaching and learning methods, delivery modes (classroom, online or e-learning), use of IR systems for teaching, assessment and feedback, and curricula design. The survey, and its bibliography, provides an overview of the pedagogical research carried out in the field of IR. It also provides a guide for educators on approaches that can be applied to improving the student learning experiences

Representative Names of Computing Degree Programs Worldwide

Through the auspices of ACM and with support from the IEEE Computer Society, a task group charged to prepare the IT2017 report conducted an online international survey of computing faculty members about their undergraduate degree programs in computing. The purpose of this survey was to clarify the breadth of and disparities in nomenclature used by diverse communities in the computing field, where a word or phrase can mean different things in different computing communities. This paper examines the English-language words and phrases used to name the computing programs of almost six hundred survey respondents, and the countries in which those names are used. Over eight hundred program names analysed in this paper reveal six program names that together account for more than half of all program names. The paper goes on to consider possible correspondence between reported program names and the five areas of computing identified by the ACM. Names such as computer science and information technology appear to dominate, but with different meanings, while the names of other computing disciplines show clear geographic preferences. Convergence towards a very small number of highly representative program names in computing education worldwide might be deceptive. The paper calls for further examination and international collaborations to align program names with program curriculum content

Mapping the Curricular Structure and Contents of Network Science Courses

As network science has matured as an established field of research, there are already a number of courses on this topic developed and offered at various higher education institutions, often at postgraduate levels. In those courses, instructors adopted different approaches with different focus areas and curricular designs. We collected information about 30 existing network science courses from various online sources, and analyzed the contents of their syllabi or course schedules. The topics and their curricular sequences were extracted from the course syllabi/schedules and represented as a directed weighted graph, which we call the topic network. Community detection in the topic network revealed seven topic clusters, which matched reasonably with the concept list previously generated by students and educators through the Network Literacy initiative. The minimum spanning tree of the topic network revealed typical flows of curricular contents, starting with examples of networks, moving onto random networks and small-world networks, then branching off to various subtopics from there. These results illustrate the current state of consensus formation (including variations and disagreements) among the network science community on what should be taught about networks and how, which may also be informative for K--12 education and informal education.Comment: 17 pages, 11 figures, 2 tables; to appear in Cramer, C. et al. (eds.), Network Science in Education -- Tools and Techniques for Transforming Teaching and Learning (Springer, 2017, in press

HIGHER EDUCATION FOR HIGHER COMPETITIVENESS

The current criticism of higher education is that the education offered does not match the needs of practice. In terms of competitiveness, Germany is about the forefront in Europe, and logically the question of whether higher education is the source from which leads to this result. The objective of this paper is to compare the corresponding study programs of Czech and German universities in the area of Economics by identifying the relevant differences and to confirm or dismiss the validity of the research hypothesis „Business Economics programs at German universities differ in ways that can boost competitiveness“. In order to compare the study programs between Czech and German universities, the eight faculties of Economics geared towards Business and Economics and Bachelor degree program were selected. As an introductory information, the structure of the programs was compared in terms of course load and which courses being compulsory, elective, and various forms of actual work practice and Bachelor thesis. The portfolio analysis of compulsory courses was organized into more general course groups and the percentage share of the total extent of compulsory courses was evaluated and the percentage of the active part. The analysis of Bachelor’s degree programs justifies the validity of the research hypothesis such that German study programs are more focused on practical application in a work environment. To that, contribute significantly the German specific institutions, the universities of applied sciences, which are strongly geared towards the needs of actual practice. The reflection of findings may apply in the context of the forthcoming implementation of amendment to the Higher Education Act

Computer science (CS) in the compulsory education curriculum:implications for future research

The subject of computer science (CS) and computer science education (CSE) has relatively recently arisen as a subject for inclusion within the compulsory school curriculum. Up to this present time, a major focus of technologies in the school curriculum has in many countries been on applications of existing technologies into subject practice (both software such as office applications, and hardware such as robots and sensors). Through uses of these applications, information and communications technologies (ICT) have focused on activities to support subject and topic learning (across wide age and subject ranges). Very recently, discussions for including computers in the curriculum have shifted to a much greater focus on computing and CS, more concerned with uses of and development of programming, together with fundamental principles of problem-solving and creativity. This paper takes a policy analysis approach; it considers evidence of current implementation of CSE in school curricula, the six main arguments for wider-scale introduction of the subject, the implications for researchers, schools, teachers and learners, the state of current discussions in a range of countries, and evidence of outcomes of CSE in compulsory curricula. The paper concludes by raising key questions for the future from a policy analysis perspective

Pedagogy, curriculum, teaching practices and teacher education in developing countries

This rigorous literature review focused on pedagogy, curriculum, teaching practices and teacher education in developing countries. It aimed to: 1. review existing evidence on the review topic to inform programme design and policy making undertaken by the DFID, other agencies and researchers 2. identify critical evidence gaps to guide the development of future research programme

A survey of UK medical schools' arrangements for early patient contact

Background: Many U.K. medical schools have patient contact in the first two years of the undergraduate course. Aim: To compare the purposes and organization of early patient contact in UK medical schools and to relate these arrangements to the schools' curricular objectives. Methods: A telephone survey of lead educators in UK medicals schools. Categories of contact were plotted against phases of the course to discern patterns of organisation. Results: The quantity of contact varies considerably (four to 65 days). There is a pattern, with learning objectives around the social context of health and illness preceding skills based work and integrated clinical knowledge for practice coming later. Schools fall into three categories: close adherence to the preclinical/clinical split, with limited early contact acting as an introduction to social aspects of health; provision of substantial patient contact to maximize the integration of knowledge and skills; and transitional, with limited clinical goals. General practice provides between one third and one half of early patient contact. Conclusions: Arrangements meet the objectives set by each school and reflect differing educational philosophies. Change is toward more early contact. There appears to be no national guidance which supports a minimum quantity of patient contact or specific educational purpose in the early years of U.K. basic medical training

Challenges to Pedagogical Content Knowledge in lesson planning during curriculum transition: a multiple case study of teachers of ICT and Computing in England.

In September 2014 the new National Curriculum programmes of study for Computing became mandatory in England, replacing Information and Communications Technology (ICT) as a school subject and introducing Computer Science into schools. This posed a challenge for in-service ICT teachers without Computer Science subject knowledge: teachers needed to develop both subject and pedagogical knowledge to make the transition from teaching ICT to teaching Computing. This multiple case study explores teachers’ perceptions of the curriculum change and how they have responded in practical and pedagogical terms to planning lessons aligning with the new programmes of study. Nine teachers participated, each of whom had been teaching ICT pre-2014. The study used semi-structured interview questions while teachers engaged in lesson-planning activities, captured mostly using desktop-sharing via internet telephony. A modified version of Shulman’s pedagogical reasoning framework and Pedagogical Content Knowledge (PCK) facilitated analysis of teachers’ pedagogic practices in lesson planning. The study shows teachers’ concerns about the lack of clarity surrounding the curriculum change, and the lack of access to suitable professional development (CPD). Most highlighted the primacy of programming and Computer Science at the expense of Information Technology and Digital Literacy, the other two strands of the new curriculum. The study also shows the dynamic nature of lesson planning. Knowledge deficits slowed down the fluency of teachers’ lesson-planning processes, but the use of lesson materials created by others helped them to develop PCK. The term transitional pedagogical reasoning has been used to describe the process by which unfamiliar but necessary concepts are assimilated into the pedagogical reasoning process while the teacher develops sufficient subject knowledge and PCK. Recommendations have been made for Computing curriculum policies to recognise and promote Computing pedagogy. This understanding should underpin initial teacher education in Computing, CPD for in-service teachers, and strategic development of the subject in the longer term