Are secondary school graduates prepared for the studies of natural sciences? – evaluation and analysis of the result of scientific literacy levels achieved by secondary school graduates

2019 ◽  
Vol 38 (2) ◽  
pp. 146-167 ◽  
Author(s):  
Elena Čipková ◽  
Štefan Karolčík ◽  
Lucia Scholzová
1990 ◽  
Vol 258 (6) ◽  
pp. S3 ◽  
Author(s):  
R L Malvin

By all measures attempted, scientific literacy of the American public is sadly wanting. The vast majority of our secondary school children and adults have no knowledge of most of the basic terms or concepts of science. The reasons for this shortcoming are many but prominent among them are sadly deficient texts, teachers untrained in the subject matter they teach, and college and university scientists who divorce themselves from the problem, although probably deploring it. Our institutions are no aid. They reward scientific productivity (read: number of papers published per year and research dollars), not teaching. Some suggested cures are production of better texts, training of science teachers in the field in which they teach, and, most importantly, involvement of scientists in the process. We must be willing to spend some of our time with secondary school pupils and their teachers. All will gain from the experience.


1934 ◽  
Vol 27 (6) ◽  
pp. 281-295
Author(s):  
F. L. Wren ◽  
H. B. McDonough

Prior to the latter part of the nineteenth century the energies of those interested in public education had been primarily directed toward the completion of the educational ladder. Elementary, secondary, and higher education had been placed under public control and to a large extent was financed by public taxation. In 1893 the Committee of Ten reported to the National Educational Association in favor of enriching the course of study in grades below the high school through the introduction of various subjects such as algebra, geometry, foreign languages, and natural sciences but their recommendations made no provisions for adapting these subjects to the abilities and needs of the children of the lower grades. During the early stages this movement for reorganization centered around the approximate equal division of time devoted to elementary and secondary education. The idea of dividing the six-year secondary school into junior and senior departments did not become a prominent one until the latter part of the first decade of the twentieth century.


2020 ◽  
Author(s):  
Candan Kafalı ◽  
Bengü Bozlar

<p>Many medicinal and toxic compounds are tested on animals before they are declared safe for human use, animals are also used in basic and applied research. But this can be costly, it can cause suffering to animals, and the results do not always to translate successfully to humans. The 3Rs project build learning activities for secondary school pupils to introduce the principles of the 3Rs - the Replacement, Reduction and Refinement of animal experiments. Students will develop their critical thinking and science literacy skills by exploring topics such as ethics in science, how the European Union is protecting the welfare of laboratory animals, and what high-tech non-animal tools are available as alternatives. These six learning scenarios related the 3R principle are available for secondary school teachers in the Massive Open Online Course (MOOC), organised by the European Schoolnet Academy. One of the learning scenarios prepared within the scope of this project is "Animal Experimentation in Scientific Literacy".</p><p>Aim of this learning scenario;</p><ul><li>Students can illustrate the relation between science and society on an ethical and philosophical base.</li> <li>Students can create answers on sustainability problems concerning animal welfare.</li> <li>Students can think critically about emotions vs facts about animals used in science.</li> <li>Students can formulate well-built arguments in a critical debate.</li> </ul><p>To implement this learning scenario;</p><p>Teacher starts with a presentation that describes good science, bad science, pseudoscience and fake news. Good science, bad science/fake news are explained with cases, and discussed with pupils. For instance, these are the subjects of astrology, anti-vaccination, flat world beliefs etc. The topic of animal experimentation and animal welfare is presented to pupils as the subject of the lesson. Pupils are divided into five groups to make literature review about animal experimentation and animal welfare.</p><p>Each group research one of the questions below;   </p><ul><li>Do scientists need animals in science?</li> <li>How animals are affected by experiments in laboratories?</li> <li>What are pros and cons of animal experimentation in science?</li> <li>What could be the alternatives instead of animals inexperimentation?</li> <li>What are ethics in animal experimentation?</li> </ul><p>Each group make literature review and discuss their compiled knowledge by a presentation with other pupils in the classroom. Afterwards, pupils carry out their own research in the school environment and create an online survey to collect data related with their research question about 3Rs and animal experimentation. They implement the survey at the school. They collect data and create a graph for each question. They interpret data and make a conclusion. Pupils evaluate their work according to sample size large, groups represented by the sample and whether the questions are neutral in regards to good science.</p><p>All in all, this learning scenario aims pupils to come by an experience on how good science works and how to avoid bad science and fake news, and improve their scientific literacy skills by the awareness of animal use in science.</p>


2007 ◽  
Vol 4 (3) ◽  
pp. 5-12
Author(s):  
Palmira Pečiuliauskienė

Applying ICT in teaching practice is little researched. The studies focusing on the subjective factors of ICT application in educational practice of natural sciences are very rare. The investigation may include motivation for pedagogical work, the need for continuing studies, different experiences of applying ICT etc. The problem of research has been determined by such preconditions as the present situation of applying ICT teaching natural sciences during pedagogical practice and subjective factors determining the latter educational phenomenon. The goal of research is to analyse the use of ICT in natural science education concerning the subjective factors defining this educational phenomenon. The object of research is ICT application in natural science education. The techniques of literature analysis, questioning and mathematical statistics have been applied to conduct research. 300 students carrying on teaching practice in natural sciences have been surveyed. The following subjective factors marking ICT application in educational practice of natural sciences have been established: the sex, learning experience gained in secondary school, the character of entering the university, the outlooks for future studies and motivation for pedagogical job. The number of male rather than female students using ICT in educational practice in natural sciences is gradually increasing. The students having previous experience gained in the last two years of studies in upper secondary school more frequently and efficiently apply ICT in practice. Professional motivation for pedagogical job has no relations with applying computers in educational practice. Key words: educational practice, natural science.


2018 ◽  
Author(s):  
Tuomas Aivelo ◽  
Anna Uitto

AbstractThe skills required to understand genetic phenomena and transfer knowledge to real world situations are an important part of 21st century scientific literacy. While socio-scientific issues (SSI) are increasingly emphasised in science curricula, teachers have low interest in adopting SSI in teaching. Little is known about how teachers choose content for their teaching, although this process translates curricula to teaching practice. We explored how teachers choose content and contexts for biology courses on cells, heredity, and biotechnology by interviewing ten Finnish upper-secondary school teachers. We studied how the teachers described teaching on genetically modified organisms, hereditary disorders, and human traits. Teachers’ perceptions on genetics teaching were classified to Developmental, Structural and Hereditary approaches. The approaches were connected not only to the teachers’ perceptions of the more important content, but also teacher inclinations towards teaching genetics in the human context and perceptions of students’ interest in different topics. Teachers’ justified their choices by national, local school, and teacher’s personal-level factors. While teachers mentioned that SSI are important, they were never mentioned among the important contexts. Nevertheless, some teachers embraced teaching genetics in the human context while others avoided them. Teachers justified their avoidance for personal and pedagogical factors, such as their competence in dealing with these contexts. Experience played a part in the approach that teachers had, and contrary to the results of previous research, the less experienced teachers were more open to discussing human genetics. We conclude that curriculum development is important to encourage teachers to adopt more SSI-oriented teaching.Disclosure statementTuomas Aivelo has participated in writing biology textbooks for upper-secondary school biology for eOppi Oy. None of the teachers involved in this study used biology textbooks from eOppi Oy.


Author(s):  
Sam Ramaila ◽  

This study examined technology integration in Natural Sciences teaching and learning in South African township schools. A mixed method approach was adopted as part of an exploratory descriptive survey design. Data was collected through semi-structured interviews, classroom observations as well as administration of open-ended survey questionnaire. The study involved purposively selected grade 9 Natural Sciences teachers and learners as participants. The empirical investigation is underpinned by technological pedagogical content knowledge (TPACK) as the underlying theoretical framework. The participants demonstrated a positive disposition about technology integration in Natural Sciences teaching and learning. In particular, technology integration was perceived to provide opportunities for the enhancement of meaningful Natural Sciences teaching and learning in township schools. Digital resources were largely viewed as essential educational tools that can be deployed to demystify abstract scientific concepts with a view to enhance scientific literacy. Theoretical implications for technology-enhanced teaching and learning are discussed.


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