DEVELOP THE COLLABORATION PROBLEM SOLVING COMPETENCE OF STUDENTS THROUGH STEM EDUCATION IN TEACHING OF NATURAL SCIENCES IN VIETNAM SECONDARY SCHOOLS

Author(s):  
T. G. Tran
2019 ◽  
Author(s):  
Adib Rifqi Setiawan

This work argues that fundamental differences of opinion as to the nature of science affect whether the “S” in STEM can really apply to all the natural sciences, which will affect how we structure and implement improvements in STEM education. The first part of the argument deals with often-taught definitions of words like “law” and “theory” that don’t really apply to much of physics. In the second part, we notes that mathematics remains inseparable from education in the physical sciences, but this is not the case in biology. Moreover, an appreciation for the worth of mathematical or theoretical models, even disjoint from experiments, is not generally a part of biological education. The third part is “the tyranny of hypotheses.” One of the “cultural” shocks I’ve had moving into biological fields is constantly hearing people talk about “hypotheses” and seeing a steady stream of bar graphs with asterisks and p-values. In physics, one almost never discusses hypotheses; rather, one test relationships between parameters, either analyzing them within some mechanistic framework, or empirically determining what the underlying functional relationship is.


2021 ◽  
pp. 53-66
Author(s):  
Olena Patrikeeva ◽  
Svitlana Gorbenko ◽  
Oksana Lozova ◽  
Iryna Vasylashko

The article presents the results of theoretical and practical analysis of the problem of STEM education in Ukraine. The authors assume that the definition of theoretical and methodological principles of this problem will help create conditions for the effective completion of educational and upbringing tasks in educational institutions. The article reveals the main conceptual principles of the order of the Cabinet of Ministers of Ukraine 05.082020 № 960-r «On approval of the Conception of natural sciences and mathematical education development (STEM-education)». Implementation of this Conception is envisaged by 2027. This Conception is aimed at the development of STEM-education, its large-scale implementation at all levels of education, establishing partnerships with employers and research institutions and their involvement in the development of natural sciences and mathematical education. The article also reveals the main theoretical and methodological principles of STEM-education such as: methodological principles, resource principles, organizational conditions and human resources, which ensures the success of the implementation of innovative learning in the education system. Creating an educational STEM-environment in an educational institution is one of the main tasks of the current stage of development of STEM-education. The educational STEM-environment of an educational institution is a set of intellectual and material conditions for the implementation of research results, technologies, engineering and integrated knowledge that ensure the self-development of a free and active personality and the realization of creative potential of students. STEM-education is implemented under the conditions of integration of all types of education on the basis of online platforms, media products, STEM-centers or laboratories, virtual STEM-centers, using non-standard methods, such as: STEM-excursions, interactive quests, contests or competitions in areas such as Internet of Things and robotics, STEM -festivals of makers and inventors, scientific picnics, hackathons, etc. The authors assume that the use of the above innovative and interactive methods and forms of work, organically combined with the peculiarities of educational activities, will effectively meet requirements of the Conception of natural sciences and mathematical education development (STEM-education), will allow students to form skills of research and engineering, invention and entrepreneurship, will provide support to students in their professional self-determination.


2021 ◽  
Author(s):  
Delka Karagyozova-Dilkova ◽  
Zhelyazka Raykova ◽  
Slaveya Petrova ◽  
Kostadina Katsarova ◽  
Daniela Dimova ◽  
...  

2020 ◽  
Author(s):  
Péter Szilassi ◽  
Viktor Pál ◽  
László Szőllősy ◽  
Anett Kádár ◽  
Andrea Farsang

<p>Geography education has faced numerous problems in Hungary lately: students’ diminishing interest in Geography, lack of creative and engaging textbooks and educational materials, decreasing weekly lessons, and conservative teaching practices. The MTA-SZTE Research Group on Geography Teaching and Learning set out to change the current circumstances. Our research group aims at laying the foundations for the methodological renewal of Geography education by developing activity-based and problem-oriented educational tools and IT innovations.</p><p>One of our central goals is to develop and prepare worksheets for students which concentrate on the geographical characteristics, processes, and problems of some typical Hungarian landscape units as well as cities, and villages. The worksheets, which will be accompanied by a handbook for teachers, are intended to be used from Grade 8 to Grade 13 both in primary and secondary schools. Each worksheet focuses on individual study areas (typical landscapes or regions) and settlements. They all have the same size (4 pages per worksheet) and follow the same structural principles: a short and informative text on the study area, which is followed by activity-based exercises and projects, all of which make use of various challenging and creative exercises comprising of maps, charts, pictures, newspaper articles, blogs, games, and QR codes linking to additional interactive websites.</p><p>Our research group also developed the items and the interface of an online survey with which we measured the efficiency and the applicability of the worksheets with the help of volunteering students and teachers who agreed to test them in class. The worksheets were tested in the primary and secondary schools that are affiliated with the research group. The 114 students and 5 teachers who tested the worksheets had to fill in an online survey, and evaluate the worksheets on a 5-point agreement scale, where 1 was the worst and 5 was the best score.</p><p>Preliminary results show that the content suitability of the worksheets, with respect to the target age groups’ cognitive abilities, scored low (2.85 average points). The clarity of the subject requirements for the students has the lowest average score (2.75 points). These results can be explained with the main characteristic of the worksheets, i.e. problem-solving thinking. Activities based on problem-solving are very new methods for Hungarian Geography teachers, therefore the teaching goals of this worksheets are is not clear for them.</p><p>However, according to the teachers’ responses, the concept of student worksheets is very innovative and adaptable to the needs of the present education (4.65 points), and frees from racial, gender, ethnic, religious prejudice (4.9 points). The teachers also have very positive (4.65 points) opinion about the diversity of the illustrations (pictures, diagrams, graphs, schemas, maps, etc.).</p><p>According to the students, the worksheets are very useful for group- and pair-work (4.04 points). The types of questions and exercises are very diverse (4.16 point). Most of the students (57%) visited almost every additional websites of the worksheets with the QR codes.</p><p> </p>


2018 ◽  
Vol 13 (1) ◽  
pp. 94-107 ◽  
Author(s):  
Devrim Akgündüz

This research has been conducted to evaluate the effects of integrated science, technology, engineering and mathematics (STEM) education on academic achievement, reflective thinking skills towards problem solving and permanence in learning in science education. This study, which used pre-test–post-test and semi-experimental model with permanence test, control group as a research model, was conducted with 44 students attending to the 6th grade of a public school in 2015–2016 academic year. The study consisted of the control group with constructivist teaching and the experimental group with integrated STEM education. Academic achievement test and reflective thinking scale towards problem solving were applied. In SPSS 24 package program, analysis of quantitative data was performed using t-test and Mann–Whitney U test. In conclusion, the integrated STEM education does not significantly increase success, reflective thinking skills towards problem solving and their effects on permanence according to constructivist teaching, but provides positive contributions to academic achievement.   Keywords: Integrated STEM education, science education, academic achievement, problem solving, reflective thinking skills.  


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