INTRODUCTION
The Industrial Revolution 4.0. is the one that brings changes in our daily life, educational systems are called to adapt to these changes [1,2,3,4,5,6], which are multidimensional. Artificial intelligence, machine learning, algorithms [2], learning networks (LNs), virtual learning communities (VLCs) [7] are just some of the technological changes that need to be integrated into new learning environments.
This article proposes STEM (Science Technology Engineering Mathematics) education as a possible solution that, on the one hand, can meet the challenges of the environment and, on the other hand, can equip students with appropriate 21st century skills. These skills are at the heart of STEM education and are essential to enable tomorrow’s professionals to meet the demands of their working environment. This article examines the learning environment component. More specifically, it examines the appropriate conditions that must be present in a classroom in order for students to achieve their learning goals. It then examines whether a STEM classroom is an appropriate environment for the student to achieve the desired goals.
GENERAL PRINCIPLES OF AN APPROPRIATE LEARNING ENVIRONMENT.
The learning environment has four components: infrastructure, organisation, learning environment and staff culture. Infrastructure refers to the buildings, technological and material resources available in an institution; organisation refers to the teaching and curriculum. The learning environment relates to the acquisition of knowledge, motivation and the classroom climate. Staff culture refers to the views of teachers [8]. This article focuses on the components of organisation and learning environment.
In terms of organisation, creating a suitable learning environment requires that the teacher is given freedom of movement by the curriculum itself [9]. In this way the teacher can make flexible use of his/her space, materials and the time available to teach the course [9]. This flexibility, combined with the use of outdoor spaces, collaboration with people beyond the pupils and a sense of respect, can stimulate pupils’ creativity [9]. Freedom from the curriculum also allows teachers to choose the teaching method that suits their classroom, the level of their students and the learning objectives they have set [10].
The teacher at classroom level is a leading figure who is there to guide his/her students to achieve the desired learning goals [11]. His main role is to guide and encourage his pupils throughout the lesson. The teacher organises the thinking of his/her students to achieve the desired goals [12]; in the same direction, he/she creates positive interpersonal relationships in the classroom [13], where the free expression of many different ideas and thoughts [1,11,14], [15,16] is encouraged; and the exploration of each of them as a possible answer to the question posed. The possibility of finding alternatives [17], i.e. the encouragement of divergent thinking [18], requires the marginalisation of pre-existing views that might impose any kind of restriction on the way of thinking. Such views are associated with racial and racist discrimination.
In addition, a positive climate can be created through unrestricted communication between teacher and pupils and between pupils [11]. The teacher, through genuine interest in his pupils [19] and through active listening [1], helps to improve not only their communication skills but also their cooperation skills [1]. At the same time, the teacher does everything possible to ensure cohesion among the pupils in the class [11]. In any case, classroom rules must be clearly stated and the teacher is there to ensure that they are respected [11,20].
At the level of the classroom, the teacher guides and corrects his pupils in order to achieve the production of new knowledge and also to become an extension of their ideas [14]. In doing so, he adapts his teaching, the educational methods he chooses, the learning objectives and the tasks he assigns to his students to their abilities [18] and interests [21]. An appropriate educational method to achieve these goals is individualised teaching [21]. During the course of the lesson, the teacher should identify and address the cognitive deficits that his students may have [20].
Another component that can improve students’ mastery of knowledge is the acquisition of motivation. Motivation is the learner’s orientation towards a goal [22] and is directly related to the acquisition of interest in the subject matter [23]. The development of motivation is based on three sub-disciplines:
The acquisition of interest
The acquisition of autonomy
The acquisition of a sense of belonging [24].
When students are motivated, they are activated and they themselves acquire the desire to conquer the learning objectives set.
It is clear that motivation is fundamental to the learning process. The teacher, as the one who guides, is also the one who has to motivate his students to be interested in the topics related to his course [24]. This goal can be achieved through the presence of feedback, rewards and direct communication during the lesson. Instilling in students the belief that they can do well can also have a positive effect [20]. A belief that is well founded and linked to detailed lesson planning. In this way, students acquire a positive attitude towards the lesson [23], as they are pushed to reach the end of the activity they have been given [22]. The presence of motivation leads to the activation of students in the classroom, with positive results in terms of their performance [22]. According to self-determination theory, intrinsic motivation is created, which develops students’ desire to explore [24]. Through motivation, the learner has an innate desire to achieve the desired educational goal by deriving satisfaction from the knowledge-skills acquired at the end of the process [24]. The teacher on his part through feedback, rewards and direct communication with class members can greatly enhance motivation [24].
In addition, the teacher should present the lesson in an attractive way [20]. This includes the use of new technologies and digital tools [25]. With the right stimulus, ICT can enable students to carry out their own independent research [7].
STEM CLASSROOM
In a STEM classroom, the main learning objective is the acquisition of 21st century skills [2,26,27,28,29]. 21st century skills are those that a worker needs to be able to cope with the competitive and constantly evolving environment defined by the Industrial Revolution 4.0. [2,30,31]. However, there is no precise definition or number of them [30]. Modern curricula focus on creating the personality of the active citizen of the 21st century and are aligned with the demands of the labour market [32].
It is now accepted that 21st century skills can be acquired by any individual as long as they receive the appropriate education. Clearly, it is the educational environment that should provide students with these opportunities. More specifically, creativity [10,18,33], critical thinking [34], [35], collaboration [11,36] are some of the skills that are developed in individuals through the education they receive.
The main objective of a STEM lesson is to solve a problem from everyday life using knowledge from the different fields, i.e. different sciences [4,27,29,37]. The lesson can be taught either by one teacher, who should have knowledge from all fields, or by a group of teachers from different disciplines, who work together to deliver the lesson [38,39]. In the second case, the workload for each teacher is reduced, but better organisation and excellent cooperation between teachers is required [38]. It is worth noting that in many cases the construction of a mechanical analogue is a necessary prerequisite in a STEM classroom [40,41]. The approach to the problem is always interdisciplinary [4,27,28,42].
The problem to be solved by the students must be clearly defined and allow more than one correct solution. Then the appropriate pedagogical method is chosen to enable the students to investigate. Such methods are collaborative [22], [29] which create positive attitudes of students towards the subject [11,20]. These positive attitudes will contribute even more to the students pursuing a professional career in the STEM fields [43] , thus meeting the ever-increasing demand for workers in these fields [44]. After collecting information, students process it, evaluate it and use it to find solutions. From the solutions they find, they are asked to select the one they consider the best [45]. Selection criteria include sustainability, ethics and humanity [2].
It creates the appropriate environment for students to solve a problem that is not so clear, thus enabling students to acquire deeper knowledge about the issue [41].
DISCUSSION
The data obtained from the international bibliography on the characteristics of an appropriate learning environment and a STEM classroom are then compared to see if the latter has them.
First of all, a STEM classroom gives the teacher the freedom to choose the problem to be posed to his students in terms of its complexity and the materials needed to solve it. It also gives him the opportunity to choose between different teaching methods, depending on the level of his class and the time available.
The teacher in a STEM classroom takes on the role of a guide. He has planned the problem in detail, has presented it clearly to his students, has clear objectives. Throughout the educational process, he is there to support and advise his students, but not to give them a ready-made solution. At the same time, throughout the process, he encourages his students to express themselves freely. He encourages them to ask questions and express their opinions about the solution to each stage of the problem. From the free expression of ideas, many different ideas are expected to emerge, so that in the end the one that is characterised by innovation and creativity is chosen. In order for students to find the right solution, they have to discuss with each other, so they need to communicate and work together.
When solving a problem, it is important to carry out research, both when analysing the data and in the process of solving the problem. Students will be faced with unknown situations in which they will have to find a solution, in many cases their choice may not be correct, so they will have to check if there is another solution or if they have already found an alternative.
As far as communication is concerned, it is a key component of STEM teaching, since most of the pedagogical methods used require students to work in groups. In these groups, students from different backgrounds are working towards the same goal, so they need to find a way to work together.
Finally, in terms of motivation, students’ involvement in a problem of everyday life is in itself motivating and increases their interest both in the lesson and in achieving the ultimate educational goals.
CONCLUSIONS
As can be seen, a STEM classroom has all the characteristics of a learning environment suitable for the development of students’ skills and the achievement of their educational goals. Because
- It gives the teacher freedom in the way the lesson is conducted,
- it allows the teacher to remain a guide for his students and not just a transmitter of information to them
- the conditions are right for students to express their questions and thoughts
- It requires research to be carried out.
- It encourages the testing of more than one solution in order to choose the best one.
- During the process, students communicate with each other and with the teacher.
- The link between the problem and everyday life motivates students to engage with the different areas.
It is clear that a STEM classroom has all the characteristics needed in modern education to be a learning environment that meets the demands and challenges of the 21st century.
References
- V. E. Guzmán, B. Muschard, M. Gerolamo, H. Kohl and H. Rozenfeld, “Characteristics and Skills of Leadership in the Context of Industry 4.0,” Procedia Manufacturing, vol. 43, pp. 543-550, 2020. [CrossRef]
- L. Gonzalez-Perez and M. Ramirez-Montoya, “Components of Education 4.0 in 21st Century Skillw Frameworkw: Systematic Reviw,” Sustainability, vol. 14, no. 3, p. 1493, 2022.
- Unesco and S. N. Boon, “Exploring STEM Competences for the 21stCentury,” vol. 30, International Bureau of Education, 2019, pp. 8-10.
- K. Maass, V. Geiger, M. Ariza and et.al., “The Role of Mathematics in interdisciplinary STEM education.,” ZDM Mathematics Education, no. 51, p. 869–884, 2019. [CrossRef]
- M. Sony and N. Mekoth, “Employee adaptability skills for Industry 4.0 success: a road map,” Production & Manufacturing Research, vol. 10, no. 1, pp. 24-41, 2022.
- M. Athan and W. Thacha, “Online Programm to Develop Teacherw to Enhance Students’ Adaptability Skills,” Education Quarterly Reviews, vol. 5, no. 5, 2022.
- V. Tsolaki and A. Stathopoulou , “Digital technologies in lifelong learning,” Global Journal of Engineering and Technology Advance, vol. 16, no. 2, pp. 47-56, 2023.
- . N. Gislason, “Architectural design and the learning environment: A framework for school design research.,” Learning Environ Res, vol. 13, pp. 127-145, 2010. [CrossRef]
- D. Hernández-Torrano and L. Ibrayeva, “Creativity and education: A bibliometric mapping of the research literature (1975–2019),” Thinking Skills and Creativity, vol. 35, 2020. [CrossRef]
- B. Thornhill- Miller, A. Camarda, M. Mercier, J.-M. Byrkhardt, T. Morisseau, S. Bourgeois- Bougrine, F. Vinchon, S. El Hayek, M. Augereau- Landais, F. Mourey, C. Feybesse, D. Sundquist and T. Lubart, “Creativity, Critical Thinking, Communication, and Collaboration: Assessment, Certification, and Promotion of 21st Century Skills for the Future of Work and Education,” J. Intell., vol. 11, no. 3, p. 54, 2023. [CrossRef]
- G.-. E. Petre, “Developing Students’ Leadership Skills Through Cooperative Learning: An Action Research Case Study,” International Forum, vol. 23, no. 2, pp. 143-162, 2020.
- J. Bryce and G. Withers, Engaging secondary school students in lifelong learning, AUSTRALIA: Australian Council for Educational Research Ltd, 2003.
- J. Yang, Y. Deng and Y. Wang, “Reciprocal Associations among Social–Emotional Competence, Interpersonal Relationships and Academic Achievements in Primary School.,” Behav. Sci., vol. 13, no. 922, 2023. [CrossRef]
- T.-T. Wu and Y.-T. Wu, “Applying project-based learning and SCAMPER teaching strategies in engineering education to explore the influence of creativity on cognition, personal motivation, and personality traits,,” Thinking Skills and Creativity, 2020.
- R. C. Anderson, J. Katz-Buonincontro, T. Bousselot, D. Mattson, N. Beard, J. Land and M. Livie, “How am I a creative teacher? Beliefs, values, and affect for integrating creativity in the classroom,” Teaching and Teacher Education, vol. 110, 2022. [CrossRef]
- T. Perera, “Developing the Critical Thinking Skill of Secondary Science Students in Sri Lanka,” Global Comparative EducationQ Journal of the WCCES, vol. 6, no. 1, pp. 82-88, 2022.
- P. Ellerton and R. Kelly, “Creativity and Critical Thinking,” Education in 21st Century, pp. 7-27, 2021.
- D. Lasky and S. Yoon, “A creative classroom for everyone: An introduction to a small ‘c’ creativity framework,” Thinking Skills and Creativity, vol. 36, 2020.
- F. S. Andreu, K. M. Sweet and D. H. Carter, “Building Leadership Skills through High-impact Experiences,” Journal of Leadership Education, vol. 19, no. 4, 2020. [CrossRef]
- L. . L. Warren, “The Importance of Teacher Leadership Skills in the Classroom.,” Education Journal, vol. 10, no. 1, pp. 8-15, 2021. [CrossRef]
- R. Saidovna, “A Systematic Approach to the Development of Students’ Creative Abilities,” Eurasian Journal of Learning and Academic Teaching, vol. 14, pp. 24-28, 2022.
- A. Pohan, A. Asmin and A. Menanti, “The Effect of Problem Based Learning and Learning Motivation of Mathematical Problem Solving Skills of Class 5 Students at SDN 0407 Mondang,” Budapest International Research and Critics in Linguistics and Education, vol. 3, no. 1, 2020. [CrossRef]
- C. P. Pasigon, “Attributes Of Students Towards Problem Solving In Physics: A Step Towards Students’ Capacity Building,” Journal of Positive School Psycholog, vol. 6, no. 10, pp. 531-534, 2022.
- C. Cubillos, S. Roncagliolo and D. Cabrera-Paniagua, “Learning and Motivation When Using Multiple-Try in a Digital Game for Primary Students in Chile.,” Educ. Sci., vol. 13, no. 1119, 2023. [CrossRef]
- A. Meirbekov, I. Maslova and Z. Gallyamova, “Digital education tools for critical thinking development,” Thinking Skills and Creativity, vol. 44, 2022.
- V. Seevaratnam, D. Gannaway and J. Lodge, “Design thinking-learning and lifelong learning for employability in the 21st century.,” Journal of Teaching and Learning for Graduate Employability, vol. 14, no. 1, pp. 182-201, 2023.
- K. Lin, Y. Yeh, Y. Hsu and et al., “STEM education goals in the twenty-first century: Teachers’ perceptions and experiences.,” Int J Technol Des Educ, vol. 33, pp. 479-496, 2023.
- R. Tytler, J. Aderson and Y. Li, “STEM Education for the Twenty-First Century,” Integrated Approaches to STEM Education, pp. 21-43, Dec 2020.
- L. Thibaut, S. Ceuppens, H. De Loof, J. De Meestrer, L. Goovaerts, A. Struyf, J. Boeve-de Pauw, W. Dahaene and et al., “Integrated STEM Education: A Systematic Review of Instructional Practices in Secondary Education,” European Journal of STEM Education, vol. 3, no. 1, 2018.
- E. van Laar, . A. J. A. M. van Deursen, J. A. G. M. van Dijk and J. de Haan, “Determinants of 21st-Century Skills and 21st-Century Digital Skills for Workers: A Systematic Literature Review.,” SAGE Open, vol. 10, no. 1, 2020.
- B. Liebech-Lie and E. Sjølie, “Teachers’ conceptions and uses of student collaboration in the classroom.,” Educational Research, 2020.
- M. McLennan, “The Global Risks Report 2021 16th Edition,” pp. 35,46, 2021.
- OECD, “Framework for the Assessment of Creative Thinking in PISA 2021:Third Draft,” 2019.
- A. Orhan and Ş. Çeviker Ay, “How to teach critical thinking: an experimental study with three different approaches.,” Learning Environ Res, vol. 26, pp. 199-217, 2023. [CrossRef]
- N. J. Alsaleh, “Teaching Critical Thinking Skills: Literature Review,” The Turkish Online Journal of Educational Technology, vol. 19, no. 1, 2020.
- T. Valtonen, N. Hoang, E. Sointu, P. Näykki, A. Virtanen, J. Pöysä-Tarhonen, P. Häkkinen, S. Järvelä, K. Mäkitalo and J. Kukkonen, “How pre-service teachers perceive their 21st-century skills and dispositions: A longitudinal perspective,,” Computers in Human Behavior, vol. 116, 2021. [CrossRef]
- T. Oon-Seng, Problem-Based Learning Innovation: Using Problems to Power Learning in the 21st Century, Cengage Learning, 2023.
- M. El Nagdi, F. Leammukda and G. Roehrig, “Developing identities of STEM teachers at emerging STEM schools.,” IJ STEM, vol. 5, no. 36, 2018. [CrossRef]
- R. Vieira, C. Tenreiro-Vieira, P. Bem-Haja and M. Lucas, “STEM Teachers’ Digital Competence: Different Subjects, Different Proficiencies.,” Educ. Sci., vol. 13, no. 1133, 2023.
- X. Gao, P. Li, J. Shen and et al., “Reviewing assessment of student learning in interdisciplinary STEM education.,” IJ STEM Ed, vol. 7, no. 24, 2020. [CrossRef]
- K. Margot and T. Kettler, “Teachers’ perception of STEM integration and education: a systematic literature review.,” IJ STEM Ed, vol. 6, no. 2, 2019. [CrossRef]
- A. Leung, “Boundary crossing pedagogy in STEM education,” IJ STEM Ed, vol. 7, no. 15, 2020. [CrossRef]
- Y. Lian, K.-K. Tsang and Y. Zhang, “The Construction and Sustainability of Teachers’ Positive Emotions toward STEM Educational Work.,” Sustainability, vol. 13, no. 5769, 2021. [CrossRef]
- C. V. McDonald, “STEM Education: A Review of the Contribution of the Disciplines of Science, Technology, Engineering and Mathematics,” Science Education International, vol. 27, no. 4, pp. 530-569, 2016.
- Ε. Γολεγού , Κ. Πέππας and Μ. Γουάλλες , “Συμβολή της εκπαίδευσης που λαμβάνει το άτομο κατά την διάρκεια των σχολικών του χρόνων στην ανάπτυξη των δεξιοτήτων του 21ουαιώνα,” Πέλοπας, vol. 8, no. 2, pp. 53-70, 2024.
|
Disclaimer/Publisher’s Note: The statements, opinions and data contained in all publications are solely those of the individual author(s) and contributor(s) and not of MDPI and/or the editor(s). MDPI and/or the editor(s) disclaim responsibility for any injury to people or property resulting from any ideas, methods, instructions or products referred to in the content. |
© 2025 by the authors. Licensee MDPI, Basel, Switzerland. This article is an open access article distributed under the terms and conditions of the Creative Commons Attribution (CC BY) license (http://creativecommons.org/licenses/by/4.0/).