Baguio — The Science, Technology, and Society (SCITES) approach can enhance student engagement in science and technology learning by connecting classroom content with real-world issues affecting communities. The finding comes from a study by Norman D. Patiang, Elmer C. Eligio, and Angelica C. Corpuz of the University of Baguio, Philippines, conducted during the 2025 academic year. The study is significant because it shows that science and technology education can move beyond memorization and abstract concepts toward discussion, inquiry, reflection, and a deeper understanding of how scientific and technological developments affect society.
The research responds to concerns that students can lose interest when science and technology education relies heavily on memorization, isolated facts, and abstract material. Such approaches may make it difficult for students to understand why scientific knowledge matters in everyday life. At the same time, science and technology are increasingly connected to issues such as climate change, public health, artificial intelligence, digital equity, waste management, sustainability, and community development.
SCITES offers a different approach by placing science and technology within social, cultural, ethical, and environmental contexts. Students are not only expected to understand how a technology works or remember scientific concepts. They are also encouraged to consider who is affected, what benefits and risks are involved, how technology influences society, and what decisions can be made based on evidence and ethical considerations.
The study is grounded in three major perspectives: Constructivist Theory, Inquiry-Based Learning, and the Socio-Scientific Issues (SSI) Framework. Constructivism views learning as an active process in which students build understanding through experiences and interaction. Inquiry-based learning encourages students to ask questions, investigate information, analyze evidence, and solve problems. The SSI framework brings socially and ethically significant scientific issues into the classroom.
The research was conducted at the School of Teacher Education and Liberal Arts of the University of Baguio. Participants came from several undergraduate programs, including Communication, Political Science, Psychology, English, Elementary Education, Secondary Education, and Physical Education. Purposive sampling was used so that participants had direct experience with SCITES-based learning.
Data were collected over four weeks while SCITES coursework was actively taking place. The researchers used face-to-face surveys and semi-structured interviews. The survey explored students’ views of science and technology, their experiences with SCITES, and perceived changes in interest, motivation, and engagement. Interviews provided more detailed accounts of those experiences. The data were then examined through thematic analysis to identify recurring patterns. Data saturation was reported after 10 participants, at which point the interviews were stopped because the researchers considered the information sufficient to address the research questions.
The study identified seven major themes describing students’ experiences and the influence of SCITES on engagement. The first theme was relevance through real-world connections. Ninety percent, or 9 out of 10 participants, described SCITES as meaningful because science and technology were connected with issues they recognized outside the classroom. These included local environmental problems, health concerns, climate change, artificial intelligence, social media, agriculture, renewable energy, disaster preparedness, privacy, and waste management.
Connecting lessons with everyday life made abstract content easier to understand. Students could relate new knowledge to experiences they already had. For students preparing to become educators, this ability is also important because they may later use similar strategies to connect classroom content with the circumstances of their own learners and communities.
The second theme concerned engagement through interactive and reflective learning. About 85 percent of participants, or approximately 9 out of 10 students, highlighted group discussions, projects, reflection, and active participation as important parts of their learning experience. Students were expected not simply to listen to information but also to contribute ideas, consider different perspectives, and examine how science and technology affect people.
Participants mentioned activities involving water conservation, waste management, traffic, recycling, air quality, artificial intelligence ethics, clean water, and community energy use. Case studies were considered engaging because students had to think about practical and ethical questions, including how technology companies handle users’ data.
However, the more active approach was not immediately easy for everyone. Approximately 75 percent of participants experienced challenges adapting to a non-traditional learning style. Some students felt overwhelmed by interconnected topics, found it difficult to express their ideas, struggled to think deeply about ethical questions, or found it challenging to remain neutral when discussing controversial issues.
The study therefore emphasizes the importance of scaffolding. Teachers can introduce one dimension of an issue at a time, provide guiding questions, demonstrate how to distinguish evidence from opinion, use small-group discussions before whole-class discussions, and provide frameworks for comparing different ethical positions. The difficulties were not necessarily permanent. Participants indicated that discomfort could decrease with repeated opportunities to participate and practice reflective learning.
The research also found that 80 percent, or 8 out of 10 participants, experienced a broader perspective on science and technology. Instead of seeing science mainly as facts for examinations, laboratory work, or a field limited to science majors, students began to understand it as a human-centered area connected with culture, communication, policy, ethics, and social problems.
This shift is important because it suggests that SCITES affects more than classroom participation. It can also influence how students understand the purpose of science and technology. Technological development, for example, is no longer viewed only in terms of technical capability but also through questions involving privacy, public access, culture, policy, and human wellbeing.
The strongest finding concerned students’ interest in learning. All participants, or 100 percent, reported increased interest when science and technology were connected to real-world issues. Clean energy, artificial intelligence, online privacy, pollution, food shortages, flooding, health technology, and sustainable energy were among the topics that stimulated curiosity.
This relevance encouraged students to move beyond asking what they needed to memorize. They began asking how an issue works, why it matters, and what could be done to address it. In educational terms, the shift suggests that curiosity can grow when students recognize a direct connection between academic content and their own experiences.
SCITES was also associated with stronger motivation through purposeful learning. Approximately 80 to 100 percent of participants described increased motivation, eagerness, sense of purpose, and belief that learning could make a difference. Students considered learning more meaningful when they could connect scientific and technological knowledge with climate change, clean water, waste management, policy, human wellbeing, and local environmental conditions.
Another major finding involved critical thinking and social awareness, reported by approximately 80 to 100 percent of participants. Students became more accustomed to analyzing complex issues, considering responsibilities, examining ethical questions, and recognizing the social consequences of technology. Engagement therefore extended beyond simply participating in classroom activities to include the quality of students’ reasoning and understanding.
The researchers synthesized these findings into the SCITES-Inspired Engagement Model, which consists of four interconnected phases: Contextualization, Interactive Inquiry, Reflective Construction, and the Evaluation Loop.
Contextualization begins the lesson with a real-world issue that students can recognize. Interactive Inquiry then moves students into discussions, projects, case studies, investigations, and collaborative problem-solving. Reflective Construction helps students connect evidence, personal understanding, ethical considerations, and social consequences. Finally, the Evaluation Loop assesses whether the learning experience improved relevance, motivation, participation, critical thinking, and students’ perspectives. The results are then used to improve the next learning cycle.
The model shows that SCITES is not simply a matter of replacing lectures with discussions. Teachers continue to play an important role in selecting contexts, designing questions, facilitating discussions, helping students evaluate evidence, and creating a classroom environment where differences of opinion can be discussed safely and constructively.
For higher education, particularly teacher education, the findings have broader implications. Students preparing to become educators not only experience a more active learning environment but can also observe how classroom activities can help learners connect academic concepts with real-world issues. These experiences may later influence how they design lessons in their own classrooms.
The researchers conclude that SCITES can make science and technology education more relevant, participatory, purposeful, and socially meaningful. Interest emerges when students recognize relevance, motivation is sustained when learning has a clear purpose, and critical thinking and social awareness develop through repeated inquiry and reflection.
The study also acknowledges its limitations. Because it is a qualitative study with a small final analytic sample, the findings are intended to describe participants’ experiences rather than provide statistical generalizations. The researchers recommend longitudinal studies to determine whether changes in interest, engagement, and perspectives persist over time and whether SCITES experiences eventually influence graduates’ teaching practices.
Authors
Norman D. Patiang — University of Baguio.
Elmer C. Eligio — University of Baguio.
Angelica C. Corpuz — University of Baguio.
Research Source
Article Title: Science, Technology, and Society Pedagogy: Enhancing Student Engagement in Science and Technology
Journal: International Journal of Scientific Multidisciplinary Research (IJSMR), Vol. 4, No. 8, 2026, pp. 1879–1898.
DOI: https://doi.org/10.55927/ijsmr.v4i8.144
Journal Link: https://journalijsmr.my.id/index.php/ijsmr
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