Abstract

Architectural lighting design exists at the intersection of design intentions, architectural requirements, technical constraints and regulatory frameworks. As an educational discipline, it aims to equip students with a comprehensive understanding of this complex field, including the impact of light on human behaviour, comfort and health as well as on the environment and other species. Although programmes vary in their emphasis on qualitative versus quantitative approaches, they all face the challenge of addressing these multi-layered demands. Especially at master’s level, this becomes even more complex when teaching an international student group, diverse in both cultural and academic backgrounds, each with distinct expectations and needs. In such settings, educators are continuously challenged to navigate this diversity while striving to maintain coherence and academic consistency.
One common challenge in teaching an international group of students, particularly within design education, is the presence of preconceived notions. As neuroscientist Lisa Feldman Barrett explains in How Emotions Are Made, the brain operates through concepts: mental representations of categories formed by images of objects, events or actions. 1 These concepts are shaped by past experiences and, consequently, by culture. Thus, they significantly influence how students interpret fundamental elements of light and lighting, for example what constitutes ‘good lighting conditions’ or how warm and cool white light are perceived. As a result, students enter the classroom with varied, culturally specific interpretations of lighting. Educators often become aware of these differences only through the process of teaching and learning, as they work with students to gradually establish shared conceptual frameworks.
In addition, different students’ academic backgrounds significantly impact the learning process. Students from design disciplines often excel in abstraction and conceptual thinking, whereas those with engineering backgrounds prioritize precision and measurable outcomes. These differences affect how students gather information, evaluate quality and approach assignment goals. They also shape classroom dynamics and influence how learning unfolds, often requiring educators to navigate between varied ways of teaching, trying to balance diverse strengths and inventing moments of shared understanding.
The combination of the above challenges – culturally specific interpretations of lighting and classroom dynamics shaped by diverse academic backgrounds – can lead students to feel disconnected from the learning process. The lack of identification with course content may reduce motivation and delay engagement. To address this, principles from cognitive, constructivist and humanistic learning theories, each grounded in student-centred approaches, can inform both course design and the development of relevant intended learning outcomes and Teaching and Learning Occasions (TLOs). 2 These theories support strategies such as varied formats to accommodate different learning preferences, links to prior knowledge and active learning techniques including problem-solving. Although redesigning a full course around these principles may require time and institutional approval, incorporating selected TLOs inspired by these theories offers an impactful first step towards inclusive and responsive teaching.
In architectural lighting design education, such principles can be reflected in activities that bring students’ lived experiences into the learning process. For instance, seminars may invite students to share and analyse how natural and artificial light coexist in the environments of their home countries. These discussions reveal how artificial lighting is often perceived as the foreground to a background of daylight 3 and emphasize that experiences of light are shaped by local conditions and cultural memory. Referencing Barrett’s work, 1 these personal visual memories of lighting can serve as valuable teaching tools, broadening the conceptual understanding of the entire class. This integrated exploration of daylight and artificial light encourages students to think critically and contextually, fostering both global awareness and local sensitivity.
Similarly, lectures can contain a range of lighting practices and designers from diverse geographical and cultural contexts. By showcasing professionals and projects from different regions, educators help students expand their frame of reference and foster a stronger sense of belonging, which is an essential factor in student motivation.
In addition, assessments and TLOs should not rely exclusively on verbal or written proficiency. In an international educational context, where English is often the medium of instruction, students’ fluency levels can vary and misinterpretations of terminology may complicate comprehension further. Educators can address this by placing greater emphasis on experiential and visual learning, for example, prioritizing study visits or visual analyses of the written reports. This approach reduces the dominance of language as a barrier and reframes it as just one of several modes of expression, without neglecting the importance of language development in shaping students’ critical thinking.
Finally, group project-based assessments, that are orientated to the real world, should offer enough time and flexibility, so to allow students to demonstrate their existing competencies while gaining new ones. Such approaches deepen engagement and create more opportunities for participation. They also enable students to learn from each other thanks to the diversity of their educational background, turning these differences into shared foreground knowledge. This collaborative mindset is vital for professional lighting practice, which is, in totality, interdisciplinary.
For such an approach to be effective in an educational context, the broader curriculum and institutional context must support pedagogies rooted in cognitive, constructivist and humanistic learning theories. Although these approaches may not immediately increase graduates’ employability in markets dominated by technical deliverables or visual output, their long-term value lies in redefining professional priorities. If applied consistently, such pedagogical practices could encourage a shift in industry expectations towards valuing qualitative aspects like spatial perceptual experience, rather than focusing solely on photometric calculations or polished renderings.
Although this discussion does not explicitly address the teaching of technical knowledge, such teaching can also be shaped by student-centred learning principles. It is important to highlight that the selection of the relevant educational content and activities can produce professionals who are not only able to operate within globalized frameworks but also to respond to local characteristics and contextual needs.
Finally, inclusivity must extend beyond classroom diversity and language accessibility to influence the selection of design approaches and methodologies. It should be embedded in the content itself, not simply stated as a value. This ensures that students engage with inclusive practices as integral to their professional formation, fostering both relevance and participation.
