The article presents an in-depth analysis of the methodology and didactics of teaching Comprehensive Architectural Design (CAD) as an integrative educational framework aimed at developing systemic, interdisciplinary, and research-oriented thinking in future Master’s students of architecture. In the context of global challenges — climate change, social transformation, energy crises, and humanitarian recovery — architectural education is undergoing a profound paradigm shift. Its mission today is not limited to training professionals capable of producing technically and aesthetically refined buildings but to cultivating a humanistic worldview where architecture is seen as an interactive system of “human–environment–technology.” Consequently, CAD should be perceived not as a single course but as the structural core of architectural education — a research laboratory in which students act simultaneously as analysts, researchers, and creators. The methodological foundation of this research is based on the principles of problem-based, interdisciplinary, and research-oriented education, integrated with project-analytical methods. It is argued that effective training of architects is impossible without the synthesis of three interconnected components — scientific inquiry, artistic creativity, and technological literacy. Such an approach allows the formation of a holistic perception of architecture as a multifunctional system encompassing natural, social, cultural, and informational dimensions. Within this framework, Comprehensive Architectural Design functions as an integrative educational mechanism that ensures: 1. the synthesis of functional-energy and aesthetic-energy subsystems through the lens of “Information Theory”; 2. the detailing of didactic instruments, including teamwork, case-based learning, design thinking, and studio projects; 3. the development of assessment criteria for interdisciplinary outcomes, focusing on systemic and innovative qualities rather than mere aesthetics. The paper identifies the main scientific problem of contemporary architectural pedagogy as the lack of holistic methods and educational strategies that foster complex, systems-based thinking. Traditional teaching models — divided among design, technical, and artistic subjects — no longer correspond to the realities of the 21st century, as they fail to nurture reflection, analysis, and foresight. The author argues that CAD should serve as the “framework” of architectural education — an academic ecosystem uniting disciplines centered around the architectural object (such as the design of multifunctional public buildings, bioclimatic architecture, media architecture, parametric design, and BIM technologies). This approach not only integrates knowledge but also develops the mindset of the architect as a researcher, capable of addressing real-world spatial, social, and climatic challenges. Special attention is paid to the integration of digital technologies into the educational process. The use of BIM, GIS, VR/AR, EnergyPlus, Ladybug, and Climate Studio enhances analytical depth, enabling visualization, energy simulation, and environmental forecasting to inform design decisions. Combined with scenario analysis, parametric modeling, and digital prototyping, these tools foster the development of environmentally responsible digital literacy among future architects. The study elaborates on didactic tools used in CAD: the studio-based model “research → analysis → design → defense,” interdisciplinary teamwork (architect + urban planner + engineer + ecologist), critical sessions, and reflective assignments. Such a structure encourages the formation of critical, creative, and strategic thinking, as well as responsibility, communication, and cognitive flexibility — essential competencies for the architect of the future. The article proposes a step-by-step model of developing complex architectural thinking, including five stages: 1.orientation — defining the problem and goals; 2.analysis — collecting and synthesizing data; 3.conceptualization — developing the core idea; 4.modeling — creatingcreating digital or physical prototypes; 5.validation — critical evaluation and public presentation. Each stage integrates humanitarian, natural, social, and technical knowledge, fostering synthetic architectural reasoning capable of bridging art, science, and society. Energy efficiency and sustainable development are identified as key pedagogical categories. Teaching “green architecture” through real-world cases (ports, campuses, glamping sites, and urban districts) using simulation tools to assess energy balance and ecological footprint allows students to merge scientific modeling, ethical awareness, and creative intuition into a coherent design process. Furthermore, the paper highlights socio-technological integration — the unification of social sciences, philosophy, technology, and ecology into a single educational module. Architecture is viewed as a social laboratory, where students understand their professional role not only as designers but as strategic thinkers responsible for maintaining harmony between humanity, culture, and the environment. The final section presents the psychological profile of the future architect — a personality characterized by self-confidence, creativity, flexibility, and courage, capable of making unconventional decisions and acting responsibly under uncertainty. Such qualities are cultivated not only through project work but also through a pedagogical atmosphere of trust, intellectual freedom, and curiosity-driven exploration. In conclusion, the study asserts that Comprehensive Architectural Design should become the cornerstone of architectural education in Ukraine’s post-war renewal. Its methodological essence lies in the synergy of science, culture, technology, and humanism, creating an educational process capable of nurturing a new generation of architects — researchers, humanists, and innovators — who design the future not only in material but also in cultural and social dimensions.
A 2025 study studied this question.