THE IMPACT OF PARAMETRIC DESIGN ON THE SUSTAINABLE DEVELOPMENT OF ARCHITECTURE

Unofficial AI-generated summary based on the public title and abstract. Not an official translation.

🔬研究者:Researchers in sustainable architecture and computational design can leverage the paper's synthesis of parametric methods for energy and material optimization.

🏢実務担当者:Architects and construction firms can adopt parametric workflows for early-stage performance simulation, aiding compliance with green building standards.

The article examines how parametric design contributes to sustainable architectural development amid the broader digital transformation of the built environment. The research problem is framed by the construction sector’s substantial demand for energy and raw materials and its associated environmental and social externalities, which intensify the need for design methodologies capable of reducing negative impacts while maintaining functionality and comfort. Parametric design is approached as an algorithmic and variable-driven method that replaces static representation with generative models defined by interdependent parameters and rules. This enables architects to rapidly explore multiple design configurations and evaluate them against measurable criteria, thereby shifting decision-making toward data-informed and performance-oriented workflows. The paper synthesizes recent theoretical perspectives and professional practice at the intersection of parametric modelling and sustainability, highlighting the evolution of parametric approaches from experiments with complex geometry to applications focused on climate responsiveness, circularity, and resilience. Particular attention is given to the ability of computational tools to embed environmental parameters solar radiation, temperature, wind patterns, daylighting requirements directly into early-stage form-finding and envelope development. The study argues that parametric workflows support energy efficiency through optimized orientation, façade articulation, and adaptive shading systems; they also enable material rationalization via structural optimization and topology-driven design, contributing to reduced embodied carbon and construction waste. The integration of parametric models with BIM environments and smart building management systems is considered as a pathway for operational sustainability and long-term adaptability. To demonstrate practical relevance, the article discusses emblematic international projects featuring dynamic façades and optimized roof-shell systems that combine expressive architectural language with quantifiable performance benefits (e.g., reduced solar gains, improved indoor comfort, and integration of renewable energy and water-harvesting strategies). The findings underline that parametric design can mediate trade-offs between aesthetics, cost, and ecological performance by generating solutions validated through simulation and multi-criteria assessment. In the Ukrainian context, the paper positions parametric methods as a promising driver of sustainable post-war reconstruction, enabling modularity, rapid iteration, and the systematic incorporation of energy, safety, and comfort targets under constraints of time and resources. The article concludes that parametric design is not merely a stylistic tendency but an emerging methodological platform for sustainable and resilient architecture.

• semanticscholar https://doi.org/10.32347/2786-7269.2026.16.29-41first seen 2026-07-26 06:15:55