This paper describes the creation and the potentials of an online tool to identify and document case studies that demonstrate perceived best practices in the design and implementation of advanced, sustainable, and climate-responsive integrated buildings facades. The project was created to catalog these projects in sufficient detail to allow users—expected to include design professionals, students, and faculty—to discover and study relevant examples, based on key project features, defined by the authors as technologically advanced and worthy of relevance: daylight and solar control, natural ventilation, noise control, embodied carbon, energy generation, and innovative insulation systems. The website documenting 44 case study buildings and this paper provides a preliminary overview about how it was made, what it is, and what some potential uses of the tool might be. This study emphasizes adaptability across climates, showcasing sustainable facades designed to balance energy efficiency with occupant comfort. This study also shows how data can be analyzed through the Map, based on four case studies. Presenting these statistics, the resource offers a foundation for exploring facade technologies that support sustainable building practices and respond effectively to climate-specific challenges. In doing so, the authors aim to inspire further exploration of innovative facade solutions within the context of sustainable building practices.

A methodological framework is presented for integrating 1.5°C-aligned greenhouse gas (GHG) budgets into architectural practice. Responding to the urgent need to decarbonise the built environment, this practice-oriented approach is based on the Carbon Risk Real Estate Monitor (CRREM) and the Science-Based Targets initiative (SBTi). The framework enables GHG budgets to be set early, requiring only a functional brief and target completion year as inputs. It establishes absolute GHG budgets per m2 and completion year for eight core building usage categories, allowing the early integration of climate targets in design processes. Mixed-use buildings are addressed through the area-weighted allocation of usage-specific budgets. Although developed for the European context, the framework can be adapted to other countries. The proposed 1.5°C-reduction pathways are compared with national frameworks such as France’s RE 2020 and Denmark’s BR 18, as well as with 20 recent mixed-use projects from a large German architectural practice. Achieving 1.5°C alignment will require halving GHG budgets roughly every seven years, highlighting the need for transformative change in architectural design and construction. Limitations include the use of global embodied carbon benchmarks and the assumption of functional stability over a 50-year reference study period. Practice relevance The proposed framework provides a step-by-step methodology for applying 1.5°C-aligned GHG budgets in building projects using readily available early-stage data. This will enable real estate actors (developers, architects and engineers) to integrate climate targets into decision-making at the beginning of the design process. By combining embodied and operational emissions within a single, function-specific structure, the framework bridges scientific pathways with design practice and supports transparent performance evaluation. This method shows how absolute, science-based GHG budgets can supplement or replace relative benchmarking in practice. An accompanying spreadsheet is provided for practical project application at the project level with data for 30 European countries.