面對全球氣候變遷與碳中和目標的壓力，校園建築作為教育與能源消耗的重要場域，亟需朝向智慧化與永續化轉型。為因應此趨勢，本文以小型建築師事務所為研究對象，分析建築師事務所在過去傳統設計作業與現代BIM+AI設計作業下的設計模式，並探討建築資訊模型（BIM）與人工智慧（AI）於永續校園設計中的應用，再以彰化縣大村國小活動中心為實證案例，提出結合數位轉型與淨零轉型的整體設計策略。本文實證案例分為兩大面向：首先，透過 AI 建築生成平台與 BIM 數位建模，探討校園整體規劃中日照、通風與碳排模擬之應用，有效提升設計效率與環境回應性。其次，以既有校舍改造為例，透過 BIM 建構現況模型，並導入 AI 進行能耗分析與太陽能發電模擬，驗證再生能源介入對碳中和目標的貢獻。研究結果顯示，BIM+AI 技術可明顯改善小型建築師事務所設計流程中的效率瓶頸與資訊整合問題，並具備協助設計單位於有限資源下進行永續評估與決策之潛力。最終，提出一套模組化的永續校園設計流程，作為未來數位與淨零轉型之實務指引。本文不僅提供理論與方法面向的整合示範，更展望 BIM+AI 將成為未來建築產業智慧決策與永續發展的關鍵基礎，推動臺灣教育建築邁向高效、智能與低碳的新典範。

In response to global climate change and the urgent need to achieve carbon neutrality, school campuses—serving as both educational hubs and significant energy consumers—must undergo a transformation toward sustainability and digitalization. This study explores the integration of Building Information Modeling (BIM) and Artificial Intelligence (AI) in sustainable campus design and presents a case study of the renovation project for the activity center at Dacun Elementary School in Changhua County, Taiwan. The research proposes a comprehensive design strategy that aligns with both digital transformation and net-zero goals.The study is divided into two main parts. First, AI-driven architectural generation tools and Building Information Modeling (BIM) are utilized to analyze campus master planning, with a focus on simulating sunlight, ventilation, and carbon emissions to enhance design efficiency and environmental responsiveness. Second, for the renovation of existing buildings, BIM is employed to create accurate as-is models, while AI is applied for energy consumption analysis and solar energy simulations to evaluate the feasibility of carbon-neutral retrofit strategies.Findings indicate that the integration of Building Information Modeling (BIM) and Artificial Intelligence (AI) significantly enhances design efficiency, reduces communication gaps, and improves data-driven decision-making—particularly advantageous for small-scale architectural firms operating with limited resources. This study also proposes a modular workflow for sustainable campus design, providing practical guidance for institutions aiming for digital transformation and net-zero transitions.Beyond theoretical validation, this research envisions BIM and AI as foundational tools for the future of architecture. These technologies will drive smart decision-making and promote sustainable development in Taiwan’s educational facilities, serving as a prototype for efficient, intelligent, and low-carbon campus design.

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