本研究針對當代建築面臨的空間自主性與構築適應性問題，建立一套完整的空間自造系統，目的在解決建築構築過程中的專業性限制與空間靈活性不足等問題，本研究以空間自造系統為核心，透過模矩化單元設計，結合摺疊幾何邏輯、數位工具輔助及低耗損切割策略，逐步構建出具彈性與永續性的空間構築系統。

研究從設計原型的建構出發，透過摺疊幾何邏輯與數位模擬工具探索單元設計的型態變化及結構穩定性，並將單元透過堆疊、鏡射與角度約束等方式，衍生出具水平延展與垂直增長能力的空間模組。在此基礎上，研究以40片標準板材作為資源框架，實驗並展示了三種空間型態：包覆性最高的靜態空間（THE COCOON）、具流動感與展示潛力的環形空間（THE GALLERY），以及具互動性與靈活翻轉特質的開放空間（THE PLAYGROUND）。

最終，研究成果展現了空間自造系統在設計彈性與構築效率上的潛力，並透過模矩單元設計回應了不同使用情境下的靈活需求。同時，研究強調開源共享與在地製造的發展特質，為未來建築設計與製造提供了可持續性實踐的方向，並開啟建築構築的新可能性。

This research addresses the growing demand for spatial autonomy and adaptable architectural systems, proposing a novel direction for architectural manufacturing design. The study develops a comprehensive self-constructed spatial system, responding to the limitations of traditional construction processes by enhancing flexibility, accessibility, and adaptability.

The research adopts a modular design approach, integrating foldable geometric logic with digital fabrication tools. Through iterative experimentation, the study begins with modular unit design, optimizing material usage through low-waste cutting strategies. Three spatial systems—THE COCOON, THE GALLERY, and THE PLAYGROUND—are developed and tested to demonstrate the versatility and scalability of modular units. These systems showcase dynamic spatial configurations, responding to varying needs for enclosure, openness, and functional transformation.

Results confirm that the proposed modular system can efficiently achieve rapid assembly, disassembly, and space reconfiguration while addressing sustainable development goals. The findings provide a viable framework for open-source, locally manufactured, and adaptable architectural systems, offering new possibilities for future spatial design and construction practices.

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