本研究從材料研究著手，重新思考人、建築與環境之間的關係。在自然界中，我們可以觀察到各種生物在適應環境時所演化出的多樣特徵，這些特殊適應環境的方式提供我們作適應性仿生建築的想像。

本文以木質材料作為可動皮層的媒介，透過木質材料在吸收水分後會改變其形狀大小的特性，使木質皮層在不同環境條件下會自然地捲曲變形。不同的是，本文將木質材料彼此複合，原木皮層是反應層，4D列印木質PLA是抑制層，利用木質PLA在列印時調控的參數做為控制吸濕可動皮層捲曲的方式。

研究方法分為三個主要階段。首先，通過反覆的材料試驗，尋找適合用作吸濕制動器反應皮層的木質單元。接下來，通過幾何排列和形態演化來研究木質皮層的物理動態、組構關係和空間性質，以創建可發展的空間原型，並實作之觀察記錄其效果。最後，整合成果並討論木質皮層的組構以及與環境互動的特性。這讓可持續性建築和其他領域的創新設計提供新的可能性，不僅可以節省能源，還可以提高建築的環境適應能力。

The article is focused on material research, reimagining the relationship between humans, architecture, and the environment. In nature, various organisms exhibit diverse features evolved for adapting to their environments. These unique adaptive strategies serve as inspiration for envisioning adaptive biomimetic architecture.

Using wood as a medium for the kinetic skin, utilizing its property of changing shape and size upon absorbing moisture, enabling the wooden skin to naturally curl and deform under different environmental conditions. The wooden materials are compounded with each other, with the original wood veneer serving as the responsive layer, and 4D printed wooden PLA as the inhibitory layer. The parameters controlled during the printing are utilized to control the curling of the hygroscopic kinetic skin.

Firstly, suitable wood materials are identified through material testing to serve as the responsive layer for the hygroscopic actuator. Second, the physical dynamics, structural relationships, and spatial properties of the wooden skin are studied through geometric arrangements and morphological evolution. This involves creating a developable spatial prototype, implementing it, and observing its effects. Finally, the results are integrated, and the structure of the wooden skin and its interactions with the environment are discussed. This opens up new possibilities for innovative designs in sustainable architecture and other fields, offering not only energy savings but also enhancing the adaptability of buildings to their surroundings.

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