Aero Bicycle
建筑师 Atanas Zhelev、Mariya Korolova 与 Martino Hutz 共同打造的“Aero 自行车”项目，在 2015 年米兰设计周上展出。这款自行车采用了创新的复合木材车架，旨在探索木结构的新可能。其“复合木材技术”类似于碳纤维制造复合材料的方式，通过将 0.9 毫米厚的木片层层堆叠并粘合，形成所需形状。每片木片的天然纤维沿车架内部的受力方向排列，从而增强结构强度。这使得在实现复杂几何形状的同时，使用更少的材料就能达到足够的刚度。团队还尝试了其他制造方法，如在木片中插入碳纤维或铝层，以在保持车架精致的前提下，用更少的材料获得更高的强度。
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The ‘Aero Bicycle‘ project, created by architects Atanas Zhelev, Mariya Korolova and Martino Hutz, incorporates an inventive composite wood bike frame and was shown at Milan Design Week 2015. the skeleton of the bicycle aims to uncover alternative options for wooden structures. The ‘composite wood technology’ was engineered for the realization of this design. this technique is similar to the way in which carbon fiber is used to manufacture composite structures.
The bicycle frame is constructed through the layering of 0.9mm wooden sheets and gluing them together into the desired shape. the natural fibers of each wooden sheet are aligned into the force direction running inside the frame which provides additional strength to the structure. This results in less material being used whilst achieving substantial stiffness with complex geometries. Additional tests using different manufacturing methods such as inserting carbon fiber or aluminum layers within the wooden sheets, were also investigated in order to achieve more strength with less material whilst keeping the frame refined.
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Aero 自行车项目展示了复合木材技术在结构工程中的创新应用。其核心设计策略是借鉴碳纤维的层压工艺，将木材这种传统材料转化为高性能结构件。通过纤维定向排列，车架在受力方向上获得最大强度，同时允许复杂几何形状的实现，这打破了人们对木材承重能力的常规认知。
从材质与工艺角度看，0.9mm 木片的分层胶合不仅保留了木材的自然质感，还通过纤维方向优化了力学性能。插入碳纤维或铝层的实验进一步拓展了木基复合材料的可能性，为轻量化设计提供了新思路。
该设计对零售空间或展览设计也有启发：它证明了可持续材料（如木材）通过工程创新可以媲美工业材料（如碳纤维）的性能。在展示设计中，可借鉴这种“材料叙事”——将工艺过程可视化，让消费者直观感受技术如何提升传统材料的价值。
- 工艺透明化：将层压结构作为设计语言的一部分，例如在展陈中剖开车架截面，展示纤维走向。
- 可持续主张：强调木材作为可再生资源的优势，结合高性能成果，强化品牌环保形象。
- 跨界灵感：零售空间中的结构件（如货架、展台）可尝试类似复合木材工艺，实现轻量且高强度的定制化设计。