Reefit 鞋履 by Pear and Mulberry is a highly esteemed winner of the very prestigious 2025 A' Design Award 銀獎 in 生成式設計 Competition Category.

銀生成式· 2025

Reefit 鞋履

by Pear and Mulberry

Client: Pear and Mulberry

A' Design Award 銀獎 Winner in 生成式 Category

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Verified Award Winner

Verify Award Status for #171137

View at A' Design Award Press Release Award Badge

Colors

The Design

About Reefit 鞋履

Reefit係一個運用生成式設計同可生物降解物料創作嘅鞋履概念。結構靈感源自珊瑚礁，結合咗提供支撐嘅剛性珊瑚狀框架同具適應性嘅柔軟晶格層。設計採用參數化建模同3D打印技術，並使用海藻提煉嘅生物塑料、注入鈣質嘅晶格結構同菌絲體複合材料。晶格層可以貼合腳形，提升透氣度。當鞋履穿舊之後，可以放置喺海洋修復場地，其富含鈣質嘅結構有助珊瑚附著生長，促進海洋生物多樣性。

The Recognition

About the A' Design Award 銀獎

Reefit 鞋履是 A' Design Award 銀獎得主，這是授予頂級、華美而令人印象深刻的設計的極為崇高的認可。銀獎得主是極其卓越、極具創造力的作品，展現出其設計師傑出的專業技能、才華與敏銳。預計Reefit 鞋履將成為一件出色的典範之作，兼具非凡的專業性與深刻的創新性。這件贏得 A' Design Award 銀獎的設計是一項備受矚目、令人欽佩的發明，造福並拓展藝術、科學、設計和技術的界限。Reefit 鞋履是一件令人羨慕的創作，它喚起渴望，帶來積極的情感，並激發驚嘆與讚嘆。

Behind the Design

Press Kit

Credits, team members and technical details provided by the designer.

Unique Properties: This footwear concept is a fusion of generative design and bio-integrated material science, inspired by the symbiotic nature of coral reefs. Utilizing parametric modeling and 3D printing with biodegradable materials, it embodies an intricate balance between structural integrity and organic fluidity. The multi-layered composition integrates a coral skeleton framework for support and a soft-skin lattice for adaptability, offering a unique haptic experience. Beyond aesthetics, its lifecycle embodies a complete sustainability loop—once worn out, the shoes can be repurposed as artificial coral reefs, reintegrating into marine ecosystems to foster new habitats.
Dimensions & Packaging: Flexible lattice composition, biodegradable mycelium composites, and 3D-printed structural coral-inspired framework. Adaptable sizing range via generative fit algorithms.
Tags: Biomimetic Footwear, Sustainable Fashion, Computational Design, Coral Restoration, Machine Learning, Eco-Futurism
Production Technology: The footwear is realized through generative design workflows, integrating biomimetic simulations, 3D-printed bio-composites, and mycelium-based biodegradable polymers. The parametric structure optimizes breathability, structural performance, and lightweight flexibility. The material composition includes seaweed-derived bioplastics, calcium-infused lattice structures, and fungal mycelium composites, ensuring a regenerative lifecycle aligned with oceanic restoration initiatives. Computational fluid dynamics (CFD) and topological optimization refine the form’s hydrodynamic properties, enhancing its environmental synergy when repurposed as an artificial reef structure.
Design Challenge: Key challenges involved balancing highly organic aesthetics with structural feasibility, ensuring manufacturability while maintaining an avant-garde design language. The material science complexities of developing fully biodegradable yet durable footwear posed additional constraints, requiring iterative prototyping and structural simulations. Furthermore, bridging computational design with ecological utility demanded extensive collaboration between fashion technologists and marine conservation experts. Ultimately, this project redefines footwear as a biological artifact, capable of both self-expression and environmental restoration.
Research: This project employs an interdisciplinary research approach at the convergence of computational design, biomaterials, and marine ecology. Core objectives include: Analyzing coral growth patterns through pattern recognition to inform dynamic footwear structures. Developing parametric footwear forms that optimize support and adaptability based on generative design principles. Testing biofabricated materials for structural resilience and marine integration, ensuring sustainability beyond the product lifecycle. Collaborations with material scientists, marine biologists, and algorithmic designers refine the manufacturability of bio-integrated footwear. The research underscores the potential for fashion as a regenerative agent, transforming waste into ecological solutions.
Inspiration: The project reimagines shoes as living ecosystems, merging marine biology, computational design, and sustainability. Drawing from the duality of coral structures—the rigid skeleton and the soft, enveloping polyps—the shoe mimics nature’s architecture, offering both protection and adaptability. Inspired by the regenerative properties of coral reefs, this project envisions footwear as a harmonious extension of natural cycles, redefining the relationship between fashion, ecology, and biomimicry.
Project Duration: The project commenced in March 2025, developed across multiple research hubs specializing in generative design, bio-fabrication, and sustainable material science. Research and prototyping take place in interdisciplinary studios, iterating through simulation and material testing.
Operation Flow: Designed for both high-fashion and sustainable impact, the coral-inspired footwear offers a radical reinterpretation of footwear lifecycle. The structure dynamically conforms to the foot, ensuring ergonomic adaptability. Over time, its material composition subtly evolves with exposure to moisture and heat, enhancing biodegradability. Upon retirement, the shoes can be deployed in marine restoration efforts, where their calcium-rich structure facilitates coral attachment and marine biodiversity growth, extending their functional impact beyond fashion into ecological preservation.
Image Credits: PEAR & MULBERRY