Slient Currents Pemulihan Ekologi Peringatan by Yanci Chen and Jing Chen

Slient Currents Pemulihan Ekologi Peringatan by Yanci Chen and Jing Chen is a highly esteemed winner of the very prestigious 2025 A' Design Award Besi in Reka Bentuk Produk Mampan, Projek dan Reka Bentuk Hijau Competition Category.

BesiProduk Mampan· 2025

Slient Currents Pemulihan Ekologi Peringatan

by Yanci Chen and Jing Chen

Client: Ycj Studio

A' Design Award Besi Winner in Produk Mampan Category

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Verified Award Winner
Verify Award Status for #170460

View at A' Design Award Press Release Award Badge

Colors

The Design

About Slient Currents Pemulihan Ekologi Peringatan

Silent Currents ialah projek peringatan dan pemulihan marin yang mengubah bekas tapak ujian nuklear menjadi santuari marin. Struktur terumbu buatan diperbuat daripada konkrit gred marin yang disuntik dengan kalsium karbonat untuk menyokong pertumbuhan karang dan biodiversiti. Laluan bawah air dan platform pemerhatian terapung membolehkan pengunjung menyaksikan ekosistem yang sedang pulih. Penjana tenaga air pasang surut membekalkan kuasa untuk tapak ini. Reka bentuk ini menghubungkan peringatan terhadap masa lalu dengan pembaharuan ekologi jangka panjang.

The Recognition

About the A' Design Award Besi

Slient Currents Pemulihan Ekologi Peringatan ialah pemenang A' Design Award Besi, pengiktirafan yang berprestij yang dianugerahkan kepada reka bentuk yang baik yang memenuhi keperluan profesional dan industri yang dijangka daripada ciptaan yang direka dengan baik. Pemenang Besi menunjukkan kemahiran yang besar, kepakaran yang tinggi, kefahaman pakar dan keupayaan kreatif penciptanya. Slient Currents Pemulihan Ekologi Peringatan diharapkan menjadi ciptaan yang sangat dihargai, dikagumi dan disayangi yang praktikal dan inovatif. Reka bentuk pemenang A' Design Award Besi ini menyepadukan amalan terbaik industri dan mempunyai ciri teknikal yang kompeten yang dikaitkan dengan kepakaran dan bakat. Slient Currents Pemulihan Ekologi Peringatan dihormati kerana ketelitiannya dan direka untuk memberikan peningkatan kualiti hidup yang membantu menjadikan dunia tempat yang lebih baik.

Behind the Design

Press Kit

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

Unique Properties: Silent Currents is a memorial and ecological restoration project that transforms a former nuclear test site into a thriving marine sanctuary. The design fosters reef regeneration through artificial reef structures made from eco-friendly marine concrete, accelerating coral growth. Submerged pathways and floating observation points allow visitors to witness marine revival, while integrated tidal energy systems symbolize a transition to sustainable coexistence, merging memory with renewal.
Dimensions & Packaging: Silent Currents spans a 5,000m² marine restoration zone, with artificial reef structures ranging from 2,000mm to 5,000mm in height to support diverse marine habitats. Submerged pathways extend 1,500mm wide, allowing controlled visitor access. Floating observation platforms measure 10,000mm in diameter, integrating tidal energy systems. The site is designed for gradual ecological adaptation, ensuring long-term biodiversity and marine life regeneration.
Tags: marine restoration, artificial reef, tidal energy, ecological memorial, coral regeneration, underwater architecture, sustainable design, nuclear test site transformation, biodiversity conservation, submerged pathways
Production Technology: Silent Currents employs marine-grade concrete infused with calcium carbonate to accelerate coral growth and restore marine biodiversity. 3D-printed reef structures optimize surface texture for marine life attachment, while submerged pathways and floating observation decks use recycled polymers and corrosion-resistant alloys. Tidal energy generators harness ocean currents for sustainable power, ensuring a self-sustaining, low-impact intervention that merges ecological restoration with memorialization.
Design Challenge: The biggest challenge in Silent Currents was transforming a contaminated nuclear test site into a thriving marine sanctuary. Internally, the design had to balance memorialization and ecological regeneration while respecting the site's tragic history. Externally, obstacles included data limitations on long-term radiation effects, marine ecosystem recovery rates, and legal restrictions on site intervention. Overcoming these required interdisciplinary research and innovative material solutions.
Research: Silent Currents is based on environmental and architectural research exploring post-nuclear site restoration. The objective was to rebuild marine ecosystems while creating a meaningful memorial. Methods included marine biology studies, site mapping, and material testing for reef structures. Data from oceanographers, ecologists, and engineers informed the design. Findings show artificial reefs accelerate biodiversity recovery, influencing sustainable restoration strategies and conservation policies.
Inspiration: Silent Currents is inspired by the devastating impact of nuclear testing on marine ecosystems and the urgent need for ecological restoration. The project reimagines a test site as a marine sanctuary, blending memorialization with environmental renewal. Drawing from research on coral rehabilitation, artificial reef technology, and tidal energy, it introduces submerged structures that support biodiversity while serving as a living monument to resilience and transformation.
Project Duration: Feburary 2025 Pacific Ocean
Operation Flow: Silent Currents invites visitors to experience marine restoration firsthand through floating observation decks and submerged pathways that offer a close view of regenerating ecosystems. Over time, the artificial reef structures become thriving habitats, transforming a once-devastated site into a sanctuary for marine life. The integration of tidal energy systems ensures sustainability, making the site both a memorial and a living example of environmental renewal.
Patents: Yanci Chen, Jing Chen
Team Members: Yanci Chen, Jing Chen
Image Credits: Yanci Chen, Jing Chen