4.8 Article

Extreme biomimetics: Preservation of molecular detail in centimeter-scale samples of biological meshes laid down by sponges

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SCIENCE ADVANCES
卷 5, 期 10, 页码 -

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AMER ASSOC ADVANCEMENT SCIENCE
DOI: 10.1126/sciadv.aax2805

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资金

  1. DFG (Germany) [EH 394/3]
  2. Dr. Erich Kruger Foundation (Germany)
  3. BHMZ at TU Bergakademie Freiberg (Germany)
  4. SMWK Project 2018 (Germany) [02010311]
  5. DAAD-Italy Project Marine Sponges as Sources for Bioinspired Materials Science [57397326]
  6. Ministry of Science and Higher Education (Poland)
  7. DAAD
  8. Erasmus Plus programs
  9. Polish National Agency for Academic Exchange [PPN/BEK/2018/1/00071]
  10. German Research Foundation (DFG), Collaborative Research Centre 799 (CRC 799) TRIP-matrix composites project
  11. UD RAS [15-10-2-23]
  12. Bilateral Program of the Russian-German Laboratory at BESSY II
  13. German-Russian Interdisciplinary Science Center (G-RISC) - German Federal Foreign Office via the German Academic Exchange Service (DAAD)
  14. Russian Science Foundation [17-14-01089]
  15. Slovak grant agency [APVV 16-0039]
  16. International Institute of Biomineralogy (INTIB GmbH, Germany)
  17. RFBR [19-02-00106a]
  18. Russian Science Foundation [17-14-01089] Funding Source: Russian Science Foundation

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Fabrication of biomimetic materials and scaffolds is usually a micro- or even nanoscale process; however, most testing and all manufacturing require larger-scale synthesis of nanoscale features. Here, we propose the utilization of naturally prefabricated three-dimensional (3D) spongin scaffolds that preserve molecular detail across centimeter-scale samples. The fine-scale structure of this collagenous resource is stable at temperatures of up to 1200 degrees C and can produce up to 4 x 10-cm-large 3D microfibrous and nanoporous turbostratic graphite. Our findings highlight the fact that this turbostratic graphite is exceptional at preserving the nanostructural features typical for triple-helix collagen. The resulting carbon sponge resembles the shape and unique microarchitecture of the original spongin scaffold. Copper electroplating of the obtained composite leads to a hybrid material with excellent catalytic performance with respect to the reduction of p-nitrophenol in both freshwater and marine environments.

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