How marine sponges filter the great oceans via flagella motion: A nanomechanics perspective

Inspired by the flimmer hairs found on the flagella of certain species of choanoflagellates, we show in this paper that nanoscale flagella hair on slender flagellum surfaces can drive flow with nanoscale motion. Using molecular dynamics, we provide numerical proof that the nanoscale hairs, moving in a biased periodic motion, can attain high water flow rates in excess of 1200 [Formula: see text]m 3 ⋅ s[Formula: see text]. This flow rate is on par with the experimentally measured flow rates of natural sponges, which are known to be capable of exceptionally high pumping efficiency. This paper highlights the potential of using collective motion of nanohairs to pump fluid and suggests a range of parameters of the force function that can achieve significant flow.

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Publication Details

Journal
Nano Micro Mechanics Review
Published
2025-02-20
DOI
https://doi.org/10.1142/s3082805825500025
Primary Topic
Marine Sponges and Natural Products
Type
article
Field-Weighted Citation Impact
0.00
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article

How marine sponges filter the great oceans via flagella motion: A nanomechanics perspective

William Toh, Elisa Y.M. Ang, Jingjie Yeo, Zishun Liu et al.
Nano Micro Mechanics Review
Marine Sponges and Natural Products
article

How marine sponges filter the great oceans via flagella motion: A nanomechanics perspective

William Toh, Elisa Y.M. Ang, Jingjie Yeo, Zishun Liu, Teng Yong Ng, Peng Cheng Wang
article en

Abstract

Inspired by the flimmer hairs found on the flagella of certain species of choanoflagellates, we show in this paper that nanoscale flagella hair on slender flagellum surfaces can drive flow with nanoscale motion. Using molecular dynamics, we provide numerical proof that the nanoscale hairs, moving in a biased periodic motion, can attain high water flow rates in excess of 1200 [Formula: see text]m 3 ⋅ s[Formula: see text]. This flow rate is on par with the experimentally measured flow rates of natural sponges, which are known to be capable of exceptionally high pumping efficiency. This paper highlights the potential of using collective motion of nanohairs to pump fluid and suggests a range of parameters of the force function that can achieve significant flow.

Nano Micro Mechanics ReviewVol. 01(01)
Singapore Institute of Technology (SG), City University of Hong Kong (HK), Nanyang Technological University (SG), Cornell University (US), Université Bourgogne Franche-Comté (FR), City College of Dongguan University of Technology (CN)
Openalex Percentile: Top 97%
Marine Sponges and Natural Products
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