biomimetic and nature-inspired surfaces: innovation in
TRANSCRIPT
Biomimetic
and
Nature-Inspired Surfaces:
Innovation in Chemistry
and Engineering
Yoseph Bar-Cohen-Biomimetics_ Nature-Based Innovation-CRC Press (2011)
Biomimetics and Bio-Inspired Engineering
Yoseph Bar-Cohen-Biomimetics_ Biologically Inspired Technologies-CRC Press (2005)
Biological vs. Synthetic Polymers and Materials
Nature Uses Surface and Interfacial Tensions
Annu. Rev. Fluid. Mech. 2006.38:339-369.
Nature Uses Surface and Interfacial Tensions
Nature, 2004, 432, 36.
Nature Uses Surface and Interfacial Tensions
Nature, 2004, 432, 36.
Nature Uses Surface and Interfacial Tensions
https://youtu.be/Z83l347rh6E?t=9
Nature Uses Surface and Interfacial Tensions
Nature Uses Surface and Interfacial Tensions
Elizabeth Pennisi Science 2014;343:1194-1197
Published by AAAS
The Cheerio Effect
Cheerio Effect-NIcNrsTlbVU_x264
The Cheerio Effect
From: Karpitschka et al., Liquid drops attract or repel by the inverted Cheerios effect, PNAS 2016, 113, 7403–7407,
doi: 10.1073/pnas.1601411113
See also: Anand Jagota, Role reversal: Liquid “Cheerios” on a solid sense each other, PNAS, 2016, 113, 7294–7295, doi:
10.1073/pnas.1607893113
Superhydrophobic on the Top Surface
Superoleophobic on the Bottom Surface
The Lotus Leaf
Water Drops
Hexane Drops
The Lotus Leaf and Rose Petal Effects
Water Drops
Hexane Drops
lotus leaf and rose petal effect
Zoom Into a Lotus Leaf (Narrated)
Zoom Into the Upper Side of a Lotus Leaf
Defining Hydrophilic and Hydrophobic Surfaces from Contact Angle
Defining Oleophilic and Oleophobic Surfaces from Contact Angle
Water Drop Bouncing on a Superhydrophobic Surface
Bouncing Water Droplet Falling onto Super-Hydrophobic Surface-riXp_Q-fDv8_x264
Removing Water Drops from Hydrophilic and Hydrophobic Surfaces
Practical Applications of Superhydrophobic Surfaces
The SECOND Official Ultra-Ever Dry Video - Superhydrophobic coating - Repels almost any liquid!-BvTkefJHfC0_x264
Yongmei, Zheng-Bio-inspired wettability surfaces _ developments in micro- and nanostructures-Pan Stanford Publishing (2016)
The Underside of the Lotus Leaf
Yongmei, Zheng-Bio-inspired wettability surfaces _ developments in micro- and nanostructures-Pan Stanford Publishing (2016)
The Underside of the Lotus Leaf
Yongmei, Zheng-Bio-inspired wettability surfaces _ developments in micro- and nanostructures-Pan Stanford Publishing (2016)
Similarly Patterned Superoleophobic Fish Scales
Biomimetic Nanomaterials_chap01
Shark Skin and Sharkskin-Mimetic Surfaces
Yongmei, Zheng-Bio-inspired wettability surfaces _ developments in micro- and nanostructures-Pan Stanford Publishing (2016)
Lotus Leaf Mimetics of Both Surfaces
Yongmei, Zheng-Bio-inspired wettability surfaces _ developments in micro- and nanostructures-Pan Stanford Publishing (2016)
Lotus Leaf Mimetics of Both Surfaces
Switchable Wetting of Surfaces
The Aquatic Plant Salvinia molesta
Giant Salvinia - A Very Wicked Plant-CWsq7cX3tWg_x264
Bharat Bhushan-Biomimetics_ Bioinspired Hierarchical-Structured Surfaces for Green Science and Technology, Springer-Verlag, 2012.
The Aquatic Plant Salvinia molesta
Hairs with
Hydrophilic
Tips that
secure the
water drops
Mosquito Eye (2005) Scanning Electron Microscope Zoom
Scanning Electron Microscope Zoom of the Mosquito Eye
Xuefeng Gao, Xin Yan, Xi Yao, Liang Xu,
Kai Zhang, Junhu Zhang, Bai Yang, and
Lei Jiang, “The Dry-Style Antifogging
Properties of Mosquito Compound Eyes
and Artificial Analogues Prepared by Soft
Lithography”, Adv. Mater. 2007, 19,
2213–2217.
Anti-Fogging Mosquito Eyes
http://www.photomacrography.net/forum/viewtopic.php?t=854
7
Two Adjacent Omatidia Nano-Nipples on the Omatidia
A Water Drop on the
Artificial Biomimetic Surface
Holger F. Bohn and Walter Federle, “Insect
aquaplaning: Nepenthes pitcher plants
capture prey with the peristome, a fully
wettable water-lubricated anisotropic
surface”, PNAS, 101, 14138–14143 (2004).
Ulrike Bauer and Walter Federle, ”The
insect-trapping rim of Nepenthes pitchers.
Surface structure and function”, Plant
Signaling & Behavior, 4, 1019-1023 (2009).
Tak-Sing Wong, Sung Hoon Kang, Sindy K. Y.
Tang, Elizabeth J. Smythe, Benjamin D.
Hatton, Alison Grinthal & Joanna Aizenberg.
“Bioinspired self-repairing slippery surfaces
with pressure-stable omniphobicity”,
Nature, 477, 443-447 (2011).
Insect Capture by the Insectivorous Plant Nepenthes
How flesh-eating pitcher plants trap insects-ya2ndp1OrPQ_x264
The Insectivorous Pitcher Plant Nepenthes
MythBusters - Banana Peel Slip
MythBusters - Banana Peel Slip
Police demonstrate the effectiveness of 'instant banana peel' as a tool to curb ...HD Stock Footage
Instant Banana Peel or Riotrol
Pista de ski em São Roque-SP
Sliding Angle Permits Skiing in Tropical Brazil
Functional Biomimetic Surfaces - Durham University
Yongmei, Zheng-Bio-inspired wettability surfaces _ developments in micro- and nanostructures-Pan Stanford Publishing (2016)
Namib Desert Beetle Wing Cover Surface
Nature Using Surface and Interfacial Tensions
http://www.yankodesign.com/2010/07/05/beetle-juice-inspired/
http://thireaultdesign.blogspot.com.br/2011/09/namib-desert-
beetles.html
Namib Desert Beetle
Hydrophilic bumps/Hydrophobic channels
Primitive Man Watching Nature Use Surface and Interfacial Tensions
Atacama
Desert
Oxidized Nylon fishing line
L. Sepúlveda, Univ. Chile (1983)
Bio-Inspired Fog Harvesting – Durham University
Superhydrophobic Surfaces – Durham University
Superhydrophilicity
http://www.iskweb.co.jp/eng/products/functional05.html
Yongmei, Zheng-Bio-inspired wettability surfaces _ developments in micro- and nanostructures-Pan Stanford Publishing (2016)
Water Drops on a Spider Web
Yongmei, Zheng-Bio-inspired wettability surfaces _ developments in micro- and nanostructures-Pan Stanford Publishing (2016)
Spider Silk
Yongmei, Zheng-Bio-inspired wettability surfaces _ developments in micro- and nanostructures-Pan Stanford Publishing (2016)
Spindles on Spider Silk
Yongmei, Zheng-Bio-inspired wettability surfaces _ developments in micro- and nanostructures-Pan Stanford Publishing (2016)
Time-Dependence of Directional Water Collection by a Spider Web
Yongmei, Zheng-Bio-inspired wettability surfaces _ developments in micro- and nanostructures-Pan Stanford Publishing (2016)
Nature Uses Surface and Interfacial Tensions
Mechanism of directional water collection on
wet-rebuilt spider silk.
Nature, 2010, 463, 640-643.
Nature Uses Surface and Interfacial Tensions
Yongmei, Zheng-Bio-inspired wettability surfaces _ developments in micro- and nanostructures-Pan Stanford Publishing (2016)
Making Fibers with Artificial Spindles
Fluid-Coating Method for Making Fibers with Artificial Spindles
Yongmei, Zheng-Bio-inspired wettability surfaces _ developments in micro- and nanostructures-Pan Stanford Publishing (2016)
Yongmei, Zheng-Bio-inspired wettability surfaces _ developments in micro- and nanostructures-Pan Stanford Publishing (2016)
Applications:
Controlling the Motion of Liquid Drops
High Efficiency Water Collection
Enhanced Solid-Liquid Adhesion
Fibers Responsive to their Environment
Bharat Bhushan-Biomimetics_ Bioinspired Hierarchical-Structured Surfaces for Green Science and Technology, Springer-Verlag, 2012.
Bio-Inspired and Biomimetic Adhesion
Yongmei, Zheng-Bio-inspired wettability surfaces _ developments in micro- and nanostructures-Pan Stanford Publishing (2016)
Spider Capture Silk
The Insectivorous Sundew Plant Drosera
Drosera hunting insect-_ebJ6Fgr0Vg_x264
Bharat Bhushan-Biomimetics_ Bioinspired Hierarchical-Structured Surfaces for Green Science and Technology, Springer-Verlag, 2012.
The Tokay Gecko Foot
The Gecko Foot
Smart materials (1 of 5)_ Gecko Adhesive fit for Spiderman-gzm7yD-JuyM_x264
Bharat Bhushan-Biomimetics_ Bioinspired Hierarchical-Structured Surfaces for Green Science and Technology, Springer-Verlag, 2012.
A Tokay Gecko Foot Mimic
Gecko Foot Peeling Off Surfaces
Cremaldi et al. In: Havazelet Bianco-Peled_ Maya Davidovich-Pinhas-Bioadhesion and biomimetics _ from nature to applications-Pan Stanford Publishing (2015), pp. 85ff
Gecko Foot Inspired Adhesive Patch
Raz Jelinek, Biomimetics-A Molecular Perspective-de Gruyter (2013)
Smart materials (1 of 5)_ Gecko Adhesive fit for Spiderman-gzm7yD-JuyM_x264
Smart materials based on Gecko Adhesion
Bharat Bhushan-Biomimetics_ Bioinspired Hierarchical-Structured Surfaces for Green Science and Technology, Springer-Verlag, 2012.
Fly Feet
Yoseph Bar-Cohen-Biomimetics_ Biologically Inspired Technologies-CRC Press (2005)
Biomimetic Attachment Structures of Flies
Yoseph Bar-Cohen-Biomimetics_ Biologically Inspired Technologies-CRC Press (2005)
Biomimetic Attachment Structures of Flies
Yoseph Bar-Cohen-Biomimetics_ Biologically Inspired Technologies-CRC Press (2005)
Biomimetic Attachment Devices Based on a Tree Frog
Mussel Adhesion
https://cosmosmagazine.com/biology/new-underwater-glue-inspired-mussels
Byssal threads and adhesive pads are clearly visible in this photo of a mussel attached to a
pane of glass.
Stephen Ornes PNAS 2013;110:16697-16699
©2013 by National Academy of Sciences
Mussel Adhesion
Zeng et al. In: Havazelet Bianco-Peled_ Maya Davidovich-Pinhas-Bioadhesion and biomimetics _ from nature to applications-Pan Stanford Publishing (2015), pp. 49ff
The adhesion mechanisms of Mussel foot proteins between
mica and Self Assembled Monolayer (SAM) surfaces.
Jing Yu et al. PNAS 2013;110:15680-15685
©2013 by National Academy of Sciences
See also: Levine et al., Surface force measurements and simulations of mussel-derived peptide adhesives on wet
organic surfaces, PNAS 2016, 113, 4332–4337; doi: 10.1073/pnas.1603065113
L-Dopa Derived Mussel Glue Mimetics
Ceylan et al. In: Patrick Flammang-Biological and biomimetic adhesives-Royal Society of Chemistry (2013), pp. 103ff
The Centipede Henia vesuviana
www.zobodat.at/pdf/BERI_S10_0071-0079.pdf
2008 2014 2012 2009
2010 2014 2016
http://www.intechopen.com/books/
biomimetics-learning-from-nature
2012 2006
2010
2015 2014 2015 2015
2013 2015 2014 2015 2011
2015
2006 2013 2011
2013 2013
2011
Bouncing Drops and Quantum Mechanics
#02 Fog Catchers in Atacama Desert - Living Atlas Chile
Fog Catchers in the Atacama Desert – North of Chile
Frank H. QuinaInstituto de Química
Universidade de São Paulo
São Paulo
e-mail: [email protected]
Associated Laboratory