Nature evolution provides nature surface treasures with special and fascinating surface function to inspire design, such as the drag reduction of sharkskin. In this overview, the morphology and mechanism of the sharkskin explained from different aspects, and various methods of fabricating surfaces with sharkskin morphology are illustrated in details, and then the applications in different fluid engineering are demonstrated in brief. This overview will improve the comprehension of the morphology and mechanisms of sharkskin, and methods of fabricating the surface with morphology, and the recent applications in engineering
Evolutionary processes have adapted nektonic animals to interact efficiently with the water that sur...
Shark skin inspired riblet surfaces have been known to have drag reduction effect for the over past ...
Humpback whale flippers, sharkskin, and the electroreceptive gel of sharks are three examples of uni...
In this study, a novel but simple biomimetic turbulent drag reduction topology is proposed, inspired...
This paper explores the use of sharkskin in improving the aerodynamic performance of aerofoils. A bi...
The emerging field of biomimetics allows one to mimic biology or nature to develop nanomaterials, na...
It has long been suspected that the denticles on shark skin reduce hydrodynamic drag during locomoti...
This paper explores the use of sharkskin in improving the aerodynamic performance of aerofoils. A bi...
Biological surfaces with unique wettability in nature have provided an enormous innovation for scien...
Our research aims to study the properties of real shark skin in accordance with its topographical fe...
The skin of a fast swimming shark reveals riblet structures that help reduce the shark’s skin fricti...
It was believed that fluid flow and the laminar to turbulent transition delay were more easily contr...
Previous engineering research and development has documented the plausibility of applying biomimetic...
ii The skin of fast swimming sharks exhibits riblet structures aligned in the direction of flow whic...
Functional properties of shark denticles have caught the attention of engineers and scientist today ...
Evolutionary processes have adapted nektonic animals to interact efficiently with the water that sur...
Shark skin inspired riblet surfaces have been known to have drag reduction effect for the over past ...
Humpback whale flippers, sharkskin, and the electroreceptive gel of sharks are three examples of uni...
In this study, a novel but simple biomimetic turbulent drag reduction topology is proposed, inspired...
This paper explores the use of sharkskin in improving the aerodynamic performance of aerofoils. A bi...
The emerging field of biomimetics allows one to mimic biology or nature to develop nanomaterials, na...
It has long been suspected that the denticles on shark skin reduce hydrodynamic drag during locomoti...
This paper explores the use of sharkskin in improving the aerodynamic performance of aerofoils. A bi...
Biological surfaces with unique wettability in nature have provided an enormous innovation for scien...
Our research aims to study the properties of real shark skin in accordance with its topographical fe...
The skin of a fast swimming shark reveals riblet structures that help reduce the shark’s skin fricti...
It was believed that fluid flow and the laminar to turbulent transition delay were more easily contr...
Previous engineering research and development has documented the plausibility of applying biomimetic...
ii The skin of fast swimming sharks exhibits riblet structures aligned in the direction of flow whic...
Functional properties of shark denticles have caught the attention of engineers and scientist today ...
Evolutionary processes have adapted nektonic animals to interact efficiently with the water that sur...
Shark skin inspired riblet surfaces have been known to have drag reduction effect for the over past ...
Humpback whale flippers, sharkskin, and the electroreceptive gel of sharks are three examples of uni...