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2023
DOI: 10.1016/j.nantod.2023.102008
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Revolutionizing biosensing with superwettability: Designs, mechanisms, and applications

Zhong Feng Gao,
Hai Zhu,
Yanlei Li
et al.
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Cited by 4 publications
(3 citation statements)
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“…Advanced nanoengineered nonwetting surfaces that can passively remove liquids will have technological application in self-cleaning windows, solar panels, waterproof clothing, biosensing, aircraft wings, electric wires, pipelines, and vehicle windshields or mirrors . In addition to these nonfood applications, antiwettability-boosted surfaces, including superhydrophobic, SLIPS, and re-entrant structured surfaces, have already received attention as a promising platform for food-contact applications.…”
Section: Applications Of Nonwettable Coatings On Food-contact Surfacesmentioning
confidence: 99%
“…Advanced nanoengineered nonwetting surfaces that can passively remove liquids will have technological application in self-cleaning windows, solar panels, waterproof clothing, biosensing, aircraft wings, electric wires, pipelines, and vehicle windshields or mirrors . In addition to these nonfood applications, antiwettability-boosted surfaces, including superhydrophobic, SLIPS, and re-entrant structured surfaces, have already received attention as a promising platform for food-contact applications.…”
Section: Applications Of Nonwettable Coatings On Food-contact Surfacesmentioning
confidence: 99%
“…However, the lack of laboratory infrastructure, precision equipment, and skilled personnel can restrict the utilization of these biosensing technologies, especially in resource-constrained developing countries. , Visual signal conversion modes are considered some of the most effective approaches to overcome these challenges, minimize diagnostic costs, and improve access to quality healthcare services in regions with limited resources. , It can convert information about electron migration, energy conversion, and mass exchange at interfaces into detectable visual signals. In recent years, visual biosensing mechanisms based on specific liquid-based interface behaviors have been gaining attention due to the advantages of liquid-based interfaces, including preserving the functionality of biomolecules, providing high molecular mobility, and allowing for a more comprehensive study of biochemical reactions under dynamic conditions . As the core of this sensing mechanism, liquids offer response sites for various molecular recognitions and respond to target molecular stimuli by altering their physicochemical properties to produce specific liquid-based interfacial behaviors.…”
mentioning
confidence: 99%
“…In recent years, visual biosensing mechanisms based on specific liquid-based interface behaviors have been gaining attention due to the advantages of liquidbased interfaces, including preserving the functionality of biomolecules, providing high molecular mobility, and allowing for a more comprehensive study of biochemical reactions under dynamic conditions. 7 As the core of this sensing mechanism, liquids offer response sites for various molecular recognitions and respond to target molecular stimuli by altering their physicochemical properties to produce specific liquid-based interfacial behaviors. Ultimately, visual signals can be derived from the transformation between microscopic molecular binding events and macroscopically specific liquidbased interface behaviors (Figure 1).…”
mentioning
confidence: 99%