Indiziert in
- Öffnen Sie das J-Tor
- Genamics JournalSeek
- Akademische Schlüssel
- JournalTOCs
- Forschungsbibel
- Nationale Wissensinfrastruktur Chinas (CNKI)
- Scimago
- Ulrichs Zeitschriftenverzeichnis
- Elektronische Zeitschriftenbibliothek
- RefSeek
- Hamdard-Universität
- EBSCO AZ
- OCLC – WorldCat
- SWB Online-Katalog
- Virtuelle Bibliothek für Biologie (vifabio)
- Publons
- MIAR
- Wissenschaftliche Indexierungsdienste (SIS)
- Euro-Pub
- Google Scholar
Nützliche Links
Teile diese Seite
Zeitschriftenflyer
Open-Access-Zeitschriften
- Allgemeine Wissenschaft
- Biochemie
- Bioinformatik und Systembiologie
- Chemie
- Genetik und Molekularbiologie
- Immunologie und Mikrobiologie
- Klinische Wissenschaften
- Krankenpflege und Gesundheitsfürsorge
- Landwirtschaft und Aquakultur
- Lebensmittel & Ernährung
- Maschinenbau
- Materialwissenschaften
- Medizinische Wissenschaften
- Neurowissenschaften und Psychologie
- Pharmazeutische Wissenschaften
- Umweltwissenschaften
- Veterinärwissenschaften
- Wirtschaft & Management
Abstrakt
Fast Parallel Plasmonic Direct-Write Nanofabrication with Metasurface-Enhanced Plasmonic Lens
Anna Prosekov
Fast parallel plasmonic direct-write nanofabrication represents a transformative approach in modern nanotechnology, offering unparalleled precision and efficiency in creating nanostructures. This method harnesses the unique properties of plasmonic lenses enhanced by metasurfaces to achieve high-speed patterning of substrates with nanometer-scale resolution. By manipulating surface plasmon resonances, these lenses enable precise control over light-matter interactions, facilitating rapid prototyping and large-scale production of nanoscale devices and functional structures. This abstract explores the principles, applications, and future prospects of fast parallel plasmonic direct-write nanofabrication, highlighting its potential impact across various fields including nanophotonics, biotechnology, and materials science. As advancements continue, integrating artificial intelligence and exploring novel materials promise to further enhance the capabilities and broaden the applications of this innovative nanofabrication technique.