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Atom lithography: Creating patterned magnetic layers

This work, led by Thijs Meijer, explores the innovative field of atom lithography and its potential for creating patterned magnetic layers at the nanoscale. Building on the foundational experiments from the 1933 Frisch Experiment with sodium gas, the research at TU Eindhoven integrates advanced techniques such as laser cooling and MOKE (Magneto-Optical Kerr Effect) microscopy. By investigating nanostructures in magnetic materials like iron, the study aims to further our understanding of nanoscale patterning and its applications in nanotechnology.

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Atom lithography: Creating patterned magnetic layers

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  1. Atom lithography:Creating patterned magnetic layers Thijs Meijer

  2. Atoomlithografie: nanostructuren! Thijs Meijer

  3. Experiment Frisch (1933)fotonen (licht) – atomen (materie) Natrium gas Natrium Thijs Meijer

  4. Experiment Frisch (1933)fotonen (licht) – atomen (materie) Thijs Meijer

  5. Experiment Frisch (1933)fotonen (licht) – atomen (materie) Natrium Atoom Bundel Natriumlamp Thijs Meijer

  6. Experiment Frisch (1933)fotonen (licht) – atomen (materie) Natrium Atoom Bundel lens Natriumlamp Thijs Meijer

  7. AtoomlithografieExperiment TU Eindhoven substraat IJzer Atoom Bundel IJzer Thijs Meijer

  8. AtoomlithografieExperiment TU Eindhoven substraat Laser IJzer Atoom Bundel IJzer Thijs Meijer

  9. AtoomlithografieExperiment TU Eindhoven substraat Laser spiegel IJzer Atoom Bundel IJzer Thijs Meijer

  10. AtoomlithografieExperiment TU Eindhoven Laser Thijs Meijer

  11. Atoomlithografie Thijs Meijer

  12. Atoomlithografie Afstand is golflengte / 2: 186 nm = 0,000000186 m Thijs Meijer

  13. Atoomlithografie Thijs Meijer

  14. Atoomlithografie Thijs Meijer

  15. Atoomlithografie: nanotechnologie! Afstand is golflengte / 2: 186 nm = 0,000000186 m Thijs Meijer

  16. Atoomlithografie: “nano-pen” Stelling 3: Hoewelatoomlithografiegoed is in nano-structurering op de groteschaal, is het nooitgrootgeworden in structurering op de echtenanoschaal. Thijs Meijer

  17. Atoomlithografie en laserkoeling. Thijs Meijer

  18. Atoomlithografie en laserkoeling. Thijs Meijer

  19. Atoomlithografie en laserkoeling. Stelling 1: In tegenstelling tot watveelalgedachtwordt, is laserkoelinggeenvereistevooratoomlithografie Thijs Meijer

  20. Magnetischenanostructuren? IJzer is magnetisch IJzernanostructuren Thijs Meijer

  21. Magnetischenanostructuren? MOKE: Lokaalmeten op microschaal “Magnetischeeffecten niet evident veroorzaakt door aanwezigheid lijnstructuren” (Myszkiewicz et al, APL, 85, 3842, (2004), Ph.D. Smeets 2004) MOKE – microscopie: Meten over oppervlak Stelling 2: Eenvergelijking van twee objecten gaatbeterals je deze tegelijkertijdbekijkt. Thijs Meijer

  22. Magnetischenanostructuren? MOKE – Microscopie: Thijs Meijer

  23. Magnetischenanostructuren? Thijs Meijer

  24. Magnetischenanostructuren? Thijs Meijer

  25. Atom lithography:Creating patterned magnetic layers Thijs Meijer

  26. Atom lithography:Creating patterned magnetic layers Thijs Meijer

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