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The 2021 Magnonics Roadmap

Journal of Physics Condensed Matter · 2021 · Vol. 33(41) · pp. 413001–413001
Anjan BarmanG. GubbiottiSam LadakA. O. AdeyeyeMaciej KrawczykJoachim GräfeChristoph AdelmannSorin CotöfanăAzad NaeemiVitaliy I. VasyuchkaB. HillebrandsС. А. НикитовHaiming YuDirk GrundlerА. V. SadovnikovA. A. GrachevС. Е. ШешуковаJ-Y DuquesneM. MarangoloGyörgy CsabaWolfgang PorodV. E. DemidovSergei UrazhdinS. O. DemokritovEdoardo AlbisettiDaniela PettiR. BertaccoHelmut SchultheißV. V. KruglyakV. D. PoimanovSourav SahooJaivardhan SinhaHyunsoo YangMarkus MünzenbergTakahiro MoriyamaShigemi MizukamiP. LanderosR. A. GallardoG. CarlottiJoo-Von KimR. L. StampsR. E. CamleyBivas RanaY. OtaniWeichao YuTao YuG. BauerC. H. BackGötz S. UhrigOleksandr V. DobrovolskiyB BudinskaHuajun QinSebastiaan van DijkenAndrii V. ChumakAlexander KhitunDmitri E. NikonovIan A. YoungBenjamin ZingsemMichael Winklhofer

Abstract

Magnonics is a budding research field in nanomagnetism and nanoscience that addresses the use of spin waves (magnons) to transmit, store, and process information. The rapid advancements of this field during last one decade in terms of upsurge in research papers, review articles, citations, proposals of devices as well as introduction of new sub-topics prompted us to present the first roadmap on magnonics. This is a collection of 22 sections written by leading experts in this field who review and discuss the current status besides presenting their vision of future perspectives. Today, the principal challenges in applied magnonics are the excitation of sub-100 nm wavelength magnons, their manipulation on the nanoscale and the creation of sub-micrometre devices using low-Gilbert damping magnetic materials and its interconnections to standard electronics. To this end, magnonics offers lower energy consumption, easier integrability and compatibility with CMOS structure, reprogrammability, shorter wavelength, smaller device features, anisotropic properties, negative group velocity, non-reciprocity and efficient tunability by various external stimuli to name a few. Hence, despite being a young research field, magnonics has come a long way since its early inception. This roadmap asserts a milestone for future emerging research directions in magnonics, and hopefully, it will inspire a series of exciting new articles on the same topic in the coming years.

Magnetic properties of thin filmsMultiferroics and related materialsZnO doping and propertiesMagnonicsMagnonEngineering physicsPhysicsComputer scienceNanotechnologyMaterials scienceCondensed matter physicsQuantum mechanics

Funding

  • National Science Foundation
  • European Commission
  • Deutsche Forschungsgemeinschaft
  • Schweizerischer Nationalfonds zur Förderung der Wissenschaftlichen Forschung
  • Russian Foundation for Basic Research
  • Bundesministerium für Bildung und Forschung
  • Russian Science Foundation
  • Defense Advanced Research Projects Agency
  • Engineering and Physical Sciences Research Council
  • Japan Society for the Promotion of Science
  • RIKEN
  • National Key Research and Development Program of China
  • Centro para el Desarrollo de la Nanociencia y la Nanotecnología
Citations
548
FWCI
64.21
field-weighted impact
References
308
Percentile
100%
vs. same field & year
Citations per year
Cited by
Roadmap of Spin–Orbit Torques
IEEE Transactions on Magnetics · 2021 · 530 citations
Advances in Magnetics Roadmap on Spin-Wave Computing
IEEE Transactions on Magnetics · 2022 · 431 citations
References
Current-induced spin orientation of electrons in semiconductors
Physics Letters A · 1971 · 1,572 citations
Inhibited Spontaneous Emission in Solid-State Physics and Electronics
Physical Review Letters · 1987 · 13,855 citations
Modern Microwave Ferrites
IEEE Transactions on Magnetics · 2011 · 701 citations
Magnonic logic circuits
Journal of Physics D Applied Physics · 2010 · 656 citations
Magnon spintronics
Nature Physics · 2015 · 2,438 citations
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