Numerical modeling of wave processes in coupled magnonic crystals with periods shifted relative to each other

Морозова, М. А.; Sharaevskaya, A. Yu.; Matveev, O. V.; Бегинин, Е. Н.; Sharaevskiĭ, Yu. P.

doi:10.3103/s1541308x16010015

Cited by 12 publications

(5 citation statements)

References 13 publications

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“…Nowadays, when linear and non-linear coupling of spin-wave modes and demagnetizing effects cannot be neglected on the nano-and micro-scales, many studies are focused on the understanding of spin-wave related physical phenomena in magnonic crystals. In particular, high attention attracted investigations of magnonic crystals with defects [31,32,33,34,35], topological and nonreciprocal phenomena in magnonic crystals [36,37,38,39,40,41,42,43,44], linear and non-linear spin-wave dynamics in coupled magnonic crystals [45,46,47], and formation and propagation of solitons [48,49,50,51]. Moreover, besides one-dimensional magnonic crystals [81,82,83,84,85,86,87,88,89,90,91,92,93,94,95,96,97,98], two-dimensional magnonic crystals [52,53,54,55,56,57,…”

Section: Magnon Spintronics: From Electron-to Magnon-based Computingmentioning

confidence: 99%

“…In particular, considerable attention has attracted investigations of magnonic crystals with defects [31][32][33][34][35], topological and nonreciprocal phenomena in magnonic crystals [36][37][38][39][40][41][42][43][44], linear and nonlinear spin-wave dynamics in coupled magnonic crystals [45][46][47], and the formation and propagation of solitons [48][49][50][51]. Besides one-dimensional magnonic crystals [81][82][83][84][85][86][87][88][89][90][91][92][93][94][95][96][97][98], two-dimensional magnonic crystals have been intensively studied experimentally while three-dimensional magnonic crystals [78][79][80] are investigated theor etically.…”

Section: Magnonic Crystals and Their Role In The Field Of Magnon Spinmentioning

confidence: 99%

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Magnonic crystals for data processing

Chumak

Serga

Hillebrands

2017

J. Phys. D: Appl. Phys.

439

320

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IntroductionThis article focuses on a selection of results in the field of magnonic crystals obtained within the last decade in our group. Special attention is devoted to the application of magnonic crystals in data processing and information technologies. Because of the large number of achievements in the field, it is unavoidable that many important results are excluded from this article. Therefore, we would like to direct the reader's attention to excellent reviews devoted to different aspects of magnonic crystals: spin-wave dynamics in periodic structures for microwave applications [1, 2], Brillouin light scattering (BLS) studies of planar metallic magnonic crystals [3], micromagnetic computer simulations of width-modulated waveguides [4], photo-magnonic aspects of antidot lattices studies [5], theoretical studies of one-dimensional monomode waveguides [6], and reconfigurable magnonic crystals [7]. The results presented in the current review were already partially presented in our own reviews of yttrium iron garnet (YIG) magnonics [8] and magnon spintronics [9] as well as in book chapters on dynamic magnonic crystals [10] and magnon spintronics [11].The article is organized in the following way: In the introduction we describe the field of magnon spintronics and discuss the role of magnonic crystals in it. The next section 2 is devoted to the properties of spin waves in thin planar films and waveguides, to the magnetic materials commonly used in the field, and to the methods of spin-wave excitation and detection. Sections 3 and 4 are devoted to the study of physical phenomena taking place in static and dynamic magnonic crystals, respectively. The application of magnonic crystals for magnonbased processing of analog and digital data is discussed in section 5. Specifically, static magnonic crystals can be used as passive elements, like microwave filters, resonators or delay lines for microwave generation. Reconfigurable and dynamic magnonic crystals are promising as active devices performing, for example, tunable filtering, frequency conversion or time reversal. In the final section we briefly summarize the results. Magnon spintronics: from electron-to magnon-based computingA disturbance in the local magnetic order can propagate in a magnetic material in the form of a wave. This wave was first predicted by Bloch in 1929 and was named spin wave since AbstractMagnons (the quanta of spin waves) propagating in magnetic materials with wavelengths at the nanometer-scale and carrying information in the form of an angular momentum can be used as data carriers in next-generation, nano-sized low-loss information processing systems. In this respect, artificial magnetic materials with properties periodically varied in space, known as magnonic crystals, are especially promising for controlling and manipulating magnon currents. In this article, different approaches for the realization of static, reconfigurable, and dynamic magnonic crystals are presented along with a variety of novel wave phenomena discovered in these cryst...

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Section: Magnon Spintronics: From Electron-to Magnon-based Computingmentioning

confidence: 99%

Section: Magnonic Crystals and Their Role In The Field Of Magnon Spinmentioning

confidence: 99%

Magnonic crystals for data processing

Chumak

Serga

Hillebrands

2017

J. Phys. D: Appl. Phys.

439

320

View full text Add to dashboard Cite

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“…Most of these studies deal with the in-plane SW propagation, but control of SW propagation in out of-plane direction is also promising for applications, although an area of 3D magnonics still remain unexplored [24]. Multilayer structures have already been studied for controlling SW spectra in thin films with using periodic gratings [25][26][27], periodic gratings were also used to excite and detect SWs propagating in homogeneous film beneath it. However, the way of transferring of the SW energy in the vertical direction has not yet been established.…”

Section: Introductionmentioning

confidence: 99%

Co- and contra-directional vertical coupling between ferromagnetic layers with grating for short-wavelength spin wave generation

2018

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The possibility to generate short spin waves (SWs) is of great interest in the field of magnonics nowadays. We present an effective and technically affordable way of conversion of long SWs, which may be generated by conventional microwave antenna, to the short, sub-micrometer waves. It is achieved by grating-assisted resonant dynamic dipolar interaction between two ferromagnetic layers separated by some distance. We analyze criteria for the optimal conversion giving a semi-analytical approach for the coupling coefficient. We show by the numerical calculations the efficient energy transfer between layers which may be either of co-directional or contra-directional type. Such a system may operate either as a short spin wave generator or a frequency filter, moving forward possible application of magnonics. permalloy (Py)-CoFeB bilayer separated by a nonmagnetic spacer, with Py layer decorated with a grating. We show, that it is possible to achieve complete SW power exchange between the layers, if the structure is optimized for resonant, phase-matched interaction of a proper magnitude. We tested influence of damping on the SW energy exchange between layers, and show that the effect can be optimized by increasing grating thickness. We propose such a system to be a simple and efficient transducer for generation of short SWs in Py from long SWs in CoFeB, which allows to transfer the SW signals in the vertical direction, and also to exploit it as a narrow band filters for future magnonic devices.

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“…While the intrinsic properties can be introduced by the local internal magnetic fields, local magnetic states or local spin textures 88,[115][116][117][118] . Nowadays, many special SWrelated physical phenomena have also been observed in MCs, such as topological and nonreciprocal phenomena [92][93][94][95][96][97][98][121][122][123][124][125] , linear and nonlinear spin-wave dynamics in coupled MCs [126][127][128] , and the formation and propagation of solitons [129][130][131][132] .…”

Section: What Are Magnonic Crystals?mentioning

confidence: 99%

Hybrid quantum systems based on magnonics

Lachance-Quirion

Tabuchi

Gloppe

et al. 2019

Appl. Phys. Express

630

413

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Engineered quantum systems enabling novel capabilities for communication, computation, and sensing have blossomed in the last decade. Architectures benefiting from combining distinct and complementary physical quantum systems have emerged as promising platforms for developing quantum technologies. A new class of hybrid quantum systems based on collective spin excitations in ferromagnetic materials has led to the diverse set of experimental platforms which are outlined in this review article. The coherent interaction between microwave cavity modes and collective spin-wave modes is presented as the backbone of the development of more complex hybrid quantum systems. Indeed, quanta of excitation of the spin-wave modes, called magnons, can also interact coherently with optical photons, phonons, and superconducting qubits in the fields of cavity optomagnonics, cavity magnomechanics, and quantum magnonics, respectively. Notably, quantum magnonics provides a promising platform for performing quantum optics experiments in magnetically-ordered solid-state systems. Applications of hybrid quantum systems based on magnonics for quantum information processing and quantum sensing are also outlined briefly.

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Numerical modeling of wave processes in coupled magnonic crystals with periods shifted relative to each other

Cited by 12 publications

References 13 publications

Magnonic crystals for data processing

Magnonic crystals for data processing

Co- and contra-directional vertical coupling between ferromagnetic layers with grating for short-wavelength spin wave generation

Hybrid quantum systems based on magnonics

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