logo
    Domain structure and stress in epitaxial YIG films
    IEEE Transactions on Magnetics (1972)
    A. I. BraginskiT. R. OeffingerW. KramerD. McLainW. J. Takei
    Stripe domain patterns observed by the Faraday effect in
    Domain wall (magnetism)
    Faraday cage
    Single domain
    Citations (7)
    Observation of radiation impedance oscillations associated with exchange effects during spin wave excitation in normally magnetized YIG films
    Soviet physics. Technical physics (1985)
    В. Ф. ДмитриевB. A. KalinikosN. G. Kovshikov
    Spin wave
    Citations (0)
    Magnetostatic waves in yttrium iron garnet films of subcritical thickness
    Pisma v Zhurnal Tekhnischeskoi Fiziki (1985)
    O. L. GalkinP. E. ZilbermanG. T. KazakovВ. Б. КравченкоV. M. Kulikov
    Yttrium Iron Garnet
    Citations (0)
    Effects of an interaction of magnetostatic and elastic waves in structures with a tangentially magnetized submicron-thickness film of yttrium iron garnet
    Technical Physics Letters (1984)
    A. S. AndreevP. E. ZilbermanВ. Б. КравченкоIu. F. OgrinA. G. Temiriazev
    Yttrium Iron Garnet
    Citations (0)
    Features of the three-magnon parametric decay of magnetization waves in YIG films under pulsed excitation
    PZhTF (1989)
    N. G. KovshikovP.A. KolodinA. N. Slavin
    Magnon
    Citations (0)
    Magnetoelastic waves in yttrium iron garnet film
    Electronics and Communications in Japan (Part II Electronics) (1994)
    Toshinobu YukawaM. Tsutsumi
    Abstract The principle of the method for excitation of magnetoelastic waves by a nonuniform magnetic field is described. In addition, the distribution of the nonuniform magnetic field appearing in the thin film by the demagnetization effect is obtained. Next, by using a yttrium iron garnet (YIG) thin film with a thickness of 100 μm and 5 × 15 mm 2 , an experiment of the magnetoelastic wave was carrid out at 3.5 GHz. the experimental results including the delay characteristics of the magnetoelastic wave have been compared with theoretical results. Also, the loss characteristics are studied experimentally from the viewpoint of dependence on the crystal axis. the minimum value of the loss of the magnetoelastic wave is 50 dB and the loss per delay of 1 μs is 30 dB when the crystal axes are oriented in 〈112〈.
    Yttrium Iron Garnet
    Crystal (programming language)
    Citations (0)
    Giant oscillations in the transmission of quasi-surface spin waves through a thin yttrium-iron garnet (YIG) film
    JETPL (1979)
    Ю. В. ГуляевА. С. БугаевP. E. ZilbermanIu. A. IgnatevA. G. Konoalov
    Yttrium Iron Garnet
    Spin wave
    Citations (6)
    Simultaneous existence of exchange and magnetoelastic oscillations of the transmission coefficient of a Damon-Eshbach surface magnetostatic wave through a structure comprising a YIG film on a gadolinium-gallium-garnet substrate
    Radiotekhnika i Elektronika (1984)
    Ю.А. ФилимоновA. V. Lugovskoĭ
    Gadolinium gallium garnet
    Transmission coefficient
    Citations (0)
    Magnetostatic volume wave propagation in a ferrimagnetic double layer
    Journal of Applied Physics (1982)
    Michael R. DanielP. R. Emtage
    Using the technique of ’’surface permeabilities,’’ an expression is derived for the dispersion of magnetostatic waves propagating in two close proximity ferrimagnetic films. Two modes of propagation for volume waves are identified respectively as the symmetric and antisymmetric modes from the symmetry of the rf magnetization. Useful group delay behavior is shown to result from films of equal thickness. Some measurements are reported using two yttrium iron garnet films sandwiching simple single finger transducers. Difficulties in exciting the symmetric forward volume mode are explained in terms of the coupling coefficients for these double film structures.
    Ferrimagnetism
    Yttrium Iron Garnet
    Antisymmetric relation
    Spin wave
    Rayleigh Wave
    Citations (26)
    Magnetostatic mode suppression in layered yttrium iron garnet films
    IEEE Transactions on Magnetics (1984)
    P. De GasperisC. di GregorioG. MiccoliR. Roveda
    A novel approach to the suppression of magnetostatic modes in layered Ca-doped/pure yttrium iron garnet (YIG) films is presented. By properly selecting the position and width of the broad background signal excited in the Ca:YIG layer, the magnetostatic spectrum of the coupled pure YIG can be drastically modified. In particular, selecting a proper calcium concentration of the damping layer, an entire surface or volume mode band can be suppressed. In this paper, experimental results for double-layered films are reported. An extension to triple-layered films, allowing the total suppression of all modes but one, is also proposed.
    Yttrium Iron Garnet
    Citations (3)