Structure and magnetic property of nanometric Fe-ZnSe granular films

Acta Metall Sin

2008, Vol. 44

Issue (3): 277-280 DOI:

Research Articles

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Structure and magnetic property of nanometric Fe-ZnSe granular films

ZHANG Lin; ZHANG Liansheng

山东大学

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ZHANG Lin; ZHANG Liansheng. Structure and magnetic property of nanometric Fe-ZnSe granular films. Acta Metall Sin, 2008, 44(3): 277-280 .

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Abstract Fex(ZnSe)1-x granular films were fabricated by the radio frequency sputtering, and the structures and magnetic properties of nanometer ferromagnetic metal-semiconductor matrix Fex(ZnSe)1-x granular films have been studied. According to the dependence of low field susceptibility on temperature and the hysteresis loops at different temperature, it was found that the nanometer-sized Fe particles in granular films showed the magnetic relaxation effect at definite temperature. The magnetic property of granular films changes from super-paramagnetic into ferromagnetic at the blocking temperature TB=50K. Above the blocking temperature, the MS(T) of the granular films follows the Bloch's the spin wave T3/2 law. The causes of increase of the spin wave constant are explored and analyzed.

Key words: nanometer metal granular film structure super-paramagnetic property spin wave

Received: 02 August 2007

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[1]Chen T Y,Huang S X,Chien C L,Stiles M D.Phys Rev Lett,2006;96:207203
[2]Hattink B J,Carcia del Muro M,Konstantinovic Z,Batlle X,Labarta A.Phys Rev,2006;73B:045418
[3]Borcia I D,Beauvillain P,Bartenlian B,Gogol P,Megy R.J Magn Magn Mater,2006;301:258
[4]Nunes W C,Socolovsky L M,Denardin J C,Cebollada F, Knobel M.Phys Rev,2005;72B:212413
[5]Chi J H,Ge S H,Liu C M,Kunkel H P,Zhou X Z, Williams G.J Appl Phys,2003;93:6188
[6]Xiao G,Liou S H,Levy A,Taylor J N,Chien C L.Phys Rev,1986;34B:7573
[7]Xiao G,Chien C L.J Appl Phys,1987;61:3308
[8]Chantrell R W,Wohlfarth E P.J Magn Magn Mater, 1983;40:1
[9]Dai D S,Qian K M.Ferromagnetism.Beijing:Science Press,1987:207 (戴道生，钱昆明．铁磁学．北京：科学出版社，1987：207)
[10]Neel L.Ann Phys (Paris),1936;5:269B

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