Applications of micromagnetics

C R C Critical Reviews in Solid State Sciences

Volumn 2, Issue 2, 1971, Pages 121-180

  Aharoni, AmJkam ^a  

^a WEIZMANN INSTITUTE OF SCIENCE   (Israel)

Author keywords

[No Author keywords available]

Indexed keywords

EID: 84963473476     PISSN: 0011085X     EISSN: None     Source Type: Journal    
DOI: 10.1080/10408437108243428     Document Type: Article

References (272)

1. Aharoni, A., Magnetization culling,Phys. Status Solidi, 16, 3, 1966.
2. Eagle, D. F. and Mallinson, J.C., On the coercivity of-yFe2O3, particles,J Appl. Phys., 38, 995, 1967.
3. McCurrie, R. A., The mechanism of magnetic hardening in cobalt-gold,Phil. Mag.,21, 769, 1970.
4. Albright, D. L., Conrad, G.P.I., and Kraft, R. W., Magnetic behaviour of a eutectic alloy featuring an aligned array of iron rods,J. Appl. Phys., 38, 2919, 1967.
5. Lerner, E., Coercivity measurements of cold-rolled Mo-Permalloy by ac and dc methods, J Appl. Phys., 38, 3411 1967.
6. Hirsch, A. A., Magnetization switching time at low temperatures, Physica, 30, 563, 1964.
7. Richter, H. G. and Dietrich, H. E., On The magnetic properties of fine-milled barium and strontium ferrite, IEEE Trans., MAG-4, 263, 1968.
8. Lee, E. W. and Bishop, J. E. L., Magnetic behaviour of single-domain particles, Proc. Phys. Soc. (London), 89, 661 1966.
9. Hagedorn, F. B., Effect of a randomly oriented cubic crystalline anisotropy on Stoner-Wohlfarth magnetic hysteresis loops,J Appl. Phys., 38, 263, 1967.
10. Dunlop, D. J., Coercive force and remanence of monodomain grains with mixed crystalline and shape anisotropy Phil. Mag.,21, 385, 1970.
11. Gaunt, P., The temperature dependence of single domain particle properties, Phil. Mag., 17, 263, 1968.
12. Dunlop, D. J., Monodomain theory: Experimental verification, Science, 162,256,1968.
13. Kneller, E. and Wohlfarth, E. P., The effect of thermal fluctuations on the anhysteretic process in ferromagnetic fine particle assemblies,J. Appl Phys., 37,4816, 1966.
14. Bertram, H. N. and Mallinson, J.C., Theoretical coercive field tor an interacting anisotropic dipole pair of arbitrary bond angle,J. Appl. Phys., 40, 1301, 1969.
15. Straubel, R. and Spindler, S., A method for calculating hysteresis loops of interacting single-domain particle systems in a non-magnetic binder, IEEE Trans., MAG-5, 895, 1969.
16. Bertram, H. N., Monte Carlo calculation of magnetic anhysteresis, J. Physique, to be published.
17. Minnaja, N., Theoretical evaluation of limiting storage density by thermomagnetic recording,J. Appl. Phys., 41, 1404, 1970.
18. Potter, R. I., Analysis of saturation magnetic recording based on arctangent magnetization transitions, J. Appl. Phys., 41, 1647, 1970.
19. Gould, J. E., Permanent magnet applications, IEEE Trans., MAG-5, 812, 1969.
20. Bate, G. and Alstad, J. K., A critical review of magnetic recording materials, IEEE Trans., MAG-5, 821, 1969.
21. McCaig, M., Recent developments in permanent magnetism,J. Appl. Phys., 35, 958, 1964.
22. Banerjee, S. K. and O'Reilly, W., Coercivity of Fe1 in octahedral sites of Fe-Ti spinels, IEEE Trans., MAG-2, 463, 1966.
23. Jackson, M. R., Tauber, R. N., and Kraft, R. W., Magnetic anisotropy of MnSbSb aligned eutectic,J. Appl. Phys., 39, 4452, 1968.
24. Livingston, J. D., Structure and magnetic properties of Au-Co aligned eutectic,J. AppL Phys., 41, 197, 1970.
25. Sahm, P. R. and Hofer, F., Gerichtete Erstarrung von ferromagnetischen eutektischen Sm, Co,. Co Legierungen, Z. Angew. Phys., 30, 95, 1970.
26. Sahm, P. R. and Kiilias, H. R., Directional solidification of eutectic and off-eutectic Au Co composites with and without magnetic field,J. Mater. ScL, 5, 1027, 1970.
27. Sahm, P. R., Directional growth of Bi- Co alloys in a magnetic field,J. Cryst. Growth, 8, 109, 1971.
28. Swisher, J. H. and Fuchs, E. O., Preparation and properties of ferromagnetic bronze-iron composite materials, J. Appl Phys., 41, 1097, 1970.
29. Bozorth, R. M., Basic research and applications in magnetism,IEEE Trans., MAG-5, 692, 1969.
30. Becker, J. J., Rare-earth-compound permanent magnets,J. Appl. Phys., 41, 1055, 1970.
31. Uehara, M. and Morimoto, I., Rotational hysteresis of the alloys of SmCos-SmCus system, Jap. J. AppL Phys., 9, 226, 1970.
32. Nesbitt, E. A., Chin, G. Y., Gallagher, P. K., Sherwood, R.C., and Wernick, J. H., Further magnetic and thermal studies of cast rare-earth permanent magnets,J. AppL Phys., 41, 1107, 1970.
33. Stmat, K. J., The recent development of permanent magnet materials containing rare earth metals, IEEE Trans., MAG-6,182, 1970.
34. Rault, J. and Burger, J. P., Exchange anisotropy in Pd-Cr alloys, IEEE Trans., MAG-5, 220, 1969.
35. Senno, H. and Tawara, Y., Microstructure of a Cerium, Cobalt and Copper alloy with a high coercivity, Jap. J. Appl. Phys., 8,118,1968.
36. Eurin, P. and Pauleve’, J., Influence of thermomagnetic treatment of the magnetic properties of Co-Pt 50-50 alloy, IEEE Trans., MAG-5, 216, 1969.
37. McCaig, M., Permanent magnet performance at temperatures above 550°C, Cobalt, 41,196, 1968.
38. Rosenberg, M., Tanasoiu, C, and Florescu, I., The temperature dependence of the domain structure of uniaxial single crystals with high-anisotropy field, ZEES’ Tram., MAG-6, 207, 1970.
39. Kaiser, R. and Miskolczy, G., Magnetic properties of stable dispersions of subdomain magnetite particles, J. Appl. Phys., 41, 1064, 1970.
40. AJbanese, G. and Asti, G., Sublattice magnetization and cation distribution in BaMg, Fe, 4 O, (Mg, W) ferrite, IEEE Trans., MAG-6, 158, 1970.
41. Albanese, G., Asti, G., and Criscuoli, R., On The state and distribution of iron in the Alnico 8 alloy, IEEE Trans., MAG-6, 161, 1970.
42. Povitsky, V., Granovsky, E., Fridman, A., Makarov, E., and Pashkov, P. P., X-ray and Mossbauer study of Alnico 8, IEEE Trans., MAG-6, 215, 1970.
43. Sergeyev, V. and Larichkina, R. Y., Relation of magnetic properties to structural perfection in Alnico single crystals, IEEE Trans., MAG-6, 239, 1970.
44. Becker, J. J., Observation of magnetization reversal in colbalt-rare-earth particles,IEEE Trans., MAG-5, 211, 1969.
45. Zijlstra, H., Hysteresis measurements on RCo, Micro-particles, J. Physique, to be published.
46. Zijlstra, H., Critical fields determining magnetic coercivity in microparticles of SmCo, and LaCo, J. Appl. Phys., 42,1510,1971.
47. Bates, L. F., Craik, D. J., and Isaac, E. D., Domain structures and coercivity of Alcomax III, Proc. Phys. Soc. (London), 79, 970, 1962.
48. Dietze, H. D., Theory of coercive force for randomly distributed lattice defects and precipitations, Phys. Kondens. Materie, 2,117,1964.
49. Schmidt, P. H., Spencer, E. G., and Walters, E. M., Ion milling of magnetic oxide platelets for the removal of surface and near-surface imperfections and defects, J. Appl. Phys., 41, 4740, 1970.
50. Becker, J. J., A domain boundary model for a high coercive force material, J. Appl Phys., 39, 1270, 1968.
51. Zijlstra, H., Coercivity and wall motion,IEEE Trans., MAG-6, 179, 1970.
52. Ilyicheva, Y. N., Kanavina, N. G., and Shishkov, A. G., Dependence of coercive force on the thickness of ferromagnetic films, Fiz. Metal. Metalloved. (Phys. Metals Metallog.), 22, 351, 1966.
53. Dubois, B., Influence des facteurs me'tallurgiques sur quelques proprie'te's mange'tiques du nickel pOlycristallin, Rev. Phys. Appl., 5, 669, 1970.
54. Zijlstra, H., Domain-wall processes in SmCo5, powders, J. Appl Phys., 41, 4881, 1970.
55. Bates, L. F., The introduction of SI in magnetism, Contemp. Phys, 11, 301, 1970.
56. Brown, W. F., Jr., Micromagnetism, in Recent Advances in Engineering Science, Vol. 5, Gordon and Breach Science Publishers, Inc., London, 1970.
57. Brown, W. F., Jr., MagnetoelasticInteractions, Springer-Verlag, Berlin, 1966.
58. KronmUller, H., Mikromagnetische Theorie der Magnetisierungsvorgange in Einkristallen, Z. Angew. Phys., 23, 130, 1967.
59. Bartel, L.C., Theory of strain-induced anisotropy and the rotation of the magnetization in cubic single crystals,J. Appl. Phys., 40, 661, 1969.
60. Wayne, R.C., Samara, G. A., and Lefever, R. A., Effects of pressure on magnetization of ferrites: anomalies due to strain-induced anisotropy in porous samples, J. Appl. Phys., 41, 633, 1970.
61. Kleman, M Effets de magnetostriction dans les materiaux cubiques,J Phys. Chem. Solids, 27, 395, 1966.
62. Dietze, H. D., and Schroder, K., Magnetisierung in der Umgebung unmagnetischer Einschlusse in Ferromagnetika. I. Mikiomagnetische Gnindlagen, Phys. Status Solidi, 27, 601,1968.
63. Minnaja, M., Miciomagnetics at high temperatwe, Phys. Rev. B, 1, 1151, 1970.
64. Bulaevskii, L. N. and Ginzburg, V. L., Temperature dependence of the shape of the domain wall in ferromagnetics and ferroelectrics, Sov. Phys. JETP, 18, 530, 1964.
65. Aharoni, A., Remanent state in one-dimensional miciomagnetics, Phys. Rev., 123, 732, 1961.
66. Brown, W. F., Jr. and Shtrikman, S., Stability of one-dimensional ferromagnetic microstructuies, Phys. Rev., 125, 825, 1962.
67. Clad, R., Thebrie du renversement de raimantation dans un cas particulier de variation locale des constantes d'anisotropie magne'tocristaUine,-J. Physique, 25, 763,1964.
68. Muller, M. W., Domain formation in a ferromagnetic plate, J. Appl. Phys., 38, 2413, 1967.
69. Forlani, F. and Minnaja, N., Domain pattern according to micromagnetics, J. Appl, Phys., 40, 1092,1969.
70. Kaczer, J., Energy spectrum of the domain structure of metal platelets under stress, J Appl Phys., 41, 3336, 1970. 66a. Shirobokov, M. J., On the mechanism of cobalt magnetization, C. R. Acad. Sci URSS, 24, 426, 1939.
71. Boon, C. R. and Robey, J. A., The hysteresis loops of individual domain walls and domain-wall motion in grain-oriented 3% Si-Fe,J. Phys. D., 3, 327, 1970.
72. Dean, R. H., Urwin, R. J., arid Jakins, G. A., Temperature dependence of domain wall enhanced nuclear spin-echoes in ferromagnets, Phys. Lett., 33A, 103,1970.
73. Polcarova, M., Applications of x-ray diffraction topography to the study of magnetic domains, IEEE Trans., MAG-5, 536, 1969.
74. Dietz, G. and Rudow, P., Ultrasound and magnetic domain structure in polycrystalline material, IEEE Trans.,MAG-6, 394,1970.
75. Hutchinson, R. I., Lavin, P. A., and Moon, J. R., A new technique for the study of ferromagnetic domain boundaries,J. Sci Instrum., 42, 885, 1965.
76. DeBlois, R. W., Helical and other stripe structures in single-crystal permalloy platelets, J. Appl. Phys., 40, 1084, 1969.
77. Lapworth, A. J., Jakubovics, J. P., and Baker, G. S., The effect of antiphase boundaries in magnetic superlattices on the domain structure observed by Lorentz microscopy, J Physique, to be published.
78. Mitsek, A. I., Gaidanskii, P. F., and Pushkar, V. N., Domain structure of uniaxial antiferromagnets. The problem of nucleation, Phys. Status Solidi, 38, 69, 1970.
79. Kleman, M., Influence of internal magnetostriction on the formation of periodic magnetization configurations, Phil. Mag., 19, 285,1969.
80. JiraTc, Z. and Zeleny, M., Influence of magnetostriction on the domain structure of cobalt, Czech. J. Phys., B19, 44, 1969.
81. Kroupa, F. and Vagera, I., Surface magnetostrictive deformation at 180 Bloch wall, Czech. J. Phys., B19, 1204, 1969.
82. Aharoni, A., Domain walls and micromagnetics, J. Physique, to be published.
83. Hothersall, D.C., The characteristics of domain walls in single-crystal iron foils, J. Phys. D, 3, 797, 1970.
84. Hubert, A., Domain wall calculations for thin single crystals, J. Physique, to be published.
85. Kirchner, R., Some further calculations of one-dimensional Ne!el walls, Czech. J. Phys., to be published. 8 la. Hubert, A.,Blochwahde in dicken magnetischen Schichten, Z. Angew. Phys., to be published.
86. Minnaja, N., Evaluation of the energy per unit surface in a cross-tie wail, J. Physique, to be published.
87. Hothersall, D.C., Ferromagnetic structures in polycrystalline films with a magnetic Held applied perpendicular to the film plane, Phys. Status Solidi, 34, 677, 1969.
88. Suzuki, T., Investigations into domain wall widths of thick permalloy films by high-voltage Lorentz microscopy,J Physique, to be published.
89. Suzuki, T., Investigation of ferromagnetic domain walls by Lorentz microscopy, Z. Angew. Phys., to be published.
90. Ray, S.P. and Paul, D. I., Ferromagnetic domain wall width measurements using Lorentz electron microscopy, J Appl. Phys., 41, 5238, 1970.
91. Daughton, J. M., Keefe, G. E., Ahn, K. Y., and Cho, C.C., Domain wall energy measurements using narrow permalloy strips, IBM J., 11,555, 1967.
92. LaBonte, A. E., Two-dimensional Bloch-type domain walls in ferromagnetic films, J Appl Phys., 40, 2450, 1969.
93. Hubert, A., private communication.
94. Hubert, A., Symmetric Neel walls in thin magnetic films, Comp. Phys. Comm., 1, 343, 1970.
95. Smith, A. F., Domain wall interactions with non-magnetic inclusions observed by Lorentz microscopy,J Phys. D, 3, 1044, 1970.
96. Heinzel, C. O. and Walker, G. A., Effect of crystallite size on coercive force of thin ferromagnetic films, J Appl Phys., 37, 3809, 1966.
97. Ferro, A., Montaienti, G., and Soardo, G. P., On the interaction energy of interstitial atoms and solute atom pairs with the magnetization,J Appl. Phys., 39, 877,1968.
98. Maksymowicz, A., Maksymowicz, L., and Lubecka, M., On The influence of surface roughness on the magnetization ripple in ferromagnetic thin films, Phys. Status Solidi. 35, 619, 1969.
99. Hubert, A., Interaction of domain walls in thin magnetic films, Czech. J. Phys. B, to be published.
100. Coren, R. L., Shape demagnetizing effects in permalloy films, J Appl Phys., 37, 230, 1966.
101. Tolman, C. H., Coercive force and demagnetizing fields of Ni-Fe films,J Appl Phys., 38, 4538, 1967.
102. Gemperle, R., The ferromagnetic domain structure of thin single-crystal Fe platelets in an external field, Phys. Status Solidi. 14, 115, 1966.
103. Kojima, H. and Goto, K., Temperature dependence of domain width in thin layers of BaFe, O, J Phys. Soc Jap., 17, Suppl. B-1,201, 1962.
104. Startseva, I. Ye. and Shur, Ya. S., Temperature dependence of the domain structure in single crystals of silicon iron, Fiz. Metal. Metalloved. (Phys. Metals Metallog.), 25,298, 1968.
105. Tsukahara, S., Structure and origin of the new stripe domains in oblique-incidence permalloy and Ni films, J Phys. Soc. Jap., 28, 62, 1970.
106. Krinchik, G. S., New type of domain structure of permalloy “stripe films”,J Appl. Phys., 39, 859, 1968.
107. Doring W., Point singularities in micromagnetism, J Appl Phys., 39, 1006, 1968.
108. Feldtkeller, E. and Thomas, H., Struktur und Energie von Blochlinien in dunnen ferromagnetischen Schickten, Phys. Kondens. Materie, 4, 8, 1965.
109. Feldtkeller, E., Ubersicht uber das Magnetisierungsverhalten in dunnen Schichten, Z Angew. Phys., 17, 121, 1964.
110. Aharoni, A., Approach to magnetic saturation and the magnetic moments of nuclei, Phys. Rev. Lett., 22, 856, 1969.
111. Aharoni, A., Approach to magnetic saturation in the vicinity of impurity atoms,Phys. Rev. B, 2, 3794, 1970.
112. Shull, C. G. and Mook, H. A., Distribution of internal magnetization in iron,Phys. Rev. Lett., 16 184, 1966.
113. Levinstein, H. J., Guggenheim, H. J., and Capio, C. D., Domain wall dislocation interactions in RbFeF3, J. Appl. Phys., 40, 1080, 1969.
114. Druyvesteyn, W. F. and Dorleijn, J. W. F., Calculations on some periodic magnetic domain structure; consequences for bubble devices, Philips Res. Rep., 26, 11, 1971.
115. Druyvesteyn, W. F. and de Jonge, F. A., Static stability of hollow cylindrical magnetic domains, Philips Res. Rep., 25,415, 1970.
116. de Jonge, F. A., Druyvesteyn, W. F., and Verhulst, A. G. H., Observations and properties of a new domain: Hollow bubble,J. Appl. Phys., 42,1270,1971.
117. Muller, M. W., Nucleation of the honeycomb domain structure, Phys. Rev., 162, 423,1967.
118. Goldstein, R. M. and Muller, M. W., Domain nucleation in uniaxial ferromagnets, Phys. Rev., B, 2, 4585, 1970.
119. Holz, A., Formation of reversed domains in plate-shaped ferrite particles,J. AppL Phys., 41, 1095, 1970.
120. Dietz, G. and Seiger, H., Der Einfluss von Temperaturanderungen auf den Magnetisierungszustand polykristalliner Ferromagnetika, Z Angew. Phys., 30, 48, 1970.
121. Stapper, C. H., Jr., Micromagnetic solutions for ferromagnetic spheres, J. AppL Phys., 40, 798, 1969.
122. Cohen, M. S., Lorentz microscopy of small ferromagnetic particles,J. Appl. Phys., 36, 1602, 1965.
123. Brown, W. F., Jr., The fundamental theorem of fine-ferromagnetic-particle theory,J. Appl. Phys., 39, 993, 1968.
124. Brown, W. F., Jr., The fundamental theorem of the theory of fine-ferromagnetic-particles, Ann. N. Y. Acad. Set, 147,461, 1969.
125. Wang, F. F. Y., Transition layers between magnetic domains,J. Appl. Phys., 39, 865, 1968.
126. Joseph, R. L., Ballistic demagnetizing factor in uniformly magnetized cylinders, J. Appl. Phys., 37, 4639, 1966.
127. Straubel, R., Anhysteretic magnetization of a collective of magnetic single-domain particles, Phys. Status Solidi, 20; 267, 1967.
128. Jaep, W. F., Anhysteretic magnetization, of an assembly of single-domain particles, J. AppL Phys., 40, 1297, 1969.
129. Brown, W. F., Jr., Magnetic interactions of superparamagnetic particles, J. AppL Phys., 38, 1017, 1967.
130. Bertram, H. N. and Mallinson, J.C., Switching dynamics for an interacting anisotropic dipole pair of arbitrary bond angle,J. Appl. Phys. 41, 1102, 1970.
131. Lin, Y. S. and Chang, H., Rigorous dynamic analysis of exchange-coupled films, J. Appl. Phys., 40, 604, 1969.
132. Yelon, A., Interactions in multilayer magnetic films, in Physics of Thin Films, Vol. 6, Francombe, M. H. and Hoffman, R. W., Eds., Academic Press, New York, 1971.
133. Lin, Y. S., Chang, H., and Tolaba, J. H., Transient gyromagnetic behavior of Bloch walls in thin magnetic films, Appl. Phys. Lett., 13, 346, 1968.
134. Goedsche, F., Micromagnetic boundary conditons in inhomogeneous alloys, Acta Phys. Polon., A37, 515, 1970.
135. Soohoo, R. F., General exchange boundary condition and surface anisotropy energy of a ferromagnet, Phys. Rev., 131,594, 1963.
136. Goedsche, F., Reflection and refraction of spin waves, Phys. Status Solidi, 39, K29, 1970.
137. Goedsche, F., Spin waves in coupled ferromagnetic films, Phys Status Solidi, 41,711, 1970.
138. Aharoni, A., Energy terms in the approach to saturation in Ni near W, Phys. Status Solidi (a), 3, 761, 1970.
139. Low, G. G., Magnetic neutron scattering from atoms dissolved in ferromagnetic iron and nickel,J. Appl. Phys. 39, 1174, 1968.
140. Riedi, P.C., The temperature dependence of the local magnetization of FeNi alloys, Phys. Lett., 33A, 273, 1970.
141. Aharoni, A., Direction of the magnetization of nickel near tungsten impurities, J. Physique, to be published.
142. Valstyn, E. P., Coupling between flat films, IEEE Trans., MAG-2, 188, 1966.
143. Hornreich, R. M., Magnetostatic coupling in multilayer magnetic structures, IEEE Trans. MAG-5, 307, 1969.
144. Aharoni, A., Implantation into ferromagnetic materials and the magnetic saturation, in Hyperfine Interactions in Excited Nuclei, Goldring, G. and Kalish, R., Eds., Gordon and Breach, New York, 1971, 75.
145. Ben-Zvi, I., Gilad, P., Goldberg, M. B., Goldring, G., Speidel, K. H., and Kalish, R., Magnetization direction in rare earth nuclei implanted into ferromagnetic matrices, in Hyperfine Interactions in Excited Nuclei, Goldring, G. and Kalish, R., Eds., Gordon and Breach, New York, 1971, 119.
146. Agresti, D., Kankeleit, E., and Persson, B., Hyperfine interactions and lifetimes of low-energy states in W2 and W3,Phys. Rev.ASS, 1342, 1967.
147. Gerdau, E., Miiller, W. K., and Wolf, H. J., Der g-Faktor des 364 kev-Zustandes von,4W und die Hyperfeinfelder von Wolfram in Eisen, Kobalt und Nickel, Z. Phys., 235, 124, 1970.
148. Sie, S. H., Stokstad, R. G., Fraser, I. A., Greenberg, J. S., Shaw, A. H., and Bromley, D. A., Magnetic moments of excited states of Os ‘”2, Bull Amer. Phys. Soc, II, 15, 628, 1970. The information was contained in the oral presentation of this paper, but not in the written abstract.
149. Norlin, L. -O., Johansson, K., Karlsson, E., and Ahmed, M. R., Temperature dependence of the magnetic hyperfine field for Pd. in Fe, in Hyperfine Interactions in Excited Nuclei, Goldring, G. and Kalish, R., Eds., Gordon and Breach, New York, 1971, 475.
150. Aharoni, A., Discussion in Hyperfine Interactions in Excited Nuclei, Goldring, G. and Kalish, R., Eds., Gordon and Breach, New York, 1971, 94.
151. Bockshtein, S. Z., Ginzburg, S.-S., Kishkin, S. T., Moroz, L. M., and Senchenkov, E. P., Study of structural imperfections in metals by means of high-resolution autoradiography, Sov. Phys. -Doklady, 13, 355, 1968.
152. Seeger, A. and Mehrer, M., Analysis of self-diffusion and equilibrium measurements, in Vacancies and Interstitials in Metals, Part 1, Seeger, A., Schumacher, D., Schilling, W., and Diehl, J., Eds., North Holland Pub. Co., Amsterdam, 1970, 21.
153. Helfmeier, H. and Feller-Kniepmeier, M., Diffusion of copper in Ni single crystals, J. AppL Phys., 41, 3202, 1970.
154. Balluffi, R. W., On Measurement of self-diffusion rates along dislocations in f. c. c. metals, Phys. Status Solidi, 42, 11, 1970.
155. De Waard, H., Discussion in Hyperfine Interactions in Excited Nuclei, Goldring, G. and Kalish, R., Eds., Gordon and Breach, New York, 1971, 95.
156. Ravn, H., Abfldskov, F., Johansen, H. K., and Deutch, B. I., Hyperfine studies of Yb”, Yb17S, and NpJ3, implanted in iron, in Radioactivity in Nuclear Spectroscopy, Gordon and Breach, New York, 1971, 1481.
157. Erich, U., Kankeleit, E., Prange, H., and Hufner, S., Hyperfine fields in nickel alloys measuied by the 61Ni Mossbauer effect,J. AppL Phys., 40, 1491, 1969.
158. Nathans, R., Shull, C. G., Shirane, G., and Andresen, A., The use of polarized neutrons in determining the magnetic scattering by iron and nickel,J. Phys. Chem. Solids, 10,138, 1959.
159. Halpem, O. and Holstein, T., On The passage of neutrons through ferromagnets, Phys. Rev., 59, 960, 1941.
160. Hughes, D. J., Wallace, J. R., and Holtzman, R. H., Neutron polarization,Phys. Rev., 73, 1277, 1948.
161. Bancroft, M. H., Magnetic state of Cu in ferromagnetic Ni.,Phys. Rev., B2, 182, 1970.
162. Altshuler, L. V. and Bakanova, A. A., Electronic structure and compressibility of metals at high pressures, Sov. Phys. -Uspekhi, 11, 678,1969.
163. Violet, C. E., Determining polar angles from Mossbauer intensity ratios, J. AppL Phys., 40, 4959, 1969.
164. Nandwani, S. S. and Puri, S. P., Pressure variation of Mossbauer fraction for an impurity atom, Phys. Status Solidi, 41, 199, 1970.
165. Huffman, G.P. and Dunmyre, G. R., Localized polarization on Sn atoms in ferromagnetic transition metals and alloys,J. AppL Phys., 42, 1613, 1971.
166. Stoelinga, J. H. M. and Gersdorf, R., Field dependence of the magnetization in high fields for b. c. c. Fe-Co and Fe-Ni alloys, Phys. Lett., 19,640, 1966.
167. Seeger, A. and (CronmUUer, H., The micromagnetic equations of a superconductor, Phys. Status Solidi, 27, 371, 1968.
168. KronmUller, H. and Riedel, H., Description of elastic and dielastic interactions in superconductors by quasidislocations,.Pfrys: Status Solidi, 38, 403,1970.
169. Kronmler, H., Suprastriction in superconductors, Phys. Status Solidi, 40, 295, 1970.
170. Thompson, J. E., Recent developments in conventional soft magnetic materials, J. Phys. D, 2, 933, 1969.
171. KronmUller, H., Studies of point defects in metals by means of mechanical and magnetic relaxation, in Vacancies and Interstitials in Metals, Seeger, A., Schumacher, D., Schilling, W., and Diehl, J., Eds., North Holland Pub. Co., Amsterdam, 1970, 667.
172. Schuler, F., Magnetic films: Nucleation, Wall motion, and domain morphology,J. AppL Phys., 33, 1845, 1962.
173. Conger, R. L., Domain shape during magnetization reversal in thin films,J. Appl. Phys., 35, 3491,1964.
174. Voegeli, O. and Friedlaender, F. J., Measurements of anisotropy, nucleation and saturation fields in single crystal GdIG films,IEEE Trans., MAG-7, to be published.
175. Fairholme, R. J. and Leaver, K. D., The effect of surface roughness on the susceptibility of thin permalloy films,J. Phys.D, 2,1267,1969.
176. Bates, L. F. and Pacey, A. J., Temperature dependent factors in coercivity theories,Brit. J. Appl. Phys., 15, 1391, 1964.
177. English, A. T., Experimental test of Neel's theory of coercive force due to inclusions,J. AppL Phys., 40, 1573, 1969.
178. KronmUller, H., On The mechanism of work hardening in f.c.c. metals, Cartad. J. Phys., 45, 631, 1967.
179. Seeger, A., The effect of dislocations on the magnetization curves of ferromagnetic crystals,J. Physique, Suppl., 27, C3-68, 1966.
180. Dionne, G. F., Determination of magnetic anisotropy and porosity from the approach to saturation of polycrystalline ferrites,J Appl. Phys., 40, 1839, 1969.
181. Gerling, W. and Wijn, H.P.J., Die Ableitung der Kristallanisotropie aus der Magnetisierungskurve polykiistalliner Proben.Z. Angew. Phys., 27, 77, 1969.
182. Kronmiiller, H., The contribution of dislocations to the magnetocrystalline energy and their effect on rotational hysteresis processes,J Appl. Phys., 38, 1314, 1967.
183. Gessinger, H., Die magnetische Anisotropic plastisch verformter Nickel-Einkristalle, Phys. Status Solidi, 38, 277, 1970.
184. Gessinger, H., Die theoretische Deutung der magnetischen Anisotropic plastisch verformter Nickel-Einkristalle, Phys. Status Solidi, 39,581, 1970.
185. Manabe, T., Cylindrical domain observation in GdIG thin slabs,Jap. J. Appl Phys., 9, 1277, 1970.
186. Goodenough, J. B., Chemical inhomogeneities and square B-H loops,J Appl Phys., 36, 2342, 1965.
187. Meiklejohn, W. H., Magnetic field in a cavity,J. Phys. Radium, 20, 88, 1959.
188. Humphreys, A. and Rhodes, P., Magnetization distributions in ferromagnetics containing non-ferromagnetic inclusions, Proc. Int. Conf. Magnetism, Nottingham, Institute of Physics and the Physical Society, London, 1965, 689.
189. Schlomann, E., Properties of magnetic materials with a nonuniform saturation magnetization. I. General theory and calculation of the static magnetization,J Appl Phys., 38, 5027, 1967.
190. Schlomann, E., Properties of magnetic materials with a nonuniform saturation magnetization. II. Longitudinal susceptibility,J Appl Phys., 38, 5035, 1967.
191. Kohane, T. and Schlomann, E., Longitudinal susceptibility of porous polycrystalline YIG at microwave frequencies, J. Appl. Phys., 37, 1073, 1966.
192. Kohane, T. and Schlomann, E., Linewidth and off-resonance loss in polycrystalline ferrites at microwave frequencies,J Appl. Phys., 39, 720, 1968.
193. Sparks, M., Ferromagnetic resonance in thin films. II. Theory of linewidths, Phys. Rev. B, 1, 3856, 1970.
194. Schlomann, E. and Joseph, R. I., Surface-roughness-induced demagnetizing fields in thin films and their influence upon the approach to saturation,J Appl Phys., 41, 1336, 1970.
195. Darby, M. I. and Johnson, B., Magnetization distribution around spherical magnetic inclusions in ferromagnets J Appl Phys., 40, 1094, 1969.
196. Darby, M. I. and Johnson, B., On the magnetization distribution about a magnetic particle in an iron film, Brit. J Appl. Phys. (J. Phys. Dj, 2, 1171, 1969.
197. Prause, W., Die Gleichgewichtsverteilung der Magnetisierung in der Umgebung eines Kugelformigen Loches, Z. Angew. Phys., 26, 41, 1969.
198. Schroder, K. and Dietze, H. D., Magnetisierung in der Umgebung unmagnetischer Einschliisse in Ferromagnetika. II. Kugelfbrmige Hohlraume in Ferromagnetika ohne Winde,Phys. Status Solidi, 27,611, 1968.
199. Abraham, C, Transformation of Brown's linear equations for an infinitely long prism, Phys. Rev., 140, A144, 1965.
200. Abraham, C, Nucleation field of an infinitely long elliptical cylinder, Phys. Rev., 140, A480, 1965.
201. Abraham, C, Transformation of the linear equations of magnetoelastic interactions for an infinitely long prism, Phys.Rey., 165,970,1968.
202. Aharoni, A., Nucleation of magnetization reversal in ESD magnets, IEEE Trans., MAG-5, 207, 1969.
203. Bhagat, S. M., Hirst, L. L., and Anderson, J. R., Ferromagnetic resonance in nickel and iron,J Appl. Phys., 37, 194, 1966.
204. Wohlfarth. E. P., Permanent magnet materials, in Magnetism, Vol. Ill, Rado, G. T. and Suhl, H., Eds., Academic Press, New York, 1963, Chapter 7.
205. Forlani, F., Minnaja, N., and Sacchi, G-, Application of micromagnetics to a boundless plate, IEEE Trans., MAG-4, 70,1968.
206. Aharoni, A., Remarks on the application of micromagnetics to a boundless plate, IEEE Trans., MAG-4, 720, 1968.
207. Brown, W. F., Jr., Rigorous calculation of the nucleation field in a ferromagnetic film or plate, Phys. REv., 124, 1348,1961.
208. Holz, A. and KronmUllerJ H., The nucleation of stripe domains in thin ferromagnetic films, Phys. Status Solidi, 31.787,1969.
209. Anaroni, A., Upper and lower bounds for the nucleation field in an infinite rectangular ferromagnetic cylinder, J Appl. Phys., 34, 2434,1963.
210. Gorres, J. M. and Hanson, M. M., The critical thickness of coercivity of Co-Ni-Fe films, AppL Phys. Lett., 12, 146, 1968.
211. Kronmuiler, H. and Seeger, A., Stripe domains in thin ferromagnetic films. Comments Sol. St. Phys., 3, 40, 1970.
212. Bartel, L.C., Approximate solution for the strain-induced deviation of the magnetization from saturation in polycrystalline cubic ferrites,J AppL Phys., 40, 3988, 1969.
213. Muller, M. W. and Goldstein, R. M., Switching threshold of uniaxial ferromagnets, J Appl. Phys., 40, 2459, 1969.
214. Muller, M. W. and Yang, M. H., Static magnetization curve of uniaxial ferromagnets, J Appl. Phys., 42, 1532, 1971.
215. Yang, M. H. and Muller, M. W., Domain nucleation stability, IEEE Trans., MAG-7, to be published.
216. Kojima. H. and Goto, K., Determination of critical field for magnetoplumbite type oxides by domain observation, in Proc. Int. Conf. Magnetism, Nottingham, Institute of Physics and the Physical Society, London, 1965, 727.
217. Anaroni, A. and Neeman, E., Nucleation of magnetization reversal in iron whiskers,Phys. Lett., 6,241, 1963.
218. Anaroni, A., Theory of the DeBlois experiment. I. The effect of the small coil.J Appl. Phys., 39,5846, 1968.
219. Aharoni, A. Theory of the DeBlois experiment. II. Surface imperfection in an infinite coil, J Appl. Phys., 39. 5850. 1968.
220. Aharoni, A., Theory of the DeBlois experiment. III. Effect of neighboring imperfections,J. AppL Phys., 41, 2484, 1970.
221. Matick. R. F., Magnetic fields associated with thin nickel-iron films,J Appl. Phys., 35, 3331, 1964.
222. Dove, D. B., Demagnetizing fields in thin magnetic films. Bell System Tech. J, 46, 1527, 1967.
223. Lotsch, H. K. V., Magnetic-field computation for a plated-wire memory utilizing an integral/matrix-equation technique J AppL Phys., 40. 2844, 1969.
224. Beth. R. A., Currents and coil forces as contour integrals in two-dimensional magnetic fields,J Appl. Phys., 40. 2445,1969.
225. Wade. R. H. Some factors in the easy axis magnetization of permalloy films, Phil. Mag. 10, 49, 1964.
226. Hagedorn. W. and Mende, H. H., Bereichsanordnung und Magnetisierungskurve von Eisenwhiskern unter BerUcksichtigung des entmagnetisierenden Feldes, Z. Angew. Phys., 30, 68, 1970.
227. Holz, A., Theoretische Untersuchung der Keimbildung in Ferromagnetika, Phys. Status Solidi, 25,567, 1968.
228. Holz, A., Die Magnetisierungsverteilung an der Stirnflache zylindrischer Ferromagnetika mit Anwendungen auf die Keimbildung, Phys. Status Solidi, 26, 751, 1968.
229. Hoffmann, F., Dynamic pinning induced by nickel layers on permalloy films, Phys. Status Solidi, 41, 807, 1970.
230. Abraham, C, Model for lowering the nucleation field of ferromagnetic materials,Phys. Rev., 135, A1269, 1964.
231. Filippov, B. N., Nucleation field in uniaxial ferromagnetic single crystals, Fiz. Metal. Metalloved. (Phys. Metals. Metallog. J, 22, 343, 1966.
232. Marsh, A., Certain magnetic properties and cystallographic relations in elongated iron-cobalt particles having a cobalt ferrite coating Brit. J. Appl. Phys., 15, 591, 1964.
233. De Wames, R. E. and Wolfram, T., Characteristics of magnetostatic surface waves for a metalized ferrite slab,J. Appl. Phys., 41,5243, 1970.
234. Baron, R. and Hoffman, R. W., Saturation magnetization and perpendicular anisotxopy of nickel films,J. AppL Phys., 41.1623,1970.
235. Krey, U., Magnetostatic dislocation interaction in invar alloys,Phil. Mag., 20, 1295, 1969.
236. Afanas'ev, A. M., Suzdalev, I. P., Gen, M. Ya., Gol'danskii, V. I., Korneev, V. P., and Manykin, E. A., Investigation of superparamagnetism of ferromagnetic particles by Mossbauer spectroscopy, Sov. Phys.-JETP, 31, 65, 1970.
237. Aharoni, A.,Effect of a magnetic field on the superparamagentic elaxation time, Phys. Rev., 177,793, 1969.
238. Aharoni, A., Measure of self-consistency in 180 domain wall models,J. AppL Phys., 39, 861, 1968.
239. Schroder, K., Magnetisierung in der Umgebung unmagnetischer Einschliisse in Ferromagnetika. III. Wechselwirkung eines kugelformigen unmagnetischen Einschlusses mit einer Blochwand, Phys. Status Solidi, 33,819, 1969.
240. Brice, J.C., The effect of inclusions on the domain coercive force of thin ferromagnetic films, Brit. J. AppL Phys., 16, 1523, 1965.
241. Levinstein, H. J., Guggenheim, H. J., and Capio, C. D., Phase transformations and magnetic domains in RbFeF3, Trans. AIME, 245, 365, 1969.
242. Kurtzig, A. J. and Patel, J. R., Interaction of magnetic domain walls and individual dislocations, to be published.
243. Hoselitz, K. and Nolan, R. D., Anisotropy-field distributions in barium ferrite micropowders, J. Phys. D., 2, 1625, 1969.
244. Nolan, R. D., Dislocations in the barium ferrite lattice: their effect on crystal structure and magnetic properties, to be published.
245. Kurtzig, A. J., Interaction of magnetic domain walls with twin and grain boundaries in orthoferrites, IEEE Trans., MAG-6, 497, 1970.
246. Pfeffer, K. -H., Wechselwirkung zwischen Versetzungen und ebenen Blochwanden mit starrem Magnet-isierungsverlauf,Phys. Status Solidi, 19, 735, 1967.
247. Hirth, J. P. and Wells, R. G., Disclination structures in Bloch wall lattices in BaFe12O19 and SmCo5, J. Appl. Phys., 41,5250.1970.
248. Pfeffer, K. -H., Mikromagnetische Behandlung der Wechselwirkung zwischen Versetzungen und ebenen Blochwanden. I. Allgemeine Theorie, Phys. Status Solidi, 20, 395, 1967.
249. Pfeffer, K. -H., Mikromagnetische Behandlung der Wechselwirkung zwischen Versetzungen und ebenen Blochwanden. II. Anwendungen, Phys. Status, 21, 837, 1967.
250. Pfef'fer, K. -H., Zur Theorie der Koerzitivfeldstarke und Anfangssuszeptibilitat, Phys. Status Solidi, 21, 857, 1967.
251. Markert, H., On a new theory of the magnetization curve of plastically deformed nickel single crystals, Z. Naturforsch., 25a, 1747, 1970.
252. Seeger, A. and Kronmuller, H., Reversible magnetization curve and magnetostriction of uniaxial ferromagnetic crystals with internal stresses, Phys. Status Solidi, 30, K101, 1968.
253. Kronmuller, H., Statistical theory of Rayleigh's law, Z. Angew. Phys., 30, 9, 1970.
254. Habermeier, H. B. and Kronmuller, H., Magnetization curve, magnetostriction and susceptibility of hexagonal cobalt single crystals with internal stresses, Z. Angew. Phys., 30, 13, 1970.
255. Maruse, S. and Hibino, M., The ripple contrast in Lorentz images of magnetic thin films, Z. Angew. Phys., 27,183, 1969.
256. Ajeian, R., Kappert, H., and Reimer, L., Fraunhofer-Beugung an Lorentzmikroskopischen Aufnahmen des Magnetisierungs-Ripple, 2. Angew. Phys., 31, 80, 1970.
257. Callen, H. B., Coren, R. L., and Doyle, W. D., Magnetization ripple and arctic foxes,J AppL Phys., 36, 1064, 1965.
258. Nentwich, G., Die Deutung der Magnetostriktion mit dem Modell der statistischen Domanen, Z. Angew. Phys., 29, 197,1970.
259. Hoffmann, H., Theory of magnetization ripple, IEEE Trans., MAG-4, 32,1968.
260. Harte, K. J., Theory of magnetization ripple in ferromagnetic films,J. Appl. Phys., 39, 1503, 1968.
261. Cohen, M. S., Oblique-incidence magnetic anisotropy in codeposited alloy films,J Appl. Phys., 38, 860, 1967.
262. Kench, J. R. and Schuldt, S. B., Concerning the origin of uniaxial magnetic anisotropy in electrodeposited permalloy films,J Appl. Phys., 41, 3338,1970.
263. Roth, M., Influence de la structure locale de 1'anisotropic magnetique induite sur la dispersion de l'aimantation dans les couches minces de permalloy, Phys. Status Solidi, 14, 115, 1966.
264. Wiedenmann, H. -M. and Hoffmann, H., Lokale Anisotropien in diinnen ferromagnetischen Schichten, Z. Angew. Phys., 30,117,1970.
265. Williams, C. M., Effects of He irradiation on the anisotropy-field inhomogeneity and coercive force in thin permalloy films,J Appl. Phys., 39,4741, 1968.
266. Hoper, J. H., Magnetization-ripple internal fields in thin magnetic films measured by ferromagnetic resonance, J Appl. Phys., 41, 1331, 1970.
267. Harte, K. J., Theory of large-angle ripple in magnetic films,J AppL Phys., 37, 1295, 1966.
268. Corciovei, A. and Adam Gh., On The calculation of magnetostatic energies associated to domain structures in ferromagnetic thin films,J Physique, to be published.
269. Krey, U., Die mikromagnetische Behandlung lokaler Storungen mit Hilfe der Greenschen Funktion.J'Ji.w. Kondens. Materie, 6,218,1967.
270. Hoffman, H., Basic equations of micromagnetism,J Appl. Phys., 39, 873, 1968.
271. Brown, W. F., Jr., Reinterpretation of Hoffmann's Ripple thoery,J AppL Phys., 40, 1214,1969.
272. Brown, W. F., Jr., A critical assessment of Hoffmann's linear theory of ripple, IEEE Trans., MAG-6, 121,1970.