Journal of Magnetism and Magnetic Materials 1999: Vol 201 Index

8 Pages·1999·2.6 MB·English

Missa,
Aras:
ELSEVIER Journal of Magnetism and Magnetic Materials 201 (1999) 490-495
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Author index to volume 201
Akagami, Y., see Nakatsuka, K. 256 Blums, E., Mass transfer in nonisothermal ferrocolloids
Andra, W., see Hiergeist, R. 420 under the effect of a magnetic field 242
Antalik, M., see Koneracka, M. 427 Blums, E., S. Odenbach, A. Mezulis and M. Maiorov,
Antohe, L., see Manoliu, Al. 446 Magnetic Soret effect in a hydrocarbon based colloid
Anton, I., see Popa, N.C. 385 containing surfacted Mn-Zn ferrite particles 268
Asari, S., see Nakatsuka, K. 256 Bomans, P., see Donselaar, L.N. 58
Aswal, V.K., see Massart, R. 73 Bossis, G. and A. Cebers, Effects of the magnetodipolar
Atarashi, T., Y.S. Kim, T. Fujita and K. Nakatsuka, interactions in the alternating magnetic fields 218
Synthesis of ethylene-glycol-based magnetic fluid us- Bossis, G., see Volkova, O. 66
ing silica-coated iron particle 7 Boudouvis, A.G., see Papathanasiou, A.G. 290
Atarashi, T., see Kim, Y.S. 361 Buchin, V.A. and G.A. Shaposhnikova, Suppression of
Ayoub, N., see Miller, R. 34 disturbances on the thin film surface of viscous mag-
Ayoub, N.Y., R. Mueller, R. Hiergeist and W. Schueppel, netic fluid flowing on the vertical wall 343
A comparative magnetic study of the DC remanence Buining, P.A., see Donselaar, L.N. 58
for the frozen substituted Ba-hexaferrite ferrofluid Buioca, C.D., see Iusan, V. 38
and some conventional frozen ferrofluids 119 Buske, N., see Bashtovoi, V. 332
Azevedo, R.B., see Lacava, Z.G.M. 431 Buske, N., see Hiergeist, R. 420
Butnaru, G., D. Terteac and I. Potencz, Magnetic fluids
improving effect in in vitro regenerates in hypograv-
Bacri, J.-C., see Hasmonay, E. 195 , whe
' ity conditions 435
Balasoiu, M., see Grabcev, B. 140 Buyanov ee ete Elias Ue 136
Baltag, O. and D. Costandache, Nonlinear behav- peice ae = .
iour of the ferrofluid in orthogonal magnetic
fields 123 Cader, T., see Tangthieng, C. 252
Baltag, O., see Cotae, C. 394 Calarasu, D., see Cotae, C. 394
Bara, L.1., see Pavel, A. 443 Calarasu, D., C. Cotae and R. Olaru, Magnetic fluid brake 401
Bashtovoi, V., S. Pogirnitskaya and A. Reks, Dynamics Carletto, P., see Volkova, O. 66
of deformation of magnetic fluid flat drops in a homo- Cebers, A., see Volkova, O. 66
geneous longitudinal magnetic field 300 Cebers, A., see Bossis, G. 218
Bashtovoi, V., P. Kuzhir and A. Reks, Statics of magnetic Cebers, A., see Drikis, I. 339
fluid drop in channels of various forms 328 Charles, S.W., see Fannin, P.C. 91
Bashtovoi, V., A. Reks, L. Suloeva, A. Sukhotsky, A. Charles, S.W., see Fannin, P.C. 98
Nethe, N.D. Stahlmann, N. Buske and P. Killat, Charles, S.W., see Fannin, P.C. 113
Study of ponderomotive interaction of magnetic field Chetverikov, M.V., see Engel, A. 310
sources in a magnetic fluid 332 Chiou, Y.C., see Yang, H.C. 313
Bibicu, I., see Mihalca, I. 53 Chiou, Y.C., see Jang, IJ. 317
Bica, D., see Grabcev, B. 140 Claici, F., see Hrianca, I. 126
Bica, D., see Vekas, L. 159 Coroiu, 1., Relaxivities of different superparamagnetic
Bica, D., see Jamon, D. 174 particles for application in NMR tomography 449
Bica, I., Plasma device for magnetic nanoparticles pro- Costandache, D., see Baltag, O. 123
duction 45 Costandache, D., see Cotae, C. 394
Blom, C., see de Gans, B.J. 11 Cotae, C., O. Baltag, R. Olaru, D. Calarasu and D.
Blums, E., see Wagener, M. 18 Costandache, The study of a magnetic fluid-based
Blums, E., see Maiorov, M. 95 sensor 394
0304-8853/99/$s-e e front matter © 1999 Elsevier Science B.V. All rights reserved.
PII: S0304-8853(99)00439-4
Author index to volume 201
Cotae, C., see Calarasu, D. 401 Fujita, T., see Atarashi, T.
Cotae, C., see Pavel, A. 443 Fujita, T., T. Miyazaki, H. Nishiyama and B. Jeyadevan,
Cotae, C., see Manoliu, Al. 446 Preparation and properties of low boiling point of
Creanga, D.E., see Pavel, A. 443 alcohol and acetone-based magnetic fluid
Creanga, D.E., see Manoliu, Al. 446 Fujita, T., see Kim, Y.S.
Cser, L., see Lebedev, V.T. 80
Cser, L., see Lebedev, V.T. 133
Garcia, V.A.P., see Lacava, Z.G.M.
Cser, L., see Lebedev, V.T. 136
Gendron, F., see Massart, R.
Cutillas, S., see Volkova, O. 66
Gendron, F., see Zins, D.
Czechowski, G., see Potocova, I. 163
Gheorghe, D., see Vekas, L.
Gillis, P., see Roch, A.
Da Silva, M.F., see Lacava, Z.G.M. 431 Gilly, H., see Odenbach, S.
Da Silva, S.W., see Morais, P.C. 105 Gordeev, G.P., see Lebedev, V.T.
De Gans, B.J., C. Blom, J. Mellema and A.P. Philipse, Goyal, P.S., see Massart, R.
Preparation and magnetisation of a silica-magnetite Grabcev, B., M. Balasoiu, A. Tirziu, A.I. Kuklin and D.
inverse ferrofluid Bica, Application of contrast variation method in
De Sabata, I., see Popa, N.C. SANS experiments with ferrofluids
Depeyrot, J., see Hasmonay, E. Ginther, B., see Wagener, M.
Donatini, F., see Jamon, D. Giinther, B., see Wagener, M.
Donatini, F., see Payet, B.
Donselaar, L.N., P.M. Frederik, P. Bomans, P.A. Buin-
Hadgia, S., see lusan, V.
ing, B.M. Humbel and A.P. Philipse, Visualisation of
Hadgia, S., V. Iusan and A. Stanci, A method for mag-
particle association in magnetic fluids in zero-field
netic field determination inside magnetic fluids
Dormann, J.L., see Fannin, P.C.
Hanson, M., see Maiorov, M.
Drikis, I. and A. Cebers, Viscous fingering in magnetic
Hasmonay, E., J. Depeyrot, M.H. Sousa, F.A. Tourinho,
fluids: numerical simulation of radial Hele-Shaw flow
J.-C. Bacri and R. Perzynski, Optical properties of
Du, T., see Luo, W.
nickel ferrite ferrofluids
Hergt, R., see Hiergeist, R.
Engel, A.. A. Lange, H. Langer, T. Mahr and M.V. Heyen, M., see Odenbach, S.
Chetverikov, A single peak of the Rosensweig insta- Hiergeist, R., see Miller, R.
bility Hiergeist, R., see Ayoub, N.Y.
Ercuta, A., see Mihalca, I. Hiergeist, R., W. Andra, N. Buske, R. Hergt, I. Hilger, U.
Richter and W. Kaiser, Application of magnetite fer-
rofluids for hyperthermia
Fahling, H., see Jordan, A.
Hilger, I., see Hiergeist, R.
Fannin, P.C., L. Kinsella and S.W. Charles, Wide-band
Hirota, Y., see Matsuno, Y.
complex magnetic susceptibility measurements of
Hong, C.-Y., Optical switch devices using the magnetic
magnetic fluids as a function of temperature
fluid thin films
Fannin, P.C., S.W. Charles and J.L. Dormann, Field
Hong, C.-Y., see Horng, H.E.
dependence of the dynamic properties of colloidal
Hong, C.-Y., see Yang, H.C.
suspensions of Mnpo 66ZNo.34F e204 and
Hong, C.-Y., see Jang, LJ.
Nip, sZNo,sFe,O,4 particles
Horng, H.E., C.-Y. Hong, H.C. Yang, IJ. Jang, S.Y.
Fannin, P.C., S.W. Charles and A.T. Skjeltorp, Apparent
Yang, J.M. Wu, S.L. Lee and F.C. Kuo, Magnetic
superdiamagnetism of diamagnetic spheres in ferrof-
field dependence of Cotton—-Mouton rotation for
luids
magnetic fluid films
Fannin, P.C., D. Vincent and G. Noyel, On the measure-
Horng, H.E., see Yang, H.C.
ment of the complex susceptibility and permittivity of
Horng, H.E., see Jang, 1.J.
magnetic fluids by means of two different measure-
Hrianca, I., I. Maladescu, F. Claici and C.N. Marin, The
ment techniques
influence of particle concentration in ferrofluids on
Felix, R., see Jordan, A.
broadening of the magnetic resonance line
Ferre, J., see Spoliansky, D.
Huang, J., see Luo, W.
Filip, O., see Jamon, D.
Humbel, B.M., see Donselaar, L.N.
Finlayson, B.A., see Tangthieng, C.
Frederik, P.M., see Donselaar, L.N.
Freitas, M.L.L., see Lacava, Z.G.M. Ikohagi, T., see Sudo, S.
Fujisaki, M., see Miiller, R. Ikohagi, T., see Sudo, S.
Fujise, T., see Matsuno, Y. Iskakova, L.Yu., see Zubarev, A. Yu.
492 Author index to volume 20]
Iskakova, L.Yu., see Zubarev, A.Yu. Klyubin, V.V., see Lebedev, V.T. 80
Iusan, V., C.D. Buioca and S. Hadgia, Magnetic fluids of Kobayashi, N., see Yamaguchi, H. 260
low viscosity Kobori, I., see Yamaguchi, H. 260
Iusan, V., see Stanci, A. Kobori, I., see Yamaguchi, H. 264
Iusan, V., see Hadgia, S. Koneracka, M., see Potoéova, I. 163
Ivanov, A.O. and A.Yu. Zubarev, Kinetics of a ferrofluid Koneracka, M., see Turek, I. 167
phase separation induced by an external magnetic Koneracka, M., see Kopéansky, P. 204
field Koneracka, M., P. Kopéansky, M. Antalik, M. Timko,
Ivanov, A.O., Phase separation in magnetic colloids C.N. Ramchand, D. Lobo, R.V. Mehta and R.V.
Iwabuchi, M., see Shimada, K. Upadhyay, Immobilization of proteins and enzymes
to fine magnetic particles 427
Jadzyn, J., see Potocova, I. Kopcansky, P., see Potoéova, I. 163
Jamet, J.-P., see Spoliansky, D. Kopcansky, P., see Turek, I. 167
Jamon, D., F. Donatini, J. Monin, M. Raga, V. Socoliuc, Kopcansky, P., M. Koneracka, N. TomaSovi¢ova and L.
Tomc¢o, The existence of universal angle for magneto-
O. Filip, D. Bica and V. Sofonea, Concentration de-
pendence of magnetisation and magneto-optical ef- optical effect in magnetic fluids 204
fects in a ferrofluid with double layer stabilized Kopcansky, P., see Koneracka, M. 427
particles 174 Kotitz, R., W. Weitschies, L. Trahms and W. Semmler,
Jang, I.J., see Horng, H.E. 215 Investigation of Brownian and Neéel relaxation in
Jang, I.J., see Yang, H.C. 313 magnetic fluids 102
Jang, I.J., H.E. Horng, Y.C. Chiou, C.-Y. Hong, J.M. Wu Krakov, M.S., Influence of rheological properties of mag-
and H.C. Yang, Pattern formation in microdrops of netic fluid on damping ability of magnetic fluid
magnetic fluids 317 shock-absorber 368
Jeyadevan, B. and I. Nakatani, Characterization of field- Kuklin, A.I., see Grabcev, B. 140
induced needle-like structures in ionic and water- Kuo, F.C., see Horng, H.E. 215
based magnetic fluids 62 Kuzhir, P., see Bashtovoi, V. 328
Jeyadevan, B., see Fujita, T. 14
Jeyadevan, B., see Nakatsuka, K. 256 Lacava, L.M., see Lacava, Z.G.M. 431
Johanson, C., see Maiorov, M. 95 Lacava, Z.G.M., R.B. Azevedo, E.V. Martins, L.M.
Jorat, L., see Popa, N.C. 398 Lacava, M.L.L. Freitas, V.A.P. Garcia, C.A. Rébula,
Jorat, L., see Popa, N.C. 407 A.P.C. Lemos, M.H. Sousa, F.A. Tourinho, M.F. Da
Jordan, A., R. Scholz, P. Wust, H. Fahling and R. Felix, Silva and P.C. Morais, Biological effects of magnetic
Magnetic fluid hyperthermia (MFH): Cancer treat- fluids: toxicity studies 431
ment with AC magnetic field induced excitation of Lacis, S., Bending of ferrofluid droplet in rotating mag-
biocompatible superparamagnetic nanoparticles 413 netic field 335
Lange, A., see Engel, A. 310
Kaiser, W., see Hiergeist, R. 420 Langer, H., see Engel, A. 310
Kali, Gy., see Lebedev, V.T. 80 Lebedev, V.T., G.P. Gordeev, A.I. Sibilev, V.V. Klyubin,
Kali, Gy., see Lebedev, V.T. 133 Gy. Torok, L. Cser, Gy. Kali and L.K. Varga, Neu-
Kamiyama, S., K. Ueno and Y. Yokota, Numerical anal- tron spin echo study of low-T, ferrofluid 80
ysis of unsteady gas-liquid two-phase flow of mag- Lebedev, V.T., Gy. Torok, Gy. Kali, L. Cser, D.N. Orlova
netic fluid 271 and A.I. Sibilev, Dynamics of concentrated ferrofluid
Kamiyama, S., see Ueno, K. 281 with labelled particles 133
Kamiyama, S., see Shimada, K. 357 Lebedev, V.T., Gy. Torok, L. Cser, A.L. Buyanov, L.G.
Katagiri, K., see Sudo, S. 285 Revelskaya, D.N. Orlova and A.I. Sibilev, Magnetic
Katagiri, K., see Sudo, S. 306 phase ordering in ferrogels under applied field 136
Kato, K., N. Umehara and M. Suzuki, A study of hard- Lee, H.S. and I. Nakatani, On the chemical stability of
ness of the frozen magnetic fluid grinding wheel iron-nitride magnetic fluids in atmospheric condi-
Kawauchi, M., see Umehara, N. tions
Kikura, H., Y. Takeda and T. Sawada, Velocity profile Lee, S.L., see Horng, H.E.
measurements of magnetic fluid flow using ultrasonic Lemos, A.P.C., see Lacava, Z.G.M.
Doppler method Leonard, D., see Segal, V.
Killat, P., see Bashtovoi, V. Lindner, P., see Odenbach, S.
Kim, Y.S., see Atarashi, T. Lita, M. and M. Nicoara, The use of amorphous and
Kim, Y.S., K. Nakatsuka, T. Fujita and T. Atarashi, quasi-amorphous Fe-Cr-P powders for fabrication
Application of hydrophilic magnetic fluid to oil seal of magneto-rheological suspensions
Kinsella, L., see Fannin, P.C. Lita, M., see Mihalca, I.
Author index to volume 201
Lobo, D., see Koneracka, M. 427 Nakatsuka, K., see Kim, Y.S.
Luca, D., see Mihalca, I. 53 Naletova, V.A. and V.A. Turkov, Film thickness discon-
Luo, W., T. Du and J. Huang, Field-induced instabilities tinuity generation in a magnetic field
in a magnetic fluid Nattrass, D., see Segal, V.
Nethe, A., see Bashtovoi, V.
Mahr, T., see Reimann, B. Nethe, A., T. Sch6ppe and H.-D. Stahlmann, Ferrofluid
Mahr, T., see Engel, A. driven actuator for a left ventricular assist device
Maiorov, M., E. Blums, M. Hanson and C. Johanson, High Nicoara, M., see Lita, M.
field magnetization of the colloidal Mn-Zn ferrite Nishita, T., see Ueno, K.
Maiorov, M., see Blums, E. Nishiyama, H., see Fujita, T.
Malaescu, I., see Hrianca, I. Nishiyama, H., see Sudo, S.
Manoliu, Al., L. Antohe, D.E. Creanga and C. Cotae, The Nishiyama, H., see Sudo, S.
influence of the petroleum ferrofluids upon the cellu- Noyel, G., see Fannin, P.C.
losolytic fungi Chaetomium globosum Kunze: Fr Noyel, G., see Payet, B.
Marin, C.N., see Hrianca, I.
Odenbach, S., Microgravity research as a tool for the
Martins, E.V., see Lacava, Z.G.M.
investigation of effects in magnetic fluids
Massart, R., D. Zins, F. Gendron, M. Rivoire, R.V.
Odenbach, S., T. Rylewicz and M. Heyen, A rheometer
Mehta, R.V. Upadhyay, P.S. Goyal and V.K. Aswal,
dedicated for the investigation of viscoelastic effects
Electron spin resonance investigation of Mn-Zn
in commercial magnetic fluids
ionic ferrofluid
Odenbach, S., see Blums, E.
Matsuno, Y., T. Fujise, K. Tomosawa and Y. Hirota,
Odenbach, S., H. Gilly and P. Lindner, The use of mag-
Demagnetizing factors of magnetic fluids
Maulbetsch, J., see Tangthieng, C. netic small angle neutron scattering for the detection
of flow profiles in magnetic fluids
Mehta, R.V., see Massart, R.
Ohaba, M.., see Sudo, S.
Mehta, R.V., see Upadhyay, R.V.
Mehta, R.V., see Koneracka, M. Ohaba, M., T. Sugimoto, T. Sawada, S. Sudo and T.
Tanahashi, Oscillations of magnetic liquid columns
Mellema, J., see de Gans, B.J.
subject to random vibration
Meunier, A., see Volkova, O.
Ohaba, M., see Omura, N.
Mezulis, A., see Blums, E.
Ojha, V.N., see Pant, R.P.
Mihalea, I., M. Morariu, M. Lita, I. Bibicu, A. Ercuta and
D. Luca, Structural characterization of FeCrP-type Olaru, R., see Cotae, C.
Olaru, R., see Calarasu, D.
mesoscopic system
Omura, N., K. Yamashita, T. Sawada and M. Ohaba,
Miyazaki, T., see Fujita, T.
Dynamic characteristics of a magnetic fluid column
Monin, J., see Jamon, D.
formed by magnetic field
Morais, P.C., S.W. da Silva, M.A.G. Soler, M.H. Sousa
Orlova, D.N., see Lebedev, V.T.
and F.A. Tourinho, Raman study of ionic water-
Orlova, D.N., see Lebedev, V.T.
based copper and zinc ferrite magnetic fluids
Ouakssim, A., see Roch, A.
Morais, P.C., see Lacava, Z.G.M.
Morariu, M., see Mihalca, I.
Pant, R.P., V.K. Sankaranarayanan, V.N. Ojha and D.K.
Morozov, K.I., Thermodiffusion in magnetic colloids
Suri, Characterization of ferrofluid-polymer com-
Mueller, R., see Ayoub, N.Y.
posites on high T, superconductor Bi,Sr,Ca,Cu,O,
Miiller, H.W., The dispersion of parametrically excited
Pant, R.P., see Upadhyay, R.V.
surface waves in viscous ferrofluids
Papathanasiou, A.G. and A.G. Boudouvis, Three-dimen-
Miiller, R., R. Hiergeist, H. Steinmetz, N. Ayoub, M.
sional magnetohydrostatic instabilities of rotating
Fujisaki and W. Schiippel, Barium hexaferrite ferrof-
ferrofluid drops
luids - preparation and physical properties
Parekh, K., see Upadhyay, R.V.
Muller, R.N., see Roch, A.
Pavel, A., M. Trifan, LI. Bara, D.E. Creanga and C.
Musil, C., see Turek, I.
Cotae, Accumulation dynamics and some cytogeneti-
cal tests at Chelidonium majus and Papaver som-
Nakatani, I., see Lee, H.S. niferum callus under the magnetic liquid effect
Nakatani, I., see Jeyadevan, B. Payet, B., F. Donatini and G. Noyel, Longitudinal mag-
Nakatsuka, K., see Atarashi, T. neto-optical study of Brown relaxation in ferrofluids:
Nakatsuka, K., see Zins, D. dynamic and transient methods. Application
Nakatsuka, K., B. Jeyadevan, Y. Akagami, T. Torigoe Perzynski, R., see Hasmonay, E.
and §. Asari, Visual observation of the effect of mag- Philipse, A.P., see de Gans, B.J.
netic field on moving air and vapor bubbles in a mag- Philipse, A.P., see van Ewijk, G.A.
netic fluid Philipse, A.P., see Donselaar, L.N.
494 Author index to volume 201
Pioch, L.L., see Zahn, M. 144 Rothert, A. and R. Richter, Experiments on the breakup
Piso, M.I. and L. Vekas, Magnetic fluid composites and of a liquid bridge of magnetic fluid
tools for microgravity experiments 410 Rusakov, V.V., see Raikher, Y.L.
Piso, M.I., Applications of magnetic fluids for inertial Rylewicz, T., see Odenbach, S.
sensors 380
Pogirnitskaya, S., see Bashtovoi, V. 300
Sala, F., Magnetic fluids effect upon growth processes in
Ponsinet, V., see Spoliansky, D. 200
plants
Popa, N.C., I. De Sabata, I. Anton, I. Potencz and L. Vekas,
Sankaranarayanan, V.K., see Pant, R.P.
Magnetic fluids in aerodynamic measuring devices 385
Sawada, T., see Kikura, H.
Popa, N.C., A. Siblini and L. Jorat, Influence of the
Sawada, T., see Ohaba, M.
magnetic permeability of materials used for the con-
Sawada, T., see Omura, N.
struction of inductive transducers with magnetic fluid 398
Scholz, R., see Jordan, A.
Popa, N.C., A. Siblini and L. Jorat, Gravitational electri-
Schoppe, T., see Nethe, A.
cal generator on magnetic fluid cushion 407
Schueppel, W., see Ayoub, N.Y.
Potencz, I., see Vekas, L. 159
Schiippel, W., see Miiller, R.
Potencz, I., see Popa, N.C. 385
Segal, V., D. Nattrass, K. Raj and D. Leonard, Acceler-
Potencz, I., see Butnaru, G. 435
ated thermal aging of petroleum-based ferrofluids
Potocova, I., M. Koneracka, P. Kopcansky, M. Timko,
Semmler, W., see KOtitz, R.
L. Toméo, J. Jadzyn and G. Czechowski, The influ-
Shaposhnikova, G.A., see Buchin, V.A.
ence of magnetic field on electric Fredericksz
Shimada, K., see Yamaguchi, H.
transition in 8CB-based ferronematic 163
Shimada, K., S. Kamiyama and M. Iwabuchi, Effect of
a magnetic field on the performance of an energy
Raikher, Y.L. and V.I. Stepanov, Transient field-induced conversion system using magnetic fluid
birefringence in a ferronematic Sibilev, A.I., see Lebedev, V.T.
Raikher, Y.L. and V.V. Rusakov, Dynamics of magneto- Sibilev, A.I., see Lebedev, V.T.
orientational susceptibility in a viscoelastic magnetic Sibilev, A.I., see Lebedev, V.T.
fluid Siblini, A., see Popa, N.C.
Raj, K., see Segal, V. Siblini, A., see Popa, N.C.
Ramchand, C.N., see Koneracka, M. Skjeltorp, A.T., see Fannin, P.C.
Rasa, M., see Vekas, L. Socoliuc, V., see Jamon, D.
Rasa, M., Improved formulas for magneto-optical effects Sofonea, V., see Jamon, D.
in ferrofluids Sofonea, V., see Tulcan, E.
Raga, M., see Jamon, D. Soler, M.A.G., see Morais, P.C.
Rébula, C.A., see Lacava, Z.G.M. Sousa, M.H., see Morais, P.C.
Rehberg, I., see Zeuner, A. Sousa, M.H., see Hasmonay, E.
Rehberg, I., see Reimann, B. Sousa, M.H., see Lacava, Z.G.M.
Rehberg, I., see Zeuner, A. Spoliansky, D., J. Ferre, J.-P. Jamet and V. Ponsinet,
Reimann, B., T. Mahr, R. Richter and I. Rehberg, Stand- Relaxation of the magnetic field-induced birefrin-
ing twin peaks due to non-monotonic dispersion of gence in ferrosmectics
Faraday waves Srinivas, D., see Upadhyay, R.V.
Reks, A., see Bashtovoi, V. Stahlmann, H.-D., see Nethe, A.
Reks, A., see Bashtovoi, V. 328 StahImann, N.D., see Bashtovoi, V.
Reks, A., see Bashtovoi, V. 332 Stanci, A. and V. Iusan, Magnetofluidic sensor for min-
Revelskaya, L.G., see Lebedev, V.T. 136 eral quality control in preparation processes
Richter, R., see Zeuner, A. 191] Stanci, A., see Hadgia, S.
Richter, R., see Reimann, B. 303 Steinmetz, H., see Miiller, R.
Richter, R., see Zeuner, A. 321 Stelina, J., see Turek, I.
Richter, R., see Rothert, A. 324 Stepanov, V.I., see Raikher, Y.L.
Richter, U., see Hiergeist, R. 420 Sudo, S., N. Wakamatsu, T. Ikohagi, H. Nishiyama, M.
Rivoire, M., see Massart, R. 73 Ohaba and K. Katagiri, Magnetic field effects in the
Rivoire, M., see Zins, D. 84 impact of a magnetic fluid drop
Roch, A., P. Gillis, A.Q uakssim and R.N. Muller, Proton Sudo, S., see Ohaba, M.
magnetic relaxation in superparamagnetic aqueous Sudo, S., T. Ikohagi, H. Nishiyama and K. Katagiri,
colloids: a new tool for the investigation of ferrite Dynamic behavior of a magnetic fluid jet injected
crystal anisotropy 77 from a vibrating nozzle
Rosensweig, R.E., Theory for stabilization of magnetic Sugimoto, T., see Ohaba, M.
colloid in liquid metal Sukhotsky, A., see Bashtovoi, V.
Author index to volume 201
Suloeva, L., see Bashtovoi, V. 332 Vekas, L., see Popa, N.C.
Suri, D.K., see Pant, R.P. 27 Vékas, L., see Piso, M.I.
Suzuki, K., see Umehara, N. 372 Vincent, D., see Fannin, P.C.
Suzuki, M., see Kato, K. 376 Volkova, O., S. Cutillas, P. Carletto, G. Bossis, A. Cebers
and A. Meunier, Flow-induced structures in mag-
Takeda, Y., see Kikura, H. 276 netorheological suspensions
Tanahashi, T., see Ohaba, M. 293 Vroege, G.J., see van Ewijk, G.A.
Tangthieng, C., B.A. Finlayson, J. Maulbetsch and T.
Cader, Heat transfer enhancement in ferrofluids sub-
Wagener, M. and B. Giinther, Sputtering on liquids
jected to steady magnetic fields
— a versatile process for the production of magnetic
Terteac, D., see Butnaru, G.
suspensions?
Timko, M., see Potocova, I.
Wagener, M., B. Giinther and E. Blums, Preparation of
Timko, M., see Turek, I.
oxidation resistant cobalt oil colloids
Timko, M., see Koneracka, M.
Wakamatsu, N., see Sudo, S.
Tirziu, A., see Grabcev, B.
Weitschies, W., see KOtitz, R.
Tomasovicova, N., see Kopcansky, P.
Wu, J.M., see Horng, H.E.
Toméo, L., see Potocova, I.
Wu, J.M., see Yang, H.C.
Toméo, L., see Turek, I.
Wu, J.M., see Jang, IJ.
Tomco, L., see Kopcansky, P.
Wu, K.T. and Y.D. Yao, Dynamic structure study of
Tomosawa, K., see Matsuno, Y.
Fe,O, ferrofluid emulsion in magnetic field
Torigoe, T., see Nakatsuka, K.
Wust, P., see Jordan, A.
Torok, Gy., see Lebedev, V.T.
Torok, Gy., see Lebedev, V.T.
Yamaguchi, H., I. Kobori and N. Kobayashi, Numerical
Torok, Gy., see Lebedev, V.T.
study of flow state for a magnetic fluid heat transport
Tourinho, F.A., see Morais, P.C.
device
Tourinho, F.A., see Hasmonay, E.
Yamaguchi, H., I. Kobori, Y. Uehata and K. Shimada,
Tourinho, F.A., see Lacava, Z.G.M.
Natural convection of magnetic fluid in a rectangular
Trahms, L., see K6titz, R.
box
Trifan, M., see Pavel, A.
Yamashita, K., see Omura, N.
Tulcan, E. and V. Sofonea, Morphology of cluster forma-
Yang, H.C., see Horng, H.E.
tion in magnetic fluids
Yang, H.C., I.J. Jang, H.E. Horng, J.M. Wu, Y.C. Chiou
Turek, I., J. Stelina, C. Musil, M. Timko, P. Kopéansky,
and C.-Y. Hong, Behavior of the magnetic structures
M. Koneracka and L. Toméo, The effect of self-dif-
of the magnetic fluid film under tilted magnetic fields
fraction in magnetic fluids
Yang, H.C., see Jang, IJ.
Turkov, V.A., see Naletova, V.A.
Yang, S.Y., see Horng, H.E.
Yao, Y.D., see Wu, K.T.
Uehata, Y., see Yamaguchi, H.
Yokota, Y., see Kamiyama, S.
Ueno, K., see Kamiyama, S.
Yushkov, A.V., see Zubarev, A. Yu.
Ueno, K., T. Nishita and S. Kamiyama, Numerical simula-
tion of deformed single bubbles rising in magnetic fluid
Umehara, N. and K. Suzuki, Reduction of pull-off force Zahn, M. and L.L. Pioch, Ferrofluid flows in AC and
with nanometer scale forming using magnetic fluid traveling wave magnetic fields with effective positive,
and magnetic field zero or negative dynamic viscosity
Umehara, N. and M. Kawauchi, Fundamental polishing Zeuner, A., R. Richter and I. Rehberg, On the consistency
properties of frozen magnetic fluid grinding of the standard model for magnetoviscosity in an
Umehara, N., see Kato, K. alternating magnetic field
Upadhyay, R.V., see Massart, R. Zeuner, A., R. Richter and I. Rehberg, Weak periodic
Upadhyay, R.V.,R.V. Mehta, K. Parekh, D. Srinivas and excitation of a magnetic fluid capillary flow
R.P. Pant, Gd-substituted ferrite ferrofluid: a possible Zins, D., see Massart, R.
candidate to enhance pyromagnetic coefficient Zins, D., K. Nakatsuka, F. Gendron and M. Rivoire,
Upadhyay, R.V., see Koneracka, M. Evidence of reentrant behavior in nanoparticles of
ferrite in ferrofluids
Van Ewijk, G.A., G.J. Vroege and A.P. Philipse, Conve- Zubarev, A.Yu. and L.Yu. Iskakova, Nonlinear suscep-
nient preparation methods for magnetic colloids tibilities and stochastic resonance in frozen dense
Varga, L.K., see Lebedev, V.T. ferrocolloids
Vékas, L., D. Bica, D. Gheorghe, I. Potencz and M. Rasa, Zubarev, A.Yu., see Ivanov, A.O.
Concentration and composition dependence of the Zubarev, A.Yu., L.Yu. Iskakova and A.V. Yushkov,
rheological behaviour of some magnetic fluids Dynamical properties of dense magnetic suspensions
M ir
Mma
ELSEVIER Journal of Magnetism and Magnetic Materials 201 (1999) 496-497
www.elsevier.com/locate/jmmm
Subject index to volume 201
AC susceptibility 113 Demagnetizing factor 110 Fluid vibration 306
Accumulation rate 446 Dense ferrocolloids 230 Frequency response 297
Acetone 14 Dense ferrofluids 226 Front capturing method 281
Actuator 423 Diamagnetism 113 Frozen magnetic fluid 364, 376
Aerodynamic measuring devices 385 Dielectric constant 394
g-jitter 293
Air bubbles 256 Dielectric fluids 70
Galerkin/finite element method 290
Amorphous powder 49 Dielectric tensor 170
Gas-phase synthesis 41
Anatomo-histological structure 435 Disk brake 401
Gravity 380
Anisotropy 178 Disordered magnetic spinel 84
Grinding wheel 364, 376
Anisotropy constant 119 Drops 300
Anisotropy energy 77 Drops and bubbles 324 Hardness 376
Dynamic viscosity 144
Harmonics 123
Bending 335
Dynamical susceptibility 226, 230
Heat pipes 256
Bifurcation 290
Heat transfer enhancement 252
Biocompatible material 431 Efficiency 357
Biology 440 Heat transport device 260
Electric Fredericksz transition 163
Hele-Shaw flow 339
Biomass 446
Electrical generator 407
Hexagonal structure 317
Biomedical applications 413
Electromagnetic device 252
High gradient magnetic separation 38
Birefringence 200 Elliptical polarization 215
HLB 14
Boundary integral equations 335
Emulsions 186
Hydro-electric power station 407
Brownian losses 420 Energy conversion 357
Hydrodynamics 346
Brownian relaxation 102 Energy dissipation 368
Hydrogen bond 105
Cancer 413 ESR 73
Hyperthermia 413
Chaetomium globosum Kunze: Fr 446
Feedback regulator 343
Chelidonium majus L 443 Immobilization 427
Ferrites 95, 98
Chemical stability 23 Impact phenomena 285
Ferrocolloids 248
Chemisorption 105 Impulse response 293
Ferrofluid 446
Citrate-based magnetic fluid 431 In vitro cultures 443
Ferrofluid droplet 335
Cluster formation 238 In vitro growth 435
Ferrofluid drops 290
Clusters 58 Inductive transducers 385, 398
Ferrofluids 18, 31, 34, 70, 84, 119, 123, 126,
Cobalt colloids 18 Inertial sensors 410
133, 144, 170, 174, 186, 195, 242, 423
Colloids 31, 58 Instability 88, 343
Ferrogel 136
Complex magnetic fluids 211 Interaction 332
Ferromagnetic resonance 84, 116
Complex magnetic susceptibility 91 Interfacial instability 303, 350
Ferronematic liquid crystals 182
Complex permittivity 116 Interfacial oscillation 293
Ferronematics 163
Composites 27 Internal angular momentum 357
Ferrosmectics 200
Contrast agents 77, 449 Inverse ferrofluids 11
FIDAP 252
Cotton-Mouton rotation 215 Ionic ferrofluids 73
Film thickness discontinuity 346
Cryo-electron microscopy 58 Ionic magnetic fluid 431
Fine magnetic particles 95, 427
Ionic MF 62
Damages of FMs improving 435 Flat drops of magnetic fluid 300
Iron-dispersed magnetic fluids 7
Damper 368 Flow 276
Iron-nitride 23
DC remanence 119 Flow detection 353
Deformation of bubbles 281 Flow instability 260, 264 Jet breakup 306
0304-8853/99/$-see front matter © 1999 Elsevier Science B.V. All rights reserved.
PII: $0304-8853(99)00440-0
Subject index to volume 201
Kinetics 222 Microgravity 410 SAR 413
Microgravity environment 297 SC 62
Labyrinthine structure 317
Microgravity research 149 Self-diffraction effect 167
Laminar flows 321
Morphology 238 SEM 27
Left ventricular assist device 423
Mossbauer spectroscopy 53 Sensors 380, 391, 394
Levitation 404
Shear thinning 155
Liquid column 297 Nanometer scale indentation 372
Shock absorber 368
Liquid crystals 14, 200 Nanoparticles 413
Silica 11, 31
Liquid metals 1 Natural convection 260, 264
Silica coating 7
Low boiling point alcohol 14 Néel and Brownian relaxation 91
Simulated hypogravity 435
Lubricant seal 361 Néel relaxation 102
Small angle neutron scattering 353
Neéel-losses 420
Soret coefficient 248, 268
Macrophage 431 Negative viscosity effect 191
Soret effect 167, 242, 268
Maghemite 31 Neutron inelastic scattering 80
Spin glass 84
Magnetic birefringence 182, 211 Neutron scattering 133, 136
Stability 290
Magnetic colloids 1, 31 Neutron small angle scattering 140
Static equilibrium 328
Magnetic convection 252 NMR imaging 449
Sterical stabilization 159
Magnetic drops 285 Non-linear oscillation 310
Stochastic resonance 230
Magnetic field 144, 300, 332, 372, 404 Nonlinear behaviour 123
Stripes 218
Magnetic fine particles 182, 211 Nonlinear dynamics 88
Structure ferrofluids 140
Magnetic fluid 14, 313 Nonlinear optics 88
Super critical flow 264
Magnetic fluid composites 410 Normal stress differences 149
Superparamagnetic colloids 77
Magnetic fluid drops 328 Nuclear magnetic resonance 77
Superparamagnetic particles 449
Magnetic fluid film 215 Numerical analysis 271, 357
Superparamagnetism 58
Magnetic fluids 23, 38, 58, 66, 88, 91, 95, 105, Numerical simulation 398
Surface profile 310
110, 113, 149, 155, 159, 167, 191, 204, 207,
Ocean waves 407 Synthesis 18
222, 234, 256, 260, 264, 271, 276, 281, 285,
Oil seal 361
297, 306, 332, 339, 346, 353, 357, 361, 368, Thermal aging 70
Oleic acid 31
372, 380, 385, 391, 398, 404, 407, 413, 440 Thermal decomposition 45
Optical switch 178
Magnetic force 332 Thermal diffusion 268
Ordered structures 313
Magnetic holes 11 Thermal diffusion (Soret effect) 88
Orthogonal fields 123
Magnetic interaction 328 Thermal diffusion column 242
Magnetic liquid column 293 Pair correlation 133 Thermo-hydrodynamic characteristics 357
Magnetic liquids 303, 321, 324, 350, 394, Papaver somniferum L 443 Thermodiffusion 248
401, 443 Particle concentration 159 Thermodiffusion column 268
Magnetic measurements 95 Pattern formation 88 Thermolysis 18
Magnetic nanoparticles 41, 45 Phase separation 66, 218, 222, 234 Thin films 313, 343, 346
Magnetic oil 18, 41 Plants 440 Tilted magnetic field 313
Magnetic ordering 80, 136, 186 Plasma jet 45 Toxicity 431
Magnetic particles 163 Polishing properties 364 Two-phase flow 271
Magnetic permeability 398 Ponderomotive interaction 332
Ultrafine particles 242
Magnetic properties 49 Primary cluster 62
Ultramicroscope 62
Magnetic resonance linewidth 126 Proteins and enzymes 427
Ultrasonic measurements 276
Magnetic susceptibility 98, 116 Pull-off force 372
Unsteady flow 271
Magnetic transition 80 Pyromagnetic coefficient 129
Magnetisation 129, 174 Vapor bubbles 256
Quality control 391
Magnetisation measurements 11 Vaporization 45
Magnetite 58 Raman spectroscopy 105 Vapour deposition 41
Magneto-dielectric effect 204 Rayleigh loops 420 Velocity profile 276
Magneto-optical birefringence 195 Relaxation 77 VERL 41
Magneto-optical effect 204 Relaxation time 207 Viscosity 38, 129, 207
Magneto-optical effects 170, 174 Resonance 91, 98 Viscosity measurements 321
Magneto-rheological suspension 49 Rheological properties 34, 159, 226, 368 Viscous fingering 339
Magnetodipolar interactions 218 Rheology 66, 149, 155 Viscous instability 350
Magnetoviscosity 191 Rising bubbles 281
Water-based MF 62
Magnets 328 Rosensweig-instability 310
Mesoscopic systems of particles 53 Rotating field 66, 218 X-ray microfocus 256
Microdrops 317 Rotating magnetic field 335 XRD 27, 53