Abstract
Magnetic nanocomposites, in which magnetic nanoparticles are encapsulated in polymeric matrices, have important applications in medicine, electronics and mechanical devices. However, the development of processes leading to magnetic nanocomposites with desirable, predictable and reproducible properties has turned out to be a difficult challenge. To date, most studies have concentrated on a magnetic oxide, primarily magnetite (Fe{sub 3}O{sub 4}), as the encapsulated phase. However, the synthesis of batches of magnetite with homogeneous properties at reasonably low temperature is a delicate operation. Indeed, commercial lots of magnetite powder, despite having bulk Fe{sub 3}O{sub 4} stoichiometry, turn out to have large variations in structure and in magnetic properties. The difficulties in controlling the product are greatly magnified when the particle size is in the nanometer range.
Grdanovska, Slavica;
Tissot, Chanel;
Barkatt, Aaron;
Al-Sheikhly, Mohamad
[1]
- Nuclear Engineering Program – Department of Materials Science and Engineering, University of Maryland, College Park, MD (United States)
Citation Formats
Grdanovska, Slavica, Tissot, Chanel, Barkatt, Aaron, and Al-Sheikhly, Mohamad.
Radiolytic Synthesis of Magnetic Nanocomposites.
IAEA: N. p.,
2011.
Web.
Grdanovska, Slavica, Tissot, Chanel, Barkatt, Aaron, & Al-Sheikhly, Mohamad.
Radiolytic Synthesis of Magnetic Nanocomposites.
IAEA.
Grdanovska, Slavica, Tissot, Chanel, Barkatt, Aaron, and Al-Sheikhly, Mohamad.
2011.
"Radiolytic Synthesis of Magnetic Nanocomposites."
IAEA.
@misc{etde_22270132,
title = {Radiolytic Synthesis of Magnetic Nanocomposites}
author = {Grdanovska, Slavica, Tissot, Chanel, Barkatt, Aaron, and Al-Sheikhly, Mohamad}
abstractNote = {Magnetic nanocomposites, in which magnetic nanoparticles are encapsulated in polymeric matrices, have important applications in medicine, electronics and mechanical devices. However, the development of processes leading to magnetic nanocomposites with desirable, predictable and reproducible properties has turned out to be a difficult challenge. To date, most studies have concentrated on a magnetic oxide, primarily magnetite (Fe{sub 3}O{sub 4}), as the encapsulated phase. However, the synthesis of batches of magnetite with homogeneous properties at reasonably low temperature is a delicate operation. Indeed, commercial lots of magnetite powder, despite having bulk Fe{sub 3}O{sub 4} stoichiometry, turn out to have large variations in structure and in magnetic properties. The difficulties in controlling the product are greatly magnified when the particle size is in the nanometer range.}
place = {IAEA}
year = {2011}
month = {Jul}
}
title = {Radiolytic Synthesis of Magnetic Nanocomposites}
author = {Grdanovska, Slavica, Tissot, Chanel, Barkatt, Aaron, and Al-Sheikhly, Mohamad}
abstractNote = {Magnetic nanocomposites, in which magnetic nanoparticles are encapsulated in polymeric matrices, have important applications in medicine, electronics and mechanical devices. However, the development of processes leading to magnetic nanocomposites with desirable, predictable and reproducible properties has turned out to be a difficult challenge. To date, most studies have concentrated on a magnetic oxide, primarily magnetite (Fe{sub 3}O{sub 4}), as the encapsulated phase. However, the synthesis of batches of magnetite with homogeneous properties at reasonably low temperature is a delicate operation. Indeed, commercial lots of magnetite powder, despite having bulk Fe{sub 3}O{sub 4} stoichiometry, turn out to have large variations in structure and in magnetic properties. The difficulties in controlling the product are greatly magnified when the particle size is in the nanometer range.}
place = {IAEA}
year = {2011}
month = {Jul}
}