Small and smart magnet design

Cathrine Frandsen; Marco Beleggia; Erik Brok; Jelena Jordanovic; Takeshi Kasama; Jacob Larsen; Steen Mørup; Jakob Schiøtz; Miriam Varón

Small and smart magnet design

Cathrine Frandsen
, Marco Beleggia
, Erik Brok
, Jelena Jordanovic
, Takeshi Kasama
, Jacob Larsen
, Steen Mørup
, Jakob Schiøtz
, Miriam Varón

Research output: Chapter in Book/Report/Conference proceeding › Conference abstract in proceedings › Research › peer-review

Abstract

Society faces an accumulated need to find ways to produce super strong magnets that can fulfill thegrowing demands for green technology products such as compact and efficient generators and motors. Next‐generation magnets could very likely be composite materials built bottom‐up from nanoparticles. However, combining the nanoparticles into a compact magnetic material where all magnetic moments are aligned is an engineering challenge. We investigate ‐ with nanoparticle‐resolution – principles of assembly processes and particle arrangements that can generate optimal magnetic order in new materials (see e.g.Fig. 1). These studies are enabled by advanced transmission electron microscopy, magnetic modelling and new synthesis protocols. Examples of magnetic ordering and self‐organization will be given.

Original language	English
Title of host publication	Abstract Book - DTU Sustain Conference 2014
Number of pages	1
Place of Publication	Kgs. Lyngby
Publisher	Technical University of Denmark
Publication date	2014
Publication status	Published - 2014
Event	DTU Sustain Conference 2014 - Technical University of Denmark, Lyngby, Denmark Duration: 17 Dec 2014 → 17 Dec 2014 http://www.sustain.dtu.dk/

Conference

Conference	DTU Sustain Conference 2014
Location	Technical University of Denmark
Country/Territory	Denmark
City	Lyngby
Period	17/12/2014 → 17/12/2014
Internet address	http://www.sustain.dtu.dk/

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TY - ABST

T1 - Small and smart magnet design

AU - Frandsen, Cathrine

AU - Beleggia, Marco

AU - Brok, Erik

AU - Jordanovic, Jelena

AU - Kasama, Takeshi

AU - Larsen, Jacob

AU - Mørup, Steen

AU - Schiøtz, Jakob

AU - Varón, Miriam

PY - 2014

Y1 - 2014

N2 - Society faces an accumulated need to find ways to produce super strong magnets that can fulfill thegrowing demands for green technology products such as compact and efficient generators and motors. Next‐generation magnets could very likely be composite materials built bottom‐up from nanoparticles. However, combining the nanoparticles into a compact magnetic material where all magnetic moments are aligned is an engineering challenge. We investigate ‐ with nanoparticle‐resolution – principles of assembly processes and particle arrangements that can generate optimal magnetic order in new materials (see e.g.Fig. 1). These studies are enabled by advanced transmission electron microscopy, magnetic modelling and new synthesis protocols. Examples of magnetic ordering and self‐organization will be given.

AB - Society faces an accumulated need to find ways to produce super strong magnets that can fulfill thegrowing demands for green technology products such as compact and efficient generators and motors. Next‐generation magnets could very likely be composite materials built bottom‐up from nanoparticles. However, combining the nanoparticles into a compact magnetic material where all magnetic moments are aligned is an engineering challenge. We investigate ‐ with nanoparticle‐resolution – principles of assembly processes and particle arrangements that can generate optimal magnetic order in new materials (see e.g.Fig. 1). These studies are enabled by advanced transmission electron microscopy, magnetic modelling and new synthesis protocols. Examples of magnetic ordering and self‐organization will be given.

M3 - Conference abstract in proceedings

BT - Abstract Book - DTU Sustain Conference 2014

PB - Technical University of Denmark

CY - Kgs. Lyngby

T2 - DTU Sustain Conference 2014

Y2 - 17 December 2014 through 17 December 2014

ER -

Small and smart magnet design

Abstract

Conference

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