Spin Transfer Torque: Magnetization Dynamics in Nanopillars | Exploring Interlayer Coupling and Biasing Effects on Switching Behavior in Ferromagnetic Multilayer Structures. This item is unavailable.
Language: English
Published by LAP LAMBERT Academic Publishing, 2024
- Softcover
- New



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Softcover
Condition: New
US$ 67.72
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Spin Transfer Torque: Magnetization Dynamics in Nanopillars | Exploring Interlayer Coupling and Biasing Effects on Switching Behavior in Ferromagnetic Multilayer Structures | Aravinthan Devarasu | Taschenbuch | Englisch | 2024 | LAP LAMBERT Academic Publishing | EAN 9786208222758 | Verantwortliche Person für die EU: SIA OmniScriptum Publishing, Brivibas Gatve 197, 1039 RIGA, LETTLAND, customerservice[at]vdm-vsg[dot]de | Anbieter: preigu.
Seller Inventory # 130391416
- Title
- Spin Transfer Torque: Magnetization Dynamics in Nanopillars | Exploring Interlayer Coupling and Biasing Effects on Switching Behavior in Ferromagnetic Multilayer Structures
- Author
- Aravinthan Devarasu
- Publisher
- LAP LAMBERT Academic Publishing
- Publication year
- 2024
- Condition
- Neu
- Binding
- Taschenbuch
- Language
- English
- ISBN 10
- 6208222753
- ISBN 13
- 9786208222758
- Item weight
- 227 grams
- Dimensions
- 220 x 150 x 9 mm
- Seller catalogs
- Bücher
This book delves into the exciting developments in spintronics, focusing on the dynamics of magnetization switching in ferromagnetic nanopillars. Spin transfer torque (STT), a quantum phenomenon arising from electron spin interactions, is at the heart of the study. The book explores how interlayer couplings, like orange peel and biquadratic coupling, affect STT-induced magnetization switching in trilayer and pentalayer structures. It also addresses key challenges such as reducing critical current density and switching time, with an emphasis on the role of biasing in enhancing switching efficiency. By solving the complex Landau-Lifshitz-Gilbert-Slonczewski (LLGS) equation, the book provides insights into the nonlinear dynamics governing magnetic switching. The findings have potential applications in magnetic storage, MRAM, and high-frequency devices, offering a comprehensive understanding of STT dynamics and its practical implications in spintronics.
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