Next generation spin torque memories / Brajesh Kumar Kaushik, Shivam Verma, Anant Aravind Kulkarni, Sanjay Prajapati.
By: Kaushik, Brajesh Kumar.
Contributor(s): Kulkarni, Anant Aravind. | Prajapati, Sanjay. | Verma, Shivam, (Writer on microelectronics)
Material type:
E-bookSeries: (SpringerBriefs in applied sciences and technology).Publisher: Singapore : Springer, [2017]Description: 1 recurso en línea.ISBN: 9789811027208; 981102720X.Subject: Microelectrónica
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Madrid Digital Acceso Electrónico (UEM) | Ciencias e Ingeniería | T174.7 K387 2017 EB (Browse shelf(Opens below)) | Acceso electrónico | eBook.20023398 |
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| T174.7 ES Applied Nanoscience | T174.7 ES Nanobiomedicine | T174.7 E545 2017 EB Engineering applications of nanotechnology : from energy to drug delivery | T174.7 K387 2017 EB Next generation spin torque memories | T174.7 .K68 2016 EB Essentials in Nanoscience and Nanotechnology | T174.7 M363 2016 EB Managing Risk in Nanotechnology : Topics in Governance, Assurance and Transfer | T174.7 M467 2015 EB MEMS and Nanotechnology, Volume 8 Proceedings of the 2014 Annual Conference on Experimental and Applied Mechanics |
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Preface; Contents; About the Authors; 1 Emerging Memory Technologies; 1.1 Introduction; 1.2 Non-volatile Memories; 1.2.1 Phase Change Memory; 1.2.2 Resistive RAM; 1.2.3 Ferroelectric RAM; 1.2.4 Magnetoresistive RAM; 1.3 Spin Torque Based Memories; 1.3.1 Spin Transfer Torque MRAM; 1.3.2 Spin Orbit Torque MRAM; 1.3.3 Domain Wall MRAM; 1.4 Comparison of Emerging Memory Technologies; 1.5 Chapter Summary; References; 2 Next Generation 3-D Spin Transfer Torque Magneto-resistive Random Access Memories; 2.1 Overview of Conventional STT MRAM: Architecture and Operation; 2.2 Cell Size in Memories.
2.3 Next Generation 4F2 STT MRAM2.3.1 Proposed Architecture; 2.3.2 Performance Parameters and Windows; 2.3.3 Simulation Framework; 2.4 Case Study; 2.4.1 TCAD Analysis; 2.4.2 TCAD Simulation Setup; 2.4.3 Mixed-Mode Simulation Results; 2.4.4 Impact of High-k GAA Devices; 2.4.5 Impact of High-k GD on Delay; 2.5 Proposed Fabrication Methodology; 2.6 Conclusion; References; 3 Spin Orbit Torque MRAM; 3.1 Introduction; 3.2 SOT Device Structure; 3.3 SOT-MRAM Bit-Cell and Array Architectures; 3.4 SOT-MRAM Write and Read Mechanisms; 3.4.1 Concept of Simultaneous Read and Write Operations.
3.5 Compact Modeling of the SOT-MTJ Device3.5.1 Magnetization Dynamics; 3.5.2 TMR; 3.6 Design Aspects and Performance Optimization of SOT-MRAM; 3.7 Comparative Analysis of STT-MRAM and SOT-MRAM; References; 4 Multilevel Cell MRAMs; 4.1 Introduction; 4.2 Issues with Single Level Cell (SLC) STT-/SOT-MRAM; 4.3 Multilevel Cell (MLC) Configurations; 4.3.1 STT Based MLC Configurations; 4.3.2 SOT Based MLC Configurations; 4.4 Multilevel Cell (MLC) MRAM Operations; 4.4.1 MLC STT-MRAM Write and Read Operations; 4.4.2 MLC SOT-MRAM Write and Read Operation; 4.5 Modeling and Simulation of MLC MRAMs.
4.5.1 Simulations of MLC MRAMs4.6 Design Aspects and Optimization of MLC MRAMs; 4.6.1 sMLC MRAMs; 4.6.2 pMLC MRAMs; 4.7 Conclusions; References; 5 Magnetic Domain Wall Race Track Memory; 5.1 Introduction; 5.1.1 Limitations of Existing and Emerging Memory Technologies; 5.2 Fundamentals of Domain-Wall Motion in Nanowire; 5.2.1 Magnetic Domains in Magnetic Nanowire; 5.2.2 Domain-Wall Motion in Nanowire; 5.2.3 Optimization of Domain Wall Motion; 5.3 Domain Wall MRAM; 5.3.1 DW-MRAM Write and Read Operations; 5.4 Racetrack Memory; 5.4.1 Structure of Racetrack Memory; 5.4.2 Write and Read Operations.
5.5 Racetrack Memory Based Logic Implementations5.6 Chapter Summary; References.
This book offers detailed insights into spin transfer torque (STT) based devices, circuits and memories. Starting with the basic concepts and device physics, it then addresses advanced STT applications and discusses the outlook for this cutting-edge technology. It also describes the architectures, performance parameters, fabrication, and the prospects of STT based devices. Further, moving from the device to the system perspective it presents a non-volatile computing architecture composed of STT based magneto-resistive and all-spin logic devices and demonstrates that efficient STT based magneto-resistive and all-spin logic devices can turn the dream of instant on/off non-volatile computing into reality.
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