Non-equilibrium many-body states in carbon nanotube quantum dots /
General Material Designation
[Book]
First Statement of Responsibility
Tokura Hata.
.PUBLICATION, DISTRIBUTION, ETC
Place of Publication, Distribution, etc.
Singapore :
Name of Publisher, Distributor, etc.
Springer,
Date of Publication, Distribution, etc.
2019.
PHYSICAL DESCRIPTION
Specific Material Designation and Extent of Item
1 online resource
SERIES
Series Title
Springer theses
GENERAL NOTES
Text of Note
"Doctoral thesis accepted by Osaka University, Osaka, Japan."
INTERNAL BIBLIOGRAPHIES/INDEXES NOTE
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Includes bibliographical references.
CONTENTS NOTE
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Intro; Supervisor's Foreword; List of Publication; Acknowledgements; Contents; 1 Introduction; 1.1 Mesoscopic Physics 1Datta,1Heikkila; 1.2 Landauer-Büttiker Formula 1Datta; 1.3 Quantum Dot; 1.3.1 Quantum Dot Structures and Materials; 1.3.2 Quantum Dot Transport; 1.4 Carbon Nanotube; 1.4.1 Basic Properties of Carbon Nanotube; 1.4.2 CNT QDs and Magnetic Spectroscopy 1Laird,1Fujiwara; 1.5 Kondo Effect; 1.5.1 Kondo Effect in a QD; 1.5.2 Pervious Experiments; 1.6 Josephson Junction; 1.6.1 Andreev Reflections 1Octavio; 1.6.2 Andreev Bound States 1Nazarov; 1.6.3 Multiple Andreev Reflections
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1.7 Current Noise1.7.1 Thermal Noise and Shot Noise 1Glattli,1Blanter; References; 2 Experimental Methods; 2.1 Fabrication Method; 2.2 Measurement Setup; 2.2.1 Dilution Refrigerator; 2.2.2 Conductance Measurement; 2.2.3 Current Noise Measurement; 2.3 Characteristics of the CNT QD; 2.3.1 Conductance Properties (Normal State); 2.3.2 Conductance Properties (Superconducting State); 2.3.3 Current Noise Properties; References; 3 Non-equilibrium Fluctuations in Strongly Correlated Kondo States; 3.1 Non-equilibrium Kondo Effect and Shot Noise; 3.2 Experimental Results; 3.2.1 Kondo Characteristics
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3.2.2 The Wilson Ratio Extracted from the Scaling Laws3.2.3 Shot Noise in the Linear Regime and Fano Factor; 3.2.4 Shot Noise in the Nonlinear Regime and Wilson Ratio; 3.2.5 Magnetic Field and Temperature Dependence of Shot Noise; 3.2.6 Conclusion; References; 4 Non-equilibrium Fluctuations Along Symmetry Crossover in a Kondo-Correlated Quantum Dot; 4.1 SU(4) Kondo Effect; 4.2 Symmetry Crossover in a Kondo QD; 4.3 Extraction of the Angle of the Magnetic Field; 4.4 SU(4) Kondo Effect at Zero Magnetic Field; 4.4.1 SU(4) Kondo Effects Properties; 4.4.2 SU(4) Kondo Shot Noise in the Linear Regime
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4.4.3 SU(4) Kondo Shot Noise in the Nonlinear Regime4.5 Symmetry Crossover From SU(4) to SU(2); 4.5.1 Conductance Measurement and NRG Calculations; 4.5.2 Shot Noise in the Linear Regime Along the Crossover; 4.5.3 Shot Noise in the Nonlinear Regime Along the Crossover; 4.5.4 Conclusion; References; 5 Kondo-Andreev Competing System in Carbon Nanotube; 5.1 Interplay Between Kondo Effect and Superconductivity; 5.2 Experimental Results; 5.2.1 SU(2) Kondo Effects and Superconductivity; 5.2.2 SU(4) Kondo Effects and Superconductivity; 5.2.3 Conductance at the Same Filling
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5.2.4 Shot Noise at the Same Filling5.2.5 Perfect Transmission Regimes in the SU(2) and SU(4) Regimes; 5.2.6 Comparison Between Experiment and Simulation; 5.2.7 Remark on the Absence of Supercurrent; 5.2.8 Conclusion; References; 6 Summary; 6.1 Non-equilibrium Fluctuations in Strongly Correlated Kondo States; 6.2 Non-equilibrium Fluctuations Along Symmetry Crossover in a Kondo Correlated Quantum Dot; 6.3 Kondo-Andreev Competing System in Carbon Nanotube
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SUMMARY OR ABSTRACT
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This book presents the first experiment revealing several unexplored non-equilibrium properties of quantum many-body states, and addresses the interplay between the Kondo effect and superconductivity by probing shot noise. In addition, it describes in detail nano-fabrication techniques for carbon nanotube quantum dots, and a measurement protocol and principle that probes both equilibrium and non-equilibrium quantum states of electrons. The book offers various reviews of topics in mesoscopic systems: shot noise measurement, carbon nanotube quantum dots, the Kondo effect in quantum dots, and quantum dots with superconducting leads, which are relevant to probing non-equilibrium physics. These reviews offer particularly valuable resources for readers interested in non-equilibrium physics in mesoscopic systems. Further, the cutting-edge experimental results presented will allow reader to catch up on a vital new trend in the field.
ACQUISITION INFORMATION NOTE
Source for Acquisition/Subscription Address
Springer Nature
Stock Number
com.springer.onix.9789811376603
OTHER EDITION IN ANOTHER MEDIUM
Title
Non-Equilibrium Many-body States in Carbon Nanotube Quantum Dots.