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shot noise in mesoscopic conductors - Low Temperature Laboratory

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Contents<br />

Physics Reports 336 (2000) 1}166<br />

Shot <strong>noise</strong> <strong>in</strong> <strong>mesoscopic</strong> <strong>conductors</strong><br />

Ya.M. Blanter*, M.BuK ttiker<br />

De& partement de Physique The& orique, Universite& de Gene% ve, CH-1211, Gene%ve 4, Switzerland<br />

1. Introduction 4<br />

1.1. Purpose of this Review 4<br />

1.2. Scope of the Review 4<br />

1.3. Subjects not addressed <strong>in</strong> this Review 6<br />

1.4. Fundamental sources of <strong>noise</strong> 7<br />

1.5. Composition of the Review 11<br />

2. Scatter<strong>in</strong>g theory of thermal and <strong>shot</strong> <strong>noise</strong> 12<br />

2.1. Introduction 12<br />

2.2. The Pauli pr<strong>in</strong>ciple 12<br />

2.3. The scatter<strong>in</strong>g approach 18<br />

2.4. General expressions for <strong>noise</strong> 24<br />

2.5. Voltage #uctuations 29<br />

2.6. Applications 32<br />

2.7. Inelastic scatter<strong>in</strong>g. Phase break<strong>in</strong>g 63<br />

3. Scatter<strong>in</strong>g theory of frequency-dependent<br />

<strong>noise</strong> spectra 69<br />

3.1. Introduction: current conservation 69<br />

3.2. <strong>Low</strong>-frequency <strong>noise</strong> for <strong>in</strong>dependent<br />

electrons: at equilibrium and <strong>in</strong> the<br />

presence of dc transport 72<br />

3.3. <strong>Low</strong>-frequency <strong>noise</strong> for <strong>in</strong>dependent<br />

electrons: photon-assisted transport 75<br />

3.4. Noise of a capacitor 79<br />

3.5. Shot <strong>noise</strong> of a conductor observed at a gate 82<br />

4. Shot <strong>noise</strong> <strong>in</strong> hybrid normal and<br />

superconduct<strong>in</strong>g structures 86<br />

4.1. Shot <strong>noise</strong> of normal-superconductor<br />

<strong>in</strong>terfaces 86<br />

4.2. Noise of Josephson junctions 96<br />

4.3. Noise of SNS hybrid structures 97<br />

Received October 1999; editor: C.W.J. Beenakker<br />

* Correspond<strong>in</strong>g author.<br />

E-mail address: blanter@karystos.unige.ch (Ya.M. Blanter).<br />

0370-1573/00/$ - see front matter 2000 Elsevier Science B.V. All rights reserved.<br />

PII: S 0 3 7 0 - 1 573(99)00123-4<br />

5. Langev<strong>in</strong> and master equation approach to<br />

<strong>noise</strong>: double-barrier structures 101<br />

5.1. Quantum-mechanical versus classical<br />

theories of <strong>shot</strong> <strong>noise</strong> 101<br />

5.2. Suppression of <strong>shot</strong> <strong>noise</strong> <strong>in</strong> double-barrier<br />

structures 103<br />

5.3. Interaction e!ects and super-Poissonian<br />

<strong>noise</strong> enhancement 108<br />

6. Boltzmann}Langev<strong>in</strong> approach to <strong>noise</strong>:<br />

disordered systems 113<br />

6.1. Fluctuations and the Boltzmann<br />

equation 113<br />

6.2. Metallic di!usive systems: classical theory of<br />

-<strong>noise</strong><br />

suppression and multi-probe<br />

<br />

generalization 116<br />

6.3. Interaction e!ects 119<br />

6.4. Frequency dependence of <strong>shot</strong> <strong>noise</strong> 123<br />

6.5. Shot <strong>noise</strong> <strong>in</strong> non-degenerate <strong>conductors</strong> 125<br />

6.6. Boltzmann}Langev<strong>in</strong> method for <strong>shot</strong><br />

<strong>noise</strong> suppression <strong>in</strong> chaotic cavities with<br />

di!usive boundary scatter<strong>in</strong>g 128<br />

6.7. M<strong>in</strong>imal correlation approach to<br />

<strong>shot</strong> <strong>noise</strong> <strong>in</strong> determ<strong>in</strong>istic chaotic<br />

cavities 131<br />

7. Noise <strong>in</strong> strongly correlated systems 134<br />

7.1. Coulomb blockade 134<br />

7.2. Anderson and Kondo impurities 141<br />

7.3. Tomonaga}Lutt<strong>in</strong>ger liquids and<br />

fractional quantum Hall edge states 142<br />

7.4. Composite fermions 148

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