arrow
Return

Atomic Scale Plasmonic Switch

delete2015-12-29
delete124
delete
OA
AI
A
Alexandros Emboras *
J
Jens Niegemann
P
Ping Ma
C
Christian Haffner
A
Andreas Pedersen
M
Mathieu Luisier
C
Christian Hafner
T
Thomas Schimmel
J
Juerg Leuthold
DOI:10.1021/acs.nanolett.5b04537delete
deleteOriginal
deleteOriginal request for help
deleteShare
deleteSave
Abstract

Abstract

En 中文
The atom sets an ultimate scaling limit to Moore's law in the electronics industry. While electronics research already explores atomic scales devices, photonics research still deals with devices at the micrometer scale. Here we demonstrate that photonic scaling, similar to electronics, is only limited by the atom. More precisely, we introduce an electrically controlled plasmonic switch operating at the atomic scale. The switch allows for fast and reproducible switching by means of the relocation of an individual or, at most, a few atoms in a plasmonic cavity. Depending on the location of the atom either of two distinct plasmonic cavity resonance states are supported. Experimental results show reversible digital optical switching with an extinction ratio of 9.2 dB and operation at room temperature up to MHz with femtojoule (fJ) power consumption for a single switch operation. This demonstration of an integrated quantum device allowing to control photons at the atomic level opens intriguing perspectives for a fully integrated and highly scalable chip platform, a platform where optics, electronics, and memory may be controlled at the single-atom level.
Keywords:
Atomic contacts
quantum plasmonics
memristor
surface plasmons
local oxidation
silicon photonics
ab initio calculation

Journal

Nano Letters cover
Nano Letters
IF:
9.1
Papers:
2.7W
Citations:
16.5W

Organization

E
ETH Zurich
Scholars:
3.0W
Papers: 2.4W
Citations: 8.4W
S
swiss federal institutes of technology domain
Scholars:
9.0W
Papers: 8.0W
Citations: 163
Cited Papers

Cited Papers

errShare
errSave
Subtyping Non–Small Cell Lung Cancer
err2013-06-05
err0
PREAI
errGiulio Rossi; Giuseppe Pelosi; Mattia Barbareschi; Paolo Graziano; Alberto Cavazza; Mauro Papotti
errShare
errSave
Redox-Based Resistive Switching Memories - Nanoionic Mechanisms, Prospects, and Challenges
err2009-07-06
err4.6K
PREAI
errWaser, Rainer; Dittmann, Regina; Staikov, Georgi; Szot, Kristof
errShare
errSave
Nanoscale Plasmonic Memristor with Optical Readout Functionality
err2013-11-22
err142
PREAI
errEmboras, Alexandros; Goykhman, Ilya; Desiatov, Boris; Mazurski, Noa; Stern, Liron; Shappir, Joseph; Levy, Uriel
errShare
errSave
An ultralow power athermal silicon modulator
err2014-06-11
err407
errOAAI
errTimurdogan, Erman; Sorace-Agaskar, Cheryl M.; Sun, Jie; Hosseini, Ehsan Shah; Biberman, Aleksandr; Watts, Michael R.
errShare
errSave
Density-functional method for nonequilibrium electron transport -: art. no. 165401
err2002-03-22
err5.2K
errOAAI
errBrandbyge, M; Mozos, JL; Ordejón, P; Taylor, J; Stokbro, K
errShare
errSave
Activation of apoptotic pathways in the absence of cell death in an inner-ear immortomouse cell line
err2012-02-01
err0
errOAAI
errFu-Quan Chen; Kayla Hill; Ya-Jun Guan; Jochen Schacht; Su-Hua Sha
errShare
errSave
Rate of quantum ergodicity in Euclidean billiards
err1998-05-01
err0
errOAAI
errA. Bäcker; R. Schubert; P. Stifter
errShare
errSave
Essential Role of BDNF in the Mesolimbic Dopamine Pathway in Social Defeat Stress
err2006-02-10
err0
PREAI
errOlivier Berton; Colleen A. McClung; Ralph J. DiLeone; Vaishnav Krishnan; William Renthal; Scott J. Russo; Danielle Graham; Nadia M. Tsankova; Carlos A. Bolanos; Maribel Rios; Lisa M. Monteggia; David W. Self; Eric J. Nestler
errShare
errSave
researcher View more