nanophysics, nanotechnology and materials science

15
2014.06.16. 1 Nanophysics, nanotechnology and materials science Nanotechnology exploits material properties which are markedly different from the behavior observed on macroscopic as well as on molecular scales. In the 10-100 nm submicron regime new phenomena emerge opening new routes to the design and fabrication of devices with novel functionalities as well as to the engineering of individual material parameters.

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Page 1: Nanophysics, nanotechnology and materials science

2014.06.16.

1

Nanophysics, nanotechnology and

materials science

Nanotechnology exploits material propertieswhich are markedly different from the behaviorobserved on macroscopic as well as on molecularscales.

In the 10-100 nm submicron regime newphenomena emerge opening new routes to thedesign and fabrication of devices with novelfunctionalities as well as to the engineering ofindividual material parameters.

Page 2: Nanophysics, nanotechnology and materials science

2014.06.16.

2

Excellent Science

Horizon 2020

Industrial Leadership

Societal Challenges

Page 3: Nanophysics, nanotechnology and materials science

2014.06.16.

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Excellent ScienceEuropean Research Council

Future & Emerging Technologies

Horizon 2020

Ongoing ERC projects in the field of

quantum-electronics and spin-dynamics:

Cooper pairs as a source of entanglement(CooPerEnt: 2011-2016)

Spin dynamics and transport at the quantumedge in low dimensional nanomaterials(SYLO: 2010-2015)

Page 4: Nanophysics, nanotechnology and materials science

2014.06.16.

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Cooper pairs as a source of entanglement (CooPerEnt: 2011-2016)

Entanglement and non-localityare spectacular fundamentals ofquantum mechanics and basicresources of future quantum-computation algorithms.

Nature (2009) doi:10.1038/nature08432

Szabolcs Csonka

Page 5: Nanophysics, nanotechnology and materials science

2014.06.16.

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Cooper pairs as a source of entanglement (CooPerEnt: 2011-2016)

In order to preserve quantum coherence the thermal

fluctuation has to be suppressed, which requires low

temperature environment. Our laboratory is equipped with

several cryogenic equipments to allow transport

measurements in the temperature range of 300K-18mK.

Page 6: Nanophysics, nanotechnology and materials science

2014.06.16.

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Spin dynamics and transport at the quantum edge in low dimensional nanomaterials(SYLO: 2010-2015)

A promising route to maintainthe exponential growth capabilityof the information technology isto turn the electron spins asinformation carriers rather thantheir charge.

Nature Scientific Reports (2014)doi:10.1038/srep03233Ferenc Simon

Page 7: Nanophysics, nanotechnology and materials science

2014.06.16.

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Excellent ScienceEuropean Research Council

Future & Emerging Technologies

Horizon 2020

MOMENTUM Research Teams

Industrial LeadershipMicro/Nanoelectronics & PhotonicsNanotechnology

Page 8: Nanophysics, nanotechnology and materials science

2014.06.16.

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MOMENTUM RESEARCH TEAMS

István KézsmárkiMagneto-optical Spectroscopy2014-2019

Robert GyurcsányiChemical Nanosensors2013-2018

Gábor TakácsStatistical Field Theory

2012-2017

Gergely ZarándExotic Quantum Phase2011-2016

Page 9: Nanophysics, nanotechnology and materials science

2014.06.16.

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Magneto-optical Spectroscopy (2014-2019)

Nature Physics (2012)doi:10.1038/NPHYS2387

István Kézsmárki

Smart materials, like multiferroics,magnetoelectric metamaterials andmagnetic nanoparticles — open newhorizons in photonics, optical bio-sensing and optical diagnostics.

Page 10: Nanophysics, nanotechnology and materials science

2014.06.16.

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Magneto-optical Spectroscopy (2014-2019)

Nature Communications (2014)doi:10.1038/ncomms4203

István Kézsmárki

Smart materials, like multiferroics,magnetoelectric metamaterials andmagnetic nanoparticles — open newhorizons in photonics, optical bio-sensing and optical diagnostics.

Page 11: Nanophysics, nanotechnology and materials science

2014.06.16.

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Chemical Nanosensors (2013-2018)

Active nanostructure materials:

- potentiometric sensors, based on solidstate ion channel

- individual biological ion channels in a solid state environment

- fabrication of thin polymer films with a surface imprint

capable of selectively binding proteins.

Robert Gyurcsányi

Page 12: Nanophysics, nanotechnology and materials science

2014.06.16.

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Excellent ScienceEuropean Research Council

Future & Emerging Technologies

Horizon 2020

Industrial LeadershipMicro/Nanoelectronics & PhotonicsNanotechnology

Societal ChallengesBioeconomyHealth

Chemo- and biosensors

Page 13: Nanophysics, nanotechnology and materials science

2014.06.16.

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Magnetic nanoparticle based optical biosensing

Easy-to-use and cost-effective device for the clinical

and in-field malaria diagnosis.

Nature Scientific Reportsdoi:10.1038/srep01431(2013)

Page 14: Nanophysics, nanotechnology and materials science

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Excellent Science

Horizon 2020Industrial Leadership

Societal Challenges

Based on the research activities in natural sciences and the

long-standing tradition in technological developments at our

university we focus on such programs of Horizon 2020 like

Future & Emerging Technologies (Excellent Science),

Micro/Nanoelectronics & Photonics, and Nanotechnology

(Industrial Leadership), as well as Bioeconomy and Health

(Societal Challenges).

The utilization of the novel achievements in nanotechnology

may provide revolutionary solutions for various current

economical challenges.

Page 15: Nanophysics, nanotechnology and materials science

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Excellent Science

Horizon 2020Industrial Leadership

Societal Challenges

Contact person:

Prof. György MIHÁLY

Director of Institute of Physics

BME Faculty of Natural Sciences

Academician, Honorary Chairman of Hungarian National

Doctorate Council

[email protected]