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qn-med.tudelft.nl

Nature Communications: Electrons rolling “uphill” | MED

http://qn-med.tudelft.nl/2014/11/04/nature-communications-electrons-rolling-uphill

Molecular Electronics and Devices. Nature Communications: Electrons rolling “uphill”. 4 November, 2014. In their recent work reported in Nature Communications. Gilles Buchs and Salvatore Bagiante, working with Gary Steele in the SteeleLab, have demonstrated that this is not always the case, and in particular, electrons can sometimes be induced to flow “uphill”. For more information, see the article. In Nature Communications, also covered in an article on nanowerk.com.

qn-med.tudelft.nl

Counting of phonons | MED

http://qn-med.tudelft.nl/2015/06/02/counting-of-phonons

Molecular Electronics and Devices. 2 June, 2015. Simon Gröblacher co-authors a Hanbury Brown and Twiss type experiment with phonons performed at Caltech, which was recently published in the renowned journal Nature. Figure: Finite element simulation of the nanobeam structure used to measure the phonon statistics of a mechanical oscillator using a Hanbury Brown and Twiss type experiment.

qn-med.tudelft.nl

Highlights | MED

http://qn-med.tudelft.nl/category/uncategorized

Molecular Electronics and Devices. Mechanical Quanta See the Light. January 18, 2016. Interconnecting different quantum systems is important for future quantum computing architectures, but has proven difficult to achieve. Researchers from the Delft University of Technology (TU Delft), FOM and the University of Vienna have now realized a first step towards a universal quantum link based on quantum-mechanical vibrations of a nanomechanical device. The researchers’ findings were published today in. Non-clas...

qn-med.tudelft.nl

Nature Communications: Nanotube Decoherence | MED

http://qn-med.tudelft.nl/2014/12/09/nature-communications-nanotube-decoherence

Molecular Electronics and Devices. Nature Communications: Nanotube Decoherence. 9 December, 2014. In their recent work in Nature Communications, Schneider et al. have explored the concept of decoherence applied to a mechanical resonator. By studying very sensitive nanotube mechanical resonators at low temperatures using a new, high-speed detection technique, they were able to observe and identify a process of decoherence in the motion of a carbon nanotube. For more information, see the article here.

tnw.tudelft.nl

TU Delft: Promoveren bij faculteit TNW

http://www.tnw.tudelft.nl/onderzoek/promoveren

Botanische Tuin and Beijerinck Museum. Promoveren bij faculteit TNW. Faculteit Technische Natuurwetenschappen (TNW) heeft meer dan 140 wetenschappelijke medewerkers en meer dan 400 post-doctorale onderzoekers en promovendi. Onderzoek bij faculteit Technische Natuurwetenschappen. Bionanoscience - www.bn.tudelft.nl. Biotechnologie - www.bt.tudelft.nl. Chemical Engineering - www.cheme.tudelft.nl. Imaging Physics - www.imphys.tudelft.nl. Quantum Nanoscience - www.qn.tudelft.nl. Wanneer je een PhD-project zou...

vanderzantlab.tudelft.nl

Nanoparticles | van der Zant Lab

http://vanderzantlab.tudelft.nl/nanoparticles

Van der Zant Lab. Molecular signals in transport. Interaction with light in these trenches has been studied with inorganic PbSe nanoparticles (also called colloidal quantum dots), which directly bridge the nanometer-spaced electrodes. Unlike in conventional quantum-dot thin film photodetectors, charge mobility no longer plays a role in this device as charge extraction requires only two individual tunnel events. We find an efficient photoconductive gain mechanism with external quantum-efficiencies...

vanderzantlab.tudelft.nl

People | van der Zant Lab

http://vanderzantlab.tudelft.nl/person_category/people

Van der Zant Lab. Molecular signals in transport. Herre van der Zant. Phone: 31 15 278 7733. Hsjvanderzant at tudelft.nl. Phone: 31 15 278 6099. Eburzurilinares at tudelft.nl. Phone: 31 15 278 6063. Jdugay at tudelft.nl. Phone: 31 15 278 6077. Aafursina at tudelft.nl. Phone: 31 15 278 2081. Rgaudenzi at tudelft.nl. Phone: 31 15 278 6063. Aholovchenko at tudelft.nl. Phone: 31 15 278 2081. JdeBruijckere at tudelft.nl. Phone: 31 15 278 5187. Joisland at tudelft.nl. Phone: 31 15 278 1689. As coordinator, NWO.

vanderzantlab.tudelft.nl

FOM Program Quantum Interference | van der Zant Lab

http://vanderzantlab.tudelft.nl/fom-program-quantum-interference

Van der Zant Lab. Molecular signals in transport. FOM Program Quantum Interference. Quantum interference effects are at the core of modern physics. Especially fascinating is the fact that interference of electron waves is directly observable through the conductance of a phase-coherent conductor. In general, constructive interference leads to enhanced conductance values, whereas destructive interference results in suppression. Arguably the most famous examples are formed by mesoscopic, micron-...Which can...

steenekenlab.tudelft.nl

Highlights | Steeneken Lab

http://steenekenlab.tudelft.nl/highlights

Our paper is published in Nano Letters: Robin J. Dolleman, Dejan Davidovikj, Santiago J. Cartamil-Bueno, Herre S. J. van der Zant, and Peter G. Steeneken,. 8220;Graphene Squeeze-Film Pressure Sensors”. 16 (1), pp 568 571, 2016 ( link. Thomas Schenderling completed his MSc. research project: “Electrical and mechanical characterization of strained 2D-materials”. Paul Scheepers joins the lab as a MSc student. Dejan Davidovikj wins the best poster award at the 7th NTT Basic Research Laboratories conference.

vanderzantlab.tudelft.nl

Openings | van der Zant Lab

http://vanderzantlab.tudelft.nl/openings

Van der Zant Lab. Molecular signals in transport. PhD position on transport through single molecules in solvents (mechanically controlled break junction set-up). Postdoc position on sensors of two-dimensional materials (in connection with the graphene flagship). The work on molecular transport and nanomechanics is financed by FOM. Projectruimtes and Programmes, the FOM Program Quantum Interference. As coordinator, NWO. And by the EU through an ITN network ( Molesco. Delft University of Technology. We are...