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Velimir Meded

Researcher at Karlsruhe Institute of Technology

Publications -  60
Citations -  2371

Velimir Meded is an academic researcher from Karlsruhe Institute of Technology. The author has contributed to research in topics: Graphene & Spin crossover. The author has an hindex of 25, co-authored 60 publications receiving 2070 citations. Previous affiliations of Velimir Meded include Uppsala University.

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Influence of conformation on conductance of biphenyl-dithiol single-molecule contacts.

TL;DR: The TLM describes the pair of hybridizing highest occupied molecular orbital (HOMO) states on the phenyl rings and illustrates that the pi-pi coupling dominates the transport under "off-resonance" conditions where the HOMO levels are well separated from the Femi energy.
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Charge-Transfer-Induced Lattice Collapse in Ni-Rich NCM Cathode Materials during Delithiation

TL;DR: In this paper, the authors investigated changes in crystal and electronic structure of NCM811 (80% Ni) cathode materials at high states of charge by a combination of operando X-ray diffraction (XRD), operando hard Xray absorption spectroscopy (hXAS), ex situ soft x-ray absorption spectrum analyzer (sXAS) and density functional theory (DFT) calculations and correlate the results with data from galvanostatic cycling in coin cells.
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Organometallic benzene-vanadium wire: A one-dimensional half-metallic ferromagnet.

TL;DR: D density functional theory is used to perform theoretical investigations of the electronic properties of a freestanding one-dimensional organometallic vanadium-benzene wire, finding that the half-metallic behavior is conserved up to 12% longitudinal elongation of the wire.
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Electrical control over the Fe(II) spin crossover in a single molecule: Theory and experiment

TL;DR: In this paper, the authors report on theoretical and experimental work involving a particular molecular switch, an [FeII(L)2]2+ complex, that utilizes a spin transition (crossover) and demonstrate that within a single molecule this transition can be triggered by charging the ligands.
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Switching the Proton Conduction in Nanoporous, Crystalline Materials by Light.

TL;DR: It is foreseen that photoswitchable proton-conducting materials may find its application in advanced, remote-controllable chemical sensors, and a variety of devices based on the conductivity of protons or other charged molecules, which can be interfaced with biological systems.