Movies Gallery

Multilayer graphene pores with 0 and 60 degrees relative rotation of flakes

Multilayer graphene pores with 0 and 60 degrees relative rotation of flakes Multilayer graphene pores with 0 and 60 degrees relative rotation of flakes
▶ multi1.avi   ▶ multi2.avi  

Ion passage in multilayer graphene pores with 0 and 60 degrees rotation

Ion passage in multilayer graphene pores with 0 and 60 degrees rotation Ion passage in multilayer graphene pores with 0 and 60 degrees rotation
▶ multi3.avi   ▶ multi4.avi  

L and D-leucine passing multilayer graphene pores with 60 degrees rotation

L and D-leucine passing multilayer graphene pores with 60 degrees rotation L and D-leucine passing multilayer graphene pores with 60 degrees rotation
▶ multi5-L-leucine.avi   ▶ multi6-D-leucine.avi  

Self-assembly of nanoparticles within a nanochannel

Self-assembly of nanoparticles within a nanochannel
▶ filaments.avi

Transient byproducts clustering on wet-etched Silicon nanopillars

Transient byproducts clustering on wet-etched Silicon nanopillars
▶ etching.avi

PEG(350)ylated organomimetic cluster nanomolecules (OCNs) in water

PEG(350)ylated organomimetic cluster nanomolecules (OCNs) in water PEG(350)ylated organomimetic cluster nanomolecules (OCNs) in water
▶ G1-PEG350.mp4   ▶ G2-PEG350.mp4  

PEG(750)ylated OCNs in water

PEG(750)ylated OCNs in water PEG(750)ylated OCNs in water
▶ G1-PEG750.mp4   ▶ G2-PEG750.mp4  

PEG(2000)ylated OCNs in water

PEG(2000)ylated OCNs in water PEG(2000)ylated OCNs in water
▶ G1-PEG2000.mp4   ▶ G2-PEG2000.mp4  

Multivalent binding of glycosylated OCNs to lectin Concanavalin A

Multivalent binding of glycosylated OCNs to lectin Concanavalin A Multivalent binding of glycosylated OCNs to lectin Concanavalin A
▶ sugar.mp4   ▶ sugar-NP.mp4  

3D structure of nanoshells from CdS NPs obtained by TEM tomography

3D structure of nanoshells from CdS NPs obtained by TEM tomography
▶ capsule1.mp4

MD simulations of a nanoshell from ligated CdS NPs with charge q=2e

MD simulations of a nanoshell from ligated CdS NPs with charge q=2e
▶ capsule2.mp4

MD simulations of a nanoshell from naked CdS NPs with charge q=0.6e

MD simulations of a nanoshell from naked CdS NPs with charge q=0.6e
▶ capsule3.mp4

MD simulation of tryptophan bilayer ribbon – longitudinal

MD simulation of tryptophan bilayer ribbon – longitudinal
▶ tryptophan-L.avi

MD simulation of tryptophan bilayer ribbon – transversal

MD simulation of tryptophan bilayer ribbon – transversal
▶ tryptophan-T.avi

In situ TEM movie showing formation of NP chain (100 f/s) – low linker concentration

In situ TEM movie showing formation of NP chain (100 f/s) – low linker concentration
▶ lowTEM.avi

MD simulation showing formation of NP chain (4 ns) – low linker concentration

MD simulation showing formation of NP chain (4 ns) – low linker concentration
▶ lowMD.avi

In situ TEM movie showing formation of branched NP network (25 f/s) – high linker concentration

In situ TEM movie showing formation of branched NP network (25 f/s) – high linker concentration
▶ highTEM.avi

MD simulation showing formation of NP chain (10 ns) – high linker concentration

MD simulation showing formation of NP chain (10 ns) – high linker concentration
▶ highMD-lin.avi

MD simulation showing formation of branched NP network (35 ns) – high linker concentration

MD simulation showing formation of branched NP network (35 ns) – high linker concentration
▶ highMD-bra.avi

cis-azobenzene-ligated nanoparticles in toluene solvent and water solute

cis-azobenzene-ligated nanoparticles in toluene solvent and water solute
▶ 3cis.gif

trans-azobenzene-ligated nanoparticles in toluene solvent and water solute

trans-azobenzene-ligated nanoparticles in toluene solvent and water solute
▶ 3trans.gif

Solvation of 20-water cluster between 4 cis-azobenzene-ligated nanoparticles

Solvation of 20-water cluster between 4 cis-azobenzene-ligated nanoparticles
▶ 20waters.gif

Release of water in vacuum during a cis-trans ligand-type switching

Release of water in vacuum during a cis-trans ligand-type switching
▶ cis-trans-vac.gif

Formation of helices of superparamagnetic nanocubes

Formation of helices of superparamagnetic nanocubes
▶ magnet1.gif

Self-assembly of superstructures from randomly positioned nanocubes

Self-assembly of superstructures from randomly positioned nanocubes
▶ magnet2.gif

Coupling of F anion to coronene (center)

Coupling of F anion to coronene (center)
▶ coro-F-center.avi

Coupling of F anion to coronene (side)

Coupling of F anion to coronene (side)
▶ coro-F-side.avi

Coupling of Na cation to coronene (center)

Coupling of Na cation to coronene (center)
▶ coro-Na-center.avi

Coupling of F anion to a triangular flake (center)

Coupling of F anion to a triangular flake (center)
▶ F-zig-cen-bond.avi

Coupling of F anion to a triangular flake (edge)

Coupling of F anion to a triangular flake (edge)
▶ zigzag-F-edge.avi

Dragging of small water droplets on vibrated nanotubes

Dragging of small water droplets on vibrated nanotubes
▶ dropS.avi

Dragging of large water droplets on vibrated nanotubes

Dragging of large water droplets on vibrated nanotubes
▶ dropL.mpg

Nesting of molecules on functionalized graphene

Nesting of molecules on functionalized graphene
▶ nest.mpg

Controlled self-assembly of double-headed lipid micelles

Controlled self-assembly of double-headed lipid micelles
▶ double-headed.avi

Controlled self-assembly of single-headed lipid micelles

Controlled self-assembly of single-headed lipid micelles
▶ single-headed.avi

Self-assembly of hydrated graphene-membrane superstructures

Self-assembly of hydrated graphene-membrane superstructures
▶ grabim.mpg

Rolling of graphene nanoribbon on carbon nanotube

Rolling of graphene nanoribbon on carbon nanotube
▶ roll.mpg

Helical rolling of graphene nanoribbon on carbon nanotube

Helical rolling of graphene nanoribbon on carbon nanotube
▶ helix-out.mpg

Helical rolling of graphene nanoribbon inside carbon nanotube

Helical rolling of graphene nanoribbon inside carbon nanotube
▶ helix-in.mpg

Helical rolling of two graphene nanoribbons inside carbon nanotube

Helical rolling of two graphene nanoribbons inside carbon nanotube
▶ double-helix.mpg

Knot formation of graphene nanoribbon on carbon nanotube

Knot formation of graphene nanoribbon on carbon nanotube
▶ knot.mpg

Self-assembly of graphene flake

Self-assembly of graphene flake
▶ flower.avi

Sliding self-assembly of graphene stripe

Sliding self-assembly of graphene stripe
▶ sliding.avi

Rolling self-assembly of graphene stripe

Rolling self-assembly of graphene stripe
▶ rolling.avi

Rolling of nanorods on water by light

Rolling of nanorods on water by light
▶ roller.avi

Twisting of hydrated nanotube-peptide junction

Twisting of hydrated nanotube-peptide junction
▶ barcone.avi

Passage of Na+ ion through F-N-pore in graphene

Passage of Na+ ion through F-N-pore in graphene
▶ Na.avi

Passage of Cl- ion through H-pore in graphene

Passage of Cl- ion through H-pore in graphene
▶ Cl.avi

Rotary tunneling motor with 3 blades

Rotary tunneling motor with 3 blades
▶ f3.avi

Rotary tunneling motor with 6 blades

Rotary tunneling motor with 6 blades
▶ f6.avi

Rotary tunneling motor with dual-blades

Rotary tunneling motor with dual-blades
▶ dip.avi

Dragging of 400 waters by Na ion on CNT

Dragging of 400 waters by Na ion on CNT
▶ drop.avi

Dragging of 10000 waters by two Na ions on two CNTs

Dragging of 10000 waters by two Na ions on two CNTs
▶ bigd.avi

Dragging of 400 waters by Na ion on BNT

Dragging of 400 waters by Na ion on BNT
▶ BNT5-5-400.avi

Molecular drag by separately flowing water

Molecular drag by separately flowing water
▶ push.avi

Hydrophobic surface propeller

Hydrophobic surface propeller
▶ surf-pho.avi

Hydrophilic surface propeller

Hydrophilic surface propeller
▶ surf-phi.avi

Hydrophobic bulk propeller

Hydrophobic bulk propeller
▶ bulk-pho.avi

Piece of GFP docked on the ligand-modified graphene

Piece of GFP docked on the ligand-modified graphene
▶ dop-pept.avi

Active catalyst on the right-twisted nanotube

Active catalyst on the right-twisted nanotube
▶ catal-act.avi

Passive catalyst on the left-twisted nanotube

Passive catalyst on the left-twisted nanotube
▶ catal-pass.avi