Bibliography
The bibliography contains articles mentioning explicitly PicoQuant or at least one of our product's name (e.g. MicroTime).
Most of the references can be found easily by full-text searches on the internet. However, some papers cite us only indirectly,
sometimes not at all. Such publications are included only if the use of a PicoQuant product is known, for example, based on
communication with the author(s). There are certainly many more articles reporting results obtained using PicoQuant devices.
Unfortunately, such papers are often hidden for us. Please help completing this list.
Do you miss your publication? If yes, we will be happy to include it in our bibliography. Please send an e-mail
to info@picoquant.com containing the appropriate citation.
Thank you very much in advance for your kind co-operation.
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8875 results found.
Specific binding and internalization: an investigation of fluorescent aptamer-gold nanoclusters and cells with fluorescence lifetime imaging microscopy
Mutas M., Strelow C., Kipp T., Mews A.
Nanoscale, Vol.010, p.20453-20461 (2018)
Reference to: PicoHarp 300
Disruptive effect of tocopherol oxalate on DPPC liposome structure: DSC, SAXS, and fluorescence anisotropy studies
Neunert G., Tomaszewska-Gras J., Siejak P., Pietralik Z., Kozak M., Polewski K.
Chemistry and Physics of Lipids, Vol.216, p.104-113 (2018)
Reference to: TimeHarp 100/200
Characterization of carrier decay mechanisms and quantum yield in colloidal upconverting nanostructures
Lennon K.
Dissertation University of Delaware (2018)
Reference to: PicoHarp 300
Ca2+ and myosin cycle states work as allosteric effectors of troponin activation
Solis C., Kim G.H., Moutsoglou M.E., Robinson J.M.
Biophysical Journal, Vol.115, p.1762-1769 (2018)
Reference to:
MicroTime 200, SymPhoTime
Related to:
FLIM
Thirty-fold photoluminescence enhancement induced by secondary ligands in monolayer protected silver clusters
Khatun E., Ghosh A., Chakraborty P., Singh P., Bodiuzzaman M., Ganesan P., Natarajan G., Ghosh J., Pal S.K., Pradeep T.
Nanoscale, Vol.010, p.20033-20042 (2018)
Reference to: Pulsed Diode Lasers (PDL Series, LDH-Series, LDH-FA Series)
Manipulating the quantum coherence of optically trapped nanodiamonds
Russell L.W., Ralph S.G., Wittick K., Tetienne J.-P., Simpson D.A., Reece P.J.
ACS Photonics, Vol.005, p.4491-4496 (2018)
Reference to: SPADs
Observation of the linewidth broadening of single spins in diamond nanoparticles in aqueous fluid and its relation to the rotational Brownian motion
Fujiwara M., Shikano Y., Tsukahara R., Shikata S., Hshimoto H.
Scientific Reports, Vol.008, 14773 (2018)
Reference to: TimeHarp 260
Near-100% two-photon-like coincidence-visibility dip with classical light and the role of complementarity
Sadana S., Ghosh D., Joarder K., Naga Lakshmi A., Sanders B.C., Sinha U.
Quantum Physics (2018)
Reference to: SPADs
Strong coupling and induced transparency at room temperature with single quantum dots and gap plasmons
Leng H., Szychowski B., Daniel M.-C., Pelton M.
Nature Communications, Vol.009, 4012 (2018)
Reference to: Pulsed Diode Lasers (PDL Series, LDH-Series, LDH-FA Series), PicoHarp 300
Stacking-induced fluorescence increase reveals allosteric interactions through DNA
Morten M.J., Lopez S.G., Steinmark I.E., Rafferty A., Magennis S.W.
Nucleic Acids Research, Vol.046, p.11618–11626 (2018)
Reference to: FluoTime 300, FluoFit
DNA local flexibility dependent assembly of phase separated liquid droplets
Shakya A., King J.T.
Biophysical Journal, Vol.115, p.1840-1847 (2018)
Reference to: PicoHarp 300, SymPhoTime
Precision and accuracy of single-molecule FRET measurements—a multi-laboratory benchmark study
Hellenkamp B., Schmid S., Doroshenko O., Opanasyuk O., Kühnemuth R., Rezaei Adariani S., Ambrose B., Aznauryan M., Barth A., Birkedal V., Bowen M.E., Chen H., Cordes T., Eilert T., Fijen C., Gebhardt C., Götz M., Gouridis G., Gratton E., Ha T., Hao P., Hanke C.A., Hartmann A., Hendrix J., Hildebrandt L.L., Hirschfeld V., Hohlbein J., Hua B., Hübner C.G., Kallis E., Kapanidis A.N., Kim J.Y., Krainer G., Lamb D.C., Lee N.K., Lemke E.A., Levesque B., Levitus M., McCann J.J., Naredi-Rainer N., Nettels D., Ngo T., Qiu R., Robb N.C., Röcker C., Sanabria H., Schlierf M., Schröder T., Schuler B., Seidel H., Streit L., Thurn J., Tinnefeld P., Tyagi S., Vandenberk N., Vera A.M., Weninger K.R., Wünsch B., Yanez-Orozco I.S., Michaelis J., Seidel C.A.M., Craggs T.D., Hugel T.
Nature Methods, Vol.009, p.669-676 (2018)
Reference to:
MicroTime 200, FluoTime 300, Pulsed Diode Lasers (PDL Series, LDH-Series, LDH-FA Series), HydraHarp 400, LSM Upgrade Kit
Related to:
FRET, Single Molecule Detection
A fluorescent membrane tension probe
Colom A., Derivery E., Soleimanpour A., Tomba C., Molin M.D., Sakai N., González-Gaitán M., Matile S., Roux A.
Nature Chemistry, Vol.010, p.1118–1125 (2018)
Reference to:
LSM Upgrade Kit
Related to:
FLIM
Monte-Carlo diffusion-enhanced photon inference: distance distributions and conformational dynamics in single-molecule FRET
Ingargiola A., Weiss S., Lerner E.,
The Journal of Physical Chemistry B, Vol.122, p.11598-11615 (2018)
Reference to:
Pulsed Diode Lasers (PDL Series, LDH-Series, LDH-FA Series)
Related to:
FRET, Single Molecule Detection
Quantifying protein oligomerization in living cells: a systematic comparison of fluorescent proteins
Dunsing V., Luckner M., Zühlke B., Petazzi R., Herrmann A., Chiantia S.
Scientific Reports, Vol.008, 10634 (2018)
Reference to: LSM Upgrade Kit, SPADs, SymPhoTime
Photoluminescence of CdSe/ZnS quantum dots in nematic liquid crystals in electric fields
Kurochkina M.A., Konshina E.A., Khmelevskaia D.
Beilstein Journal of Nanotechnology, Vol.009, p.1544-1549 (2018)
Reference to: MicroTime 100
Optical properties of pseudoisocyanine molecular clusters embedded in a nanoporous alumina
Anton A. Starovoytov A.A., Lepeshova O.I., Alexeeva N.O., Solovyev V.G., Razumova Y.A., Reznik I.A., Baranov M.A.
Proceedings of SPIE, Nanophotonics VII, 1067212 (2018)
Reference to: MicroTime 100
A highly luminescent porous metamaterial based on a mixture of gold and alloyed semiconductor nanoparticles
Kormilina T.K., Stepanidenko E.A., Cherevkov S.A., Dubavik A., Baranov M.A., Federov A.V., Baranov A.V., Gun'ko Y.K., Ushakova E.V.
Journal of Materials Chemistry C, Vol.006, p.5278-5285 (2018)
Reference to: MicroTime 100
Purcell effect in active diamond nanoantennas
Zalogina A.S., Savelev R.S., Ushakova E.V., Zograf G.P., Komissarenko F.E., Milichko V.A., Makarov S.V., Zuev D.A., Shadrivov I.V.
Nanoscale, Vol.010, p.8721-8727 (2018)
Reference to: MicroTime 100
A 256×256 45/65nm 3D-stacked SPAD-based direct TOF image sensor for LiDAR applications with optical polar modulation for up to 18.6dB interference suppression
Ximenes A.R., Padmanabhan P., Lee M.-J., Yamashita Y., Yaung D.N., Charbon E.
IEEE International Solid - State Circuits Conference - (ISSCC) (2018)
Reference to:
SPADs, VisUV
Related to:
LIDAR or ranging
Existence of multiple phases and defect states of SnS absorber and its detrimental effect on efficiency of SnS solar cell
Rana T.R., Kim S.Y., Kim J.H.
Current Applied Physics, Vol.018, p.663-666 (2018)
Reference to: MicroTime 100
Quantum dots based on Indium Phosphide (InP): the effect of chemical modifications of the organic shell on interaction with cultured cells of various origins
Litvinov I.K. , Belyaeva T.N., Salova A.V., Aksenov N.D., Leontieva E.A., Orlova A.O., Kornilova E.S.
Cell and Tissue Biology, Vol.012, p.135-145 (2018)
Reference to: MicroTime 100
Label-free monitoring of ambient oxygenation and redox conditions using the photodynamics of flavin compounds and transient state (TRAST) spectroscopy
Tornmalm J., Widengren J.
Methods, Vol.140-141, p.178-187 (2018)
Reference to: Pulsed Diode Lasers (PDL Series, LDH-Series, LDH-FA Series), HydraHarp 400, SPADs, SymPhoTime
Fluorescence lifetime correlation spectroscopy: basics and applications
Ghosh A., Karedla N., Thiele J.C., Gregor I., Enderlein J.
Methods, Vol.140-141, p.32-39 (2018)
Reference to: MicroTime 200, Pulsed Diode Lasers (PDL Series, LDH-Series, LDH-FA Series), HydraHarp 400
Toward dynamic structural biology: two decades of single-molecule Förster resonance energy transfer
Lerner E., Cordes T., Ingargiola A., Alhadid Y., Chung S.Y.
Science, Vol.359, eaan1133 (2018)
Reference to:
MicroTime 200
Related to:
FRET, Single Molecule Detection