Optical trapping using focused laser beams (laser tweezers) has been proven to be extremely useful for contactless manipulation of a variety of small objects, including biological cells, organelles within cells, and a wide range of other dielectric micro- and nano-objects. Colloidal metal nanoparticles have drawn increasing attention in the field of optical trapping because of their unique interactions with electromagnetic radiation, caused by surface plasmon resonance effects, enabling a large number of nano-optical applications of high current interest. Here we try to give a comprehensive overview of the field of laser trapping and manipulation of metal nanoparticles based on results reported in the recent literature. We also discuss and ...
Controlled trapping of light absorbing nanoparticles with low-power optical tweezers is crucial for ...
We investigate experimentally and theoretically optical trapping of metal nanoparticles and aggregat...
Garcia de Abajo FJ, Brixner T, Pfeiffer W. Nanoscale force manipulation in the vicinity of a metal n...
Optical trapping using focused laser beams (laser tweezers) has been proven to be extremely useful f...
Optical trapping using focused laser beams (laser tweezers) has been proven to be extremely useful f...
Plasmonic nanoparticles, typically gold and silver colloids, can be trapped by a highly focused Gaus...
Optical trapping of metal nanoparticles investigates phenomena at the interface of plasmonics and op...
Optical trapping is an established field for movement of micron-size objects and cells. However, tra...
Optical trapping of metal nanoparticles investigates phenomena at the interface of plasmonics and op...
Abstract. Optical trapping is an established field for movement of micron-size objects and cells. Ho...
Interaction of electromagnetic waves with small particles has been extensively investigated for dete...
Conventional optical tweezers, formed at the diffraction-limited focus of a laser beam, have become ...
We investigate experimentally and theoretically optical trapping of metal nanoparticles and aggregat...
Optical tweezers have found widespread use in studies of biological macromolecules and in manipulati...
ABSTRACT. We investigate experimentally and theoretically optical trapping of metal nanoparticles an...
Controlled trapping of light absorbing nanoparticles with low-power optical tweezers is crucial for ...
We investigate experimentally and theoretically optical trapping of metal nanoparticles and aggregat...
Garcia de Abajo FJ, Brixner T, Pfeiffer W. Nanoscale force manipulation in the vicinity of a metal n...
Optical trapping using focused laser beams (laser tweezers) has been proven to be extremely useful f...
Optical trapping using focused laser beams (laser tweezers) has been proven to be extremely useful f...
Plasmonic nanoparticles, typically gold and silver colloids, can be trapped by a highly focused Gaus...
Optical trapping of metal nanoparticles investigates phenomena at the interface of plasmonics and op...
Optical trapping is an established field for movement of micron-size objects and cells. However, tra...
Optical trapping of metal nanoparticles investigates phenomena at the interface of plasmonics and op...
Abstract. Optical trapping is an established field for movement of micron-size objects and cells. Ho...
Interaction of electromagnetic waves with small particles has been extensively investigated for dete...
Conventional optical tweezers, formed at the diffraction-limited focus of a laser beam, have become ...
We investigate experimentally and theoretically optical trapping of metal nanoparticles and aggregat...
Optical tweezers have found widespread use in studies of biological macromolecules and in manipulati...
ABSTRACT. We investigate experimentally and theoretically optical trapping of metal nanoparticles an...
Controlled trapping of light absorbing nanoparticles with low-power optical tweezers is crucial for ...
We investigate experimentally and theoretically optical trapping of metal nanoparticles and aggregat...
Garcia de Abajo FJ, Brixner T, Pfeiffer W. Nanoscale force manipulation in the vicinity of a metal n...