Size and charge characterisation of a submicrometre oil-in-water emulsion using resistive pulse sensing with tunable pores

A tunable nanopore sensor for the detection of metal ions using translocation velocity and biphasic pulses

“…55 The relative velocity of the particle can then be calculated from the pulse width, Figure S1 24 . Multiple time points are recorded along the peak and are donated T 0.90 , T 0.80 , T 0.70 etc., and the reciprocal of the average time from each point can be used to calculate the relative particle velocity 24 .…”

Size fractionation and size characterization of nanoemulsions of lipid droplets and large unilamellar lipid vesicles by asymmetric-flow field-flow fractionation/multi-angle light scattering and dynamic light scattering

“…The size and size distribution of LUV have been characterized by dynamic light-scattering (DLS), static light-scattering (SLS) [13][14][15][16][17], microscopic techniques (fluorescence microscopy, transmission electron microscopy, scanning electron microscopy, freeze-fracture electron microscopy [18][19][20][21]), analytical ultracentrifugation [18], size-exclusion chromatography [22], and flow field-fractionation (FFF) techniques [23][24][25][26][27][28][29][30], whereas the size and size distribution of lipid and oil-in-water emulsion droplets have been generally characterized by electron microscopy [2,9,31], DLS [32][33][34], and SLS [35,36].…”

Counting and Sizing of Single Vesicles/Liposomes by Electrochemical Events

“…In 1953, Wallace H. Coulter [27] invented the Coulter counter technique, achieving the detection of certain micron-sized entities (e. g., cells and bacteria). In addition to the developments in nanometre-scale fabrication technology, various biological, solidstate nanopore and/or nanochannel resistive-pulse sensors have emerged and grown to be a powerful and influential technique for single-entity analysis both in fundamental studies and in practical applications, [14,[30][31][32] achieving the successful detection of hard particles, [33,34] emulsions, [35] microgels [36][37][38] and biological entities. In addition to the developments in nanometre-scale fabrication technology, various biological, solidstate nanopore and/or nanochannel resistive-pulse sensors have emerged and grown to be a powerful and influential technique for single-entity analysis both in fundamental studies and in practical applications, [14,[30][31][32] achieving the successful detection of hard particles, [33,34] emulsions, [35] microgels [36][37][38] and biological entities.…”