Abstract The estimation of nanoparticle number concentration in colloidal suspensions is a prerequisite in many procedures, and in particular in multi-stage, low-yield reactions. Here, we describe a rapid, non-destructive method based on optical extinction and dynamic light scattering (DLS), which combines measurements using common bench-top instrumentation with a numerical algorithm to calculate the particle size distribution (PSD) and concentration. These quantities were derived from Mie theory applied to measurements of the optical extinction spectrum of homogeneous, non-absorbing nanoparticles, and the relative PSD of a colloidal suspension. The work presents an approach to account for PSDs achieved by DLS which, due to the underlying ...
The purpose of the present research is to develop and apply an experi- mental technique for measurin...
The purpose of the present research is to develop and apply an experi- mental technique for measurin...
Determining the size of nanoparticles accurately, quickly and easily is becoming more and more impor...
Abstract The estimation of nanoparticle number concentration in colloidal suspensions is a prerequi...
The estimation of nanoparticle number concentration in colloidal suspensions is a prerequisite in ma...
In this paper, we explore the ability of extinction spectroscopy to characterize colloidal suspensio...
In this paper, we explore the ability of extinction spectroscopy to characterize colloidal suspensio...
The characterization of nanoparticles in dispersions, in particular measuring their size and size di...
The characterization of nanoparticles in dispersions, in particular measuring their size and size di...
International audienceThe characterization of nanoparticles in dispersions, in particular measuring ...
International audienceThe characterization of nanoparticles in dispersions, in particular measuring ...
International audienceIt is prerequisite to characterize nanoparticles in dispersions in particular ...
We present here a perspective detailing the current state-of-the-art technologies for the characteri...
Identification of optimal concentration in DLS to obtain particle size distributions (PSDs) of Ti3C2...
Dynamic light scattering (DLS) is a non-invasive technique, capable of measuring the size of submicr...
The purpose of the present research is to develop and apply an experi- mental technique for measurin...
The purpose of the present research is to develop and apply an experi- mental technique for measurin...
Determining the size of nanoparticles accurately, quickly and easily is becoming more and more impor...
Abstract The estimation of nanoparticle number concentration in colloidal suspensions is a prerequi...
The estimation of nanoparticle number concentration in colloidal suspensions is a prerequisite in ma...
In this paper, we explore the ability of extinction spectroscopy to characterize colloidal suspensio...
In this paper, we explore the ability of extinction spectroscopy to characterize colloidal suspensio...
The characterization of nanoparticles in dispersions, in particular measuring their size and size di...
The characterization of nanoparticles in dispersions, in particular measuring their size and size di...
International audienceThe characterization of nanoparticles in dispersions, in particular measuring ...
International audienceThe characterization of nanoparticles in dispersions, in particular measuring ...
International audienceIt is prerequisite to characterize nanoparticles in dispersions in particular ...
We present here a perspective detailing the current state-of-the-art technologies for the characteri...
Identification of optimal concentration in DLS to obtain particle size distributions (PSDs) of Ti3C2...
Dynamic light scattering (DLS) is a non-invasive technique, capable of measuring the size of submicr...
The purpose of the present research is to develop and apply an experi- mental technique for measurin...
The purpose of the present research is to develop and apply an experi- mental technique for measurin...
Determining the size of nanoparticles accurately, quickly and easily is becoming more and more impor...