Here we will list 9 things that could affect the stability of your QCM-D baseline, and give advice on how to address them if you are experiencing drift.
Get on top of the key facts and fundamentals of the lipid bilayer formation process with our selected list of 8 publications.
Here we present a summary of how protein adsorption to a silicone oil/water interface was analyzed in the presence and absence of surfactant.
Surfactants are key components in many products and processes where the surfactant-surface interaction dynamic could be critical. Here we show how the surfactant interaction with surfaces can be analyzed in a time-resolved manner at the nanoscale.
To avoid potential adverse effects, it is relevant to study how nanoparticles interact with their surroundings. Here we present examples of how nanoparticle interaction with a variety of surfaces can be analyzed.
The versatility of polyelectrolyte multilayers, PEMs, is high, which makes them interesting for e.g. biomedical applications. The functionality is largely determined by the layer properties, which needs to be understood to be tailored. Here, we show how PEMs can be characterized with QCM-D.
Read about how molecule-surface interaction processes and binding can be characterized by QCM-D via time-resolved measurements of mass and thickness.
Surfaces are all around us. To control the macroscale we need to understand and tune the nanoscale. Learn more about QCM-D can help.
How does QCM-D work? Perhaps you know that a QCM-D sensor is made out of quartz, which is a piezoelectric material. Read about what that means.