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.
Polymers and polyelectrolytes of various conformations are used in many applications where there is a need to tailor the interfacial properties to promote a certain interaction with the surrounding environment. Here we show how polymer layer crosslinking and collapse can be characterized.
Read about how molecule-surface interaction processes and binding can be characterized by QCM-D via time-resolved measurements of mass and thickness.
Thin-film degradation and material desorption is sometimes wanted and sometimes not. Learn about how it can be characterized by QCM-D.
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.
Proteins are vital for life and perform a wide range of essential biochemical tasks in all living organisms. It is important that the proteins are correctly folded and functional. However, sometimes the control mechanisms fail and accumulated aggregates transform into protein megastructures.
Within biomaterials research and development, hydroxyapatite (HA) is well known for its biocompatible properties, particularly in bone bonding, and for its potency of rapid integration into the human body.
Read about the top 5 QSense sensor coatings used for biomaterials and medical device research