Since the beginning of this century, QSense QCM-D has been used to study viruses and virus-interaction with their immediate surrounding. Here we give examples of virus-related research where QCM-D technology has been used.
QCM-D, which is a surface-sensitive technology, has been used to explore and characterize various aspects of biological systems for more than two decades.1-3 The time-resolved information of mass change at the surface can be used to study biomolecular interactions such as surface-protein, lipid-protein and protein-protein interactions, Fig. 1, and reveal, for example, interaction patterns as a function of molecules, surface and solvent conditions.
An area where such information is useful is in virus-related research. In this field, QCM-D technology has been used to shed light on several different aspects of virus behavior and interaction with the surrounding. Over the years, a vast range of viruses have been studied, for example Norovirus, Poxvirus, Rotavirus, Herpesvirus, Ebola, Hepatitis C and Zika virus.

Figure 1. Schematic illustration of how the QCM-D response can be used to reveal biomolecular interactions such as (top panel) (A) adsorption, (B) binding and (C) enzymatic action. The Δf and ΔD data (bottom panel) reflect time-resolved mass uptake and layer softness respectively and can also be used to quantify the layer thickness.
QCM-D analysis is used in both basic and applied research. The aim could for example be to gain increased knowledge and to get a fundamental understanding of virus behavior and interaction patterns in a certain context. In more applied work, the aim could for example be to develop antiviral therapies.
In the overview below, we have compiled a list of examples of virus-related publications where QCM-D technology has been used. Download the overview to learn more
Learn what dissipation in QCM-D reveals about the softness, hydration, and viscoelastic properties of surface-bound layers.
Learn how QSense QCM-D analyzes adsorption, fouling, PFAS interactions, microplastics and biofilms at environmental interfaces.
Analyze surfactant-surface interactions with QSense QCM-D in real time to reveal adsorption dynamics, layer properties and rinse stability.
Learn how QSense QCM-D characterizes polyelectrolyte multilayer build-up and the resulting film’s thickness, softness and growth mode.
Read about how molecule-surface interaction processes and binding can be characterized by QCM-D via time-resolved measurements of mass and thickness.
Learn how QCM-D studies reveal PFAS–sorbent interactions and guide sorbent design for more sustainable PFAS treatment.
QSense QCM-D reveals lipid bilayer formation and hydrated model membrane structures that can be difficult to capture with other methods.
QSense QCM-D reveals in real time how thin films degrade and are removed, from cleaning and detergency to corrosion, etching and degradable coatings.
Learn how QSense QCM‑D reveals time‑resolved reagent–mineral interactions, linking surface chemistry to flotation performance in mineral processing.