EXPORNET-IVACE

January 31st 2021:

AWSensors was granted with the EXPORNET aid, managed by IVACE, Generalitat Valenciana, Spain, for the improvement of its Digital Marketing.

Advanced Waves Sensors S.L. (AWSensors) ha sido beneficiaria del Fondo Europeo de Desarrollo Regional (FEDER) dentro del Program Operativo FEDER de la Comunitat Valenciana 2014-2020  cuyo objetivo es mejorar la competitividad de las PYMES valencianas. El programa de asesoramiento en materia de internacionalización del Cheque Tutorías Inernacionalización para el ejercicio 2021, gestionado por el IVACE, en el que participará AWSensors este año es el de Marketing Digital Internacional (EXPORNET). El programa EXPORNET consiste en un asesoramiento especializado en posicionamiento internacional, a través del uso de Internet como herramienta comercial de ámbito internacional, mediante el diseño de un plan de marketing digital.

 


 

X4 QCMD System

X4 Launching

January 19th 2021: X4 launching

AWSensors is pleased to announce the launching of its new Advanced Multichannel QCMD system, the X4 Instrument, which allows the users to boost their productivity.

X4 Instrument


Visit X4 launching Landing-page

Learn more about this new instrument in its landing page.

Publication on AWSensors technology

Charge Storage Properties of Nanostructured Poly (3,4–ethylenedioxythiophene) Electrodes Revealed by Advanced Electrogravimetry

Authors: Tao Lé, David Aradilla, Gérard Bidan, Florence Billon, Catherine Debiemme-Chouvy, Hubert Perrot, and Ozlem Sel

Journal: Nanomaterials, 2019

European Flag

Internacionalización de AWSensors

25 de noviembre del 2020: Advanced Waves Sensors S.L. (AWSensors) ha sido beneficiaria del Fondo Europeo de Desarrollo Regional cuyo objetivo es mejorar la competitividad de las Pymes y gracias al cual ha puesto en marcha un Plan de Internacionalización con el objetivo de mejorar su posicionamiento competitivo en el exterior durante el año 2020. Para ello ha contado con el apoyo del Programa XPANDE DIGITAL 2019 de la Cámara de Comercio de Valencia.

 


 

QCMD in Lipid Research

QCMD in Lipid Research Tech Note

October 15th 2020: AWSensors is pleased to invite you to take a look to its Technology Note entitled “QCMD in Lipid Research”.

Summary of the Note

QCMD is a label-free surface-analytical technique based on a quartz resonator excited to oscillate at its resonance frequency on one or more overtones. Resonators can have various coatings: gold (Au), silica (SiO2), titania (TiO2), etc. It works in aqueous media or organic solvents and is therefore widely used for studying solid/liquid interfaces. At each overtone, QCMD measures changes in the resonance frequency and energy dissipation due to the processes occurring at the resonator surface. Examples of such processes include formation of a film or changes in the geometrical or physical properties of the film.

The key feature that makes QCMD useful in lipid research is its ability to distinguish between different geometries and topologies of lipidic assemblies at interfaces, for example, homogenous solid-supported bilayers or monolayers vs. adsorbed liposomes or other structures (such as cubosomes) without relying on fluorescent or deuterated labels but by relying on the combination of the frequency and dissipation.

QCMD in Lipid Research

Introduction

Lipid-related QCMD work can be grouped into several topics, with a total of more than a thousand publications:
• Studies focusing on the interactions between lipids and surfaces.
• Studies focusing on the properties of the lipids, such as their phase behavior, adsorbed liposome deformation, etc.
• Studies examining interactions between lipids and membrane-binding proteins, peptides or viruses. Particularly interesting is that QCMD offers a way to study clustering of membrane-bound proteins.
• Studies focusing on the interactions of lipids with polymers or with nanoparticles.

 

Continue reading by downloading the full Technology Note (below) …


Download the Full Technology Note

You can download the full Note in pdf format through this link. A list of our Technology Notes can be found on our Technology Web Page.

Publication on AWSensors technology

Making Advanced Electrogravimetry as an Affordable Analytical Tool for Battery Interface Characterization

Authors: Pierre Lemaire, Thomas Dargon, Daniel Alves Dalla Corte, Ozlem Sel, Hubert Perrot, and Jean-Marie Tarascon

Journal: Anal. Chem., 2020

Publication on AWSensors technology

Liposomes Embedded in Layer by Layer Constructs as Simplistic Exosome Transfer Model

Authors: Gerardo Prieto, Vicente Domínguez-Arca, Rui R. Costa, Ana M. Carvalho, Pablo Taboada, Rui L. Reis, Iva Pashkuleva

Journal: Research Square, 2020

Publication on AWSensors technology

High Fundamental Frequency (HFF) Monolithic Resonator Arrays for Biosensing Applications: Design, Simulations, Experimental Characterization

Authors: Román Fernández; María Calero; Ilya Reviakine; José Vicente García; María Isabel Rocha-Gaso; Antonio Arnau; Yolanda Jiménez

Journal: IEEE Sensors Journal, 2020

Tracking Recovery

Tracking Recovery Technology Note

September 15th 2020: AWSensors is pleased to invite you to take a look to its new Technology Note entitled “Tracking Recovery Technology Note”.

Summary of the Note

Use of the AWSensors X1 Instrument Tracking Recover feature to monitor overtones frequency and dissipation shifts of air-to-liquid medium exchanges onto 5 MHz QCM sensors.

Tracking Recovery

Introduction

The Tracking Recovery feature included in AWSensors X1 platform allows the user to monitor large and fast frequency shifts in QCM (Quartz Crystal Microbalance) admittance spectrum. These sudden modifications in the sensor response are common is some applications where dramatical changes in the viscoelastic properties of the sensor surrounding medium take place.

This technical note illustrates the utility of tracking recovery feature to characterize an air-to-liquid medium exchange. According to Kanazawa and Gordon theory predictions [1], a complex frequency shift is expected in the sensor electromechanical response when the semi-infinite medium placed over the QCM’s top electrode is replaced by other semi-infinite medium. This shift will depend on the viscosity and density properties of the final medium. Following, Kanazawa-Gordon equation is presented for both the frequency (Eq. 1) and the half-bandwidth (Eq. 2) shifts.

Continue reading by downloading the full Technology Note (below) …


Download the Full Technology Note

You can download the full Note in pdf format through this link. A list of our Technology Notes can be found on our Technology Web Page.