microfluidic sensors for analyte detection

Additional Info

  • Overview:

    HYSENS Grant




    Co-ordinator          Dr. Daniela IacopinoTyndall National Institute, University College Cork, Ireland
    Academic:  Tyndall National Institute–University College Cork, University of Basel, University of Bologna, University of Birmingham,
    University of Valencia and Technical University of Munich.
    Industrial:  Cellix Ltd, Scriba Nanotechnologie SRLMildendo Gesellschaft fuer Mikrofluidische Systeme MBH.
    Funding Body EU Commission
    Grant Type Small scale collaborative project (FP7)
    Date 1 April 2011 - 31 March 2014
    Total Grant Amount €3,000,000
    Keywords Hybrid molecule nanocrystal assemblies; Photonic sensing; Electronic sensing;
    Contact This email address is being protected from spambots. You need JavaScript enabled to view it. or phone +353-1-4500-155
    Project Website www.hysens.eu
    Project Fact Sheet HYSENS Fact Sheet
    Cellix's contribution to HYSENS grant:
    Cellix is involved in the integration of new sensors into microfluidic biochips and their industrial validation.  The sensors being developed by the consortium are a novel class of hybrid nanostructures using inorganic nanocrystals and organic functional molecules for the detection of Group I, II, transition metal cations and anions in water and artificial serum for applications in clinical diagnostics and water testing.  The following videos explain the concept of how the different sensors are integrated into microfluidic biochips and how they will be used:
    Overall Project Aims:
    Functional organic molecules and metal and semiconductor nanocrystals represent attractive building blocks due to the composition-, size- and structure-dependent electronic properties, and the ability to design and manipulate these properties via low-cost and established chemical synthesis.  Building from the pressing need of the European market to develop novel, scalable and cheaper technologies for sensing applications, the main objective of the HYSENS project is to exploit inexpensive organic functional molecules and inorganic nanocrystals as building blocks to synthesize novel high-knowledge materials for the development of sensors for Group I, II transition metal cations and anions (Cl-, NO3-).  The hybrid material intelligence resulting from the engineered combination of individual units will allow the execution of logic functions able to reduce false sensing outputs towards the development of sensors with enhanced selectivity and sensitivity.  Our goal is to elucidate the mechanisms governing the optical and electrical response of such engineered hybrid materials arising from the interaction between the organic functional molecule component and the inorganic nanocrystal core component.  Establishment of component-function relationships will lead to disruptive new knowledge that will impact on optical and electrical sensors technologies.
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