The transversability of nanoscience is reflected in a high range of its applications in material´s science.

nanoGUNE is proud to be part of one of the ETP Nanomedicine (ETPN), an initiative led by industry since 2005 and set up together with the European Commission, to address the application of nanotechnology in healthcare. 

nanoGUNE is proud to be part of the AFM Cluster, the organisation that represents advanced and digital manufacturing interests in Spain.

NanoGUNE has joined the Technological Vouchers program launched by Fomento San Sebastián with three vouchers.

CIC nanoGUNE and the Astilleros Balenciaga shipyard have joined forces to establish that the heat-based forming process applied to marine-grade steel, used to build medium-sized vessels, does not exert a negative effect on the microstructure of the material.

The Nanoengineering Group at nanoGUNE has developed a new technology that allows for non-invasive and continuous monitoring of physiological risks of babies during labour in real time. The technology helps obstetricians take fast decisions, and hence, reduce the worldwide increasing number of cesareans.

CIC nanoGUNE, the Nanoscience Cooperative Research Center, and CIKATEK, the R&D&i unit of CIKAUTXO, are working together to obtain rubber with high added-value by applying nanotechnology.

GraphenePioneer has won the first Global Graphene Call which aims to drive forward business projects relating to graphene. GraphenePioneer sets out to impact on society with the production of as yet unknown graphene-based materials.

The nanomaterials group in nanoGUNE, led by Mato Knez, has developed a new technology called SCIP that allows an improvement of the mechanical properties of polymers. The technology can be directly applied to functionalize textile, opening new perspectives in product development in the sports/fashion or personal protection sector.

Atomic layer deposition (ALD) is a technique used to deposit very thin layers of material in coatings to improve a given physical property or the mechanical properties of a material. This technology is very versatile and useful, but it has been found that the design of chambers for ALD processes, generally oriented to 2D substrates, e.g. silicon wafers as used in microelectronics, does not allow the deposition on complex shaped substrates that may have large sizes or non-geometric shapes (e.g. implants, fibers, and metallurgical parts).