Graphenea is a private European company (based in Spain) focused on the production of high quality graphene for industrial applications. The company produces single-layer graphene sheets, bi-layer graphene, multi-layer graphene, graphene oxide and other materials - on any substrate the customer provides.
In November 2012 the company launched an online store. In 2015, the company announced plans to construct a new graphene pilot plant in a $2.5 million investment.
The latest graphene news from Graphenea:
Due to graphene's 2D geometry, most of the device applications require graphene to be partially or fully supported by a substrate, which is typically silicon dioxide (SiO2). An important example of a typical graphene structure on SiO2 is the graphene field effect transistor – GFET, a sheet of graphene connected to metal terminals on the planar substrate. The current common understanding is that graphene interacts with SiO2 through weak, long-range van der Waals forces, even though experimental evidence suggests a surprisingly strong interaction between graphene and SiO2 that affects all properties of the device.
Now, a multinational research team from the University of Trento, Italian Space Agency and Fondazione Bruno Kessler in Italy, Graphenea in Spain, Institute of Chemical Engineering Sciences and University of Patras in Greece, and Queen Mary University of London in the UK has shown that surface charges on the oxide are a main factor of strong interaction between graphene and SiO2, paving the way for designing 2D material interaction with a substrate through manipulation of surface charges. Such control of graphene-substrate interactions would facilitate the development of new graphene-based microelectronic devices.
This is a sponsored post by Graphenea
Graphenea recently launched a graphene foundry service – GFAB. The company will manufacture custom circuit designs on graphene wafers up to 6”. The service is aimed at enabling fast device prototyping and accelerating development of new applications, lowering entry barriers to graphene-based solutions.
Graphenea states that in view of the market demands, the offer now includes small batch sizes (1-3 wafers). Lithography masks can be manufactured by Graphenea or provided by the customer. GFAB includes graphene growth, transfer on 4” and 6” wafers, metal contact deposition and lift-off, and graphene lithography with etching.
Graphenea, AMO and Emberion to take part in a bringing graphene short-wave infrared (SWIR) detectors to market
Graphenea, AMO and Emberion have been approved a European Innovation Council Fast Track to Innovation (FTI) project to help bring to market the G-IMAGER, a graphene imager based on graphene-on-wafer technology. The G-Imager is a short-wave infrared (SWIR) detector for applications in semiconductor inspection, sorting systems, spectroscopy hyperspectral imaging and surveillance.
A major obstacle for wider use of SWIR imaging products is the high cost of SWIR detectors, which are currently primarily manufactured with InGaAs technology. The high price is related to the complex manufacturing of InGaAs that also prevents increase of the detector production volumes. Now Graphenea Semiconductor SL, Emberion Oy, and AMO GmbH are tasked with constructing and marketing the G-Imager which will bring the core price down significantly, allowing market volumes to grow substantially.
2018 was a busy year for the graphene industry, and here are our top companies for 2018 - ranked by the number of posts written about them on graphene-info.
While these figures are not of any official status, they do go a certain distance in assessing the market and its major players in 2018.
Graphene to enable next-gen reflective-type displays that operate faster and at much higher resolution than currently possible
A joint collaboration of researchers from SCALE Nanotech, Graphenea and TU Delft have used graphene to make reflective-type displays that operate faster and at much higher resolution than existing technologies.
Displays consume the most power in electronic gadgets. Portable devices like smartphones and VR visors therefore require most of the energy from batteries. As an alternative solution, reflective-type displays (like those in e-book readers) consume much less power, though they cannot deliver video. Reflective displays that offer the specifications of standard technologies (OLED, LCD) do not exist yet, but graphene may open the door to such possibilities.