The Hungarian Intellectual Property Office granted the Hungarian patent describing the silicon based Microantennas and the plasmatransistors which can be fabricated in economical mass production. The specialty of these antenna geometries and circuits are that their sensitivity is extremely high, moreover their bandwidth is tunable. The inventor, Dr Péter Földesy, a research advisor at SZTAKI has defended his academic doctoral thesis in this topic last year.

A mobile phone contains numerous sensors, which can perform tricky measurements. The results of these measurements can be used in exciting applications either in the real or in the virtual world. Important target field of these apps is the health monitoring, fitness, and the corresponding physiological measurements. In this application area, SZTAKI has developed a non-contact pulse monitoring system that can measure the heart rate of a human or an animal with a single camera.
With more than 500 participants coming from many continents, the World Congress of the International Measurement Confederation (IMEKO), already in its 22nd year, concluded successfully in Belfast, United Kingdom, where Hungary was represented by our two colleagues Dr. Zsolt János Viharos, senior research fellow of the Research Laboratory on Engineering and Management Intelligence of the MTA SZTAKI and Ákos Zarándy, head of the Computational Optical Sensing and Processing Laboratory, who was elected to be an IMEKO member.
A workgroup of the EU-Japan H2020 VISION (Validation of Integrated Safety-enhanced Intelligent flight cONtrol) project aims to increase safety in case of the possible performance degradation of automatic landing systems (GNSS or ILS) by integrating vision based information.
Based on its previous Hungarian Patent submission, MTA SZTAKI has submitted an international (PCT) patent for its fluorescent-holographic microscope. The invention combines fluorescent microscopy with digital holographic microscopy technology.

In November  2016, as a result of a cooperation between the Computational Optical Sensing and Processing Laboratory and the Pázmány Péter Catholic University, a vision based speed measurement sensor chip has been sent to fabrication, as we reported it back then. In early March, Austria MicroSystems sent us the 44 pin sensor chips, which were produced using a 0,35 um CMOS technology. In our laboratory, we designed an FPGA based measurement environment, which performs the control and image capture aspects of the system.

As a result of the research in the Computational Optical Sensing and Processing Laboratory in cooperation with the Pázmány Péter Catholic University, a custom image sensor chip have been developed, for vision based vehicle velocity measurement.