dr. M. Spirito
Electronics Research Laboratory (ELCA), Department of Microelectronics
Expertise: (Sub)mm-wave electronics, mm-wave characterization, calibration, (Sub)mm-wave sensing systemsThemes: XG - Next Generation Sensing and Communication
Marco Spirito (S’01-M’08) received the M.Sc. degree (cum laude) in electrical engineering from the University of Naples “Federico II,” Naples, Italy, in 2000, and the Ph.D. degree from the Delft University of Technology, Delft, The Netherlands, in 2006. From 2000 to 2001, he was a guest at Infineon Technologies, Munich, Germany. In 2006, he joined the department of Electronics and Telecommunications Engineering, University of Naples “Federico II.” In April 2008 he joined the Electronics Research Laboratory at the Delft University of Technology as an Assistant Professor, where he is an Associate Professor since April 2013. His research interests include the characterization of highly efficient and linear power amplifiers, the development of advanced characterization setups for millimeter and sub-millimeter waves, and the integration of mm-wave sensing systems. Dr. Spirito was the recipient of the Best Student Paper Award for his contribution to the 2002 IEEE Bipolar/BiCMOS Circuits and Technology Meeting (BCTM) he received the IEEE MTT Society Microwave Prize in 2008, was a co-recipient of the best student paper award at IEEE RFIC 2011, and the GAAS Association Student Fellowship in 2012.
Currently, my research focuses on the development of measurement techniques and test-benches, on the definition and implementation of novel system concepts and the improved calibration methods to reach the required performance in (sub)mm-wave frequency range. The investigation on measurement techniques starts with the implementation of novel high performance test-benches and develops into the realization of accurate measurements allowing to extract the key parameters of innovative device or sub-systems under test. The realization of unique tools (software and hardware) provides strategic know-how and infrastructures which enable the evaluation and further improvement of the system/device under test. Calibration techniques are the needed “recipes” to improve the characterization accuracy and/or provide new insight in the object under test.
Working on system level definition, calibration algorithms, and component level design allows me to effectively interact with complementary fields and colleagues, i.e., antenna and EM experts, device modelling specialists and circuit designers. Through an active co-operation, leveraging their skills, I am involved in the design, implementation and characterization of higher complexity systems operating at the frontier of high-frequency technologies.
EE4605 Integrated Circuits and Systems for Wireless Applications
Design and analysis of typical RF IC building blocks in a wireless transceiver
ET4600 Fundamentals for RF / Wireless Design
Matching techniques for active devices (BJTs & FETS) to reach optimum gain, noise, linearity and efficiency
WAtt LEvel transmitters at mm-waves
The WhALE project targets, employing complementary expertise in the field of electromagnetics, system integration and integrated circuit design, to develop the next generation of mmwave transmitters.
STW Take-off phase1: High gamma vector network analysis
HΓ-VNA targets the implementation of a new measurement technique, enabling accurate characterization of electronic devices as well as biological and organic materials, which share the common characteristic of presenting extreme loading condition in the RF/Microwave frequency range.
Integrated Near Field sensOrs for high Resolution MicrowavE spectRoscopy
The goal of this project is the creation of a new class of sensors, enabling fast and accurate dielectric characterization of biological samples, with high-sensitivity and high-spatial resolution.
Non-Galvanic Contactless Connectors for Power and Data Transfer
The WiCon project will provide low-cost, highly-integrated system solutions for galvanic connectors replacement in the consumer and industrial market segments.
THz silicon-integrated camera for low-cost imaging applications
Develop a real-time multi pixel passive radiometer, operating between 0.1 THz and 1THz, integrated in a silicon based technology, with temperature resolution better than 1K
Metrology for optical and RF communication systems
To develop traceable methods for RF power and MIMO antenna measurements and cost-effective metrological solutions for smart, adaptive, reconfigurable and wearable antennas.
DOTSEVEN is a very ambitious 3.5 year R&D project targeting the development of silicon germanium (SiGe) heterojunction bipolar transistor (HBT) technologies with cut-off frequencies (fmax) up to 700 GHz.
From RF to MMW and THz silicon SoC technologies
Silicon technology platforms for emerging RF, millimetre-wave and THz consumer applications.
Last updated: 25 Sep 2017