Politecnico di Torino logo

David Orlando Rodriguez Duarte

David Orlando Rodriguez Duarte's picture

Fixed-term assistant professor
Department of Electronics and Telecommunications (DET)

  • Member of Interdepartmental Center PolitoBIOMed Lab - Biomedical Engineering Lab

Profile

Keywords

Antennas and propagation
Applied electromagnetics
Microwave imaging

Biography

He works toward a Ph.D. degree with the Department of Electronics and Telecommunications at Politecnico di Torino (Italy), with the applied electromagnetics group. He is currently a Marie Sklodowska-Curie Fellow involved in the modeling and designing microwave imaging systems for cerebrovascular diseases as part of the European project EMERALD. His research interest includes antenna design and microwave imaging systems for medical applications.

Scientific branch

IINF-02/A - Electromagnetic Fields
(Area 0009 - Industrial and information engineering)

Skills

ERC sectors

PE7_6 - Communication technology, high-frequency technology
PE7_11 - Components and systems for applications (in e.g. medicine, biology, environment)
PE7_3 - Simulation engineering and modelling

SDG

Goal 3: Good health and well-being

Open badges

Research networks

  • EMERALD (2018-2021). Partecipazione

Teaching

Collegi of the degree programmes

Teachings

Master of Science

MostraNascondi A.A. passati

Bachelor of Science

MostraNascondi A.A. passati

Research

Supervised PhD students

  • Francesco Ardo'. Programme in Ingegneria Elettrica, Elettronica E Delle Comunicazioni (41st cycle, 2026-in progress)
  • Alex Ramiro Masaquiza Caiza. Programme in Ingegneria Elettrica, Elettronica E Delle Comunicazioni (40th cycle, 2024-in progress)
    Research subject: Brain medical microwave imaging
    Antennas, electromagnetic devices, propagation and radars
    Biomedical devices and applications
    Computational Electromagnetics (CEM) and EM simulation
  • Martina Gugliermino. Programme in Ingegneria Elettrica, Elettronica E Delle Comunicazioni (39th cycle, 2023-in progress)
    Research subject: EM field study in medicine: material characterization for phantoms and stroke monitoring algorithms.
    Antennas, electromagnetic devices, propagation and radars
    Biomedical devices and applications

Other activities and projects related to research

Applied electromagnetics for microwave sensing, imaging, and bio-integrated systems. This research line focuses on the development of electromagnetic methods, devices, and measurement strategies for sensing, imaging, and monitoring complex lossy media, including biological tissues, biomimicking materials, agro-industrial samples, plants, and biohybrid systems.

The activity combines antenna and microwave device design, near-field measurements, dielectric characterization, S-parameter calibration, numerical modeling, and inverse-scattering methods. Particular attention is given to the design of robust and experimentally validated microwave systems capable of operating in realistic scenarios, where the target under investigation is heterogeneous, dispersive, lossy, and often only partially known.

In the biomedical field, this research includes microwave sensing and imaging approaches for medical applications, with emphasis on brain monitoring and stroke follow-up. The objective is to exploit the dielectric contrast between healthy and pathological tissues to develop non-ionizing, portable, and potentially low-cost technologies that can complement existing diagnostic and monitoring tools.

In the agro-industrial and environmental fields, the research explores microwave-based sensing strategies for monitoring materials, biological samples, and complex organic media. These activities are oriented toward non-invasive characterization, quality control, process monitoring, and sustainable sensing solutions.

A growing part of this research line focuses on bio-integrated electromagnetic systems and living antennas. This direction investigates how living organisms and biological structures, such as plants, can be integrated with electromagnetic and bioelectronic interfaces to act as sensing, communicating, or responsive elements. The long-term vision is to develop natural technology integration strategies in which living systems are not only monitored by external devices but become active components of distributed sensing and communication platforms.

Overall, the research aims to connect applied electromagnetics, microwave engineering, biomedical sensing, agro-industrial monitoring, and bio-integrated technologies into a unified framework for sensing and interacting with complex living and non-living systems.

Publications

Publications by type

PoliTO co-authors

Latest publications View all publications in Porto@Iris

More publicationsLess publications