Abdul Quddious

Provide technical consulting and engineering support across RF, microwave, and antenna development, from initial concept and EM simulation through prototyping, measurement, verification, and technical documentation. • Design and optimize antennas, RF/microwave components, RFID and Wireless Power Transfer systems • Perform electromagnetic and circuit simulation using CST Studio Suite, Ansys HFSS and Keysight ADS • Develop and evaluate rectennas, passive microwave structures and reconfigurable RF devices • S

Worked on advanced RF, microwave, and antenna development for aerospace, satellite, sensing, and Body Area Network applications. • Designed and optimized miniaturized, low-profile, and wearable UWB antennas for radar-based silent-speech sensing in collaboration with an industrial aerospace partner • Developed a compact dual-polarized active retrodirective Van Atta antenna array for Sentinel-1 satellite tracking, achieving an effective RCS of approximately 20 m² • Developed an IR-UWB Body Area Network, incl

Co-founded and led an RF engineering start-up focused on antennas, RFID, wireless sensing, RF/microwave systems, and Wireless Power Transfer, combining technical development with project and business leadership. • Led technical strategy and R&D activities across antenna, RFID, and RF energy-harvesting systems • Served as Principal Investigator for the funded RFLiD – Flying RFID Reader for Enhanced Range and Near-Zero Shadowing project, securing approximately €100K in pre-seed funding • Contributed to the d

Worked on the European Commission Horizon 2020 FET Open GLADIATOR project, developing RF-enabled wearable and implantable systems for biomedical applications. • Designed miniaturized and reconfigurable antennas, including a head-wearable antenna array for RF stimulation and communication with implantable devices • Investigated simultaneous wireless power transfer and data communication between external wearable systems and multimodal implants • Performed full-wave EM modelling and optimization using CST St

Contributed to European Space Agency (ESA)-funded research on high-precision antenna array modelling and optimization for space-related applications. • Developed mathematical models for discrete circular antenna array synthesis and optimization • Built MATLAB-based tools for automated element tapering, array characterization and performance analysis • Investigated radiation patterns, element excitation, array factors and beamforming optimization • Supported performance evaluation and technical analysis of

• Designed and optimized a compact dual-band UHF/ISM rectenna for Wireless Power Transfer and RF energy-harvesting applications • Performed antenna, rectifier and RF/microwave simulations using Ansys HFSS, CST Studio Suite and Keysight ADS • Fabricated and assembled RF prototypes using photolithography and PCB milling techniques • Carried out RF characterization and validation using VNAs, signal generators and spectrum analyzers • Investigated simultaneous wireless information and power transfer (SWIPT) con

PhD research focused on reconfigurable RF/microwave devices, UWB antennas, Body Area Networks, and Wireless Power Transfer. • Developed dynamically reconfigurable antennas and RF/microwave devices for wireless communication and sensing applications • Designed and optimized rectifiers and rectennas for RF energy harvesting and WPT • Investigated UWB/WBAN antennas, microwave filters and passive/reconfigurable RF structures • Performed full-wave EM simulation using CST Studio Suite and Ansys HFSS, together wi

Project: Implantable and Wearable Metamaterial Antennas for Biomedical Applications • Designed and optimized metamaterial-inspired implantable and wearable antennas for biomedical RF applications • Investigated antenna miniaturization, impedance matching, radiation performance and tissue interaction • Performed on-body and in-phantom RF measurements to evaluate antenna performance under realistic conditions • Conducted Specific Absorption Rate (SAR) analysis to assess electromagnetic exposure and safety co

• Designed and optimized an ultra-compact, high-efficiency UHF rectenna for geolocation-tag and passive wireless applications • Developed RF energy-harvesting solutions for low-power and battery-free wireless devices • Supported the full development cycle including EM simulation, design optimization, prototype fabrication, RF measurement and validation

Taught undergraduate courses in Electromagnetic Theory, Electronics and Digital Signal Processing laboratories. • Supervised laboratory exercises and engineering projects. • Mentored undergraduate students in electrical and electronics engineering.

• Supported RF/microwave component and antenna development. • Worked on antenna characterization, metamaterial structures and RF sensing concepts. • Performed experimental validation using Vector Network Analyzers, microwave test equipment and anechoic-chamber measurements. • Conducted RF measurement analysis and comparison of experimental and simulated performance.

Specialization: Applied Electromagnetics, RF & Microwave Engineering Thesis: “Dynamically Reconfigurable Devices for UWB and WBAN Wireless Power Transfer Applications Using Advanced Electromagnetic Methods” Research areas included: Antenna design | Reconfigurable RF devices | UWB | WBAN | Wirele

Specialization: RF & Microwave Engineering Thesis: Inkjet-Printed Sensor Integrated with RFID Research included RFID antennas, passive wireless sensing, printed RF structures, and electromagnetic characterization.

Study, Analysis and Implementation of Automatic Speaker Recognition as a Natural User Interface Application