Rudy Bagheriasl
ITU Recommendation M.2177: Detailed specifications of the satellite radio interfaces of International Mobile Telecommunications-2020 (IMT-2020) approved in 02-2026 and managed by ITU SG4 Satellite services
ITU Standard: M.2150 : Detailed specifications of the terrestrial radio interfaces of International Mobile Telecommunications-2020 (IMT-2020)
ITU-R Recommendations on the IMT family: approved in 2026-02
Managed by ITU SG5 Terrestrial services Systems and networks for fixed, mobile, radiodetermination, amateur and amateur-satellite services.
This document specifies computational procedures for conservative and reproducible computations of the absorbed power density (APD) or epithelial power density, which is a measure to quantify the dissipated electromagnetic power in the human head or body due to exposure to radiofrequency (RF) electromagnetic field (EMF) transmitting devices. The computational procedures described are finite-difference time-domain (FDTD) and finite element methods (FEM), which are used to determine electromagnetic quantities by solving Maxwell's equations. The procedures specified here apply to exposure evaluations for the significant majority of the population during the use of hand-held and body-worn RF transmitting devices with known uncertainty. The methods apply to devices with single or multiple transmitters or antennas that operate with their radiating structure(s) at distances up to 200 mm from the human head or body. This document can be employed to evaluate compliance with applicable APD limits of different types of RF transmitting wireless communication devices used in close proximity to the head and body, with or without RF transmitting or non-transmitting accessories, or of devices embedded in garments. The overall applicable frequency range of the specified protocols and procedures is from 6 GHz to 300 GHz. The categories of wireless communication devices covered in this document include mobile telephones, radio transmitters in personal computers, desktop and laptop devices, and multi-band and multi-antenna devices. The procedures of this document do not apply to APD evaluation of electromagnetic fields emitted or altered by devices or objects intended to be implanted in the body.
This document specifies protocols and test procedures for repeatable and reproducible measurements of the absorbed power density (APD) that provide conservative estimates of the exposure of the human head or body to radio-frequency (RF) electromagnetic fields (EMF) emitted by wireless communication devices, with a specified measurement uncertainty. These protocols and procedures apply to the evaluation of the exposure of the significant majority of the population during the use of hand-held and body-worn RF transmitting wireless communication devices. The methods apply to devices, with single or multiple transmitters or antennas, that operate with their radiating structure(s) at distances up to 200 mm from the human head or body. The methods of this document can be used to evaluate compliance with applicable APD limits of different types of RF transmitting wireless communication devices used in close proximity to the head and body, with or without RF transmitting or non-transmitting accessories, or of devices embedded in garments. The overall applicable frequency range of the specified protocols and procedures is from 6 GHz to 300 GHz. The categories of wireless communication devices covered in this document include mobile telephones, radio transmitters in personal computers, desktop and laptop devices, and multi-band and multi-antenna devices. The procedures of this document do not apply to APD evaluation of electromagnetic fields emitted or altered by devices or objects intended to be implanted in the body.
The sectors of Digital Twins, Virtual Worlds/Citiverse, IoT and Data Spaces are fragmented, especially the uneven uptake of NGSI‑LD, Smart Data Models/SAREF and governance models creates a barrier for cross‑domain interoperability in cities. Therefore, I focus on harmonising these layers within ITU‑T Citiverse and EU Local Digital Twin (LDT) Toolbox. I also contribute to aligning LDT and Data Space governance with UNE 0087:2025 and the Gaia‑X Trust Framework to operationalise sovereignty, compliance and automated conformance. Moreover, I contribute to mapping LDT/MIM8, NGSI‑LD, SIMPL and Citiverse deliverables to speed deployment and avoid duplicate or conflicting specs.
In my fellowship i have been working to support the challenge of native integration of AI in the context of communication networks. While much success has been achieved in addressing network use cases with intelligent technologies, this has predominantly been applied in a case by case basis, with resulting outputs added to the networks in an ad-hoc way. Instead, AI-native networks are envisioned to accommodate the ubiquitous and native deployment of AI-based solutions in the network.
Through the work of the ITU-T Focus Group on AI-Native Networks, I contributed to the elaboration of use case, and associated requirements. I have also been supporting on the analysis of relevant key technologies that are required to realise the requirements derived from the use cases.
This fellowship supported my work in updating to the IEEE 802.11 standard to prevent a recently discovered security weakness. This weakness is related to mesh networks, where, without extra defenses, an adversary could inject arbitrary packets into protected mesh networks. We designed a defense to mitigate this challenging gap. Unique about our created defense is that it is fully backward compatible, meaning each individual mesh client can independently enable this defense. As a proof-of-concept, we also implemented this defense in the Linux kernel to demonstrate practicality and confirm it prevents attacks.
This was a one-shot contribution to provide travel support for participation to the Internet Engineering Task Force (IETF), and specifically participation at the July 2025 plenary meeting in Madrid. I attended this meeting as an Internet Transport expert contributing work and progressing standards to support the evolution of the Internet and its support for enhanced resilience, authentication and privacy. An in-person attendance at the technical sessions also allowed me to progress the work for which I am an editor: Qlog draft-ietf-tsvwg-careful-resume-qlog, a transport specification based on the “qlog” specification being developed by the IETF QUIC; and a recent work item in the IETF Congestion Control working group, “Increase of the Congestion Window when the Sender Is Rate-Limited” (draft-ietf-ccwg-ratelimited-increase). In-person participation at this meeting is particularly important in my current role as an Area Director of the WIT Area, where I will help organise and oversee the meeting as a whole and specifically support the WIT area WG chairs in organising WG sessions and supporting cross area review of emerging specifications.
5G brings the need to support different kinds of UEs (e.g., for the Internet of Things (IoT), services, and technologies is driving the technology revolution to a high-performance and highly efficient 3GPP system. The drivers include IoT, Virtual Reality (VR), industrial control, ubiquitous on-demand coverage, as well as the opportunity to meet customized market needs. These drivers require enhancements to the devices, services, and technologies well established by 3GPP. The key objective with the 5G system is to be able to support new deployment scenarios across diverse market segments.
The present document specifies the protocol conformance testing for the 3GPP UE connecting to the 5G System (5GS) via its radio interface(s). The following information can be found in the present document (first part of a multi-part test specification): - the overall test structure; - the test configurations; - the conformance requirement and references to the core specifications; - the test purposes; and - a brief description of the test procedure, the specific test requirements and short message exchange table. The applicability of the individual test cases is specified in the ICS proforma specification (3GPP TS 38.523-2 [2]). The Test Suites are specified in part 3 (3GPP TS 38.523-3 [3]). The present document is valid for UE implemented according to 3GPP Releases starting from Release 15 up to the Release indicated on the cover page of the present document.