Postdoctoral fellowWireless communications

I NyomanAprazRamatryana.

Designing reliable access for 6G-scale networks—from jamming-resilient grant-free transmission and RSMA-ALOHA to cell-free massive MIMO and compressive sensing.

LinkedIn profile photo of Dr. I Nyoman Apraz Ramatryana
Postdoctoral Fellow / IEEE Senior Member01
FocusMassive access and resilient wireless systems
Massive Random AccessRSMA / NOMANextG RAN / Cell-Free MIMOResilient Grant-Free Access
01Profile

Postdoctoral fellow / lecturer / IEEE Senior Member

Making crowded networks work better.

Dr. Ramatryana is a Postdoctoral Fellow at Khalifa University in Abu Dhabi and a Lecturer in Electrical Engineering at Universitas Nahdlatul Ulama Yogyakarta.

His work asks how future radio networks can support massive, heterogeneous traffic without giving up throughput, reliability, energy efficiency, or fair access.

His research spans wireless communications, signal processing, artificial intelligence, NextG random and multiple access, and NextG radio access networks. He received his Ph.D. in Wireless Communications from Kumoh National Institute of Technology in 2023 and became an IEEE Senior Member in 2025.

Current

Postdoctoral Fellow

Khalifa University · Abu Dhabi, UAE

Wireless and emerging network systems, including resilient grant-free transmissions.

Current

Lecturer, Electrical Engineering

Universitas Nahdlatul Ulama Yogyakarta · Indonesia

Teaching and research across wireless communications, signal processing, and intelligent systems.

2025–2026

Postdoctoral Researcher

Dublin City University · Ireland

NOMA-enabled radio-over-fiber fronthaul and resource allocation for cell-free massive MIMO.

2023–2024

Postdoctoral Researcher

FAU Erlangen–Nürnberg · Germany

Digital communications research, teaching support, and student supervision at the Institute for Digital Communications.

01Model
02Simulate
03Validate
02Research atlas

Where the work connects

Signals, access, intelligence.

From waveform and access-protocol design to fronthaul and network-wide resource allocation, the work connects physical-layer ideas with deployable system goals.

Real-world 6G applications connected through distributed antennas: an autonomous car, factory robots, a sensing drone, a healthcare wearable, and smart-energy infrastructure
Visual study 01One network fabric for mobility, industry, health, energy, and sensing.

Original editorial illustration

01

Massive Random Access for Future IoT

Cross-layer random-access design for dense machine-type networks, including adaptive traffic load, prioritized access, and throughput analysis.

  • Massive IoT
  • Random access
  • Traffic-load adaptation
02

RSMA, NOMA & 6G Multiple Access

Rate-splitting and non-orthogonal multiple-access methods for overloaded uplinks, spanning slotted ALOHA, coded access, and vortex-wave communications.

  • RSMA
  • NOMA
  • Slotted ALOHA
03

NextG RAN, Cell-Free MIMO & RoF

Next-generation radio access and radio-over-fiber fronthaul for distributed cell-free massive MIMO, including low-complexity radio and optical resource allocation.

  • NextG RAN
  • CF mMIMO
  • Radio-over-fiber
04

Wireless Signal & Image Processing

Sparse reconstruction and compressive sensing for communications and medical imaging, alongside modulation and signal-space designs for efficient transmission.

  • Compressive sensing
  • Medical imaging
  • Signal processing
05Current research

Secure & Resilient Grant-Free Access

Jamming-resilient grant-free transmission and secure IoT connectivity for networks that must remain dependable under contention and interference.

  • Grant-free access
  • Anti-jamming
  • Secure IoT
Real-world compressive sensing applications: retinal examination, MRI reconstruction, wireless spectrum monitoring, and drone-based agricultural imaging
Visual study 02Sparse data, real-world impact: medicine, spectrum, and remote sensing.

Original editorial illustration

03LinkedIn focus

LinkedIn profile / public professional snapshot

A research practice, pictured.

View current LinkedIn profile

LinkedIn foregrounds a wireless-communications career connecting Asia, Europe, and the Middle East—from doctoral training in Korea and academic work in Indonesia to postdoctoral research in Germany and Ireland, followed by current research at Khalifa University in Abu Dhabi.

Current affiliationKhalifa University

Abu Dhabi, United Arab Emirates

Professional identityPh.D. in Wireless Communications

Senior Member, IEEE / wireless communications researcher

Professional network1K+ followers

500+ connections on the public LinkedIn profile

Visible research conversation6G-ready wireless systems

RSMA/NOMA-ALOHA, resilient networks, telecom AI, and wireless timing

04Selected work

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