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Gee-Kung Chang

Researcher at Georgia Institute of Technology

Publications -  637
Citations -  11971

Gee-Kung Chang is an academic researcher from Georgia Institute of Technology. The author has contributed to research in topics: Radio over fiber & Wavelength-division multiplexing. The author has an hindex of 49, co-authored 635 publications receiving 10994 citations. Previous affiliations of Gee-Kung Chang include National Chiao Tung University & University of California.

Papers
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Proceedings ArticleDOI

High-Capacity Tier-II Fronthaul Network with SSB-DD Multiband OQAM/QAM-CAP

TL;DR: A 128-Gb/s 20/80-km edge-node compatible mobile fronthaul with single-side-band OQAM-CAP with spectral and computational efficiencies improved by 8% and 50% respectively.
Proceedings ArticleDOI

Converged broadband optical and wireless communication infrastructure for next-generation telehealth

TL;DR: An integrated optical-wireless based network provides super broadband, ultra low-latency connectivity for voice, video, image and data across various telemedicine modalities to facilitate real-time and near real- time communication of remote health care information.
Proceedings Article

Spectrally efficient simultaneous delivery of 112Gbps baseband wireline and 60 GHz MM-wave carrying 10Gbps optical wireless signal in radio-over-fiber WDM-PON access systems

TL;DR: For the first time, a novel scheme to deliver 112Gbps PolMux-RZ-QPSK baseband and 10Gbps optical wireless signals at 60GHz millimeter-wave in downstream links and10Gbps centralized lightwave upstream for the super-broadband radio-over-fiber 100GHz spaced WDM-PON networks.
Journal ArticleDOI

Capped Optical Polymeric Waveguide

TL;DR: In this article, a new type of polymer waveguides (i.e., capped waveguide) fabricated using contact photolithography with considerable performance improvement over the conventional waveguide is presented.
Proceedings ArticleDOI

A novel direct-modulation envelope-detection Pol-Mux MIMO RoF system based on blind equalization techniques

TL;DR: This work demonstrates for the first time a polarization-multiplexed multiple-input multiple-output radio-over-fiber system with direct-modulation and envelope-detection architectures that cancels cross-channel interferences simultaneously without incurring additional overhead.