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Peter Magill

Researcher at AT&T Labs

Publications -  83
Citations -  2474

Peter Magill is an academic researcher from AT&T Labs. The author has contributed to research in topics: Wavelength-division multiplexing & Polarization mode dispersion. The author has an hindex of 31, co-authored 83 publications receiving 2375 citations. Previous affiliations of Peter Magill include University of Delaware.

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Journal ArticleDOI

64-Tb/s, 8 b/s/Hz, PDM-36QAM Transmission Over 320 km Using Both Pre- and Post-Transmission Digital Signal Processing

TL;DR: In this paper, the authors report the successful transmission of 64 Tb/s capacity (640 ×107 Gb/S with 12.5 GHz channel spacing) over 320 km reach utilizing 8-THz of spectrum in the C+L -bands at a net spectral efficiency of 8 bit/s/Hz.
Journal ArticleDOI

High Spectral Efficiency 400 Gb/s Transmission Using PDM Time-Domain Hybrid 32–64 QAM and Training-Assisted Carrier Recovery

TL;DR: In this article, the authors reported the successful transmission of ten 494.85 Gbit/s DWDM signals on the standard 50 GHz ITU-T grid over 32 × 100 km of ultra-large-area (ULA) fiber.
Proceedings ArticleDOI

Bandwidth on demand for inter-data center communication

TL;DR: How a Globally Reconfigurable Intelligent Photonic Network (GRIPhoN) between data centers could improve operational flexibility for cloud service providers is discussed.
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Architectures and Protocols for Capacity Efficient, Highly Dynamic and Highly Resilient Core Networks [Invited]

TL;DR: This paper addresses the major innovations developed in Phase 1 of the program by the team led by Telcordia and AT&T with the ultimate goal to transfer the technology to commercial and government networks for deployment in the next few years.
Journal ArticleDOI

Rate-adaptable optics for next generation long-haul transport networks

TL;DR: By using link-length demands from an exemplary distance-diverse network, it is demonstrated that time-domain hybrid-QAM-enabled fine-grain rate-adaptable transponders can reduce network cost by more than 20 percent within a traditional, fixed-bandwidth, wavelength-division-multiplexed grid.