HENNING BÜLOW is a distinguished member of technical staff in the Optical Networks Department at Bell Labs in Stuttgart, Germany. He received his Dipl.-Ing. degree in electrical engineering from the University of Dortmund,Germany, and a Ph.D. in electrical engineering from the University of Berlin for work on integrated optical switching matrices. During his two decades tenure with Alcatel-Lucent Bell Labs and formerly with its Research and Innovation Division, he has worked on erbium-doped fiber amplifiers, on the assessment transmission in the presence of polarization mode dispersion, on dynamic mitigation of transmission impairments by analog electronic, digital, or optical signal processing means, on coded modulation for coherent systems, and on mode multiplexing. He has authored or co-authored more than 130 conference and journal contributions, written three book chapters, and was member of technical program committee of the Optical Fiber Communication Conference and Exposition (OFC). From 2008 to 2011 he served as Guest Professor with the University of Erlangen-Nuremberg.
Henning Buelow
Stuttgart, Germany
Biography
Selected Articles and Publications
DCI Field Trial demonstrating 1.3-Tb/s Single-Channel and 50.8-Tb/s WDM Transmission Capacity
1.2Tbit/s Single Channel and 45Tbit/s WDM Field Transmission
400 Gbps Dual-Polarization Non-linear Frequency-Division Multiplexed Transmission with b-Modulation
Experimental Demonstration of Dual-polarisation NFDM Transmission with b-Modulation
5×510 Gbps Single-Polarization Direct-Detection WDM Transmission over 80 km of SSMF
Flexible IM/DD Beyond Bandwidth Limitation for Data Center Optical Interconnects
Efficient Precoding Scheme for Dual-Polarization Multi-Soliton Spectral Amplitude Modulation
Beyond 400 Gb/s Direct Detection over 80km for Data Center Interconnect Applications
Dual-polarisation Non-linear Frequency-division Multiplexed Transmission with b-Modulation
On the Time-Bandwidth Product of Multi-Soliton Pulses
Simulation and Experimental Demonstration of an IM-DD System Enabled by End-to-End Deep Learning
50 Gb/s PAM-4 Transmission over 80-km SSMF without Chromatic Dispersion Compensation
End-to-end Deep Learning of Optical Fiber Communications
Mutual Information of a Propagating Second Order Soliton
1.6Tbps WDM Direct Detection Transmission with Virtual-Carrier over 1200km
1.6Tbps WDM Direct Detection Transmission with Virtual-Carrier over 1200km
1.6 Tbps Virtual-Carrier Assisted WDM Direct Detection Transmission over 1200 km
Nonlinear Frequency Division Multiplexing: Fundamentals and Implementation in Lab
Applying Neural Networks in Optical Communication Systems: Possible Pitfalls
Duobinary IQ Modulation Schemes for C- and O-band PAM4 Direct Detect Systems
8×256Gbps Virtual-Carrier Assisted WDM Direct-Detection Transmission over a Single Span of 200km
Nonlinear signal multiplexing for communication beyond the Kerr nonlinearity limit
Nonlinear Frequency Division Multiplexed Transmissions with 64QAM
Transmit Filter Optimization for Improved Performance of Time-Frequency Packing System
Demonstration of 64×0.5Gbaud nonlinear frequency division multiplexed transmission with 32QAM
1.72 Tbs Virtual-Carrier Assisted WDM Direct-Detection Transmission over 200km
High Speed Pre-Compensated Nonlinear Frequency-Division Multiplexed Transmissions
Experimental Demo of Nonlinear Frequency Division Multiplexed Transmission
Nonlinear Fourier Transformation Based Coherent Detection Scheme of Discrete Spectrum
Mutual Information of Discrete Nonlinear Spectrum
Does the Cross-Talk Between Nonlinear Modes Limit the Performance of NFDM Systems?
Inter-Channel Crosstalk Compensation for Time-Frequency Packing Systems
Inter-Channel Crosstalk Cancellation for WDM Time-Frequency Packing System
Modulation of the Nonlinear Spectrum in Experiment
On Pulse Duration, Bandwidth and Spectral Efficiency of Second and Third Order Soliton Pulses
Modulation over Nonlinear Spectrum: Continuous and Discrete Spectrum
Flexible edge cloud data transport
Beyond 400 Gb/s Direct Detection over 80km for DCI Applications
Combating the Kerr-Nonlinearity Limit with Nonlinear Signal Multiplexing
Beyond Conventional Kerr-Nonlinearity Limit with Nonlinear Frequency Division Multiplexing