Publications

S. Dörner, S. Cammerer, J. Hoydis, und S. ten Brink. Deep Learning Based Communication Over the Air. IEEE Journal of Selected Topics in Signal Processing, (12)1:132-143, Februar 2018. [PUMA: myown network;over-the-air;software-defined software-defined from:sdnr transmissions;open-source (artificial systems;block-based module;transmitter transmission;receiver implementations;deep computing;two-step nets;radio intelligence);neural libraries;continuous learning;communications learning;end-to-end rate;over-the-air synchronization;frame error transmissions;receiver deep neural software synchronization data learning;modulation;neural learning libraries;software radio implementations;off-the-shelf networks;NNs;block procedure;end-to-end radio;synchronisation;telecommunication radios;Training;Receivers;Communication networks;Hardware;Transmitters;Synchronization;Autoencoder;communication;deep receivers;software systems;Artificial]

Daniel Groß, Heiner Früh, Daniel Contreras, Krzysztof Rudion, Linda Rupp, und Christian Lakenbrink. Evaluation of a Three-Phase Distribution System State Estimation for Operational Use in a Real Medium Voltage Grid. September 2019. [PUMA: data distribution error estimation measurement measurements medium meter placement pseudo real state system three-phase voltage] URL

T. Richter. Effective Visual Masking Techniques in JPEG2000. Data Compression Conference, 2008. DCC 2008, 540-540, März 2008. [PUMA: Gaussian;JPEG2000;Visual Masking allocation;visual coding;Mean coding;Visual coding;mean compression;Distortion compression;image compression;mean data error error;rate evaluation;Signal masking;Data measurement;Humans;Image measurement;Transform methods;JPEG2000;image methods;Performance resolution;Size square system;Generalized] URL

Thomas Richter. Effective Visual Masking Techniques in JPEG2000. Image Processing, 2008. ICIP 2008. 15th IEEE International Conference on, 2876-2879, San Diego, CA, Oktober 2008. [PUMA: Gaussian;JPEG2000;Visual Masking SSIM algorithm;multi-scale algorithm;statistical algorithm;wavelet allocation coding;Image coding;Visual coding;wavelet complexity compression compression;image data data;weighting error image index;rate masking masks;Codecs;Frequency;Humans;Image methods;Rate-distortion;Transform model;visual quality;Image quality;visual reconstruction;Mean square standard;low system;Generalized transforms;JPEG2000] URL

T. Richter. Effective Visual Masking Techniques in JPEG2000. Data Compression Conference, 2008. DCC 2008, 540-540, März 2008. [PUMA: Gaussian;JPEG2000;Visual Masking allocation;visual coding;Mean coding;Visual coding;mean compression;Distortion compression;image compression;mean data error error;rate evaluation;Signal masking;Data measurement;Humans;Image measurement;Transform methods;JPEG2000;image methods;Performance resolution;Size square system;Generalized] URL

Thomas Richter. Effective Visual Masking Techniques in JPEG2000. Image Processing, 2008. ICIP 2008. 15th IEEE International Conference on, 2876-2879, San Diego, CA, Oktober 2008. [PUMA: Gaussian;JPEG2000;Visual Masking SSIM algorithm;multi-scale algorithm;statistical algorithm;wavelet allocation coding;Image coding;Visual coding;wavelet complexity compression compression;image data data;weighting error image index;rate masking masks;Codecs;Frequency;Humans;Image methods;Rate-distortion;Transform model;visual quality;Image quality;visual reconstruction;Mean square standard;low system;Generalized transforms;JPEG2000] URL