Institute of Multimedia Telecommunications
Research expertise


The activities of multimedia group

Areas of expertise:

  • Video compression: AVC, SVC, MVC, HEVC, 3D
  • 3D video creation and processing: depth estimation, view synthesis, free-viewpoint video
  • Video processing: surveillance applications.
  • Video watermarking
  • Audio compression and processing: low-bitrate coding, USAC, spatial audio etc.
  • Video and audio codec implementations - software and hardware (FPGA etc.)
  • Digital television, interactive television, free-view tv
  • IP cores development, FPGA programming, Design for FPGA
  • Immersive video coding (MPEG-I, MIV) and objective quality metrics (IV-PSNR, IV-SSIM)
  • Video Coding for Machines (VCM) and Artificial Neural Network-based video compression
  • Edge-AI systems for visual surveillance (e.g., early wildfire smoke detection)

International standardization activities in multimedia:

  • ~80 contributions to MPEG (ISO) and JVT / JCT-VC / JCT-3V (ISO + ITU).
  • Our scalable video codec was ranked within three the best codecs in MPEG March 2004 contest for scalable coding (the other codecs were from HHI Berlin and MS Research Asia)
  • Organization of the 73rd MPEG and 16th JVT Meetings in Poznań (July 2005) – first meeting in Central Europe
  • Proposal to USAC – SBR extension (Audio group, 2010)
  • Improvements to Depth Estimation Reference Software
  • We have been ranked among two the best proponents worldwide - for 3D HEVC-based video codec – November 2011
  • Major contributions to the MPEG Immersive Video (MIV) standard (ISO/IEC 23090-12), including Test Models (TMIV) and Decoder-Side Depth Estimation (DSDE) profile
  • Contributions to Video Coding for Machines (VCM) and Video-based Point Cloud Compression (V-PCC)
  • Development of IV-PSNR and IV-SSIM – official objective quality metrics adopted by MPEG for immersive video

Examples of major research achievements with practical implications:

The activities of telecommunication systems group

Areas of expertise:

  • Design and analysis of True Random Number Generators (TRNGs) and Physical Unclonable Functions (PUFs) for FPGAs
  • Synchronization algorithms for high-stability oscillators (e.g., rubidium) and GNSS signals
  • Wireless communications and 5G: spectrum sensing, cognitive radio, and indoor positioning in 5G-Advanced
  • Machine learning applications for signal processing, anomaly detection, and IoT (e.g., bioimpedance-based plant monitoring)
  • Lossless image compression techniques (predictor blending, mixed Huffman codes)

Examples of major research achievements with practical implications:

  • Development of computationally efficient wideband spectrum sensing algorithms utilizing Cumulative Distribution Function and Machine Learning
  • Design of fast synchronization algorithms for high-stability oscillators using Sliding Mode Control and Kalman Filters
  • Development of an online platform for testing and evaluating random number generators

The activities of electronic systems group

Areas of expertise:

  • Stochastic modeling of Electromagnetic (EM) wave propagation in 5G and Ultra-Wideband (UWB) channels
  • Application of Polynomial Chaos Expansion (PCE) for uncertainty quantification in ray-tracing and wireless telecommunication systems
  • Modeling, simulation, and analysis of 5G-band patch antennas using Artificial Neural Networks
  • Analysis and time/frequency domain simulations of multiconductor transmission lines with frequency-dependent parameters
  • Methods of electronic circuit analysis and design

Examples of major research achievements with practical implications:

  • Development of fast stochastic ray-tracing methods for 5G Vehicle-to-Vehicle (V2V) communications
  • Advanced numerical stochastic simulations of UWB EM wave propagation on convex obstacles