doc. Ing. Zdeněk Slanina, Ph.D.
Lab Administrator
Signal Lab has long focused on the research and development of advanced signal processing methods, with an emphasis on their practical implementation in technical and biomedical applications. The laboratory’s research activities are systematically built upon a continuous line of projects that gradually expands both the methodological foundation and the range of applications for the tasks being addressed.
Signal Lab thus represents an interdisciplinary research center connecting the fields of signal processing, artificial intelligence, optimization methods, and applied engineering. The laboratory’s outputs have the potential for direct application in industry, energy, autonomous systems, and medical technologies.
The lab focuses on advanced AI and sensing technologies for healthcare and biomedical applications. It supports research and innovation in smarter diagnostics, patient monitoring, and precision medicine.
Together with experts from the University of Texas at Arlington, we are working on the development of sophisticated methods of sleep apnea diagnosis and severity level estimation.
We build AI-based monitoring tools for neonatal care, including for infants with HIE. Advanced signal processing techniques eliminate motion artifacts, providing clearer and more accurate real-time data.
Patented fetal ECG technologies, as well as a proprietary simulation platform, are driving innovation in fetal monitoring for a safer, more reliable experience for expectant mothers. Our research is leading to the early detection of fetal heart abnormalities, giving mothers peace of mind.
We, in collaboration with animal healthcare specialists in Brno, are developing smart sensing technology for precise monitoring of vital parameters and cardiac activity in animals. Intelligent algorithms assist in minimizing motion artifacts.
We leverage large-scale medical imaging datasets to develop advanced CAD and CADx tools across neurology, oncology, gynecology, urology, and musculoskeletal imaging. Our solutions enhance diagnostic accuracy, support clinical workflows, and enable data-driven decision-making in radiology.
Our patented system is capable of monitoring cardiorespiratory activities in patients during MRI examinations even in harsh electromagnetic environments. This makes MRI examinations more efficient and comfortable for patients.
The research area of cardiovascular and respiratory adaptation in extreme environments using intelligent garments and pneumatic ballistocardiography can be used for both space missions and clinical cardiology.
We develop diffusion-based synthetic data generation pipelines and AI models for diagnosis classification from medical documentation. Our expertise spans edge computing, federated learning, and foundation models, supported by scalable infrastructure ranging from high-performance workstations (including multi-GPU setups such as NVIDIA RTX 6000 Ada Generation GPU systems and NVIDIA DGX systems) to edge AI deployments.
Used within the lab’s signal processing and intelligent sensing workflows for experimental diagnostics and monitoring.
Supports advanced signal processing, communication experiments, and prototyping of applied engineering scenarios.
Applicable to advanced imaging workflows across medical, technical, and AI-assisted diagnostic scenarios.
Supports laboratory prototyping and research workflows across intelligent sensing, instrumentation, and applied engineering.
Suitable for precise experimental diagnostics in advanced signal processing and applied engineering tasks.
This latter was a remarkably large and beautiful animal, entirely black, and sagacious to an astonishing degree. In speaking of his intelligence, my wife, who at heart was not a little intelligence, my wife, who at heart was not a little..
Recording the actual state of the material and actively regulating the straightening process to minimize scrap in sheet metal production.
A pioneering biotechnological experiment designed to test nano and micro robots for the eradication of bacterial biofilms under microgravity conditions aboard the ISS.
Enhancing feto-maternal care through advanced technology: the PROTECT dataset, PROTECT Fusion system for computer-aided detection, and the PROTECT clinical study.
AI-based visual inspection solution for detecting wear of manufacturing tools in hydrogen pressure vessel production.
Lab Administrator
Lab Leader