Combined study

4 years

prof. Ing. Valentine Provazník, Ph.D.

Chairman :
prof. Ing. Valentine Provazník, Ph.D.
Councillor internal :
doc. Ing. Radim Kolář, Ph.D.
doc. Ing. Jana Kolářová, Ph.D.
doc. Ing. Daniel Schwarz, Ph.D.
Councillor external :
Prof. José Millet Roig
prof. Mgr. Jiří Damborský, Dr.
prof. MUDr. Marie Nováková, Ph.D.
prof. Ewaryst Tkacz, Ph.D.,D.Sc.
prof. Pharm.Dr. Petr Babula, Ph.D.
prof. Dr. Marcin Grzegorzek

The doctoral studies of a student follow the Individual Study Plan (ISP), which is defined by the supervisor and the student at the beginning of the study period. The ISP is obligatory for the student, and specifies all duties being consistent with the Study and Examination Rules of BUT, which the student must successfully fulfill by the end of the study period. The duties are distributed throughout the whole study period, scored by credits/points and checked in defined dates. The current point evaluation of all activities of the student is summarized in the “Total point rating of doctoral student” document and is part of the ISP. At the beginning of the next study year the supervisor highlights eventual changes in ISP. By October, 15 of each study year the student submits the printed and signed ISP to Science Department of the faculty to check and archive.
Within mainly the first four semesters the student passes the exams of compulsory, optional-specialized and/or optional-general courses to fulfill the score limit in Study area, and concurrently the student significantly deals with the study and analysis of the knowledge specific for the field defined by the dissertation thesis theme and also continuously deals with publishing these observations and own results. In the follow-up semesters the student focuses already more to the research and development that is linked to the dissertation thesis topic and to publishing the reached results and compilation of the dissertation thesis.
By the end of the second year of studies the student passes the Doctor State Exam, where the student proves the wide overview and deep knowledge in the field linked to the dissertation thesis topic. The student must apply for this exam by April, 30 in the second year of studies. Before the Doctor State Exam the student must successfully pass the exam from English language course.
In the third and fourth year of studies the student deals with the required research activities, publishes the reached results and compiles the dissertation thesis. As part of the study duties is also completing a study period at an abroad institution or participation on an international research project with results being published or presented in abroad or another form of direct participation of the student on an international cooperation activity, which must be proved by the date of submitting the dissertation thesis.
By the end of the winter term in the fourth year of study the full-time students submit the elaborated dissertation thesis to the supervisor, who scores this elaborate. The combined students submit the elaborated dissertation thesis by the end of winter term in the fifth year of study. The final dissertation thesis is expected to be submitted by the student by the end of the fourth or fifth year of the full-time or combined study form, respectively.
In full-time study form, during the study period the student is obliged to pass a pedagogical practice, i.e. participate in the education process. The participation of the student in the pedagogical activities is part of his/her research preparations. By the pedagogical practice the student gains experience in passing the knowledge and improves the presentation skills. The pedagogical practice load (exercises, laboratories, project supervision etc.) of the student is specified by the head of the department based on the agreement with the student’s supervisor. The duty of pedagogical practice does not apply to students-payers and combined study program students. The involvement of the student in the education process within the pedagogical practice is confirmed by the supervisor in the Information System of the university.

3. round (applications submitted from 01.12.2024 to 15.12.2024)

1. AI-Driven Human Exome Analysis in Clinical Data

   Exome analysis has become a cornerstone of clinical genomics, enabling the identification of rare and common genetic variants linked to diseases. Despite advances in sequencing technologies, the challenge lies in integrating computational methodologies to interpret exome data with precision. This includes leveraging heuristic algorithms and artificial intelligence (AI) to analyze data efficiently and improve variant annotation. One promising application is the calculation of the PSI (Percent Spliced-In) coefficient, critical for understanding alternative splicing in disease-related genes. This work focuses on developing an AI-based pipeline for analyzing human exomes in clinical datasets. The research will involve the design of heuristic algorithms optimized for calculating PSI coefficients, which quantify alternative splicing patterns in genes of clinical interest. The project's main objectives are: 1. To develop and validate a heuristic-algorithm-based method for PSI computation. 2. To integrate AI for enhanced variant interpretation, focusing on alternative splicing. 3. To identify clinically actionable splicing variants linked to complex diseases. 4. To deploy the pipeline within clinical genomics settings, enabling personalized therapeutic strategies. The project will be solved mainly at the Department of Biomedical Engineering. However, cooperation with our national partner University Hospital Ostrava is expected. PhD students will complete a six-month internship at attractive partner universities abroad. UBMI provides doctoral students with a stipend and/or a part-time contract beyond the state stipend.

   Tutor: Provazník Valentine, prof. Ing., Ph.D.

2. Bioreactor optimization for cultivation of thermophiles

   White biotechnology, i.e. a technology that uses living cells to produce value added chemicals, usually loses the competition with standard petrochemical production due to higher financial costs. The reason can be found in the need to protect these processes against contamination. This inefficiency could be reduced by using naturally robust organisms, so called extremophiles. However, these organisms are not so well studied, partly also because of the lack of instrumentation for extremophilic cultivation on a small scale in laboratory bioreactors. The topic is focused on developing a small laboratory bioreactor especially suited for thermophilic cultivations. Large industrial processes usually generate waste heat that is unfavourable for mesophiles and needs to be reduced for them to proliferate. On the other hand, this environment is naturally suitable for extremophiles, particularly thermophiles. Unlike large scale processes, small scale lab cultivation does not produce waste heat, therefore, the heat has to be added for successful cultivation and research of thermophiles. Such experiments are needed to develop novel concepts as the Next-Generation Industrial Biotechnology concept that relies on the use of naturally robust organisms. Unfortunately, small bioreactors designed for thermophilic cultivations are currently missing. The aim of the research is to develop novel hardware for cultivations of bacterial thermophiles and its software control for various cultivation modes. A wide range of currently available parts will be used rather than building the reactor up from scratch. Platforms like Chi.Bio can be used as a base for it presents an open system orchestrated through Arduino and programmable in Python. Thus, it offers almost unlimited possibilities for bioreactor augmentation. The project will be solved mainly at the Department of Biomedical Engineering. However, cooperation with our national (University Hospital Brno, the Faculty of Chemistry BUT, and Czech Collection of Microorganisms) and foreign partners (Ludwig-Maximilians-Universität München in Germany and HES-SO Valais-Wallis in Switzerland) is expected. PhD students will complete a six-month internship at attractive partner universities abroad. UBMI provides doctoral students with a stipend and/or a part-time contract beyond the state stipend when joining a grant project or engaging in teaching.

   Tutor: Sedlář Karel, doc. Mgr. Ing., Ph.D.

3. Computational Polygenic Risk Score Models for Sudden Cardiac Arrest in Central European Populations

   Sudden cardiac arrest (SCA) is a leading cause of mortality, with a complex interplay of genetic and environmental factors contributing to its risk. Polygenic Risk Scores (PRS) are emerging as vital tools for assessing genetic susceptibility to SCA. However, existing PRS models often fail to account for the unique genetic makeup of geographically and ethnically homogeneous populations, such as the Central European population. This work aims to design and validate a PRS model tailored to the Central European population, utilizing large-scale genomic datasets from collaboration with University Hospital Ostrava. The research will integrate genomic data with AI-based statistical modeling techniques to identify genetic variants most predictive of SCA. Key objectives include: 1. Development of a computational pipeline for PRS calculation incorporating population-specific allele frequencies. 2. Application of machine learning techniques to optimize variant weighting within the PRS framework. 3. Validation of the PRS model on Central European cohorts to ensure predictive accuracy. 4. Exploration of gene-environment interactions and their influence on SCA risk. The project will be solved mainly at the Department of Biomedical Engineering. However, cooperation with our national partner University Hospital Ostrava is expected. PhD students will complete a six-month internship at attractive partner universities abroad. UBMI provides doctoral students with a stipend and/or a part-time contract beyond the state stipend.

   Tutor: Provazník Valentine, prof. Ing., Ph.D.

4. New approaches in computational analyses of bacterial communities for biotechnology

   Thanks to their diversity, non-model bacteria represent an inexhaustible resource for microbial biotechnology. While tools, including the computational ones, to study pure bacterial cultures are developed to at least a certain point, their counterparts for analysis of mixed cultures are underdeveloped or completely missing. This prevent us to further study biotechnological capacity of bacterial consortia to produce value added chemicals. The topic is focused on computational methods for a comprehensive analysis of microbial consortia in order to reveal their functional capacity for industrial biotechnology and production of value added chemicals, primarily bioplastics. While particular tools for taxonomic profiling based on amplicon sequencing and metagenome analysis based on shotgun sequencing exist, they are oriented to perform descriptive rather than functional analysis. This provides only limited use for biotechnology research where the emphasis is put on function. This is partly caused also by the lack of tools oriented on processing of bacterial metatranscriptomes. Finally, there is an absolute lack of tools to connect potential functional capacity inferred from a metagenome with running biological processes measured with metatranscriptomics and metabonomics approaches. The aim of the research is to set up comprehensive computational pipeline to analyse diversity of a selected mixed bacterial culture, to set up a metagenome of this community, and to match its observed behaviour through analyses of other omics data revealing running biological and metabolic processes. The pipeline will include specific steps to process short NGS as well as long TGS reads to cover all currently used sequencing technologies. The project will be solved mainly at the Department of Biomedical Engineering. However, cooperation with our national (University Hospital Brno, the Faculty of Chemistry BUT, and Czech Collection of Microorganisms) and foreign partners (Ludwig-Maximilians-Universität München in Germany and HES-SO Valais-Wallis in Switzerland) is expected. PhD students will complete a six-month internship at attractive partner universities abroad. UBMI provides doctoral students with a stipend and/or a part-time contract beyond the state stipend when joining a grant project or engaging in teaching.

   Tutor: Sedlář Karel, doc. Mgr. Ing., Ph.D.

5. New approaches in recruiting bacterial genomes from metagenomes

   Recent advances in DNA sequencing allowed routine sequencing of environmental samples. However, current computational tools hardly keep up with constantly changing lab techniques and the growing output of sequencing devices. Therefore, novel computationally efficient techniques are needed to recruit particular genomes from metagenomes. The topic is focused on methods for recruiting particular bacterial genomes from environmental samples, i.e., metagenomes. While in the past all newly described bacteria had to be isolated and their culture had to be made publicly available, a recent initiative SeqCode brought a nomenclatural code for prokaryotes described directly from sequence data as many microbial species are uncultivable with current techniques. Moreover, even for newly published cultured bacteria, environmental evidence based on searching in publicly available metagenomes is nowadays required by scientific journals. Although tools to produce metagenome-assembled genomes exist, searching metagenomes for particular analysed genomes is done exclusively with BLAST and is not rigorously described. Unfortunately, due to the repetitive segments of bacterial genomes, false hits are always found and quantification of data, i.e., assuming an abundance of a genome in a metagenome, is therefore biased. The aim of the research is to find a method for quantification as precise as possible. The applied method will include specific steps to process short NGS as well as long TGS reads to cover all currently used sequencing technologies. The project will be solved mainly at the Department of Biomedical Engineering. However, cooperation with our national (University Hospital Brno, the Faculty of Chemistry BUT, and Czech Collection of Microorganisms) and foreign partners (Ludwig-Maximilians-Universität München in Germany and HES-SO Valais-Wallis in Switzerland) is expected. PhD students will complete a six-month internship at attractive partner universities abroad. UBMI provides doctoral students with a stipend and/or a part-time contract beyond the state stipend when joining a grant project or engaging in teaching. PhD students will complete a six-month internship at attractive partner universities abroad. UBMI provides doctoral students with a stipend and/or a part-time contract beyond the state stipend when joining a grant project or engaging in teaching.

   Tutor: Sedlář Karel, doc. Mgr. Ing., Ph.D.

2. round (applications submitted from 01.07.2024 to 15.07.2024)

1. Advanced methods for MRI image analysis to improve image clarity and disease diagnosis

   Magnetic resonance imaging is nowadays becoming an increasingly accessible and progressive modality, often replacing previous diagnostic standards, and often becoming the first-choice examination. Consequently, the amount of data acquired by this modality is also increasing and thus the time requirements for its analysis by medical experts are higher. Supporting diagnostic tools then provide medical experts with an easier and more accurate view of the captured data, making it easier to work with it and offering the possibility of automated supporting diagnostics. Specifically, this can include the co-registration of contrast scans at different stages, automated segmentation of areas or pathologies, and their analysis in relation to the current diagnosis or prognosis. The topic focuses on the development, implementation and validation of advanced image processing techniques involving deep learning methods. The student will be work with data from MR modality, such as MRI of breast or brain tumors (gliomas), where the main task is to provide data pre-processing, extraction of parametric maps from multiphase or perfusion scans, analysis of the resulting parameters, and correct interpretation of the resulting relationships to the current diagnosis or prognosis. At the initial stage, however, this requires a thorough study of the issues, research and familiarization with the data and their pre-processing. As part of their studies, doctoral students complete several month-long internships at attractive partner universities abroad. UBMI provides doctoral students with a stipend and/or part-time in addition to the state stipend when participating in a grant project or participating in teaching.

   Tutor: Jakubíček Roman, Ing., Ph.D.

2. Advanced methods of medical image analysis in modern CT scanners

   The topic will aim to development of advanced image processing and analysis methods involving machine learning and deep learning approaches with a scope for multiparametric images acquired by multilayer CT detectors. The student will focus on the development, implementation and validation of preprocessing, segmentation, detection, classification, and prediction tasks considering the character of multiparametric images. The proposed complex computer-aided diagnostic tool will help increase diagnostic accuracy and reproducibility, speed of the examinations and decrease the inter-/intra-expert variability and routine workload. The topic will be solved at the Department of Biomedical Engineering. However, cooperation with our external partners is expected – national clinical institutions (FN Brno, VFN Prague, FNUSA/ICRC Brno) and foreign institutions (IRST IRCCS Meldola Italy, Philips Healthcare Netherlands, DKFZ Heidelberg Germany), allowing clinical evaluation of the results and their discussion with medical experts. As part of their studies, doctoral students complete several month-long internships at attractive partner universities abroad. UBMI provides doctoral students with a stipend and/or part-time in addition to the state stipend when participating in a grant project or participating in teaching.

   Tutor: Chmelík Jiří, Ing., Ph.D.

3. Bioreactor optimization for cultivation of thermophiles

   White biotechnology, i.e. a technology that uses living cells to produce value added chemicals, usually loses the competition with standard petrochemical production due to higher financial costs. The reason can be found in the need to protect these processes against contamination. This inefficiency could be reduced by using naturally robust organisms, so called extremophiles. However, these organisms are not so well studied, partly also because of the lack of instrumentation for extremophilic cultivation on a small scale in laboratory bioreactors. The topic is focused on developing a small laboratory bioreactor especially suited for thermophilic cultivations. Large industrial processes usually generate waste heat that is unfavourable for mesophiles and needs to be reduced for them to proliferate. On the other hand, this environment is naturally suitable for extremophiles, particularly thermophiles. Unlike large scale processes, small scale lab cultivation does not produce waste heat, therefore, the heat has to be added for successful cultivation and research of thermophiles. Such experiments are needed to develop novel concepts as the Next-Generation Industrial Biotechnology concept that relies on the use of naturally robust organisms. Unfortunately, small bioreactors designed for thermophilic cultivations are currently missing. The aim of the research is to develop novel hardware for cultivations of bacterial thermophiles and its software control for various cultivation modes. A wide range of currently available parts will be used rather than building the reactor up from scratch. Platforms like Chi.Bio can be used as a base for it presents an open system orchestrated through Arduino and programmable in Python. Thus, it offers almost unlimited possibilities for bioreactor augmentation. The project will be solved mainly at the Department of Biomedical Engineering. However, cooperation with our national (University Hospital Brno, the Faculty of Chemistry BUT, and Czech Collection of Microorganisms) and foreign partners (Ludwig-Maximilians-Universität München in Germany and HES-SO Valais-Wallis in Switzerland) is expected. PhD students will complete a six-month internship at attractive partner universities abroad. UBMI provides doctoral students with a stipend and/or a part-time contract beyond the state stipend when joining a grant project or engaging in teaching.

   Tutor: Sedlář Karel, doc. Mgr. Ing., Ph.D.

4. Development of a MRSI method with fast radial acquisition including data analysis for dynamic proton and X-nuclei studies in preclinical settings

   Magnetic resonance spectroscopic imaging (MRSI) combines the principles of MR imaging and MR spectroscopy into a technique capable of producing spatial maps of the concentration of specific molecules in humans or animals. While its clinical use is still limited by the existing technical and economic parameters, it aids medical and pharmacological research by providing spatially, temporally and biochemically specific data of the processes occurring in healthy, diseased and treated living tissues. Animal models, widely and successfully used in such studies, pose specific challenges, such as low signal-to-noise, anesthesia, fast breathing and high cardiac rate, but also give an opportunity for drug prototype testing or metabolic studies, using not only native 1H or 31P signals, but also 13C, 19F, or 2H signals from labeled substrates undergoing metabolic conversion. Such measurements can be time-consuming or suffer from artifacts, impacting both research economics and biological applicability. The student is expected to develop technical improvements of the current MRSI technique for ultra-high-field preclinical MR scanners. A Bruker Biospec 94/30 Avance III USR scanner equipped for mouse and rat imaging and supported by a qualified team will be available locally. Specifically, the objectives will be: - O1: Develop a method of preclinical radial golden-angle spectroscopic imaging of the brain with sliding time-window metabolic-image reconstruction, which will allow real-time monitoring and retrospective adjustment of temporal versus spatial resolution and retrospective gating, using compressed-sensing and deep-learning approaches to image reconstruction. - O2: Evaluate the method of O1 in 1H- and X-nucleus settings, implement a scheme of proton-based navigation/reference scan acquisition for retrospective gating of MRSI signals and k-trajectory recording. - O3: Explore the applicability of these methods in surface-coil excitation and detection settings, with a proton cryoprobe and 2H surface coil. - O4: Develop an approach to error estimation in metabolic images obtained by the techniques described above.

   Tutor: Starčuk jr. Zenon

5. New approaches in computational analyses of bacterial communities for biotechnology

   Thanks to their diversity, non-model bacteria represent an inexhaustible resource for microbial biotechnology. While tools, including the computational ones, to study pure bacterial cultures are developed to at least a certain point, their counterparts for analysis of mixed cultures are underdeveloped or completely missing. This prevent us to further study biotechnological capacity of bacterial consortia to produce value added chemicals. The topic is focused on computational methods for a comprehensive analysis of microbial consortia in order to reveal their functional capacity for industrial biotechnology and production of value added chemicals, primarily bioplastics. While particular tools for taxonomic profiling based on amplicon sequencing and metagenome analysis based on shotgun sequencing exist, they are oriented to perform descriptive rather than functional analysis. This provides only limited use for biotechnology research where the emphasis is put on function. This is partly caused also by the lack of tools oriented on processing of bacterial metatranscriptomes. Finally, there is an absolute lack of tools to connect potential functional capacity inferred from a metagenome with running biological processes measured with metatranscriptomics and metabonomics approaches. The aim of the research is to set up comprehensive computational pipeline to analyse diversity of a selected mixed bacterial culture, to set up a metagenome of this community, and to match its observed behaviour through analyses of other omics data revealing running biological and metabolic processes. The pipeline will include specific steps to process short NGS as well as long TGS reads to cover all currently used sequencing technologies. The project will be solved mainly at the Department of Biomedical Engineering. However, cooperation with our national (University Hospital Brno, the Faculty of Chemistry BUT, and Czech Collection of Microorganisms) and foreign partners (Ludwig-Maximilians-Universität München in Germany and HES-SO Valais-Wallis in Switzerland) is expected. PhD students will complete a six-month internship at attractive partner universities abroad. UBMI provides doctoral students with a stipend and/or a part-time contract beyond the state stipend when joining a grant project or engaging in teaching.

   Tutor: Sedlář Karel, doc. Mgr. Ing., Ph.D.

6. New methods for studying skin layers in drug application and tissue regeneration

   Examination and accurate qualification of skin and subcutaneous layers during their regeneration is a very topical biomedical problem. This problem is also related to the qualification of tissue properties at different depths for the analysis of stability or degradation of transplants and implants in regenerative medicine. The research topic focuses on the development and testing of a methodology for trans endodermal delivery of different types of drugs (labelled nanoparticles, liposomes, exosomes or other particles) through model and real skin layers. The Ph.D. student will primarily conduct research in the biology laboratory and will focus on the establishment of model skin epithelial cultures and the application of laboratory procedures, trans-epithelial/endothelial electrical resistivity methods, and confocal fluorescence microscopy techniques to test the model layer and analyze drug transfer across the model layer in in-vivo experiments. It will also involve the use of assistive techniques (e.g. optical coherence tomography) to test transfers to real skin in in-vivo experiments in animal models. The PhD student will be involved in interdisciplinary research in a project that involves working with endothelial and epithelial cells, creating cell monolayers and multilayers including model layer testing, testing and application of advanced drugs, and using advanced instrumentation and methodologies to acquire and interpret imaging data and further analyze it. The topic is provided in collaboration with the Research Facility of the The Veterinary Research Institute (VRI). As part of their studies, doctoral students complete several month-long internships at attractive partner universities abroad. UBMI provides doctoral students with a stipend and/or part-time in addition to the state stipend when participating in a grant project or participating in teaching.

   Tutor: Čmiel Vratislav, Ing., Ph.D.

1. round (applications submitted from 01.04.2024 to 30.04.2024)

1. Computational detection of small RNAs in bacterial genomes

   Thanks to their diversity, non-model bacteria represent an inexhaustible resource for microbial biotechnology. Their utilization is only limited by our lack of knowledge regarding the regulation of processes they are capable to perform. The particular problem lies in non-coding regulators, mainly small RNAs (sRNAs), that are not so widely studied as coding genes. During the last years, sRNAs were shown to play important regulatory roles in diverse cellular processes by participating in post-transcriptional regulation of gene expression. This is the reason why sRNAs are drawing more attention than ever before. The topic is focused on methods for computational inference of sRNA genes from bulk RNA-Seq datasets. While a plethora of specialized techniques for sRNA experimental identification exists, e.g., GRIL-Seq, RIP-Seq, RIL-Seq, their use in non-model bacteria is limited for their technical complexity. On the other hand, even standard RNA-Seq contains information on non-coding elements, including sRNAs, that can be mined by a computational approach. Unfortunately, current computational tools for sRNA inference does not match current standards in data processing. They require definition of threshold for detection that is dependent on sequencing depth and errors. Thus, they are not widely applicable for various sequencing platforms and libraries. The aim of the research is to find a method for sRNA inference without setting any additional parameters. Instead, the method will build upon thorough analysis of input dataset in order to make the detection independent of a sequencing library and platform. The applied method will include specific steps to process short NGS as well as long TGS reads to cover all currently used sequencing technologies. The project will be solved mainly at the Department of Biomedical Engineering. However, cooperation with our national (University Hospital Brno, the Faculty of Chemistry BUT, and Czech Collection of Microorganisms) and foreign partners (Ludwig-Maximilians-Universität München in Germany and HES-SO Valais-Wallis in Switzerland) is expected. PhD students will complete a six-month internship at attractive partner universities abroad. UBMI provides doctoral students with a stipend and/or a part-time contract beyond the state stipend when joining a grant project or engaging in teaching.

   Tutor: Sedlář Karel, doc. Mgr. Ing., Ph.D.

2. Detection and characterization of pulmonary nodules in lung cancer low-dose CT screening

   The topic is focused on methods for detection and characterization of pulmonary nodules in lung cancer low-dose CT screening image datasets. All data are available at cooperating institution Masaryk Memorial Cancer Institute in Brno where the screening programme is running since September 2022. The basic task for the topic is detection of nodules in lung cancer with various techniques of image processing. This part is well described in literature and several studies are published each year. Nodules are in form of opacities in lung parenchyma with no relation to a normal anatomy. Second task is nodule characterization based on classification on two main criteria – size and type. The aim of characterization is to find predictors of tumours malignancy. The results will be compared with an expert in radiology field and also with commercially available CAD system for CT scans evaluation. As part of their studies, doctoral students complete several month-long internships at attractive partner universities abroad. UBMI provides doctoral students with a stipend and/or part-time in addition to the state stipend when participating in a grant project or participating in teaching.

   Tutor: Mézl Martin, Ing., Ph.D.

3. New approaches in recruiting bacterial genomes from metagenomes

   Recent advances in DNA sequencing allowed routine sequencing of environmental samples. However, current computational tools hardly keep up with constantly changing lab techniques and the growing output of sequencing devices. Therefore, novel computationally efficient techniques are needed to recruit particular genomes from metagenomes. The topic is focused on methods for recruiting particular bacterial genomes from environmental samples, i.e., metagenomes. While in the past all newly described bacteria had to be isolated and their culture had to be made publicly available, a recent initiative SeqCode brought a nomenclatural code for prokaryotes described directly from sequence data as many microbial species are uncultivable with current techniques. Moreover, even for newly published cultured bacteria, environmental evidence based on searching in publicly available metagenomes is nowadays required by scientific journals. Although tools to produce metagenome-assembled genomes exist, searching metagenomes for particular analysed genomes is done exclusively with BLAST and is not rigorously described. Unfortunately, due to the repetitive segments of bacterial genomes, false hits are always found and quantification of data, i.e., assuming an abundance of a genome in a metagenome, is therefore biased. The aim of the research is to find a method for quantification as precise as possible. The applied method will include specific steps to process short NGS as well as long TGS reads to cover all currently used sequencing technologies. The project will be solved mainly at the Department of Biomedical Engineering. However, cooperation with our national (University Hospital Brno, the Faculty of Chemistry BUT, and Czech Collection of Microorganisms) and foreign partners (Ludwig-Maximilians-Universität München in Germany and HES-SO Valais-Wallis in Switzerland) is expected. PhD students will complete a six-month internship at attractive partner universities abroad. UBMI provides doctoral students with a stipend and/or a part-time contract beyond the state stipend when joining a grant project or engaging in teaching. PhD students will complete a six-month internship at attractive partner universities abroad. UBMI provides doctoral students with a stipend and/or a part-time contract beyond the state stipend when joining a grant project or engaging in teaching.

   Tutor: Sedlář Karel, doc. Mgr. Ing., Ph.D.