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Research Teams

Below you will find a brief description of the EHTIC research teams along with a short biography of each scholar.

Faculty of BIomedical Engineering

Department of
Medical Informatics
and Artificial Intelligence

The Department of Medical Informatics and Artificial Intelligence conducts research and education in areas related to the development of advanced methods of acquisition, analysis and processing of single – and multi-dimensional, as well as single- and multi-modal medical data.

The main areas of activity of the Department focus on: artificial intelligence and cloud computing in medicine, image navigation in oncological diagnosis and therapy, biometrics, teleradiology, modelling of biological structures and processes, telecare and telerehabilitation, interactive rehabilitation, speech defect diagnostics, pain monitoring in physiotherapy, monitoring of chronic skin wounds, bioinformatics and computational biology, biomorphic materials, design of digital systems for medicine, tissue and genetic engineering, and artificial organs.

As part of the work carried out, a number of algorithms and computer-assisted diagnosis and therapy systems have been developed, including systems for assisting in diagnostic imaging and histopathology. 

The latest solutions use artificial intelligence methods in biological signal processing and therapeutic process support. The Department’s staff are involved in numerous scientific projects financed from domestic and foreign funds in the field of basic and applied research. The Department cooperates with medical facilities, IT companies and research institutions to implement projects with high implementation and practical potential.

We also organise workshops, training courses and conferences that promote the exchange of knowledge between specialists in the fields of medicine and computer science.

By combining medical knowledge and advanced technologies, the Department of Medical Informatics and Artificial Intelligence strives to meet contemporary challenges in healthcare, while contributing to the development of innovative solutions that improve patients’ quality of life.

Faculty of BIomedical Engineering

Department of
Medical Informatics
and Artificial Intelligence

The Department of Medical Informatics and Artificial Intelligence conducts research and education in areas related to the development of advanced methods of acquisition, analysis and processing of single – and multi-dimensional, as well as single- and multi-modal medical data.

The main areas of activity of the Department focus on: artificial intelligence and cloud computing in medicine, image navigation in oncological diagnosis and therapy, biometrics, teleradiology, modelling of biological structures and processes, telecare and telerehabilitation, interactive rehabilitation, speech defect diagnostics, pain monitoring in physiotherapy, monitoring of chronic skin wounds, bioinformatics and computational biology, biomorphic materials, design of digital systems for medicine, tissue and genetic engineering, and artificial organs.

As part of the work carried out, a number of algorithms and computer-assisted diagnosis and therapy systems have been developed, including systems for assisting in diagnostic imaging and histopathology. 

The latest solutions use artificial intelligence methods in biological signal processing and therapeutic process support. The Department’s staff are involved in numerous scientific projects financed from domestic and foreign funds in the field of basic and applied research. The Department cooperates with medical facilities, IT companies and research institutions to implement projects with high implementation and practical potential.

We also organise workshops, training courses and conferences that promote the exchange of knowledge between specialists in the fields of medicine and computer science.

By combining medical knowledge and advanced technologies, the Department of Medical Informatics and Artificial Intelligence strives to meet contemporary challenges in healthcare, while contributing to the development of innovative solutions that improve patients’ quality of life.

Faculty of Biomedical Engineering

Department of Biomaterials and Medical Device Engineering

The Department specialises in biomaterials research and the implementation of new solutions in collaboration with industry.

The Department’s key research areas include:
Biomaterials and Manufacturing Technology Research:

  • Broadly understood biomaterials research and the implementation of new solutions.
  • Shaping the structure and properties of engineering materials;
  • Selection of materials and manufacturing technologies.
  • Research on metal biomaterials with modified structures and specific mechanical properties intended for implants;
  • Research into ceramic biomaterials, including bioactive glasses, glass-ceramic materials, resorbable materials and bone and dental cements.
  • Precise thermal processing and calcination in furnaces operating at temperatures of up to 1650°C.

Implants and medical devices:

  • Design and testing of implants and medical devices.
  • Design of surgical instruments.
  • Research into a new generation of shape-memory implants for stabilising bone fractures and soft tissues, and for modelling facial and spinal deformities, using the hyperelasticity effect.
  • Medical device evaluation procedures.

Mechanical properties and durability:

  • Evaluation of the mechanical properties of engineering materials.
  • Research into the mechanical properties of biomaterials and biomechanical structures under static and dynamic loads.
  • Research into the durability of implantable devices in tissue and physiological fluid environments, taking biomechanical factors into account.

Corrosion and Degradation:

  • Conduct research into the corrosion resistance of metal biomaterials and the degradation of polymer and composite biomaterials in vitro.
  • Investigate the resistance of biomaterials and implants to pitting, crevice, stress and fatigue corrosion.

Surface Engineering and Rapid Prototyping:

  • Surface engineering.
  • Analysis and modelling of the porosity of biomaterial surfaces.
  • Research into a new generation of surface layers (passive, passive-carbon, ceramic and polymer) on a metal biomaterial substrate.
  • Application of rapid prototyping methods in medicine.
  • The application of ALD (Atomic Layer Deposition), sol-gel and electrophoresis techniques to modify biomaterial surfaces.
  • Production of polymer-ceramic hybrid layers.
Faculty of Biomedical Engineering

Department of Biomaterials and Medical Device Engineering

The Department specialises in biomaterials research and the implementation of new solutions in collaboration with industry.

The Department’s key research areas include:
Biomaterials and Manufacturing Technology Research:

  • Broadly understood biomaterials research and the implementation of new solutions.
  • Shaping the structure and properties of engineering materials;
  • Selection of materials and manufacturing technologies.
  • Research on metal biomaterials with modified structures and specific mechanical properties intended for implants;
  • Research into ceramic biomaterials, including bioactive glasses, glass-ceramic materials, resorbable materials and bone and dental cements.
  • Precise thermal processing and calcination in furnaces operating at temperatures of up to 1650°C.

Implants and medical devices:

  • Design and testing of implants and medical devices.
  • Design of surgical instruments.
  • Research into a new generation of shape-memory implants for stabilising bone fractures and soft tissues, and for modelling facial and spinal deformities, using the hyperelasticity effect.
  • Medical device evaluation procedures.

Mechanical properties and durability:

  • Evaluation of the mechanical properties of engineering materials.
  • Research into the mechanical properties of biomaterials and biomechanical structures under static and dynamic loads.
  • Research into the durability of implantable devices in tissue and physiological fluid environments, taking biomechanical factors into account.

Corrosion and Degradation:

  • Conduct research into the corrosion resistance of metal biomaterials and the degradation of polymer and composite biomaterials in vitro.
  • Investigate the resistance of biomaterials and implants to pitting, crevice, stress and fatigue corrosion.

Surface Engineering and Rapid Prototyping:

  • Surface engineering.
  • Analysis and modelling of the porosity of biomaterial surfaces.
  • Research into a new generation of surface layers (passive, passive-carbon, ceramic and polymer) on a metal biomaterial substrate.
  • Application of rapid prototyping methods in medicine.
  • The application of ALD (Atomic Layer Deposition), sol-gel and electrophoresis techniques to modify biomaterial surfaces.
  • Production of polymer-ceramic hybrid layers.
Faculty of Biomedical Engineering

Department of Biomechatronics

About

We carry out scientific research and experimental studies focused on the areas of broadly understood human locomotor biomechanics, determination of material characteristics of structures and tissues, and modelling of objects or other phenomena in virtual reality. 

Our reseach work includes the application of Virtual Reality Technology in systems supporting patients’ diagnosis and therapy, engineering support systems for medicine and sport industry, developing new methods to support the planning of surgical procedures, application of modern technologies in the equipment design process for health sector (medicine, rehabilitation and sports).

Faculty of Biomedical Engineering

Department of Biomechatronics

About

We carry out scientific research and experimental studies focused on the areas of broadly understood human locomotor biomechanics, determination of material characteristics of structures and tissues, and modelling of objects or other phenomena in virtual reality. 

Our reseach work includes the application of Virtual Reality Technology in systems supporting patients’ diagnosis and therapy, engineering support systems for medicine and sport industry, developing new methods to support the planning of surgical procedures, application of modern technologies in the equipment design process for health sector (medicine, rehabilitation and sports).