Research group

Rubber Technologies

The professional interest of the group focuses on a comprehensive study of processing, production and characterization of rubber to achieve an overall understanding of the influence of individual factors, such as composition of the blends and processing conditions or external degradation agents on the resulting product properties. In the Centre, it is possible to prepare testing samples of mixtures/blends on a calendering line, multi-roller and internal compounder. After complete rheological characterization, it is possible to produce testing specimens in various shapes as well as rubber products from the prepared blends by moulding/ pressing. There is also a co-extrusion rubber line available for preparation of profiles from silicone and other rubber compounds. This line includes a vulcanization chamber, extraction and cutting equipment and on-line measurement of the geometry of the extruded profiles. The domain of the group is a deep professional qualification in the field of theoretical and experimentally-analytical description of mechanisms and mutual structural connections/ relations of fracture behaviour of rubber depending on the effects of degrading mechanical and physical influences. In addition to the usual mechanical and thermal methods, tests on a Vulcometer, a unique Tear and Fatigue Analyzer characterizing the resistance of rubber against spreading of the crack during cyclic fatigue load, and a Chip & Cut device determining the dynamic abrasion of rubber for heavy-duty tires are available for characterization of materials. The Intrinsic Strength Analyzer as the only device determining the energy needed to create a crack, is also available. An integral part of basic and applied research is the characterization of thermal processes in mechanically loaded rubber components by a high-speed thermo-camera. The group also focuses on the development of new rubber testing methods for properties that have not yet been determined, such as in-situ monitoring of the development of heating inside a cyclically loaded rubber body, where a unique test device was developed for this analysis.

Head of the group: doc. Dr. Ing. Radek Stoček


Development of research direction

RP/CPS/2024-28/006 - Competent development of the Rubber Technology research direction at the Centre of Polymer Systems in the area of ​​the impact of tire abrasion particle emissions on the environment, 2024-2028
Principal Researcher: Ing. Martin Stěnička, Ph.D. 

The aim of the project is to expand the professional competence of the research direction Rubber Technology (GT) at the Centre of Polymer Systems (CPS) in the area of ​​the influence of tire abrasion particle emissions on the environment so that CPS and this research direction gain an international reputation as an excellent research workplace that possesses interdisciplinary competence in understanding materials engineering combined with environmental protection.


Implemented projects

CZ.01.01.01/01/22_002/0000682 Development of a new ecological anti-noise barriers - 2024 - 2026

TH80020008 Modelling Wear of Intrinsically Self-Healing Elastomers for Reduced Particle Emission and Improved Lifetime Performance in Future e-Mobility Concepts - 2022-2025

IGA/CPS/2024/001 -Developement of a Numerical Model Describing Inner Strength of Rubber in Dependence of Loading Boundary Conditions, 2024

Completed projects

8E15B007 - project of cooperation between the Czech Republic and Bavaria entitled “Experimental investigation on rubbers´ mechanical behaviour under fatigue loading conditions including chemothermomechanical aging”, 2016 – 2017 (partner – Universität der Bundeswehr, München, Germany).

IGA/CPS/2017/006 -  Influence of thermal aging on crack initiation in rubber, 2017

Research outcomes

Novel perspectives on self-monitoring internal rubber failure using piezoresistivity

CITATION DATA: International Journal of Fatigue, VOL: 175, https://doi.org/10.1016/j.ijfatigue.2023.107825, PUBLICATION YEAR: 2023

Wearable and stretchable SEBS/CB polymer conductive strand as a piezoresistive strain sensor

CITATION DATA: Polymers, VOL: 15, ISS: 7, https://doi.org/10.3390/polym15071618, PUBLICATION YEAR: 2023

Parametrical function describing influences of the redistribution of incorporated oil for rupture process reconstruction in rubber

CITATION DATA: Polymers, VOL: 15, ISS: 6, https://doi.org/10.3390/polym15061363, PUBLICATION YEAR: 2023

Evaluation of selected properties and surface quality of cured pre-impregnated carbon-fiber fabrics after exposure to sulphuric acid

CITATION DATA: Production Engineering Archives, VOL: 29, ISS: 1, https://doi.org/10.30657/pea.2023.29.1, PUBLICATION YEAR: 2023

The effect of apparent cross-link density on cut and chip wear in natural rubber

CITATION DATA: Degradation of Elastomers in Practice, Experiments and Modeling, VOL: 289, https://doi.org/10.1007/12_2022_129, PUBLICATION YEAR: 2023

Degradation of tires during intended usage

CITATION DATA: Degradation of Elastomers in Practice, Experiments and Modeling, VOL: 289, https://doi.org/10.1007/12_2022_132, PUBLICATION YEAR: 2023

Experimental and numerical description of the heat build-up in rubber under cyclic loading

CITATION DATA: Degradation of Elastomers in Practice, Experiments and Modeling, VOL: 289, https://doi.org/10.1007/12_2022_128, PUBLICATION YEAR: 2023

Tuning the curing efficiency of conventional accelerated sulfur system for tailoring the properties of natural rubber/bromobutyl rubber blends

CITATION DATA: Materials, VOL: 15, ISS: 23, https://doi.org/10.3390/ma15238466, PUBLICATION YEAR: 2022

Study of factors influencing vibro-isolating properties of materials for passive elastic bearing of machines

CITATION DATA: MM Science Journal, VOL: 2022, https://doi.org/10.17973/MMSJ.2022_10_2022115, PUBLICATION YEAR: 2022

Study of the mechanical, sound absorption and thermal properties of cellular rubber composites filled with a silica nanofiller

CITATION DATA: Materials, VOL: 14, ISS: 23, https://doi.org/10.3390/ma14237450, PUBLICATION YEAR: 2021

Identifying the co-curing effect of an accelerated-sulfur/bismaleimide combination on natural rubber/halogenated rubber blends using a rubber process analyzer

CITATION DATA: Polymers, VOL: 13, ISS: 24, https://doi.org/10.3390/polym13244329, PUBLICATION YEAR: 2021

Finite element modeling and critical plane analysis of a cut-and-chip experiment for rubber

CITATION DATA: Tire Science and Technology, VOL: 49, ISS: 2, https://doi.org/10.2346/tire.20.190221, PUBLICATION YEAR: 2021

Contacts

Head of the group: doc. Dr. Ing. Radek Stoček

Scientific team


Ph.D. students


  • doc. Dr. Ing. Radek Stoček

  • +420 57 603 4920

  • A420
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  • Sanjoy Datta, Ph.D.
  • +420 57 603 1724
  • A211
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  • Evghenii Harea, Ph.D.
  • +420 57 603 1747
  • A325
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  • Ing. Ondřej Kratina, Ph.D.
  • +420 57 603 1723
  • A210
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  • Ing. Marek Pöschl, Ph.D.
  • +420 57 603 1737
  • A228
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  • Ing. Martin Stěnička, Ph.D.
  • +420 57 603 1726
  • +420 734 787 743
  • A213
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  • Ing. Jakub Pawlas
  • +420 57 603 1737
  • A228
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  • Ing. Ondřej Peter

  • +420 57 603 1737
  • A228
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  • Ing. Nikolas Ryzí
  • +420 57 603 1737
  • A228
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