Our publications on the mathematical modeling:

  • Ziabicki A., Misztal-Faraj B., Jarecki L., Kinetic model of non-isothermal crystal nucleation, JOURNAL OF MATERIALS SCIENCE, 51, 8935-8952, 2016.

  • Jarecki L.,  Misztal-Faraj B., Kinetic model of polymer crystallization with the lamellar thickness distribution, EUROPEAN POLYMER JOURNAL, 73, 175-190, 2015.

  • Jarecki L.,  Błoński S., Zachara A., Modeling of Pneumatic Melt Drawing of Poly‑L‑lactide Fibers in the Laval Nozzle, INDUSTRIAL & ENGINEERING CHEMISTRY RESEARCH, 54, 10796-10810, 2015.

  • Blim A., Jarecki L.,  Błoński S., Modeling of pneumatic melt drawing of polypropylene super-thin fibers in the Laval nozzle, BULLETIN OF THE POLISH ACADEMY OF SCIENCES: TECHNICAL SCIENCES, 62, 43-54, 2014.

  • Misztal-Faraj B., A simple model of plate-like crystallization with constant plate thickness, JOURNAL OF MATERIALS RESEARCH, 28, 1224-1238, 2013.

  • Misztal-Faraj B., Ziabicki A., Effects of predetermined nuclei and limited transformation on polymorphic crystallization in a model polymer, JOURNAL OF APPLIED POLYMER SCIENCE, 125, 4243-4251, 2012.

  • Jarecki L.,  Błoński S., Blim A., Zachara A., Modeling of pneumatic melt spinning processes, JOURNAL OF APPLIED POLYMER SCIENCE, 125, 4402-4415, 2012.  

  • Jarecki L.,  Ziabicki A., Lewandowski Z., Blim A., Dynamics of air drawing in the melt blowing of nonwovens from isotactic polypropylene by computer modeling, JOURNAL OF APPLIED POLYMER SCIENCE, 119, 53-65, 2011.

  • Jarecki L., Błoński S., Zachara A., Blim A., Computer modeling of pneumatic formation of superthin fibres, COMPUTER METHODS IN MATERIALS SCIENCE / INFORMATYKA W TECHNOLOGII MATERIAŁÓW, 11, 74-80, 2011.  

  • Ziabicki A.,  Misztal-Faraj B.,  Modeling of phase transitions in three-phase polymorphic systems: Part I. Basic equations and example simulation, JOURNAL OF MATERIALS RESEARCH, 26, 1585-1595, 2011.  

  • Misztal-Faraj B., Ziabicki A., Modeling of phase transitions in three-phase polymorphic systems: Part II. Effects of material characteristics on transition rates, JOURNAL OF MATERIALS RESEARCH, 26, 1596-1604, 2011.  

  • Jarecki L.,  Błoński S., Blim A., Zachara A., Modeling of pneumatic melt spinning processes, 4THINTERNATIONAL CONFERENCE ON POLYMER BEHAVIOR, SEPTEMBER 20-23, ŁÓD, POLAND, 2010.

  • Sajkiewicz P.,  Gradys A.,  Ziabicki A.,  Misztal-Faraj B., On the metastability of beta phase in isotactic polypropylene: Experiments and numerical simulation, E-POLYMERS, No.124, 1-20, 2010.  

  • Sajkiewicz P.,  Gradys A.,  Misztal-Faraj B., Quantitative analysis of crystallization kinetics by light depolarization technique. Possibilities and limitations, EUROPEAN POLYMER JOURNAL, 46, 2051-2062, 2010.  

  • Misztal-Faraj B., Sajkiewicz P., Savytskyy H., Bonchyk O., Gradys A., Ziabicki A., Following phase transitions by depolarizing light intensity. The experimental setup, POLYMER TESTING, 28, 36-41, 2009.

  • Jarecki L., Lewandowski Z., Mathematical modeling of pneumatic melt spinning of isotactic polypropylene. Part III. Computations of the process dynamics, FIBRES AND TEXTILES IN EASTERN EUROPE, 17, 75-80, 2009.

  • Jarecki L., Ziabicki A., Mathematical modeling of the pneumatic melt spinning of isotactic polypropylene Part II. Dynamic model of melt blowing, FIBRES AND TEXTILES IN EASTERN EUROPE, 16, 17-24, 2008.

  • Lewandowski Z., Ziabicki A., Jarecki L., The nonwovens formation In the melt-blown process, FIBRES AND TEXTILES IN EASTERN EUROPE, 15, 77-81, 2007.

  • Ziabicki A., Jarecki L., Crystallization-controlled limitations of melt spinning, JOURNAL OF APPLIED POLYMER SCIENCE, 105, 215-223, 2007.

  • Blim A., Jarecki L., Effects of zone heating on PET fibers structures and dynamics of melt spinning process. Part II. Mathematical model, POLIMERY, 52, 686-700, 2007.

  • Ziabicki A., Jarecki L., Structure-controlled bifurcation in mathematical modeling of fibre spinning, ARCHIVES OF MECHANICS58, 58, 459-475, 2006.

  • Ziabicki A, Misztal-Faraj B., Interpretation of light depolarization data in terms of polymer crystallinity, MATERIALS SCIENCE-POLAND, 24, 493-505, 2006.

  • Ziabicki A., Transmission of light through a statistical system of birefringent plates, JOURNAL OF OPTICS A - PURE AND APPLIED OPTICS, 7, 774-782, 2005.

  • Ziabicki A., Misztal-Faraj B., Applicability of light depolarization technique to crystallization studies, POLYMER, 46, 2395-2403, 2005.

  • Ziabicki A., Nucleation-controlled multiphase transitions, JOURNAL OF CHEMICAL PHYSICS, 123, 174103-1-174103-11, 2005.

  • Blim A., Oldak E., Wasiak A., Jarecki L., Effects of zone heating on PET fibers structures and dynamics of melt spinning process. Part I. Crystallization and molecular orientation, POLIMERY, 50, 48-59, 2005.

  • Schoene A., Ziabicki A., Jarecki L., Transient uniaxial orientation of flexible polymer chains in a wide range of elongation rates, POLYMER, 46, 3927-3935, 2005.

  • Ziabicki A., Jarecki L., Sorrentino A., The role of flow-induced crystallization in melt spinning, E-POLYMERS, no. 072, 2004.

  • Jarecki L., Ziabicki A., Viscosity effects in computer modeling of fiber spinning from crystallizing polymer melts, POLIMERY, 49, 101-109, 2004.

  • Ziabicki A., Jarecki L., Schoene A., Transient biaxial orientation of flexible polymer chains in a wide range of deformation conditions, POLYMER, 45, 5737-5742, 2004.

  • Ziabicki A, Alfonso G.C., A simple model of flow induced crystallization memory, MACROMOLECULAR SYMPOSIA, 185, 211-231, 2002.

  • Jarecki L., Ziabicki A., Effects of finite chain extensibility on segmental orientation and stress in biaxially deformed polymers, E-POLYMERS, no. 020, 2002, 2, 272-289, 2002.

  • Jarecki L., Research trends in theory and modeling of polymer systems presented at the IUPAC MACRO 2000 Congress in Warsaw, POLIMERY, 47, 389-395, 2002.

  • Jarecki L., Ziabicki A., Development of molecular orientation and stress in biaxially deformed polymers. I. Affine deformation in solid state, POLYMER, 43, 2549-2559, 2002.

  • Jarecki L., Ziabicki A., Molecular orientation and stress in biaxially deformed polymers. II. Steady potential flow, POLYMER, 43, 4063-4071, 2002.