[1] Osswald T., Turng L., Gramann P., Injection molding handbook, Hanser Publishers, Munich 2001.
[2] Katz H., Milewski J., Handbook of fillers for plastics, Van Nostrand Reinhold, New York 1987.
[3] Rothon R., Particulate-filled polymer composites, Second Edition, Rapra Technology Limited, Shawbury 2003.
[4] Rothon R., Mineral fillers in thermoplastics, filler manufacture and characterisation, Advances in Polymer Science, 139, 1999, 67–107.
[5] Xiang B., Jiang G., Zhang J., Surface modification of TiO2 nanoparticles with silane coupling agent for nanocomposite with poly(butyl acrylate), Plastics, Rubber and Composites, 44, 2015, 148–154.
[6] Hidayah N., Mariatti M., Ismail H., Kamarol M., Evaluation of PP/EPDM nanocomposites filled with SiO2, TiO2 and ZnO nanofillers as thermoplastic elastomeric insulators, Plastics, Rubber and Composites, 44, 2015, 259-264.
[7] Samujło B., Sikora J. W., The impact of selected granulometric properties of poly(vinyl chloride) on the effectiveness of the extrusion process, Journal of Polymer Engineering, 28, 2013, 77–85.
[8] Sikora J. W., Sasimowski E., Influence of the length of the plasticating system on selected characteristics of an autothermal extrusion process, Advances in Polymer Technology, 24, 2005, 21–28.
[9] Chou T., Structure and properties of composites. Materials science and technology, Volume 13, Structure and properties of composites, VCH Verlagsgesellschaft, Weinheim 1993.
[10] Mareri P., Bastide S., Binda N., Crespy A., Mechanical behaviour of polypropylene composites containing fine mineral filler, Effect of filler surface treatment, Composite Science and Technology, 58, 1998, 747–752.
[11] Głogowska K., Sikora J. W., Duleba B., Effect of mechanical properties of metal powder-filled hybrid moulded products, Journal of Polymer Engineering, 7, 36, 2016, 705-712.
[12] Pukanszky B., Fekete E., Adhesion and surface modification, Advances in Polymer Science, 139, 1999, 109-217.
[13] Heckl S., Oggermüller H., Zehnder M., Neuburg Siliceous Earth in MS-polymer based Sealants, Hoffman Mineral GmbH, www.hoffman-mineral.com, access 15.11.2017.
[14] Göske J., Kachler W., Morphology, physicochemistry and phase analysis of Neuburg Siliceous Earth, Microscopy and Analysis, 22, 2008, 23-24.
[15] Functional fillers for coatings, Hoffman Mineral GmbH, www.hoffman-mineral.com (access 15.11.2017).
[16] Zuiderduin W., Westzaan C., Huetink J., Gaymans R. J., Toughening of polypropylene with calcium carbonate particles, Polymer, 44, 2003, 261–275.
[17] Fu S., Feng X., Lauke B., Mai Y., Effects of particle size, particle/matrix interface adhesion and particle loading on mechanical properties of particulate-polymer composites, Composites, Part B, 39, 2008, 933–961.
[18] Tjong S., Structural and mechanical properties of polymer nanocomposites, Materials Science and Engineering, R. Reports, 53, 2006, 73–197.
[19] Liu Q., Spears D., Liu Q., MAS NMR study of surface-modified calcined kaolin, Applied Clay Science, 19, 2001, 89–94.
[20] Zuhua Z., Xiao Y., Huajun Z., Yue C., Role of water in the synthesis of calcined kaolin-based geopolymer, Applied Clay Science, 43, 2009, 218–223.
[21] Kim G., Michler G., Micromechanical deformation processes in toughened and particle filled semicrystaline polymers, Part 2, Model representation for micromechanical deformation processes, Polymer, 39, 1998, 5699–5703.
[22] Liu P., Polymer modified clay minerals, A review, Applied Clay Science, 38, 2007, 64–76.
[23] Fischer H., Polymer nanocomposites, from fundamental research to specific applications, Materials Science and Engineering C, 23, 2003, 763–772.
[24] Alexandre M., Dubois P., Polymer-layered silicate nanocomposites, preparation, properties and uses of a new class of materials, Materials Science and Engineering, 28, 2000, 1–63.
[25] Suberlyak O.V., Krasins’kyi V.V., Moravs’kyi V.V., Gerlach H., Jachowicz T., Influence of aluminosilicate filler on the physicomechanical properties of polypropylene-polycaproamide composites, Materials Science, 50, 2014, 296–302.
[26] PN-EN ISO 294-1, 2002 Tworzywa sztuczne – Wtryskiwanie kształtek do badań z tworzyw termoplastycznych – Część 1, Zasady ogólne, formowanie uniwersalnych kształtek do badań i kształtek w postaci beleczek.
[27] PN-EN ISO 527-1, 2012 Tworzywa sztuczne – Oznaczanie właściwości mechanicznych przy statycznym rozciąganiu – Część 1, Zasady ogólne.
[28] PN-EN ISO 179-1, 2010 Tworzywa sztuczne – Oznaczanie udarności metodą Charpy’ego – Część 1, Nieinstrumentalne badanie udarności.
[29] PN-EN ISO 868, 2005, Tworzywa sztuczne i ebonit – Oznaczanie twardości metodą wciskania z zastosowaniem twardościomierza (twardość metodą Shore’a).