Novel compatibilized nylon-based ternary blends with polypropylene and poly(lactic acid): morphology evolution and rheological behaviour

Abstract

Excellent sub-micrometric dispersions in ternary blends were reached by blending a semi-polar PLA at low viscosity in PA6/PP formulations.

Fabrication of fibrillated and interconnected porous poly(ε-caprolactone) vascular tissue engineering scaffolds by microcellular foaming and polymer leaching

“…Such a rheological transition is due to the change of phase morphology during the oscillatory shear deformation. 28 While in a high-frequency region, the energy level was negligible compared with the elastic energy level required for the deformation within the polymer blends. So, all samples approximately show a common G 0 .…”

Multifaceted property tailoring of polyamide 6 by blending miscible and immiscible components: ternary blends of polyamide 6/polyethylene terephthalate/phenol novolac

“…Polymer blending is an attractive method for industry because it enables the fabrication of tailored polymeric materials with a cost-effective process. [3][4][5] Polymer blends can be divided into two types, namely miscible and immiscible systems. 6 Moreover, the loading of miscible and immiscible components modies the material properties in different and complementary ways.…”

“…Various polymer blends have been proposed to improve the mechanical properties of PA6 under humid and high-temperature conditions. [7][8][9][10][11][12][13][14][15][16][17][18][19][20][21] Owing to the small mixing enthalpy of macromolecules, almost all polymer combinations are immiscible 5 and thus, previous studies have mainly conducted PA6 polymer blending with immiscible components. [7][8][9][10][11][12][13][14] Blending high-T g polymers, such as poly(phenylene sulde), 7,8 poly(phenylene oxide), [9][10][11] and polycarbonate (PC) [12][13][14] with PA6 are representative approaches to increase the PA6 stiffness at high temperatures.…”

A feasible strategy to constructing hybrid conductive networks in PLA‐based composites modified by CNT‐d‐RGO particles and PEG for mechanical and electrical properties

“…11,12 Unfortunately, PLA exhibits an intrinsic feature, that is, its asymmetrical structure of chains, which causes deficiency involving very low crystallinity and crystallization rate during melt processing, thus further leading to inferior thermostability and toughness problems during its long service life. [5][6][7][8] Meanwhile, the widespread development of electronic device applications has generated a good ideal of interest in recent academic, military fields, and our life. It is well known that conductive polymer composites (CPCs) can achieve an superior chemical resistance, flexibility, good processability, and changeable conductivity with variation of conductive filler and be adopted as novel conductive materials.…”