Influence of molecular weight on high- and low-expansion foam injection molding using linear polypropylene
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Patrick C. Lee | M. Embabi | M. Kweon | G. Pehlert | Eunse Chang | M. Shivokhin | Steven Mendoza-Cedeno
[1] Patrick C. Lee,et al. Tuning High and Low Temperature Foaming Behavior of Linear and Long-Chain Branched Polypropylene via Partial and Complete Melting , 2021, Polymers.
[2] Patrick C. Lee,et al. Two-Dimensional Correlation Analysis of iPP Bead Foaming Thermal Features Modeled by Fast Scanning Calorimetry. , 2021, ACS Macro Letters.
[3] Patrick C. Lee,et al. Improved Cell Morphology and Surface Roughness in High-Temperature Foam Injection Molding Using a Long-Chain Branched Polypropylene , 2021, Polymers.
[4] Chul B. Park,et al. Research on cellular morphology and mechanical properties of microcellular injection–molded BCPP and its blends , 2021, The International Journal of Advanced Manufacturing Technology.
[5] Chul B. Park,et al. Microcellular injection molded outstanding oleophilic and sound-insulating PP/PTFE nanocomposite foam , 2021 .
[6] S. Tassou,et al. Review of supercritical CO2 technologies and systems for power generation , 2020, Applied Thermal Engineering.
[7] C. Schick,et al. A DSC study of polypropylene chain branching effects on structure formation under rapid cooling and reheating from the amorphous glass , 2020 .
[8] Eric S. Kim,et al. Effects of pressure drop rate and CO2 content on the foaming behavior of newly developed high-melt-strength polypropylene in continuous extrusion , 2020 .
[9] Chul B. Park,et al. Development of high thermal insulation and compressive strength BPP foams using mold-opening foam injection molding with in-situ fibrillated PTFE fibers , 2018 .
[10] Chul B. Park,et al. High thermal insulation and compressive strength polypropylene foams fabricated by high-pressure foam injection molding and mold opening of nano-fibrillar composites , 2017 .
[11] Zhe Xing,et al. Supercritical CO2 Foaming of Radiation Cross-Linked Isotactic Polypropylene in the Presence of TAIC , 2016, Molecules.
[12] A. Minato,et al. Fabrication of High Expansion Microcellular Injection-Molded Polypropylene Foams by Adding Long-Chain Branches , 2016 .
[13] G. Hu,et al. Tensile and impact properties of microcellular isotactic polypropylene (PP) foams obtained by supercritical carbon dioxide , 2016 .
[14] Wei Liu,et al. A new strategy for preparation of long-chain branched polypropylene via reactive extrusion with supercritical CO2 designed for an improved foaming approach , 2016, Journal of Materials Science.
[15] Chul B. Park,et al. A Polymer Visualization System with Accurate Heating and Cooling Control and High-Speed Imaging , 2015, International journal of molecular sciences.
[16] J. Schawe. Influence of processing conditions on polymer crystallization measured by fast scanning DSC , 2014, Journal of Thermal Analysis and Calorimetry.
[17] Hui Liu,et al. Improving foam ability of polypropylene by crosslinking , 2011 .
[18] Wei Yang,et al. Structure and Properties of Radiation Cross-Linked Polypropylene Foam , 2011 .
[19] Chul B. Park,et al. A batch foaming visualization system with extensional stress-inducing ability , 2011 .
[20] Jin Kuk Kim,et al. Microcellular Structure of PP/Waste Rubber Powder Blends with Supercritical CO2 by Foam Extrusion Process , 2009 .
[21] J. Takagi,et al. Nanoscale Cellular Foams from a Poly(propylene)-Rubber Blend , 2008 .
[22] J. Yu,et al. Cell coalescence suppressed by crosslinking structure in polypropylene microcellular foaming , 2008 .
[23] Hanxiong Huang,et al. Improving of Cell Structure of Microcellular Foams Based on Polypropylene/High-density Polyethylene Blends , 2008 .
[24] M. Frounchi,et al. Polypropylene Foaming in a Reactive Process , 2007 .
[25] Chul B. Park,et al. Effect of molecular weight on the surface tension of polystyrene melt in supercritical nitrogen , 2007 .
[26] H. Münstedt,et al. Rheological properties and foaming behavior of polypropylenes with different molecular structures , 2006 .
[27] H. Münstedt,et al. Effect of Long-chain Branching on the Foaming of Polypropylene with Azodicarbonamide , 2006 .
[28] M. Ohshima,et al. Bubble coalescence in foaming process of polymers , 2006 .
[29] Jae Wook Lee,et al. Effect of long‐chain branches of polypropylene on rheological properties and foam‐extrusion performances , 2005 .
[30] C. Macosko,et al. Strain hardening in polypropylenes and its role in extrusion foaming , 2004 .
[31] A. Gotsis,et al. Effect of long branches on the rheology of polypropylene , 2004 .
[32] Chul B. Park,et al. Fundamental foaming mechanisms governing the volume expansion of extruded polypropylene foams , 2004 .
[33] K. Suh,et al. Lightweight Cellular Plastics , 2000 .
[34] A. Luciani,et al. Rheology of polypropylene , 1999 .
[35] Chul B. Park,et al. Processing and characterization of microcellular foamed high-density polythylene/isotactic polypropylene blends , 1998 .
[36] Chul B. Park,et al. A study of cell nucleation in the extrusion of polypropylene foams , 1997 .
[37] R. Leaversuch. Enhanced PP resins offer a wide balance of properties , 1996 .
[38] M. Gahleitner,et al. Correlation between molecular structure and rheological behaviour of polypropylene , 1992 .
[39] C. Tzoganakis,et al. Effect of molecular weight distribution on the rheological and mechanical properties of polypropylene , 1989 .
[40] Li-Fang Wang,et al. Properties of polypropylene structural foam crosslinked by vinyltrimethoxy silane , 1986 .
[41] P. Hornsby,et al. Spherulitic morphology in polypropylene structural foam mouldings , 1984 .
[42] D. R. Gee,et al. Thermal properties of melt and solution crystallized isotactic polypropylene , 1970 .