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Kraton Corporation sebs c2000
Stress–strain curves and impact strength (inset graphs) of r PET/MRP composites: (a) compatibilized using different <t>compatibilizers</t> <t>(SBS,</t> <t>SEBS,</t> SEBS- g -MA, EGMA, and EMAGMA) at 10 wt % in comparison with the uncompatibilized r PET/MRP blend (MRP particle size 400 μm) and the neat r PET. (b) Effect of MRP particle sizes of 100, 185, and 400 μm at EMAGMA 10 wt %. (c) Effect of EMAGMA content at 5 and 10 wt % and MRP particle size of 100 μm. (d) Effect of rPET/MRP ratio at EMAGMA 10 wt % and MRP particle size of 100 μm (see Table for sample composition).
Sebs C2000, supplied by Kraton Corporation, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
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Stress–strain curves and impact strength (inset graphs) of r PET/MRP composites: (a) compatibilized using different compatibilizers (SBS, SEBS, SEBS- g -MA, EGMA, and EMAGMA) at 10 wt % in comparison with the uncompatibilized r PET/MRP blend (MRP particle size 400 μm) and the neat r PET. (b) Effect of MRP particle sizes of 100, 185, and 400 μm at EMAGMA 10 wt %. (c) Effect of EMAGMA content at 5 and 10 wt % and MRP particle size of 100 μm. (d) Effect of rPET/MRP ratio at EMAGMA 10 wt % and MRP particle size of 100 μm (see Table for sample composition).

Journal: ACS Omega

Article Title: Development of Toughened Recycled Polyethylene Terephthalate and Micronized Rubber Composites for 3D Printing Applications: Compatibilization Strategies and Performance Assessment

doi: 10.1021/acsomega.4c10726

Figure Lengend Snippet: Stress–strain curves and impact strength (inset graphs) of r PET/MRP composites: (a) compatibilized using different compatibilizers (SBS, SEBS, SEBS- g -MA, EGMA, and EMAGMA) at 10 wt % in comparison with the uncompatibilized r PET/MRP blend (MRP particle size 400 μm) and the neat r PET. (b) Effect of MRP particle sizes of 100, 185, and 400 μm at EMAGMA 10 wt %. (c) Effect of EMAGMA content at 5 and 10 wt % and MRP particle size of 100 μm. (d) Effect of rPET/MRP ratio at EMAGMA 10 wt % and MRP particle size of 100 μm (see Table for sample composition).

Article Snippet: SBS (C3000), SEBS (C2000), and SEBS- g -MA (C1000, 1.4–2 wt % maleic anhydride) were acquired from Kraton.

Techniques: Comparison

Thermogravimetric curves of (a) compatibilized r PET/MRP composites using different compatibilizers (SBS, SEBS, SEBS- g -MA, EGMA, and EMAGMA) at 10 wt % in comparison with the uncompatibilized r PET/MRP blend (MRP particle size 400 μm), and the neat r PET. (b) Effect of MRP particle sizes of 100, 185, and 400 μm at EMAGMA 10 wt %. (c) Effect of EMAGMA content at 5, and 10 wt % and MRP particle size of 100 μm. (d) Effect of r PET/MRP ratio at EMAGMA 10 wt % and MRP particle size of 100 μm. (e) Reactive and nonreactive compatibilizers (see Table for sample composition).

Journal: ACS Omega

Article Title: Development of Toughened Recycled Polyethylene Terephthalate and Micronized Rubber Composites for 3D Printing Applications: Compatibilization Strategies and Performance Assessment

doi: 10.1021/acsomega.4c10726

Figure Lengend Snippet: Thermogravimetric curves of (a) compatibilized r PET/MRP composites using different compatibilizers (SBS, SEBS, SEBS- g -MA, EGMA, and EMAGMA) at 10 wt % in comparison with the uncompatibilized r PET/MRP blend (MRP particle size 400 μm), and the neat r PET. (b) Effect of MRP particle sizes of 100, 185, and 400 μm at EMAGMA 10 wt %. (c) Effect of EMAGMA content at 5, and 10 wt % and MRP particle size of 100 μm. (d) Effect of r PET/MRP ratio at EMAGMA 10 wt % and MRP particle size of 100 μm. (e) Reactive and nonreactive compatibilizers (see Table for sample composition).

Article Snippet: SBS (C3000), SEBS (C2000), and SEBS- g -MA (C1000, 1.4–2 wt % maleic anhydride) were acquired from Kraton.

Techniques: Comparison

Differential scanning calorimetry thermograms of r PET/MRP composites over the heating and cooling cycles: (a) effect of different compatibilizers (SBS, SEBS, SEBS- g -MA, EGMA, and EMAGMA) at 10 wt % in comparison with the uncompatibilized r PET/MRP blend (MRP particle size 400 μm) and the neat r PET. (b) Effect of MRP particle sizes of 100, 185, and 400 μm at EMAGMA 10 wt %. (c) Effect of EMAGMA content at 5 and 10 wt % and MRP particle size of 100 μm. (d) Effect of r PET/MRP ratio at EMAGMA 10 wt % and MRP particle size of 100 μm (see Table for sample composition).

Journal: ACS Omega

Article Title: Development of Toughened Recycled Polyethylene Terephthalate and Micronized Rubber Composites for 3D Printing Applications: Compatibilization Strategies and Performance Assessment

doi: 10.1021/acsomega.4c10726

Figure Lengend Snippet: Differential scanning calorimetry thermograms of r PET/MRP composites over the heating and cooling cycles: (a) effect of different compatibilizers (SBS, SEBS, SEBS- g -MA, EGMA, and EMAGMA) at 10 wt % in comparison with the uncompatibilized r PET/MRP blend (MRP particle size 400 μm) and the neat r PET. (b) Effect of MRP particle sizes of 100, 185, and 400 μm at EMAGMA 10 wt %. (c) Effect of EMAGMA content at 5 and 10 wt % and MRP particle size of 100 μm. (d) Effect of r PET/MRP ratio at EMAGMA 10 wt % and MRP particle size of 100 μm (see Table for sample composition).

Article Snippet: SBS (C3000), SEBS (C2000), and SEBS- g -MA (C1000, 1.4–2 wt % maleic anhydride) were acquired from Kraton.

Techniques: Differential Scanning Calorimetry, Comparison

Scanning electron micrographs of (a) M400, (b) M186, and (c) M100 micronized rubber particles and cryogenically fractured surface of (d) r PET, (e) r PET/M400, (f) r PET/M400/EMAGMA, (g) r PET/M400/EGMA, (h) r PET/M400/SEBS- g -MA, (i) r PET/M400/SEBS, (j) r PET/M400/SBS, (k) r PET/M400/EMAGMA, (l) r PET/M185/EMAGMA, (m) r PET/M100/EMAGMA, (n) r PET/M100/EMAGMA5, (o) r PET/M100/EMAGMA10, (p) r PET/M100/EMAGMA10 (3), (q) r PET/M100/EMAGMA10 (4), (r) r PET/M100/EMAGMA10 (5), and (s) r PET/M100/EMAGMA10 (6) (see Table for sample composition).

Journal: ACS Omega

Article Title: Development of Toughened Recycled Polyethylene Terephthalate and Micronized Rubber Composites for 3D Printing Applications: Compatibilization Strategies and Performance Assessment

doi: 10.1021/acsomega.4c10726

Figure Lengend Snippet: Scanning electron micrographs of (a) M400, (b) M186, and (c) M100 micronized rubber particles and cryogenically fractured surface of (d) r PET, (e) r PET/M400, (f) r PET/M400/EMAGMA, (g) r PET/M400/EGMA, (h) r PET/M400/SEBS- g -MA, (i) r PET/M400/SEBS, (j) r PET/M400/SBS, (k) r PET/M400/EMAGMA, (l) r PET/M185/EMAGMA, (m) r PET/M100/EMAGMA, (n) r PET/M100/EMAGMA5, (o) r PET/M100/EMAGMA10, (p) r PET/M100/EMAGMA10 (3), (q) r PET/M100/EMAGMA10 (4), (r) r PET/M100/EMAGMA10 (5), and (s) r PET/M100/EMAGMA10 (6) (see Table for sample composition).

Article Snippet: SBS (C3000), SEBS (C2000), and SEBS- g -MA (C1000, 1.4–2 wt % maleic anhydride) were acquired from Kraton.

Techniques: