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Web of Science searches on January, 3, 2014 and March, 31, 2014 using the keywords diglycerol and polymer gave 13 and 17 responses, respectively. These responses were related to plasticizers, oligomerization of glycerol, and micelles, but no mention of polyester synthesis. Additionally, a similar search using the keywords diglycerol and polyester gave 2 non-related responses. In these cases, the term diglycerol indicated the presence of two glycerol molecules within suberin (see) rather than two glycerol molecules that are covalently bound together with a central ether linkage to form a polyol.
-
Web of Science searches on January, 3, 2014 and March, 31, 2014 using the keywords diglycerol and polymer gave 13 and 17 responses, respectively. These responses were related to plasticizers, oligomerization of glycerol, and micelles, but no mention of polyester synthesis. Additionally, a similar search using the keywords diglycerol and polyester gave 2 non-related responses. In these cases, the term diglycerol indicated the presence of two glycerol molecules within suberin (see, J. Graça, H. Pereira, Biomacromolecules 2000, 1, 519-522) rather than two glycerol molecules that are covalently bound together with a central ether linkage to form a polyol.
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85028130609
-
-
After grinding and seiving (150 μm) the maleic anhydride (3.0 g), the reaction was stirred at ambient temperature with α-phellandrene (17.5 g).
-
After grinding and seiving (150 μm) the maleic anhydride (3.0 g), the reaction was stirred at ambient temperature with α-phellandrene (17.5 g).
-
-
-
-
51
-
-
85028172381
-
-
FTIR spectroscopy and DSC did not detect the presence of unreacted maleic anhydride.
-
FTIR spectroscopy and DSC did not detect the presence of unreacted maleic anhydride.
-
-
-
-
52
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84907232961
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A. Caldarelli, F. Cavani, O. Garone, G. Pavarelli, J.-L. Dubois, I. Mitsova, L. Simeonova in Reducing the Carbon Footprint of Fuels and Petrochemicals, 2012-3, DGMK Tagungsbericht, 2012, 145-151.
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53
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79952468273
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54
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85028130279
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-
Generally, the propensity for sublimation of BCA1 or BCA2 under vacuum decreased as the amount of diglycerol increased and polymerization temperature decreased. For instance, the highest amount of sublimation (≈15 mol%) was observed at 140C with a [diglycerol]/[anhydride] ratio of 1. At 120C, the amount of sublimation decreased to ≈10 mol%. When the amount of diglycerol was increased from a molar ratio to 1 to 1.5, the sublimation at 120C was <5 mol%. At the beginning of the polymerization, the loss of residual water (≈2.5%) (see Figure S13) in diglycerol was concurrent with sublimation.
-
Generally, the propensity for sublimation of BCA1 or BCA2 under vacuum decreased as the amount of diglycerol increased and polymerization temperature decreased. For instance, the highest amount of sublimation (≈15 mol%) was observed at 140C with a [diglycerol]/[anhydride] ratio of 1. At 120C, the amount of sublimation decreased to ≈10 mol%. When the amount of diglycerol was increased from a molar ratio to 1 to 1.5, the sublimation at 120C was <5 mol%. At the beginning of the polymerization, the loss of residual water (≈2.5%) (see Figure S13) in diglycerol was concurrent with sublimation.
-
-
-
-
55
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77955177372
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-
M. A. Harmer, D. C. Confer, C. K. Hoffman, S. C. Jackson, A. Y. Liauw, A. R. Minter, E. R. Murphy, R. E. Spence, H. B. Sunkara, Green Chem. 2010, 12, 1410-1416.
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56
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84879369210
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79953266833
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58
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60649084574
-
-
Dielectric constant for diglycercol was reported by Solvay Chemicals in product literature. A similar situation exists when comparing the polarity of diethylene glycol (ε=30.95) and ethylene glycol (ε=40.35) (see).
-
Dielectric constant for diglycercol was reported by Solvay Chemicals in product literature. A similar situation exists when comparing the polarity of diethylene glycol (ε=30.95) and ethylene glycol (ε=40.35) (see, C. M. Kinart, M. Klimczak, W. J. Kinart, J. Mol. Liq. 2009, 145, 8).
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84873657799
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D. Kafouris, F. Kossivas, C. Constantinides, N. Q. Nguyen, C. Wesdemiotis, C. S. Patrickios, Macromolecules 2013, 46, 622-630.
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84877783349
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H. Zhang, A. Patel, A. K. Gaharwar, S. M. Mihaila, G. Iviglia, S. Mukundan, H. Bae, H. Yang, A. Khademhosseini, Biomacromolecules 2013, 14, 1299-1310.
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, vol.14
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Khademhosseini, A.9
-
63
-
-
85028162965
-
-
-1).
-
-1).
-
-
-
-
64
-
-
85028131085
-
-
-1) calculated by GPC supports the assumption of a hyperbranched polymer structure.
-
-1) calculated by GPC supports the assumption of a hyperbranched polymer structure.
-
-
-
-
65
-
-
85028150424
-
-
g values compared to Figure S25b and S25d.
-
g values compared to Figure S25b and S25d.
-
-
-
|