Using the bond energy density to predict the reinforcing ability of a composite

Shang, S. W. ; Williams, J. W. ; Söderholm, K. -J. M.
Springer
Published 1992
ISSN:
1573-4803
Source:
Springer Online Journal Archives 1860-2000
Topics:
Mechanical Engineering, Materials Science, Production Engineering, Mining and Metallurgy, Traffic Engineering, Precision Mechanics
Notes:
Abstract A model is proposed to predict the ability of a filler to reinforce a polymer. The model combines the effects of filler particle size, filler surface chemistry and filler volume fraction into one parameter called the bond energy density. Bond energy density is defined as the total interfacial bond energy per unit volume of a polymer composite. Bond energy density is determined by Fowkes's equation. The critical bond energy density, which is equivalent to the bond energy density of the composite when its tensile strength equals that of its matrix, determines whether a filler will reinforce or weaken a polymer. To get a filler reinforcing effect, the bond energy density of the composite must be greater than its critical bond energy density.
Type of Medium:
Electronic Resource
URL:
_version_ 1798296737026146304
autor Shang, S. W.
Williams, J. W.
Söderholm, K. -J. M.
autorsonst Shang, S. W.
Williams, J. W.
Söderholm, K. -J. M.
book_url http://dx.doi.org/10.1007/BF01105259
datenlieferant nat_lic_papers
hauptsatz hsatz_simple
identnr NLM194633268
issn 1573-4803
journal_name Journal of materials science
materialart 1
notes Abstract A model is proposed to predict the ability of a filler to reinforce a polymer. The model combines the effects of filler particle size, filler surface chemistry and filler volume fraction into one parameter called the bond energy density. Bond energy density is defined as the total interfacial bond energy per unit volume of a polymer composite. Bond energy density is determined by Fowkes's equation. The critical bond energy density, which is equivalent to the bond energy density of the composite when its tensile strength equals that of its matrix, determines whether a filler will reinforce or weaken a polymer. To get a filler reinforcing effect, the bond energy density of the composite must be greater than its critical bond energy density.
package_name Springer
publikationsjahr_anzeige 1992
publikationsjahr_facette 1992
publikationsjahr_intervall 8009:1990-1994
publikationsjahr_sort 1992
publisher Springer
reference 27 (1992), S. 4949-4956
search_space articles
shingle_author_1 Shang, S. W.
Williams, J. W.
Söderholm, K. -J. M.
shingle_author_2 Shang, S. W.
Williams, J. W.
Söderholm, K. -J. M.
shingle_author_3 Shang, S. W.
Williams, J. W.
Söderholm, K. -J. M.
shingle_author_4 Shang, S. W.
Williams, J. W.
Söderholm, K. -J. M.
shingle_catch_all_1 Shang, S. W.
Williams, J. W.
Söderholm, K. -J. M.
Using the bond energy density to predict the reinforcing ability of a composite
Abstract A model is proposed to predict the ability of a filler to reinforce a polymer. The model combines the effects of filler particle size, filler surface chemistry and filler volume fraction into one parameter called the bond energy density. Bond energy density is defined as the total interfacial bond energy per unit volume of a polymer composite. Bond energy density is determined by Fowkes's equation. The critical bond energy density, which is equivalent to the bond energy density of the composite when its tensile strength equals that of its matrix, determines whether a filler will reinforce or weaken a polymer. To get a filler reinforcing effect, the bond energy density of the composite must be greater than its critical bond energy density.
1573-4803
15734803
Springer
shingle_catch_all_2 Shang, S. W.
Williams, J. W.
Söderholm, K. -J. M.
Using the bond energy density to predict the reinforcing ability of a composite
Abstract A model is proposed to predict the ability of a filler to reinforce a polymer. The model combines the effects of filler particle size, filler surface chemistry and filler volume fraction into one parameter called the bond energy density. Bond energy density is defined as the total interfacial bond energy per unit volume of a polymer composite. Bond energy density is determined by Fowkes's equation. The critical bond energy density, which is equivalent to the bond energy density of the composite when its tensile strength equals that of its matrix, determines whether a filler will reinforce or weaken a polymer. To get a filler reinforcing effect, the bond energy density of the composite must be greater than its critical bond energy density.
1573-4803
15734803
Springer
shingle_catch_all_3 Shang, S. W.
Williams, J. W.
Söderholm, K. -J. M.
Using the bond energy density to predict the reinforcing ability of a composite
Abstract A model is proposed to predict the ability of a filler to reinforce a polymer. The model combines the effects of filler particle size, filler surface chemistry and filler volume fraction into one parameter called the bond energy density. Bond energy density is defined as the total interfacial bond energy per unit volume of a polymer composite. Bond energy density is determined by Fowkes's equation. The critical bond energy density, which is equivalent to the bond energy density of the composite when its tensile strength equals that of its matrix, determines whether a filler will reinforce or weaken a polymer. To get a filler reinforcing effect, the bond energy density of the composite must be greater than its critical bond energy density.
1573-4803
15734803
Springer
shingle_catch_all_4 Shang, S. W.
Williams, J. W.
Söderholm, K. -J. M.
Using the bond energy density to predict the reinforcing ability of a composite
Abstract A model is proposed to predict the ability of a filler to reinforce a polymer. The model combines the effects of filler particle size, filler surface chemistry and filler volume fraction into one parameter called the bond energy density. Bond energy density is defined as the total interfacial bond energy per unit volume of a polymer composite. Bond energy density is determined by Fowkes's equation. The critical bond energy density, which is equivalent to the bond energy density of the composite when its tensile strength equals that of its matrix, determines whether a filler will reinforce or weaken a polymer. To get a filler reinforcing effect, the bond energy density of the composite must be greater than its critical bond energy density.
1573-4803
15734803
Springer
shingle_title_1 Using the bond energy density to predict the reinforcing ability of a composite
shingle_title_2 Using the bond energy density to predict the reinforcing ability of a composite
shingle_title_3 Using the bond energy density to predict the reinforcing ability of a composite
shingle_title_4 Using the bond energy density to predict the reinforcing ability of a composite
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timestamp 2024-05-06T09:56:51.117Z
titel Using the bond energy density to predict the reinforcing ability of a composite
titel_suche Using the bond energy density to predict the reinforcing ability of a composite
topic ZL
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