geopolymerization

Examples

• All

• The combination of aluminum into the silicate backbone during geopolymerization leads to higher compressive strength.

  Academic text (2017)

• In a comprehensive study by Vafaei et al., the potential of waste-glass powder for geopolymerization was investigated.

  Academic text (2018)

• This leads to an increase in the pores between new phases created during the geopolymerization.

  Academic text (2017)

• The quantity of the aluminosilicate gel formed is dependent on the degree of geopolymerization.

  Academic text (2017)

• The mesoporosity of fly-ash-based geopolymer increases with its degree of geopolymerization.

  Academic text (2017)

• In contrast, the lack of aluminum amalgamation with silicates results in a lower degree of geopolymerization and, hence, lower compressive strength.

  Academic text (2017)

• The four key elements in geopolymerization—Si, Al, Ca, and Fe—are displayed as green, red, blue, and purple, respectively.

  Academic text (2017)

• In addition, the presence of reactive aluminium-silicate bonds in the 800 to 1000 cm-1 range after geopolymerization is a clear indication of a high degree of geopolymerization.

  Academic text (2017)

• In this study, both fly ashes had approximately 40 to 45% of aluminum in octahedral coordination, with similar quantities converted to tetrahedral coordination during geopolymerization (25 to 30%) (Table 4).

  Academic text (2017)

• The microstructural and pore-structural changes with the degree of geopolymerization are assessed using state-of-the-art techniques and then correlated with the compressive strength of the final geopolymer produced.

  Academic text (2017)

How Complete

curing

• Specialized

1 5.4

geopolymerization

• Specialized

9.9

mixing

46 1.8

Surface Forms

Morphology

Etymology