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Each associated .csv file corresponds to an individual figure. The full methodological descriptions are found in the Electronic Supplementary Information of the associated research article. A description of the relevant associated data files are below, and in the README.txt file:
Fig1a_data: Changes in the d50 and BET specific surface area of tricalcium silicate with grinding duration (via disk mill). Fig1bc_data: X-ray diffraction patterns of tricalcium silicate with different grinding durations. Fig1f_data: Changes in the amorphous content and decrease in crystalline tricalcium silicate with longer grinding duration, as determined via Rietveld refinement using a rutile internal standard.
Fig2a_data: Measured hydration curves via isothermal calorimetry; Fig2b_data: Modelled hydration curves, using the ‘needle growth’ model of Ouzia and ScrivenerFig2c_data: Cumulative heat hydration curvesFig2d_data: Change of apparent activation energy of hydration.
Fig3a_data: Heat flow curves of tricalcium silicate ground to approximately the same specific surface area (~2 m2g-1) using high-energy milling apparatus (disk mill) and low-energy grinding apparatus (McCrone mill). Fig3b_data: Heat flow at 1 h, for samples milling using high-energy grinding apparatus (disk mill) and low-energy grinding apparatus (McCrone mill).Fig3c_data: Heat flow curves for samples after annealing at 650 °C for 6 h.Fig3d_data: Heat content measurements determined via drop calorimetry at 1400 °C.
Fig4a_data: Raman spectra for individual particle of tricalcium silicate, ground for 3 s.Fig4b_data: Raman spectra for individual particle of tricalcium silicate, ground for 3 s.Fig4c_data: Raman spectra for individual particle of tricalcium silicate, ground for 3 s.Fig4d_data: Raman spectra for individual particle of tricalcium silicate, ground for 240 s.Fig4e_data: Raman spectra for individual particle of tricalcium silicate, ground for 240 s.Fig4f_data: Raman spectra for individual particle of tricalcium silicate, ground for 240 s.