TXT files with column headers Index Time (h) Furnace Temperature (°C) Sample Temperature (°C) HeatFlow (µV). Calisto software version 1.39 (Setaram Instrumentation - KEP Technologies, Caluire, France) was used to measure thermal effects.
The calorimetric data for five separate experimental series, with constant ratios of xAg/xMg = 9/1, 7/3, 1/1, and 3/7, and xAg/xTi = 19/1.
Tab_2_Series_A.txt: 9/1 (xAg/xMg = 9/1);
Tab_2_Series_A_prim.txt: 9/1 (xAg/xMg = 9/1);
Tab_2_Series_B: 7/3 (xAg/xMg =7/3);
Tab_2_Series_C: 1/1 (xAg/xMg =1/1);
Tab_2_Series_D: 3/7 (xAg/xMg =3/7);
Tab_3_Series_E: 19/1 (xAg/xTi = 19/1.).
The measurements were performed using the drop calorimetry method at temperatures of 1294 K and 1297 K for the liquid solutions with the following constant mole fraction ratio: xAg/xMg = 9/1, 7/3, 1/1, 3/7 [(Ag0.9Mg0.1)1−xTix, (Ag0.7Mg0.3)1−xTix, (Ag0.5Mg0.5)1−xTix, (Ag0.3Mg0.7)1−xTix)], and xAg/xTi = 19/1 [(Ag0.95Ti0.05)1−xMgx].
The experimental studies of liquid Ag-Mg-Ti alloys can be used in the future to optimize thermodynamic properties and phase diagram calculations. The results of drop calorimetric measurements at 1294 K and 1297 K for liquid Ag-Mg-Ti alloys indicate that the liquid solutions exhibit negative deviations from ideal behavior. The minimum integral molar enthalpy value was -13.444 kJ/mol for alloy Ag0.95Ti0.05 and xMg = 0.4182.