This shows you the differences between two versions of the page.
| Both sides previous revisionPrevious revisionNext revision | Previous revisionNext revisionBoth sides next revision | ||
| tutorials:t8 [2019/07/31 11:11] – [Upper boundary of delta-ferrite, BCC_A2] pwarczok | tutorials:t8 [2019/07/31 11:35] – [T8: Calculating a phase diagram in a binary system] pwarczok | ||
|---|---|---|---|
| Line 2: | Line 2: | ||
| //This tutorial was tested on\\ | //This tutorial was tested on\\ | ||
| - | MatCalc version 6.01 rel 1.003\\ | + | MatCalc version 6.02 rel 1.003\\ |
| license: free\\ | license: free\\ | ||
| database: mc_fe.tdb// | database: mc_fe.tdb// | ||
| Line 43: | Line 43: | ||
| Beginning at the high-temperature end of the diagram, the uppermost phase boundary at a composition of 0.05 wt.% C is between a single-phase liquid region and a liquid and delta-ferrite (BCC_A2) region. The first boundary which must be found is, therefore, a BCC_A2 phase boundary.\\ | Beginning at the high-temperature end of the diagram, the uppermost phase boundary at a composition of 0.05 wt.% C is between a single-phase liquid region and a liquid and delta-ferrite (BCC_A2) region. The first boundary which must be found is, therefore, a BCC_A2 phase boundary.\\ | ||
| - | To locate the boundary, an equilibrium must first be calculated reasonably close to the expected boundary temperature. It can be seen that the line lies somewhere between 1538°C (the melting temperature of pure iron) and 1500°C. Click on the {{: | + | To locate the boundary, an equilibrium must first be calculated reasonably close to the expected boundary temperature. It can be seen that the line lies somewhere between 1538°C (the melting temperature of pure iron) and 1500°C. Click on the {{: |
| < | < | ||