...
- Define a new tie from REF core A3 to SHIFT core B3 where the tie point in SHIFT core B3 is dz m shallower than the REF tie point in A3. This means the SHIFT core will shift down (Fig. X).
- Select “This core and all related cores below” and click OK:
- Replaces the previous tie with the new tie and shifts core B3 with all related cores from all holes that are deeper than REF core A3 downwards by dz m, maintaining all ties below the new one.
- Extends the CCSF scale by dz m.
- Because this is a frequent and standard operation, no user dialog is triggered for the shift unless at least one of the cores A3 and B3 is part of a splice.
- All splice intervals associated with the shifting cores also shift by dz. This is computationally done by adding dz to the CCSF depth of the splice interval boundaries. No change occurs to the sample identities (Hole-Core-Section-Offset) or the CSF-A depth depths of the splice interval boundaries, they remain as explicitly defined by the user.
- Because this action has extended the CCSF scale, a gap is created at the top of the shallowest of splice interval representing the shifted cores. The gap can be covered completely with a segment from either core A3 or B3, or partially with segments from both cores - it is up to you to decide. Correlator offers you the options in a pop-up window (Fig. X):
...
- Define a new tie from REF core A3 to SHIFT core B3 where the tie point in SHIFT core B3 is dz m deeper than the REF tie point in A3. This means the SHIFT core will shift up (Fig. X).
- Select “This core and all related cores below” and click OK.
- Results are analogous to those described in previous case.
- Because this action has shortened the CCSF scale, an overlap is created at the top of the shallowest of splice interval representing the shifted cores. The overlap can be removed completely with a segment from either core A3 or B3, or partially with segments from both cores - it is up to you to decide. Correlator offers you the options in a pop-up window (Fig. X).
...