Here, the question for values of f(Q) in a P-measurement situation does become illegitimate, since f(Q)'s being well-defined is tied to a Q-measurement situation.
Does the position hold that, in opposition to f(Q), Q itself is well-defined in a P-measurement situation?
In this description of the after-measurement situation it is difficult to discern the actual result of the measurement — e.g., some specific pointer orientation.
If it does, what explains that, in the P-measurement situation, Q remains well-defined, but f(Q) loses this status?
As an attempt to defend a contextualist hidden variables interpretation, this position must concede that not only does the system have, in the Q-measurement situation, a value v(Q), but also, in a P-measurement situation, it has a value v′(Q), although perhaps v′(Q) ≠ v(Q).
Figure 13 illustrates the measurement situation as the vehicle with the system carries out the measurement passing through the adjacent lane when a water sprinkler exists in the ETC lane.
However, uncertainty examinations have become particularly relevant for in situ testing, in which the choice of measurement instrumentation has to be adapted to the specific measurement situation on-site.
In the B-scan measurement situation, a downward looking GPR antenna is moved along a straight path on the top of the surface while the GPR sensor is collecting and recording the scattered field at different spatial positions.
In the existing performance management and measurement situation, a structure that allows the flexibility to establish such a closed integral system has to be provided by the strategic goal and related contractual agreements of the firms involved.
That this formulation of the measurement problem and the preceding one are more or less equivalent should be reasonably clear: If a wave function provides a complete description of the after-measurement situation, the outcome of the measurement must correspond to a wave function that describes the actual result, that is, a "collapsed" wave function.
