probe item造句

• Absolute similarity framework determines whether a probe item is similar enough to a stored memory vector by the use of a threshold.
• If the probe item is very similar to even one of the encoded memories, "'SS "'receives a large boost.
• Because in cued recall, a wrong response can be given for a probe item, the model has to be extended accordingly to account for that.
• Due to the stochastic nature of context, it is almost never the case in multiple trace theory that a probe item exactly matches an encoded memory.
• Summed Similarity Theory explains that the theoretical memory matrix is searched and the memory representation with the highest summed similarity of all memory vectors to the probe item is selected.
• Context plays a large role in this judgment because of the possibility that a probe item could be matched to a memory vector with a highly similar context rather than the corresponding item itself.
• Furthermore, cued recall can be modeled in a probabilistic manner such that for every item stored in the memory matrix, the more similar it is to the probe item, the more likely it is to be recalled.
• When a probe item is presented, the sum of the similarities to each item in the matrix ( which is inversely proportional to the sum of the distances between the probe vector and each item in the memory matrix ) is computed.
• Versions of the K-SADS are semi-structured interviews administered by health care providers or highly trained clinical researchers, which gives more flexibility to the interviewer about how to phrase and probe items, while still covering a consistent set of disorders.
• For example, given "'m 1 "'as a probe item, we will get a near 0 distance ( not exactly due to context ) for i = 1, which will add nearly the maximal boost possible to "'SS " '.