Phonological Awareness Skills Flashcards

A student can accurately segment and blend phonemes in CVC words but consistently errors when asked to transpose the first and last phonemes of CCVC words (e.g., asked to say 'slip' with the first and last sounds switched). Which underlying process most likely explains this specific breakdown?

Answer: Limited phonological working memory capacity required to hold, reorder, and reproduce phoneme sequences

Phoneme transposition requires simultaneously holding the segmented sequence in working memory, mentally reordering it, and producing the new form—a far greater phonological working memory load than simple segmentation or blending. The student's intact CVC performance rules out a basic segmentation deficit; the breakdown emerges only when the manipulation task exceeds working memory capacity.

During a phoneme segmentation assessment, a student segments the word 'butter' as /b/ /ʌ/ /t/ /ɚ/, representing the underlying phonemic form rather than the surface allophone flap /ɾ/ typically produced in connected speech. How should the CALT score this response?

Answer: Correct, because phoneme segmentation tasks target the abstract underlying phonemic representation, not surface allophones

Phonological awareness operates at the level of the phoneme—the abstract mental representation stored in the lexicon—rather than the phone or surface allophone. A response reflecting the underlying /t/ (the phoneme) is precisely what segmentation tasks are designed to elicit. Scoring it as incorrect would conflate phonetic transcription with phonemic awareness assessment.

A student's phonological awareness profile shows intact performance on rhyme detection, syllable segmentation, and onset-rime blending, but significant deficits emerge specifically on phoneme segmentation of words with consonant clusters (e.g., 'clamp,' 'strap'). According to the phonological awareness developmental hierarchy, which statement BEST accounts for this pattern?

Answer: Onset-rime awareness and phoneme-level awareness are partially dissociable skills; the student has reached the ceiling of large-unit awareness but has not yet acquired the finer-grained phoneme segmentation skills required for consonant clusters

Research consistently demonstrates that phonological awareness skills develop along a continuum from large units (words, syllables, onset-rime) to small units (individual phonemes), but mastery at one level does not automatically transfer to the next. Onset-rime awareness and phoneme-level segmentation are partially dissociable, with consonant cluster segmentation representing one of the later-developing, most demanding phoneme-level skills. This profile is a well-documented, predictable pattern—not a regression or testing artifact.

A second-grade student scores within normal limits on a nonword repetition task and forward digit span but performs significantly below age expectations on phoneme deletion and substitution tasks. Which interpretation of this profile is MOST defensible?

Answer: A relatively isolated phonological awareness deficit, since the intact nonword repetition and digit span indicate adequate phonological memory storage capacity

Nonword repetition and digit span are established measures of phonological short-term/working memory. When these are intact but phoneme manipulation tasks show significant deficits, the pattern points to a specific weakness in phonological awareness itself—the ability to consciously access and manipulate the sound structure of words—rather than a memory bottleneck. This distinction has direct instructional implications: the student needs explicit phoneme awareness intervention, not memory supports.

According to Ehri's orthographic mapping theory, which specific phonological awareness skill is the most critical prerequisite for a student to efficiently store printed words as permanent sight words in long-term memory?

Answer: Complete phoneme segmentation awareness that allows full phoneme-by-phoneme mapping onto graphemes

Ehri's orthographic mapping framework holds that sight words are stored in long-term memory by systematically connecting each phoneme in the spoken word to its corresponding grapheme(s) in the written form. This process requires full phoneme segmentation—awareness of every individual phoneme in a word. Onset-rime awareness supports only partial mappings (e.g., initial consonant + rime), which is insufficient for the complete, durable phoneme-grapheme connections that underlie efficient orthographic mapping and rapid automatic word recognition.

A Spanish-English bilingual second-grader demonstrates strong phoneme segmentation and deletion skills in Spanish but significant difficulty segmenting English words containing consonant clusters that do not exist in Spanish phonology (e.g., /str-/, /spl-/). A monolingual Spanish-speaking peer shows the same cluster difficulties in English tasks. Which conclusion is MOST appropriate?

Answer: The difficulty reflects the expected interaction between L1 phonological inventory and L2 phoneme awareness demands; struggling with phonemes absent from L1 is a typical developmental pattern, not evidence of disorder

Research on cross-linguistic phonological awareness transfer consistently shows that PA skills transfer across languages, but the transfer is not automatic and students encounter genuine difficulty with phonological contrasts and phonotactic patterns (like consonant clusters) not present in their L1 phonology. Struggling specifically with /str-/ or /spl-/ clusters—which violate Spanish phonotactics—is a predictable, typical developmental pattern for bilingual learners, not evidence of a phonological processing disorder. Misidentifying this as a disorder would lead to inappropriate diagnostic labeling.