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www.speechpathologyaustralia.org.au

JCPSLP

Volume 14, Number 3 2012

157

One important finding was that the primary measures of

language and auditory processing improved significantly

across all groups at all data points. However, without a

no-treatment control group, we cannot assess the extent

to which intervention or alternatively natural change

over time contributed to improvements observed. In

short, there is no additional benefit of FFW-L compared

with another computerised intervention or intervention

delivered by a SLP or a general intervention focusing on

academic enrichment. Even though these results did not

support the temporal auditory processing hypothesis,

the authors emphasised that this does not mean that

auditory processing skills are not important for language

development and a necessary part of listening to speech

(Gillam et al., 2008).

SpeechBITE ratings

Eligibility specified: Y

Random allocation: Y

Concealed allocation: Y

Baseline comparability: Y

Blind subjects: N

Blind therapists: N

Blind assessors: Y

Adequate follow-up: Y

Intention-to-treat analysis: Y

Between-group comparisons: Y

Point estimates and variability: Y

References

Cohen, W., Hodson, A., O’Hare, A., Boyle, J., Durrani, T.,

McCartney, E., … Watson, J. (2005). Effects of computer-

based intervention through acoustically modified speech

(Fast ForWord) in severe mixed receptive-expressive

language impairment: Outcomes from a randomized

controlled trial.

Journal of Speech, Language, and Hearing

Research

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48

, 715–729.

Pokorni, J. L, Worthington, C .K., & Jamison, P. J. (2004).

Phonological awareness intervention: Comparison of

Fast ForWord, Earobics, and LiPS.

Journal of Educational

Research

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97

, 147–157.

Tallal, P. (2004). Improving language and literacy is a

matter of time.

Nature Reviews: Neuroscience

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5

, 721–728.

Online treatment of speech and voice in people

with Parkinson’s disease

Constantinescu, G., Theodoros, D., Russell, T., Ward, E.,

Wilson, S., & Wootton, R. (2011). Treating disordered speech

and voice in Parkinson’s disease online: A randomized

controlled non-inferiority trial.

International Journal of

Language & Communication Disorders

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46

(1), 1–16.

SpeechBITE rating: 6/10

speechBITE review – Vivian Kan and Tricia McCabe

A significant proportion of the Parkinson’s disease (PD)

population experiences hypokinetic dysarthria (Ramig, Fox,

& Sapir, 2004) which negatively affects patients’ quality of

Around the journals

Fast ForWord Language intervention in

school-age children

Gillam, R. B., Loeb, D. F., Hoffman, L. M., Bohman, T.,

Champlin, C. A., Thibodeau, L., Widen, J., Brandel, J., &

Friel-Patti, S. (2008). The efficacy of Fast ForWord

Language intervention in school-age children with language

impairment: A randomized controlled trial.

Journal of

Speech, Language, and Hearing Research

,

51

(1), 97–119.

SpeechBITE rating: 8/10

speechBITE review – Katherine Salmon

and Tricia McCabe

Do language impairments reflect a deficit in auditory temporal

processing skills? Fast ForWord Language (FFW-L;

Scientific Learning Corporation, 1998) operates on the

hypothesis that they do. FFW-L is an approach to language

intervention designed to improve auditory temporal

processing skills in school-age children with language

impairments. Until now, few studies have compared FFW-L

to alternate interventions. Furthermore, the utility of using

acoustically modified speech to remediate language

impairments has been questioned (e.g., Cohen et al., 2005;

Pokorni, Worthington, & Jamison, 2004).

This study compared the efficacy of Fast ForWord

Language (FFW-L) to three other interventions – academic

enrichment (AE), computer-assisted language intervention

(CALI), and individualised language intervention (ILI) – to

determine whether FFW-L was more effective than the

other interventions for improving language and auditory

processing skills.

The current research attempted to address the limitations

of previous research, in particular, the fact that none of the

previous trials evaluating FFW-L directly measured changes

in temporal auditory processing.

This study also included a larger group of participants

(216 children diagnosed with language impairment) than

previously reported. Participants were followed for 6

months following completion of the treatment phase and

the study compared FFW-L to a variety of alternative

interventions. The selection of 3 comparison interventions

and FFW-L, all presented 5 days per week for 6 weeks

for 80 minutes per day, allowed comparisons to be made

between (a) computer-delivered versus human-delivered

services, (b) modified speech versus unmodified speech,

and (c) specific versus nonspecific intervention goals. Gillam

and colleagues hypothesised that based on the temporal

processing deficit hypothesis (Tallal, 2004) children

assigned to the FFW-L intervention would have better

outcomes than children in the other three interventions.

The results of the study showed no difference across

the four groups on receptive and expressive language

and auditory processing. That is, the children in all four

interventions made similar improvements on the language

and auditory processing measures. However, children

in the FFW-L and CALI interventions did make greater

improvements on a measure of phonological awareness

than children randomised to the ILI and AE interventions at

the six-month follow-up.