A common language effect size statistic.
By K. McGraw, S. Wong. 1992
Subfields: Statistics and Probability
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- Daniël Lakens
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Citations in the corpus
- Comparing Code Explanations Created by Students and Large Language Models (2023, methodology): “Following the guidelines of [46] and the broader discussion in [37], we use 𝑝 values as only one source of evidence and outline supporting statistics including two effect sizes – Rank-Biserial (RBC) Correlation [19] and Common-Language Effect Size (CLES) [30] – when presenting the results of the st”
- Calculating and reporting effect sizes to facilitate cumulative science: a practical primer for t-tests and ANOVAs (2013, background): “For correlated samples, Z = Mdiff/Sdiff (McGraw and Wong, 1992), and the percentage associated with the upper tail probability of this value is 0.”
- What Five Decades of Research Tells Us About the Effects of Youth Psychological Therapy: A Multilevel Meta-Analysis and Implications for Science and Practice (2017, background): “Perhaps the broadest implication derives from translating our overall mean ES of 0.46 at posttreatment into a “common language effect size” (McGraw & Wong, 1992): The probability that a randomly selected youth in the treatment condition would be better off after treatment than a randomly selected…”
- A Comparison of Predictors of General and Violent Recidivism Among High-Risk Federal Offenders (2002, methodology): “The CLES represents 242 CRIMINAL JUSTICE AND BEHAVIOR 243 244 the probability that an individual sampled randomly from one group will have a higher score than a person sampled randomly from a second group.”
- Comparing Effect Sizes in Follow-Up Studies: ROC Area, Cohen's d, and r (2005, unknown): “AUC also has a plain language interpretation because it is conceptually and mathematically similar to the common language effect size or CL ( McGraw & Wong, 1992; see also Delaney & Vargha, 2002).”
- An improved effect size for single-case research: nonoverlap of all pairs. (2009, methodology): “Applied to continuous data it is the Common Language Effect Size (CL) (McGraw & Wong, 1992).”
- Measures of Effect Size for Comparative Studies: Applications, Interpretations, and Limitations. (2000, background): “…size measures (Dwyer, 1974; Glass & Hakstian, 1969; Maxwell, Camp, & Arvey, 1981; Richardson, 1996), suggesting alternative indices (Friedman, 1968; McGraw & Wong, 1992; Rosenthal & Rubin , 1982), and offering cautionary notes on the interpretation of these indices (Mitchell & Hartmann, 1981;…”
- The value of prior knowledge in machine learning of complex network systems (2016, unknown): “CLES for network sizes of 90 nodes vs 180 nodes is 64%.”
- Psychological injury in victims of child sexual abuse: A meta-analytic review (2015, methodology): “In terms of practical utility, victims of CSA/ASA had a 70% higher probability (CLES) of internalizing injury (general sequelae) than non-victims, with 66% for depression and 68% for anxiety.”
- The effects of gender on group work process and achievement: an analysis through self‐ and peer‐assessment (2014, methodology): “In order to ease interpretation of the resulting values, we convert Hedges’ g to the probability of superiority (Grissom, 1994; see also McGraw & Wong, 1992 who refer to it as the ‘common language effect size’).”
- The Other Half of the Story: Effect Size Analysis in Quantitative Research (2013, background): “Additionally, McGraw and Wong (1992) developed a measure to report what they call “the common language effect size indicator,” which describes the probability that a random value sampled from one group will be greater than a random value sampled from a comparison group (McGraw and Wong, 1992).”