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. Author manuscript; available in PMC: 2018 Jul 1.
Published in final edited form as: Physiol Behav. 2017 Mar 29;176:59–70. doi: 10.1016/j.physbeh.2017.03.037

Table 1.

Studies using food-specific adaptations of standard reward and inhibitory control tasks to assess binge-eating populations.

Authors Participants Task Food and non-food specific task design Stimulus type Concurrent neuroimaging Main findings
Bodell & Keel 2015 BN (N = 32); control (N = 32) Reinforcing value of food Progressive ratio food-specific reinforcement schedule to earn chocolate candies Consumed food None BN > controls RVF breakpoint
Schebendach et al. 2013 BN (N = 10); control (N = 10) Reinforcing value of food Progressive ratio food-specific reinforcement schedule to earn strawberry yogurt shake Consumed food None Under binge instructions: BN > control RVF breakpoint and work performance Under non-binge instruction: No group differences
Goldfield et al. 2008 BE/low stress (N = 12); BE/high stress (N = 10); non-BE/low stress (N = 6); non-BE/ high stress (N = 9) Relative reinforcing value of “unhealthy” vs. “healthy” food Progressive ratio food-specific reinforcement schedule; participant choice between snack food or fruit/vegetable Consumed food None Stress vs. control condition: BE/high stress earned more snack food points and non-BE/high stress earned less snack food points
Stress condition: BE/high stress > non-BE high stress snack food points
Simon et al. 2016 BED (N = 27); BN (N = 29); control (N = 55) Monetary incentive delay/food incentive delay task (MID/FID) Event-related design of modified MID including snack food-specific (S) and monetary (M) blocks in the order of SMSM or MSMS, counterbalanced across participants Visual graphic cue, triangle target, and pictures of money with monetary amounts or pictures of snack foods with snack point values fMRI Expectation of food: BED/BN < control activation in PCC
Receipt of food: BED/BN > control activation in mOFC, anterior mPFC and PCC
No group differences related to monetary reward
Frank et al. 2011 BN (N = 20); control (N = 23) Taste temporal difference learning task Event-related cued delivery of sucrose, no solution and artificial saliva in randomized order, 20% of trials had no presentation following sucrose cue and 20% of trials had sucrose presentation following the no solution cue; allocation of stimuli counterbalanced across subjects Tastants fMRI BN < control activation in the insula, ventral putamen, amygdala and OFC for unexpected receipt
BN: omission of taste and brain regression response to TD model
Lyu et al. 2017 BE (N = 31); control (N = 31) Go/No-Go task Runs including high-calorie food, low-calorie food and non-food household item stimuli; each stimulus type served as a “go” or “no-go” in a block with each of the other stimulus types to total six blocks; order was counterbalanced across subjects Pictures None BE > non-BE faster RTs and greater accuracy on high-calorie food “Go” trials
Mobbs et al. 2011 BED (N = 16); non-BED OB (N = 16); control (N = 16) Go/No-Go task “Food/body-mental flexibility task”; made up of two sections: (1) food and objects (e.g. pencil), (2) body-related words and objects; “No-go” target shifts within each section Words None BED > non-BED errors and omissions in both sections of the task
Hege et al. 2015 BED (N = 17); non-BED (N = 17) Go/No-Go task One Go/no-go task of high-calorie food and nonfood toy stimuli, each stimulus type served as a “go” or “no-go” in one of two blocks; blocks presented in pseudo-randomized order and counterbalanced across groups Pictures MEG BED: trend for decrease in accuracy for “No-go” of food stimuli
BED > control activation in pre- and postcentral gyri associated with activity differences for “Go” in both stimulus types
Food vs. toy stimuli in BED and toy vs. food stimuli in control: increased activity in left middle occipital gyrus control (not BED): successful “No-go” of food associated with activity in right dlPFC
Skunde et al. 2016 BN (N = 28); control (N = 29) Go/No-Go task Event-related Go/no-go task made up of general (G; square “go”/circle “no-go”) and food (F; household item “go”/food “no-go”) specific blocks, ordered GFFGGFFG for one run and FGGFFGGF for the other run, runs were counterbalanced across participants Visual shapes and Pictures fMRI General task: controls > BN inhibition to no-go stimuli control > BN participants with most frequent BE activation in right pre- and postcentral gyrus, right caudate, and right putamen
No differences for food specific task
Svaldi et al. 2014 BED (N = 31); non-BED (N = 29) Stop-signal task Modified SST including highly appetitive food items and neutral, non-palatable household items, balanced stimuli types Pictures None BED > non-BED stop signal reaction time, and more difficulty inhibiting responses to food stimuli
Manasse et al. 2016 BE (N = 25); non-BE (N = 65) Stop-Signal task Modified SST including even number of blocks of neutral non-food stimuli (e.g. scissors), pleasant non-food stimuli (e.g. flowers) and highly palatable food stimuli; block order was counter-balanced across subjects Pictures None BE > controls SSRT across stimuli types

BN, bulimia nervosa; BED, binge eating disorder; OB, obese; BE, individuals with binge eating; ED, eating disorder; RVF, reinforcing value of food; OFC, orbitofrontal cortex; mOFC, medial orbitofrontal cortex; PCC, posterior cingulate cortex; mPFC, medial prefrontal cortex; dlPFC, dorsolateral prefrontal cortex; MID, Monetary Incentive Delay Task; RT, reaction time; fMRI, functional magnetic resonance imaging; MEG, magnetoencephalography.