Keyword search (4,163 papers available)

"stimulation" Keyword-tagged Publications:

Title Authors PubMed ID
1 Continuous Theta Burst to Supplementary Motor Area Modulates Groove Spiech C; Martínez MG; Lazzari G; Penhune V; 41511416
PSYCHOLOGY
2 Imagining the beat: causal evidence for dorsal premotor cortex (dPMC) role in beat imagery via transcranial magnetic stimulation (TMS) Lazzari G; Ferreri L; Cattaneo L; Penhune V; Lega C; 41248776
PSYCHOLOGY
3 Neurophysiological effects of targeting sleep spindles with closed-loop auditory stimulation Jourde HR; Sobral M; Beltrame G; Coffey EBJ; 40626105
PSYCHOLOGY
4 Personalizing brain stimulation: continual learning for sleep spindle detection Sobral M; Jourde HR; Marjani Bajestani SE; Coffey EBJ; Beltrame G; 40609549
PSYCHOLOGY
5 Hemodynamic correlates of fluctuations in neuronal excitability: A simultaneous Paired Associative Stimulation (PAS) and functional near infra-red spectroscopy (fNIRS) study Cai Z; Pellegrino G; Spilkin A; Delaire E; Uji M; Abdallah C; Lina JM; Fecteau S; Grova C; 40567300
PERFORM
6 Topography of Functional Organization of Beat Perception in Human Premotor Cortex: Causal Evidence From a Transcranial Magnetic Stimulation (TMS) Study Lazzari G; Costantini G; La Rocca S; Massironi A; Cattaneo L; Penhune V; Lega C; 40344601
PSYCHOLOGY
7 Discriminative properties of rewarding electrical brain stimulation Pacheco-Gomez BL; Zepeda-Ruiz WA; Velazquez-Lopez D; Shizgal P; Velazquez-Martinez DN; 40015584
CSBN
8 Impact of Stimulation Frequency on Verbal Fluency Following Bilateral Subthalamic Nucleus Deep Brain Stimulation in Parkinson's Disease Busteed L; García-Sánchez C; Pascual-Sedano B; Grunden N; Gironell A; Kulisevsky J; Pagonabarraga J; 39127889
PSYCHOLOGY
9 The immunomodulatory effect of oral NaHCO3 is mediated by the splenic nerve: multivariate impact revealed by artificial neural networks Alvarez MR; Alkaissi H; Rieger AM; Esber GR; Acosta ME; Stephenson SI; Maurice AV; Valencia LMR; Roman CA; Alarcon JM; 38549144
CSBN
10 Does phasic dopamine release cause policy updates? Carter F; Cossette MP; Trujillo-Pisanty I; Pallikaras V; Breton YA; Conover K; Caplan J; Solis P; Voisard J; Yaksich A; Shizgal P; 38039083
PSYCHOLOGY
11 The priming effect of rewarding brain stimulation in rats depends on both the cost and strength of reward but survives blockade of D2-like dopamine receptors Czarina Evangelista 37752810
CSBN
12 The neurophysiology of closed-loop auditory stimulation in sleep: A magnetoencephalography study Jourde HR; Merlo R; Brooks M; Rowe M; Coffey EBJ; 37675803
CONCORDIA
13 Neurophysiology, Neuropsychology, and Epilepsy, in 2022: Hills We Have Climbed and Hills Ahead. Neurophysiology in epilepsy Frauscher B; Bénar CG; Engel JJ; Grova C; Jacobs J; Kahane P; Wiebe S; Zjilmans M; Dubeau F; 37119580
PERFORM
14 Background Music and Memory in Mild Cognitive Impairment: The Role of Interindividual Differences Calabria M; Ciongoli F; Grunden N; Ordás C; García-Sánchez C; 36806508
PSYCHOLOGY
15 Hierarchical Bayesian modeling of the relationship between task-related hemodynamic responses and cortical excitability Cai Z; Pellegrino G; Lina JM; Benali H; Grova C; 36250709
PERFORM
16 Dopamine and Beyond: Implications of Psychophysical Studies of Intracranial Self-Stimulation for the Treatment of Depression Pallikaras V; Shizgal P; 36009115
PSYCHOLOGY
17 The effect of phasic versus combined neuromuscular electrical stimulation using the StimaWELL 120MTRS system on multifidus muscle morphology and function in patients with chronic low back pain: a randomized controlled trial protocol Fortin M; Wolfe D; Dover G; Boily M; 35773711
PERFORM
18 The Convergence Model of Brain Reward Circuitry: Implications for Relief of Treatment-Resistant Depression by Deep-Brain Stimulation of the Medial Forebrain Bundle Pallikaras V; Shizgal P; 35431828
PSYCHOLOGY
19 TMS and H1-MRS measures of excitation and inhibition following lorazepam administration. Ferland MC, Therrien-Blanchet JM, Proulx S, Klees-Themens G, Bacon BA, Vu TTD, Théoret H 33246064
PERFORM
20 The Association Between Dietary Pattern Adherence, Cognitive Stimulating Lifestyle, and Cognitive Function Among Older Adults From the Quebec Longitudinal Study on Nutrition and Successful Aging Parrott MD; Carmichael PH; Laurin D; Greenwood CE; Anderson ND; Ferland G; Gaudreau P; Belleville S; Morais JA; Kergoat MJ; Fiocco AJ; 33063101
PERFORM
21 Nucleus Accumbens Cell Type- and Input-Specific Suppression of Unproductive Reward Seeking. Lafferty CK, Yang AK, Mendoza JA, Britt JP 32187545
CSBN
22 State-Dependent Entrainment of Prefrontal Cortex Local Field Potential Activity Following Patterned Stimulation of the Cerebellar Vermis. Tremblay SA, Chapman CA, Courtemanche R 31736718
HKAP
23 Prolonged Reduction in Shoulder Strength after Transcutaneous Electrical Nerve Stimulation Treatment of Exercise-Induced Acute Muscle Pain. Butera KA, George SZ, Borsa PA, Dover GC 29505689
PERFORM

 

Title:Discriminative properties of rewarding electrical brain stimulation
Authors:Pacheco-Gomez BLZepeda-Ruiz WAVelazquez-Lopez DShizgal PVelazquez-Martinez DN
Link:https://pubmed.ncbi.nlm.nih.gov/40015584/
DOI:10.1016/j.physbeh.2025.114863
Publication:Physiology & behavior
Keywords:Counter modelGeneralization gradientIntracranial self-stimulation
PMID:40015584 Category: Date Added:2025-02-28
Dept Affiliation: CSBN
1 Departamento de Ciencias Cognitivas del Comportamiento, Facultad de Psicología, Universidad Nacional Autonoma de Mexico, Ciudad de Mexico, Mexico 04510.
2 Department of Psychology and Center for Studies in Behavioral Neurobiology, Concordia University, Montreal, QC, H4B 1R6, Canada.
3 Departamento de Ciencias Cognitivas del Comportamiento, Facultad de Psicología, Universidad Nacional Autonoma de Mexico, Ciudad de Mexico, Mexico 04510. Electronic address: velazque@unam.mx.

Description:

Rewarding electrical brain stimulation (EBS) can serve as a discriminative stimulus. It has long been suspected that this discriminative property reflects the subjective intensity of the rewarding effect. In turn, the counter model of spatiotemporal integration attributes the subjective reward intensity produced by a stimulation train of fixed duration to the number of firings triggered in the directly activated neural substrate. If the discriminative property of rewarding EBS depends on subjective reward intensity, it should also obey the counter model. To determine whether this is so, we used rewarding EBS of the medial forebrain bundle in rats as a discriminative stimulus to guide responding for a sucrose reward, and we varied the amplitude and frequency of the pulses constituting the stimulation train. High- or low-EBS trains, signaled which of two levers would deliver the sucrose reward. On generalization trials, the train serving as the discriminative stimulus was intermediate in strength to the high- and low-EBS trains. Responding on the two levers varied systematically as a function of stimulation strength. The order (ascending, descending or random) in which the strength of the discriminative stimulus varied was without discernible effect. In most rats, similar curves relate discriminative performance to stimulation strength regardless of whether pulse amplitude or pulse frequency was varied. Thus, the counter model was largely successful in accounting for the effect of varying stimulation strength on discrimination performance. This result is consistent with the hypothesis that the subjective intensity of the rewarding effect is the basis for the discrimination.





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