Interval timing: Modelling the break-run-break pattern using start/stop threshold-less drift-diffusion model

被引:1
作者
Zwicker, Jason [1 ]
Rivest, Francois [1 ]
机构
[1] Royal Mil Coll Canada, 13 Gen Crerar Cres, Kingston, ON K7K 7B4, Canada
关键词
Interval timing; Peak-interval; Driftdiffusion model; Threshold; DECISION-MODEL; TIME; VARIABILITY; MECHANISMS; PIGEONS; TRIALS;
D O I
10.1016/j.jmp.2022.102663
中图分类号
O1 [数学];
学科分类号
0701 ; 070101 ;
摘要
Animal interval timing is often studied through the peak interval (PI) procedure. In this procedure, the animal is rewarded for the first response after a fixed delay from the stimulus onset, but on some trials, the stimulus remains and no reward is given. The standard methods and models to analyse the response pattern describe it as break-run-break, a period of low rate response followed by rapid responding, followed by a low rate of response. The study of the pattern has found correlations between start, stop, and duration of the run period that hold across species and experiments. It is commonly assumed that to achieve the statistics with a pacemaker accumulator model, it is necessary to have start and stop thresholds. In this paper, we will develop a new model that varies response rate in relation to the likelihood of event occurrence, as opposed to a threshold, for changing the response rate. The new model reproduced the start and stop statistics that have been observed in 14 different PI experiments from 3 different papers. The developed model is also compared to the twothreshold Time-adaptive Drift-diffusion Model (TDDM), and the latest accumulator model subsuming the scalar expectancy theory (SET) on all 14 datasets. The results show that it is unnecessary to have explicit start and stop thresholds or an internal equivalent to break-run-break states to reproduce the individual trials statistics, the average behaviour, and the break-run-break analysis results. The new model also produces more realistic individual trials compared to TDDM. Crown Copyright (C) 2022 Published by Elsevier Inc. All rights reserved.
引用
收藏
页数:14
相关论文
共 46 条
  • [11] Learning in the Temporal Bisection Task: Relative or Absolute?
    de Carvalho, Marilia Pinheiro
    Machado, Armando
    Tonneau, Francois
    [J]. JOURNAL OF EXPERIMENTAL PSYCHOLOGY-ANIMAL LEARNING AND COGNITION, 2016, 42 (01) : 67 - 81
  • [12] FISHER R, 1955, J ROY STAT SOC B, V17, P69
  • [13] Gallistel C. R., 1990, ORG LEARNING
  • [14] Sources of variability and systematic error in mouse timing behavior
    Gallistel, CR
    King, A
    McDonald, R
    [J]. JOURNAL OF EXPERIMENTAL PSYCHOLOGY-ANIMAL BEHAVIOR PROCESSES, 2004, 30 (01): : 3 - 16
  • [15] REPRESENTATION OF TIME
    GIBBON, J
    CHURCH, RM
    [J]. COGNITION, 1990, 37 (1-2) : 23 - 54
  • [16] SCALAR EXPECTANCY-THEORY AND WEBERS LAW IN ANIMAL TIMING
    GIBBON, J
    [J]. PSYCHOLOGICAL REVIEW, 1977, 84 (03) : 279 - 325
  • [17] Hardy NF, 2018, NEURAL COMPUT, V30, P378, DOI [10.1162/NECO_a_01041, 10.1162/neco_a_01041]
  • [18] A model of multisecond timing behaviour under peak-interval procedures
    Hasegawa, Takayuki
    Sakata, Shogo
    [J]. JOURNAL OF COMPUTATIONAL NEUROSCIENCE, 2015, 38 (02) : 301 - 313
  • [19] A BEHAVIORAL-THEORY OF TIMING
    KILLEEN, PR
    FETTERMAN, JG
    [J]. PSYCHOLOGICAL REVIEW, 1988, 95 (02) : 274 - 295
  • [20] Kirkpatrick K, 2003, LEARN BEHAV, V31, P3