Incorporating (variational) free energy models into mechanisms: the case of predictive processing under the free energy principle

被引:0
|
作者
Michał Piekarski
机构
[1] Cardinal Stefan Wyszyński University in Warsaw,Institute of Philosophy
来源
Synthese | / 202卷
关键词
Predictive processing; Mechanisms; Explanation; Constraints; Free energy principle; Variational free energy;
D O I
暂无
中图分类号
学科分类号
摘要
The issue of the relationship between predictive processing (PP) and the free energy principle (FEP) remains a subject of debate and controversy within the research community. Many researchers have expressed doubts regarding the actual integration of PP with the FEP, questioning whether the FEP can truly contribute significantly to the mechanistic understanding of PP or even undermine such integration altogether. In this paper, I present an alternative perspective. I argue that, from the viewpoint of the constraint-based mechanisms approach, the FEP imposes an important constraint, namely variational free energy, on the mechanistic architecture proposed by PP. According to the constraint-based mechanisms approach, high-level cognitive mechanisms are integral parts of extensive heterarchical networks that govern the physiology and behavior of agents. Consequently, mechanistic explanations of cognitive phenomena should incorporate constraints and flows of free energy as relevant components, given that the implemented constraints operate as long as free energy is available. Within this framework, I contend that the FEP provides a relevant constraint for explaining at least some biological cognitive mechanisms described in terms of Bayesian generative models that minimize prediction errors.
引用
收藏
相关论文
共 50 条
  • [21] Conceptual foundations of physiological regulation incorporating the free energy principle and self-organized criticality
    Bettinger, Jesse S.
    Friston, Karl J.
    NEUROSCIENCE AND BIOBEHAVIORAL REVIEWS, 2023, 155
  • [22] Upper bound for variational free energy of Bayesian networks
    Kazuho Watanabe
    Motoki Shiga
    Sumio Watanabe
    Machine Learning, 2009, 75 : 199 - 215
  • [23] Upper bound for variational free energy of Bayesian networks
    Watanabe, Kazuho
    Shiga, Motoki
    Watanabe, Sumio
    MACHINE LEARNING, 2009, 75 (02) : 199 - 215
  • [24] Self-organization, Autopoiesis, Free-energy Principle and Autonomy
    Negru, Teodor
    ORGANON F, 2018, 25 (02) : 215 - 243
  • [25] Enhanced Saliency Prediction via Free Energy Principle
    Ye, Peng
    Wang, Yongfang
    Xia, Yumeng
    An, Ping
    Zhang, Jian
    DIGITAL TV AND MULTIMEDIA COMMUNICATION, 2019, 1009 : 31 - 44
  • [26] The free energy principle for action and perception: A mathematical review
    Buckley, Christopher L.
    Kim, Chang Sub
    McGregor, Simon
    Seth, Anil K.
    JOURNAL OF MATHEMATICAL PSYCHOLOGY, 2017, 81 : 55 - 79
  • [27] The utilitarian brain: Moving beyond the Free Energy Principle
    Hemmatian, Babak
    Varshney, Lau R.
    Pi, Frederick
    Barbey, Aron K.
    CORTEX, 2024, 170 : 69 - 79
  • [28] Artificial consciousness: a perspective from the free energy principle
    Wiese, Wanja
    PHILOSOPHICAL STUDIES, 2024, 181 (08) : 1947 - 1970
  • [29] The free energy principle made simpler but not too simple
    Friston, Karl
    Da Costa, Lancelot
    Sajid, Noor
    Heins, Conor
    Ueltzhoeffer, Kai
    Pavliotis, Grigorios A.
    Parr, Thomas
    PHYSICS REPORTS-REVIEW SECTION OF PHYSICS LETTERS, 2023, 1024 : 1 - 29
  • [30] A Psychovisual Quality Metric in Free-Energy Principle
    Zhai, Guangtao
    Wu, Xiaolin
    Yang, Xiaokang
    Lin, Weisi
    Zhang, Wenjun
    IEEE TRANSACTIONS ON IMAGE PROCESSING, 2012, 21 (01) : 41 - 52