echemi logo
Product
  • Product
  • Supplier
  • Inquiry
    Home > Active Ingredient News > Study of Nervous System > HBP: Machine learning uses high-level functional connections to distinguish between type 2 diabetes and healthy people with or without cognitive impairment

    HBP: Machine learning uses high-level functional connections to distinguish between type 2 diabetes and healthy people with or without cognitive impairment

    • Last Update: 2021-08-03
    • Source: Internet
    • Author: User
    Search more information of high quality chemicals, good prices and reliable suppliers, visit www.echemi.com

    2 type diabetes mellitus (T2DM) associated with cognitive impairment, and may progress to dementia
    .


    However, the brain function mechanism of T2DM-related dementia is still poorly understood


    2 type diabetes mellitus (T2DM) associated with cognitive impairment, and may progress to dementia


    Recently, Human Brain Mapping magazine published an article proposing to use high-level FC to reveal abnormal connection patterns in T2DM-CI, and adopt multiple, machine learning-based strategies


    In order to better understand the cognitive impairment caused by T2DM, the study studied 23 T2DM-CI and 27 T2DM-noCI patients and 50 healthy controls (HCs), and studied T2DM-CI and T2DM no cognition Whether this pattern of functional impairment (T2DM-noCI) is different
    .


    First, establish a large-scale high-order brain network based on the time synchronization of dynamic FC time series between multiple brain regions, and then use this information to classify T2DM-CI (and T2DM-noCI) from matched HCs based on support vector machines


    In order to better understand the cognitive impairment caused by T2DM, the study studied 23 T2DM-CI and 27 T2DM-noCI patients and 50 healthy controls (HCs), and studied T2DM-CI and T2DM no cognition Whether this pattern of functional impairment (T2DM-noCI) is different


    Dynamic-based higher-order functional connectivity (dHOFC) network construction framework and network classification of type 2 diabetes with cognitive impairment (T2DM-CI) and healthy control group (HC)
    .

    Dynamic-based higher-order functional connectivity (dHOFC) network construction framework and network classification of type 2 diabetes with cognitive impairment (T2DM-CI) and healthy control group (HC)
    .


    Differentiating performance between T2DM-CI and HC and T2DM-noCI and HC

    Differentiating performance between T2DM-CI and HC and T2DM-noCI and HC

    The left panel shows the first two higher-order functional connections based on discriminative dynamics selected from the classification between type 2 diabetes with cognitive impairment (T2DM-CI) and healthy controls (HC) according to the frequency of selection (95.
    83%) (DHOFC) node
    .

    The left panel shows the first two higher-order functional connections based on discriminative dynamics selected from the classification between type 2 diabetes with cognitive impairment (T2DM-CI) and healthy controls (HC) according to the frequency of selection (95.
    83%) (DHOFC) node
    .


    The scatter plots of dynamic-based high-order functional connectivity (dHOFC) features [(a) and (b) represent the local clustering coefficients of dHOFC node 1 and node 2, respectively, and type 2 diabetes combined with cognitive impairment (T2DM- Comparison of Montreal Cognitive Assessment (MoCA) scores in CI) group
    .

    The scatter plots of dynamic-based high-order functional connectivity (dHOFC) features [(a) and (b) represent the local clustering coefficients of dHOFC node 1 and node 2, respectively, and type 2 diabetes combined with cognitive impairment (T2DM- Comparison of Montreal Cognitive Assessment (MoCA) scores in CI) group
    .


    The left panel shows the first discriminative dynamic high-order functional connection (dHOFC) node selected according to the selection frequency (90.
    38%) from the classification of type 2 diabetes (T2DM-noCI) and healthy controls (HC) without cognitive impairment
    .

    The left panel shows the first discriminative dynamic high-order functional connection (dHOFC) node selected according to the selection frequency (90.
    38%) from the classification of type 2 diabetes (T2DM-noCI) and healthy controls (HC) without cognitive impairment
    .


    The research model achieved an accuracy of 79.
    17% in the differential diagnosis of T2DM-CI and HC , but only 59.
    62% in the differential diagnosis of T2DM-noCI and HC
    .


    Compared with HC, T2DM-CI has an abnormal high-order FC mode, which is different from T2DM-NOCI


    The research model achieved an accuracy of 79.


    This study is the first classification study of T2DM-CI and HC and T2DM-noCI and HC based on the brain function network


    This study shows that the cognitive impairment caused by T2DM T2DM may have a wide range of functional connectivity changes


    Original source

    Classification of type 2 diabetes mellitus with or without cognitive impairment from healthy controls using high-order functional connectivity.
    https://doi.
    org/10.
    1002/hbm.
    25575

    https://doi.
    org/10.
    1002/hbm.
    25575 Leave a message here
    This article is an English version of an article which is originally in the Chinese language on echemi.com and is provided for information purposes only. This website makes no representation or warranty of any kind, either expressed or implied, as to the accuracy, completeness ownership or reliability of the article or any translations thereof. If you have any concerns or complaints relating to the article, please send an email, providing a detailed description of the concern or complaint, to service@echemi.com. A staff member will contact you within 5 working days. Once verified, infringing content will be removed immediately.

    Contact Us

    The source of this page with content of products and services is from Internet, which doesn't represent ECHEMI's opinion. If you have any queries, please write to service@echemi.com. It will be replied within 5 days.

    Moreover, if you find any instances of plagiarism from the page, please send email to service@echemi.com with relevant evidence.