TY - JOUR
T1 - Exploring Proteomic Alterations in Intellectual Disability
T2 - Insights from Hyperlipidemia and Hyperphosphatasia Subgroups
AU - Vankwani, Soma
AU - Mirza, Munazza Raza
AU - Tahir, Muhammad
AU - Wasim, Muhammad
AU - Rajput, Sajid Ali
AU - Khan, Haq Nawaz
AU - Larsen, Martin R.
AU - Choudhary, Muhammad Iqbal
AU - Awan, Fazli Rabbi
N1 - Publisher Copyright:
© The Author(s), under exclusive licence to Springer Science+Business Media, LLC, part of Springer Nature 2025.
PY - 2025/12
Y1 - 2025/12
N2 - A significant increase of neurodevelopment disorders (NDDs) among children presents growing healthcare challenge worldwide. Owing to heterogenic, multifactorial nature of NDDs, understanding pathophysiology of disease, finding effective methods for the early detection and intervention of NDDs has become extremely complex. This study aims to investigate the molecular mechanisms of NDDs, focusing on the associations between hyperphosphatasia (HPP) and hyperlipidemia (HLD) in patients with intellectual disability (ID). Blood samples from 800 study participants (ID patients and healthy individuals, HC) were analyzed for the biochemical differences. Among them, 105 ID patients with uniquely altered biochemical profiles (ID-HPP, n = 28; ID-HLD, n = 77) and 65 HC samples were further investigated for nLC-MS/MS-based proteomic analysis. A total of 354 proteins were identified in label-free quantitative proteomic analysis of the all groups (ID-HPP, ID-HLD, and HC). The ID-HPP and ID-HLD groups each had distinct protein profiles compared to HC, with 28 and 85 differentially expressed proteins, respectively. The ID-HLD group had 66 unique proteins, whereas ID-HPP had 9 unique proteins, with 19 proteins common among the subgroups of ID. Pathway analysis of common proteins revealed shared pathways as the complement system and lipoprotein metabolism disruptions, but distinct pathway disturbances: toll-like receptor and integrin signaling in ID-HPP, and hemostatic pathway dysregulation in ID-HLD. These findings elucidate systemic pathway abnormalities in NDDs, including ID.
AB - A significant increase of neurodevelopment disorders (NDDs) among children presents growing healthcare challenge worldwide. Owing to heterogenic, multifactorial nature of NDDs, understanding pathophysiology of disease, finding effective methods for the early detection and intervention of NDDs has become extremely complex. This study aims to investigate the molecular mechanisms of NDDs, focusing on the associations between hyperphosphatasia (HPP) and hyperlipidemia (HLD) in patients with intellectual disability (ID). Blood samples from 800 study participants (ID patients and healthy individuals, HC) were analyzed for the biochemical differences. Among them, 105 ID patients with uniquely altered biochemical profiles (ID-HPP, n = 28; ID-HLD, n = 77) and 65 HC samples were further investigated for nLC-MS/MS-based proteomic analysis. A total of 354 proteins were identified in label-free quantitative proteomic analysis of the all groups (ID-HPP, ID-HLD, and HC). The ID-HPP and ID-HLD groups each had distinct protein profiles compared to HC, with 28 and 85 differentially expressed proteins, respectively. The ID-HLD group had 66 unique proteins, whereas ID-HPP had 9 unique proteins, with 19 proteins common among the subgroups of ID. Pathway analysis of common proteins revealed shared pathways as the complement system and lipoprotein metabolism disruptions, but distinct pathway disturbances: toll-like receptor and integrin signaling in ID-HPP, and hemostatic pathway dysregulation in ID-HLD. These findings elucidate systemic pathway abnormalities in NDDs, including ID.
KW - Hyperlipidemia
KW - Hyperphosphatasia
KW - Intellectual disability
KW - Molecular mechanisms
KW - Neurodevelopmental disorders
KW - Proteomic profiling
UR - https://www.scopus.com/pages/publications/105005537120
U2 - 10.1007/s12017-025-08855-z
DO - 10.1007/s12017-025-08855-z
M3 - Article
AN - SCOPUS:105005537120
SN - 1535-1084
VL - 27
JO - NeuroMolecular Medicine
JF - NeuroMolecular Medicine
IS - 1
M1 - 38
ER -