Editor’s summary
A large number of genomic and transcriptomic datasets have revealed valuable insights into the biology of autism spectrum disorder (ASD). Wang et al. produced a complementary resource by mapping 100 high-confidence ASD genes and producing a large protein-protein-interaction (PPI) network, identifying more than 1800 interactions, most of which (87%) have never been reported previously. By integrating affinity purification–mass spectrometry data with AlphaFold-based structural predictions and by validating key interactions in human induced pluripotent stem cell–derived organoids and Xenopus embryos, the authors showed that disease-associated variants selectively weakened or strengthened specific PPIs, producing convergent neurodevelopmental phenotypes even when the variants reside in different genes. This study provides a valuable resource for understanding the biology of ASD. —Mattia Maroso
Structured Abstract
INTRODUCTION
Autism spectrum disorder (ASD) is characterized by extreme genetic heterogeneity, with more than 250 high-confidence risk (hcASD) genes identified to date. Defined by rare, large-effect coding variants, these genes show functional and developmental convergence in transcriptomic analyses. However, these approaches have provided only limited mechanistic insight and have not identified specific therapeutic targets beyond the genetic variants themselves. Because proteins are the primary functional units of the cell, mapping the physical ASD interactome—and determining how ASD variants rewire it—is essential to move beyond gene lists and broad pathophysiologic themes toward a deeper causal understanding of neurodevelopmental pathology.
RATIONALE
To augment our molecular understanding of ASD, we used affinity purification–mass spectrometry (AP-MS) to map 100 hcASD proteins and 54 patient-derived missense variants, substantially expanding the known ASD protein interaction landscape. By integrating these datasets with AlphaFold structural modeling and functional studies in Xenopus and human forebrain organoids, we investigated whether genetically distinct risk factors converge onto shared biology and if convergent neurodevelopmental phenotypes arise through the selective rewiring of protein-protein interactions (PPIs) by disease-associated variants.
RESULTS
The resulting ASD-PPI network contains more than 1800 interactions, 87% of which were previously unreported. The network, which is enriched in neural progenitor cells (NPCs) of the excitatory lineage, exhibits a highly interconnected architecture, with risk proteins converging onto shared complexes, including DCAF7. Functional interrogation of selected interactions demonstrated that disruption of the previously uncharacterized DCAF7-DYRK1A-KIAA0232 complex impairs progenitor proliferation and reduces forebrain size in vivo. Furthermore, patient-derived missense mutations frequently induced convergent PPI rewiring. Distinct FOXP1 mutations, for example, weakened its physical interaction with FOXP4, leading to gain-of-function redistribution of FOXP4 to ectopic genomic targets. In human forebrain organoids, this biochemical rewiring drove premature differentiation of cortical neurons and altered neural activity. Genetic deletion of FOXP4 in a FOXP1-mutant background rescued these neurodevelopmental defects; although the exact mechanism requires further determination, this suggests that the rewired interaction underlies the mutant phenotype.
CONCLUSION
Together, these findings define a dual-layered model of molecular convergence in ASD: convergence through shared interaction networks in the wild-type state and convergence through recurrent functional consequences of interaction rewiring in the mutant state. More broadly, this work establishes a scalable framework for systematic interrogation of the autism proteome, enables prioritization of druggable protein interfaces, and provides a rational foundation for precision therapeutic strategies aimed at restoring neurodevelopmental trajectories.

Mapping the ASD interactome reveals molecular convergence.
(A) Protein interactome of 100 hcASD proteins and 54 patient mutations reveals a highly convergent network of protein complexes. (B) Convergent protein complexes were prioritized for functional validation in human neural progenitors and Xenopus. (C) Mutation-driven rewiring, such as FOXP1-FOXP4 interaction disruption, alters brain development, for example, deep-layer neurogenesis in cortical organoids in FOXP1 mutant organoids. R513C, Arg513→Cys; R513H, Arg513→His; L327P, Leu327→Pro; CRISPRi, CRISPR interference; WT, wild type.
Abstract
Systematic mapping of protein-protein interaction (PPI) networks and determining how causal mutations rewire them in autism spectrum disorder (ASD) provide a powerful framework for uncovering disease mechanisms and therapeutic opportunities. Using affinity purification–mass spectrometry, we systematically mapped PPIs for 100 high-confidence ASD genes, uncovering more than 1800 interactions. By assessing the impact of pathogenic missense mutations, leveraging AlphaFold, and validating key findings in human-derived model systems, we identified marked convergence onto shared protein complexes in the wild-type state and convergent PPI rewiring driven by independent mutations. For example, distinct patient-derived variants in FOXP1 disrupt its interactions with FOXP4, leading to changes in cortical neurogenesis and neural activity in brain organoids. Overall, these findings link genetic variation to protein networks and convergent neurodevelopmental dysfunction in ASD.
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