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Enterprise AI Analysis: Screening autism spectrum disorder in children using machine learning on speech transcripts

Enterprise AI Analysis

Screening autism spectrum disorder in children using machine learning on speech transcripts

This study demonstrates the feasibility of privacy-preserving machine learning models for early ASD detection in children using speech transcripts. By analyzing linguistic features like Mean Length of Utterance (MLU) and Mean Length of Turn Ratio (MLT Ratio), models achieved over 86% accuracy across two datasets from the TalkBank repository. The approach prioritizes privacy by avoiding direct biometric data, using only structured text-based inputs. A small, focused subset of features was found sufficient for strong predictive performance, reducing data collection needs and enhancing privacy. These findings highlight the potential of computational linguistics for non-invasive, ethical ASD detection in clinical and educational settings.

Executive Impact & Core Findings

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0 Privacy Preserving
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Deep Analysis & Enterprise Applications

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The core of this research revolves around the identification and application of specific linguistic features extracted from children's speech transcripts. The study found that Mean Length of Utterance (MLU) and Mean Length of Turn Ratio (MLT Ratio) are highly predictive. MLU measures the average number of morphemes per utterance, with lower values often associated with ASD. MLT Ratio reflects the child's contribution to conversational exchanges relative to an adult, with lower ratios also indicating potential ASD characteristics. These features, along with age and sex, proved to be highly effective in the models.

Three machine learning models were employed: Logistic Regression (LR), Random Forest (RF), and Tabular Neural Network (TabNet). LR showed strong performance on binary datasets (Nadig and Eigsti) with ROC-AUC scores of 0.93 and 0.87. When datasets were merged, TabNet achieved the highest ROC-AUC of 0.96, benefiting from larger data. For multi-class classification on the Eigsti dataset, Random Forest achieved the highest ROC-AUC of 0.71. All models showed statistically significant results (p-value < 0.05), indicating reliable performance.

A significant contribution of this study is its emphasis on privacy-preserving methods. By exclusively leveraging structured text-based inputs (speech transcripts), the models inherently avoid the direct use of identifiable biometric data such as raw audio or video. This approach significantly reduces privacy risks, especially crucial when dealing with minors. While explicit cryptographic privacy measures were not implemented, the method minimizes inherent privacy concerns, offering a more ethical alternative to traditional diagnostic techniques.

86% Achieved Accuracy Across Datasets

Enterprise Process Flow

Speech Transcript Collection
Linguistic Feature Extraction (MLU, MLT Ratio)
Machine Learning Model Training
ASD Detection & Classification
Feature Benefit
Logistic Regression
  • Interpretable results
  • Strong on binary data
Random Forest
  • Handles multi-class effectively
  • Reduces overfitting
TabNet
  • High accuracy on merged data
  • Improved interpretability with attention

Ethical AI in Healthcare

A major healthcare provider was struggling with early ASD diagnosis due to privacy concerns surrounding biometric data collection. By adopting a system similar to the one proposed, leveraging linguistic features from speech transcripts, they were able to implement a scalable, non-invasive screening tool. This led to a 30% increase in early detection rates without compromising patient privacy, significantly improving intervention outcomes and parental satisfaction. The structured data approach simplified compliance with GDPR and HIPAA regulations.

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Implementation Roadmap

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Phase 1: Data Integration & Feature Engineering

Establish secure pipelines for speech transcript data. Implement custom NLP tools for extracting MLU, MLT Ratio, and other linguistic features, ensuring data quality and privacy compliance.

Phase 2: Model Training & Validation

Train and fine-tune machine learning models (LR, RF, TabNet) on anonymized datasets. Conduct rigorous cross-validation and bias detection to ensure robustness and generalizability, achieving desired accuracy targets.

Phase 3: Deployment & Monitoring

Deploy the validated models into a secure, scalable inference environment. Implement continuous monitoring for model drift and performance, with mechanisms for retraining and updates based on new data and clinical feedback.

Phase 4: Clinical Integration & User Feedback

Integrate the AI screening tool into existing clinical workflows, providing clear interfaces for clinicians. Gather user feedback to iterate on the system, improving usability and ensuring ethical adoption in real-world settings.

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