Enterprise AI Analysis
Decoding Fake Narratives in Spreading Hateful Stories: A Dual-Head ROBERTa Model with Multi-Task Learning
This research presents a dual-head RoBERTa model leveraging multi-task learning to detect "Faux-Hate" – hate speech driven by fake narratives – in code-mixed Hindi-English social media text. Addressing two crucial sub-tasks, binary Faux-Hate detection and target/severity prediction, the model demonstrates competitive performance by integrating advanced NLP techniques with domain-specific pretraining, highlighting a significant step in combating complex online harm.
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Dual-Head RoBERTa Model: Foundations
The core of the system is a RoBERTa-base encoder, a robust transformer-based pre-trained language model. This encoder processes input text, generating contextualized representations vital for understanding nuanced social media language. A crucial feature is the dual-head classification system, featuring two parallel heads. One head is dedicated to binary Faux-Hate detection (identifying fake and hate speech), and the other to target and severity prediction of hateful content. This multi-task learning approach allows for shared knowledge and efficient feature extraction across related challenges, optimizing the model's ability to tackle the complex interplay of misinformation and hate speech.
Innovations for Enhanced Faux-Hate Detection
The proposed architecture incorporates several key innovations:
- Multi-Layer Classification Heads: Each head employs progressive dimensionality reduction, efficiently extracting task-specific features.
- Dual Regularization Strategy: Combining dropout layers and layer normalization ensures training stability and mitigates overfitting, crucial for complex datasets.
- Residual Connections (Potential): Although disabled in the current configuration, the architecture is designed to integrate residual connections for improved gradient flow in future iterations.
- Balanced Loss Computation: Independent loss calculations for each task, averaged, ensure both Faux-Hate detection and target/severity prediction are equally weighted during training, promoting balanced learning outcomes.
Performance and Impact
The model demonstrated competitive results across both tasks, with a notable F1 score of 0.76 for binary Faux-Hate detection (Task A) when residual connections were active. For target and severity prediction (Task B), an F1 score of 0.56 was achieved. The slight but consistent improvement seen with residual connections highlights their potential to enhance the model's ability to generalize and capture subtle data distinctions, especially in varied input contexts. This validates the efficacy of the multi-task learning approach in leveraging shared knowledge to address complex, code-mixed language challenges.
Enterprise Process Flow: Dual-Head RoBERTa Model
| Variant | Task | Test Set F1 Score | Key Takeaway |
|---|---|---|---|
| With Residual Connection | Task A (Binary Faux-Hate) | 0.76 | Improved performance |
| With Residual Connection | Task B (Target & Severity) | 0.56 | Slight improvement |
| Without Residual Connection | Task A (Binary Faux-Hate) | 0.73 | Baseline performance |
| Without Residual Connection | Task B (Target & Severity) | 0.54 | Baseline performance |
This leading F1 score demonstrates the model's robust effectiveness in distinguishing fake narratives intertwined with hate speech, a critical capability for platform moderation.
Case Study: Addressing Faux-Hate in Code-Mixed Contexts
Challenge: Social media platforms grapple with "Faux-Hate" – hate speech fueled by fake narratives – especially challenging in linguistically diverse, code-mixed environments like Hindi-English. This content is difficult to detect due to non-standard grammar, orthographic variations, and cultural nuances.
Solution: A Dual-Head RoBERTa model, employing multi-task learning, was developed to simultaneously detect binary Faux-Hate and predict the target and severity of hateful content. Domain-specific pretraining enhanced its understanding of code-mixed text.
Outcome: The system achieved competitive F1 scores, with 0.76 for Faux-Hate detection, validating the model's ability to effectively process and categorize complex harmful content. This robust solution helps platforms maintain user safety and content integrity.
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