Decoding Market Emotions in Cryptocurrency Tweets via Predictive Statement Classification with Machine Learning and Transformers

arXiv cs.AI / 3/27/2026

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Key Points

  • The paper proposes a two-stage machine learning framework to classify cryptocurrency tweets into Predictive vs Non-Predictive statements, then further label Predictive tweets as Incremental, Decremental, or Neutral for five cryptocurrencies (Cardano, Matic, Binance, Ripple, Fantom).
  • It builds a dataset using both manual and GPT-based annotation, and enriches emotion signals via SenticNet to derive emotion features tied to each prediction category.
  • To mitigate class imbalance, the authors use GPT-generated paraphrasing for data augmentation, which they report improves overall model performance.
  • Across a broad set of ML, deep learning, and transformer models, transformers achieve the best F1 on Task 1, while traditional ML models perform best on Task 2.
  • The emotion analysis identifies different emotional patterns linked to each prediction category across the cryptocurrencies studied.

Abstract

The growing prominence of cryptocurrencies has triggered widespread public engagement and increased speculative activity, particularly on social media platforms. This study introduces a novel classification framework for identifying predictive statements in cryptocurrency-related tweets, focusing on five popular cryptocurrencies: Cardano, Matic, Binance, Ripple, and Fantom. The classification process is divided into two stages: Task 1 involves binary classification to distinguish between Predictive and Non-Predictive statements. Tweets identified as Predictive proceed to Task 2, where they are further categorized as Incremental, Decremental, or Neutral. To build a robust dataset, we combined manual and GPT-based annotation methods and utilized SenticNet to extract emotion features corresponding to each prediction category. To address class imbalance, GPT-generated paraphrasing was employed for data augmentation. We evaluated a wide range of machine learning, deep learning, and transformer-based models across both tasks. The results show that GPT-based balancing significantly enhanced model performance, with transformer models achieving the highest F1-score in Task 1, while traditional machine learning models performed best in Task 2. Furthermore, our emotion analysis revealed distinct emotional patterns associated with each prediction category across the different cryptocurrencies.