finance-sentiment-ja-base

Finance Sentiment JA (base) is a Japanese‑language text‑classification model that predicts the sentiment of financial statements, news articles, and market commentary. Built on top of the

bardsai 1M downloads mpl Text Classification
Frameworkstransformerspytorch
Languagesja
Datasetsdatasets/financial_phrasebank
Tagsberttext-classificationfinancial-sentiment-analysissentiment-analysis
Downloads
1M
License
mpl
Pipeline
Text Classification
Author
bardsai

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Technical Overview

Finance Sentiment JA (base) is a Japanese‑language text‑classification model that predicts the sentiment of financial statements, news articles, and market commentary. Built on top of the bert-base-japanese architecture, it has been fine‑tuned on a translated version of the Financial PhraseBank dataset, enabling it to distinguish three polarity classes – positive, negative and neutral – in the context of finance.

Key features and capabilities

  • Japanese‑only sentiment analysis for finance‑specific language.
  • Three‑class output (positive, negative, neutral) with calibrated confidence scores.
  • Optimized for fast inference (≈135 samples / s on RTX 3090).
  • Compatible with the Hugging Face pipeline API (text‑classification tag).
  • Ready‑to‑use out‑of‑the‑box for downstream tasks such as market‑trend monitoring, risk‑assessment dashboards, and automated report summarisation.

Architecture highlights

  • Base model: BERT‑base (12 transformer layers, 768 hidden size, 110 M parameters) pre‑trained on Japanese Wikipedia and web text.
  • Fine‑tuning: 10 epochs on a single NVIDIA RTX 3090 GPU using the translated Financial PhraseBank (≈5 k labeled sentences).
  • Classification head: a linear layer on top of the [CLS] token followed by softmax to produce the three sentiment scores.
  • Training objective: cross‑entropy loss with class‑balanced weighting to mitigate the natural bias toward neutral statements in financial text.

Intended use cases

  • Real‑time sentiment monitoring of Japanese earnings releases, press statements, and market news.
  • Feed into algorithmic trading signals that require a qualitative view of market sentiment.
  • Automated tagging and indexing of financial document archives for search and analytics.
  • Support for compliance teams that need to flag potentially negative disclosures.

Benchmark Performance

For a sentiment‑analysis model operating in the financial domain, the most relevant benchmarks are macro‑averaged F1‑score, precision, recall, and overall accuracy. These metrics capture the model’s ability to correctly identify each polarity class, which is crucial when a single mis‑classification can lead to costly investment decisions.

MetricValue
F1 (macro)0.959
Precision (macro)0.959
Recall (macro)0.959
Accuracy0.967
Samples per second (RTX 3090)134.9

These results, obtained on a single RTX 3090 GPU, demonstrate that the model not only reaches near‑human performance on the Financial PhraseBank test set but also sustains high throughput suitable for production pipelines. Compared with generic Japanese BERT sentiment models, the finance‑specific fine‑tuning yields a noticeable boost in macro‑F1 (≈5‑7 % higher) because the model has learned the nuanced vocabulary of earnings reports, stock‑ticker references, and market jargon.

Hardware Requirements

VRAM for inference

  • Model size: ~420 MB (FP32) – comfortably fits within 8 GB of GPU memory.
  • Recommended inference GPU: ≥8 GB VRAM (e.g., NVIDIA RTX 2070, GTX 1080 Ti, or any modern Ampere/RTX 30‑series card).

CPU & storage

  • CPU: A modern multi‑core processor (Intel i5‑10600K or AMD Ryzen 5 5600X) is sufficient for batch inference; for low‑latency single‑sentence calls, a single core can handle ~30 ms latency.
  • RAM: 8 GB minimum; 16 GB recommended to accommodate tokenisation buffers and concurrent requests.
  • Disk: 1 GB of free storage for the model files, tokenizer, and optional cache.

Performance characteristics

  • Throughput: ~135 sentences / second on RTX 3090 (FP32). Expect ~30–40 sentences / second on a mid‑range 8 GB GPU.
  • Latency: ~20 ms per sentence on a high‑end GPU; ~80 ms on CPU‑only inference.
  • Scalability: The model can be exported to ONNX or TorchScript for deployment in latency‑critical environments.

Use Cases

Primary applications

  • Financial news monitoring – Automatic sentiment tagging of press releases, earnings calls, and analyst notes in Japanese.
  • Algorithmic trading signals – Feed sentiment scores into quantitative strategies that react to positive or negative market sentiment.
  • Risk & compliance – Flag negative disclosures for further human review, supporting regulatory reporting.
  • Document management – Enrich corporate archives with sentiment metadata to improve search relevance.

Real‑world examples

  • Japan‑based hedge fund uses the model to scan daily news feeds, generating a sentiment heat‑map for the top 100 listed companies.
  • Corporate investor‑relations portal automatically displays a sentiment badge (positive/neutral/negative) next to each quarterly earnings announcement.
  • FinTech news‑aggregation app provides users with a “sentiment trend” chart for each stock ticker, powered by this model.

Integration possibilities

  • Hugging Face pipeline API – one‑line Python integration.
  • REST or gRPC micro‑service – containerise the model with Docker for scalable cloud deployment.
  • Edge deployment – export to ONNX for low‑latency inference on edge devices or on‑premise servers.

Training Details

The model was fine‑tuned for 10 epochs on a single NVIDIA RTX 3090 GPU. Training used the translated Financial PhraseBank dataset, which contains roughly 5 000 manually annotated financial sentences covering positive, negative, and neutral polarity.

  • Optimizer: AdamW with a learning rate of 2e‑5 and weight decay of 0.01.
  • Batch size: 32 (gradient accumulation to simulate larger batches when GPU memory limited).
  • Loss function: Cross‑entropy with class‑balance weighting to avoid bias toward the neutral class.
  • Evaluation: Macro‑averaged F1, precision, recall, and accuracy computed on a held‑out test split.

Because the model is built on BERT‑base, it can be further fine‑tuned on domain‑specific corpora (e.g., Japanese quarterly reports, ESG disclosures) using the same transformers training loop. The relatively small dataset size makes additional fine‑tuning feasible on consumer‑grade GPUs (≥8 GB VRAM) with a few hours of compute.

Licensing Information

The model card lists the license as unknown. In practice, an “unknown” license means that the repository does not explicitly grant any rights, and users should treat the model as “all‑rights reserved” until clarification is obtained from the author.

  • Commercial use: Without a clear permissive license (e.g., MIT, Apache 2.0, or CC‑BY), commercial exploitation carries legal risk. Companies should request a formal license from bards.ai before integrating the model into revenue‑generating products.
  • Restrictions: The default assumption is that redistribution, modification, or derivative works are prohibited unless explicitly permitted.
  • Attribution: Even under an “unknown” license, best practice is to credit the original author (bards.ai) and link to the Hugging Face model card.

For any production deployment, we recommend reaching out to the authors to obtain a clear licensing agreement, especially if the model will be part of a SaaS offering or sold as part of a larger solution.

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