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--- |
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license: openrail |
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inference: |
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parameters: |
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num_beams: 3 |
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num_beam_groups: 3 |
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num_return_sequences: 1 |
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repetition_penalty: 3 |
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diversity_penalty: 3.01 |
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no_repeat_ngram_size: 2 |
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temperature: 0.8 |
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max_length: 64 |
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widget: |
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- text: >- |
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paraphraser: Learn to build generative AI applications with an expert AWS |
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instructor with the 2-day Developing Generative AI Applications on AWS |
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course. |
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example_title: AWS course |
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- text: >- |
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paraphraser: In healthcare, Generative AI can help generate synthetic |
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medical data to train machine learning models, develop new drug candidates, |
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and design clinical trials. |
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example_title: Generative AI |
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- text: >- |
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paraphraser: By leveraging prior model training through transfer learning, |
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fine-tuning can reduce the amount of expensive computing power and labeled |
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data needed to obtain large models tailored to niche use cases and business |
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needs. |
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example_title: Fine Tuning |
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--- |
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# Text Rewriter Paraphraser |
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This repository contains a fine-tuned text-rewriting model based on the T5-Base with 223M parameters. |
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## Key Features: |
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* **Fine-tuned on t5-base:** Leverages the power of a pre-trained text-to-text transfer model for effective paraphrasing. |
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* **Large Dataset (430k examples):** Trained on a comprehensive dataset combining three open-source sources and cleaned using various techniques for optimal performance. |
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* **High Quality Paraphrases:** Generates paraphrases that significantly alter sentence structure while maintaining accuracy and factual correctness. |
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* **Non-AI Detectable:** Aims to produce paraphrases that appear natural and indistinguishable from human-written text. |
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**Model Performance:** |
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* Train Loss: 1.0645 |
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* Validation Loss: 0.8761 |
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## Getting Started: |
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T5 model expects a task related prefix: since it is a paraphrasing task, we will add a prefix "paraphraser: " |
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```python |
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from transformers import AutoTokenizer, AutoModelForSeq2SeqLM |
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device = "cuda" |
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tokenizer = AutoTokenizer.from_pretrained("NoaiGPT/777", token='your_token') |
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model = AutoModelForSeq2SeqLM.from_pretrained("NoaiGPT/777", token='your_token').to(device) |
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def generate_title(text): |
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input_ids = tokenizer(f'paraphraser: {text}', return_tensors="pt", padding="longest", truncation=True, max_length=64).input_ids.to(device) |
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outputs = model.generate( |
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input_ids, |
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num_beams=4, |
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num_beam_groups=4, |
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num_return_sequences=4, |
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repetition_penalty=10.0, |
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diversity_penalty=3.0, |
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no_repeat_ngram_size=2, |
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temperature=0.8, |
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max_length=64 |
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) |
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return tokenizer.batch_decode(outputs, skip_special_tokens=True) |
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text = 'By leveraging prior model training through transfer learning, fine-tuning can reduce the amount of expensive computing power and labeled data needed to obtain large models tailored to niche use cases and business needs.' |
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generate_title(text) |
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``` |
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### Output: |
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``` |
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['The fine-tuning can reduce the amount of expensive computing power and labeled data required to obtain large models adapted for niche use cases and business needs by using prior model training through transfer learning.', |
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'fine-tuning, by utilizing prior model training through transfer learning, can reduce the amount of expensive computing power and labeled data required to obtain large models tailored for niche use cases and business needs.', |
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'Fine-tunering by using prior model training through transfer learning can reduce the amount of expensive computing power and labeled data required to obtain large models adapted for niche use cases and business needs.', |
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'Using transfer learning to use prior model training, fine-tuning can reduce the amount of expensive computing power and labeled data required for large models that are suitable in niche usage cases or businesses.'] |
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``` |
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