ruGPT-3.5-13B

Maintainer: ai-forever

Total Score

228

Last updated 5/28/2024

👁️

PropertyValue
Run this modelRun on HuggingFace
API specView on HuggingFace
Github linkNo Github link provided
Paper linkNo paper link provided

Create account to get full access

or

If you already have an account, we'll log you in

Model Overview

The ruGPT-3.5-13B is a large language model developed by ai-forever that has been trained on a 300GB dataset of various domains, with an additional 100GB of code and legal documents. This 13 billion parameter model is the largest version in the ruGPT series and was used to train the GigaChat model.

Similar models include the mGPT multilingual GPT model, the FRED-T5-1.7B Russian-focused T5 model, and the widely used GPT-2 English language model.

Model Inputs and Outputs

Inputs

  • Raw Russian text prompts of varying length

Outputs

  • Continuation of the input text, generating new content in the Russian language

Capabilities

The ruGPT-3.5-13B model demonstrates strong text generation capabilities for the Russian language. It can be used to continue and expand on Russian text prompts, producing fluent and coherent continuations. The model has been trained on a diverse dataset, allowing it to generate text on a wide range of topics.

What Can I Use It For?

The ruGPT-3.5-13B model could be useful for a variety of Russian language applications, such as:

  • Chatbots and conversational agents that can engage in open-ended dialogue in Russian
  • Content generation for Russian websites, blogs, or social media
  • Assistants that can help with Russian language tasks like summarization, translation, or question answering

Things to Try

One interesting thing to try with the ruGPT-3.5-13B model is to experiment with different generation strategies, such as adjusting the number of beams or sampling temperature. This can help produce more diverse or controlled outputs depending on the specific use case.

Another idea is to fine-tune the model on a smaller, domain-specific dataset to adapt it for specialized tasks like generating legal or technical Russian text. The model's large size and broad training make it a strong starting point for further fine-tuning.



This summary was produced with help from an AI and may contain inaccuracies - check out the links to read the original source documents!

Related Models

↗️

rugpt3large_based_on_gpt2

ai-forever

Total Score

65

The rugpt3large_based_on_gpt2 is a large language model developed by the SberDevices team at Sber. It was trained on 80 billion tokens of Russian text over 3 epochs, with a final perplexity of 13.6 on the test set. The model architecture is based on GPT-2, but the training focused on Russian language data. Similar models include the FRED-T5-1.7B, a 1.7B parameter model also developed by the AI-Forever team and trained on Russian text, and the ruGPT-3.5-13B, a large 13B parameter Russian language model. Another related model is the mGPT, a multilingual GPT-like model covering 61 languages. Model inputs and outputs The rugpt3large_based_on_gpt2 model is a text-to-text transformer that can be used for a variety of natural language processing tasks. It takes in a sequence of text as input and generates a sequence of text as output. Inputs Text sequence**: A sequence of text to be processed by the model. Outputs Generated text**: The model will generate a sequence of text, continuing or completing the input sequence. Capabilities The rugpt3large_based_on_gpt2 model is capable of generating human-like Russian text given a prompt. It can be used for tasks like story generation, dialogue, and text summarization. The model has also been shown to perform well on language modeling benchmarks for Russian. What can I use it for? The rugpt3large_based_on_gpt2 model could be used for a variety of Russian language applications, such as: Content generation**: Automatically generating Russian text for stories, articles, or dialogues. Text summarization**: Condensing long Russian documents into concise summaries. Dialogue systems**: Building conversational agents that can engage in natural Russian discussions. Language modeling**: Evaluating the probability of Russian text sequences for applications like machine translation or speech recognition. Things to try One interesting aspect of the rugpt3large_based_on_gpt2 model is its ability to generate coherent and contextual Russian text. Experimenting with different prompts and generation settings can yield creative and unexpected outputs. For example, trying prompts that combine different topics or styles could result in unique and imaginative text. Additionally, fine-tuning the model on specific Russian language datasets or tasks could further enhance its capabilities for targeted applications. The large scale of the original training corpus suggests the model has learned rich representations of the Russian language that could be leveraged in novel ways.

Read more

Updated Invalid Date

💬

mGPT-13B

ai-forever

Total Score

47

mGPT-13B is a large multilingual language model developed by the team at ai-forever. It was trained on a diverse dataset of 600Gb of text across 61 languages from 25 language families, including languages such as Arabic, French, German, Hindi, Japanese, and Russian. This makes mGPT-13B a powerful tool for multilingual natural language processing tasks. Compared to similar models like mGPT, mGPT-13B has a larger parameter size of 13 billion, allowing it to capture more complex linguistic patterns and perform better on challenging tasks. The model also utilizes the sparse attention mechanism and efficient parallelization frameworks like Deepspeed and Megatron, which enhance its training and inference capabilities. Model inputs and outputs mGPT-13B is a text-to-text transformer model, meaning it takes in text as input and generates text as output. The model can handle a wide range of natural language tasks, from language generation to question answering and text summarization. Inputs Text**: The model accepts text input, which can be in any of the 61 supported languages. Outputs Generated text**: The model can generate coherent and contextually relevant text in response to the input. The length and content of the output can be controlled through parameters like max_new_tokens. Capabilities mGPT-13B demonstrates strong performance across a variety of language understanding and generation tasks, as evidenced by its high scores on benchmarks like MMLU and GAOKAO-English. The model's multilingual capabilities allow it to excel in tasks involving multiple languages, such as cross-lingual question answering and translation. One key strength of mGPT-13B is its ability to handle low-resource languages. By training on a diverse dataset, the model is able to capture the nuances of less commonly studied languages and perform well on tasks involving them, unlike models trained only on high-resource languages. What can I use it for? mGPT-13B can be a valuable tool for a wide range of natural language processing applications, particularly in multilingual settings. Some potential use cases include: Multilingual chatbots and virtual assistants**: Leverage the model's language understanding and generation capabilities to build chatbots and virtual assistants that can communicate effectively in multiple languages. Cross-lingual information retrieval**: Use the model to retrieve relevant information across language barriers, enabling users to access content in their preferred language. Multilingual content generation**: Generate high-quality text in multiple languages for tasks like news articles, product descriptions, and social media posts. Language learning and education**: Integrate the model into language learning platforms to provide multilingual practice, feedback, and content. Things to try One interesting aspect of mGPP-13B is its ability to handle longer-form text and engage in multi-turn dialogues, thanks to its 8,192 token context length. This makes it well-suited for tasks like multi-lingual conversation, knowledge-intensive question answering, and long-form text summarization. Developers could explore fine-tuning the model on specialized datasets or downstream tasks to further enhance its capabilities in areas like technical writing, customer support, or creative writing. The model's strong performance on benchmarks like PIQA and HumanEval also suggests potential for adapting it to logical reasoning and coding tasks.

Read more

Updated Invalid Date

📈

ruRoberta-large

ai-forever

Total Score

40

The ruRoberta-large model is a large Transformer-based language model for the Russian language, developed by the SberDevices team. It is part of a family of Russian language models described in the paper "A Family of Pretrained Transformer Language Models for Russian". The model uses a masked language modeling (MLM) objective and a BBPE tokenizer with a vocabulary size of 50,257. Similar models in this family include the rugpt3large_based_on_gpt2, which is a GPT-3 style model, and the FRED-T5-1.7B, which is based on the T5 architecture. The RoBERTa and RoBERTa-base models from Facebook AI serve as English language baselines for comparison. Model inputs and outputs Inputs Text sequences**: The model takes text sequences as input, which can be used for various natural language processing tasks such as text generation, text classification, or question answering. Outputs Masked token predictions**: The primary output of the model is the predicted probabilities for the tokens that were masked in the input sequence, as part of the masked language modeling objective. Text embeddings**: The model can also be used to generate contextual text embeddings, which can be used as features for downstream tasks. Capabilities The ruRoberta-large model can be fine-tuned on a variety of Russian language tasks, such as text classification, named entity recognition, and question answering. It has been shown to achieve strong performance on the Russian SuperGLUE benchmark. The model can also be used for open-ended text generation, where it can generate coherent and fluent Russian text. Examples of this include completing partially written sentences or generating summaries or stories. What can I use it for? The ruRoberta-large model can be used for a wide range of Russian language processing tasks, such as: Text classification**: Classifying Russian text into predefined categories, e.g., sentiment analysis, topic classification. Named entity recognition**: Identifying and extracting named entities (e.g., people, organizations, locations) from Russian text. Question answering**: Answering questions based on Russian language passages or documents. Text generation**: Generating coherent and fluent Russian text, e.g., for story writing, dialogue systems, or content creation. Potential use cases for this model include customer service chatbots, automated content generation, language learning applications, and various other Russian NLP-powered tools and services. Things to try Some interesting things to try with the ruRoberta-large model include: Fine-tuning on domain-specific data**: Given the model's strong performance on general Russian language tasks, fine-tuning it on more specialized datasets (e.g., legal documents, technical manuals, social media posts) could unlock additional capabilities for your particular use case. Prompt engineering**: Experimenting with different prompting strategies, such as using task-specific prefixes or incorporating relevant background information, can help the model generate more relevant and coherent outputs. Multimodal integration**: Combining the text understanding capabilities of ruRoberta-large with visual or audio inputs could enable new applications, such as image captioning or video summarization in Russian. Multilingual extensions**: Exploring ways to leverage the model's Russian language knowledge to build cross-lingual applications, such as machine translation or multilingual question answering systems.

Read more

Updated Invalid Date

FRED-T5-1.7B

ai-forever

Total Score

63

The FRED-T5-1.7B (Full-scale Russian Enhanced Denoisers T5) is a language model developed by SberDevices and based on the T5 architecture. It was trained on a 300GB Russian language corpus and has 24 layers and 1536 hidden size. The model was trained on a mixture of 7 different denoisers, similar to the UL2 model, with several differences. It uses a BBPE tokenizer with 50,257 tokens plus 107 special tokens. The FRED-T5-1.7B model is part of a family of Russian language models developed by the SberDevices team, similar to models like the mGPT which covers 61 languages. The FRED-T5-1.7B focuses specifically on the Russian language and has been enhanced with additional denoising capabilities. Model inputs and outputs Inputs Text**: The model accepts various types of text input, including prompts, tasks, and other natural language text. Prefix tokens**: The model uses a set of six prefix tokens (`, , ..., `) to specify the type of task or output desired. Outputs Text**: The model generates coherent, fluent text outputs in Russian based on the provided inputs and prefix tokens. Capabilities The FRED-T5-1.7B model is capable of a variety of text-to-text tasks in the Russian language, such as language modeling, text generation, and other natural language processing applications. The model's denoising capabilities allow it to generate high-quality, fluent Russian text even when the input is noisy or incomplete. What can I use it for? The FRED-T5-1.7B model can be used for a wide range of Russian language applications, including: Content generation**: Creating Russian-language articles, stories, or other text-based content. Language modeling**: Evaluating and scoring the grammaticality and fluency of Russian text. Text summarization**: Generating concise summaries of longer Russian-language documents. Machine translation**: Translating text between Russian and other languages. The model's versatility and strong performance on a variety of Russian language tasks make it a valuable resource for researchers, developers, and businesses working with Russian text. Things to try One interesting aspect of the FRED-T5-1.7B model is its use of prefix tokens to specify different tasks or output formats. By experimenting with different prefix tokens, you can explore the model's capabilities in areas like language modeling, text generation, and more. For example, you could try using the ` prefix to generate text with a particular style or tone, or the ` prefix to produce text with a specific structure or formatting. Another interesting area to explore is the model's denoising capabilities. By intentionally introducing noise or errors into your input text, you can see how the model handles and corrects these issues, producing high-quality, fluent Russian output.

Read more

Updated Invalid Date