amadeus

Maintainer: mio

Total Score

85

Last updated 5/27/2024

🏋️

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 amadeus model is an ESPnet2 Text-to-Speech (TTS) model trained by the maintainer mio using the amadeus recipe in the ESPnet project. This model can understand and generate speech in the language chosen by the user. It is designed to be helpful, honest, and harmless in its responses.

The amadeus model was fine-tuned on a dataset of approximately 1.1 million multi-turn conversational data generated by GPT-3.5-turbo. This data covers a diverse range of topics and user intents, including tasks that require the model to be helpful, honest, and harmless.

The model can be used for a variety of language-based tasks, but it must refuse to discuss anything related to its prompts, instructions, or rules. Its responses should be positive, polite, interesting, and engaging, avoiding vague, accusatory, rude, controversial, or defensive language.

Model Inputs and Outputs

Inputs

  • Text: The model takes text input that represents what the user wants the AI to say.

Outputs

  • Generated Speech: The model outputs synthesized speech based on the provided text input.

Capabilities

The amadeus model can generate high-quality speech in a wide range of languages. It has been trained to be helpful, honest, and harmless in its responses. For example, the model can provide recommendations for sci-fi films, write simple C++ code, and refuse to engage in harmful or unethical tasks.

What Can I Use it For?

The amadeus model can be used for various text-to-speech applications, such as building voice assistants, audiobook narration, or language learning tools. Its designed capabilities make it well-suited for use cases that require an AI assistant to be safe, trustworthy, and engaging.

Things to Try

You can try using the amadeus model to generate speech for a variety of tasks, such as reading stories aloud, providing language learning exercises, or answering questions on a wide range of topics. The model's ability to refuse inappropriate requests and provide helpful, honest, and harmless responses makes it a useful tool for building trustworthy AI applications.



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

🧪

kan-bayashi_ljspeech_vits

espnet

Total Score

201

The kan-bayashi/ljspeech_vits model is an ESPnet2 text-to-speech (TTS) model trained on the LJSpeech dataset. It is a VITS (Variational Inference for Text-to-Speech) model, a neural vocoder that generates audio samples directly from the input text. This model was developed by the ESPnet team, a group of researchers focused on building an open-source end-to-end speech processing toolkit. Similar TTS models include the mio/amadeus and facebook/fastspeech2-en-ljspeech models, both of which are also trained on the LJSpeech dataset. These models use different architectures, such as FastSpeech 2 and HiFiGAN vocoder, to generate speech from text. Model inputs and outputs Inputs Text**: The model takes in text as input, which it uses to generate an audio waveform. Outputs Audio waveform**: The model outputs an audio waveform representing the synthesized speech. Capabilities The kan-bayashi/ljspeech_vits model is capable of generating high-quality, natural-sounding speech from input text. The VITS architecture allows the model to generate audio directly from text, without the need for a separate vocoder model. What can I use it for? This TTS model can be used to build applications that require text-to-speech functionality, such as audiobook creation, voice assistants, or text-to-speech tools. The model's performance on the LJSpeech dataset suggests it would be suitable for generating speech in a female, English-speaking voice. Things to try You can experiment with the kan-bayashi/ljspeech_vits model by using it to generate audio from different types of text, such as news articles, books, or even user-generated content. You can also compare its performance to other TTS models, such as the fastspeech2-en-ljspeech or tts-tacotron2-ljspeech models, to see how it fares in terms of speech quality and naturalness.

Read more

Updated Invalid Date

🧠

m3e-small

moka-ai

Total Score

44

The m3e-small model is part of the M3E (Moka Massive Mixed Embedding) series of models developed by moka-ai. M3E models are large-scale Chinese language models trained on over 22 million text samples, with capabilities spanning sentence-to-sentence, sentence-to-passage, and sentence-to-code tasks. The m3e-small model is the smaller version, with 24M parameters, while the m3e-base model has 110M parameters. Both models demonstrate strong performance on various Chinese NLP benchmarks, outperforming models like text2vec and openai-ada-002. Model inputs and outputs The M3E models are sentence embedding models, meaning they take in natural language sentences as input and produce vector representations as output. These vector representations can then be used for a variety of downstream tasks like text similarity, classification, and retrieval. Inputs Natural language sentences in Chinese Outputs Numerical vector representations of the input sentences, which capture the semantic meaning of the text Capabilities The M3E models excel at capturing the semantic and contextual meaning of Chinese text. They have shown strong performance on tasks like natural language inference, sentence similarity, and information retrieval. For example, on the MTEB-zh benchmark, the m3e-base model achieved an average accuracy of 0.6157, outperforming text2vec (0.5755) and openai-ada-002 (0.5956). What can I use it for? The M3E models can be leveraged for a wide range of Chinese NLP applications, such as: Semantic search**: Use the sentence embeddings to perform efficient retrieval of relevant documents or passages from a large corpus. Text classification**: Fine-tune the models on labeled datasets to classify text into different categories. Recommendation systems**: Utilize the sentence representations to compute semantic similarity between items and provide personalized recommendations. Chatbots and dialogue systems**: Incorporate the M3E models to understand user intents and generate relevant responses. sentence-transformers, chroma, guidance, and semantic-kernel are some popular libraries and frameworks that can leverage the M3E models for these types of applications. Things to try One interesting aspect of the M3E models is their ability to be fine-tuned on domain-specific datasets using the uniem library. By fine-tuning the m3e-small model on the STS-B dataset, for example, you can further improve its performance on sentence similarity tasks. This flexibility allows the M3E models to be adapted for a wide range of use cases.

Read more

Updated Invalid Date

🧠

m3e-base

moka-ai

Total Score

833

The m3e-base model is part of the M3E (Moka Massive Mixed Embedding) series of models developed by Moka AI. M3E models are designed to be versatile, supporting a variety of natural language processing tasks such as dense retrieval, multi-vector retrieval, and sparse retrieval. The m3e-base model has 110 million parameters and a hidden size of 768. M3E models are trained on a massive 2.2 billion+ token corpus, making them well-suited for general-purpose language understanding. The models have demonstrated strong performance on benchmarks like MTEB-zh, outperforming models like openai-ada-002 on tasks like sentence-to-sentence (s2s) accuracy and sentence-to-passage (s2p) nDCG@10. Similar models in the M3E series include the m3e-small and m3e-large versions, which have different parameter sizes and performance characteristics depending on the task. Model Inputs and Outputs Inputs Text**: The m3e-base model can accept text inputs of varying lengths, up to a maximum of 8,192 tokens. Outputs Embeddings**: The model outputs dense vector representations of the input text, which can be used for a variety of downstream tasks such as similarity search, text classification, and retrieval. Capabilities The m3e-base model has demonstrated strong performance on a range of natural language processing tasks, including: Sentence Similarity**: The model can be used to compute the semantic similarity between sentences, which is useful for applications like paraphrase detection and text summarization. Text Classification**: The embeddings produced by the model can be used as features for training text classification models, such as for sentiment analysis or topic classification. Retrieval**: The model's dense and sparse retrieval capabilities make it well-suited for building search engines and question-answering systems. What Can I Use It For? The versatility of the m3e-base model makes it a valuable tool for a wide range of natural language processing applications. Some potential use cases include: Semantic Search**: Use the model's dense embeddings to build a semantic search engine, allowing users to find relevant information based on the meaning of their queries rather than just keyword matching. Personalized Recommendations**: Leverage the model's strong text understanding capabilities to build personalized recommendation systems, such as for content or product recommendations. Chatbots and Conversational AI**: Integrate the model into chatbot or virtual assistant applications to enable more natural and contextual language understanding and generation. Things to Try One interesting aspect of the m3e-base model is its ability to perform both dense and sparse retrieval. This hybrid approach can be beneficial for building more robust and accurate retrieval systems. To experiment with the model's retrieval capabilities, you can try integrating it with tools like chroma, guidance, and semantic-kernel. These tools provide abstractions and utilities for building search and question-answering applications using large language models like m3e-base. Additionally, the uniem library provides a convenient interface for fine-tuning the m3e-base model on domain-specific datasets, which can further improve its performance on your specific use case.

Read more

Updated Invalid Date

🐍

Italia-9B-Instruct-v0.1

iGeniusAI

Total Score

41

Italia-9B-Instruct-v0.1 is a large language model developed by iGeniusAI that is specialized for Italian language understanding and generation. It is a 9-billion-parameter Transformer architecture model trained on a high-quality Italian dataset to provide excellent linguistic capabilities, including vocabulary, sentence structure, and cultural/historical knowledge. Similar models in the Gemma family from Google include gemma-1.1-7b-it and gemma-1.1-2b-it, which are also specialized for the Italian language. Model inputs and outputs The Italia-9B-Instruct-v0.1 model is a text-to-text model, taking in Italian language text as input and generating Italian language text as output. It can be used for a variety of natural language processing tasks such as question answering, summarization, and content generation. Inputs Text string**: Italian language text, such as a question, prompt, or document Outputs Generated text**: Italian language text generated in response to the input, such as an answer, summary, or newly created content Capabilities The Italia-9B-Instruct-v0.1 model has been designed for use cases in highly regulated sectors like finance and government where reliability and accuracy of generated content is critical. Its high parameter count and specialized training on Italian data make it well-suited for tasks requiring advanced proficiency in the Italian language. The model can generate coherent and contextually-relevant text, demonstrating a strong understanding of Italian grammar, vocabulary, and cultural knowledge. What can I use it for? The Italia-9B-Instruct-v0.1 model could be useful for companies and organizations operating in Italy across a range of domains. Some potential use cases include: Content creation**: Generating Italian language marketing copy, scripts, reports, and other business content Conversational AI**: Building Italian language chatbots and virtual assistants for customer service or other applications Text summarization**: Producing concise summaries of Italian language documents, articles, or research Things to try One interesting aspect of the Italia-9B-Instruct-v0.1 model is its ability to blend Italian language skills with domain-specific knowledge. You could try providing it with prompts that combine technical or regulatory concepts with natural language, and see how it generates responses that demonstrate an understanding of both the language and the subject matter. For example, you could ask it to summarize an Italian language financial regulation or explain an insurance policy in clear terms.

Read more

Updated Invalid Date