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| Create a gradio which acts a basic voice assient capable of executing task | |
| make the applicatio in python and deplyoble on hugging face spaces | |
| use the transformers api from hugging face where every possible | |
| Start by using fasterwhisper to convert speach into text; do this in chunks | |
| detect if the user stops talking and use senteinet anaylsis to figure if the user stopped to think or asked a question | |
| if the user aksed a question feed it to chat gpt-oss-120b | |
| give chat gpt acees to a bunch of get info; get booking dates; create; booking; take order | |
| get a resoponce from chat gpt and play and conver it audio using Higgs Audio V2 [https://huggingface.co/bosonai/higgs-audio-v2-generation-3B-base] | |
| feed this audio responce back to gradio app; make sure all the models are avible and ready at the same time for real time conversation | |
| Creating a Voice Assistant with Gradio for Hugging Face Spaces | |
| This explanation details how to build a sophisticated voice assistant using Gradio that can be deployed on Hugging Face Spaces. The assistant will provide real-time interaction capabilities with speech-to-text conversion, intelligent conversation analysis, and natural-sounding responses. | |
| ## System Architecture | |
| The voice assistant consists of several key components working together: | |
| 1. **Speech-to-Text (STT)** - Using Faster Whisper for efficient and accurate transcription | |
| 2. **Conversation Analysis** - Sentiment analysis to detect user intent and conversation flow | |
| 3. **Natural Language Processing** - GPT model integration for intelligent responses | |
| 4. **Text-to-Speech (TTS)** - Higgs Audio V2 for high-quality voice synthesis | |
| 5. **User Interface** - Gradio for a clean, accessible web interface | |
| ## Detailed Implementation Steps | |
| ### 1. Speech-to-Text Processing | |
| The system will use Faster Whisper, an optimized version of OpenAI's Whisper model, to convert user speech to text: | |
| - Implement chunk-based audio processing to handle continuous speech | |
| - Configure the model to process audio in near real-time (16kHz sampling rate) | |
| - Optimize for latency by using a smaller model variant for initial deployment | |
| - Implement adaptive silence detection to identify when a user has finished speaking | |
| - Batch process audio frames to balance accuracy and responsiveness | |
| ### 2. Conversation Flow Analysis | |
| The system will use sentiment analysis and conversational cues to determine user intent: | |
| - Implement a pause detection algorithm that analyzes audio for natural breaks | |
| - Use transformer-based sentiment analysis to distinguish between: | |
| - Questions requiring information | |
| - Thinking pauses (user contemplating) | |
| - Statements or commands | |
| - Track conversation context to improve understanding of follow-up queries | |
| - Calculate confidence scores for detected intents to handle ambiguous cases | |
| ``` | |
| ### 3. GPT Model Integration | |
| The system will use a powerful language model to generate contextually relevant responses: | |
| - Integrate with Hugging Face's `gpt-oss-120b` or equivalent open-source large language model | |
| - Provide the model with specialized system prompts for different tasks: | |
| - Information retrieval (get_info) | |
| - Booking management (get_booking_dates, create_booking) | |
| - Order processing (take_order) | |
| - Implement context management to maintain conversation history | |
| - Use function calling capabilities to execute specific tasks based on user requests | |
| - Apply rate limiting and token optimization for efficient resource usage | |
| ### 4. Text-to-Speech Synthesis | |
| The system will convert text responses to natural-sounding speech: | |
| - Integrate Higgs Audio V2 model from Hugging Face for high-quality voice synthesis | |
| - Configure voice parameters (pitch, speed, style) for natural conversation | |
| - Implement streaming audio playback to minimize perceived latency | |
| - Cache common responses to improve performance | |
| - Add prosody and emphasis based on sentiment and content type | |
| ### 5. Gradio Interface Implementation | |
| The system will use Gradio to create an intuitive, accessible user interface: | |
| - Design a clean interface with audio input and output components | |
| - Implement WebRTC for low-latency audio streaming | |
| - Add visual feedback indicators for system status (listening, processing, speaking) | |
| - Include text display of transcriptions and responses for accessibility | |
| - Provide controls for adjusting voice parameters and conversation settings | |
| - Ensure responsive design for both desktop and mobile use | |
| ## Hugging Face Spaces Deployment | |
| To deploy the application on Hugging Face Spaces: | |
| 1. Create a `requirements.txt` file with all necessary dependencies: | |
| - gradio | |
| - transformers | |
| - torch | |
| - faster-whisper | |
| - numpy | |
| - scipy | |
| - ffmpeg-python | |
| 3. Implement model caching: | |
| - Use Hugging Face's model caching mechanisms to improve loading times | |
| - Implement progressive loading to make the interface available quickly | |
| 4. Create a `README.md` with clear usage instructions and capabilities | |
| 5. Add a Spaces SDK configuration file to specify resource requirements |