Tag: AI

  • 2025: Best and free platform to deploy python application like vercel

    2025: Best and free platform to deploy python application like vercel

    Best and free platform to deploy python application
    Best and free platform to deploy Python application

    Several platforms offer free options for deploying Python applications, each with its own features and limitations. Here are some of the top contenders:

    • Render: Render is a cloud service that allows you to build and run apps and websites, with free TLS certificates, a global CDN, and auto-deploys from Git[1]. It supports web apps, static sites, Docker containers, cron jobs, background workers, and fully managed databases. Most services, including Python web apps, have a free tier to get started[1]. Render’s free auto-scaling feature ensures your app has the necessary resources, and everything hosted on Render gets a free TLS certificate. It is a user-friendly Heroku alternative, offering a streamlined deployment process and an intuitive management interface.
    • PythonAnywhere: This platform has been around for a while and is well-known in the Python community[1]. It is a reliable and simple service to get started with[1]. You get one web app with a pythonanywhere.com domain for free, with upgraded plans starting at $5 per month.
    • Railway: Railway is a deployment platform where you can provision infrastructure, develop locally, and deploy to the cloud[1]. They provide templates to get started with different frameworks and allow deployment from an existing GitHub repo[1]. The Starter tier can be used for free without a credit card, and the Developer tier is free under $5/month.
    • GitHub: While you can’t host web apps on GitHub, you can schedule scripts to run regularly with GitHub Actions and cron jobs. The free tier includes 2,000 minutes per month, which is enough to run many scripts multiple times a day.
    • Anvil: Anvil is a Python web app platform that allows you to build and deploy web apps for free. It offers a drag-and-drop designer, a built-in Python server environment, and a built-in Postgres-backed database.

    When choosing a platform, consider the specific needs of your application, including the required resources, dependencies, and traffic volume. Some platforms may have limitations on outbound internet access or the number of projects you can create.

  • Build Your Own and Free AI Health Assistant, Personalized Healthcare

    Build Your Own and Free AI Health Assistant, Personalized Healthcare

    Imagine having a 24/7 health companion that analyzes your medical history, tracks real-time vitals, and offers tailored advice—all while keeping your data private. This is the reality of AI health assistants, open-source tools merging artificial intelligence with healthcare to empower individuals and professionals alike. Let’s dive into how these systems work, their transformative benefits, and how you can build one using platforms like OpenHealthForAll 

    What Is an AI Health Assistant?

    An AI health assistant is a digital tool that leverages machine learning, natural language processing (NLP), and data analytics to provide personalized health insights. For example:

    • OpenHealth consolidates blood tests, wearable data, and family history into structured formats, enabling GPT-powered conversations about your health.
    • Aiden, another assistant, uses WhatsApp to deliver habit-building prompts based on anonymized data from Apple Health or Fitbit.

    These systems prioritize privacy, often running locally or using encryption to protect sensitive information.


    Why AI Health Assistants Matter: 5 Key Benefits

    1. Centralized Health Management
      Integrate wearables, lab reports, and EHRs into one platform. OpenHealth, for instance, parses blood tests and symptoms into actionable insights using LLMs like Claude or Gemini.
    2. Real-Time Anomaly Detection
      Projects like Kavya Prabahar’s virtual assistant use RNNs to flag abnormal heart rates or predict fractures from X-rays.
    3. Privacy-First Design
      Tools like Aiden anonymize data via Evervault and store records on blockchain (e.g., NearestDoctor’s smart contracts) to ensure compliance with regulations like HIPAA.
    4. Empathetic Patient Interaction
      Assistants like OpenHealth use emotion-aware AI to provide compassionate guidance, reducing anxiety for users managing chronic conditions.
    5. Cost-Effective Scalability
      Open-source frameworks like Google’s Open Health Stack (OHS) help developers build offline-capable solutions for low-resource regions, accelerating global healthcare access.

    Challenges and Ethical Considerations

    While promising, AI health assistants face hurdles:

    • Data Bias: Models trained on limited datasets may misdiagnose underrepresented groups.
    • Interoperability: Bridging EHR systems (e.g., HL7 FHIR) with AI requires standardization efforts like OHS.
    • Regulatory Compliance: Solutions must balance innovation with safety, as highlighted in Nature’s call for mandatory feedback loops in AI health tech.

    Build Your Own AI Health Assistant: A Developer’s Guide

    Step 1: Choose Your Stack

    • Data Parsing: Use OpenHealth’s Python-based parser (migrating to TypeScript soon) to structure inputs from wearables or lab reports.
    • AI Models: Integrate LLaMA or GPT-4 via APIs, or run Ollama locally for privacy.

    Step 2: Prioritize Security

    • Encrypt user data with Supabase or Evervault.
    • Implement blockchain for audit trails, as seen in NearestDoctor’s medical records system.

    Step 3: Start the setup

    Clone the Repository:

    git clone https://github.com/OpenHealthForAll/open-health.git
    cd open-health

    Setup and Run:

    # Copy environment file
    cp .env.example .env
    
    # Add API keys to .env file:
    # UPSTAGE_API_KEY - For parsing (You can get $10 credit without card registration by signing up at https://www.upstage.ai)
    # OPENAI_API_KEY - For enhanced parsing capabilities
    
    # Start the application using Docker Compose
    docker compose --env-file .env up

    For existing users, use:

    docker compose --env-file .env up --build
    1. Access OpenHealth: Open your browser and navigate to http://localhost:3000 to begin using OpenHealth.

    The Future of AI Health Assistants

    1. Decentralized AI Marketplaces: Platforms like Ocean Protocol could let users monetize health models securely.
    2. AI-Powered Diagnostics: Google’s Health AI Developer Foundations aim to simplify building diagnostic tools for conditions like diabetes.
    3. Global Accessibility: Initiatives like OHS workshops in Kenya and India are democratizing AI health tech.

    Your Next Step

    • Contribute to OpenHealth’s GitHub repo to enhance its multilingual support.
  • OmniHuman-1: AI Model Generates Lifelike Human Videos from a Single Image

    OmniHuman-1: AI Model Generates Lifelike Human Videos from a Single Image

    OmniHuman-1 is an advanced AI model developed by ByteDance that generates realistic human videos from a single image and motion signals, such as audio or video inputs. This model supports various visual and audio styles, accommodating different aspect ratios and body proportions, including portrait, half-body, and full-body formats. Its capabilities extend to producing lifelike videos with natural motion, lighting, and texture details.

    OmniHuman-1  by ByteDance

    As of now, ByteDance has not released the OmniHuman-1 model or its weights to the public. The official project page states, “Currently, we do not offer services or downloads anywhere. Please be cautious of fraudulent information. We will provide timely updates on future developments.”

    ByteDance, the parent company of TikTok, has recently unveiled OmniHuman-1, an advanced AI model capable of generating realistic human videos from a single image and motion signals such as audio or video inputs. This development marks a significant leap in AI-driven human animation, offering potential applications across various industries.

    Key Features of OmniHuman-1

    • Multimodal Input Support: OmniHuman-1 can generate human videos based on a single image combined with motion signals, including audio-only, video-only, or a combination of both. This flexibility allows for diverse applications, from creating talking head videos to full-body animations.
    • Aspect Ratio Versatility: The model supports image inputs of any aspect ratio, whether they are portraits, half-body, or full-body images. This adaptability ensures high-quality results across various scenarios, catering to different content creation needs.
    • Enhanced Realism: OmniHuman-1 significantly outperforms existing methods by generating extremely realistic human videos based on weak signal inputs, especially audio. The realism is evident in comprehensive aspects, including motion, lighting, and texture details.

    Current Availability

    As of now, ByteDance has not released the OmniHuman-1 model or its weights to the public. The official project page states, “Currently, we do not offer services or downloads anywhere. Please be cautious of fraudulent information. We will provide timely updates on future developments.”

    Implications and Considerations

    The capabilities of OmniHuman-1 open up numerous possibilities in fields such as digital content creation, virtual reality, and entertainment. However, the technology also raises ethical considerations, particularly concerning the potential for misuse in creating deepfake content. It is crucial for developers, policymakers, and users to engage in discussions about responsible use and the establishment of guidelines to prevent abuse.

    OmniHuman-1 represents a significant advancement in AI-driven human animation, showcasing the rapid progress in this field. While its public release is still pending, the model’s demonstrated capabilities suggest a promising future for AI applications in creating realistic human videos. As with any powerful technology, it is essential to balance innovation with ethical considerations to ensure beneficial outcomes for society.

  • How to Install and Run Virtuoso-Medium-v2 Locally: A Step-by-Step Guide

    How to Install and Run Virtuoso-Medium-v2 Locally: A Step-by-Step Guide

    Virtuoso-Medium-v2 is here, Are you ready to harness the power of Virtuoso-Medium-v2 , the next-generation 32-billion-parameter language model? Whether you’re building advanced chatbots, automating workflows, or diving into research simulations, this guide will walk you through installing and running Virtuoso-Medium-v2 on your local machine. Let’s get started!

    Virtuoso-Medium-v2

    Why Choose Virtuoso-Medium-v2?

    Before we dive into the installation process, let’s briefly understand why Virtuoso-Medium-v2 stands out:

    • Distilled from Deepseek-v3 : With over 5 billion tokens worth of logits, it delivers unparalleled performance in technical queries, code generation, and mathematical problem-solving.
    • Cross-Architecture Compatibility : Thanks to “tokenizer surgery,” it integrates seamlessly with Qwen and Deepseek tokenizers.
    • Apache-2.0 License : Use it freely for commercial or non-commercial projects.

    Now that you know its capabilities, let’s set it up locally.

    Prerequisites

    Before installing Virtuoso-Medium-v2, ensure your system meets the following requirements:

    1. Hardware :
      • GPU with at least 24GB VRAM (recommended for optimal performance).
      • Sufficient disk space (~50GB for model files).
    2. Software :
      • Python 3.8 or higher.
      • PyTorch installed (pip install torch).
      • Hugging Face transformers library (pip install transformers).

    Step 1: Download the Model

    The first step is to download the Virtuoso-Medium-v2 model from Hugging Face. Open your terminal and run the following commands:

    # Install necessary libraries
    pip install transformers torch
    
    # Clone the model repository
    from transformers import AutoTokenizer, AutoModelForCausalLM
    
    model_name = "arcee-ai/Virtuoso-Medium-v2"
    tokenizer = AutoTokenizer.from_pretrained(model_name)
    model = AutoModelForCausalLM.from_pretrained(model_name)

    This will fetch the model and tokenizer directly from Hugging Face.


    Step 2: Prepare Your Environment

    Ensure your environment is configured correctly:
    1. Set up a virtual environment to avoid dependency conflicts:

    python -m venv virtuoso-env
    source virtuoso-env/bin/activate  # On Windows: virtuoso-env\Scripts\activate

    2. Install additional dependencies if needed:

    pip install accelerate

    Step 3: Run the Model

    Once the model is downloaded, you can test it with a simple prompt. Here’s an example script:

    from transformers import AutoTokenizer, AutoModelForCausalLM
    
    # Load the model and tokenizer
    model_name = "arcee-ai/Virtuoso-Medium-v2"
    tokenizer = AutoTokenizer.from_pretrained(model_name)
    model = AutoModelForCausalLM.from_pretrained(model_name)
    
    # Define your input prompt
    prompt = "Explain the concept of quantum entanglement in simple terms."
    inputs = tokenizer(prompt, return_tensors="pt")
    
    # Generate output
    outputs = model.generate(**inputs, max_new_tokens=150)
    print(tokenizer.decode(outputs[0], skip_special_tokens=True))

    Run the script, and you’ll see the model generate a concise explanation of quantum entanglement!

    Step 4: Optimize Performance

    To maximize performance:

    Use quantization techniques to reduce memory usage.

    Enable GPU acceleration by setting device_map="auto" during model loading:

    model = AutoModelForCausalLM.from_pretrained(model_name, device_map="auto")

    Troubleshooting Tips

    • Out of Memory Errors : Reduce the max_new_tokens parameter or use quantized versions of the model.
    • Slow Inference : Ensure your GPU drivers are updated and CUDA is properly configured.

    With Virtuoso-Medium-v2 installed locally, you’re now equipped to build cutting-edge AI applications. Whether you’re developing enterprise tools or exploring STEM education, this model’s advanced reasoning capabilities will elevate your projects.

    Ready to take the next step? Experiment with Virtuoso-Medium-v2 today and share your experiences with the community! For more details, visit the official Hugging Face repository .

  • STEM Reasoning Explained: How Logical Thinking Drives Progress in Every Industry

    Hey there! Let’s talk about something that powers a lot of the innovation happening around us: STEM reasoning. If you’re involved in tech, science, engineering, or even math, you’ve likely come across this concept, but what does it really mean? And why is it so crucial in today’s world?

    What is STEM Reasoning?

    At its core, STEM reasoning is about thinking logically, analytically, and systematically to solve problems. It’s the skill that allows us to break down complex challenges into understandable parts, identify patterns, and then come up with solutions that are both effective and efficient.

    When you apply STEM reasoning, you’re using principles from Science, Technology, Engineering, and Mathematics to approach a problem and find the best solution. Think of it as the foundation for how we solve everything from math equations and coding bugs to designing machines or even predicting climate changes.

    Why Does STEM Reasoning Matter?

    Here’s the thing: STEM reasoning is essential because the world is getting more complex. Whether you’re working on a new tech startup, conducting a scientific experiment, or building the next generation of engineering marvels, you’ll need to approach problems logically. Without clear reasoning, we’d miss the patterns, connections, and solutions that push us forward.

    For example:

    • In Science, it helps us test hypotheses, design experiments, and make sense of vast amounts of data.
    • In Technology, it’s what allows us to write algorithms, troubleshoot software, and keep systems running smoothly.
    • In Engineering, it ensures that what we design is practical, safe, and efficient.
    • In Mathematics, it’s about applying formulas and logic to solve problems and uncover truths about the world.

    How Does AI Fit Into STEM Reasoning?

    Here’s where it gets interesting. AI is starting to play a huge role in amplifying our reasoning skills. Imagine having an assistant that can help you think through complex problems faster, more accurately, and without missing important details.

    Take OpenAI o3-mini as an example. It’s a model designed specifically to assist with STEM reasoning tasks. Whether you’re coding, solving math problems, or figuring out engineering designs, AI models like o3-mini can help you reason through difficult problems quickly, give you precise solutions, and even integrate the latest information from real-time searches.

    AI is not here to replace human reasoning; it’s here to augment it—helping us think more clearly, solve problems faster, and focus on what truly matters. It can take care of the repetitive parts, giving us more time to focus on creative, complex solutions.

    STEM Reasoning: The Future of Innovation

    Think about the future. As we advance in fields like quantum computing, biotechnology, and space exploration, we’re going to need sharp reasoning skills more than ever. STEM reasoning won’t just be a skill—it will be the backbone of every innovation we make. The better we are at thinking critically and solving problems, the faster we can address global challenges like climate change, disease prevention, and technological advancement.

    So, Why Should You Care?

    Whether you’re working in research, tech, or just trying to solve a tricky problem in your daily work, STEM reasoning will help you think clearer, solve problems faster, and come up with better solutions. Plus, if you start leveraging AI tools to assist with reasoning tasks, you’ll be working smarter—not harder.

    💬 How do you use STEM reasoning in your work?
    I’d love to hear how you apply this way of thinking in your field, whether you’re coding, designing, researching, or engineering something new. Drop a comment below and let’s discuss how STEM reasoning is shaping our world.

  • OpenAI o3-mini: Powerful, Fast, and Cost-Efficient for STEM Reasoning

    OpenAI o3-mini: Powerful, Fast, and Cost-Efficient for STEM Reasoning

    Exciting news from OpenAI—the highly anticipated o3-mini model is now available in ChatGPT and the API, offering groundbreaking capabilities for a wide range of use cases, particularly in science, math, and coding. First previewed in December 2024, o3-mini is designed to push the boundaries of what small models can achieve while keeping costs low and maintaining the fast response times that users have come to expect from o1-mini.

    Key Features of OpenAI o3-mini:

    🔹 Next-Level Reasoning for STEM Tasks
    o3-mini delivers exceptional STEM reasoning performance, with particular strength in science, math, and coding. It maintains the cost efficiency and low latency of its predecessor, o1-mini, but packs a much stronger punch in terms of reasoning power and accuracy.

    🔹 Developer-Friendly Features
    For developers, o3-mini introduces a host of highly-requested features:

    • Function Calling
    • Structured Outputs
    • Developer Messages
      These features make o3-mini production-ready right out of the gate. Additionally, developers can select from three reasoning effort options—low, medium, and high—allowing for fine-tuned control over performance. Whether you’re prioritizing speed or accuracy, o3-mini has you covered.

    🔹 Search Integration for Up-to-Date Answers
    For the first time, o3-mini works with search, enabling it to provide up-to-date answers along with links to relevant web sources. This integration is part of OpenAI’s ongoing effort to incorporate real-time search across their reasoning models, and while it’s still in an early prototype stage, it’s a step towards an even smarter, more responsive model.

    🔹 Enhanced Access for Paid Users
    Pro, Team, and Plus users will have triple the rate limits compared to o1-mini, with up to 150 messages per day instead of the 50 available on the earlier model. Plus, all paid users can select o3-mini-high, which offers a higher-intelligence version with slightly longer response times, ensuring Pro users have unlimited access to both o3-mini and o3-mini-high.

    🔹 Free Users Can Try o3-mini!
    For the first time, free users can also explore o3-mini in ChatGPT by simply selecting the ‘Reason’ button in the message composer or regenerating a response. This brings access to high-performance reasoning capabilities previously only available to paid users.

    🔹 Optimized for Precision & Speed
    o3-mini is optimized for technical domains, where precision and speed are key. When set to medium reasoning effort, it delivers the same high performance as o1 on complex tasks but with much faster response times. In fact, evaluations show that o3-mini produces clearer, more accurate answers with a 39% reduction in major errors compared to o1-mini.


    A Model Built for Technical Excellence

    Whether you’re tackling challenging problems in math, coding, or science, o3-mini is designed to give you faster, more precise results. Expert testers have found that o3-mini beats o1-mini in 56% of cases, particularly when it comes to real-world, difficult questions like those found in AIME and GPQA evaluations. It’s a clear choice for tasks that require a blend of intelligence and speed.


    Rolling Out to Developers and Users

    Starting today, o3-mini is rolling out in the Chat Completions API, Assistants API, and Batch API to developers in API usage tiers 3-5. ChatGPT Plus, Team, and Pro users have access starting now, with Enterprise access coming in February.

    This model will replace o1-mini in the model picker, making it the go-to choice for STEM reasoning, logical problem-solving, and coding tasks.


    OpenAI o3-mini marks a major leap in small model capabilities—delivering both powerful reasoning and cost-efficiency in one package. As OpenAI continues to refine and optimize these models, o3-mini sets a new standard for fast, intelligent, and reliable solutions for developers and users alike.

    Competition Math (AIME 2024)

    Competition Math (AIME 2024)

    Mathematics: With low reasoning effort, OpenAI o3-mini achieves comparable performance with OpenAI o1-mini, while with medium effort, o3-mini achieves comparable performance with o1. Meanwhile, with high reasoning effort, o3-mini outperforms both OpenAI o1-mini and OpenAI o1, where the gray shaded regions show the performance of majority vote (consensus) with 64 samples.

    PhD-level Science Questions (GPQA Diamond)

    PhD-level Science Questions (GPQA Diamond)

    PhD-level science: On PhD-level biology, chemistry, and physics questions, with low reasoning effort, OpenAI o3-mini achieves performance above OpenAI o1-mini. With high effort, o3-mini achieves comparable performance with o1.

    FrontierMath

    A black grid with multiple rows and columns, separated by thin white lines, creating a structured and organized layout.

    Research-level mathematics: OpenAI o3-mini with high reasoning performs better than its predecessor on FrontierMath. On FrontierMath, when prompted to use a Python tool, o3-mini with high reasoning effort solves over 32% of problems on the first attempt, including more than 28% of the challenging (T3) problems. These numbers are provisional, and the chart above shows performance without tools or a calculator.

    Competition Code (Codeforces)

    Competition coding: On Codeforces competitive programming, OpenAI o3-mini achieves progressively higher Elo scores with increased reasoning effort, all outperforming o1-mini. With medium reasoning effort, it matches o1’s performance.

    Software Engineering (SWE-bench Verified)

    Software Engineering (SWE-bench Verified)

    Software engineering: o3-mini is our highest performing released model on SWEbench-verified. For additional datapoints on SWE-bench Verified results with high reasoning effort, including with the open-source Agentless scaffold (39%) and an internal tools scaffold (61%), see our system card⁠.

    LiveBench Coding

    The table compares AI models on coding tasks, showing performance metrics and evaluation scores. It highlights differences in accuracy and efficiency, with some models outperforming others in specific benchmarks.

    LiveBench coding: OpenAI o3-mini surpasses o1-high even at medium reasoning effort, highlighting its efficiency in coding tasks. At high reasoning effort, o3-mini further extends its lead, achieving significantly stronger performance across key metrics.

    General knowledge

    The table titled "Category Evals" compares AI models across different evaluation categories, showing performance metrics. It highlights differences in accuracy, efficiency, and effectiveness, with some models outperforming others in specific tasks.

    General knowledge: o3-mini outperforms o1-mini in knowledge evaluations across general knowledge domains.

    Model speed and performance

    With intelligence comparable to OpenAI o1, OpenAI o3-mini delivers faster performance and improved efficiency. Beyond the STEM evaluations highlighted above, o3-mini demonstrates superior results in additional math and factuality evaluations with medium reasoning effort. In A/B testing, o3-mini delivered responses 24% faster than o1-mini, with an average response time of 7.7 seconds compared to 10.16 seconds.

    Explore more and try it for yourself: OpenAI o3-mini Announcement

  • Enterprise Agentic RAG Template by Dell AI Factory with NVIDIA

    In today’s data-driven world, organizations are constantly seeking innovative solutions to extract value from their vast troves of information. The convergence of powerful hardware, advanced AI frameworks, and efficient data management systems is critical for success. This post will delve into a cutting-edge solution: Enterprise Agentic RAG on Dell AI Factory with NVIDIA and Elasticsearch vector database. This architecture provides a scalable, compliant, and high-performance platform for complex data retrieval and decision-making, with particular relevance to healthcare and other data-intensive industries.

    Understanding the Core Components

    Before diving into the specifics, let’s define the key components of this powerful solution:

    • Agentic RAG: Agentic Retrieval-Augmented Generation (RAG) is an advanced AI framework that combines the power of Large Language Models (LLMs) with the precision of dynamic data retrieval. Unlike traditional LLMs that rely solely on pre-trained knowledge, Agentic RAG uses intelligent agents to connect with various data sources, ensuring contextually relevant, up-to-date, and accurate responses. It goes beyond simple retrieval to create a dynamic workflow for decision-making.
    • Dell AI Factory with NVIDIA: This refers to a robust hardware and software infrastructure provided by Dell Technologies in collaboration with NVIDIA. It leverages NVIDIA GPUs, Dell PowerEdge servers, and NVIDIA networking technologies to provide an efficient platform for AI training, inference, and deployment. This partnership brings together industry-leading hardware with AI microservices and libraries, ensuring optimal performance and reliability.
    • Elasticsearch Vector Database: Elasticsearch is a powerful, scalable search and analytics engine. When configured as a vector database, it stores vector embeddings of data (e.g., text, images) and enables efficient similarity searches. This is essential for the RAG process, where relevant information needs to be retrieved quickly from large datasets.

    The Synergy of Enterprise Agentic RAG, Dell AI Factory, and Elasticsearch

    The integration of Agentic RAG on Dell AI Factory with NVIDIA and Elasticsearch vector database creates a powerful ecosystem for handling complex data challenges. Here’s how these components work together:

    1. Data Ingestion: The process begins with the ingestion of structured and unstructured data from various sources. This includes documents, PDFs, text files, and structured databases. Dell AI Factory leverages specialized tools like the NVIDIA Multimodal PDF Extraction Tool to convert unstructured data (e.g., images and charts in PDFs) into searchable formats.
    2. Data Storage and Indexing: The extracted data is then transformed into vector embeddings using NVIDIA NeMo Embedding NIMs. These embeddings are stored in the Elasticsearch vector database, which allows for efficient semantic searches. Elasticsearch’s fast search capabilities ensure that relevant data can be accessed quickly.
    3. Data Retrieval: Upon receiving a query, the system utilizes the NeMo Retriever NIM to fetch the most pertinent information from the Elasticsearch vector database. The NVIDIA NeMo Reranking NIM refines these results to ensure that the highest quality, contextually relevant content is delivered.
    4. Response Generation: The LLM agent, powered by NVIDIA’s Llama-3.1-8B-instruct NIM or similar LLMs, analyzes the retrieved data to generate a contextually aware and accurate response. The entire process is orchestrated by LangGraph, which ensures smooth data flow through the system.
    5. Validation: Before providing the final answer, a hallucination check module ensures that the response is grounded in the retrieved data and avoids generating false or unsupported claims. This step is particularly crucial in sensitive fields like healthcare.

    Benefits of Agentic RAG on Dell AI Factory with NVIDIA and Elasticsearch

    This powerful combination offers numerous benefits across various industries:

    • Scalability: The Dell AI Factory’s robust infrastructure, coupled with the scalability of Elasticsearch, ensures that the solution can handle massive amounts of data and user requests without performance bottlenecks.
    • Compliance: The solution is designed to adhere to stringent security and compliance requirements, particularly relevant in healthcare where HIPAA compliance is essential.
    • Real-Time Decision-Making: Through efficient data retrieval and analysis, professionals can access timely, accurate, and context-aware information.
    • Enhanced Accuracy: The combination of a strong retrieval system and a powerful LLM ensures that the responses are not only contextually relevant but also highly accurate and reliable.
    • Flexibility: The modular design of the Agentic RAG framework, with its use of LangGraph, makes it adaptable to diverse use cases, whether for chatbots, data analysis, or other AI-powered applications.
    • Comprehensive Data Support: This solution effectively manages a wide range of data, including both structured and unstructured formats.
    • Improved Efficiency: By automating the data retrieval and analysis process, the framework reduces the need for manual data sifting and improves overall productivity.

    Real-World Use Cases for Enterprise Agentic RAG

    This solution can transform workflows in many different industries and has particular relevance for use cases in healthcare settings:

    • Healthcare:
      • Providing clinicians with fast access to patient data, medical protocols, and research findings to support better decision-making.
      • Enhancing patient interactions through AI-driven chatbots that provide accurate, secure information.
      • Streamlining processes related to diagnosis, treatment planning, and drug discovery.
    • Finance:
      • Enabling rapid access to financial data, market analysis, and regulations for better investment decisions.
      • Automating processes related to fraud detection, risk analysis, and regulatory compliance.
    • Legal:
      • Providing legal professionals with quick access to case laws, contracts, and legal documents.
      • Supporting faster research and improved decision-making in legal proceedings.
    • Manufacturing:
      • Providing access to operational data, maintenance logs, and training manuals to improve efficiency.
      • Improving workflows related to predictive maintenance, quality control, and production management.

    Getting Started with Enterprise Agentic RAG

    The Dell AI Factory with NVIDIA, when combined with Elasticsearch, is designed for enterprises that require scalability and reliability. To implement this solution:

    1. Leverage Dell PowerEdge servers with NVIDIA GPUs: These powerful hardware components provide the computational resources needed for real-time processing.
    2. Set up Elasticsearch Vector Database: This stores and indexes your data for efficient retrieval.
    3. Install NVIDIA NeMo NIMs: Integrate NVIDIA’s NeMo Retriever, Embedding, and Reranking NIMs for optimal data retrieval and processing.
    4. Utilize the Llama-3.1-8B-instruct LLM: Utilize NVIDIA’s optimized LLM for high-performance response generation.
    5. Orchestrate workflows with LangGraph: Connect all components with LangGraph to manage the end-to-end process.

    Enterprise Agentic RAG on Dell AI Factory with NVIDIA and Elasticsearch vector database is not just an integration; it’s a paradigm shift in how we approach complex data challenges. By combining the precision of enterprise-grade hardware, the power of NVIDIA AI libraries, and the efficiency of Elasticsearch, this framework offers a robust and scalable solution for various industries. This is especially true in fields such as healthcare where reliable data access can significantly impact outcomes. This solution empowers organizations to make informed decisions, optimize workflows, and improve efficiency, setting a new standard for AI-driven data management and decision-making.

    Read More by Dell: https://infohub.delltechnologies.com/en-us/t/agentic-rag-on-dell-ai-factory-with-nvidia/

    Start Learning Enterprise Agentic RAG Template by Dell

  • Free, Open Source Realtime 3D Model: SPAR3D by Stability AI

    Realtime 3D model, Stability AI is revolutionizing the world of 3D content creation with its latest offering: SPAR3D, a groundbreaking free and open-source realtime 3D model. This model enables users to generate, edit, and interact with 3D objects from single images in real-time, combining impressive speed with unparalleled control. SPAR3D is not just a 3D model; it’s a comprehensive tool designed to transform 3D prototyping for game developers, product designers, environment builders, and anyone needing high-quality 3D assets.

    What is SPAR3D?

    SPAR3D (Stable Point Aware 3D) is a state-of-the-art 3D reconstruction model that achieves high-quality 3D mesh generation from single-view images, in near real-time. Unlike traditional 3D modeling methods, SPAR3D uniquely combines precise point cloud sampling with advanced mesh generation. What sets SPAR3D apart is its support for real-time editing, allowing users to make on-the-fly adjustments and modifications to 3D objects. Furthermore, this is available as free and open source under the Stability AI Community License.

    Key Features and Benefits of SPAR3D

    SPAR3D provides several significant advantages over other 3D modeling techniques:

    • Real-Time Editing: Allows users to directly manipulate the 3D model by editing the point cloud, deleting, duplicating, stretching, and even recoloring points. This level of control is unmatched by other methods.
    • Complete Structure Prediction: Generates not only the visible surfaces from an input image, but also accurately predicts the full 360-degree view, including traditionally hidden surfaces on the back of the object. This gives a complete picture of the 3D object.
    • Lightning-Fast Generation: Converts edited point clouds into final 3D meshes in just 0.3 seconds, enabling seamless real-time editing, and generates the complete 3D mesh from a single input image in only 0.7 seconds per object.
    • High-Quality Meshes: Achieves precise geometry and detailed textures, producing visually accurate and high-fidelity 3D assets.
    • Open Source and Free: Licensed under the Stability AI Community License, SPAR3D is free for both commercial and non-commercial use, making it accessible to a wide range of users.
    • Accessibility: The weights of SPAR3D are available on Hugging Face, and the code is available on GitHub, with access through the Stability AI Developer Platform API.
    • Compatibility: Ideal for running on NVIDIA RTX AI PCs

    How SPAR3D Works: A Two-Stage Architecture

    SPAR3D’s a Realtime 3D models, innovative approach involves a first-of-its-kind, two-stage architecture:

    1. Point Sampling Stage: A specialized point diffusion model generates a detailed point cloud, capturing the object’s fundamental structure. This point cloud represents the underlying structure of the object.
    2. Meshing Stage: The triplane transformer processes this point cloud alongside the original image features, producing high-resolution triplane data. This data is then used to generate the final 3D mesh, with precise geometry, texture, and illumination information.

    By combining precise point cloud sampling and advanced mesh generation, SPAR3D takes the best of both regression-based modeling’s precision and generative techniques’ flexibility. This results in accurate 360-degree predictions and highly controllable 3D object generation.

    Real-World Applications of SPAR3D a Realtime 3D model

    SPAR3D’s capabilities make it suitable for a wide variety of applications, including:

    • Game Development: Rapidly create and modify 3D game assets, from characters to environments.
    • Product Design: Quickly prototype and refine product designs, enabling faster iteration and improved design processes.
    • Architecture and Interior Design: Design and visualize 3D spaces and objects, creating immersive experiences for clients.
    • Filmmaking: Create realistic 3D props and environments for film and animation projects.
    • Augmented Reality (AR): Develop interactive 3D objects for AR applications with real-time manipulation.
    • Virtual Reality (VR): Generate high-quality 3D assets for VR environments.
    • Education: Provide interactive 3D models for education and training purposes.
    • Research: Enable faster iteration for generating high quality 3D assets in AI/ML research.

    Getting Started with SPAR3D, Realtime 3D model

    SPAR3D is designed for ease of access and implementation. You can get started by:

    • Downloading weights from Hugging Face: Access the pre-trained model weights to quickly integrate SPAR3D into your projects.
    • Accessing code on GitHub: Explore the open-source codebase, enabling you to modify and extend the model to meet specific needs.
    • Using Stability AI Developer Platform API: Integrate SPAR3D into your applications and workflows through the Stability AI Developer Platform API.

    SPAR3D by Stability AI is setting a new benchmark for real-time 3D object generation and editing. As a free and open-source tool, it empowers creators across multiple industries, from game development and product design to filmmaking and augmented reality. Its innovative architecture, unprecedented control, and lightning-fast generation make it an essential asset for anyone working with 3D content. Embrace the future of 3D modeling with SPAR3D and unlock new possibilities for creativity and efficiency.

  • Sonus-1: FREE Reasoning Model beats OpenAI’s new O1 Pro

    Introducing Sonus-1: A High-Performing, FREE Reasoning Model, Rubik’s Sonus 1 model is a free new model that can do reasoning across multiple tasks and beats OpenAI’s new O1 Pro mode for free.

    The Sonus-1 family of Large Language Models (LLMs) is designed to be both powerful and versatile, excelling across a range of applications. Sonus-1 is offered to the community completely free, allowing users to leverage cutting-edge AI without cost or restrictions.

    The Sonus-1 Family: Pro, Air, and Mini

    The Sonus-1 series is designed to cater to a variety of needs:

    • Sonus-1 Mini: Prioritizes speed, offering cost-effective solutions with fast performance.
    • Sonus-1 Air: Provides a versatile balance between performance and resource usage.
    • Sonus-1 Pro: Is optimized for complex tasks that demand the highest performance levels.
    • Sonus-1 Pro (w/ Reasoning): Is the flagship model, enhanced with chain-of-thought reasoning to tackle intricate problems.

    Sonus-1 Pro (w/ Reasoning): A Focus on High-Performance Reasoning

    The Sonus-1 Pro (w/ Reasoning) model is engineered to excel in challenging tasks requiring sophisticated problem-solving, particularly in reasoning, mathematics, and code.

    Benchmark Performance: Sonus-1 Pro Outperforms The Competition

    The Sonus-1 family, particularly the Pro model, demonstrates impressive performance across diverse benchmarks. Here’s a detailed breakdown, emphasizing the capabilities of the Sonus-1 Pro (w/ Reasoning) model:

    Sonus-1 capabilities

    Key Highlights from the Benchmark Data:

    • MMLU: The Sonus-1 Pro (w/ Reasoning) model achieves 90.15% demonstrating its powerful general reasoning capabilities.
    • MMLU-Pro: Achieves 73.1%, highlighting its robust capabilities for more complex reasoning problems.
    • Math (MATH-500): With a score of 91.8%, Sonus-1 Pro (w/ Reasoning) proves its prowess in handling intricate mathematical problems.
    • Reasoning (DROP): Achieves 88.9%, demonstrating its strong capabilities in reasoning tasks.
    • Reasoning (GPQA-Diamond): Achieves 67.3% on the challenging GPQA-Diamond, highlighting its ability in scientific reasoning.
    • Code (HumanEval): Scores 91.0%, showcasing its strong coding abilities.
    • Code (LiveCodeBench): Achieves 51.9%, displaying impressive performance in real-world code environments.
    • Math (GSM-8k): Achieves an impressive 97% on the challenging GSM-8k math test.
    • Code (Aider-Edit): Demonstrates solid performance in code editing by achieving 72.6%.

    Sonus-1 Pro excels in various benchmarks, and stands out in reasoning and mathematical tasks, often surpassing the performance of other proprietary models.

    Where to Try Sonus-1?

    The Sonus-1 suite of models can be explored at chat.sonus.ai. Users are encouraged to test the models and experience their performance firsthand.

    What’s Next?

    The development of high-performance, reliable, and privacy-focused LLMs is ongoing, with future releases planned to tackle even more complex problems.

    Try Sonus-1 Demo Here: https://chat.sonus.ai/sonus

  • NVIDIA NV Ingest for Complex Unstructured PDFs, Enterprise Documents

    What is NVIDIA NV Ingest?

    NVIDIA NV Ingest is not a static pipeline; it’s a dynamic microservice designed for processing various document formats, including PDF, DOCX, and PPTX. It uses NVIDIA NIM microservices to identify, extract, and contextualize information, such as text, tables, charts, and images. The core aim is to transform unstructured data into structured metadata and text, facilitating its use in downstream applications

    At its core, NVIDIA NV Ingest is a performance-oriented, scalable microservice designed for document content and metadata extraction. Leveraging specialized NVIDIA NIM microservices, this tool goes beyond simple text extraction. It intelligently identifies, contextualizes, and extracts text, tables, charts, and images from a variety of document formats, including PDFs, Word, and PowerPoint files. This enables a streamlined workflow for feeding data into downstream generative AI applications, such as retrieval-augmented generation (RAG) systems.

    NVIDIA Ingest works by accepting a JSON job description, outlining the document payload and the desired ingestion tasks. The result is a JSON dictionary containing a wealth of metadata about the extracted objects and associated processing details. It’s crucial to note that NVIDIA Ingest doesn’t simply act as a wrapper around existing parsing libraries; rather, it’s a flexible and adaptable system that is designed to manage complex document processing workflows.

    Key Capabilities

    Here’s what NVIDIA NV Ingest is capable of:

    • Multi-Format Support: Handles a variety of documents, including PDF, DOCX, PPTX, and image formats.
    • Versatile Extraction Methods: Offers multiple extraction methods per document type, balancing throughput and accuracy. For PDFs, you can leverage options like pdfium, Unstructured.io, and Adobe Content Extraction Services.
    • Advanced Pre- and Post-Processing: Supports text splitting, chunking, filtering, embedding generation, and image offloading.
    • Parallel Processing: Enables parallel document splitting, content classification (tables, charts, images, text), extraction, and contextualization via Optical Character Recognition (OCR).
    • Vector Database Integration: NVIDIA Ingest also manages the computation of embeddings and can optionally store these into vector database like Milvus

    Why NVIDIA NV Ingest?

    Unlike static pipelines, NVIDIA Ingest provides a flexible framework. It is not a wrapper for any specific parsing library. Instead, it orchestrates the document processing workflow based on your job description.

    The need to parse hundreds of thousands of complex, messy unstructured PDFs is often a major hurdle. NVIDIA Ingest is designed for exactly this scenario, providing a robust and scalable system for large-scale data processing. It breaks down complex PDFs into discrete content, contextualizes it through OCR, and outputs a structured JSON schema which is very easy to use for AI applications.

    Getting Started with NVIDIA NV Ingest

    To get started, you’ll need:

    • Hardware: NVIDIA GPUs (H100 or A100 with at least 80GB of memory, with minimum of 2 GPUs)

    Software

    • Operating System: Linux (Ubuntu 22.04 or later is recommended)
    • Docker: For containerizing and managing microservices
    • Docker Compose: For multi-container application deployment
    • CUDA Toolkit: (NVIDIA Driver >= 535, CUDA >= 12.2)
    • NVIDIA Container Toolkit: For running NVIDIA GPU-accelerated containers
    • NVIDIA API Key: Required for accessing pre-built containers from NVIDIA NGC. To get early access for NVIDIA Ingest https://developer.nvidia.com/nemo-microservices-early-access/join

    Step-by-Step Setup and Usage

    1. Starting NVIDIA NIM Microservices Containers

    1. Clone the repository:
      git clone
      https://github.com/nvidia/nv-ingest
      cd nv-ingest
    2. Log in to NVIDIA GPU Cloud (NGC):
      docker login nvcr.io
      # Username: $oauthtoken
      # Password: <Your API Key>
    3. Create a .env file: 
      Add your NGC API key and any other required paths:
      NGC_API_KEY=your_api_key NVIDIA_BUILD_API_KEY=optional_build_api_key
    4. Start the containers:
      sudo nvidia-ctk runtime configure --runtime=docker --set-as-default
      docker compose up

    Note: NIM containers might take 10-15 minutes to fully load models on first startup.

    2. Installing Python Client Dependencies

    1. Create a Python environment (optional but recommended):
      conda create --name nv-ingest-dev --file ./conda/environments/nv_ingest_environment.yml
      conda activate nv-ingest-dev
    2. Install the client:
      cd client
      pip install .

    if you are not using conda you can install directly

    #pip install -r requirements.txt
    #pip install .
    “`
    Note: You can perform these steps from your host machine or within the nv-ingest container.

    3. Submitting Ingestion Jobs

    Python Client Example:

    import logging, time
    
    from nv_ingest_client.client import NvIngestClient
    from nv_ingest_client.primitives import JobSpec
    from nv_ingest_client.primitives.tasks import ExtractTask
    from nv_ingest_client.util.file_processing.extract import extract_file_content
    
    logger = logging.getLogger("nv_ingest_client")
    
    file_name = "data/multimodal_test.pdf"
    file_content, file_type = extract_file_content(file_name)
    
    job_spec = JobSpec(
     document_type=file_type,
     payload=file_content,
     source_id=file_name,
     source_name=file_name,
     extended_options={
         "tracing_options": {
             "trace": True,
             "ts_send": time.time_ns()
         }
     }
    )
    
    extract_task = ExtractTask(
     document_type=file_type,
     extract_text=True,
     extract_images=True,
     extract_tables=True
    )
    
    job_spec.add_task(extract_task)
    
    client = NvIngestClient(
     message_client_hostname="localhost",  # Host where nv-ingest-ms-runtime is running
     message_client_port=7670  # REST port, defaults to 7670
    )
    
    job_id = client.add_job(job_spec)
    client.submit_job(job_id, "morpheus_task_queue")
    result = client.fetch_job_result(job_id, timeout=60)
    print(f"Got {len(result)} results")

    Command Line (nv-ingest-cli) Example:

    nv-ingest-cli \
        --doc ./data/multimodal_test.pdf \
        --output_directory ./processed_docs \
        --task='extract:{"document_type": "pdf", "extract_method": "pdfium", "extract_tables": "true", "extract_images": "true"}' \
        --client_host=localhost \
        --client_port=7670

    Note: Make sure to adjust the file_path, client_host and client_port as per your setup.

    Note: extract_tables controls both table and chart extraction, you can disable chart extraction using extract_charts parameter set to false.

    4. Inspecting Results

    Post ingestion, results can be found in processed_docs directory, under text, image and structured subdirectories. Each result will contain corresponding json metadata files. You can inspect the extracted images using the provided image viewer script:

    1. First, install tkinter by running the following commands depending on your OS.

      For Ubuntu/Debian:
      sudo apt-get update
      sudo apt-get install python3-tk

      # For Fedora/RHEL:
      sudo dnf install python3-tkinter

      # For MacOS
      brew install python-tk
    2. Run image viewer:
      python src/util/image_viewer.py --file_path ./processed_docs/image/multimodal_test.pdf.metadata.json

    Understanding the Output

    The output of NVIDIA NV Ingest is a structured JSON document, which contains:

    • Extracted Text: Text content from the document.
    • Extracted Tables: Table data in structured format.
    • Extracted Charts: Information about charts present in the document.
    • Extracted Images: Metadata for extracted images.
    • Processing Annotations: Timing and tracing data for analysis.

    This output can be easily integrated into various systems, including vector databases for semantic search and LLM applications.

    This output can be easily integrated into various systems, including vector databases for semantic search and LLM applications.

    NVIDIA NV Ingest Use Cases

    NVIDIA NV Ingest is ideal for various applications, including:

    • Retrieval-Augmented Generation (RAG): Enhance LLMs with accurate and contextualized data from your documents.
    • Enterprise Search: Improve search capabilities by indexing text and metadata from large document repositories.
    • Data Analysis: Unlock hidden patterns and insights within unstructured data.
    • Automated Document Processing: Streamline workflows by automating the extraction process from unstructured documents.

    Troubleshooting

    Common Issues

    • NIM Containers Not Starting: Check resource availability (GPU memory, CPU), verify NGC login details, and ensure the correct CUDA driver is installed.
    • Python Client Errors: Verify dependencies are installed correctly and the client is configured to connect with the running service.
    • Job Failures: Examine the logs for detailed error messages, check the input document for errors, and verify task configuration.

    Tips

    • Verbose Logging: Enable verbose logging by setting NIM_TRITON_LOG_VERBOSE=1 in docker-compose.yaml to help diagnose issues.
    • Container Logs: Use docker logs to inspect logs for each container to identify problems.
    • GPU Utilization: Use nvidia-smi to monitor GPU activity. If it takes more than a minute for nvidia-smi command to return there is a high chance that the GPU is busy setting up the models.