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Tag: gpu

  • Understanding GPU Architecture (Detailed)

    Understanding GPU Architecture for Novices (Detailed) Imagine your computer needs to display a visually rich and dynamic scene, like a bustling city in a modern video game or a complex scientific visualization. The Central Processing Unit (CPU), while the “brain” of your computer, is optimized for a wide range of diverse tasks executed sequentially. Rendering Read more

  • How AMD GPUs Enable Deep Learning – Detailed

    How AMD GPUs Enable Deep Learning (for Novices) – Detailed Imagine training a computer to recognize patterns in vast amounts of data, like identifying diseases from medical images or understanding the sentiment behind millions of social media posts. Deep learning, a powerful subset of artificial intelligence, makes this possible. However, the sheer volume of calculations Read more

  • Exploring Graph Databases vs Vector Databases: A Detailed Comparison

    Exploring Graph Databases vs Vector Databases: A Detailed Comparison This document provides an in-depth exploration of graph databases and vector databases, highlighting their core concepts, functionalities, and architectural considerations to help you choose the right tool for your data needs. Graph Databases: Unraveling the Fabric of Connected Data Core Concepts Nodes (Vertices): Represent entities with Read more

  • AMD vs. NVIDIA LLM Performance

    AMD vs. NVIDIA LLM Performance (May 2025) This article compares the performance of AMD and NVIDIA hardware when running Large Language Models (LLMs) as of May 2025, based on recent reports and trends. Key Factors Influencing LLM Performance VRAM (Video RAM) The size of the GPU’s memory is crucial for handling large LLMs. Larger models Read more

  • CPU Market Share in the Cloud (May 2025) – Detailed Analysis

    CPU Market Share in the Cloud (May 2025) – Detailed Analysis The landscape of CPU market share within the cloud computing sector continues to evolve rapidly in May 2025. Driven by the ever-increasing demand for scalable and efficient cloud services, the competition among CPU vendors is intensifying. This analysis delves deeper into the key players Read more

  • Python Libraries for Image Object Identification

    Python Libraries for Image Object Identification Here’s a breakdown of popular Python libraries used for analyzing image object identification: High-Level Libraries (Easy to Use, Often with Pre-trained Models): TensorFlow Object Detection API (with Keras) A robust framework built on TensorFlow for constructing, training, and deploying object detection models. Keras simplifies building neural networks and offers Read more

  • Non-Functional Requirements in AI/ML Applications

    Non-Functional Requirements in AI/ML Applications 1. Performance in AI/ML Model Accuracy/Performance Metrics Specify target metrics like precision (minimizing false positives), recall (minimizing false negatives), F1-score (harmonic mean of precision and recall), AUC (Area Under the ROC Curve for binary classification), RMSE (Root Mean Squared Error for regression), and acceptable error rates. Define how these metrics Read more

  • Implementing Locally running Mistral Chatbot with RAG

    Locally running Mistral Chatbot with RAG Let’s implement a local running chatbot with Mistral LLM using RAG to retrieve documents from a locally running Vector DB that also contains FAQs. Here’s a breakdown of the steps and the Python code to achieve this: Phase 1: Setting Up the Local Environment Install Dependencies: pip install transformers Read more

  • Using local LLM for Document Extraction

    Non-Cloud LLM for Document Extraction This guide explains how to use a non-cloud version of a pretrained Large Language Model (LLM) for document extraction, focusing on open-source models and local execution. Phase 1: Setting Up Your Local Environment 1. Hardware Requirements Ensure your system meets the following recommendations: CPU/GPU: An NVIDIA GPU with sufficient VRAM Read more

  • Tensor Reduction (Sum) with PyTorch and CUDA

    Tensor Reduction (Sum) with PyTorch and CUDA Tensor Reduction operations involve aggregating the values in a tensor across one or more dimensions to produce a tensor with a smaller number of dimensions (or a scalar). The sum reduction operation computes the sum of all elements (or elements along specified dimensions) of a tensor. CUDA significantly Read more