👋 Hi, there! Welcome to my blog.
I’m an enthusiastic and dedicated Software Engineer.
I share some of my study notes on this blog (tech and non-tech).
👋 Hi, there! Welcome to my blog.
I’m an enthusiastic and dedicated Software Engineer.
I share some of my study notes on this blog (tech and non-tech).
What is MCP? The Model Context Protocol (MCP) lets you build servers that expose data and functionality to LLM applications in a secure, standardized way. Think of it like a web API, but specifically designed for LLM interactions. MCP servers can: Expose data through Resources (think of these sort of like GET endpoints; they are used to load information into the LLM’s context) Provide functionality through Tools (sort of like POST endpoints; they are used to execute code or otherwise produce a side effect) Define interaction patterns through Prompts (reusable templates for LLM interactions) And more! Why MCP? MCP helps you build agents and complex workflows on top of LLMs. LLMs frequently need to integrate with data and tools, and MCP provides: ...
What is Mixture of Experts (MoE) Architecture? In the rapidly evolving field of artificial intelligence, large-scale models continue to push the boundaries of performance. One breakthrough approach that has significantly improved the efficiency of such models is the Mixture of Experts (MoE) architecture. MoE enables massive scalability while keeping computational costs manageable, making it a key innovation in deep learning. 1. Understanding the MoE Architecture At its core, MoE is a sparse activation neural network that dynamically selects different subsets of parameters for each input. Unlike traditional dense neural networks where all neurons are activated for every input, MoE activates only a small portion of its network, leading to more efficient computation. ...
Benchmark Main Purpose MMLU (Massive Multitask Language Understanding) Evaluates the model’s multitask understanding ability across 57 academic domains HELM (Holistic Evaluation of Language Models) A comprehensive evaluation framework developed by Stanford, covering multiple tasks and fairness assessments BIG-Bench (BB) A large-scale benchmark with over 200 tasks developed by Google BBH (Big-Bench Hard) A harder subset of BIG-Bench, focusing on challenging tasks GSM8K (Grade School Math 8K) Evaluates the model’s ability to solve elementary-level math problems MATH A set of high school and university-level math problems to evaluate problem-solving abilities HumanEval A programming ability benchmark developed by OpenAI ARC (AI2 Reasoning Challenge) A reasoning challenge focused on scientific problem-solving abilities C-Eval A comprehensive evaluation benchmark designed for Chinese language models GLUE/SuperGLUE A general standard to assess natural language understanding TruthfulQA Tests the accuracy of model responses and reduces hallucinations FLORES A multilingual benchmark to evaluate machine translation capabilities AGIEval Tests high-difficulty standardized exam tasks that approach human cognitive abilities HELLASWAG Assesses the model’s ability to handle common-sense reasoning and logic Winogrande Tests the model’s ability to reason with common-sense knowledge MT-Bench Evaluates the model’s ability to engage in multi-turn conversations MLLM Benchmarks (LLaVA) A benchmark to assess large multimodal models’ image understanding capabilities
DeepSeek-V3: Groundbreaking Innovations in AI Models DeepSeek-V3, the latest open-source large language model, not only rivals proprietary models in performance but also introduces groundbreaking innovations across multiple technical areas. This article explores the key advancements of DeepSeek-V3 in architecture optimization, training efficiency, inference acceleration, reinforcement learning, and knowledge distillation. 1. Mixture of Experts (MoE) Architecture Optimization 1.1 DeepSeekMoE: Finer-Grained Expert Selection DeepSeek-V3 employs the DeepSeekMoE architecture, which introduces shared experts compared to traditional MoE (e.g., GShard), improving computational efficiency and reducing redundancy. ...
Recently, OpenAI has introduced a five-level framework, illustrating the incremental advancements toward achieving AGI. Each level signifies a critical step in the evolution of AI capabilities, reflecting the ongoing commitment to developing systems that can learn, reason, and operate with increasing autonomy and expertise. Level 1: Conversational AI At this foundational stage, AI systems are proficient in understanding and generating natural language, facilitating coherent and contextually appropriate conversations with users. These models can answer questions, provide explanations, and engage in dialogue on a wide array of topics. Notable examples include OpenAI’s GPT-4 and Claude 3.5, which have demonstrated significant proficiency in language comprehension and generation. ...