Specific Models
Specific Models Sections
- Claude (6)
- Project Memory
- CLAUDE.md
- Agentic Workflow
- Plan-First Development
- Quality Gates
- Desktop Agent
- VM Sandboxing
- MCP Connectors
- Microsoft Partnership
- Claude Code CLI
- Obsidian Terminal Plugin
- Agent Skills
- CLAUDE.md Context
- Fleet Commander Model
- Agent Orchestration
- Human Correction Tax
- Verification Loops
- Continuous Agent Learning
- Claude Code
- Oh My Claude Code (OMC)
- Agent Swarm Orchestration
- Claude Code
- Autopilot Mode
- Smart Model Routing
- Specialized Agents
- Developer Productivity
- Claude Connector
- WordPress.com
- Model Context Protocol (MCP)
- OAuth 2.1
- AI Integration
- Site Analytics
- Embedding Model
- Generative Model
- Vector Embeddings
- Semantic Search
- Retrieval-Augmented Generation (RAG)
- Cosine Similarity
- Recursive Architecture
- Iterative Refinement
- Autoregressive Model
- Parameter Efficiency
- Abstract Reasoning
- ARC-AGI
- Latent Scratchpad
Operational best practices for Claude Code, Anthropic's agentic CLI. Details how to establish 'Project Memory' via CLAUDE.md, configure safety permissions, implement a 'Plan-First' architecture, and utilize specialized sub-agents (Planner, Implementer, Reviewer) for robust software development. Treats agentic development as orchestration: the developer sets context and gates, the agents plan and execute.
Claude Cowork is a desktop-based AI agent available on Windows and macOS, featuring full file system access, multi-step task execution, and Model Context Protocol (MCP) support. It runs in a sandboxed virtual machine environment for enterprise security and is currently integrated into Microsoft's internal engineering workflows. The agent extends Claude's capabilities beyond chat into native desktop automation.
Setup guide for Claude Code (CLI) within Obsidian using a Terminal plugin. Covers installing 'Agent Skills' (JSON Canvas, Markdown specs) into a .claude folder and initializing CLAUDE.md for context-aware vault management — turning the CLI into an intelligent vault agent that can read, refactor, and generate notes in Obsidian-native formats.
An analysis of Boris Cherny's viral Claude Code workflow. Details his 'fleet commander' approach — running multiple Claude agents in parallel to manage different development streams. Key principles include using the smartest model (Opus) to minimize human correction, maintaining a shared CLAUDE.md for continuous agent learning, and using verification loops to ensure AI-generated code is functional. The methodology shifts the developer's role from coder to orchestrator of an autonomous workforce.
A review of 'Oh My Claude Code' (OMC), a plugin providing multi-agent swarm orchestration for the Claude Code terminal. OMC features five execution modes (Autopilot, Ultrapilot, Swarm, Pipeline, Ecomode), 32 specialized agents, and smart model routing between Haiku, Sonnet, and Opus to optimize performance and cost. Enables developers to manage complex tasks using natural language, shifting from manual coding to orchestrating a team of autonomous AI agents.
Details the official WordPress.com connector for Claude, the first of its kind for a WordPress host. Built on the Model Context Protocol (MCP) and secured with OAuth 2.1, the connector grants Claude read-only access to site data. This enables Claude to answer questions and provide insights based on real site traffic, comments, and content history directly within the Claude interface.
A technical breakdown of Google's EmbeddingGemma, used to explain the fundamental architectural and functional differences between embedding models and large-scale generative models. Details how embedding models convert text into numerical vectors for semantic search and RAG, contrasting this with the text-generation capabilities of models like ChatGPT. Provides implementation logic for using these models in a typical RAG pipeline.
A technical analysis of Samsung's 7M-parameter Tiny Recursive Model (TRM), whose recursive iterative-refinement architecture outperforms massive autoregressive LLMs (like Gemini and DeepSeek) on abstract reasoning benchmarks such as ARC-AGI. Contrasts TRM's 'decision-then-revision' process with the token-by-token generation of standard LLMs, highlighting the trade-off between parameter scale and test-time computational depth.