Agentic Workflows vs. Agents — when to fix, when to free
The difference between fixed, predefined workflows and autonomous AI agents — with Anthropic's definition, the trade-offs, and a clear decision guide.
boostN app encyclopedia: in-depth explanations of AI and app concepts.
The difference between fixed, predefined workflows and autonomous AI agents — with Anthropic's definition, the trade-offs, and a clear decision guide.
One AI agent generates, a second one evaluates and critiques — looping around until the result meets a clear quality bar.
How an LLM uses tools: define a tool as a schema, the model picks the function and arguments, the result returns to the chat — the basis of every agent.
What human-in-the-loop means in agent workflows: approval gates, intervention points before critical actions, and why they are mandatory for irreversible steps.
What an LLM router does: send requests to cheap or strong models automatically, cut costs, and understand the risks when it misclassifies.
MCP is the open standard that connects AI models to external tools and data sources. Here is how its client-server architecture works.
How multiple AI agents work together: orchestrator-worker, supervisor pattern, task splitting and synthesis, and when multi-agent actually pays off.
Plan-and-Execute means: build the full plan first, then work through it step by step. How the pattern works and where it beats ReAct on cost and quality.
Chaining several LLM calls into a pipeline: one step's output becomes the next step's input, gates as checks, and when chaining beats a mega-prompt.
How the ReAct pattern's Thought, Action and Observation loop works, why tool-using AI agents rely on it — and where it typically breaks down.
CrewAI, AutoGen, AutoGPT, DSPy, Browser Use, LangGraph — what agent frameworks do, where they differ, and when to reach for which one.
Just generating isn’t enough. The reliable flow: briefing, draft, fact-check, voice, SEO, human final edit — and where the human stays mandatory.
An embedding is a vector of numbers that places meaning in space. Why similar content sits close together and what embeddings are used for.
FLUX.2 by Black Forest Labs (Freiburg): open-weight image model, variants from 4B to 32B, licenses, hardware needs and how it stacks up in the market.
Google's agent-first dev suite of desktop app, CLI and SDK. How Antigravity works, what it replaces from Gemini CLI, and how it competes with Claude Code.
Why LLMs confidently invent falsehoods, what types of hallucinations exist, and which remedies actually help — RAG, source enforcement, verification.
Hub, Spaces and the Transformers, Datasets, Diffusers and Accelerate libraries — how they fit together and how the path to deployment works.
No-/low-code automation with Make, Zapier and n8n: building blocks, use cases for agencies and SMBs, pricing models and the costliest pitfalls.
What the context window is, how big modern windows are, the lost-in-the-middle phenomenon, cost and latency, and the distinction from RAG and long-term memory.
LangGraph as the standard for agent orchestration — nodes, edges, state, loops, human-in-the-loop and persistence explained clearly.
Microsoft's SDK for AI agents: how it merges Semantic Kernel and AutoGen, what separates agents from workflows, and when it's worth adopting.
Microsoft's own AI coding model, unveiled at Build 2026. It replaces GPT-4 in GitHub Copilot from August 2026 — here is what it is.
Google's image model nicknamed Nano Banana — what hides behind the codename, what it can do, and how it differs from FLUX.2 and other image models.
The orchestrator-worker pattern, when parallel agents pay off and when not, the mechanics of shared queues, and the token price for it.
n8n, Dify and Ollama as a self-hosted AI stack — who does which layer, when it pays off and what hardware you actually need.
How an LLM picks the next token: temperature sharpens or flattens the probabilities, top-p and top-k limit the choice. Which setting for what.
Why tokens equal cost, why output is pricier than input, and the most effective levers: prompt caching, batch, lean context, model choice, output limit.
What a token is, how tokenizers split text, and why tokens drive cost, context window, and speed — with rules of thumb for estimating token counts.
What vector databases do, when you need one, and how Chroma, Weaviate, Milvus, Qdrant and pgvector stack up against each other.
The major model families in 2026 at a glance. Who builds Claude, GPT, Gemini, Llama, Mistral, DeepSeek, Qwen — and which model to pick when.
Claude, GPT, Gemini, Llama & co. — who builds what, where each family shines, and how to pick the right model for your own use case.
How to steer retrieval on purpose: embedding choice, hybrid weights, reranker cascades, time decay, authority boost, MMR and MCP as a retrieval tool.
How AI agents work: from a single tool call through MCP, structured outputs and LangGraph to the question of when multi-agent setups actually pay off.
Practical API mechanics beyond pricing: streaming for UX, prompt caching against token cost, the Batch API for bulk jobs, rate limits without 429 drama.
LangChain, LlamaIndex, LangGraph and Haystack compared. What they're built for, when rolling your own pays off — and the criticisms worth taking seriously.
Cursor, Windsurf, Claude Code, GitHub Copilot, Continue.dev, Aider compared. With table and decision guide for four typical developer workflows.
How to tell whether an LLM system actually works: three evaluation layers from benchmarks to CI evals, plus pitfalls like Goodhart and judge bias.
How AI models bill — tokens, input vs. output, hidden cost drivers and three levers to save. With price table and worked examples.
When fine-tuning pays off, which methods exist (SFT, DPO, LoRA, QLoRA), and what AMD vs. NVIDIA hardware actually means in practice.
How to run language models on your own hardware — VRAM requirements, tooling (Ollama, LM Studio, llama.cpp, vLLM) and which models fit which GPU.
How prompt injection, prompt leaking, and jailbreaks work — and which defenses (guardrails, spotlighting, sanitization) actually help.
Zero-shot, few-shot, chain-of-thought, tree of thoughts, ReAct & co. — when each prompting technique pays off and how they fit together.
How a RAG pipeline works: embedding, vector DB, retrieval, reranking, prompt — and which pitfalls show up in practice.