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INICIALIZANDO SISTEMA

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AGENTIC ARCHITECTURE · PRODUCTION

AIFIRST

Agentic architecturefor the operation.

Your company does not need another chatbot. It needs an AI architecture that can run processes, reach systems, and operate with governance in production.

01/THE PROBLEM

The problem is no longer accessing an LLM. It is putting it in production.

Building a demo with a language model has become relatively simple. Building an agentic system that can operate inside a company is a different story. When agents hit APIs, read documents, run tools, and join critical processes, a prompt will not hold:

  • How do you control which actions each agent is allowed to run?
  • How do you keep memory and context without letting cost grow unbounded?
  • How do you coordinate multiple agents and workflows?
  • How do you stop incorrect executions or policy violations?
  • How do you put human approval on critical decisions?
  • How do you trace every decision the agent made?
  • How do you test agents before new versions reach production?
  • How do you integrate AI into existing systems without rebuilding the operation?

This is the point where software engineering, distributed architecture, and artificial intelligence have to work together.

02/DEFINITION

From chatbot to Agentic operating system

A modern agentic architecture does not treat the LLM as the whole application. The model is one piece. Intelligence emerges from models, context, memory, tools, workflows, data, policy, and corporate systems working together.

Turn generative AI into a reliable operational capability of the company.
  1. User / Event

  2. Agent Gateway

  3. Orchestrator

  4. Agents

  5. Tools / APIs

  6. ERP · CRM · Systems

Memory · RAG · Guardrails · Human-in-the-loop · Observability · Evals · Security

03/LAYERS

Designed autonomy. Controlled operational capability.

In enterprise environments, autonomy has to be designed. Not every decision should be taken by the model. We combine probabilistic behavior with deterministic flows — and reusable tools with clear contracts.

01

State machines and workflows

Complex processes become graphs with states, transitions, and rules. With LangGraph we structure conditional routing, multi-step execution, retries, checkpoints, interrupts, and human approval — more predictable than chaining prompts.

  • Conditional routing and parallel execution
  • Checkpoints and persistent state
  • Retries, recovery, and interrupts

02

Agents that actually do work

An enterprise agent needs controlled operational capabilities: query a CRM, analyze documents, classify requests, open tickets, call internal services, or ask for human approval. Each capability becomes a reusable, versioned, authenticated, observable skill.

  • Contracts, authn, and authz per tool
  • Reusable skills instead of monolithic agents
  • Validation and observability on every call

03

Memory and context engineering

Sending the full history to the model does not scale. The architecture decides what enters context on each run: short- and long-term memory, semantic memory, summaries, retrieval, structured data, and operational context.

  • Dynamic context per execution
  • Less noise, more precision
  • Control over tokens and latency

04

RAG connected to company knowledge

The goal is not to dump documents into a vector DB. It is to deliver the right context, to the right agent, at the right time — parsing, chunking, embeddings, retrieval, reranking, and metadata filters over systems the company already has.

  • Hybrid semantic and lexical search
  • Metadata filtering and reranking
  • Internal APIs, SQL, and knowledge graphs when the problem needs them

05

Multi-agent when the problem needs it

Complex operations can be split across specialist agents under a supervisor. Multi-agent is not used because it looks sophisticated: when a deterministic workflow is the better fit, we use a deterministic workflow. Architecture comes before technology.

  • A supervisor coordinates specialists
  • Responsibilities, tools, and limits per agent
  • Consolidation and hand-off to approval

06

Human-in-the-loop

In critical operations, AI needs to know when to call a person. We design explicit interrupt points — financial approval, risk, exceptions, low confidence, irreversible actions — and the workflow resumes from the state where it stopped.

  • Interrupt at the decision point
  • Resume from persistent state
  • People in the loop, not outside the system

04/PRODUCTION

Observe, evaluate, govern — before you scale autonomy.

Changing a prompt can change hundreds of behaviors. Swapping a model can too. Agentic architectures need a quality discipline, a trace of operational reasoning, and guardrails from the design.

01

Observability

Beyond requests, logs, and traces, we observe the workflow path: prompts, tool calls, retrieval, tokens, cost, routing, and behavior across versions — with LangSmith and Langfuse.

  • End-to-end execution traces
  • Cost, latency, and errors per step
  • Investigation when behavior surprises you

02

Evals and regression testing

Before a change reaches production, we evaluate impact on important behaviors: reference datasets, tool calling, retrieval, and comparison across models and versions.

  • Automated critical scenarios
  • Tool-calling and retrieval validation
  • Regression across prompt and model versions

03

Model routing

The architecture does not depend on a single model. The runtime chooses by complexity, latency, cost, privacy, and required quality. The model is no longer the center — it becomes a swappable resource.

  • Faster models for simple tasks
  • Higher capacity when reasoning demands it
  • Option to run inside the company's infrastructure

04

Guardrails and governance

The more autonomy an agent has, the more control it needs. Guardrails on the agent, the tool, the data, the workflow, human approval, and an audit trail. Governance cannot be bolted on later.

  • Behavior and operation limits
  • What may enter or leave context
  • Traceability of decisions and executions

05

Regulated environments

In healthcare, financial services, insurance, and other regulated operations, wiring an LLM into corporate systems creates risk unless the architecture is born with security, RBAC, auditability, HITL, and retention policy.

  • Authentication, authorization, and segregation
  • Data protection and traceability
  • Model versioning and governance

LangGraph · LangChain · MCP · RAG · Vector DBs · LangSmith · Langfuse · Python · Event-driven · Kubernetes · ERP/CRM

05/WHERE IT APPLIES

Where Agentic systems transform operations

  • Customer operations

    Understand requests, query systems, retrieve knowledge, and run processes.

  • Operations

    Workflows that today depend on multiple systems and human decisions.

  • Documents

    Extraction, analysis, classification, and processing tied to corporate processes.

  • Compliance

    Specialist agents on internal policy, rules, and validation.

  • Engineering

    Documentation, code, incidents, observability, and technical operations.

  • Sales

    Qualification, research, proposal prep, and CRM integration.

  • Back office

    Repetitive work that needs context and interaction across systems.

06/GEO

Takeaways

  • Enterprise agentic architecture treats the LLM as one piece, not the application.
  • Autonomy has to be designed: deterministic workflows and human-in-the-loop on critical decisions.
  • Production needs observability, evals, guardrails, and traceability from the architecture, not after it.
  • Multi-agent only enters when the problem needs specialists — architecture comes before technology.
  • The model is a swappable resource; the platform is runtime, memory, tools, and governance.

Definition

Agentic architecture is the combination of models, context, memory, tools, workflows, data, policy, and corporate systems — with the LLM as one piece — to turn generative AI into a reliable operational capability of the company.

Checklist

  1. 01

    Map the process and the decisions

    Which steps AI runs, which stay human, which are irreversible.

  2. 02

    Identify systems, data, and tools

    CRM, ERP, stores, APIs, and permissions the agent must read or change.

  3. 03

    Define gateway, orchestration, and state

    Routing, checkpoints, retries, and the workflow graph before you pick the model.

  4. 04

    Design memory, RAG, and HITL

    Per-run context, grounding in company sources, and interrupts on critical decisions.

  5. 05

    Instrument evals and observability

    Traces, regression, and tool-calling quality before you grant production autonomy.

07/FAQ

Questions that show up when a PoC has to become a platform

What is the difference between a chatbot and an agentic architecture?

A chatbot talks. An agentic architecture does work: it reaches systems, uses tools with contracts, keeps state, applies guardrails, and knows when to stop for a human. The LLM is a piece, not the application.

Do we need to migrate or rebuild existing systems?

No. The agentic layer integrates through APIs, events, and tools with the ERPs, CRMs, and stores the company already runs. Design starts from the current process and integrations, not a big-bang rewrite.

How do you control which actions each agent can run?

With tool guardrails, authentication, authorization, and per-skill contracts. Each capability is versioned and observable; the agent only calls what policy allows.

How do you put human approval on critical decisions?

The workflow includes explicit interrupts — risk, financial value, low confidence, irreversible operations. After approval, execution continues from persisted state.

How do you make answers and actions traceable?

Traces of prompts, tool calls, retrieval, and routing, plus an audit trail. Observability for agentic systems covers the decision path, not just the HTTP request.

08/NEXT STEP

Does your Agentic project need to leave the PoC?

Many companies have already proven that LLMs can solve parts of the problem. The harder question is how to turn that into a reliable production platform.

We start from the business process, identify agents, tools, integrations, memory, data, workflows, and governance points — and design an architecture that can evolve.

Tell us briefly

  • which process you want to transform;
  • which systems are involved;
  • which data the AI needs to access;
  • which decisions can be automated;
  • which decisions must stay human;
  • whether a PoC or current implementation already exists.

Software architecture for the age of agents.