Project overview

AI & AUTOMATION · SC-06

AI Workflow Automation Hub

An event-driven automation layer that combines deterministic workflows with AI only where interpretation is useful.

Starting point

The operating risk is not the model itself; it is losing state, accountability or approval around a business action.

01 · BUSINESS PROBLEM

Automation fails when reasoning and action are mixed without control.

The operating risk is not the model itself; it is losing state, accountability or approval around a business action.

01

Lost context

Long workflows break when state lives inside one model call.

02

Uncontrolled actions

Sensitive actions need explicit gates, not implicit trust.

03

Invisible exceptions

Retries and failures must stay observable and recoverable.

02 · DECISION LOGIC

From request to controlled action.

Each stage has one responsibility and one observable hand-off.

Decision sequence

Each stage answers a different operating question

01Understand

Capture intent, context and constraints.

02Plan

Choose the workflow and tools required.

03Approve

Gate material actions before execution.

04Execute

Run, log and recover the external action.

Decision rule — AI adds value when control survives the hand-off from reasoning to action.

03 · WHAT CHANGED

A workflow system, not a chain of prompts.

The implementation separates context, orchestration, approval and execution.

01

Persist workflow state outside the model.

02

Keep deterministic steps deterministic.

03

Insert approval where business risk changes.

04

Log every hand-off, exception and external action.

04 · ARCHITECTURE

A modular path from input to decision.

Inputs → preparation → core logic → validation → decision output

SC-06 · SYSTEM ARCHITECTURE

Inputs → preparation → core logic → validation → decision output

Public portfolio implementation

Inputs

01

Source signals

Capture the operating inputs required by the system. [n8n]

02

Preparation layer

Normalize context and create a stable analytical contract. [Python]

Core system

03

Core engine

Run the main analytical or automation logic. [FastAPI]

04

Decision logic

Apply the rule, model or orchestration logic that changes the decision. [PostgreSQL]

Validation

05

Validation

Test outputs against explicit quality criteria. [Redis]

06

Controls

Keep approvals, thresholds or constraints visible. [Webhooks]

Decision output

07

Decision output

Expose the result in a form the user can act on. [Zapier]

08

Monitoring

Record outcomes, exceptions and evidence for iteration. [Make]

Integration boundaries

n8n

Defined responsibility inside the system; replaceable if another tool fits the requirement better.

Python

Defined responsibility inside the system; replaceable if another tool fits the requirement better.

FastAPI

Defined responsibility inside the system; replaceable if another tool fits the requirement better.

05 · EVIDENCE & ECONOMICS

Measure what changes the decision.

Public implementation, inspectable technical proof and decision-focused validation.

Execution quality

Controlled stages

8

Representative public example.

Approval gates

1

Representative public example.

Test cases

26

Representative public example.

Control coverage

Integrations

4

Representative public example.

Audit coverage

100%

Representative public example.

Reference economics

140 h

Reference scenario

30%

Illustrative improvement

42 h

Decision value

06 · TECHNICAL PROOF

Review the code behind the project.

Tools used

n8n01
Python02
FastAPI03
PostgreSQL04
Redis05
Webhooks06

BUSINESS CONCLUSION

Useful AI automation is controlled automation.

The commercial value comes from reducing repetitive work without making sensitive decisions less traceable.

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