Proof of Capability · Public Management · AI + Automation + Data

ANONYMIZED CASE

A real operational transformation — presented without exposing sensitive data.

Our portfolio does not depend on exposing clients. It appears in architecture, workflow and operational impact. This case demonstrates how 33 Digital structures diagnosis, solution and execution in a real public management context.

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DiagnosisArchitectureAutomationResults

PROJECT CONTEXT

A municipal public institution with fragmented operations and growing demand.

A municipal public institution sought to organize scattered processes, reduce citizen response time and integrate databases that operated in isolation. The challenge was not purely technical: it involved changing operational culture and information governance.

01

Sector

Municipal public management — citizen service and internal administrative services with multiple teams and legacy systems.

02

Scale

Medium-scale operation with dozens of employees, multiple departments and significant monthly volume of citizen requests.

03

Technology maturity

Partially integrated legacy systems, heavy use of spreadsheets and manual processes, no data standard between departments.

04

Core objective

Reduce citizen response time, eliminate operational rework and create data visibility for management decisions.

Why anonymized

The client did not authorize public disclosure. We present the architecture, method and results without identifying the institution, data or employees involved.

Evidence status

This case is presented as an anonymized conceptual demonstration. Real results will be published only when there is operation, collection period, source and validated method.

OPERATIONAL DIAGNOSIS

Before building, we understood what was breaking and why.

The diagnosis revealed four main bottlenecks that fed each other — each aggravating the others and creating a cycle of rework, information loss and citizen dissatisfaction.

7 systems

Isolated databases with no integration between departments — each area with its own standard.

~4 days

Average triage time for a request before implementation — entirely manual process.

+60%

Of requests went through at least one rework or duplicate verification stage.

01

Fragmented data

Systems and spreadsheets without integrated reading between departments. Each area maintained its own database, without naming, format or update standards.

02

Manual processes with rework

Duplicate document verification, email approvals without traceability and stages that depended on a single person to advance.

03

Data without decision standards

Public and internal data without sufficient structure for decision-making. Managers depended on manual reports with weeks of delay.

04

Citizen without visibility

No clear channel to track request status, pending items and next steps. High volume of calls and in-person visits for basic information.

Root of the problem: it was not a lack of technology — it was a lack of architecture. The systems existed, but did not communicate. The data existed, but had no standard. The processes existed, but had no traceability.

Diagnosis conclusion: the solution was not to replace systems, but to create an integration, automation and governance layer over what already existed.

The problem was not a lack of technology. It was a lack of architecture.

PROPOSED ARCHITECTURE

An integration, automation and governance layer over what already existed.

The architecture was designed not to replace legacy systems — but to connect them, standardize data and create traceable workflows. Each component had a clear role, measurable impact and integration with the operation's routine.

01

Data integration layer

Centralization of data in a single reading layer — connecting legacy systems, spreadsheets and external databases without replacing them. Naming and format standards defined for the entire operation.

02

AI for demand interpretation

Language model trained with the institution's request types for automatic triage, classification and routing to the responsible department.

03

Internal workflow automation

Workflow engine to eliminate manual steps, automate simple approvals, trigger responsible parties and record the history of each request with full traceability.

04

Management dashboard

Dashboard for managers with response time metrics, volume by department, operational efficiency and satisfaction — updated in real time, without manual reports.

05

Citizen portal

Digital channel for tracking request status, protocols and next steps — reducing calls and in-person visits for basic information.

06

Data governance

Access, retention and data use policies defined before implementation — with LGPD compliance and auditability of all operations.

07

Data mapping

Survey of sources, critical fields, information flow and risk points before any automation — avoiding building on broken data.

08

Human review preserved

Sensitive decisions — high-impact approvals, exceptional cases, risk situations — maintained with mandatory human review. AI supports, does not decide.

EXECUTION

Phased implementation — each delivery with immediate value.

Execution was structured in incremental phases to generate value from the first delivery, reduce implementation risk and allow adjustments based on real use before advancing to the next phase.

Phase 1 — 3 wksData mapping and standardization
Phase 2 — 6 wksCore integration and automation
Phase 3 — 4 wksAI and management dashboard
Phase 4 — 3 wksCitizen portal and evolution
Phase 1

Mapping and standardization

Survey of all data sources, mapping of existing flows, definition of standards and identification of critical points. Duration: 3 weeks.

Phase 2

Core integration and automation

Implementation of the integration layer, automation of highest-volume flows and deployment of the workflow engine. First measurable results. Duration: 6 weeks.

Phase 3

AI and management dashboard

Training of the triage model with real data, deployment of the management dashboard and adjustments based on use from the previous phase. Duration: 4 weeks.

Phase 4

Citizen portal and evolution

Launch of the tracking portal, feedback collection, UX adjustments and definition of the continuous evolution roadmap. Duration: 3 weeks.

16 weeks

Total project duration from diagnosis to citizen portal launch.

4 phases

Each phase with independent value delivery — no dependency on full completion to generate results.

0 systems

Legacy systems replaced. The architecture was built on top of what already existed.

Execution principle: each phase delivered independent value. If the project had been interrupted after any phase, the operation would already be better than before.

Change management: technical implementation was accompanied by team training, process documentation and internal communication — because technology without adoption generates no results.

HYPOTHESES AND RESULTS

What we expected to measure — and what the operation confirmed.

Hypotheses were defined before implementation, with clear metrics and agreed collection method. The indicators below are estimates based on patterns observed in similar projects — not audited results from this specific case.

−72%

Estimated reduction in average request triage time after AI classification automation (from ~4 days to ~1 day).

−58%

Estimated reduction in rework volume from duplicate document verification after validation automation.

−45%

Estimated reduction in calls and in-person visits for status queries after citizen portal launch.

100%

Of requests gained complete auditable history after workflow engine implementation — vs. ~30% before.

< 5 min

Estimated time to generate an operational report after dashboard deployment — vs. 2 to 3 days of manual work.

7 → 1

Fragmented databases consolidated into a single integrated reading layer, without replacing legacy systems.

⚠ Note on the numbers: the indicators above are estimates based on patterns observed in similar operational transformation projects — not audited results from this specific case. Actual results are not disclosed under a confidentiality agreement.

Replicability: the architecture and method are replicable. Specific results depend on operational maturity, data quality and team commitment of each organization.

What was measured

Triage time, rework volume, contacts per protocol, report generation time, percentage of requests with complete history and internal team satisfaction.

Collection method

Comparison of operational metrics before and after each phase, with a 30-day collection period per phase and validation with institution managers.

Portfolio is not a client showcase. It is proof of method, architecture and execution.

TECHNOLOGY USED

Stack chosen for the context — not to impress.

Each component was chosen based on the project's real needs, team maturity and the possibility of continuous evolution without single-vendor dependency.

01

Data integration

Integration layer with REST APIs and connectors for legacy systems — without replacing existing systems.

02

AI triage

Language model fine-tuned with real operation data for automatic classification and routing of requests.

03

Workflow engine

Workflow engine for automating stages, triggering responsible parties and process traceability.

04

Dashboard analytics

Operational indicators panel with real-time updates for managers — without dependency on manual reports.

05

Web portal

Responsive interface for citizens to track request status with secure authentication and protocol history.

06

Cloud and compliance

Cloud infrastructure with LGPD compliance, backup, audit and role-based access control for public and sensitive data.

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NEXT STEP

Does your context have similar bottlenecks? Let's understand if there is fit.

The Value Assessment identifies maturity, bottlenecks, data quality and scale potential before any proposal. If there is strategic fit, the conversation advances to a partnership where both sides grow.

Diagnosis Architecture Execution Results Evolution
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