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Pre-development blueprint · the development ecosystem
INTEGRA · Master Plan — Phase 3: Planning The Development Process

Establishing the INTEGRA Development Ecosystem

Once the constitutional decisions of Phase 2 are settled, Phase 3 defines how INTEGRA is actually built: the development philosophy, the teams, the module structure, the workforce pipeline, and the time each module is expected to take.

On this page
  1. 1. Development approach & data architecture philosophy
  2. 2. Preferred development model
  3. 3. Module-based development teams
  4. 4. Module independence principle
  5. 5. The PIM module: foundation of the system
  6. 6. Estimated development time by module
  7. 7. Pilot deployment: target scope
1

Development approach & data architecture philosophy

Before assigning teams or estimating timelines, the Steering Committee and PMT should align on a small set of philosophical and architectural principles that shape how every module gets built.

1.1 Converting data structures into data-entry screens is the core of the work

The main engineering effort in building INTEGRA modules isn't complex custom UI work — it is the transformation of defined data structures into functional input screens. This can largely be automated: a screen-generator (or AI agent) can be given the underlying data structure and will automatically produce a working data-entry screen, a process already demonstrated on the INTEGRA website using AI agents.

1.2 Logical and validation checks are the exception, not the norm

Unlike many enterprise systems that impose heavy validation logic on every input field, INTEGRA's design philosophy treats strict field-level validation as rare and exceptional rather than the default.

1.3 A taxonomy built on LOOKUP tables

INTEGRA's taxonomy includes LOOKUP tables — predefined groups of accepted, agreed-upon values (provided in English) that serve as the controlled vocabularies feeding the data-entry screens' dropdowns and selection fields.

1.4 AI-generated data for load and performance testing

AI generators can be asked to produce large volumes of plausible sample data — not for production use, but specifically to stress-test load and performance on whichever database platform is selected.

1.5 The database platform should ship with reporting, query, and dashboard generators

The chosen database platform is expected, with high likelihood, to natively provide report generators, query tools, and dashboards — both generic, out-of-the-box tools and purpose-built ones for specific INTEGRA needs.

1.6 A likely ecosystem of shared, tradeable data-retrieval tools

In an environment where each country develops its own INTEGRA implementation independently — in its own language and terminology — it is reasonable to expect that generic data-retrieval tools will be developed locally. These tools could then be shared with, or traded between, other countries or cities on a give-and-take basis, creating a cross-national ecosystem of reusable tooling.

1.7 The initial data dictionary is only a first draft

INTEGRA's initial data dictionary should be understood as an early, preliminary sketch rather than a finished specification. Over time it will be expanded with additional data fields, and will undergo changes and adaptations tailored specifically to each city, country, and language as local implementations mature.

1.8 Development time vs. implementation time

These modules should be just as quick to develop as any other module, in line with the point above that development is mainly about turning data structures into entry screens. Implementation and rollout, however, is a different story: it requires significantly more time than usual to collect the underlying data, catalogue the basic units of information, and enter them into the computerized system.

The most challenging module for data collection, cataloguing, and entry is PSIM — Public Spaces Information Manager. The critical distinction to keep in mind: these are the biggest time-consumers at the implementation stage, not the development stage — building the software/screens is fast, but populating them with real-world field data is what takes time. Other above-average time-consumers in the same category are SCIM (Societal-Communal Information Manager), PTIM (Public Transportation Information Manager), and SMIS (School Management Information System).

1.9

Addressing the “redundancy” objection — education & health modules

The anticipated objection

Critics will likely argue that INTEGRA's software for managing school and health/medical data (SMIS — School Management Information System, and MCIM — Medical Care Information Manager) is redundant, since many countries and cities already run successful, established software systems for these exact domains.

1.9.1 Different unit of analysis: the citizen, not the institution

INTEGRA's MCIM and SMIS modules manage data strictly from the citizen's point of view — each individual family member, separately and together. Existing market software, by contrast, manages data from the service provider's point of view (the school, the clinic, the education authority, the doctor, the lab), tracking large populations rather than the individual across their life. All individual health, education, and employment data is collected and managed in the PIM module.

🗂️Illustrative sample — employment, education & health segments inside PIM
💼 Employment
  • 1036 Employment Records
  • 10364 Secondary Leaving Reasons
  • 10365 Employment Events / Milestones
  • 10371 Subscriptions / Registrations / Certificates
  • 10376 Employment / Service Work
  • 103765 Pay-checks / Payslips / Wage or Salary Documentation
🎓 Education
  • 102 Education Enrolment
  • 1021 Education Events (Transcripts / Certificates)
  • 10215 Educational Event Types
  • 10379 Education (Formal & Non-Formal) Personal Information
⚕️ Health
  • 10378 Health Personal Information
  • 106012 Medical Insurances
  • 106015 Healthcare Provider Table
  • 106053 Healthcare Provider Types
  • 106055 Healthcare Provider Categories
  • 1060 Medical Records / Events (Past & Future)
  • 10600 Medical Event Types
  • 1060005 Vulnerabilities Table
  • 106007 Cognitive / Mental Disabilities & Illnesses
  • 106009 Physical Disabilities
  • 1062 Drugs / Medications / Prescriptions / OTC / Intolerances / Supplements
  • 1063 Immunizations & Vaccinations
  • 1064 Health Reminders
  • 1065 Growth & Developmental History
  • 1066 Family History
  • 10665 Exercise & Eating Habits
  • 10667 Imaging / Digitized Media / Lab Results & Diagnostics
  • 1067 Personal Habits
1.9.2 Consolidation of scattered data

A citizen's educational and medical data is currently scattered across dozens of separate service-provider systems. INTEGRA centralizes the citizen's entire educational history and the full range of health/medical treatments and tests — performed across all those dozens of separate locations — under one single roof.

1.9.3 Citizen ownership and control — a first

For the first time, in INTEGRA's model, all of this data (when entered by the citizen or a family member) remains in the citizen's own possession and under their own control, rather than siloed within each institution's records.

1.9.4 Beyond text: full document support

INTEGRA allows storage not just of text data, but also documents, photos, scans, diagrams, and more, alongside it.

1.9.5 Institutional data still requires cooperation — this is not a replacement

A portion of educational and medical information will still need to flow into the citizen's INTEGRA database only with authorization, consent, and appropriate interface capabilities from the education and healthcare bodies that generate the vast majority of this data and documentation in the first place. INTEGRA is a consolidation and citizen-control layer — not a wholesale replacement of the systems that generate the data.

1.9.6 Broader scope than most existing solutions

In most cases, INTEGRA's data range is more comprehensive and wider-reaching than most conventional educational and medical software on the market today.

1.9.7 Lifelong — and multi-generational — persistence

With INTEGRA, a citizen's education and health data stays with them throughout their entire life — and even passes on to future generations after their death.

1.9.8 Immense research value

There is enormous research significance in collecting a citizen's educational and medical data under one single, unified roof for AI-driven and analytical processing — supporting employment, medical, community, social, and even transportation-related decision-making.


2

Preferred development model

INTEGRA strongly favours dedicated development teams over dependence on external strategic software contractors.

Rationale — dedicated teams provide:

Continuity
Institutional knowledge retention
Long-term commitment
Reduced vulnerability to market fluctuations
Sustainable municipal expertise

3

Module-based development teams

Each participating city, together with the PMT, shall establish a dedicated INTEGRA Development Team. Recommended composition: 1–2 university students per module.

3.1

Requirements

Living in the candidate deployment city
Basic-to-intermediate proficiency in the selected database platform
Formal commitment of 2–3 years
Participation in training programs
Commitment to future implementation and support activities
3.2

Long-term career path

Trainee Developer Implementor Trainer Municipal Technology Leader

These teams will become the future workforce for:

3.3

Development scope: functional development — genomic taxonomy mapping

Development activities include significantly more than software coding: they transform the INTEGRA Civic Genome into working tools — striving to make all of the following generic and automated, including report generation, query generation, and dashboard generation.

3.4

User experience

Teams shall develop and maintain:

3.5

Knowledge assets

Teams shall maintain:

3.6

Innovation exchange

Teams shall continuously:

3.7

Technology capacity building — training areas

Development teams shall receive continuous training in the following areas:

3.7.1Database technologies

MongoDB (or the selected platform), data modelling, and data governance.

3.7.2Cloud technologies

Cloud deployment, containerization, and infrastructure management.

3.7.3IoT integration

Sensors, smart-city interfaces, and data collection systems.

3.7.4Artificial intelligence

Data mining and predictive analytics.

3.8

Quality assurance program

Development teams shall conduct continuous testing and benchmarking across the following areas of validation:

3.8.1 · Security

Privacy compliance, access controls, data protection.

3.8.2 · Performance

Response times, scalability, load testing.

3.8.3 · Reliability

Failover testing, backup and recovery, disaster recovery.

3.8.4 · Data quality

Validation rules, duplicate detection, integrity testing.

3.8.5 · Integration

Cross-module interoperability, API validation, national–city synchronization.


4

Module independence principle

⚙️Core requirement

Each of the following modules must be designed and built as a fully standalone, independently deployable module — one that can be developed, launched, and used on its own, with no functional dependency on any other INTEGRA module.

PIMPersonal Information Manager
60 segments
FIMFamily Information Manager
30 segments
BIMBuilding / Block Information Manager
40 segments
CIMCommunity / Neighbourhood Bodies Information Manager
26 segments
NIMCommunity / Neighbourhood Activities Information Manager
16 segments
EIMEmergency Information Manager
10 segments
MCIMMedical Care Information Manager
18 segments
PEIMPublic Events Information Manager
9 segments
BSIMBuy & Sell / Employment / Thefts, Forgery, Fraud Information Manager
9 segments
SMISSchool Management Information System
64 segments
INTEGRA module independence diagram
Reference diagram — standalone module architecture.
4.1

Rationale — why independence matters

This isn't just a technical preference; it's a market-entry strategy. It allows INTEGRA (or its development partners) to market and distribute each module separately to citizens — including in countries and cities that have not yet adopted INTEGRA as their full civic operating system. In practice, this means:

4.2

One mandatory shared component

Despite this independence, every one of these modules must include the personal-data intake screen from the PIM (Personal Information Manager) module as a built-in component. In other words, standalone deployability doesn't mean total isolation — each module still onboards users through the same core personal-information capture screen, which presumably ensures data consistency and a smoother future integration path if or when a region later adopts the full INTEGRA platform.


5

The PIM module: foundation of the entire system

🧬PIM — Personal Information Manager

The most challenging, important, and ambitious module — and the foundation on which the entire INTEGRA operating system rests.

PIM module structural overview
Reference diagram — the PIM module's structural scope.
🎯The aspiration

To computerize every domain of an individual's life, through full integration of all subjects and topics within a single unified system.

📋High expectations of the citizen

Every citizen is expected to adapt to a daily reality of entering their own data and their family's data across all life domains.

⚠️The core challenge — duplication of effort

In the current state of affairs, in most places in the world, a large — if not decisive — share of the relevant data and documents originates from, is entered by, and is stored by external (third-party) sources (institutions, service providers, authorities), rather than by the citizen.

🤝What INTEGRA asks of the citizen despite this

We expect the citizen to demonstrate maturity, diligence, and persistence, and to proactively update the INTEGRA system with all events, transactions, and documents relevant to them — even though this constitutes duplication of data already entered and stored elsewhere by those external sources.

Therefore, the PIM module should be assigned to the most select and promising development team available to the city or country.

6

Estimated development time by module

The following are over-estimated development-time figures, expressed in person-months (PM), for each module.

ModuleFull nameSegmentsEst. person-months
Core & family layer
PIMPersonal Information Manager606 PM
FIMFamily Information Manager304 PM
Community layer
BIMBuilding / Block Information Manager404 PM
RIMRoad / Street Information Manager162–3 PM
CIMCommunity / Neighbourhood Bodies Information Manager264–5 PM*
VIMVolunteers Information Manager71 PM
NIMCommunity / Neighbourhood Activities Information Manager16—*
PSIMPublic Spaces Information Manager405 PM
SCIMSocietal-Communal Information Manager (100+ segments, ≈65% of INTEGRA)100+5 PM
EIMEmergency Information Manager102–3 PM
Health, mobility & services
MCIMMedical Care Information Manager184 PM
RSIMRide-Sharing Information Manager83 PM
PTIMPublic Transportation Information Manager (citizen/family point of view)255–6 PM
CYIMCycling Information Manager121 PM
PEIMPublic Events Information Manager93–4 PM
GCIMGarbage / Waste Collection & Recycling Information Manager244–5 PM
DTIMDirect Trade (Farmers/Growers–Consumers) Information Manager51 PM
BSIMBuy & Sell / Employment / Thefts, Forgery, Fraud Information Manager93 PM
GreenTrees & Vegetation Planting/Upkeep — Urban/Communal Gardening & Farming41 PM
Education
SMISSchool Management Information System646–8 PM
* NIM's development effort is included within the CIM estimate above, rather than costed separately.

7

Pilot deployment: target scope

Target scope
≈19 INTEGRA modules across selected cities.

Pilot implementation timeline: 9–12 months.

Pilot deployment roadmap diagram
Reference diagram — Phase 3 pilot deployment roadmap.
Phase 1: Penetration
Ecosystem & steering
Phase 2: Constitutional
Tech & partners selection
Phase 3: Planning The Development Process