Public Works Authority Director EA FAQs — Why Project, Asset, and PM Systems ≠ Public Works Enterprise Architecture?
- Sunil Dutt Jha

- Dec 24, 2025
- 4 min read
Updated: Dec 25, 2025

Most Public Works Authorities still treat Enterprise Architecture as a project management, engineering systems, or asset digitisation exercise. As a result, EA initiatives fail to prevent project delays, cost overruns, quality degradation, asset underutilisation, or chronic execution drift across infrastructure portfolios.
Public Works EA ≠ Project IT.
This Director EA FAQ explains where traditional EA breaks down and how a true enterprise anatomy reveals the structure that PM tools, drawings, and contracts alone cannot see, align, or repair.
It explains the logic of shadow project anatomies, execution drift across portfolios, and the One Public Works One Anatomy™ imperative.
Q1. Why do PM systems, engineering tools, and asset registers ≠ Public Works Enterprise Architecture?
Myth
Public Works EA = project management systems + engineering tools + asset databases + dashboards.
Reality
Public Works is not a collection of projects.It is a portfolio-scale infrastructure delivery enterprise.
Public Works operates through 15 core functions (D1–D15) such as Infrastructure Strategy & Planning, Portfolio Prioritisation, Project Formulation & DPRs, Design & Engineering, Land & Utility Coordination, Contracting & Procurement Interface, Construction & Execution Management, Quality & Safety Oversight, Financial Control & Payments, Change & Variation Control, Asset Handover & Commissioning, Maintenance & Lifecycle Planning, and Audits & Vigilance Interface — each with its own P1–P6 execution cycle.
Project IT is only one enabling layer.
EA (PM Tools & Systems) ≠ Enterprise Anatomy.
A project list cannot show how infrastructure intent, portfolio sequencing, design logic, contract structures, and asset lifecycle outcomes align across years and programs.
Q2. Why do so many public works IT initiatives fail to represent the enterprise?
Because public works IT automates isolated P5 tasks, while the real operating architecture of infrastructure delivery lives in P1–P4.
Every infrastructure lifecycle — planning to operations — operates on a full P1–P6 structure.
P1 (Strategy) defines infrastructure priorities, service capacity goals, and long-term public value.
P2 (Process) defines project formulation, approvals, design, construction, and handover.
P3 (System Logic) defines prioritisation criteria, design standards, sequencing rules, variation thresholds, and escalation logic.
P4 (Component Spec) defines designs, BOQs, contracts, milestones, quality parameters, and asset definitions.
This is the architecture(P1-P4) of public works.
Most IT initiatives focus on:
scheduling and tracking
document management
progress reporting
payment processing
These operate largely in P5.
The underlying structure (P1–P4) remains fragmented across departments, projects, and contractors.
This creates the core mismatch:
IT systems automate tracking
Public works operates on engineering, commercial, and lifecycle logic that was never unified
Because P1–P4 is missing or inconsistent:
projects start without portfolio alignment
designs change mid-execution
land and utilities stall progress
variations proliferate
quality issues surface late
assets underperform after handover
Public Works IT does not fail because systems are weak. It fails because it is built on an incomplete representation of the public works enterprise.
Q3. What drives the high project count and execution drift in public works?
Because public works is long-horizon, multi-stakeholder, and capital-intensive.
A funding change reshuffles project sequencing.
A design revision cascades into cost, time, and quality impacts.
A land or utility delay blocks entire corridors.
A contractor failure triggers re-tendering and litigation.
Each disruption touches multiple rule layers simultaneously.
High project count reflects infrastructure delivery complexity, not poor project management.
Q4. What is unique about the Public Works functional anatomy?
Public works uniquely combines engineering precision, commercial contracts, and public accountability.
Key drift-prone functions include:
Portfolio Prioritisation — projects approved without capacity logic
Design & Engineering — standards disconnected from execution reality
Land & Utility Coordination — external dependencies unmanaged structurally
Variation Control — reactive rather than preventive
Asset Handover & Lifecycle Planning — treated as an afterthought
These functions generate the strongest P1–P6 drift, creating shadow project systems across regions and programs.
Q5. What does P1–P6 look like in the public works context?
This explains how infrastructure intent (P1) degrades by the time assets enter service (P6).
P1 Strategy: service capacity, connectivity, public value
P2 Process: planning, design, construction, handover
P3 Logic: prioritisation, standards, variations, escalation
P4 Components: designs, contracts, assets, milestones
P5 Implementation: PM systems, reports, payments
P6 Operations: assets operated with inherited constraints
Public works drift occurs when these layers no longer form a single infrastructure logic chain.
Q6. We already have manuals, standards, and PM frameworks. Why redo this?
Myth
Better project management fixes execution problems.
Reality
Frameworks describe how to manage projects.Enterprise Anatomy shows how infrastructure delivery actually behaves.
Like the human body, public works depends on tightly coupled systems — planning, design, contracts, execution, and lifecycle — none optional, none independent.
A Public Works Enterprise Anatomy = 15 Functions × P1–P6.
Traditional documentation never shows:
where delays originate structurally
why variations repeat
how quality erodes systematically
where accountability diffuses
why assets underperform
You get control tools. Not coherence.
One Public Works One Anatomy™ provides a single integrated model of infrastructure delivery.
Q7. How do we evolve from EA (Project IT) → EA (Functions) → One Public Works One Anatomy™?
Most authorities stop at EA = project and asset systems.
The required evolution is:
Step 1: Elevate EA (Public Works IT)
Create the P1–P4 model of Public Works IT itself —infrastructure governance intent, project and asset processes, embedded engineering and commercial logic, and system components.
Step 2: Create EA (Functions)
Map all public works functions end-to-end across P1–P6 — portfolio planning, design, execution, contracts, and lifecycle.
Step 3: Create One Public Works One Anatomy™
Unify all functional models into one integrated public works enterprise anatomy governing projects, assets, delivery, and accountability.
This is where execution drift stops — and predictable infrastructure outcomes emerge.
Q8. What can One Public Works One Anatomy™ do that traditional EA cannot?
Traditional EA documents systems.
It cannot see that each project and region operates its own shadow delivery model.
Typical fragmentation includes:
inconsistent prioritisation
design drift
uncontrolled variations
late-stage quality failures
weak lifecycle accountability
Traditional EA records this fragmentation. One Public Works One Anatomy™ replaces it.
It establishes:
one infrastructure intent
one design and execution logic
one delivery and control model
one lifecycle accountability chain
How It Impacts Core Public Works Use Cases
Using One Public Works One Anatomy™, governments can stabilise:
portfolio prioritisation
project delivery timelines
cost and variation control
quality and safety outcomes
asset handover and utilisation
lifecycle maintenance planning
With One Public Works One Anatomy™, infrastructure delivery becomes predictable, durable, and accountable — because it runs on one integrated infrastructure logic stack.




