Manufacturing Director EA FAQs - Why do 220 IT projects ≠ Manufacturing Enterprise Architecture?
- Sunil Dutt Jha

- 5 days ago
- 5 min read
Updated: 3 days ago

Most manufacturing organisations still treat Enterprise Architecture as an IT exercise, which is why EA efforts don’t change throughput, yield, quality stability, inventory accuracy, supplier reliability, or cost predictability.
Manufacturing EA ≠ Manufacturing IT.
This Director EA FAQ explains where traditional EA breaks down and how a true enterprise anatomy reveals the structure that IT alone cannot see, align, or repair.
It explains the logic of shadow anatomies, 12 manufacturing use cases, and the One Manufacturing One Anatomy™ advantage.
Q1: Why do 200 IT projects ≠ Manufacturing Enterprise Architecture?
Myth:
Manufacturing EA = Manufacturing IT (ERP + MES + PLM + automation + Industry 4.0 tools).
Reality: A manufacturing enterprise operates through 15 departments (D1–D15) such as Product Engineering, Planning, Procurement, Production, Quality, Maintenance, Supply Chain, Logistics, Inventory, Finance, Sales, Compliance, and Operations — each with its own P1–P6 execution cycle.
Manufacturing IT is only one department.
EA (IT) ≠ Enterprise Anatomy.
A project inventory cannot show how product design intent, production logic, quality rules, supplier constraints, cost controls, and plant operations align across the enterprise.
Q2. Why do so many IT projects fail to represent the manufacturing enterprise?
Because manufacturing IT automates only small fragments of P5 tasks, while the true operating architecture of the manufacturing enterprise lives in P1–P4, not in the task layer.
Every manufacturing department operates on a full P1–P6 structure:
P1 (Strategy) defines product mix, capacity strategy, cost targets, and service levels.
P2 (Processes) defines product development, sourcing, production planning, execution, quality control, and distribution.
P3 (System logic) defines BOM rules, routing logic, capacity constraints, quality tolerances, inspection rules, and exception handling.
P4 (Component Spec) defines drawings, BOMs, routings, work instructions, quality plans, and control parameters.
This is the architecture of the manufacturing enterprise.
Most IT projects touch P5 only — automating selected tasks such as order entry, scheduling runs, recording production, logging quality results, or tracking inventory — while P1–P4 remains fragmented, manual, or interpreted differently across plants and departments.
The mismatch is structural:
IT systems automate tasks (P5).
Manufacturing runs on production and quality architecture (P1-P4 X D1-D15).
Because P1–P4 was never architected:
• BOM interpretations differ across plants
• routing logic varies by line and shift
• quality thresholds are applied inconsistently
• production planning deviates from capacity logic
• cost rollups differ between operations and finance
• supplier constraints are handled locally
Manufacturing IT does not fail because systems are weak. It fails because it is built on an incomplete representation of the enterprise.
Q3. What drives the high project count in the manufacturing industry?
Manufacturing is a rule-dense, interdependent enterprise where every change cascades across functions.
A product design change impacts engineering, sourcing, production, quality, and cost.
A supplier change affects procurement rules, lead times, quality checks, and schedules.
A process improvement alters routing, capacity, work instructions, and inspections.
A regulatory requirement impacts materials, documentation, traceability, and audits.
A demand shift affects planning, inventory, logistics, and production sequencing.
High project count reflects structural production complexity, not IT inefficiency.
Q4. What is unique about Manufacturing’s 15 Functions (D1–D15)?
Each manufacturing organisation has a distinctive 15-function anatomy (D1–D15 × P1–P6).
Manufacturing highlights:
D2 Product Engineering – governs design intent and specifications
D4 Production Planning – governs capacity, sequencing, and constraints
D6 Manufacturing Operations – governs execution and shop-floor logic
D8 Quality – governs tolerances, inspections, and release rules
D10 Maintenance – governs asset availability and reliability logic
D12 Supply Chain – governs sourcing, inventory, and logistics constraints
These functions generate the strongest P1–P6 drift when not aligned.
Shadow anatomies emerge when plants and departments evolve independently.
Q5. What does P1–P6 look like in the manufacturing industry?
This explains how strategy (P1) → operations (P6) breaks down.
P1 Strategy: product mix, capacity strategy, cost and service targets.
P2 Process: design, sourcing, planning, production, quality, distribution.
P3 Logic: BOM rules, routing logic, capacity constraints, quality thresholds.
P4 Components: drawings, BOMs, routings, work instructions, quality plans.
P5 Implementation: ERP/MES transactions, schedules, reports, manual overrides.
P6 Operations: plant teams applying rules differently across lines and shifts.
Manufacturing drift occurs when these layers no longer form one integrated sequence.
Q6. We already have extensive architecture documentation. Why redo this?
Myth: More documentation means we understand the enterprise.
Reality: Documentation shows parts of the manufacturing organisation. Enterprise Anatomy shows the organisation as one integrated model.
Think of the human body.
It has 11 organ systems. Each has its own role, but none operate independently. They function as one integrated system with thousands of interdependencies.
A manufacturing enterprise is the same.
A manufacturing anatomy = 15 Functions (D1–D15) × 6 Perspectives (P1–P6).
Traditional documentation describes systems, machines, processes, and reports separately — but never shows:
• how design intent flows into production• how quality rules affect throughput • how capacity constraints drive cost • how planning logic diverges from execution• where structural inefficiencies originate
You get a library — not a model.
One Manufacturing One Anatomy™ collapses complexity into one integrated enterprise model.
Q7. How do we evolve from EA (IT) → EA (Departments) → One Manufacturing One Anatomy™?
Most organisations stop at EA = IT architecture.
The next evolution is:
Step 1: Elevate EA (IT) Create the P1–P4 model of Manufacturing IT (ERP + MES + PLM + automation + Industry 4.0 tools) itself — IT strategy, IT processes, IT logic, IT components.
Step 2: Create EA (Departments) Map 15 manufacturing functions end-to-end (P1–P6).
Step 3: Create One Manufacturing One Anatomy™ Unify all departmental models into one enterprise anatomy governing product, production, quality, supply chain, and operations.
This is where drift stops — and performance stabilises.
Q8. What can One Manufacturing One Anatomy™ do that traditional EA cannot?
Traditional EA documents systems. It cannot see that every department and plant is running its own shadow anatomy.
A mid-size manufacturer typically carries 100–300 shadow anatomies:
• different BOM interpretations • different routing and sequencing rules • different quality thresholds • different planning assumptions • different cost and inventory logic
Traditional EA documents this drift. One Manufacturing One Anatomy™ eliminates it.
How it Impacts the 12 Core Manufacturing Use Cases
Using One Manufacturing One Anatomy™, the enterprise can address failures across:
Product Design to Production Alignment
Capacity Planning & Utilisation
BOM & Routing Consistency
Production Scheduling Accuracy
Quality & Yield Stability
Maintenance & Asset Reliability
Supplier & Procurement Alignment
Inventory Accuracy
Costing & Margin Control
Compliance & Traceability
Order Fulfilment Reliability
Customer Delivery Performance
With One Manufacturing One Anatomy™, these use cases become predictable and controllable — because they run on one enterprise logic stack.
If EA remains limited to IT, Manufacturing continues to drift — rule by rule, service by service, region by region. A Manufacturing enterprise regains coherence only when its entire P1–P6 structure is mapped as One Manufacturer One Anatomy™.
If you’d like a diagnostic walk-through of how this applies to your environment, write to us and we will prepare it.




