Amogh N P
 In loving memory of Amogh N P — Architect · Designer · Visionary 
A long flatbed truck carrying a large precast concrete wall panel on a road toward a construction site, with a tower crane visible at the destination, the transport leg of industrialised building, no readable text.
Unit VIndustrial Architecture

Procedures & Organisation

Manufacture, transport, assemble — building as a supply chain.

≈ 45 min + studio task

Industrialised building is a manufacturing and logistics operation as much as a design. Learn the procedures that turn a design into a building: the equipment and manufacturing processes; the transportation of large, heavy parts from factory to site (the constraint that often decides the system); on-site assembly and finishing; and the structural, social and economic issues that decide whether an industrialised system succeeds.

Learning objectives

By the end of this lesson, you will be able to — mapped to the course outcomes for Industrial Architecture:

1
CO5 · Apply

Describe the equipment and manufacturing processes for components.

2
CO5 · Apply

Explain the transportation and assembly of components.

3
CO5 · Analyse

Weigh the structural, social and economic issues of an IBS.

4
CO5 · Understand

See industrialised building as a supply chain.

The supply chain

Manufacture, transport, assemble

It starts in a factory — moulds, casting, curing, run in parallel for volume — then becomes a supply chain to site; transport and cranage limits often decide the whole system, not just design.[1, 2]

Building as a supply chain MANUFACTUREfactory · moulds TRANSPORTfactory → site ASSEMBLEcrane + joints FINISHservices · seal Industrialised building is a manufacturing and logistics operation as much as a design. Success turns on structural (connections), social (shifted labour) and economic (volume) issues — not design alone.
DiagramIndustrialised building as a supply chain — manufacture, transport, on-site assembly and finishing

The factory side

Industrialised building starts in a FACTORY or casting yard. The EQUIPMENT: MOULDS (the most important tool — accuracy and repeatability come from them), batching and mixing plants, vibration and curing systems, and lifting GANTRIES. The MANUFACTURING process for a precast element runs: prepare the mould → place reinforcement (and stress it, if prestressed) → cast and compact concrete → CURE (often accelerated with steam) → demould → store and quality-check. Volume comes from running this cycle on many moulds in parallel. The factory's discipline is what gives prefab its quality edge over the weather-exposed site.[1, 2]

Logistics shapes the system large panel / module truck — limited size & weight crane — limited reach & weight on site A component you can make but cannot deliver or lift is no use — size and weight are capped by the road and the crane. 'The factory is the hard part' is a myth — transport and cranage often decide the whole system.
DiagramTransport and cranage limits on the size and weight of a component often decide the whole industrialised system
Structural, social, economic

What decides success

Success turns on the engineering of connections and robustness (the Ronan Point lesson), the social shift of labour and livability, and the economics of volume; the goal is never maximum prefab but the right degree, often a hybrid.[2, 3]

What decides success

Whether an industrialised building system SUCCEEDS turns on three issues. STRUCTURAL: the engineering of CONNECTIONS, robustness, and resistance to progressive collapse (a lesson from the 1968 Ronan Point panel collapse, which reshaped precast jointing). SOCIAL: it shifts work from site labour to factory labour and skilled assembly — changing the workforce, sometimes resisted, and it must still produce homes people want to live in, not barracks. ECONOMIC: it pays only with VOLUME and REPETITION to amortise the high fixed cost; without them it is dearer than conventional building. MISCONCEPTION→correct: 'IBS is purely a technical choice' — its success is as much social and economic as structural.[2, 3]

Procedures

At a glance

AspectDetailNote
Factory sideMoulds, casting, curingRepeatable accuracy
The chainManufacture → transport → assemble→ finish
Often decisiveTransport & cranageNot just design
Structural lessonConnections & robustness(Ronan Point, 1968)
Success needsVolume + repetition + frozen designMatch system to need
Vocabulary

Key terms

Mould

The most important factory tool — accuracy and repeatability come from it.

Curing

Controlled (often steam-accelerated) hardening of cast concrete components.

Supply chain

Industrialised building as manufacture → transport → assembly → finish.

Transport constraint

Road size/weight limits that often decide the system and component size.

Connections / robustness

The structural issue — joints and resistance to progressive collapse.

Right degree of industrialisation

Matching prefab to the repetition and need — often a hybrid.

Apply it

Studio task

Trace one precast wall panel from mould to finished wall — list each step from manufacture to finishing, and at each, note one thing that could go wrong. Then write three sentences on why an industrialised housing scheme can still fail for social or economic reasons even when the engineering is sound.

Check your understanding

Self-assessment

1. The most important tool that gives prefabrication its accuracy and repeatability is the —

2. A factor that often decides the whole industrialised system is —

3. The 1968 Ronan Point collapse is remembered in this field because it —

In a nutshell

Recap

Industrialised building starts in a factory — moulds, casting, curing, gantries — run in parallel for volume.
It then becomes a supply chain: manufacture → transport → on-site assembly (crane + joints) → finishing.
Transport and cranage limits often decide the whole system — logistics, not just design, shapes it.
Success turns on structural (connections, robustness), social (shifted labour, livability) and economic (volume) issues.
The goal is never maximum prefab — it is the right degree of industrialisation matched to the housing need, often a hybrid.
The evidence

References & further reading

  1. [1]Indian Concrete Institute, Industrialized Building Construction (Proceedings) — equipment and manufacturing processes.
  2. [2]Albert G. H. Dietz, Industrialized Building Systems for Housing (MIT) — procedures, logistics and the issues of success.
  3. [3]Studies of the Ronan Point collapse (1968) and progressive collapse — structural lessons for precast jointing.

Further reading

  • Albert G. H. Dietz — Industrialized Building Systems for Housing (MIT).
  • Indian Concrete Institute — Industrialized Building Construction.
  • Henrik Nissen — Industrial Building and Modular Design.

Sources gathered and fact-checked June 2026. Published values vary by source, sample and method — treat as indicative and confirm against the cited standard before structural use.