RUSUL HASANI
Arabic and primary sources
Iraq · Electricity · A century of system change

How an Energy-Rich Country Became Electricity-Poor

The century-long story of Iraq’s power system, the wars that broke it, the companies that rebuilt its pieces, and the scheme that never fully reconnected.

1917 The first recorded electric machine was installed in Baghdad’s Khan Dalla, followed by diesel units in other urban locations. The beginning
9,295 MW Iraq’s installed capacity in 1990, against a recorded peak demand of roughly 5,100 MW. Before the break
≈70% The share of installed capacity JICA materials say was damaged during the 1991 Gulf War. The physical shock
7,000 MW The turbine capacity in GE’s landmark 2008 supply agreement, a turning point from repairing plants to buying turbine packages at scale. The procurement turn
The one big thing

Iraq did not fail to buy power plants. It bought many. What repeatedly failed to arrive was the plant, fuel, grid, maintenance system and payment mechanism as one machine.

In 1990, Iraq had more installed generating capacity than its recorded peak demand. One war later, much of the system had been damaged or disabled. Three decades and billions of dollars later, Iraq owns far more equipment, works with the world’s largest energy companies, and still enters each summer negotiating with fuel, heat, networks and time.1

This is not a story about a country that never learned to generate electricity. It is a story about how a vertically integrated national service was successively hit by war, sanctions, invasion, looting, fragmented reconstruction, turbine-first procurement and a demand curve that never waited for the system to heal.

The Arabic record begins in 1917, when the first electric machine was installed in Baghdad’s Khan Dalla. By 1958 Iraq had created a national electricity authority; by 1975 the General Electricity Corporation was coordinating generation, transmission and distribution as one public structure.23

The country began with scattered machines, built a national system, then returned to scattered coping mechanisms after the national system fractured.
Field note

Across more than 4,500 MW of power tenders connected to Iraq, I learned to distrust a single number: nameplate capacity. A turbine can exist in a purchase order, a warehouse, a photograph or a commissioned plant. Its value appears only when fuel, cooling, auxiliaries, maintenance, a switchyard, transmission capacity and payment security exist at the same time.

Act I: When electricity was one state machine

The old scheme was straightforward. The state planned the plants, owned the grid, operated the assets and supplied the customer. The system was centrally controlled, vertically integrated and built around large generating stations, hydro assets, high-voltage transmission and public distribution.

That model produced its own inefficiencies, but it had one advantage that later structures often lost: technical and institutional responsibility lived inside the same chain. When the generation planner wanted a plant, the transmission planner and distribution structure belonged to the same public architecture.

By 1990, total installed capacity stood at 9,295 MW, peak demand at roughly 5,100 MW, and access to electricity at about 87% of the population according to JICA’s historical summary.1

Act II: The century timeline

Scroll through the eras. Each card marks not only what happened to the equipment, but what happened to the operating model.

From one utility to many incomplete schemes

Select an era to open the full scene.

1917–1958
Electricity enters the city

Small urban machines become a public service and then a national institution.

1958–1979
The integrated state system

Generation, transmission and distribution are consolidated under a national public structure.

1980–1988
War strain, not yet collapse

The Iran–Iraq War absorbs resources and damages regional assets, but the system still expands.

1991
The grid loses its spine

Plants, substations and transmission lines are heavily damaged in the Gulf War.

1991–2003
The slow death of maintenance

Sanctions turn overhauls, spare parts and normal asset management into emergency improvisation.

2003–2008
Reconstruction by many hands

Bechtel, USAID, donors, contractors and a new ministry repair pieces amid insecurity and institutional rupture.

2008–2017
The turbine procurement age

GE, Siemens, Alstom, ENKA, Çalık and others enter a project landscape built through separate packages.

2018–today
Roadmaps, services and integrated energy

GE Vernova, Siemens Energy and TotalEnergies move from equipment supply toward fleet service, grids, gas capture and solar.

1917–1958

Electricity enters the city

The story begins with small machines in Baghdad, then moves toward nationalization and a public electricity authority. Electricity is still an urban modernity project, not yet the vast national operating system it will become.

Act III: The companies enter the story

Foreign companies did not enter Iraq in one role. Some supplied equipment. Some rebuilt destroyed assets. Some delivered EPC projects. Some financed or owned generation. Others now connect oil, gas, water, solar and power inside one package.

2003 reconstruction

Bechtel + USAID

Bechtel’s reconstruction program worked with U.S. agencies and other contractors to restore electricity generation after the invasion, reporting recovery to roughly 4,400 MW by late 2003.

  • Role: program management and infrastructure reconstruction
  • Scheme: donor-funded emergency repair
  • Lesson: restored output did not restore a normal utility operating environment
2008 procurement wave

General Electric

GE’s 2008 agreement supplied 56 Frame 9E gas turbines capable of around 7,000 MW. The package expanded Iraq’s equipment base dramatically.

  • Role: turbine OEM and later fleet-service partner
  • Scheme: the state bought turbine packages before every site had a complete plant around them
  • Later evolution: GE Vernova upgrades, services and grid projects
equipment → roadmap

Siemens / Siemens Energy

Siemens moved from equipment and plant work toward a national roadmap combining generation rehabilitation, turbine upgrades, substations, transformers and long-term service.

  • Role: OEM, EPC partner, grid supplier and service provider
  • Named work: Baiji rehabilitation, Zubaidiya, 13 substations and 35 transformers
  • Scheme: from isolated equipment to multi-layer roadmap
2011–2014 EPC expansion

Alstom

Alstom became part of the post-turbine project wave through plants including Al-Mansuriyah, Al-Anbar and the Zubair oil-field power project.

  • Role: equipment supply and turnkey plant delivery
  • Scheme: project-by-project EPC
  • Lesson: each plant could advance at a different speed from its fuel and grid context
IPP / BOO turn

Mass Group + ENKA + GE

Bismayah changed the ownership logic. Mass Group developed the project, ENKA delivered EPC work, and GE supplied major generation technology.

  • Role: private investor, EPC contractor and OEM
  • Scheme: Build–Own–Operate / independent power producer
  • Lesson: the ministry could buy electricity instead of owning every component
integrated energy

TotalEnergies + QatarEnergy + Basra Oil Company

The GGIP links gas capture, oil-field development, water infrastructure and a 1 GW solar plant. It treats electricity as the output of an energy system, not a separate ministry problem.

  • Role: investor-operator consortium
  • Scheme: integrated gas–oil–water–solar project
  • Contractor ecosystem: ENKA, Chinese engineering companies and Hyundai on different packages
A turbine supplier can deliver the turbine and still fail to deliver electricity, because electricity was never the turbine supplier’s scope alone.

Act IV: How the scheme changed

This is the most important institutional story. Click each model. The question is not only who built the plant, but who financed it, owned it, carried fuel risk and was accountable for the final service.

State plans and finances
State builds and owns generation
State operates grid and distribution
State supplies the consumer

One institution carried most of the chain

The vertically integrated model made coordination easier because planning, ownership and operation sat inside the same state architecture.

FinancierThe state
OwnerThe state
Fuel riskThe state
Main weaknessCentralized inefficiency and political control
USAID / donors fund programs
Bechtel and contractors repair assets
New Ministry receives a damaged system
Emergency output returns before institutional normality

Repairing pieces under emergency governance

Post-2003 reconstruction restored assets, but responsibility was divided among donors, foreign contractors, military-security structures and a newly formed ministry.

FinancierDonors and public funds
OwnerIraqi state
Fuel riskIraqi system
Main weaknessEmergency projects without a stable operating environment
Government buys turbine fleets
Separate contracts must create sites and balance of plant
Fuel, cooling, switchyard and grid must arrive later
Nameplate capacity waits for the rest of the plant

The heart was purchased before every body existed

The 2008 turbine packages gave Iraq a large equipment pipeline, but turbine delivery was only one layer of the electricity chain.

FinancierIraqi government
OwnerIraqi state
Fuel riskIraqi government and plant operator
Main weaknessInterface risk between procurement packages
Ministry awards individual projects
Alstom, ENKA, Çalık and others deliver plants
Each project meets a different fuel and grid reality
National outcome becomes the sum of uneven projects

Project success did not guarantee system success

EPC improved accountability at plant level, but Iraq still needed fuel, transmission and distribution programs to progress at the same speed.

FinancierGovernment or field developer
OwnerMostly public, sometimes oil-field operator
Fuel riskOwner / government
Main weaknessProjects optimized locally, not always nationally
Private investor finances and owns plant
EPC contractor builds
OEM supplies and services equipment
Ministry purchases electricity under contract

Bismayah changed ownership, not every bottleneck

The IPP/BOO model transferred financing and operating responsibility to the investor, but fuel supply, payment security and grid evacuation remained critical interfaces.

FinancierPrivate investor
OwnerPrivate investor
Fuel riskDefined by contract and public supply
Main weaknessPublic payment and fuel interfaces remain
Capture associated gas
Process fuel for power plants
Add solar, water and field infrastructure
Manage energy as one integrated portfolio

The latest model reconnects oil, gas and electricity

TotalEnergies’ GGIP is important because it begins upstream. Instead of adding a plant and searching for fuel later, it links gas recovery and electricity inside one multi-energy architecture.

FinancierConsortium investment
OwnerTotalEnergies, QatarEnergy and Basra Oil Company
Fuel riskAddressed inside the project
Main weaknessExecution across a very large integrated scope

Act V: Where the system hurts

The public experiences one blackout. The sector experiences five different failure points. Select a layer to see its strategic weight, public pain and rehabilitation need.

Fuel / Gas: the invisible first blackout

Iraq can own a turbine and still lack usable fuel at the correct pressure, quality and location. Associated gas may be flared near oil production while plants elsewhere operate on less efficient liquid fuel or imported gas.

Names and projectsTotalEnergies GGIP · QatarEnergy · Basra Oil Company · Ar Ratawi gas processing · Domestic gas investment
System failure weight5/5
Without fuel, installed capacity is stranded.
Public pain4/5
The consumer sees low supply, not the gas constraint behind it.
Rehabilitation need5/5
Capture, processing and pipeline delivery are structural.

Generation: the most visible investment, not the whole product

Nameplate capacity is not dependable summer output. Heat, maintenance, cooling, spare parts, fuel quality and conversion to combined cycle decide how much of the purchased equipment becomes available electricity.

Names and projectsGE · Siemens Energy · Alstom · Mass Group · ENKA · Al-Khayrat Thermal Power Station · Baiji · Bismayah · Zubair · Majnoon Central Power Plant
System failure weight4/5
Essential, but generation alone cannot deliver the service.
Public pain4/5
Loss of major units spreads deficits rapidly.
Rehabilitation need4/5
Fleet upgrades can recover output faster than new-build cycles.

Transmission: where megawatts lose geography

High-voltage lines and substations determine whether power produced in one node can reach Baghdad, Basra, the north or another demand center. A plant can be available while the system is unable to evacuate its output safely.

Names and projectsSiemens 13-substation package · 35 transformers · GE Vernova substations · GCC interconnection · Turkey connection · 400/132 kV network upgrades
System failure weight4/5
Surplus at the plant cannot help a distant load center without the corridor.
Public pain4/5
Transmission failures create broad regional outages.
Rehabilitation need5/5
Substations and network automation are high-leverage investments.

Distribution: where the citizen meets the failure

Feeders, local substations, transformers and overloaded low-voltage networks turn upstream weakness into daily life. Distribution is where politics becomes personal because it determines the quality of electricity at the socket.

Names and projectsDistribution network upgrades · Smart grid transition · Feeder rehabilitation · Local transformers · World Bank distribution reform programs
System failure weight5/5
The last mile can erase value created by every upstream investment.
Public pain5/5
This is the layer households and firms live inside.
Rehabilitation need5/5
Local upgrades produce some of the most visible service gains.

Meter → Cash: the quiet engineering problem

If delivered electricity is not measured, billed and collected credibly, the system cannot fund fuel, spares, maintenance or expansion. Commercial recovery is not separate from reliability; it finances reliability.

Names and projectsSmart metering · Customer data · Tariff reform · Collections · Ministry of Electricity · Future regulatory reform
System failure weight4/5
Weak recovery slowly starves the entire technical chain.
Public pain3/5
The damage appears gradually through worsening service and public cost.
Rehabilitation need4/5
Reform requires service improvement and social protection, not billing alone.

The projects that reveal the system

This is not an exhaustive dispatch list. It is a manager’s atlas of projects that reveal how Iraq’s scheme evolved.

Generation / legacy

Baiji Power Plants

A strategic northern node whose destruction and rehabilitation show how war can remove both generation and regional resilience.

  • Companies: Siemens Energy, Orascom Construction, later service partners
  • System lesson: restoration needs plant and grid work together
IPP / Baghdad

Bismayah Power Station

The clearest symbol of Iraq’s move toward privately financed generation.

  • Companies: Mass Group, ENKA, GE
  • System lesson: private ownership improves some incentives but still depends on public fuel, grid and payment interfaces
Thermal / Karbala

Al-Khayrat Thermal Power Station

A major thermal project that represents the continued search for large centralized capacity.

  • Developer/contractor reference: Harlow International in the user’s project tracking
  • System lesson: large capacity must be tested against fuel, EPC completion and evacuation
Oil field power

Zubair Power Plant

A plant tied to oil-field redevelopment, showing how industrial generation can be developed outside the traditional ministry-only pathway.

  • Companies: Eni Iraq, Alstom and project contractors
  • System lesson: industrial power can solve a defined load more directly than national planning
Oil field power

Majnoon Central Power Plant

Part of the wider Majnoon development logic, where field operations require reliable captive or dedicated power.

  • Client context: Basra Oil Company / field development
  • System lesson: oil projects often build reliability internally when the public grid cannot guarantee it
Gas + solar

Ratawi Gas Hub & Artawi Solar

The modern integrated-energy model linking recovered gas to power plants and utility-scale solar to the Basra grid.

  • Companies: TotalEnergies, QatarEnergy, Basra Oil Company
  • System lesson: fuel security and generation are designed inside one portfolio
Network

GCC and Turkey Interconnections

Interconnection adds diversity and emergency support, but imported electricity is a resilience layer rather than a substitute for domestic reform.

  • Actors: Ministry of Electricity, regional grid institutions and contractors
  • System lesson: redundancy lowers risk, but does not repair distribution or collections
System modernization

Smart Grid & Distribution Upgrades

The least glamorous projects may have the highest consumer visibility because they improve control, measurement, feeder performance and collections.

  • Actors: Ministry, World Bank programs, technology and network contractors
  • System lesson: the last mile determines whether national megawatts become useful hours

Why the crisis kept returning

Because each era repaired the failure it could see

After war, the visible failure was destroyed generation. During sanctions, it was spare parts. After 2003, it was emergency output. In 2008, it was missing capacity. Later, the bottlenecks shifted toward fuel, grids, losses, collections and coordination.

Because demand grew while the system was still healing

Population, urbanization, cooling loads and appliances expanded. The target was never stationary. Iraq was rebuilding against a moving demand curve.

Because private generators became a parallel welfare system

Neighborhood generators prevented total collapse and created a paid local service. But they also normalized fragmented electricity: public hours, generator amperes, household backup and constant switching between systems.

Because responsibility was divided across contracts

One party supplied turbines, another built civil works, another arranged fuel, another delivered the substation, and the ministry remained responsible for the national outcome. Interface risk accumulated between scopes.

The bottom line

Iraq became electricity-poor not because it lacked energy, engineers or international partners, but because the complete service chain was repeatedly broken faster than it could be reassembled.

Sources and documentation

Arabic sources are integrated alongside official company and institutional records. Time-sensitive current projects should be rechecked before formal board use.

  1. JICA: Electricity Master Plan / historical sector summary — 1990 installed capacity, peak demand, access and Gulf War damage.
  2. السفير العربي: أزمة الكهرباء في العراق — Arabic historical narrative, including early electrification and post-2003 contract context.
  3. وزارة الكهرباء العراقية: نبذة عن الوزارة — commission status in 1999 and ministry formation in 2003.
  4. GE: 2008 turbine agreement — 56 Frame 9E turbines and 7,000 MW capacity.
  5. Bechtel: 2003 Iraq reconstruction review — electricity restoration work.
  6. ENKA: Baghdad Bismayah power plant — investor, EPC and project configuration.
  7. GE: Bismayah turbine supply.
  8. Siemens: Iraq Roadmap implementation agreement — Zubaidiya, turbine upgrades and substations.
  9. Siemens + Orascom: Baiji reconstruction.
  10. الجزيرة: منافسة جنرال إلكتريك وسيمنس في العراق — Arabic reporting on the roadmap and contract competition.
  11. TotalEnergies: GGIP in Iraq — gas recovery and 1 GW solar plant.
  12. IEA: Iraq’s Energy Sector — system-wide generation, gas, grid and efficiency analysis.
  13. IRENA: Energy Transition Assessment, Iraq.
  14. منصة الطاقة: اتفاقيات الكهرباء الحديثة في العراق — Arabic coverage of current expansion frameworks.