By EPC Partners Inc. Engineering Team

Electrical engineering is the nervous system of an industrial plant. It powers the motors that drive equipment, controls the instruments that monitor the process, provides lighting for safe operation, and ensures that safety systems function when needed. Without reliable electrical systems, the plant cannot operate, and without safe electrical systems, it cannot operate safely.

At EPC Partners Inc., electrical engineering has been a core part of our work across a wide range of plant projects, from geothermal power plants in Kenya, Indonesia, and Iceland to thermal power plants in Vietnam and Bangladesh, and from large-scale desalination facilities in the UAE and Saudi Arabia to high-voltage transmission projects in Qatar. Our electrical engineering work has ranged from generator and switchgear design for 83 MW geothermal units to high-voltage transmission systems for 220 kV cable circuits in Qatar. Each project has presented different electrical challenges, and each has reinforced the same lesson: electrical engineering is not just about providing power. It is about designing systems that are reliable, safe, and maintainable over decades.

This article covers the key practices in plant electrical engineering, drawing on our experience supporting projects across Asia, the Middle East, Africa, and Europe.

What Is Plant Electrical Engineering?

Plant electrical engineering is the discipline of designing, specifying, and constructing the electrical systems required for an industrial plant.

It includes:

• Power generation: Generators, excitation systems, and generator switchgear.
• Power distribution: Transformers, switchgear, cables, and busbars.
• Motor control: Motor control centers, variable frequency drives, and protection.
• Instrumentation and control: Power supplies, signal wiring, and control panels.
• Lighting: General, task, emergency, and outdoor lighting.
• Earthing and lightning protection: Earthing systems and lightning protection.
• Emergency power: Generators, UPS, and battery systems.

Electrical engineering provides the power and control infrastructure that supports all other disciplines.

Why Electrical Engineering Matters

Electrical engineering directly affects plant performance.

For small to medium-scale industrial plants, electrical engineering determines whether the plant can operate reliably and safely.

Design Basis and Load List

Good electrical engineering starts before any equipment is selected. The design basis defines what the electrical system must do, and the load list quantifies it.

The design basis should record:

• Applicable codes and standards (for example IEC, IEEE, or local national codes) and the owner’s specifications.
• Grid connection requirements and utility interface conditions.
• Site conditions: ambient temperature, altitude, humidity, corrosive or marine atmosphere, and seismic conditions.
• Voltage levels, frequency, and system earthing philosophy.
• Reliability and redundancy requirements.
• Hazardous area classification, where flammable gases or dusts are present.

The load list should identify every electrical load, its rating, duty (continuous, intermittent, or standby), and whether it is essential or non-essential. It drives transformer, switchgear, cable, and generator sizing, so it should be updated as equipment data is confirmed by vendors.

Power Generation

Power generation is the source of electrical energy for the plant.

Power supply types:

• Grid supply: Power from the local utility grid.
• On-site generation: Power from generators driven by turbines or engines.
• Combined supply: Both grid and on-site generation.

Key considerations:

• Reliability: How reliable is the power source?
• Capacity: Is there enough capacity for the plant?
• Voltage: What voltage is supplied?
• Power quality: Are there harmonics, sags, or surges?
• Grid code compliance: Does the plant meet requirements for fault ride-through, reactive power, and frequency response?
• Cost: What is the cost of power?

At our geothermal projects in Kenya (Olkaria I Unit 6, 83 MW) and Indonesia (Muara Laboh, 85.2 MW), the generators were designed to match the steam turbine output and to meet grid requirements. In Iceland (Theistareykir, 2×45 MW), the electrical systems were designed for the specific grid conditions and environmental requirements of the site.

Power Distribution

Power distribution delivers electricity from the source to the equipment.

Key considerations:

• Voltage levels: What voltages are required?
• Configuration: Radial, ring, or network?
• Protection: How are circuits protected?
• Redundancy: Is redundancy required?
• Earthing: How is the system earthed?
• Cable sizing and routing: Are cables sized for current, voltage drop, and short-circuit withstand, and routed with proper segregation?

For thermal power projects in Vietnam (Thai Binh 1, 2×300 MW) and Bangladesh (Bibiyana-III, 400 MW CCGT), the electrical systems included step-up transformers to connect to the grid, auxiliary transformers to supply plant loads, and switchgear to protect and control the distribution system.

Project example: At one thermal power project in Vietnam, the step-up transformer was designed to connect the 300 MW unit to the 220 kV grid, while auxiliary transformers supplied power to the plant’s own loads. The protection and control systems were designed to isolate faults quickly and maintain stability during grid disturbances.

Electrical Studies

Calculations and studies turn the design basis into a design that can be trusted. The main studies are:

These studies should be done early enough to influence equipment specifications, and updated as the design matures.

Motor Control

Motors are the largest electrical loads in most industrial plants.

Motor control components:

• Motor control centers (MCCs): Centralized control and protection for motors.
• Variable frequency drives (VFDs): Control motor speed and torque.
• Soft starters: Reduce starting current.
• Protection relays: Protect motors from overload, short circuit, and other faults.

Key considerations:

• Starting method: Direct-on-line, star-delta, soft starter, or VFD?
• Protection: What protection is required?
• Control: Local or remote control?
• Efficiency: Are motors high-efficiency?
• Power quality: Do drives introduce harmonics that must be mitigated?

For desalination projects in the Gulf (Taweelah, 909,200 m³/day; Jubail 3A, 600,000 m³/day), high-voltage motors and VFDs were used for high-pressure pumps, with careful attention to starting current, power quality, and energy efficiency.

Project example: On the large Gulf desalination projects, the high-pressure pump motors were among the biggest loads on the electrical system. Their starting method, drive selection, and effect on power quality were considered together, so that the pumps could start and run reliably without disturbing the rest of the plant.

Instrumentation and Control

Instrumentation and control systems monitor and control the process. From the electrical side, the focus is on reliable power supplies, correct signal wiring, and clean integration with the control system.

Key considerations:

• Signal types: Analog, digital, or fieldbus?
• Redundancy: Is redundancy required for critical loops?
• Power supplies: Are control systems fed from reliable, backed-up supplies?
• Segregation: Are signal and power cables separated to avoid interference?
• Cybersecurity: Are control systems protected?
• Integration: Do systems integrate with other plant systems, including protection relays and the electrical SCADA?

Lighting

Lighting is essential for safe operation and maintenance.

Lighting types:

• General lighting: Illuminates work areas.
• Task lighting: Provides focused light for specific tasks.
• Emergency lighting: Provides illumination during power failures.
• Outdoor lighting: Illuminates access roads, storage areas, and perimeters.

Key considerations:

• Illumination levels: What lighting levels are required?
• Energy efficiency: Are LED lights used?
• Emergency lighting: Is emergency lighting powered by a backup supply?
• Hazardous areas: Are fixtures suitable for the area classification?
• Maintenance access: Are fixtures accessible for maintenance?

Earthing and Lightning Protection

Earthing and lightning protection protect people and equipment.

Components:

• Earthing electrodes: Ground rods, plates, and grids.
• Earthing conductors: Cables and bars connecting equipment to earth.
• Lightning protection: Air terminals, down conductors, and earthing.
• Bonding: Connecting metallic structures to the earthing system.

Key considerations:

• Soil conditions: What is the soil resistivity?
• Earthing resistance: Is the earthing resistance adequate, and are step and touch voltages within safe limits?
• Lightning risk: What is the lightning risk?
• Bonding: Are all metallic structures bonded?
• Corrosion: Are earthing materials suitable for the soil and atmosphere, particularly in coastal or geothermal environments?

Emergency Power

Emergency power provides backup power for critical systems.

Emergency power sources:

• Diesel generators: For extended outages.
• Battery systems: For short outages.
• UPS systems: For sensitive equipment.
• Emergency lighting: For evacuation.

Key considerations:

• Critical loads: Which loads require backup power?
• Duration: How long must backup power last?
• Startup time: How quickly must backup power come online?
• Testing: Are emergency systems tested regularly?

Interfaces with Other Disciplines

Electrical engineering depends on information from, and provides information to, nearly every other discipline.

These interfaces should be tracked in an interface register and reviewed regularly. Late changes to motor ratings or equipment locations are a common cause of rework.

Testing, Commissioning, and Energization

Electrical systems are tested in stages before the plant starts up:

• Factory acceptance testing (FAT): Verifies transformers, switchgear, MCCs, and control panels before shipment.
• Site inspection and pre-commissioning checks: Cable insulation resistance tests, earthing resistance measurements, and protection relay testing.
• Energization: Planned, step-by-step energization of the substation, transformers, and distribution, with clear safety procedures and permit controls.
• Functional and integrated testing: Verification of interlocks, changeover schemes, and emergency power operation.
• Handover documentation: As-built drawings, test records, relay settings, and operation and maintenance manuals.

Electrical Engineering in Small Plants

Small plants face particular challenges with electrical engineering.

Challenges:

• Fewer resources for electrical engineering.
• Less in-house expertise.
• Less access to vendor information.
• Competing priorities.

Practical approaches:

• Focus on proven equipment: Reduce risk by using proven equipment.
• Use vendor information: Leverage vendor data and references.
• Seek expert advice: Get advice from consultants or experienced colleagues.
• Visit operating plants: See equipment in operation.
• Involve operations and maintenance: Use the experience of the people who will run the plant.
• Document decisions: Record the basis for decisions.
• Consider lifecycle cost: Look beyond capital cost.

Electrical engineering does not need to be complex. It needs to be thorough and practical.

Common Mistakes in Electrical Engineering

Even experienced organizations make mistakes. Common ones include:

• Undersizing equipment: Insufficient capacity for actual loads.
• Ignoring voltage drop: Causing poor motor performance.
• Poor protection coordination: Leading to unnecessary trips or failure to isolate faults.
• Inadequate earthing: Creating safety hazards.
• No spare capacity: Requiring costly upgrades for future expansion.
• Insufficient segregation: Causing electrical noise and interference.
• Skipping electrical studies: Relying on rules of thumb instead of load flow, short-circuit, and coordination studies.
• Ignoring cybersecurity: Control systems exposed to network threats.
• Late interface changes: Motor ratings and equipment locations changing after the design is frozen.
• No documentation: Not recording the basis for decisions.

These mistakes are costly to correct. They are much cheaper to avoid through disciplined electrical engineering.

How EPC Partners Inc. Approaches Electrical Engineering

At EPC Partners Inc., we bring practical experience from projects across Asia, the Middle East, Africa, and Europe to electrical engineering.

Our approach includes:

• Clear design basis: Requirements, standards, and grid conditions are defined before design begins.
• Study-based design: Load flow, short-circuit, and protection studies support equipment selection and settings.
• Proven technology: Proven equipment is preferred over unproven.
• Integration focus: Electrical systems are evaluated for how well they integrate with other systems.
• Operations and maintenance input: The people who will run the plant are involved in decisions.
• Vendor evaluation: Vendors are evaluated for experience, support, and spare parts availability.
• Detailed documentation: The electrical design and selection process is documented.
• Long-term focus: Equipment is selected for long-term reliability.

Our experience includes supporting geothermal projects in Kenya, Ethiopia, Indonesia, Iceland, and Japan; desalination projects in the UAE, Saudi Arabia, Oman, and Qatar; thermal power projects in Vietnam, Bangladesh, and Japan; water treatment projects in Vietnam, Kuwait, and Qatar; and transmission projects in Qatar.

We have also supported clients including Marubeni Corporation, Fuji Electric Co., Ltd., and Toyota Tsusho Corporation on electrical engineering aspects of their projects.

How to Evaluate Electrical Engineering Readiness

When reviewing electrical engineering, ask:

A plant that addresses these questions is ready for sound electrical engineering.

Conclusion

Electrical engineering is the nervous system of every industrial plant. For small to medium-scale industrial plants, it determines whether the plant can operate reliably and safely.

By focusing on a clear design basis, power generation, power distribution, electrical studies, motor control, instrumentation and control, lighting, earthing, lightning protection, emergency power, and disciplined testing and commissioning, owners and project teams can ensure that the electrical systems support the plant throughout its life.

If you are planning a plant project and need support with electrical engineering or EPC project delivery, contact us to discuss how we can help.

EPC Partners Inc. is a Japanese EPC support firm with experience supporting power, water, and industrial plant projects across Asia, the Middle East, Africa, and Europe. For more information, visit our project list.

By EPC Partners Inc. Engineering Team

Mechanical engineering is the heart of an industrial plant. It covers the equipment that drives the process (turbines, boilers, pumps, compressors, heat exchangers, and piping) and the systems that connect them. A plant’s mechanical design determines how efficiently it converts fuel or resources into output, how reliably it operates, and how maintainable it is over its life.

At EPC Partners Inc., mechanical engineering has been a core part of our work across a wide range of plant projects. These include geothermal power plants in Kenya, Indonesia, and Iceland; large-scale desalination facilities in the UAE and Saudi Arabia; thermal power plants in Vietnam and Bangladesh; and water treatment plants in Vietnam and Kuwait. Our support on mechanical engineering work has ranged from steam turbines for 83 MW geothermal units to high-pressure pumps for some of the world’s largest desalination plants. Each project has presented different mechanical challenges, and each has reinforced the same lesson: mechanical engineering is not just about selecting equipment. It is about designing systems that work together, reliably and efficiently, for decades.

This article covers the key practices in plant mechanical engineering, drawing on our experience supporting projects across Asia, the Middle East, Africa, and Europe.

What Is Plant Mechanical Engineering?

Plant mechanical engineering is the discipline of designing, specifying, and constructing the mechanical systems and equipment required for an industrial plant.

It includes:

• Rotating equipment: Turbines, compressors, pumps, and fans.
• Static equipment: Boilers, heat exchangers, pressure vessels, and tanks.
• Piping systems: Pipes, valves, fittings, and supports.
• Material handling: Conveyors, cranes, and lifting equipment.
• HVAC and ventilation: Heating, ventilation, and air conditioning systems.
• Fire protection: Pumps, sprinklers, and fire suppression systems.

Mechanical engineering provides the equipment and systems that convert resources into output.

Why Mechanical Engineering Matters

Mechanical engineering directly affects plant performance.

For small to medium-scale industrial plants in particular, mechanical engineering often determines whether the plant can achieve its performance targets.

Key Mechanical Systems

A typical industrial plant has several key mechanical systems.

Each system must be designed to work with the others.

Rotating Equipment

Rotating equipment is the core of many industrial plants.

Types:

• Turbines: Steam turbines, gas turbines, and expanders.
• Compressors: Centrifugal, axial, and reciprocating.
• Pumps: Centrifugal, positive displacement, and reciprocating.
• Fans: Centrifugal and axial.

Key considerations:

• Performance: Does the equipment meet flow, pressure, and efficiency requirements?
• Reliability: Is the equipment proven in similar applications?
• Maintenance: Can the equipment be maintained easily?
• Vibration and dynamics: Have rotor dynamics, foundations, and vibration limits been addressed?
• Vendor support: Is vendor support available?
• Spare parts: Are spare parts available?

At our geothermal projects in Kenya (Olkaria I Unit 6, 83 MW) and Indonesia (Muara Laboh, 85.2 MW), steam turbine selection and integration with the geothermal steam supply were critical to plant performance. In Iceland (Theistareykir, 2×45 MW), the turbines were designed to handle the specific steam conditions of the geothermal resource.

From the field: At one geothermal site in Indonesia, the steam turbine was designed to handle the specific pressure and non-condensable gas content of the resource. At another site in Kenya, the turbine selection considered the long-term degradation of the steam field and the need for flexibility in operation.

The lesson is that rotating equipment cannot be selected from a catalogue alone. The resource or process conditions, today and over the plant’s life, shape the right choice.

Static Equipment

Static equipment includes vessels, heat exchangers, boilers, and tanks.

Key considerations:

• Design codes: ASME, PED, or local codes.
• Materials: Compatible with process fluids.
• Thermal design: Adequate heat transfer area.
• Mechanical design: Adequate strength and stiffness.
• Corrosion allowance: Adequate allowance for corrosion.
• Nozzle loads and foundations: Loads from connected piping and the supporting structure are accounted for.

Piping Systems

Piping systems connect equipment and transport fluids.

Components:

• Pipe: The main conduit for fluids.
• Fittings: Elbows, tees, reducers, and flanges.
• Valves: Control, isolation, and relief valves.
• Supports: Pipe supports, hangers, and anchors.
• Insulation: Thermal and personnel protection.

Key considerations:

• Material selection: Compatible with fluids and conditions.
• Sizing: Adequate for flow and pressure drop.
• Layout: Efficient routing and accessibility.
• Support and flexibility: Adequate support, with stress analysis for thermal expansion and dynamic loads.
• Testing: Pressure testing and inspection.

For thermal power projects in Vietnam (Thai Binh 1, 2×300 MW) and Bangladesh (Bibiyana-III, 400 MW CCGT), main steam and reheat piping required careful design for high temperature and pressure. Material selection and stress analysis were critical to long-term reliability.

Pumps and Compressors

Pumps and compressors are essential for moving fluids.

Key considerations:

• Performance: Flow, head, and efficiency across the full operating range, not only at the design point.
• Suction conditions: Adequate NPSH for pumps, and surge and control margins for compressors.
• Reliability: Proven in similar applications.
• Maintenance: Accessibility for maintenance.
• Spare parts and vendor support: Availability over the plant’s life.

For desalination projects in the Gulf (Taweelah, 909,200 m³/day; Jubail 3A, 600,000 m³/day), high-pressure pumps and energy recovery devices were critical to plant efficiency and reliability. At this scale, a small efficiency gain in a pump or energy recovery device translates into a large reduction in lifetime energy cost.

Heat Exchangers

Heat exchangers transfer heat between fluids.

Key considerations:

• Thermal design: Adequate heat transfer area.
• Mechanical design: Adequate pressure and temperature rating.
• Material selection: Compatible with fluids.
• Fouling: Resistance to fouling and ease of cleaning.
• Maintenance: Accessibility for cleaning and repair, including tube pull-out space.

Boilers and Steam Systems

Boilers and steam systems are central to many industrial plants.

Boiler types:

• Fire-tube: Hot gases pass through tubes surrounded by water.
• Water-tube: Water passes through tubes surrounded by hot gases.
• HRSG: Heat recovery steam generator, used in combined cycle plants.

Key considerations:

• Steam conditions: Pressure and temperature.
• Efficiency: Thermal efficiency and heat rate.
• Emissions: NOx, SOx, and particulate matter.
• Water treatment: Boiler feedwater quality.
• Safety: Relief valves and controls.

Material Handling, HVAC, and Fire Protection

These supporting systems are often treated as secondary, but they affect safety, operability, and construction.

• Material handling: Cranes and hoists should be sized for the heaviest maintenance lift, such as a turbine rotor or a large motor. Conveyors need to match throughput and material characteristics.
• HVAC and ventilation: Design must cover equipment heat loads, hazardous or corrosive atmospheres, and control room conditions.
• Fire protection: Pumps, piping, and suppression systems should be coordinated with the overall fire safety design and applicable codes.

Codes, Standards, and Materials

Every mechanical design rests on codes and standards. The right set depends on the project location, owner requirements, and equipment type, and should be agreed early. Typical references include:

• Pressure equipment: ASME Boiler and Pressure Vessel Code, PED (Europe), and local regulations.
• Piping: ASME B31 series.
• Rotating equipment: API standards for pumps, compressors, and turbines, plus relevant ISO and IEC standards.
• Heat exchangers: TEMA and API standards where applicable.

Materials deserve equal attention. Geothermal steam and brine can be corrosive, with chlorides and hydrogen sulfide in the mix. Seawater service in desalination calls for corrosion-resistant alloys. High-temperature steam piping demands creep-resistant steels. A material that is acceptable on a data sheet can fail early if it is not matched to actual service conditions.

The Mechanical Engineering Workflow

Mechanical engineering is not a single step. It runs through the project lifecycle:

Strong early work reduces rework later. A decision made at data sheet stage is far cheaper to change than one found during installation.

Vendor Documents, Inspection, and Testing

Selecting a good vendor is only the start. Quality depends on how the vendor’s work is reviewed and verified:

• Document review: Vendor drawings, calculations, and data sheets are checked against the specification and against other disciplines’ requirements.
• Inspection and test plans: Hold and witness points are defined for critical equipment.
• Factory acceptance tests: Performance, mechanical run, and vibration tests are witnessed where justified.
• Traceability: Material certificates and weld records are collected and verified.
• Transport and storage: Preservation and handling requirements are followed, since damage between factory and site is a common source of delay.

Design Reviews and Integration

Mechanical systems interact with civil, electrical, and instrumentation and control (I&C) work. Good integration practices include:

• Interface management: Foundation loads, cable and instrument connections, and utility tie-ins are defined and tracked.
• 3D model reviews and clash checks: Problems are found on screen, not at site.
• HAZOP and safety reviews: Mechanical hazards, relief cases, and failure scenarios are examined.
• Constructability and maintainability reviews: Construction and maintenance teams confirm that equipment can be installed, accessed, and removed.
• Operating mode review: Startup, shutdown, part-load, and upset conditions are considered, not just steady-state operation.

Installation and Mechanical Completion

Good design can be undone by poor installation. Key activities include:

• Alignment and grouting: Rotating equipment aligned to tolerance and properly grouted.
• Piping erection: Verified against stress analysis, with spring supports and temporary restraints correctly set and released.
• Cleanliness: Flushing, chemical cleaning, or steam blowing as required, especially for turbine steam systems.
• Pressure testing: Hydrotests or pneumatic tests per code.
• Mechanical completion: Systematic checks and documented punch lists before handover to commissioning.

Mechanical Engineering in Small Plants

Small plants face particular challenges with mechanical engineering.

Challenges:

• Fewer resources for mechanical engineering.
• Less in-house expertise.
• Less access to vendor information.
• Competing priorities.

Practical approaches:

• Focus on proven equipment: Reduce risk by using proven equipment.
• Use vendor information: Leverage vendor data and references.
• Seek expert advice: Get advice from consultants or experienced colleagues.
• Visit operating plants: See equipment in operation.
• Involve operations and maintenance: Use the experience of the people who will run the plant.
• Document decisions: Record the basis for decisions.
• Consider lifecycle cost: Look beyond capital cost.

Mechanical engineering does not need to be complex. It needs to be thorough and practical.

Common Mistakes in Mechanical Engineering

Even experienced organizations make mistakes. Common ones include:

• Selecting on capital cost alone: Ignoring operating and lifecycle costs.
• Ignoring site conditions: Selecting equipment that does not suit the site, such as ambient temperature, altitude, or water quality.
• Undersizing equipment: Insufficient capacity for actual conditions.
• Oversizing equipment: Unnecessary cost and inefficiency.
• Ignoring maintenance access: Equipment that cannot be maintained.
• Poor material selection: Corrosion or failure.
• No vendor support: Difficulty obtaining spare parts or support.
• Ignoring integration: Equipment that does not work with other systems.
• Weak vendor document review: Errors that surface only at site.
• No documentation: Not recording the basis for decisions.

These mistakes are costly to correct. They are much cheaper to avoid through disciplined mechanical engineering.

How EPC Partners Inc. Approaches Mechanical Engineering

At EPC Partners Inc., we bring practical experience from projects across Asia, the Middle East, Africa, and Europe to mechanical engineering.

Our approach includes:

• Thorough evaluation: Equipment is evaluated carefully against technical, commercial, and lifecycle criteria.
• Proven technology: Proven equipment is preferred over unproven.
• Integration focus: Equipment is evaluated for how well it integrates with other systems.
• Operations and maintenance input: The people who will run the plant are involved in decisions.
• Vendor evaluation: Vendors are evaluated for experience, support, and spare parts availability.
• Rigorous review and inspection: Vendor documents are reviewed and critical equipment is inspected and tested.
• Detailed documentation: The mechanical design and selection process is documented.
• Long-term focus: Equipment is selected for long-term reliability.

Our experience includes supporting geothermal projects in Kenya, Ethiopia, Indonesia, Iceland, and Japan; desalination projects in the UAE, Saudi Arabia, Oman, and Qatar; thermal power projects in Vietnam, Bangladesh, and Japan; and water treatment projects in Vietnam, Kuwait, and Qatar.

We have also supported clients including Marubeni Corporation, Fuji Electric Co., Ltd., and Toyota Tsusho Corporation on mechanical engineering aspects of their projects.

How to Evaluate Mechanical Engineering Readiness

When reviewing mechanical engineering, ask:

A plant that addresses these questions is ready for sound mechanical engineering.

Key Takeaways

• Select equipment for lifecycle performance, not capital cost alone.
• Match equipment and materials to actual site and resource conditions, today and over the plant’s life.
• Prefer proven technology, and verify vendor support and spare parts.
• Design for maintenance access from the start.
• Review vendor documents and inspect critical equipment.
• Involve operations and maintenance teams early.
• Document the basis for decisions.

Conclusion

Mechanical engineering is the heart of every industrial plant. For small to medium-scale industrial plants especially, it determines whether the plant can achieve its performance targets, reliably and economically.

By focusing on rotating equipment, static equipment, piping systems, pumps and compressors, heat exchangers, and boilers, and by managing codes, materials, vendors, and installation with discipline, owners and project teams can ensure that the mechanical systems support the plant throughout its life.

If you are planning a plant project and need support with mechanical engineering or EPC project delivery, contact us to discuss how we can help.

EPC Partners Inc. is a Japanese EPC support firm with experience supporting power, water, and industrial plant projects across Asia, the Middle East, Africa, and Europe. For more information, visit our project list.

By EPC Partners Inc. Engineering Team

Civil engineering is the foundation of every industrial plant, literally. Foundations support the equipment. Structures house the process. Roads provide access. Drainage protects the site. All of it must be designed and built to withstand the site conditions, the plant loads, and the test of time.

At EPC Partners Inc., civil engineering has been a core part of our work across a wide range of plant projects, from geothermal fields in the East African Rift Valley to coastal desalination sites in the Arabian Gulf, and from seismic zones in Iceland to constrained industrial sites in Japan. Our civil work has ranged from turbine-generator foundations for 300 MW thermal units to marine intakes and outfalls for some of the world’s largest desalination plants. Each project has presented different challenges, and each has reinforced the same lesson: civil engineering is not a secondary discipline. It is fundamental to project success.

This article covers the key practices in plant civil engineering, drawing on our experience supporting projects across Asia, the Middle East, Africa, and Europe.

What Is Plant Civil Engineering?

Plant civil engineering is the discipline of designing and constructing the civil works required for an industrial plant. It includes:

• Site preparation: Earthworks, grading, and compaction.
• Foundations: Supporting equipment, structures, and buildings.
• Structures: Buildings, shelters, and support structures.
• Roads and access: Site roads, access roads, and hardstanding.
• Drainage: Surface water, stormwater, and process drainage.
• Underground services: Pits, trenches, culverts, and buried piping and cable routes.
• Retaining structures: Walls, slopes, and embankments.
• Marine works: Intakes, outfalls, and coastal structures (where applicable).

Civil engineering provides the platform on which all other disciplines depend.

Why Civil Engineering Matters

For small to medium-scale industrial plants, civil engineering determines whether the plant can be built safely and operated reliably.

Design Basis, Codes, and Standards

Civil design starts with a clear design basis, agreed early with the owner and the other disciplines. It should define:

• Applicable codes: National and local building codes, plus international standards where the project requires them (for example ACI, ASCE, or Eurocode families, and local codes such as those in Japan, Indonesia, or the Gulf states).
• Design loads: Dead, live, equipment, wind, seismic, thermal, and construction loads.
• Environmental conditions: Temperature, rainfall, groundwater, aggressive soil or seawater, and seismic and wind data.
• Equipment data: Vendor loads, anchor bolt layouts, and tolerances, which are often the last information to arrive and the most expensive to get wrong.
• Design life and durability requirements.

Where several codes apply, such as owner standards, local regulations, and vendor requirements, the design basis should state which governs.

Site Preparation

Site preparation is the first step in civil construction.

• Clearing and grubbing: Removing vegetation, debris, and obstructions.
• Earthworks: Cut and fill to achieve design levels.
• Grading: Shaping the site to design contours.
• Compaction: Compacting fill to achieve design density, verified by testing.
• Dewatering: Managing groundwater during excavation where the water table is high.
• Erosion and sediment control: Preventing erosion during construction.

Site preparation should be based on accurate topographic survey data and geotechnical investigation.

Geotechnical Investigation

Geotechnical investigation is the basis of civil design.

• Boreholes: Drilling to investigate soil and rock conditions.
• Test pits: Excavating to investigate shallow conditions.
• In-situ testing: Standard penetration tests and cone penetration tests.
• Laboratory testing: Soil classification, strength, and consolidation, plus chemical testing (sulfates, chlorides, pH) to assess concrete and steel durability.
• Geophysical testing: Seismic refraction and resistivity.
• Groundwater monitoring: Water levels and variations over time.

The investigation should cover the whole plant footprint, with denser coverage under heavy or sensitive equipment such as turbine-generators, stacks, and large tanks.

Lessons from the field. At our geothermal projects in Kenya (Olkaria I Unit 6, 83 MW) and Indonesia (Muara Laboh, 85.2 MW), the volcanic terrain required careful geotechnical assessment for foundations, access roads, and pipeline routing. In Iceland (Theistareykir, 2×45 MW), seismic conditions shaped the structural design. Each site’s unique conditions shaped the engineering approach, and in every case the quality of the early geotechnical work determined how smoothly construction went.

Seismic and Geohazard Considerations

Many of the plant sites we support lie in seismically active or geologically complex regions. Designers should consider:

• Seismic loading: Ground motion for foundations, structures, and equipment anchorage.
• Liquefaction and settlement: Particularly at coastal and reclaimed sites.
• Slope stability: Natural slopes and engineered cuts and fills.
• Volcanic and geothermal ground conditions: Hot ground, steam, and altered soils at geothermal sites.
• Flood and tsunami exposure: For coastal and low-lying sites.

These hazards should be identified early, because they affect foundation type, structural system, and site layout.

Foundations

Foundations support equipment, structures, and buildings. The foundation type depends on soil conditions, loads, and equipment requirements.

Machine Foundations

Machine foundations require special attention.

• Dynamic loads: Rotating equipment generates dynamic loads that the foundation must accommodate, including a check that the foundation’s natural frequencies stay clear of the machine’s operating frequencies.
• Vibration isolation: Foundations should limit vibration transmitted to surrounding structures. A common approach is to separate the machine foundation from building floors and slabs.
• Alignment: Foundations must maintain equipment alignment over time.
• Settlement: Differential settlement can cause misalignment and failure.
• Temperature effects: Thermal expansion must be accommodated, and large concrete placements need thermal control to limit cracking.
• Grouting and anchor bolts: Placement tolerances, grout selection, and curing must follow the equipment vendor’s requirements.

At thermal power projects in Vietnam (Thai Binh 1, 2×300 MW) and Bangladesh (Bibiyana-III, 400 MW CCGT), turbine-generator foundations required careful design to accommodate dynamic loads and maintain alignment.

Structures

Structures house the process and support the plant.

• Buildings: Control rooms, offices, workshops, warehouses.
• Process structures: Equipment support structures, pipe racks, platforms.
• Shelters: Equipment shelters and weather protection.
• Special structures: Stacks, cooling towers, silos.

Structure design must consider loads, environmental conditions, fire protection requirements, and regulatory requirements. Structural steel and concrete choices should also take into account local construction capability, material availability, and corrosion exposure.

Roads and Access

Roads and access are essential for construction and operation.

• Site roads: Roads within the plant site.
• Access roads: Roads connecting the site to public roads.
• Heavy haul routes: Routes for transporting large equipment, including checks of bridges, culverts, turning radii, and overhead clearances.
• Hardstanding: Paved areas for laydown, maintenance, and vehicle parking.
• Drainage: Road drainage to prevent flooding and pavement damage.

For remote sites in Ethiopia (Aluto Langano, 5 MW) and Indonesia, access roads and logistics planning were critical to construction success.

Drainage

Drainage protects the site from water damage.

• Surface water: Stormwater runoff and drainage.
• Process drainage: Drainage from process areas.
• Contaminated drainage: Drainage that may contain oil or chemicals, with containment and treatment before discharge.
• Flood protection: Protection against flooding, including consideration of extreme events.
• Erosion control: Prevention of erosion from runoff.

Drainage design must consider rainfall intensity, site topography, and environmental requirements.

Underground Services

Underground pits, trenches, culverts, and buried pipes and cables are easy to overlook in planning and difficult to change once built. They should be coordinated early with piping, electrical, and instrumentation teams so that routes, crossings, and depths are resolved before foundations and roads are constructed.

Retaining Structures

Retaining structures support slopes and prevent erosion.

• Gravity walls: Concrete or masonry walls that resist soil pressure by their weight.
• Cantilever walls: Reinforced concrete walls that resist soil pressure by cantilever action.
• Sheet pile walls: Steel or concrete piles driven into the ground.
• Gabion walls: Stone-filled wire baskets.
• Soil nailing: A slope stabilization technique using reinforcing bars installed in the soil.

Retaining structures are often required on sites with significant level changes.

Marine Works

Marine works are required for coastal sites.

• Intakes: Structures for drawing cooling water or process water from the sea.
• Outfalls: Structures for discharging water to the sea.
• Breakwaters: Structures to protect the site from wave action.
• Jetties: Structures for loading and unloading materials.

Marine works demand additional data (bathymetry, tides, waves, currents, and sediment transport) and must be designed for the aggressive marine environment. For desalination projects in the Gulf (Taweelah, 909,200 m³/day; Jubail 3A, 600,000 m³/day), marine works were a significant part of the civil scope.

Concrete, Materials, and Quality Control

Good design can be undone by poor construction quality. Key practices include:

• Concrete mix design: Matched to exposure, such as sulfate-bearing soils, seawater, or high temperatures.
• Testing: Concrete cube or cylinder testing, reinforcement testing, and compaction testing.
• Inspection and hold points: Formwork, reinforcement, and embedments inspected before every pour.
• Curing and temperature control: Particularly in hot climates and for mass concrete.
• Survey control: As-built surveys of foundations and anchor bolts before equipment installation.

Interfaces and Construction Sequencing

Civil works come first, so delays and errors spread to every other discipline. Practical measures include:

• Early equipment data: Securing vendor loads and anchor details before foundation design is finalized.
• Discipline coordination: Resolving clashes between foundations, underground services, and piping routes in the design stage.
• Sequencing plan: Planning excavations, pours, and backfill so that civil works do not block equipment delivery and mechanical erection.
• Handover of foundations: Clear acceptance criteria for turning over completed foundations to the mechanical contractor.

Civil Engineering in Small Plants

Small plants face particular challenges:

• Fewer resources for civil engineering.
• Less geotechnical data available.
• Less in-house expertise.
• Competing priorities.

Practical approaches:

• Invest in geotechnical investigation: Good geotechnical data prevents costly surprises.
• Use standard designs: Standard foundation and structure designs can save time and cost.
• Seek expert advice: Get advice from geotechnical and structural engineers.
• Plan for construction: Plan civil works around the construction sequence.
• Document decisions: Record the basis for design decisions.
• Consider lifecycle: Design for durability and low maintenance.

Civil engineering does not need to be complex. It needs to be thorough and practical.

Common Mistakes in Civil Engineering

• Insufficient geotechnical investigation: Discovering soil problems after construction begins.
• Inadequate site preparation: Poor compaction leading to settlement.
• Underestimating drainage requirements: Flooding during construction or operation.
• Ignoring seismic conditions: Structural failure during earthquakes.
• Poor machine foundation design: Vibration and alignment problems.
• Late equipment data: Redesign and rework when vendor loads change.
• Inadequate access roads: Difficulty delivering equipment.
• Ignoring environmental requirements: Erosion and sedimentation problems.
• Weak quality control on concrete: Defects that surface only after commissioning.
• No construction sequencing plan: Civil works blocking other disciplines.

These mistakes are costly to correct. They are much cheaper to avoid through disciplined civil engineering.

How EPC Partners Inc. Approaches Civil Engineering

At EPC Partners Inc., we bring practical experience from projects across Asia, the Middle East, Africa, and Europe to civil engineering. Our approach includes:

• Thorough geotechnical investigation: We ensure that civil design is based on accurate site data.
• Practical design: We design civil works that are constructible, durable, and cost-effective.
• Local knowledge: We work with local experts to understand site conditions and regulatory requirements.
• Construction support: We provide civil construction management and supervision.
• Risk assessment: We identify and assess civil-related risks.
• Detailed documentation: We document the civil design and construction process.

Our experience includes supporting geothermal projects in Kenya, Ethiopia, Indonesia, Iceland, and Japan; desalination projects in the UAE, Saudi Arabia, Oman, and Qatar; thermal power projects in Vietnam, Bangladesh, and Japan; and water treatment projects in Vietnam, Kuwait, and Qatar. We have also supported clients including Marubeni Corporation, Fuji Electric Co., Ltd., and Toyota Tsusho Corporation on civil engineering aspects of their projects.

How to Evaluate Civil Engineering Readiness

A project that can answer these questions is ready for sound civil engineering.

Conclusion

Civil engineering is the foundation of every industrial plant. For small to medium-scale industrial plants, it determines whether the plant can be built safely, operated reliably, and maintained economically.

By focusing on the design basis, geotechnical investigation, site preparation, foundations, structures, roads, drainage, retaining structures, marine works, and quality control, owners and project teams can ensure that the civil works support the plant throughout its life.

If you are planning a plant project and need support with civil engineering or EPC project delivery, contact us to discuss how we can help.

EPC Partners Inc. is a Japanese EPC support firm with experience supporting power, water, and industrial plant projects across Asia, the Middle East, Africa, and Europe. For more information, visit our project list.

By EPC Partners Inc. Engineering Team | Plant Design & Engineering

Site selection is one of the earliest and most consequential decisions in an industrial plant project. The site determines what can be built, how much it costs, how efficiently the plant operates, and how it affects the surrounding community. A good site can make a project viable; a poor site can make it unworkable, no matter how good the design or construction.

At EPC Partners Inc., we have supported plant projects across a wide range of sites, from geothermal fields in the East African Rift Valley to coastal desalination sites in the Arabian Gulf, and from constrained industrial sites in Japan to remote locations in Southeast Asia. Each site has presented different challenges, and each has reinforced the same lesson: site selection deserves careful, disciplined analysis from the very beginning.

This article covers the key practices in plant site selection, drawing on our experience supporting projects across Asia, the Middle East, Africa, and Europe.

What Is Site Selection?

Site selection is the process of identifying, evaluating, and choosing the location for an industrial plant. It includes:

• Site identification: What sites are available?
• Site screening: Which sites meet the minimum requirements?
• Site evaluation: How do the remaining sites compare?
• Site selection: Which site is best?
• Site confirmation: Is the chosen site suitable for the plant once investigated in detail?

Site selection is not just about finding land. It is about finding the right land for the plant, the project, and the community.

Why Site Selection Matters

Site selection directly affects project viability.

For small to medium-scale industrial plants, where there is less margin for error, site selection can determine whether the project proceeds at all.

Define Requirements First

Before any site is considered, the project needs a clear statement of what the plant requires from its site. This site requirements basis should cover:

• Plant footprint: Area for the plant itself, plus laydown, construction facilities, and future expansion.
• Process needs: Fuel, raw materials, cooling or process water, and product or power export.
• Connections: Grid interconnection, pipelines, product transport, and communications.
• Constraints: Noise, emissions, setback distances, and safety distances from neighbors.
• Project drivers: Target schedule, budget limits, and financing conditions.

Without this basis, sites cannot be screened or compared consistently.

Site Selection Criteria

Site selection considers many criteria.

Each criterion should be assessed for each candidate site, and the results compared systematically.

Site Identification

Site identification is the first step in site selection. Common sources include:

• Client-provided sites: Sites already owned or identified by the client.
• Government agencies: Sites identified by government development agencies, such as industrial parks or designated resource areas.
• Site searches: Proactive searches for suitable sites, using maps, satellite imagery, and local advisers.
• Existing facilities: Expansion of existing facilities.
• Brownfield sites: Sites with existing infrastructure.

For projects in regions like East Africa or Southeast Asia, site identification often begins with a broad geographic search before narrowing down to specific sites.

Site Screening

Site screening eliminates sites that do not meet minimum requirements. Typical screening questions are:

• Adequate land area: Is there enough space for the plant and its future expansion?
• Access: Is the site accessible for construction and operation?
• Utilities: Are utilities available, or can they be provided?
• Regulatory: Is the site zoned for industrial use?
• Land rights: Can the land be acquired or leased with clear title?
• Environmental: Are there any environmental constraints that cannot be mitigated?
• Social: Are there any social constraints that cannot be mitigated?

Screening should be objective and consistent across sites. A site that fails a screening criterion is removed, not carried forward on the hope that the problem will be solved later.

Site Evaluation

Site evaluation compares the remaining sites in detail.

Evaluation criteria and weights should be defined before evaluation begins, so that the result is not shaped by a preferred site.

Weighted Scoring and Cost Comparison

A weighted scoring matrix is a practical way to compare sites. Each site is scored against each criterion, scores are multiplied by the agreed weights, and the totals are compared. Two cautions apply:

• Do not rely on the score alone. Review the result with cost estimates, and test whether the ranking changes if weights are adjusted (sensitivity check).
• Treat fatal flaws separately. A single issue, such as an unobtainable permit, should disqualify a site regardless of its total score.

Cost comparison should include land, site preparation, access roads, utility connections, foundations, and operating costs over the plant life, not capital cost alone.

Geotechnical Considerations

Geotechnical conditions are a critical factor in site selection. Key considerations are:

• Soil conditions: Bearing capacity, settlement, liquefaction potential.
• Rock conditions: Depth to rock, rock quality.
• Seismic risk: Earthquake hazard, fault proximity.
• Groundwater: Depth, quality, contamination.
• Slope stability: Landslide risk, slope angles.

At our geothermal projects in Kenya (Olkaria I Unit 6, 83 MW) and Indonesia (Muara Laboh, 85.2 MW), the volcanic terrain required careful geotechnical assessment for foundations, access roads, and pipeline routing. In Iceland (Theistareykir, 2×45 MW), seismic conditions required special design considerations.

From the field: At one geothermal site in Indonesia, the volcanic terrain required special foundation design and careful access road planning. At another site in Iceland, seismic conditions influenced the structural design approach. In each case, the unique conditions of the site shaped the engineering approach, and identifying them early meant they could be designed for rather than discovered during construction.

A staged investigation works best: desktop review and geological mapping at screening, then boreholes and testing at the shortlisted sites, and a detailed investigation at the chosen site.

Access and Logistics

Access and logistics affect both construction and operation. Key considerations are:

• Road access: Width, load capacity, gradients, bridges, and turning radii.
• Port access: Proximity, capacity, shipping routes.
• Rail access: Availability, capacity.
• Air access: Proximity to airports for personnel and urgent equipment.
• Construction access: Can large and heavy equipment, such as turbines, generators, and transformers, be delivered to site?

A route survey from the port of entry to the site is worthwhile for any plant with heavy or oversized equipment. For remote sites in Ethiopia (Aluto Langano, 5 MW) and Indonesia, access roads and logistics planning were critical to construction success.

Utilities and Infrastructure

Utilities and infrastructure must be available or provided. Key considerations are:

• Power: Availability, reliability, cost, and grid connection capacity.
• Water: Availability, quality, treatment requirements.
• Gas: Availability, pressure, quality.
• Communications: Availability, reliability.
• Waste disposal: Availability, capacity.

Where a utility must be extended to the site, its cost, schedule, and the approvals involved should be included in the site evaluation. For desalination projects in the Gulf (Taweelah, 909,200 m³/day; Jubail 3A, 600,000 m³/day), power and water infrastructure were central to site selection.

Environmental Considerations

Environmental conditions affect plant design and operation. Key considerations are:

• Climate: Temperature, humidity, wind, rainfall.
• Air quality: Ambient air quality, dispersion conditions.
• Water: Availability, quality, discharge options.
• Ecology: Sensitive habitats, protected species.
• Natural hazards: Flood, earthquake, storm, tsunami, landslide.

For coastal desalination sites in the Gulf, marine environmental impacts were carefully assessed. For geothermal sites in Kenya and Indonesia, land use and ecological impacts were important considerations. Natural hazard exposure, especially flooding, should be checked against the plant design life and not only current conditions.

Regulatory Considerations

Regulatory requirements affect site selection. Key considerations are:

• Zoning: Is the site zoned for industrial use?
• Permits: What permits are required?
• Approvals: What approvals are required?
• Timeline: How long will approvals take?
• Compliance: Can the plant comply with regulations?

For projects in Japan (Asahi Kasei Mizushima, 29.1 MW), Qatar (Al Kharsaah, 800 MW solar), and Saudi Arabia, regulatory requirements and permitting timelines were significant factors.

Land Rights and Acquisition

A site is only usable if the land can be secured. This is often underestimated. Considerations include:

• Ownership and title: Who owns the land, and is title clear?
• Acquisition or lease: Terms, cost, and timeline.
• Existing users: Farmers, residents, or other users who may need to be resettled or compensated.
• Easements and rights of way: For access roads, pipelines, transmission lines, and discharge routes.
• Encumbrances: Mortgages, disputes, or restrictions on use.

Land issues can delay a project for months or years, and lenders typically require secure land rights before financial close.

Social Considerations

Social factors affect site acceptability. Key considerations are:

• Community: Proximity to communities, impact on residents.
• Employment: Local employment opportunities.
• Infrastructure: Impact on local infrastructure.
• Land use: Impact on local land use.
• Cultural: Impact on cultural or heritage sites.

For projects in Kenya, Ethiopia, and Indonesia, community engagement and social impact assessment were important parts of site selection. Engaging the community early, before the site is fixed, is far easier than winning support after the decision has been made.

Site Confirmation and Due Diligence

Once a preferred site is chosen, it should be confirmed before the project commits to it. Confirmation typically includes:

• Detailed geotechnical and topographic surveys.
• Verification of land rights and boundaries.
• Confirmation of utility connection capacity and terms.
• Confirmation of permitting pathway and timeline.
• Review of environmental and social baseline studies.
• Update of the cost estimate and schedule for the chosen site.

If confirmation reveals a serious problem, the next-ranked site should still be available. For that reason, it is wise to keep at least one alternative alive until the preferred site is confirmed.

Site Selection in Small Plants

Small plants face particular challenges with site selection:

• Fewer resources for site evaluation.
• Less data available.
• Less in-house expertise.
• Competing priorities.

Practical approaches include:

• Focus on key criteria: Concentrate on the most important site criteria.
• Use available data: Use government data, maps, and site visits.
• Seek expert advice: Get advice from geotechnical, environmental, and regulatory experts.
• Visit sites: Visit candidate sites to assess conditions firsthand.
• Document decisions: Record the basis for the decision.
• Consider lifecycle: Consider lifecycle costs, not just capital costs.

Site selection does not need to be complex. It needs to be thorough and honest.

Common Mistakes in Site Selection

Even experienced organizations make mistakes. Common ones include:

• Insufficient geotechnical investigation: Discovering site problems after construction begins.
• Ignoring access constraints: Discovering that large equipment cannot be delivered.
• Underestimating utility requirements: Discovering that power or water is inadequate.
• Ignoring environmental constraints: Discovering that permits cannot be obtained.
• Ignoring social constraints: Discovering community opposition too late.
• Overlooking land rights: Discovering title or compensation issues after the site is chosen.
• Rushing site selection: Insufficient time for thorough evaluation.
• No documentation: Not recording the basis for the decision.

These mistakes are costly to correct. They are much cheaper to avoid through disciplined site selection.

How EPC Partners Inc. Approaches Site Selection

At EPC Partners Inc., we bring practical experience from projects across Asia, the Middle East, Africa, and Europe to site selection. Our approach includes:

• Thorough assessment: We assess all key site criteria: geotechnical, access, utilities, environmental, regulatory, land, and social.
• Local knowledge: We work with local experts to understand site conditions and regulatory requirements.
• Practical experience: We have seen how site conditions affect construction and operation on real projects.
• Risk assessment: We identify and assess site-related risks.
• Detailed documentation: We document the site selection process and the basis for decisions.
• Long-term focus: We consider lifecycle costs and long-term operation, not just capital costs.

We have supported projects for clients including Marubeni Corporation, Fuji Electric Co., Ltd., and Toyota Tsusho Corporation, working alongside their teams to assess sites and support project delivery.

Our experience includes supporting geothermal projects in Kenya, Ethiopia, Indonesia, Iceland, and Japan; desalination projects in the UAE, Saudi Arabia, Oman, and Qatar; thermal power projects in Vietnam, Bangladesh, and Japan; and water treatment projects in Vietnam, Kuwait, and Qatar.

For plant owners, this often means site decisions that are sound, well-documented, and support long-term operation.

How to Evaluate Site Selection Readiness

When reviewing site selection, ask:

A plant that addresses these questions is ready for sound site selection.

Key Takeaways

• Define site requirements before looking at sites.
• Screen objectively, then evaluate shortlisted sites against weights set in advance.
• Invest early in geotechnical, access, utility, and land-rights investigation.
• Engage regulators and communities before the site is fixed.
• Confirm the preferred site and keep an alternative until confirmation is complete.
• Document the basis for the decision.

Conclusion

Site selection is critical to plant success. For small to medium-scale industrial plants, it determines whether the plant can be built, how much it costs, and how well it operates.

By focusing on site requirements, identification, screening, evaluation, geotechnical considerations, access, utilities, environmental, regulatory, land, and social factors, owners and project teams can ensure that the site selected is the best fit for the plant.

If you are planning a plant project and need support with site selection or EPC project delivery, contact us to discuss how we can help.

EPC Partners Inc. is a Japanese EPC support firm with experience supporting power, water, and industrial plant projects across Asia, the Middle East, Africa, and Europe. For more information, visit our project list.