ENERGY / LIGHTNING PROTECTION

Protect before impact.

We assess risk, design and integrate external and internal protection systems to reduce exposure of people, equipment and critical infrastructure to lightning and transient overvoltages.

PRINCIPLE
A lightning protection system does not end at the air terminal. It works as an architecture: interception, down conductors, grounding, equipotential bonding and surge protection must operate as one system.
PROTECTION WORKFLOW

From risk to a verifiable architecture.

Protection is designed as a coordinated sequence. Each stage influences the next and must respond to the actual facility.

01Assess risk
02Define protection zones
03Design interception and down conductors
04Integrate grounding
05Coordinate internal protection
06Verify and inspect
PROTECTION ARCHITECTURE

Lightning crosses an entire system.

External and internal protection must be coordinated with grounding and equipotential bonding. Treating them separately leaves weak points between subsystems.

01

Risk assessment

The facility, exposure, continuity requirements and sensitive assets are characterized before defining the protection architecture.

02

Interception

Selection and arrangement of the interception system according to site geometry, required protection level and applicable technical framework.

03

Down conductors

Conduction paths designed to transfer current to ground while reducing unintended paths and potential differences.

04

Grounding

The discharge path must integrate with a measured and engineered grounding system as part of total facility protection.

05

Equipotential bonding

Coordination among structures, grounding, metallic services and electrical systems to control potential differences during transient events.

06

Surge protection

Coordinated SPDs by protection level help limit conducted surges reaching panels, control systems, telecommunications and sensitive electronics.

SYSTEM FAMILIES

Select technology after understanding the site.

There is no universal solution. The appropriate alternative depends on site assessment and the applicable technical and regulatory framework.

A

Conventional systems

Architectures based on air terminals and protection meshes designed around the facility and required protection level.

B

Early streamer emission systems

They may be evaluated as an alternative where the regulatory framework, jurisdiction and project conditions allow. Selection must be technically justified for each site.

C

Internal protection / SPD

Coordinated transient overvoltage protection for power, control, data and telecommunications, integrated with grounding and equipotential bonding.

Note: selection, sizing and compliance of any system must be validated against project conditions and the standards applicable in the relevant jurisdiction.

WHEN TO ASSESS

When should protection be reviewed?

A review should not begin only after damage occurs. Exposure, criticality and infrastructure changes are already sufficient reasons to assess the system.

01Exposed or tall facility
02Critical operation that cannot stop
03Recurring damage to electronics or communications
04Expansions or new structures
05Existing system without recent inspection or documentation
06Integration with UPS, data center, automation or telecommunications
APPLICATIONS

Protection connected to critical infrastructure.

Lightning protection naturally intersects with energy, control, telecommunications, data centers and security.

Oil & GasData CentersTelecommunicationsIndustrial infrastructureEnergy & UtilitiesCritical systems
LIGHTNING PROTECTION

Protect the facility as a system.

We can begin with a review of exposure, existing architecture, grounding and internal protection to define the appropriate project scope.

Assess facility ↗