Network automation is essential for the energy sector
The energy sector is undergoing rapid digitalization. Utilities, power producers, and oil and gas operators are modernizing their infrastructure to support the growing adoption of advanced technologies such as distributed energy resources (DERs), advanced metering, real-time monitoring, and digital substations. Energy organizations are investing in predictive maintenance and expanding remote or autonomous operations. Networks in this vital industry have become more than a way to transport data. They are now connecting critical devices and environments.
Every newly connected asset, from supervisory control and data acquisitions (SCADAs) to edge compute platforms running analytics and smart devices, adds complexity and potential vulnerabilities. End users need greater grid visibility and more digitized field operations, while data volumes at each endpoint continue to grow rapidly. With so many devices, configurations, security policies, and performance requirements to manage, operating these networks manually is no longer practical.
Getting a comprehensive view of how the network is installed, configured, and performing is growing increasingly complex. Managing installations manually is slow, fragmented, and prone to error, making troubleshooting or expanding even more challenging. When IT teams configure networks one command line at a time, they increase the risk of downtime, weaker performance, limited agility, and cybersecurity threats.
Energy-sector pressures intensify the urgency of network automation. Pressures such as:
- Aging infrastructure and unstable networks. Legacy equipment mixed with modern digital systems often creates inconsistent configuration and reliability challenges.
- Information and operational Technology (OT) workforce gaps. The energy sector faces a lack of skilled network engineers who are experienced with advanced OT protocols, substation automation, or deterministic operational networks.
- Escalating cybersecurity risk. Critical infrastructures are targeted progressively. Energy organizations cannot rely on manual configurations, updates, or zero trust segmentation to protect their widespread systems.
- Need to scale with speed. Rapid expansion of DERs, grid-edge devices, and digital field operations requires energy organizations to provision, safeguard, and manage networks at a faster pace than traditional manual methods allow.
- Regulatory and compliance requirements. Standards such as North American Electric Reliability Corporation Critical Infrastructure Protection (NERC CIP), International Electrotechnical Commission (IEC) 61850, and International Society of Automation (ISA)/IEC 62443 demand strict, auditable controls and consistent configuration governance.
- Cost and uptime. Outages caused by misconfigurations or equipment faults carry extreme financial, operational, and safety consequences.