Even brief interruptions can disrupt financial transactions and platform availability. Carter works with developers, engineers, and construction teams to design power systems that support uptime, scalability, and long-term operational confidence.
The data center market moves faster than most infrastructure sectors. Hyperscale campuses and regional colocation facilities are often designed, built, and expanded simultaneously.
Projects require coordination between developers, engineering firms, contractors, and equipment suppliers—often while future phases of the campus are already being planned.
Because outages can disrupt global digital services, data centers are typically designed for uptime approaching 99.999% availability.
Financial transactions, government systems, and global AI workloads all depend on data centers staying on. Outages are measured in billions of dollars.
Delivery timelines carry as much weight as technical specifications. Customers need suppliers who can commit and execute.
Power infrastructure must anticipate future phases from the first conversation—not after design is locked.
Data center power systems are rarely defined by equipment alone. Early design decisions—generator sizing, redundancy strategy, fuel infrastructure, and system layout—shape how the facility operates for decades.
Carter teams work closely with developers, engineers, and contractors during these early stages, helping evaluate:
Hyperscale data center campuses aren't built all at once. They are planned in phases, constructed in parallel, and expanded continuously.
A typical Carter engagement often involves managing three timelines at the same time: delivering equipment for a project already underway, supporting startup and commissioning on another, and coordinating manufacturing schedules for a third that may not deliver for two more years—while a new project is already entering the ordering process.
That continuity has a practical payoff: when the next phase begins, Carter already knows the campus, the contractors, and the schedule.
Data center power systems follow a layered architecture designed to eliminate single points of failure. Utility power enters the facility and feeds UPS systems that provide bridge energy during the seconds it takes generators to come online.
Data centers deploy generators in configurations that exceed the minimum capacity needed to carry load. The choice between architectures sets the operational ceiling for the facility—both for reliability and for how the system can be maintained without taking IT load offline.
Large hyperscale facilities may deploy 10 to 40+ generators. Paralleling switchgear manages these units, distributing load and enabling maintenance on individual generators without affecting the system.
Standby generator systems must comply with electrical, environmental, and safety standards that influence system design and equipment layout.
Common requirements include:
Environmental permitting and local approvals can significantly affect project timelines and should be addressed early in planning.
Even highly engineered standby power systems depend on disciplined maintenance and testing to ensure readiness.
Typical lifecycle activities include:
In mission-critical environments, operators evaluate not only generator performance but also the service network supporting the equipment.
A data center operator needed custom generator enclosures to address site-specific exhaust backpressure constraints. Carter's engineering team worked directly with the enclosure manufacturer to redesign airflow paths and exhaust routing, ensuring the generators met performance specifications within the physical limits of the site.
Read the case study
Carter supported a multi-phase hyperscale campus, deploying generators across multiple buildings on a two-year construction timeline. Each phase required coordination with the general contractor, electrical engineer, and facility operations team to integrate new generators into expanding campus power infrastructure.
Read the case studyData center customers often choose Carter because of how complex projects are executed. Collaboration with developers, engineers, and contractors begins early—during design, before key decisions are finalized—and continues through procurement, delivery, and commissioning.
Carter brings direct experience supporting large-scale generator deployments, along with visibility into manufacturing schedules and equipment lead times that helps customers plan complex, multi-phase construction timelines with greater confidence.
In a market driven by delivery commitments, customers rely on Carter not simply as an equipment supplier, but as a partner coordinating the engineering, logistics, and long-term service support required to keep mission-critical infrastructure on schedule and operating reliably.
Planning standby power infrastructure for a data center requires coordination across engineering teams, contractors, and equipment suppliers. Carter specialists can help evaluate system architecture, redundancy strategies, and long-term infrastructure planning.