Airport electrification: scaling electric GSE across multiple gates
Do we have enough grid capacity to support electrification?
Not always. But in many cases, airports can scale electric GSE further by managing when and where power is used, before investing in major grid upgrades.
Airports can often support electric GSE within existing grid limits by prioritizing aircraft-critical loads first. During turnaround, GPU and PCA demand should be protected, while charging uses remaining available capacity and adjusts when total gate demand increases.
However, the constraint is often not total power — but how it is used.
For a deeper look at infrastructure constraints, see our guide on How Airports Can Electrify Gates Without Expanding Grid Capacity.
From ITW GSE, we offer the EcoGate concept to solve you power limitations at the gate.
How do we avoid power overload at the gate?
Power overload can be avoided by setting a maximum gate load and dynamically adjusting non-critical equipment, such as charging, when PCA or GPU demand increases.
To avoid this, airports need controlled power allocation, where:
- Maximum load per gate is defined
- Equipment consumption is dynamically adjusted
- Non-critical loads are temporarily reduced if needed
This ensures stable operation — even in high-demand situations — and protects both infrastructure and equipment.
The article How EcoGate can ease charging challenges explains how EcoGate can help airports use surplus power and ease charging challenges.
How do we prioritize power between aircraft and GSE?
Aircraft always come first when prioritizing power.
Ground Power Units (GPU) and PCA systems are critical for aircraft turnaround, passenger comfort, and APU reduction. GSE charging, on the other hand, is flexible.
Effective electrification strategies ensure that:
- Aircraft systems receive guaranteed power
- Charging is reduced or paused during peak demand
- Available capacity is used efficiently across all connected equipment
This prioritization is key to maintaining operational reliability while scaling electrification.
What are the risks of going fully electric too fast?
The biggest risk is not electrification itself — but uncoordinated electrification.
Common challenges include:
- Charging bottlenecks
- Grid overload
- Underutilized or competing equipment
- Operational disruption during peak periods
A phased, system-based approach like EcoGate, reduces these risks by aligning infrastructure, operations, and equipment from the start.
If charging congestion is the main constraint, the article Charging bottlenecks aren’t about fleet size, they’re about system design explains how gate-level charging and coordinated system design can reduce operational pressure.
From standalone equipment to connected systems
Scaling electrification is not about adding more electric units. It’s about connecting them.
A system-based approach — where power, charging, and other equipment are coordinated — enables airports to:
- Do more with existing infrastructure
- Avoid bottlenecks and overload
- Maintain reliable operations at scale
- Progress toward decarbonization without disruption
This is where the industry is moving — from individual products to integrated gate ecosystems.
The EcoGate concept is our system approach, linking the various GSE units together.
