Logistics & Distribution
Centers
Engineering solutions for energy-intensive logistics and distribution infrastructure
Modern logistics centres combine refrigeration, HVAC systems, warehouse automation and growing EV charging infrastructure. These facilities operate long hours and often experience sharp electricity demand peaks caused by cooling systems, sorting equipment and simultaneous charging loads.
K24Energy designs PV, BESS and EMS architectures tailored to logistics operations. Our engineering focuses on reducing peak demand, stabilising refrigeration loads and integrating energy infrastructure with warehouse operations.
By coordinating generation, storage and facility loads, logistics operators can reduce electricity costs, avoid grid upgrades and improve operational resilience.
Engineering Process → Energy Asset Development
Our Engineering Approach
Energy systems for logistics centres must support continuous operations while managing highly variable loads.
K24Energy applies a structured engineering approach that aligns energy infrastructure with warehouse operations.
Typical workflow includes:
How we work
| 1 | Load profile analysis | analysis of 15-minute consumption patterns |
| 2 | Operational load mapping | identification of refrigeration peaks, HVAC loads and EV charging demand |
| 3 | PV and BESS modelling | sizing systems based on facility energy behaviour |
| 4 | Energy management architecture | EMS coordination of refrigeration, HVAC and charging loads |
| 5 | Financial modelling | IRR, NPV and DSCR analysis for energy investments |
| 6 | FEED engineering documentation | EPC-ready technical design and system specifications |
Energy Architecture
Energy systems for logistics centres typically combine generation, storage and intelligent control.
Typical architecture includes:
✓ photovoltaic generation (PV)
✓ battery energy storage systems (BESS)
✓ energy management systems (EMS)
✓ integration with refrigeration and HVAC systems
✓ EV charging infrastructure coordination
✓ grid interaction and flexibility optimisation
The goal is to stabilise facility demand while maintaining uninterrupted logistics operations.
Industry Energy Metrics
| Metric | Typical Characteristics in Logistics Centers | Engineering Implication |
| Peak demand drivers | refrigeration systems, HVAC, warehouse automation, EV charging | BESS peak shaving and load coordination |
| Load variability | strong daily and operational peaks | EMS-based demand optimisation |
| Energy intensity | medium to high electricity consumption | optimisation of energy infrastructure |
| PV potential | large roof surfaces typical for warehouses | strong potential for rooftop PV |
| Grid constraints | transformer capacity and connection limits | peak demand reduction |
| BESS use cases | peak shaving, load shifting, EV support | multi-use storage strategy |
| EMS role | coordination of refrigeration, HVAC and EV charging | dynamic load management |
| Investment metrics | IRR, NPV, DSCR | financial modelling for energy assets |
Example Use Cases
Automated Logistics Hub
Load: 2.0 MW
PV 1.1 MW
BESS 1 MW / 1.5 MWh
EMS refrigeration coordination
Result:
- −34% peak demand
- −15% electricity cost
- improved refrigeration stability
Distribution Warehouse with EV Fleet
Load: 1.6 MW
PV 0.9 MW
BESS 0.8 MW / 1.2 MWh
EMS EV charging optimisation
Result:
- avoided transformer upgrade
- −17% electricity cost
- optimised EV charging schedules
Cold-Chain Logistic
Load: 2.3 MW
PV 1.2 MW
BESS 1 MW / 1.5 MWh
EMS refrigeration load optimisation
Result:
- −36% peak demand
- improved cooling load stability
*Results may vary depending on site conditions, energy prices and operational profile.
Operational Impact
Engineering optimisation of logistics energy projects can support:
✓ reduction of peak demand
✓ lower electricity costs
✓ improved refrigeration stability
✓ EV charging integration without grid upgrades
✓ improved operational resilience
Technologies
Renewable developer solutions typically combine
Independent engineering for logistics energy systems across the EU
faq
Key topics covered in this FAQ:
energy consumption in logistics facilities
warehouse HVAC energy demand
EV charging infrastructure in logistics centers
peak demand in distribution centers
energy optimisation for warehouse automation
What are the main energy challenges for logistics centres?
Logistics centres often experience peak demand caused by refrigeration systems, HVAC equipment and warehouse automation. Managing these peaks is critical for controlling electricity costs.
How can BESS improve energy performance in logistics facilities?
Battery energy storage systems reduce peak demand, stabilise refrigeration loads and help manage EV charging infrastructure.
Why are logistics centres suitable for rooftop PV?
Most warehouses have large roof surfaces suitable for photovoltaic systems, allowing facilities to generate electricity on-site and reduce grid dependence.
What role does EMS play in logistics energy systems?
An EMS coordinates refrigeration systems, HVAC and EV charging loads while optimising the use of PV generation and battery storage.
Can logistics centres participate in flexibility markets?
Yes. Facilities with BESS, flexible loads and EMS control systems can participate in demand response or Virtual Power Plant programs.
What engineering documentation is required for implementation?
Yes. Hybrid systems can increase revenue through energy arbitrage, peak pricing and participation in flexibility markets.
What modelling tools are used for renewable projects?
Typical documentation includes energy audit results, system modelling, financial analysis and FEED engineering documentation for EPC implementation.