Services:
EMS Architecture
Independent engineering of Energy Management Systems (EMS) for industrial, logistics, cold‑storage and commercial facilities across the EU
An Energy Management System (EMS) is the central intelligence of any modern energy system. It coordinates PV, BESS, HVAC, refrigeration, EV charging and flexible loads to reduce OPEX, stabilise operations and enable participation in flexibility markets and Virtual Power Plants (VPP).
K24Energy provides technology‑neutral EMS architecture that ensures correct control logic, safe integration, optimal performance and long‑term economic value.
Why EMS Architecture Matters
What Our EMS Architecture Includes
| 1 | Load Forecasting & Predictive Control | – short‑term and day‑ahead forecasting – temperature‑dependent load prediction – PV generation forecasting – BESS state‑of‑charge optimisation |
| 2 | Control Logic Design | – peak shaving – load shifting strategies – HVAC and refrigeration coordination – EV charging management – curtailment mitigation – multi‑use BESS dispatch |
| 3 | Integration with PV and BESS | – hybrid PV+BESS optimisation – charging/discharging logic – inverter and PCS coordination – export limitation strategies – self‑consumption maximisation |
| 4 | Industrial & Commercial Load Control | – HVAC optimisation – refrigeration load control – compressor sequencing – process load coordination – flexible and semi‑flexible load mapping |
| 5 | VPP & Flexibility Market Readiness | – demand response integration – revenue stacking modelling – aggregator communication requirements – baseline modelling for flexibility – dispatchability and telemetry |
| 6 | Cybersecurity & Reliability | – secure communication protocols – redundancy and failover strategies – safety interlocks – compliance with EU cybersecurity standards |
| 7 | FEED‑Level Documentation | – functional specification – control logic diagrams – communication architecture – integration requirements – EPC‑ready engineering package |
Typical Results from EMS Architecture
Deliverables
EMS functional specification
control logic diagrams
forecasting and optimisation models
PV/BESS/EMS integration package
cybersecurity and communication architecture
FEED documentation
VPP readiness assessment
Example Use Cases
Industrial Facility
- EMS for furnace load coordination
- PV+BESS integration
- −38% peak demand
Cold‑Storage Facility
- refrigeration load smoothing
- defrost cycle optimisation
- improved temperature stability
Logistics Center
- HVAC optimisation
- EV charging coordination
- −17% OPEX
*Recommendations are based on available data and engineering assumptions and are subject to further validation during project development.
Why Clients Choose K24Energy
for EMS Engineering
independent engineering (no equipment sales)
deep expertise in PV, BESS, HVAC, refrigeration and industrial processes
bankable modelling accepted by EPC and investors
strong understanding of EU grid and flexibility markets
faq
Answers to the most common questions about EMS Architecture
What is an Energy Management System (EMS)?
An EMS is a control system that coordinates PV, BESS, HVAC, refrigeration, EV charging and flexible loads to reduce energy costs and improve operational stability.
How does EMS reduce peak demand?
EMS forecasts consumption, shifts loads, controls HVAC and refrigeration, and dispatches BESS during peak periods to reduce transformer loading and peak demand charges.
Why is EMS important for PV and BESS integration?
EMS ensures PV and BESS operate as a coordinated hybrid system, maximising self‑consumption, reducing curtailment and improving financial performance.
Can EMS enable participation in a Virtual Power Plant (VPP)?
Yes. EMS provides dispatchability, baseline modelling, telemetry and control logic required for demand response and flexibility markets.
How does EMS improve energy efficiency?
EMS optimises HVAC, refrigeration, EV charging and industrial processes using forecasting, load shifting and real‑time control.
What documentation is required for EPC and investors?
EPC and investors require FEED documentation: functional specification, control logic diagrams, communication architecture, safety requirements and a bankable modelling package.