Peak and demand management
A controlled discharge strategy can reduce selected peaks or reshape site demand.
WHAT MAKES IT TRUERequires interval data, tariff analysis and correct power/energy sizing.
METRO POWERBESS & MicrogridsDiscuss this solution ↗BESS & Microgrids
Store energy for the operating outcome that matters.
Storage and microgrid solutions structured around load data, tariff, outages, renewables, site and interconnection.
← Explore all Metro Power solutions
What is BESS & Microgrids?
A BESS stores electrical energy and releases it when needed. The deployable system combines batteries and BMS with PCS, EMS, protection, thermal management, fire strategy, transformer, switchgear and controls.
Manage when energy is used, and protect what matters.
Battery storage can shift, support or back up energy according to a defined operating objective. The benefit changes with the owner, tariff, critical loads, renewable generation and control strategy.
01FOR THE UTILITY, SITE OR FACILITY OPERATOR
Renewable-energy coordination
Storage can absorb selected solar production and release it when the operating plan calls for it.
WHAT MAKES IT TRUEDepends on generation profile, load, controls and interconnection rules.Resilience for prioritized loads
A properly designed system can support defined critical loads during eligible outage conditions.
WHAT MAKES IT TRUEBackup duration is limited by available energy, load and system configuration.Microgrid and diesel optimization
BESS, solar, grid and generator resources can be dispatched as a coordinated system.
WHAT MAKES IT TRUERequires engineered controls, protection, transition logic and operating ownership.02FOR OCCUPANTS, TENANTS OR SERVICE USERS
Continuity for essential services
Critical lighting, communications, refrigeration or other designated loads may remain available during supported events.
WHAT MAKES IT TRUEOnly loads included in the approved backup design are supported.Better use of local renewable energy
Stored solar energy can be used later instead of being limited to the moment it is generated.
WHAT MAKES IT TRUEActual benefit depends on load timing, storage capacity and dispatch.Potentially steadier site operations
Fast controls may help the facility manage selected power transitions and operating disturbances.
WHAT MAKES IT TRUEPerformance depends on the engineered system and protection scheme.A pathway to cleaner site energy
Storage can enable greater renewable participation and reduced generator runtime in suitable projects.
WHAT MAKES IT TRUEEnvironmental benefit depends on the charging source and operating strategy.System architecture
See the system move.
Follow the journey from physical equipment to the decision a customer or operator can act on.
Capture
Battery racks and BMS manage cells and state of charge.
→Connect
PCS controls AC/DC conversion and charge/discharge.
→Understand
EMS dispatches against load, solar, generator, tariff or resilience goals.
→Act
Protection, thermal management and interconnection make the system safe and operable.
INTERACTIVE SYSTEM VIEW
BESS and microgrid architecture
Stored energy is coordinated by power conversion, controls, protection and the site’s real operating priorities.
01GRID + SOLARPHYSICAL INPUT
02BATTERY + BMSCONTROL POINT 1
03PCS + EMSCONTROL POINT 2
04PROTECTED LOADSOPERATING OUTCOME
78 % SOCCHARGE · STORE · DISPATCH
STAGE 01 · Energy inputs
Grid / renewables
Available supply, generation variability and site demand define when energy can be stored and why it should be dispatched.
- 01Utility supply
- 02Solar PV
- 03Generator where used
System progress
1 / 6
Select a stage Follow the moving system path Review what must happen there
FIELD REALITYbecomesOPERATIONAL ACTION
ILLUSTRATIVE OPERATING CONTEXTSee what changes when the architecture begins operating.
- 01Receive→
Grid or renewable energy enters
- 02Store→
Controls manage charge and state of energy
- 03Dispatch→
Power serves the operating priority
This visual explains system behavior. Final performance depends on approved design, field conditions, configuration and operating discipline.
Watch the operating idea take shape.
Use this short film as orientation, then continue into the system architecture, technical lesson or readiness action.
BESS · Film 17 / 35
Define the BESS operating outcome
Connect the battery, BMS, PCS, EMS, protection and dispatch strategy to a clearly defined operating job.
The Metro Power solution
Technology, made deployable here.
We close the gaps between the manufacturer’s product, Philippine site conditions and the people who must operate the system.
Global
technologyLocal
engineeringOperating
outcome
technologyLocal
engineeringOperating
outcome
- 01DISCOVERUse-case and load-data assessment
- 02DESIGNPower and energy sizing
- 03VALIDATEGrid, solar and diesel operating concept
- 04INTEGRATESite, safety and interconnection coordination
- 05OPERATECommercial roadmap and partner diligence
Complete decision path
From first question to accepted operation.
A solution is complete only when technical behavior, project evidence and operating ownership remain connected.
Which service has priority and what is the operating promise?
Use-case statement, load data, reserve and baseline
What power, energy and system behavior are required?
Interval profile, SLD, studies, site and exact configuration
How are abnormal conditions prevented, detected, isolated and managed?
Hazard analysis, protection, emergency plan and authority review
How will EMS priorities, warranties and lifecycle costs remain controlled?
Dispatch rules, acceptance tests, training and performance records
Monthly-bill sizing
Use interval demand, critical-load and operating scenario data.
Grid-following assumed as backup
Verify supported mode, transition, protection and island tests.
Nameplate economics
Model usable energy, auxiliaries, degradation and continuing cost.
- 01Exact BMS, PCS and EMS interfaces
- 02Electrical and interconnection studies
- 03Layered safety and emergency readiness
- 04Integrated operating-mode tests
- 05Handover, warranty and lifecycle evidence
Product portfolio
Technology for the right application.
Product and equipment references presented in a consistent engineering-grade system. Every visual now states what kind of source it is; choose by operating requirement, not appearance alone.
Profile-backedFidelity-safe studio treatment01
Air-cooled microgrid ESS
BSC-CE2-0105K0215K
Modular C&I or microgrid system.
- 105kW rated power
- 215kWh rated energy
- 400Vac
- Optional STS; IP55
Profile-backedFidelity-safe studio treatment02
Liquid-cooled microgrid ESS
BSC-CE4-0125K0261K
Compact liquid-cooled C&I platform.
- 125kW rated power
- 261kWh rated energy
- 400Vac
- IP55
Profile-backedFidelity-safe studio treatment03
PV + diesel + storage ESS
BSC-CD2-0050K0200K / BSC-CD2-0100K0200K
Integrated hybrid microgrid solution.
- 50kW or 100kW rated power
- 200kWh rated energy
- Isolation transformer
- STS on/off-grid switching
Profile-backedFidelity-safe studio treatment04
20HC C&I ESS
BSC-CB1-0500K1075K
Containerized commercial and industrial storage.
- 500kW rated power
- 1,075kWh rated energy
- 380/400Vac
- Optional transformer and STS
Profile-backedFidelity-safe studio treatment05
20HC liquid-cooled battery compartment
BSC-CS3-2500K5000K
High-capacity liquid-cooled storage compartment.
- Up to 2,500kW rated power
- 5,000kWh rated energy
- 1331.2Vdc battery rating
- IP55
Capacity, savings and backup duration require validated interval load, site and operating data; monthly consumption alone is insufficient.
Turn learning into a decision
What your team should be able to decide next.
Move from a battery-capacity guess to a defensible use case, sizing basis and project gate.
What outcome earns the investment?
Savings, resilience, renewable integration or diesel reduction require different operating and commercial logic.
Choose the primary use case ↗What can be sized responsibly?
Interval load, critical loads, outage history, solar or generator data, site and interconnection are foundational.
Assemble the sizing inputs ↗Is the business case real?
Model tariff, demand charges, cycling, degradation, availability, financing and avoided-cost assumptions.
Test the first assumptions ↗How will the system dispatch safely?
Define EMS priorities, protection, fire strategy, maintenance, incident response and operating ownership.
Build the operating concept ↗Where it fits
Applications
- Peak shaving
- Solar self-consumption
- Critical-load backup
- Diesel optimization
- Renewable smoothing
- Grid-connected or island microgrids
Start with evidence
What we need from you
- 12 months of bills and tariff
- Interval load data
- Critical loads and outage history
- Solar/generator details
- Single-line and transformer data
- Site, fire and interconnection constraints
Interactive planning tools
Open the Planning Lab ↗Test the first assumption.
Check whether the load, tariff, outage, site and commercial inputs needed for a structured BESS review are available.
Start the right conversation