Reliable power is the backbone of modern operations. Whether you run a data center that cannot blink, a factory chasing uptime targets, a telecom network that must ride through storms, or a site paying painful demand charges, you need storage that is efficient, predictable, and simple to run. Graphene Power Storage designs and builds graphene-based energy storage systems that slot into existing electrical rooms, container yards, and microgrids to stabilize costs and improve resilience.

What makes graphene different

Graphene is a highly conductive form of carbon arranged in a single-atom lattice. When used in electrodes and electrolytes, it can improve charge transfer, enable high power acceptance, and help manage heat. In practical terms, graphite-plus-graphene chemistries and graphene-enhanced supercapacitive elements can be engineered for fast response, frequent cycling, and robust operation. Final performance always depends on the full stack — cell chemistry, mechanical design, thermal path, battery management system, and controls — but graphene opens useful design space for industrial storage where quick charge–discharge and long service life are valuable.

System architecture you can scale

We deliver storage in three standard building blocks so projects can start small and expand as needs grow.

• Commercial battery modules Rack-mount units for indoor electrical rooms and skid-based outdoor enclosures. Typical use cases include peak shaving, UPS ride-through, and power quality. Modules integrate with standard inverters and can be paralleled for higher power.
• Containerized grid-scale systems 10 to 40-foot containers with integrated HVAC, fire detection and suppression, DC protection, and a container controller tied to the site EMS. Best for behind-the-meter demand charge management, renewable firming, and capacity services on larger feeders.
• Hybrid power cabinets Cabinets combining graphene batteries with fast-response capacitive packs for sub-second events. Ideal for crane starts, large motor inrush, and flicker control where voltage dips trigger production stops.

Each tier ships with a battery management system that monitors cell health, logs every cycle, and communicates with site controls over secure protocols such as Modbus TCP and IEC 61850.

Where it pays on day one

1) Demand charge management in industry

Many facilities pay the utility for their single highest 15- or 30-minute peak. Storage shaves those spikes. A properly sized system tracks feeder load and discharges during ramp events from HVAC, compressors, ovens, or welders. Typical results are lower monthly bills and smoother power profiles that keep sensitive equipment happy.

2) Solar and wind firming for commercial roofs and yards

Solar output swings with clouds and sun angle. Storage buffers those swings so inverters hold setpoints and site exports are predictable. On windy sites, storage captures gusty production and releases it as a steady block to match tariffs or PPA obligations.

3) Telecom backup that actually restarts the site

Remote towers, edge data rooms, and POP sites need silent backup that works in heat and cold. Graphene-based packs handle frequent micro-cycles from genset auto-testing and short outages without rapid degradation. Cabinets ship with remote health reporting to reduce truck rolls.

4) Data center ride-through and short-duration bridging

UPS batteries take care of milliseconds to minutes. When outages extend past that window, storage bridges to generators cleanly and supports black-start sequences. Fast response and stable voltage improve transfer events and reduce nuisance trips.

5) Microgrids and hybrid energy systems

On campuses, ports, and industrial parks, storage is the glue that holds engines, PV, wind, EV chargers, and critical loads together. Our EMS balances charge windows, protects cycle life, and schedules dispatch against tariffs, fuel costs, and constraints you define.

Safety and compliance from the enclosure out

Industrial storage lives in the real world, so safety is designed into the enclosure and control layers.

• Thermal control with dedicated HVAC and uniform airflow paths through racks
• Layered protection including DC fusing, contactors, and isolation monitoring
• Detection and suppression inside modules and containers, with supervised loops
• Event logging and alarms to your SCADA, with role-based remote access
• Commissioning and FAT/SAT to align with your AHJ and insurer requirements

We work with recognized testing laboratories and design to common industrial standards. Your project team gets the drawings, data sheets, and O&M manuals needed for permit reviews and safety audits.

Integration without friction

• Works with standard string or central inverters for AC-coupled plants
• Open protocols for EMS and SCADA integration
• Site controller with configurable dispatch modes: peak shave, time-of-use arbitrage, power quality, islanding support, and manual override
• APIs for tariff updates and production forecasting so dispatch keeps learning

Life cycle and service that match operations

• Cycle strategy tuned to your tariff and duty so you do not waste life on low-value events
• Predictive maintenance using cell impedance trends and temperature deltas to plan service in normal downtime windows
• Field-replaceable modules so repairs are fast and spares inventory is small
• Clear warranties on energy throughput and years in service, backed by performance reporting you can read without a PhD

TCO: where the savings come from

Storage creates value in several stacked ways. The largest buckets for most customers are:

• Demand charge reduction by clipping peaks
• Time-of-use arbitrage by charging off-peak and serving part of the daytime load
• Operational uptime by riding through disturbances that used to halt production
• Renewable utilization by capturing solar you used to curtail
• Deferred upgrades by easing substation or feeder constraints

We model your last 12 months of interval data to recommend a right-sized system, expected savings, and an operating plan. If you do not have interval data, we install a temporary meter to capture it.

Graphene vs lithium-ion in practice

Conventional lithium-ion systems are proven and widely deployed. Graphene-enhanced designs aim for faster charge acceptance, strong power density, and robust cycling characteristics. In facilities with frequent short peaks, these traits can translate to responsive peak shaving and less thermal stress during rapid cycling. Selection should be based on duty profile, thermal environment, footprint, and service plan. We help you compare options with an even hand so the choice fits your site, not a brochure.

Procurement options that fit budgets

• Direct purchase with warranty and service plan
• Lease to spread CapEx as OpEx
• Energy-as-a-service where you pay for delivered performance and we own and maintain the asset

Our team packages incentives and utility programs where available and aligns paperwork to your finance team’s checklist.

A quick checklist before you buy

1. Pull 12 months of 15-minute interval load data
2. List critical loads and restart sequences for outages
3. Confirm interconnection and ATS topology
4. Identify space, weight limits, and crane access
5. Decide who will operate the system day to day
6. Set success metrics such as demand charge targets, peak kW, or required ride-through time

Bring this list to our first call and we will turn it into a site plan and dispatch strategy.

Why Graphene Power Storage

You need a partner that speaks electrical rooms and boardrooms. We design for installers, document for inspectors, and report for CFOs. Our focus is simple: predictable installation, transparent performance, and service that respects your production schedule.