Our flywheels can also be used for peak load shaving where they help eliminate short-term power imbalances between generation and consumption.
Industry and manufacturing companies often face the challenge of managing powerful peak loads, especially when maximum power is only needed for a short time.
Our flywheels can shave the peak loads by simultaneously providing energy from the rotating mass. It allows to avoid high power connection costs, overcome grid limitations or even expand production capacities by using the existent grid supply in a more efficient way.
→ Unlimited charge cycles – maintains stable performance
→ 30-year system lifespan – reduces overall cost of the EV charging station
→ Modular design – scalable and compatible with other technologies
→ Sustainable – boosts eMobility development
→ INSTANT RESPONSE - Reaction to peak loads in milliseconds
→ SUPERIOR ENERGY EFFICIENCY - Over 95% energy efficiency
→ MODULAR CONCEPT - Flexible and adjustable system design
→ EXTENDED RELIABILITY - Special flywheel structure for flawless operation
→ MINIMAL MAINTENANCE - Routine annual check-up
→ LONG SERVICE LIFE - Up to 30 years without cycle degradation or efficiency losses
Quick charging of multiple electric vehicles at ones generates high loads, which can overload the local power grid, and makes deployment of EV charging stations in remote areas with poorly developed energy infrastructure simply impossible.
For example, ultrafast charging dozen EVs at same time requires power infrastructure equivalent to powering a skyscraper! In many areas, local power grids cannot meet this demand and requires energy storage to make fast EV charging possible.
Our flywheel energy storage can absorb the peak demand, support stability of the local grid. STOREPOWER flywheel energy storage system is designed to boost existing power grid infrastructure without high investments in upgrade.
→ Unlimited charge cycles – maintains stable performance
→ 30-year system lifespan – reduces overall cost of the EV charging station
→ Modular design – scalable and compatible with other technologies
→ Sustainable – boosts eMobility development
By combining a flywheel with a Compressed Air Energy Storage (CAES), we can offer peak load shaving for isolated grids.
By combining a flywheel with a Compressed Air Energy Storage (CAES), we can offer a peak load for isolated grids.
Isolated grids, such as remote sites or islands, have weak electricity supply from fossil fuel-based generation or renewables, that in most cases cannot cover power peaks or require additional generation capacity.
Our flywheel energy system, combined with CAES, can dynamically smooth out process loads by using large amounts of energy stored as compressed air and resupplied through the turbine driven flywheels when a peak load occurs.
→ Unlimited charge cycles – maintains stable performance
→ 30-year system lifespan – reduces overall cost of the EV charging station
→ Modular design – scalable and compatible with other technologies
→ Sustainable – boosts eMobility development
→ LARGE CAPACITY - Can store large amounts of energy in the form of compressed air
→ HIGHLY COMPATIBLE - Compatible with other power generation and storage technologies
→ MODULAR AND SCALABLE - Customizable and containerized to fit any application
→ COMPLETELY RECYCABLE - The system is designed with all mechanical parts recyclable
→ INFREQUENT MAINTENANCE - Annual maintenance performed by our professional team
→ LONG LIFETIME - Up to 20 years of continuous operation
Our flywheel system combined with Battery Energy Storage Systems (BESS) can be employed for peak load shaving purposes in isolated grids and remote areas.
Remote or renewables powered industrial sites and islands face many challenges. One of them includes too high connection costs and insufficient power supply for maximum loads.
Electrical energy, whether slowly delivered from the grid or generated from renewable energy sources, can be stored in our battery storage system for hours or days and resupplied through the flywheel when peak power is needed.
→ Unlimited charge cycles – maintains stable performance
→ 30-year system lifespan – reduces overall cost of the EV charging station
→ Modular design – scalable and compatible with other technologies
→ Sustainable – boosts eMobility development
→ HIGH ENERGY DENSITY - Faster charging and longer lasting
→ PERFORMANCE - Can deliver more current comparing to other batteries
→ FLEXIBLE AND SCALABLE - Multiple battery storages can be connected together
→ CARBON NEUTRAL - Li-Ion batteries are emission-free energy storage solutions
→ LOW MAINTENANCE - No memory effect and no priming equipment required
→ LONGER SERVICE LIFE - Up to 10 years of continuous operation
Our Battery energy storage system (BESS) is designed under modular approach, so individual battery modules can be stacked together to provide up to 3.35 MW of power with just one 40" container.
Power outage and unreliable supply can disrupt normal operation and lead to interruption of critical operations or even to a long downtime.
We offer stackable lithium-ion batteries, that can be assembled with all the necessary control electronics inside a wall-mount box, electrical cabinet, or even a cargo container to provide an uninterruptible power supply for any application scenario. Combined use with other storage systems is also available.
→ Unlimited charge cycles – maintains stable performance
→ 30-year system lifespan – reduces overall cost of the EV charging station
→ Modular design – scalable and compatible with other technologies
→ Sustainable – boosts eMobility development
→ HIGH ENERGY DENSITY - Faster charging and are more long-lasting.
→ PERFORMANCE - Can deliver more current comparing to other batteries
→ FLEXIBLE AND SCALABLE - Due to modular approach can match most applications.
→ CARBON NEUTRAL - Li-Ion batteries are emission-free energy storage solution.
→ LOW MAINTENANCE - No memory effect and no priming equipment required.