BESS

What does BESS mean?

BESS stands for Battery Energy Storage System — i.e. battery storage system. In times of volatile electricity generation through renewable energy sources, a BESS plays a key role: It stores electrical energy and makes it available again when needed. In this way, a BESS contributes to grid stability, security of supply and efficiency in the energy system.

What is a BESS?

A BESS is a technically sophisticated system for intermediate storage and delivery of electrical energy. It combines modern battery technology with inverters, a battery management system (BMS) and intelligent control. BESS is used in a wide range of applications, from private households and commercial enterprises to industrial production or network-related system services.

How does a BESS work?

A BESS stores excess energy — for example from photovoltaic systems or wind power — and releases it again later when energy demand is higher than the current supply or the electricity price is expensive. A BESS converts alternating current into direct current (and vice versa) in order to store or reuse the energy in battery cells. systems for intelligent energy management like FlexON ensure that BESS reacts optimally to electricity prices, its own PV production, grid conditions or production processes.

Why do you need BESS?

A BESS is needed to meet the increasing challenges posed by volatility balance out renewable energy sources. Solar and wind power do not generate energy constantly, but depends on the weather and time of day. A BESS can compensate for these fluctuations and thus ensure a reliable energy supply. In industrial applications, BESS also enables targeted Peak load capping and help to reduce electricity costs.

What are the benefits of BESS?

A BESS offers numerous concrete advantages for companies and industrial enterprises:

• load management: Through targeted load shifting and peak load capping, network charges and operating costs can be significantly reduced. This is a decisive competitive advantage, especially for companies with high electricity requirements.

• Self-consumption optimization: Companies with their own electricity generation, e.g. through photovoltaics, can temporarily store excess energy in BESS and use it later during production peaks, instead of buying expensive from the grid.

• Cost savings: In combination with price signals or dynamic tariffs, a BESS can be controlled so that energy is used or fed in when it makes the most economic sense.

• Contribution to decarbonization: Companies can improve their carbon footprint by increasing the share of renewable energy in operations while supporting grid stability — an important factor for sustainability and ESG strategies.

How do I find out whether a BESS is right for me?

Die battery simulation is a crucial tool when planning and designing BESS. With the help of digital models, various scenarios can be played out — for example for optimal sizing, life expectancy or economic analysis of a battery storage. With battery simulation, companies can clarify in advance which capacity, performance and operating strategy is most efficient for their needs. Real consumption and generation data, tariff models and load profiles are incorporated into the simulation. Modern software solutions make it possible to include PV systems or dynamic grid charges in battery simulation, so that the interaction of all components can be realistically calculated in advance. In this way, battery simulations reduce investment risks and help to plan BESS precisely, economically and technically.

Conclusion: Why is a BESS trend-setting?

BESS is a central component of the energy systems of the future. They make it possible to use energy flexibly and efficiently, increase independence from the electricity market and make an important contribution to reducing CO₂ emissions. In industry in particular, BESS is gaining in importance — both for Energy management in companies as well as for participation in flexibility markets.