Battery Storage Container
A container-based battery storage system is a scalable storage solution designed to ensure flexible access to electrical energy during operations. This is particularly relevant for industrial companies when energy costs rise, grid capacities are limited, or load profiles fluctuate significantly. The container-based approach simplifies transport, installation, and integration into existing systems—making it an ideal product for long-term and robust applications.
Whether as an energy storage system for supply, for peak load shaving, or as a component of a cost-effective overall strategy: We provide support from classification and design (kW/power, kWh capacity) through to implementation—ensuring the solution functions reliably in everyday use and aligns with operational logic.
A battery container provides flexibility within the energy system: it smooths out peak loads, stabilizes energy costs, and improves the utilization of on-site generation. By properly sizing the power capacity (kW) and storage capacity (kWh), you can specifically manage cost-effectiveness—depending on your objectives and operational profile.
For your company, this means: a robust storage solution that can be expanded modularly and integrates seamlessly into your systems. Especially when facing high power demands or significant fluctuations in consumption, a battery storage system in a container provides a suitable solution for actively managing energy flows.
Every project begins with a clear definition of objectives: Is the goal to optimize self-consumption, reduce peak loads, or a combination of both? Based on the load profile, connection specifications, and operational requirements, we develop a tailored solution—including sizing of kW capacity and kWh storage capacity, as well as seamless integration into your systems.
- Analysis of the load profile, target scenario, and site conditions
- Concept & design of battery, power (kW), and storage (kWh) as a cost-effective storage solution
- Delivery, installation, and commissioning, including interface coordination
- Handover with an operational concept (control strategy, priorities, integration with other systems)
Container-Based Energy Storage
The container-based energy storage system is the stationary solution when high, continuously available storage capacity is required. We design battery storage units and battery systems to match your load profiles and ensure reliable integration with existing systems during operation—from sizing to installation.
Portable Energy Storage
If flexible applications are a priority, a portable energy storage system can be a useful addition. We evaluate which batteries or battery systems are suitable for mobility, connection concepts, and operating duration—and how combining them with a stationary container can be economically viable.
Optimizing Self-Consumption
With a battery storage system, you can increase the use of your own energy by decoupling generation and consumption in time. The control strategy is key: We define when the battery charges and discharges so that self-consumption optimization and cost-effectiveness align in everyday life—even under varying production conditions.
Peak Load Shaving
With peak load shaving, the storage system temporarily absorbs power to reduce kW peaks at the grid connection. This can lower energy costs and provide greater planning reliability—especially for large industrial consumers. We size the storage system to ensure the solution fits your typical peaks and processes.
Battery storage containers for various applications
A battery storage container is particularly suitable for companies that want to stabilize energy costs, implement peak load shaving, or use self-consumption optimization as an economic lever. Typical applications include production sites with high power fluctuations, expansions of existing facilities, or locations with limited grid capacity, where the storage system acts as an active storage solution to relieve the load on the systems.
Combinations are also often beneficial: for example, a stationary container as a large base unit supplemented by portable products for temporary applications. It is always crucial that the design (kW/kWh), installation, and operating concept align with actual usage.
The starting point is your company’s load profile: Which loads generate peaks, how long do these peaks last, and how much does energy demand fluctuate during operations? For peak shaving, the required power (kW)—that is, how much the battery storage system must handle in the short term—is the most critical factor. For self-consumption optimization, storage capacity (kWh) also plays a major role because energy is shifted over a period of time. In practice, the sizing of a suitable storage solution is derived from objectives, typical usage, and cost-effectiveness—ensuring that the container-based solution is neither oversized nor undersized.
Battery systems designed for stationary operation, power peaks, and continuous cycling are installed in a container. The specific battery or batteries that make sense depends on your application profile: peak load shaving, self-consumption optimization, or a combination of both objectives place different demands on performance, cycle life, and control. In addition, system integration, safety concepts, and integration into existing systems play a role. What matters is not so much “the single product” but rather a coordinated battery system that operates reliably and delivers the required performance.
Yes—this is actually a very common use case, because the two objectives have different levers and can complement each other. To ensure that the combination remains cost-effective, a clear operating strategy is needed: When is energy stored, when is it discharged, and how does load peak shaving take priority over optimizing self-consumption? In practice, the system is often configured so that the storage unit maintains sufficient reserves for peaks and uses the remaining capacity for self-consumption. This creates a solution that reduces energy costs without “wasting” the peak-shaving function.
Following analysis and design comes the planning of the connection: site conditions, connections, integration into existing systems, and the definition of the control strategy. This is followed by delivery, installation, electrical integration, and commissioning with testing—including the configuration of charging/discharging limits, power limits, and priorities (e.g., peak load capping before self-consumption). Finally, the operating concept is handed over so that your company can operate the container storage system safely and predictably in day-to-day operations. The goal is a storage solution that not only functions technically but also delivers real benefits in operation.
Companies with highly dynamic loads, large consumers, or highly fluctuating production stand to benefit the most—in other words, wherever energy costs are driven by peaks, unfavorable load profiles, or grid restrictions. A containerized battery storage system is often a suitable solution for retrofitting existing facilities as well, because it can be integrated quickly and alleviates strain on system limits. Additionally, the battery container is an attractive option when the focus is on optimizing self-consumption—such as in cases where self-generated power needs to be utilized more efficiently. The specific application is always the deciding factor: Which processes incur costs, what power output is required, and how large must the storage system be to ensure economic viability?
Cost-effectiveness depends on several factors: the load profile, energy costs, the frequency and duration of peak demand, and the benefits of optimizing self-consumption. The system configuration (kW/kWh) and control strategy also have a significant impact on whether the storage system actually achieves the desired results during operation. System integration also plays a role: If the battery storage system is seamlessly integrated into existing systems and the combination of objectives (peak load management + self-consumption) is appropriately prioritized, the benefits increase significantly. That is why a thorough analysis up front is crucial—to ensure the storage solution is properly sized and reliably delivers savings in everyday use.







