Multi-use scenarios for energy management systems: multiple benefits from one investment
The days of simple application scenarios in the energy industry are over. Modern energy management systems (EMS) are evolving into multifunctional control centers that intelligently combine various applications. A development that is not only technically fascinating, but also economically convincing.
From the single application to the multi-use concept
Traditional energy management systems usually focus on individual tasks such as peak shaving or self-consumption optimization. Modern systems, on the other hand, enable the parallel use of different applications:
Peak shaving at times of high load
PV self-consumption optimization when the sun is shining
Emergency power operation in the event of a grid failure
Intelligent charging management for e-vehicles
Participation in flexibility markets during off-peak times
Synergy through intelligent control
Intelligent control is at the heart of modern energy management systems and enables an optimal combination of different applications. Time optimization plays a central role here, with battery storage systems being used specifically for peak shaving during peak load times, while the focus is on optimizing self-consumption during sunny hours. In times of low load, valuable grid services can also be provided.
The dynamic distribution of the available storage capacity and intelligent prioritization of different applications ensures continuous real-time adaptation to current requirements. This sophisticated control strategy leads to a maximization of the total return through parallel usage scenarios, while at the same time achieving optimal utilization of existing resources and opening up new sources of revenue.
Application scenarios in practice Multi-use concepts prove their worth particularly in complex operating environments
Industrial companies:
Peak load capping to optimize grid charges
Maximizing self-consumption of the PV system
Emergency power operation for critical systems
Integration of charging systems for the company fleet
Commercial properties:
Optimization of energy procurement costs
Integration of e-mobility
Control of air conditioning and heating
Marketing of flexibility
Logistics centers:
Management of e-charging infrastructure
Integration of cooling systems
Optimization of PV usage
Emergency power supply for critical systems
Technical requirements
The successful implementation of multi-use applications is based on a well thought-out technical infrastructure, which is divided into three central areas. The foundation is a highly developed intelligent control system that combines real-time capable controller systems with self-learning algorithms. This is supplemented by flexible prioritization models and a robust communication infrastructure that ensures reliable coordination of all system components. The second important building block is high-performance energy storage systems, which are characterized by their high cycle stability and fast response times. They enable flexible power output and are continuously optimized by reliable monitoring systems. The third essential aspect is a modular system architecture that guarantees a high degree of future-proofing thanks to its scalability and standardized interfaces and can be expanded with new functionalities at any time.
Focus on economic efficiency
Multi-use concepts offer multiple economic benefits:
1. direct cost savings:
Reduced grid charges through peak shaving
Optimized energy procurement costs
Maximized PV own use
2. additional revenues:
Marketing of flexibility
Participation in balancing energy markets
Remuneration for grid services
3. improved amortization:
Faster return on investment through multiple use
Optimized utilization of system components
Reduced investment costs per use case
Conclusion: Multi-use as a model for the future
Modern energy management systems with multi-use functionality represent a paradigm shift in the energy industry. They surpass the mere addition of individual applications through their intelligent integration and needs-based prioritization of different functions. These systems not only create a new dimension of economic efficiency in energy storage and management solutions, but also pave the way for innovative business models of the future. Investing in a future-proof energy management system with multi-use functionality is therefore proving to be a strategically wise decision that combines both short and long-term benefits. Due to the continuous development of technology and the increasing importance of flexible energy solutions, these systems will play a key role in the modern energy industry.
Related posts
With our plug & play battery solution, we are paving the way to a more sustainable future
In a world that is increasingly looking for sustainable solutions, the energy sector faces the challenge of efficiently integrating and utilizing renewable energy sources. Energy storage plays a Energy storage plays a crucial role in bridging the gap between energy production and consumption. At ees Europe 2024, Europe's largest and most international trade fair for batteries and energy storage systems, HIS-Energy proudly presents its latest innovation: The Plug & Play Battery Solution, specifically designed for commercial and industrial applications.
How battery storage systems can reduce your electricity costs by up to 90%
In industrial operations, efficient management of energy costs is crucial. The use of energy storage systems, especially battery storage systems for peak shaving, plays a crucial role not only in minimizing energy costs but also in improving grid support and stability. For companies with annual operating hours below or above 2500, these methods offer significant savings potential.
Rely on safety when it comes to fire protection
The saying "safety first" is certainly very important in many areas of life. Everyone is talking about different topics: financial, private, professional. One aspect that concerns us all is fire protection. This level of safety in the event of a fire is particularly high in public buildings such as hospitals, care facilities or daycare centers.
What is Peak Shaving?
Peak shaving, also known as peak load capping, refers to the reduction of peak loads in electricity consumption, which can cause significant costs, especially for large industrial consumers. These peaks can be reduced by using commercial storage systems by supplementing the power supply during peak load times with the energy stored in battery storage systems.
Pre-assembled Cable Harnesses vs. On-site Assembly
Time is money – this old saying is especially true when installing solar power plants. Cabling is a critical cost factor that is often underestimated. But this is precisely where there is significant potential for savings: up to 20% of the total costs can be saved by using pre-assembled cable harnesses. How is this possible?
4 Reasons to Use Lithium Iron Phosphate Batteries in Storage Systems
Battery cells in a conventional battery are connected to form a battery module, regardless of size and capacity. These battery cells are connected to one another to supply homes or businesses with stored solar energy for hours. By connecting multiple battery modules, the capacity of the battery is scaled.
Thermal and Mechanical Durability of Solar Cables in Desert Regions
The requirements for solar cables in desert regions are extreme: temperatures of over 60°C, intense UV radiation, sandstorms and strong temperature fluctuations between day and night place the highest demands on the materials used. In our laboratory studies, we have investigated how these extreme conditions affect the long-term durability of solar cables and which technical solutions offer optimum protection.