Energy for people | For future
Introduction Battery degradation is an inevitable process in energy storage systems. It is the central economic parameter that determines whether a project remains profitable after years of operation. For both grid-scale storage and stationary energy storage, degradation determines how quickly an asset loses energy storage capacity, how much power it can still deliver at peak […]
Introduction The global energy storage boom is increasingly defined by one upstream reality: lithium battery production is geographically concentrated, and this concentration determines the origin of many battery energy storage systems deployed worldwide. The core of any energy storage system is not the container or branding, but the upstream battery cell supply, battery modules production,
Introduction The EU “boom” in energy storage systems has moved the sector from a niche flexibility tool into a core infrastructure layer of the power system. In this new phase, the battery storage market size is no longer driven by early-mover advantage, where limited competition and high spreads supported unusually strong returns. Instead, post-“boom” market
Introduction Battery storage investment in Europe is moving from a growth story to an execution story. Battery energy storage systems are still scaling fast, but market is changing how returns are earned. When more battery storage projects enter the same grid zones, they compete for the same market prices, the same ancillary services, and the
Introduction A BESS is the physical asset, but the EMS is what turns that asset into profit. The energy management system controls dispatch, charging and discharging processes, and market participation, which means it effectively controls cash flow. Two identical battery storage systems can generate completely different returns depending on the EMS, the way it schedules
Introduction to energy storage Energy storage systems are transforming the way we manage and utilize electricity in today’s dynamic energy landscape. Energy Storage Systems (ESS) store electricity for later use, helping balance supply and demand and improving reliability when renewable generation is intermittent. A typical energy storage system includes batteries, a battery management system (BMS)
A buyer does not need to be an engineer, but must speak the same language as one. The top 10 energy storage terms define performance, warranty, and lifetime value in every commercial project. Learn them once, and you can read any battery energy storage system (BESS) datasheet or supplier pitch without guessing. Energy Storage System
Many European companies claims to manufacture energy-storage systems. In practice, most simply assemble them. Behind the marketing lies one truth: China builds Europe’s batteries. The European Union can call it “EU manufacturing,” but the hardware reality is shaped by China’s industrial ecosystem. China and Europe are economically linked through manufactured goods, supply chains, and foreign
This one-page glossary is a collection of key terms and specialized terminology commonly used in energy storage systems and battery projects. It is designed as a dictionary-style reference that helps readers understand the meanings and technical vocabulary frequently found in datasheets, reports, and engineering documents. Where relevant, entries include brief context notes and examples to
For buyers in Northern and Baltic Europe, the choice between two lithium batteries – Lithium-Iron-Phosphate (LFP / LiFePO4) and Nickel-Manganese-Cobalt (NMC) – is not about brand, it’s about physics, temperature limits, and lifetime economics. Both chemistries deliver lithium-ion performance, but their behaviour in cold weather and high-cycle conditions differs sharply. This LiFePO4 vs NMC comparison