Renewable Energy
Battery storage sized for a clear purpose, whether backup, peak reduction or using more of your solar energy, and designed safely for Saudi conditions.
Use more of your solar energy and protect critical loads
A battery energy storage system (BESS) stores electricity, from solar panels or the grid, and releases it when needed. It combines battery modules, a power conversion system, a battery management system, cooling and fire protection. Storage is used to keep critical loads running during outages, reduce peak demand, shift solar energy to the evening and support EV charging where grid capacity is limited.
Solar panels produce during the day, while many homes, compounds and facilities still need power in the evening or during peaks. Battery storage closes that gap. It increases the share of solar energy you actually use, provides backup for critical equipment and can reduce the peak demand that drives connection size and costs.
Storage is only valuable when it is sized for a specific purpose. A battery chosen for backup is configured differently from one meant for peak shaving or for supporting fast chargers. Battery chemistry, heat, ventilation, fire safety and the rules for operating alongside the grid all affect performance, lifetime and risk, especially in hot climates.
Selorin designs and delivers storage systems for residential, commercial and industrial sites and alongside solar and EV charging projects. We analyse load data to define the use case, size capacity and power, select suitable technology, and design cooling, fire protection and controls. We then install, commission and monitor the system, and plan for responsible collection and recycling of batteries at end of life.
You may need this service when:
Analysis of consumption data to define whether storage is for backup, peak reduction, solar self-consumption or EV support.
Energy and power sizing, battery chemistry and configuration selected for performance, lifetime and safety in high temperatures.
Cooling, ventilation, fire detection and suppression, protection and control integration with solar, generators and the grid.
Supervised installation, functional testing of operating modes and handover with operating procedures.
Remote monitoring of state of charge, temperature and degradation, with alerts and periodic reports.
A plan for collection, reuse or recycling of batteries through licensed channels.
We confirm what the storage must achieve and how its value will be measured.
We size the system and compare technology options, costs and lifetime.
We design cooling, fire protection and controls for the location and climate.
We install the system and test every operating mode before handover.
We track performance and battery health and maintain the system over its life.
| Deliverable | Format | Stage |
|---|---|---|
| Use-case and sizing study | Technical report (PDF) | Project start |
| System specification and safety design | Specification, layout and protection design (PDF) | Design stage |
| Operating and emergency procedures | Procedures document (PDF) | At handover |
| Commissioning records | Test reports (PDF) | At handover |
| Battery health report | Periodic report | During operation |
Requirements vary by activity, location and permit conditions. We confirm the applicable requirements for your project at the start of every engagement.
Not always. If most of your consumption happens during the day, a grid-connected solar system without batteries can be the most economical choice. Batteries add value when you need backup, use most energy in the evening, or face peak demand or capacity limits.
It depends on the battery's stored energy and the loads connected. We size the system for the loads and duration you need, for example keeping essential circuits running during an outage, rather than the whole building.
Yes, when the chemistry, cooling and enclosure are chosen for the climate and the installation follows fire-safety requirements. Temperature management is a central part of our design.
Lifetime depends on chemistry, temperature and how deeply and often the battery is cycled. We estimate expected degradation at design stage and monitor battery health during operation.
Batteries must be collected and recycled through licensed channels. We include an end-of-life plan in the project so this is arranged responsibly.
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Key benefit: Lower electricity bills from a system designed around your real load
AC and DC charging stations for residential compounds, buildings, hotels, fleets and public sites, from load study and charger selection to installation, solar integration and maintenance.
Key benefit: Chargers ready for today's users and tomorrow's demand
Operation and maintenance for rooftop and ground-mounted solar, battery storage and EV chargers: cleaning, preventive inspections, thermal imaging, fault response and performance reports.
Key benefit: Higher, more predictable output over the life of your assets
Site screening, solar and wind resource and yield assessment, financial modelling, environmental impact assessment and permitting support for renewable energy projects.
Key benefit: Investment decisions built on credible technical, financial and environmental evidence
Share your project details and an environmental specialist will review your requirements.