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Solutions

Energy storage solutions built for measurable efficiency.

Lugovum works with site owners, developers, and operations teams to plan energy storage systems that support clear outcomes: reduce peak demand, increase renewable self-consumption, improve backup readiness, and make energy behavior easier to manage. Our solutions focus on three questions that determine performance: how the site uses electricity, what constraints exist at the meter and interconnection, and which control strategy matches tariffs and operating hours.

Designed for
Homes, commercial facilities, industrial sites, and multi-site fleets.
Core deliverables
Sizing rationale, control strategy, commissioning checks, reporting KPIs.
Operational focus
Predictable dispatch, safe limits, and clarity during events and outages.

Solution map

A practical sequence from data to operation.

Step-by-step
engineer reviewing battery energy storage system design drawings and site metering data
  1. 1 Assess: interval data, tariffs, critical loads, and constraints.
  2. 2 Design: size power and energy, then define dispatch rules.
  3. 3 Commission: verify limits, metering, and expected system behavior.
  4. 4 Operate: monitor KPIs and tune settings with documented change control.

We aim for clarity over complexity. If advanced controls are helpful, we explain what data they rely on and what happens when inputs are missing. This reduces surprises during commissioning and everyday operations.

Core solution areas

Each solution area can be used on its own or combined into a full project pathway. The best starting point depends on what you already have: some teams need a sizing review before procurement, while others have an installed system that needs commissioning verification or a better dispatch plan. The common thread is repeatable, explainable decision-making that aligns storage behavior with efficiency targets.

Storage sizing and architecture

We translate interval data and operational goals into a sizing range for kW and kWh, then validate it against constraints such as interconnection limits, inverter capability, and backup requirements. The output is a rationale you can share internally, including what assumptions drive results and how sensitive outcomes are to changes in load or tariff. This avoids oversizing and prevents systems that cannot deliver peak power when needed.

EMS strategy and dispatch rules

Efficiency comes from control strategy: when to charge, when to discharge, and what reserve to keep for outages or critical operations. We define dispatch rules that reflect tariff timing, seasonal changes, and site behavior. We also document fallback behavior for communication loss or missing meter inputs. The result is dispatch that stays consistent, explainable, and safe within agreed operating limits.

Commissioning and verification

We help teams verify that metering points, CT orientation, setpoint logic, and protection limits are configured correctly. Commissioning verification is built around test cases that reflect real operating modes: peak control, solar charging, reserve protection, and transfers during outages where applicable. We also outline a post-commissioning verification window so performance can be confirmed using telemetry rather than assumptions.

Monitoring KPIs and reporting

We define a small set of KPIs that operations teams can review consistently: peak demand reduction behavior, charge source mix, discharge destination, state-of-charge utilization, and event logs. Reporting is designed to be operational, not decorative. If a KPI changes, the report should help you understand whether it is due to site behavior, tariff changes, control settings, or sensor issues.

Operational playbooks for events and change control

Storage systems interact with tariffs, weather, operations, and the grid. Without a documented approach to change control, settings drift and performance becomes hard to explain. We provide playbooks that cover common events such as demand excursions, inverter derates, meter dropouts, and planned maintenance. The playbook includes what to check, what to record, and when to escalate, so teams can maintain efficiency gains without relying on tribal knowledge.

Want to start with a clear scope?

A short discovery call helps us understand your goals and constraints, then recommend the most effective solution area to begin with. We will explain what data is needed and how it will be used.

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How we align solutions to your site type

Site context changes which solution levers matter most. A home with solar may prioritize self-consumption and essential-load backup, while a commercial building may focus on brief demand spikes that drive demand charges. Industrial sites often need explicit limits and a clear approach to operational events. Our process maps each site type to a set of practical decisions: where to measure, which loads are controllable, what reserve policy makes sense, and which KPIs provide early warning when performance changes.

commercial building energy room with inverter and battery storage monitoring equipment

Residential

Residential solutions emphasize backup circuit planning, reserve settings, and daily self-consumption behavior. We explain usable capacity, expected runtime, and how charge behavior interacts with export limits. For homeowners, success means predictable behavior: knowing what stays powered during an outage, how to prioritize essential loads, and how the system charges during normal days without creating unnecessary cycling.

Commercial

Commercial sites often have predictable business hours but variable peaks. Our solutions focus on peak shaving, tariff alignment, and controls that reduce manual effort. We also emphasize metering correctness, because small configuration errors can cause the system to charge at the wrong time. Reporting is designed for monthly review, so teams can confirm performance without digging through raw data.

Industrial and fleets

Industrial environments benefit from conservative limits, clear escalation paths, and a documented approach to setpoint changes. For multi-site fleets, the priority is consistency: standardized KPIs, alert thresholds, and playbooks that travel with staff changes. We help teams separate site-driven changes from configuration issues, so performance conversations remain grounded in evidence and operational reality.

Information that helps most

  • 12 months of interval meter data (if available)
  • Tariff details including demand charges and seasons
  • One-line electrical diagram or service capacity
  • Renewable system specs and export limits

What we do not require initially

  • Sensitive personal data beyond basic contact details
  • Uploads through the website contact form
  • Commitment to a purchase before receiving a scope
  • Access to operational systems without permission

Frequently addressed questions

Storage conversations often get stuck on a single number such as battery capacity. In practice, efficiency optimization depends on how power and energy are used through the day, how much reserve must be maintained, and which constraints limit dispatch. These answers summarize how Lugovum approaches common questions without relying on unrealistic assumptions.

battery system technician checking inverter settings on a tablet during commissioning

How do you estimate peak shaving potential?

We start with interval data to quantify how often peaks occur, how long they last, and which hours drive demand charges. We then test dispatch strategies that cap demand at a chosen threshold, accounting for battery power limits and reserve policy. The outcome is a set of scenarios that show sensitivity to load variability and tariff structure, rather than a single headline figure.

What is the difference between kW and kWh for storage?

kW is the instantaneous power the system can charge or discharge, which matters for short peaks and equipment starts. kWh is the usable energy, which determines how long the system can sustain a given power level. Many efficiency use cases require both: enough kW to control peaks and enough kWh to maintain support across the relevant time window. We size both dimensions to match your specific load shape.

Can storage stabilize energy costs?

Storage can reduce exposure to certain tariff components, especially demand charges or time-of-use rates, when dispatch is aligned with the billing structure. We avoid absolute promises and instead provide scenario-based estimates tied to your actual tariff and load. Stability improves when dispatch is predictable and monitored, with clear rules for reserve management and seasonal transitions.

Do you support projects already installed?

Yes. Many requests involve verifying commissioning results, correcting metering or setpoint behavior, or improving reporting so performance is easier to review. We can help you define a verification plan, identify likely causes of performance drift, and propose changes that are documented and reversible. For ongoing operations, we encourage change control so updates are traceable.

Next step

If you have a project goal in mind, contact us and we will respond with the best starting solution area and the minimum information needed.

Contact Lugovum