Three Packages.
One Decision Framework.
EnergisedX Software is a physics-based decision framework for maritime power and energy systems. It's organised as three packages that follow the sequence of an electrification project. System-level sizing first, then battery pack configuration, then long-term lifetime modelling. They come bundled by default. You can also take any one on its own.
The three packages
-
01
Power & Energy System Sizing
What you get
- Optimal hybrid configuration and component sizing
- Energy & power management strategy
- Total cost of ownership across the design lifetime
- Fuel use, emissions, and ROI under realistic load profiles
How it works
This is the system-level entry point. We start from the vessel's operational profile and work out where and how each component should sit in the power and energy system. That covers the engines, batteries, fuel cells, converters, and the power and energy management strategies that tie them together.
You get back a component-level configuration with the sizing calculations behind it, documented to the point you can take it to a supplier or customer.
-
02
Battery Pack Configuration & Sizing
What you get
- Module count and series-parallel configuration
- Current and voltage profile across the operational profile
- Pack-level power, energy, and C-rate behaviour
- Compatibility check against candidate cell chemistries
How it works
This builds on the system-level result from Package 01 and resolves the battery system down to the pack level. How many modules, in what series-parallel arrangement, to meet the current, voltage, and power requirements without over- or under-spec.
The result is a battery definition specific enough to procure against.
-
In development 03
Battery Lifetime & Degradation
What you get
- Cycle life projection under operating conditions
- Calendar vs. cycle aging breakdown
- State-of-health trajectory across the lifetime
- Sensitivity to operating strategy and temperature
How it works
Once the pack configuration is set, we model how the battery ages in service. That means cycle aging from the vessel's operational profile, calendar aging from idle periods, and temperature effects, all rolled into a single view of how long the battery lasts.
Used together, the packages run in sequence, each one feeding the next. If you already have part of the picture in your workflow, you can take any package on its own.
See the platform in action.
Watch a demo
A walkthrough of the platform, covering how it models, sizes, and optimises hybrid power and energy storage systems.
Get in touch
Get in touch and we'll walk you through the three packages (sizing, pack configuration, and lifetime modelling) against your vessel type and where you are in the project.