In beta and available on request. The additions in this overview require the matching integration or controller update and are not confirmed as part of the standard customer release. Request them through your existing Eniris support conversation. The status applies to these additions, not to every existing function of the devices listed elsewhere on this page.
| Model / system | Beta addition | Validation and conditions |
|---|---|---|
| Scholt DSR battery connection | Live power requests and communication-loss fallback | Simulated-site tests passed; partner and physical site tests pending |
See integration details for connection requirements and operating limitations.
| Device Type | Variants | Supported |
|---|---|---|
| Solar Inverters | All | ⌛ (coming soon) |
| Storage Devices | ✅ | |
| EV Chargers | ❌ |
| Country | Supported |
|---|---|
| Belgium | ✅ |
| Netherlands |
Scholt will require information about the Sofar EMS before they can control any assets.
This includes the Sofar EMS Serial Number, and the SiteID, which is the same as the Serial Number with '_site_0' appended at the end.
In the next page, you have the option to include/exclude devices for remote control. Ensure to mark all checkboxes of devices you'd like to include.
When using multiple batteries, they are aggregated into one (virtual) asset.
'Scholt' is now set up on the Sofar EMS.
When Scholt External Control is added, the Sofar EMS algorithm has no control over the battery's behaviour.
Scholt can send three different control strategies, based on the energy markets.
Charging/Discharging on Imbalance Costs- When imbalance prices are favourable, Scholt will instruct the batteries to charge/discharge at maximum capacity.
Idle- Scholt can instruct the battery to be idle (Setpoint zero).
Self-Consumption- Scholt can instruct the battery to follow an adapted self-consumption algorithm, usign excess PV power to charge the battery. This differs from normal self-consumption, as the battery will not discharge to on-site consumption. The battery will charge as usual using excess PV power, and it will not charge from the grid. However, unlike with a normal self-consumption strategy, the battery will not discharge when we are importing power from the grid. Instead, it will only discharge when we are importing from the grid at our power limit, in order to prevent exceeding the grid limits.
If no signal is received from Scholt, the batteries will fall back to a local peak-shaving algorithm.
A separate Scholt DSR integration provides live battery-power requests and local fallback after communication loss. Commands, invalid-message handling, timeout fallback and unsolicited feedback have been tested on a simulated site. A test from the partner's own system and physical site commissioning remain necessary. It controls storage; it does not establish new PV or EV control.