2027 Event Agenda

Grid modernization spend keeps growing, but the evidence behind it lags. Utilities are putting more DER and large loads on the same feeders, replacing relays, and modernizing control rooms. Most of that work gets validated only after the capital has been spent and the customers are connected. That sequence is starting to cost more than the rate case can justify.

Duquesne Light Company is taking a different approach: a utility-led DER Integration Laboratory built as a structured pre-deployment validation gate. Unlike national-lab and vendor-led test environments, this gate is sized to an IOU's interconnection and procurement workflows and calibrated to the operational and regulatory constraints a distribution utility actually faces. The lab focuses on the highest-risk seams in DER integration: IEEE 1547-2018 inverter behavior, protection coordination on inverter-heavy feeders, and the operational integration of ADMS with DERMS. Each capability runs the gate before it reaches the field.

The session walks through how the gate is structured and applied. Attendees will examine the testing-fidelity matrix that distinguishes logic validation on a stiff-grid bench from physics validation requiring a regenerative source. They will see the protection workstream, which exercises relays and recloser controls against inverter-based fault behavior before settings reach customer feeders, and the multi-vendor inverter test approach aligned to IEEE 1547-2018, IEEE 2030.5, and DNP3 (IEEE 1815). The control-room workstream validates operational scenarios across ADMS and DERMS platforms, so the gate that vets equipment also vets the procedures and operator displays that go with it. The artifacts produced, including test plan templates, acceptance criteria, and procurement-specification language, are being embedded into DLC's interconnection and procurement workflows. The methodology is vendor-neutral and ADMS-agnostic by design. The lab's first outputs are expected by the end of 2026. A peer-utility perspective from PPL Electric Utilities will frame how a standards-based gate travels across IOU and similar distribution environments.

The lab delivers value on both sides of the meter. For DLC: fewer field commissioning surprises, lower outage exposure on high-DER feeders, and documented evidence behind capital decisions and evolving regulatory expectations. For customers: faster, more predictable interconnection, better service quality on feeders carrying more DER, and clearer line of sight into what grid-modernization investment delivers.

The reason for this travels is the gate logic itself: what gets validated, against what criteria, before what decision. The equipment will differ from one utility to the next. The gate does not have to.

After this session, attendees will be able to:

1. Apply a use-case prioritization framework that ties laboratory investment to operational risk, regulatory pressure, and customer impact.
2. Evaluate the testing-fidelity boundary between stiff-grid logic validation and regenerative-source physics validation — and the equipment, budget, and staffing implications of each tier.
3. Adapt a pre-deployment validation gate — including protection-relay and control-room workstreams — into their own utility's interconnection, procurement, and capital-planning workflows.