A U.S.-market workflow for integrating PV, storage, and other distributed resources with realistic interconnection, protection, and operating-mode planning.
Renewable Integration and Interconnection for U.S. Facilities
Move from PV and storage concept selection into U.S. interconnection, service-equipment, controls, and commissioning decisions for real facilities.
Learning Objectives
- Define site operating objectives before choosing PV and storage architecture
- Coordinate interconnection assumptions with service equipment, conductors, and NEC workflow
- Review feeder loading, backfeed, control transitions, and fault behavior before procurement
- Commission renewable operating modes with a documented maintenance baseline
Prerequisites
Course Content
- 1Renewable Energy Integration in U.S. Electrical Systems15 min readadvanced
- 2PV Self-Consumption Design for U.S. Facilities
A practical U.S.-market workflow for sizing self-consumption PV systems around load profile, interconnection strategy, service equipment, and commissioning discipline.
13 min readadvanced - 3Electrical Energy Efficiency for U.S. Buildings and Facilities
A practical engineering framework for reducing electrical losses and operating cost through load analysis, equipment selection, and controls.
12 min readintermediate
Practice with Calculators
Screen PV array output, system size, and basic solar-production assumptions.
Screen PV inverter AC size, DC-AC ratio range, and cold-weather modules per string from module data.
Screen nominal battery-bank kWh and amp-hours from daily energy, runtime, or a planned peak-shaving discharge window.
Estimate solar payback from production, self-consumption, export credit, user-entered incentives, O&M, degradation, and replacement assumptions.
Calculate voltage, current, and resistance
Solve DC, single-phase AC, and balanced three-phase power relationships from voltage, current, power factor, and power values.