IN Brief:
- Sungrow Charging has introduced ChargePower One and IDC80E at Power2Drive Europe 2026.
- ChargePower One combines energy storage, EV charging, PCS, power distribution, and energy management in a 5-in-1 architecture.
- IDC80E targets destination charging, with dynamic load management, OCPP 2.0.1 compatibility, and V2G-ready design.
Sungrow Charging has introduced two EV charging products at Power2Drive Europe 2026, presenting ChargePower One for integrated charging and storage applications and IDC80E for destination charging sites.
ChargePower One is an AC-coupled commercial and industrial system combining energy storage, EV charging, an energy management controller, a power conversion system, and a power distribution box. The 5-in-1 architecture is designed to reduce site complexity and shorten installation and commissioning work.
The system is intended for locations where additional grid capacity is costly, delayed, or unavailable. By combining storage with charging and power management, ChargePower One can smooth site demand, optimise local energy use, and support deployment where the upstream connection would otherwise limit charger output.
Sungrow has designed the system with an independent AC-bus parallel architecture to support retrofit and expansion. Its energy management platform controls charging, storage, and site energy consumption in real time, with virtual power plant participation functions. Safety functions include AI-supported battery health management, arc fault detection, and rapid shutdown.
The IDC80E is a compact DC charger for destination charging locations where vehicles typically remain parked for one to three hours. Sungrow has designed the unit for installation by two technicians without lifting equipment or major civil works, with many sites capable of commissioning within one day.
The charger requires up to 20% less space than conventional DC chargers and uses isolated air-cooling, IP65, IK10, and C5-rated construction. It includes module fault isolation, dynamic load management, OCPP 2.0.1 compatibility, over-the-air updates, and an upgrade path from 80kW to 120kW through module replacement.
IDC80E delivers up to 97% efficiency and supports currents up to 250A. Its V2G-ready design and compatibility with PV and storage systems place it within the wider move toward charging infrastructure that can interact with local energy assets rather than operate as an unmanaged load.
EV charging deployment is increasingly shaped by the electrical conditions around the site. Charger hardware can be procured and installed more quickly than network capacity can be reinforced, particularly where substations, cable routes, wayleaves, metering, protection, and demand studies are required. Storage-backed charging gives operators another way to manage peak load while waiting for, reducing, or avoiding upstream reinforcement.
Mobile and storage-backed charging systems are already being used to address similar constraints. Battery-backed rapid charging for temporary power sites combines DC charging with stored energy and AC output, while integrated European storage and charging platforms are bringing batteries, dynamic pricing response, remote operation, and energy management into the same architecture.
Destination charging has a different technical profile from motorway ultra-rapid charging and fleet-depot infrastructure. Vehicles remain connected for longer periods, user dwell time is higher, and charging output must often be balanced against retail, hospitality, workplace, or public-building loads. Dynamic load management, charger reliability, available space, and upgrade flexibility can therefore carry as much weight as peak output.
Reliability is becoming one of the central commercial measures for charging networks. Hardware faults, payment problems, communications failures, software errors, and thermal constraints all reduce utilisation and undermine user confidence. Sungrow’s stated 99% uptime and 99.5% one-time charging success rate for IDC80E address a market in which installed charge points are no longer enough; operational availability is the measure that counts.
V2G readiness also points toward the next stage of charging infrastructure design. Bidirectional charging will depend on vehicle compatibility, standards, metering, tariffs, aggregators, battery-warranty treatment, and local network arrangements. Even so, hardware that can support future bidirectional operation reduces the risk of stranded charging assets as grid-service models evolve.
Scaled charging networks are already moving into a more mature commercial phase. Rapid-charging network revenue growth shows that utilisation and site economics are becoming more visible, while metered reimbursement for workplace and home charging shows how measurement and software functions are shaping hardware procurement.
Sungrow’s products reflect the same direction. EV charging infrastructure is becoming a site energy system, combining chargers, batteries, power conversion, control software, communications, safety systems, and grid interaction. The electrical design challenge is no longer limited to connecting chargers safely; it is to make the site operate reliably within the limits of available capacity, user demand, and future flexibility requirements.
