Windrose Power

How It Works

From Wind to Wheels

Wind Farm

Direct renewable
energy source

⚡ Charges

Windrose Power Pod

2 MWh mobile battery
drives to any site

Drives to site

Charging Site

Charges Windrose trucks &
any CCS/MCS fleet

In the News

Windrose Park Antwerp — wind-powered assembly facility at the Port of Antwerp

🇧🇪 Press Release · Vleemo

Windrose Park Antwerp Runs on 100% Wind Power

Vleemo provides Windrose direct access to wind energy from existing Port of Antwerp turbines — powering both truck assembly and the adjacent charging infrastructure entirely from wind.

Read the press release ↗

Overview

Mobile Energy Storage Charging Station

Windrose Power is a self-contained 2 MWh mobile energy storage and charging station. 2 MW of charging power via MCS + CCS, liquid cooling, and IP54/IP65 protection. OEM/ODM customization available.

🛡️

Overall IP54 / Battery IP65

Protection Rating

❄️

−20 to +60 °C

Liquid Cooling

🔧

OEM / ODM

Supports Customization

Battery Chemistry

LFP vs NCA: Why Chemistry Matters

Windrose Power uses LFP (Lithium Iron Phosphate) — the safest, longest-lived lithium-ion chemistry. Here's how it compares to NCA (Nickel Cobalt Aluminum), used in many stationary storage systems.

Windrose Power · Battery Chemistry

LFP

Lithium Iron Phosphate

>8,000

Cycles

20+ yr

Service life

−40°C

Min. temp

No thermal runaway Stable chemistry Outdoor safe

NCA · Battery Chemistry

NCA

Nickel Cobalt Aluminum

~3,000

Cycles

~8 yr

Service life

High

Energy density

Active cooling req. Stationary use

Inside the Battery — LFP vs NCA

Cell Cross-Section — Cathode (+) Top · Anode (−) Bottom

LFP — Windrose Power

NCA — Other ESS

Li⁺ is the carrier ion — moves between cathode and anode through the electrolyte Anode (graphite) is identical in both LFP and NCA chemistries Cathode material determines safety, lifetime, and thermal stability

Cathode Crystal Structure — Where the Elements Live

LFP — Olivine Structure

LiFePO₄

Li Fe P O

Li sits in channels between FePO₄ layers. O is locked inside PO₄ tetrahedra — cannot escape, even above 270 °C.

NCA — Layered Oxide

LiNi₀.₈Co₀.₁₅Al₀.₀₅O₂

Li Ni Co Al O

Li alternates with Ni/Co/Al-O layers. O is held by weaker ionic bonds — releases above ~150 °C, igniting the electrolyte.

Battery Lifetime: LFP vs NCA

LFP (Windrose)

>8,000 cycles — 20+ year service life

NCA

~3,000 cycles — ~8 year service life

At one full charge/discharge cycle per day, LFP reaches 8,000+ cycles in over 20 years with minimal capacity fade. NCA chemistry degrades faster under heavy daily cycling, typically reaching end-of-life around 8 years. LFP also carries no thermal runaway risk — a critical safety advantage for mobile, outdoor deployment.

Specification Sheet

Full Technical Specifications

Category	Item	Parameters
Battery	Capacity	2 MWh
Battery	Cell Type	LFP, >8,000 cycles
DC Output	Voltage Range	200–1500 Vdc
	Charging Power	2 MW — MCS + CCS MCS optional
	Connectors	MCS + CCS1 / CCS2 MCS optional
	Communication	OCPP 1.6J
Voltage Range	200–1500 Vdc
AC Output	Rated Power	500 kW
AC Output	Output Socket	400A × 1 · 200A × 1 · 125A × 1 380V industrial socket
AC Input	Input Socket	500 kW (Industrial Socket)
DC Input	Rated Current	400 A
DC Input	Replenishment	CCS1, CCS2 Charging dock optional
PV Input	MPPT	500 kW · DC 300–1000 V Optional
Others	Thermal Management	Liquid cooling
	Communication Protocol	OCPP 1.6J, Modbus-TCP / IEC61850 / 104
	Temperature Range	−40 to +55 °C
	HMI	10-inch · 32-inch
	Protection Degree	≥ IP54
	Corrosion Protection	C4 C5 optional
Size & Weight	Dimensions (L × W × H)	6058 × 2438 × 2896 mm
Size & Weight	Weight	25 T

From Wind to Wheels

Mobile Energy Storage Charging Station

LFP vs NCA: Why Chemistry Matters

Full Technical Specifications

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