Technology

The technology

All-day power. All four directions.

SolarJack replaces the single south-facing plane of a conventional array with a four-face bifacial tower — capturing sunlight from every cardinal direction across the whole day.

The structure

A four-face bifacial tower

Six bifacial panels per face × four directions = 24 panels on a single compact footprint. Erected on screw-piles in under a day — no crane, minimal civil works.

North

300–450 kWh/kWp

Diffuse & albedo capture.

South

850–950 kWh/kWp

Peak midday yield.

East

950–1,100 kWh/kWp

Morning generation.

West

950–1,100 kWh/kWp

Late-afternoon generation.

Why four faces beat one

Energy that’s worth more per kWh

Peak-value hours

East/West faces output exactly when electricity prices peak — morning and late afternoon. SolarJack energy is worth more per kWh than a south-only array.

Duck-curve fix

The afternoon west-face peak partially offsets the notorious solar duck curve — valuable for grid operators and C&I buyers managing demand charges.

Less storage needed

A flatter production curve means a 15–25% smaller battery for off-grid applications versus a south-only array of equivalent kWp.

How a project comes together

From area to energy — in four steps

1

Define the site

Pick the parcel or corridor. Any terrain — farmland, industrial, swamp or desert.

2

Site the towers

Our latitude-based spacing algorithm sets inter-tower distance to optimise shadow overlap and albedo gain.

3

Assemble in a day

Screw-pile foundation, four-face steel tower, panels and hybrid inverter — no crane.

4

Generate & store

Flat all-day output, optionally paired with LFP storage for off-grid or peak-shaving.

Intellectual property

Confirmed patent white space

Three independent AI prior-art reviews agree: no blocking prior art exists across the core geometry and spacing method.

Patent pending

Four-face geometry

N/S/E/W cardinal bifacial tower with a 1–3° taper — a truncated-pyramid form unique globally.

Filing ready

Spacing algorithm

Latitude-based inter-tower spacing that optimises shadow overlap and albedo gain across a field.

In development

Energy-balance method

Electrical and digital modifications that minimise galvanic corrosion between tower outputs in multi-tower arrays.

See the four-face advantage on your own site

We’ll model expected yield and spacing for your latitude and terrain.