HOLME PANEL 3D-PVhigher output by DESIGN, pat. pend.

FIXED INSTALLATION · KNOWN CHEMISTRY

Solar has been flat for fifty years. The Holme Panel adds the third dimension.

Standard bifacial HJT cells, stood vertically inside a sealed light-trapping cavity. One module that is at once a structural truss and a 3D energy trap — delivering roughly five times the annual energy from the same land.

Prototype, generation 3. Cells stand as web members between front glass and backplate.
Prototype, generation 3. Cells stand as web members between front glass and backplate.

MPP

~1.3×

Specific yield

~1.5×

Ground coverage ratio

~85% vs ~33%

Annual energy, same land

≈5×

THE 2D CEILING

Cells have improved every year. The module around them has not.

01 · Area (CTMr)

One square metre holds one square metre of cell

A flat module can never carry more active silicon than its own footprint — minus frame and spacing losses.

02 · Angle (AOI sensitivity)

Short productive window around noon

Morning and evening sun is largely lost — unless you add trackers and their moving parts.

03 · Land (GCR)

Two-thirds of the site is empty

Tilted rows cast shadows, so they must be spaced apart. A typical utility field covers about a third of its land with panels.

THE ARCHITECTURE

Same cells. New geometry.

The Holme Panel does not depend on a new cell chemistry. It re-engineers the module so that standard, bankable HJT cells collect more energy, for more hours, on less land.

■ Front glass■ Upright solar cells■ Reflector pyramids■ Low sunTo proportion: cell height is half the spacing between cells; pyramid peak is 60% of cell height.
Holme Panel prototype
Holme Panel prototype

Vertical, bifacial, both faces working simultaneously in direction of sun

Cells stand upright in a grid. Front and back faces harvest simultaneously — more than two square metres of active cell surface for every square metre of module.

A 3D energy trap

Super-efficient reflectors in each well scatter light onto both cell faces. Front glass admits light from outside and holds it inside until it reaches a cell. Diffuse, not specular — no concentrated hotspots.

Angle becomes an advantage

Because the cells face every direction in the cavity, sensitivity to angle of incidence is a property of the geometry — and the geometry favours oblique sun.

Hermetically sealed

Inside of panel is a sealed cavity, similar to a double-pane window, effectively protecting all parts from dust, humidity and more.

PERFORMANCE, BY COMPOUNDING EFFECT

Three gains that compound.

Each metric is measured differently, and each is independent of the others. That is why they compound.

×1.30

Peak power (MPP)

W per m² of module at peak, above the cells' own nameplate — from more cell area per footprint and light delivered to both faces.

×1.50

Specific yield (SY)

kWh per kWp per year at a given location. A wider production day with two peaks instead of one.

×2.55

Ground coverage (GCR)

Panel area as a share of land. Installed near-flat at ~85% GCR, against ~33% for tilted rows.

≈5.0×

Annual energy per hectare

1.30 × 1.50 × 2.55. The same land, the same sun, roughly five times the energy.

Two peaks. Both higher than noon.

A conventional module peaks once, at solar noon. The Holme Panel produces two peaks — mid-morning and mid-afternoon — each about 30% above a conventional peak. Its midday dip sits at the level of the conventional peak, so nothing is traded away.

That shape lands energy closer to morning and evening demand, and pairs naturally with storage that dispatches into price peaks.

06:0012:0018:00ConventionalHolme Panel
Illustrative profile, power per kWp of cell nameplate, clear day.

STRUCTURE & LIFETIME

The module is the structure.

Front glass, vertical laminated cells and backplate are bonded into a true engineering truss. Load paths run through the glass, not the wafers — removing the flexing that drives microcracking in flat laminates.

Holme Panel prototype
Holme Panel prototype

Longer life expectancy

Design-life expectation, from eliminating cell flexing and microcracks.

Hail

Low angle sensitivity allows steep installation in hail-prone regions without giving up output.

Object shading

Object-shading resilience: recessed cells sit behind the glass, so light reaches them around small objects on the surface.

O&M

O&M scales with land and glass, not watts. Per kWp: roughly two-thirds less land to maintain and less glass to clean.

DOWNSTREAM EFFECTS

A module change that reaches every link in the chain.

Module manufacturers

  • Uses standard HJT cells and established glass and edge-seal processes
  • Integrates into an existing line with an added assembly step
  • A differentiated, higher-value product without a new cell fab
  • Every future cell gain is amplified by the same architecture

Developers & IPPs

  • Several times more energy per hectare of leased or permitted land
  • Tracker-like daily profile with no motors, gears or moving parts
  • Production shifted toward morning and evening value
  • Viable sites where land, not sunlight, is the constraint

Asset owners

  • Repower aging farms on the land, permit and grid connection you already hold
  • 4–7× energy from the same site, with storage to use full export capacity
  • A long-life asset: 40-year design horizon

EPCs & installers

  • Near-flat, dense layouts — fewer rows, no inter-row shading studies
  • Fixed mounting; no tracker commissioning or maintenance
  • Flexible tilt for hail, snow and rooftop constraints

Data centres & large offtakers

  • More clean energy within an existing footprint or nearby legacy farm
  • Repowering as a fast route to energy-offset commitments
  • A twin-peak profile that firms more easily with batteries

Investors

  • An architecture licence that rides on, rather than competes with, cell progress
  • Value per square metre of land, not price per watt, as the key metric
  • Cases built without subsidies or tax credits

THE REPOWERING OPPORTUNITY

The fastest new terawatt-hours are on land that is already solar.

Europe and the USA each hold 100s of GW of first-generation solar farms. Their land is permitted, their grid connections are built. Repowered with Holme Panels and paired with storage, the same sites can add 1000s of TWh of additional energy per year.

Market and uplift figures are modelled estimates; site results depend on interconnection headroom, setbacks and storage sizing.

Modelled case — 2017-vintage 1 MW farm, 5 acres

TodayRepowered
Capacity1.0 MW~6 MW
Ground coverage33%~85%
Annual energy1.6 GWh~10 GWh
Land, permit, gridexistingupgrade dep. local reg.

FAQ

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Further insights

Terms used

MPP
CTMr
SY
AOI
GCR
HJT
Heterojunction (cell technology)
kWp / Wp
kilowatt-peak / watt-peak
O&M
Operations and maintenance
LCOE
Levelised cost of energy
IPP
Independent power producer
EPC
Engineering, procurement and construction
NDA
Non-disclosure agreement

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