Agricultural Innovation

Agricultural Benefits of Vertical Solar

Vertical agrivoltaic systems eliminate the false choice between energy security and food security. The same land produces renewable energy and agricultural crops simultaneously — maintaining 80–90% of traditional yields with full machinery access.

80–90%
Crop yield maintained alongside energy generation
Riaz et al. (2021), IEEE Journal of Photovoltaics; Next2Sun field data
£4,500–6,500
Combined income per hectare per year (energy + crops)
Campaign economic modelling; Next2Sun commercial data
25,000–35,000 ha
Farmland preserved versus conventional TMPV deployment
Based on REPD Dec 2024 pipeline and TMPV land-take estimates
<5%
Ground coverage from 500mm mounting posts
Riaz et al. (2021); Next2Sun installation specifications
Note: Agricultural productivity based on vertical agrivoltaic configurations with 10–12m row spacing that allow full machinery access between rows. Sources: Riaz et al. (2021), IEEE Journal of Photovoltaics; Next2Sun field study data.

The False Choice Eliminated

Traditional solar creates an unnecessary conflict between energy security and food security. Conventional tilted monofacial panels (TMPV) occupy agricultural land completely — removing it from food production for 25–30 years.

This is the central objection raised by communities, local authorities, and MPs across the UK's solar planning pipeline. It is also unnecessary.

The UK does not need to choose between feeding its people and powering its economy. VBPV systems deliver both — on the same land, simultaneously, at lower total system cost.

Full Machinery Access Maintained

The key design parameter is row spacing. VBPV systems are installed with 10–12m between panel rows — wide enough for standard agricultural machinery including combine harvesters, tractors with wide implements, and sprayers.

The vertical panels sit on 500mm posts that occupy less than 5% of the ground surface. Between rows, farming continues exactly as before.

Crops grow in the same field. The farmer retains their income. The solar developer generates clean energy. Both happen on the same land, at the same time.

VBPV vs Conventional Solar: Agricultural Impact

Factor Vertical Bifacial (VBPV) Conventional Tilted (TMPV)
Crop Productivity 80–90% of full productivity maintained ✓ DUAL USE 0% — land fully removed from agriculture
Machinery Access Full access — 10–12m row spacing for standard equipment Impossible — racking structures block all access
Ground Coverage <5% from 500mm mounting posts 40–50% blocked by panel racking
Livestock Grazing Compatible — sheep and cattle can graze freely Limited or impossible with conventional layouts
Farmer Income Dual income: crops + energy lease/revenue Energy lease only — crop income lost
Soil Health Maintained through continued cultivation Degrades under reduced management intensity
Planning Acceptability Addresses food security objection directly Frequently refused on agricultural land grounds
Biodiversity Strips & BNG ~1m wildflower strip beneath each row — supports pollinators (bees, butterflies, hoverflies) and aphid-eating natural enemies (ladybirds, parasitoids); delivers mandatory 10% Biodiversity Net Gain on-site BNG COMPLIANT No undisturbed ground possible beneath racking; BNG harder to deliver on-site

Dual Income, Preserved Land

The conventional solar proposition asks farmers to surrender their land — and their agricultural identity — for an energy lease. This is why many farming families strongly oppose TMPV development on their land and in their communities.

VBPV changes the proposition entirely. The farmer retains their crops. Their land remains in agricultural use. Their children can inherit a working farm. And the energy income supplements — rather than replaces — the agricultural income they have built over generations.

For a 100-hectare arable farm, VBPV could generate an additional £150,000–£250,000 per year in energy income whilst maintaining the full crop revenue stream.

The campaign is built on the conviction — rooted in 25+ years of agricultural engineering experience — that the farming community will embrace agrivoltaics once they understand that VBPV preserves what they value most: their land, their crops, and their way of life.

Compatible Farming Activities

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Arable Cropping

Cereals, oilseeds, and root crops can be grown and harvested with standard machinery between VBPV rows. Row spacing is designed specifically for UK combine harvester widths.

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Livestock Grazing

Sheep and cattle can graze freely between and around VBPV installations. The panels provide natural shade and shelter, which can improve animal welfare metrics.

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Horticulture

Many horticultural crops benefit from partial shading in summer conditions, potentially improving yield quality. Research into optimal crop-panel combinations is ongoing.