Northumberland farmer proudly displaying his farmhouse cheese, dairy milk and beef jerky

LOCAL AGRICULTURE · HIGHER MARGIN · LOWER CARBON

Local Farmers Prosper

The North Tyne farming base is most realistically built around sheep, beef cattle and grass-based forage. The project adds value through grass-and-clover pasture, hay and silage, renewable energy, biogas, protected horticulture, local processing and farmer-owned products; lucerne is treated only as an optional crop for suitable free-draining fields.

The V8 workbook uses explicit pounds-sterling processing scenarios with editable British farm inputs. The lucerne examples below are retained as legacy context; they are not included in the V8 central case or its headline carbon result.

What local farmers mostly produce

For the upper North Tyne landscape, the most credible agricultural foundation is grazing livestock rather than large areas of lucerne. Sheep and beef cattle dominate the upland character, with grass pasture, clover-rich leys, hay and silage providing the core feed. Better and lower ground can also support cereals and other crops, while dairy, eggs, potatoes, roots and seasonal vegetables can come from participating farms across the wider Northumberland supply area.

Sheep & lambHill and upland flocks are central to the local farming identity and landscape.

Beef cattleGrass-fed suckler and beef systems are a natural fit for the valley and surrounding uplands.

Grass · clover · hay · silageThe principal cattle and sheep forage. These are the project's default feed crops for North Tyne.

Cereals & regional produceBarley, wheat and oats are plausible on better ground; potatoes, roots, eggs, dairy and vegetables can supplement the local food chain.

Lucerne (alfalfa) can be a useful high-protein forage in Britain, but it needs suitable free-draining soil and is not assumed to replace the valley's grass-based farming system. Any commercial lucerne acreage would be agronomically validated field by field.

Illustrative England farm-processing margins

The beef and dairy cases remain useful planning scenarios. The first and fourth cards are inherited lucerne scenarios and are shown for transparency, not as the recommended North Tyne land-use base case.

+£18k–£82k/yearLegacy model: 100 ha shifting from low-margin wheat to locally grown lucerne with free digestate, lower-carbon drying and shorter transport. North Tyne adoption would require soil and farm-level validation.

£46,218/yearA 139-head finishing farm that retains part of the margin from lower-carbon beef and its own jerky brand.

£154,350/yearA representative 126-cow dairy farm that retains part of the value from converting milk into its own cheese.

≈£22–£51/tLegacy lucerne scenario: estimated saving per tonne from lower-cost drying and local transport; retained for transparency rather than used as the valley base case.

Version 8 uses UK electricity and natural-gas factors and an editable 24.5 MW schedule. Livestock, land, community heat-demand and participating farm inventories still require local validation.

Complete Northumberland physical model · ZIP

ENGLAND PHYSICAL MODEL · VERSION 8

24.5 MW of computing, useful heat and measurable operational carbon savings

The model compares the same IT workload and useful heating service in two systems: a conventional data centre plus separate gas boilers, and the North Tyne network using recovered heat and renewable electricity.

50,378 tCO₂e/yearmodelled avoided operational emissions

94.5%operational reduction within this comparison

82.1 GWh/yearuseful recovered heat

The central screening case assumes 90% average IT load, PUE 1.15 versus 1.45, 85% heat capture, annual use of 50% of captured heat, and 90% hourly matched renewable electricity. It includes heat-network pumping. Project electricity demand is 223.8 GWh/year, including 22.4 GWh/year of unmatched grid imports. The comparator emits 53,308 tCO₂e/year; the project emits 2,931 tCO₂e/year.

These are operational Scope 1 and 2 screening predictions, not a verified whole-community lifecycle reduction. Food, livestock, household transport, construction and equipment manufacture are outside the headline boundary. Annual wind-and-solar output is separately modelled at 303.5 GWh; annual surplus does not prove hourly renewable coverage and earns no export credit.

Download editable English model (.xlsx)Download runnable model, data and notes (.zip)

UK factors: DESNZ 2026 greenhouse-gas conversion factors. All engineering assumptions remain editable.

A local circular agricultural chain

The goal is not simply to raise more cattle. Economics improve when feed, energy, fertiliser, processing and branding stay close to the farmer. In the North Tyne base case, cattle and sheep rely primarily on grass pasture, clover-rich leys, hay and silage. Biogas turns manure and residues into energy, digestate returns nutrients to suitable fields, and recovered heat can support crop or forage drying where it is useful. Lucerne remains an optional trial crop only on suitable free-draining land.

Sheep grazing on North Tyne grass pasture — North Tyne pasture: sheep and cattle on grass-based systems are the realistic agricultural starting point for the valley.

Secador industrial — Industrial dryer: recovered heat and low-carbon electricity can support hay, forage, grain or other crop drying where farm economics justify it.

Grass, clover, hay and silage first — lucerne only where the land suits it

For most North Tyne cattle and sheep, the primary forage should be permanent or rotational grass, clover-rich leys, conserved hay and silage. Lucerne can still be tested as a high-protein supplementary crop on suitable free-draining fields. The inherited model's 24.3 kg CO₂e/t transport saving applies only to its specific 300 km-to-30 km lucerne transport scenario and is retained here for transparency; it is not applied to locally grazed grass.

24.3 kg CO₂e/tlegacy lucerne transport case · 300 km → ~30 km

Sheep grazing on grass pasture in the North Tyne landscape

Cattle methane: the biggest climate lever

In the beef model, enteric methane represents about half of the reference footprint. The current design mainly reduces manure, energy, feed, fertiliser and transport, giving about 34.3% lower beef footprint. In the future maximum, near-98% enteric reduction combined with the rest of the system takes total beef footprint to about 91.5% lower — up to 92%. For cheese, the model moves from about 53.8% lower in the design to about 88.0% at the future maximum.

34.3%VACUNO · DISEÑO

91.5%VACUNO · MÁXIMO

53.8%QUESO · DISEÑO

88.0%QUESO · MÁXIMO

Video: why reducing enteric methane matters

The video explains methane formation in the rumen and the role of feed additives. The project uses 3-NOP/Bovaer where it applies to authorised cattle categories and keeps Asparagopsis as a higher-reduction future option when it can legally be used for the relevant cattle category.

Methane-reducing supplements and future red-seaweed research

In addition to improvements in manure, energy, fertiliser, transport and drying, the project includes a specific strategy to reduce enteric methane, one of the largest components of the carbon footprint of cattle.

English diagram of exploratory red-seaweed research and enteric methane — Future research: some red seaweeds, including Asparagopsis, have produced very large methane reductions in trials, in some controlled conditions approaching 99%. The project is following this research for possible future use when it is technically viable and legally permitted.

Cattle and traditional stone farm buildings in Northumberland — Immediate UK option: the Great Britain register authorises a preparation of 3-NOP for ruminants used for milk production or reproduction. Participation must follow the current authorisation, animal category and feed conditions. The default beef model takes no enteric-additive credit; the dairy scenario uses an illustrative 30% reduction requiring farm validation. The project proposes to fund additive costs for eligible participating farms.

Red seaweed being sorted for research — Red seaweed sorting: an example of the kind of future algae-processing and handling work that could support methane-reduction research pathways.

The England approach combines grass-based forage, digestate, biogas, renewable energy and eligible methane-reducing feed technology. Red seaweed remains a future research pathway. Neither a blanket permission for all beef cattle nor a near-99% reduction is assumed in the V8 central model.

Food Standards Agency — current Great Britain 3-NOP authorisation

Farmers earn more when they also own the finished product

Jerky, cured ham and cheese convert local raw materials into light, durable, higher-value products. A regional farmer-owned brand keeps a much larger share of processing and retail margin in the local economy.

Low-carbon beef jerky product concept — Low-carbon beef jerky: a premium British pouch with visible dried meat, cattle horns and local-production identity.

Low-carbon cured meat product concept — Lower-carbon British cured meat: a cured-product concept using renewable energy and a local supply chain.

High-technology greenhouse with LED lights on tracks supporting the low-carbon food chain — Low-carbon cheese: local milk, lower methane, renewable energy and maturation value retained by the cooperative.

Global market, local production

Jerky has a very high value-to-weight ratio and can sell through e-commerce, gourmet retail, fitness, hiking, airports and distributors. Cheese and cured products add another export route. The margin model assumes the farmer or cooperative retains an ownership share in the brand and processing.

See Generation Z study Back to Local Businesses

Main calculation bases

The figures on this page are linked to the downloadable physical model and the agricultural, energy and food references used to build its assumptions.