382. Ursa Ag: A Low-Technology Tractor for Localism

Modern tractors have become extraordinarily sophisticated. They may incorporate computers, electronic sensors, satellite navigation, automated steering and proprietary software. Some can diagnose their own faults, but the farmer may not be permitted or equipped to repair those faults. A relatively minor electronic failure can immobilise a very expensive machine until an authorised technician arrives.

Ursa Ag, a small Canadian tractor manufacturer based in Alberta, is taking a different course. Its tractors are deliberately built without computer controls. The company removes complex electronics and returns to proven mechanical systems that can be understood, maintained and repaired by farmers and independent workshops.

This does not mean returning to the horse-drawn plough. Ursa Ag tractors are powerful machines. The present range includes models of about 150, 180 and 260 horsepower. They use mechanically injected Cummins diesel engines and conventional mechanical controls. The electrical wiring is kept to what is necessary. There are no proprietary electronic control units governing every movement of the machine.

The result is a tractor that an experienced mechanic can examine with ordinary tools. A fault does not necessarily require a laptop, a software licence or permission from the manufacturer. Parts can be repaired or replaced without the entire machine becoming dependent upon a distant dealer.

Low technology does not mean primitive technology

Ursa Ag illustrates an important distinction. Low technology is not the rejection of machinery. It is the selection of machinery that is sufficiently simple, durable and repairable for the work it must perform.

The best technology for a shrinking economy may not be the most advanced technology available. It may be the technology that delivers a necessary service while making the least demand upon money, energy, specialised knowledge and distant supply chains.

A purely mechanical tractor may perform fewer functions than a computer-controlled machine. It may not offer automatic steering or precisely vary the application of fertiliser across a field. Yet it can continue working when digital communications fail, when software support is withdrawn or when the nearest authorised dealer is many miles away.

Its useful life may also be extended by repeated repair. This matters because the energy and materials already embodied in a machine should not be discarded merely because an electronic component has become obsolete.

The right to repair

Localism depends upon local competence. A locality cannot be resilient if every essential machine must be returned to a national manufacturer or connected to a remote computer before it can be repaired.

Mechanical equipment supports a local network of engineers, welders, machinists, parts suppliers and agricultural workshops. Knowledge remains within the locality and can be passed from one generation to another. Money paid for maintenance circulates locally instead of being extracted through software subscriptions and manufacturer-controlled servicing.

This principle extends well beyond tractors. Pumps, sawmills, heating systems, food-processing machinery and small generating equipment should all be designed so that their operation can be understood. Standard components should be replaceable. Manuals should be available. Repair should be expected rather than discouraged.

Ursa Ag’s approach is therefore closely connected to the right-to-repair movement. It restores a measure of ownership to the purchaser. A farmer who has paid for a tractor should be able to maintain it without continuing dependence upon the company that supplied it.

A machine suited to economic shrinkage

The highly automated tractor belongs to an economy that assumes abundant capital, reliable global supply chains and permanently available technical support. These assumptions become less secure as energy costs rise and the discretionary economy contracts.

Farmers will have less money available for machinery. At the same time, food production will become more important. Agricultural equipment will therefore have to remain in service for longer. It must be capable of being repaired repeatedly, sometimes by adapting locally available components.

Ursa Ag claims that its simpler tractors are significantly less expensive than comparable machines from the large manufacturers. Independent reporting says the company uses proven mechanically injected engines and avoids the proprietary diagnostic systems associated with many modern tractors. The trade-off is that its machines are not intended for the most advanced forms of digital precision farming. They are working tractors rather than mobile computer platforms. OmniTrattore provides a useful description of the design and its limitations.

Limits to the example

An Ursa Ag tractor is not a complete model for future local agriculture. It remains a large diesel-powered machine. It depends upon imported fuel, industrial tyres, replacement parts and a substantial manufacturing system. Nor does the company currently appear to have an established British sales and support network.

In the longer term, smaller farms and more labour-intensive cultivation may require lighter tractors, walk-behind machines, electric equipment, horses and greater use of human effort. Heavy machinery compacts soil and can encourage farming on a scale that is poorly suited to local food production.

Nevertheless, Ursa Ag demonstrates an important intermediate step. A society cannot move immediately from highly industrialised agriculture to an entirely local system. Existing mechanical power will remain necessary, particularly for ploughing, harvesting, lifting and transport.

The immediate task is to make that machinery simpler, cheaper, longer-lived and more locally repairable.

Technology under Localism

Localism will not divide technology neatly into the modern and the obsolete. It will distinguish between technology that strengthens a locality and technology that creates dependency.

A useful machine should be understandable by those who operate it. It should be repairable near where it is used. It should perform an essential task without unnecessary complication. Above all, it should remain useful when the affluent, globally connected economy in which it was produced can no longer be taken for granted.

Ursa Ag is important not because it has created a revolutionary tractor, but because it has rediscovered an old principle: the purpose of a machine is to do useful work, not to make its owner permanently dependent upon its manufacturer.

That principle will lie at the heart of technology in the coming age of Localism.

379. When Drought Becomes Normal: What Gardens and Farming Must Become

The usual response to drought is to wait for rain. We protect what we can, watch the forecast and hope that next year will be better.

But suppose the conditions we have recently experienced become a recurring feature of life. Suppose dry springs and hot summers repeatedly interrupt the growing season. What should we do differently?

This is already a practical question. The Environment Agency’s report for 14–20 August 2026 recorded drought across 71 per cent of England’s land area. Recent rain had not restored normal conditions. Reservoir storage remained below average, and many rivers were running low. Environment Agency drought report

We need not assume that every future summer will be identical. The useful planning assumption is that prolonged water shortages will return often enough to change how we garden, farm and organise our food supply.

On that assumption, restoring everything to its previous condition after each drought makes little sense. We need to use each drought to discover what must change.

Begin with the land

Our first question should not be how to obtain more water. It should be how to make better use of the water that arrives.

A garden or farm needs to be understood as a particular place. Where does rain run off? Where does it soak in? Which ground stays moist longest? Which slopes dry first? Where do wind and reflected heat make matters worse?

These differences should guide what we grow and where we grow it.

We have often treated drainage as an unquestioned improvement. Yet land must now cope with both excessive rain and prolonged dryness. Getting water away quickly in winter can conflict with keeping enough for summer.

The aim should be to slow unnecessary runoff, encourage infiltration where appropriate and provide safe routes for surplus water. Ponds, planted margins and carefully designed water storage may have a place. But reshaping land is not a universal remedy. Soil, slope, buildings and neighbouring land all matter. A poorly placed bank or pond can create another problem.

We should begin by observing, then make changes that suit the ground.

The garden must change its expectations

The garden of the future can remain beautiful. But beauty may need to depend less on constant watering.

A green lawn throughout a dry summer should cease to be a requirement. Established grass often recovers when rain returns. Plants that repeatedly struggle in a particular position should prompt reconsideration rather than an annual rescue operation.

The Royal Horticultural Society recommends choosing plants for the soil, shade and exposure of the site. It also stresses that plants may need to tolerate wet winters as well as dry summers. Simply filling a garden with Mediterranean plants is not an answer for every British soil. RHS drought-resistant gardening

There is a place for fewer small pots, less thirsty seasonal bedding and more permanent planting suited to local conditions. Flowers still matter. So do insects, birds and the pleasure of sitting outside. Adaptation need not mean turning every garden into a vegetable plot or a gravel yard.

Where food is grown, however, scarce water should have a clear purpose. A manageable area of productive ground may be more useful than a large vegetable plot that cannot be maintained through six dry weeks.

This is especially important where age, disability or limited time restrict the work people can do. The best design is one that can actually be looked after.

Soil care becomes water care

Compost, suitable mulches and protection from unnecessary compaction deserve more attention than emergency watering alone.

Organic matter can improve soil structure and water retention. Mulching helps reduce evaporation. These are among the RHS’s central recommendations for using less water in gardens. They work best as continuing practices, rather than measures introduced after plants have begun to fail. RHS watering advice

But we should not make extravagant promises. Improved soil does not manufacture rain. Even carefully managed ground will eventually dry during a sufficiently long drought.

The purpose is to give plants a better chance and make available water last longer.

For food growing, this also means trying different varieties and sowing dates, keeping records and spreading risks. A single successful season proves little. What matters is which crops give a useful harvest across several difficult years.

Store water on a useful scale

A water butt is a beginning. It is not necessarily a summer water supply.

The arithmetic helps. Ten millimetres of rain falling on a roof of 100 square metres amounts to 1,000 litres before collection losses. But applying the equivalent of that same rainfall to 100 square metres of vegetable ground also requires 1,000 litres.

A modest tank can therefore fill quickly and empty quickly.

Storage should be planned around the area to be watered, the crops being protected and the likely length of a dry spell. Roofs on houses, sheds and farm buildings deserve attention. So do covered tanks, sound gutters and arrangements that minimise waste.

At farm scale, the Agriculture and Horticulture Development Board identifies storage and irrigation efficiency as important parts of protecting crop water supplies. AHDB water supply guidance

Yet storage has costs. Tanks, reservoirs, pipes and pumps require money, materials and maintenance. In a shrinking economy, the useful question is not simply what can be built. It is what can remain affordable to operate and repair.

Gravity may help where the site permits. Shared storage may help where holdings are close together. Neither removes the need to establish what water is actually available.

Farming for difficult years

A farm planned around an average year may become increasingly exposed if average conditions rarely arrive.

The objective should shift towards maintaining useful production through a succession of difficult seasons. That may mean more varied rotations, trials of different crops and varieties, improved soil management and a closer match between production and dependable water supplies. AHDB identifies these approaches as important responses to changing conditions on arable farms. AHDB climate adaptation guidance

For livestock farms, drought is a problem of drinking water and fodder together. Feeding winter reserves during summer merely moves part of the shortage forward. Defra’s recent account describes reduced grass growth, pressure on forage and stressed water supplies. Defra drought guidance

Where such conditions recur, stocking levels must be reconsidered against what the land can support in poor years. Maintaining numbers through repeated purchases of expensive feed may become untenable.

Different grazing mixtures, shelter and changed management may help on suitable land. None should be presented as a cure that works everywhere. Local trials and farmers’ experience will matter more than a fashionable prescription.

Localism must include water

Local food production offers opportunities, but it does not escape the weather.

If every garden, smallholding and farm in a locality suffers the same drought, being local is not enough. A useful local food system needs several forms of production, workable water arrangements, storage of harvested food and links with other places.

Localism should therefore mean greater local capability, not complete isolation.

Neighbours could share growing records, propagate plants that have performed well and organise composting. Landowners could make suitable ground available to growers. Farms and households could develop reliable trading relationships rather than meeting only through distant supply chains.

Some localities may be able to organise shared equipment or water storage. Others may find that their greatest contribution is processing and preserving seasonal surpluses.

Such arrangements will not appear automatically. Access to land, money, skills and physical help will determine who can participate. People without gardens must not be excluded from the benefits.

There is still a national responsibility

Households cannot compensate for failing public infrastructure with buckets.

Reliable public water supplies, leakage reduction, agricultural research and protection of rivers remain collective responsibilities. Local adaptation needs a functioning national framework.

Nor should access to water be settled solely by purchasing power. Drinking water, sanitation, food production and living rivers are fundamental needs. If scarcity becomes persistent, choices between competing uses must be made openly.

The danger is that adaptation becomes something prosperous households and well financed businesses can buy, while everyone else experiences higher food prices and fewer options.

A serious response must address that inequality.

What should happen next?

When rain returns, the work should begin rather than stop.

Gardens and farms should record what survived, what failed and where moisture remained. The next planting season should reflect those observations. Storage should be assessed before the next dry spell. Crops, cultivated areas and livestock numbers should be considered against realistic water and labour budgets.

At locality level, the first step could be a simple conversation between growers, farmers, landowners and residents: what can this place reliably produce, what prevents it, and what could we do together?

The deeper change is in our expectations. We cannot assume that enough water, energy and money will always be available to maintain any pattern of land use we choose.

If drought becomes normal, gardens and farming must be organised around the limits of the places they occupy.

That is also a foundation of localism: learning what a locality can sustain, caring for the resources it has, and building everyday life around that knowledge.

376. Food and the Return of the World’s Localities

For most people in the industrial world, food begins in the supermarket. The shelves are always full, strawberries appear in January, bananas arrive from thousands of miles away, and few people ever stop to ask how this miracle is achieved.

The uncomfortable truth is that modern food is not simply agriculture. It is an industrial process powered overwhelmingly by oil and natural gas.

The Honest Sorcerer, in his recent essay No Oil, No Food, reminds us that food is really another form of energy. Before the Industrial Revolution almost all agricultural energy came from sunlight, human labour and animals. Today the situation is entirely different. Every stage of food production depends upon fossil fuels.

Oil powers tractors, combines, irrigation pumps and food transport. Natural gas provides the hydrogen used to manufacture nitrogen fertilisers. Fossil fuels are used to produce pesticides, plastics, packaging, refrigeration, food processing and distribution. Modern agriculture has become, in effect, a method of turning fossil fuels into food.

This matters because the industrial economy is now entering a period of contraction rather than expansion. As Tim Morgan’s work has consistently argued, shrinking surplus energy means shrinking economic capability. The Honest Sorcerer approaches the same problem from a different direction but reaches remarkably similar conclusions. As energy becomes more expensive and less available, the entire industrial food system becomes progressively less reliable.

The implications reach far beyond farming.

Every locality depends on food

Every town, village and city depends upon a continuous flow of food arriving from elsewhere. Few communities now produce enough to feed themselves. Many have lost their dairies, mills, bakeries, abattoirs, orchards, market gardens and local food processors.

Instead, food has become concentrated into a handful of enormous industrial systems serving millions of people simultaneously.

This concentration has delivered apparent efficiency during decades of cheap energy. It has also created fragility.

When fuel prices rise, transport becomes more expensive.

When fertiliser prices rise, crop yields become harder to maintain.

When diesel becomes scarce, harvesting and distribution become more difficult.

When international trade is disrupted, supermarket shelves empty surprisingly quickly.

These are not hypothetical possibilities. They are characteristics of a highly interconnected system whose complexity depends upon abundant cheap energy.

Globalisation separated people from their food

Globalisation encouraged every country to specialise.

One nation grows grain.

Another produces fertiliser.

Another manufactures tractors.

Another processes food.

Another provides finance.

Everything moves continuously around the world.

For many decades this appeared rational.

Yet every additional stage increases dependence upon transport, finance and political stability.

A locality which once produced much of its own food becomes increasingly vulnerable because it now depends upon systems over which it has no control.

The local butcher disappears.

The village mill closes.

The local dairy becomes uneconomic.

Knowledge accumulated over centuries quietly vanishes.

Meanwhile the food still arrives – until one day it does not.

Localism changes the question

Industrial society asks:

“How can food be produced as cheaply as possible?”

A localist society asks a different question:

“How can this locality continue feeding itself regardless of what happens elsewhere?”

The answers are naturally different.

Food production moves closer to consumers.

Seasonality returns.

Local storage becomes important.

Smaller farms become more valuable.

Traditional skills regain practical importance.

Community gardens, orchards and allotments cease being hobbies and become part of local resilience.

Farmers’ markets become infrastructure rather than lifestyle choices.

Every locality will develop differently

One of the strengths of localism is diversity.

A fertile valley may continue producing vegetables.

Hill country may specialise in sheep or cattle.

Wooded districts may develop agroforestry.

Coastal communities may depend more upon fisheries.

Some places possess abundant water.

Others possess excellent soils.

Others possess skilled growers.

No national blueprint can optimise all these different circumstances.

Each locality gradually discovers what works best with its own climate, landscape, culture and resources.

Instead of uniformity there emerges diversity.

Instead of central planning there develops local adaptation.

Food security becomes local security

Throughout history communities survived because they understood where their food came from.

Industrial civilisation temporarily allowed us to forget.

The shrinking economy will gradually remove that luxury.

Food security will become inseparable from community security.

The places that fare best are unlikely to be those with the largest supermarkets.

They are more likely to be those retaining fertile land, practical farming knowledge, local food businesses and strong community relationships.

In other words, successful localities will increasingly resemble functioning ecosystems rather than efficient supply chains.

Beyond resilience

Local food systems are often presented simply as a way of increasing resilience.

That is true, but it understates their significance.

Food is the foundation of every civilisation.

Without secure food supplies there can be no stable economy, no functioning institutions and no prosperous communities.

As industrial systems become progressively more constrained by declining surplus energy, food will once again become rooted in place.

The world is unlikely to divide neatly into successful and unsuccessful nations.

Instead, it may increasingly divide into successful and unsuccessful localities.

Those localities that can organise their land, skills, water, energy and people to provide much of their own food will possess an enormous advantage.

The future may therefore belong not to the biggest economies, but to the most capable localities.

That is not a return to the past.

It is the practical adaptation to a world where energy, rather than money, once again determines what is possible.

376. Food Inflation and the End of the Global Supermarket

The latest warnings from the Bank of England and Britain’s supermarket leaders should not be seen as an isolated inflation story. They are another indication that the global food system, built during decades of economic expansion and abundant cheap energy, is becoming progressively less reliable.

The immediate causes are familiar enough. Heatwaves, droughts, wildfires, disrupted harvests, war in the Middle East, higher fertiliser prices and more expensive transport are all pushing food prices upwards. Yet these are not separate events. They are interacting pressures acting on a system that has become increasingly fragile.

For many years Britain has relied on the assumption that food could always be obtained from somewhere else. If Spain suffered drought, another country would supply the fruit. If one shipping route became difficult, another could be found. If energy became more expensive, the additional costs could simply be absorbed by a growing economy.

Those assumptions are beginning to fail.

The shrinking economy described by Tim Morgan means that societies are no longer becoming steadily wealthier. Instead, there is less surplus energy available to support increasingly complex global supply chains. At the very moment when climate instability is increasing, the economic capacity needed to absorb repeated shocks is declining.

Food inflation is therefore becoming structural rather than temporary.

Every disruption now exposes another weakness. A wildfire destroys olive groves. Drought reduces cereal yields. Conflict interrupts fertiliser supplies. Fuel prices rise. Transport costs increase. Supermarkets compete for scarcer produce. Consumers pay more.

Governments naturally respond by promising to reduce the cost of living. But governments cannot legislate for plentiful harvests, cheap diesel or abundant fertiliser. They cannot command rain to fall or shipping lanes to remain open.

The danger is that politics continues to promise outcomes that the physical economy can no longer deliver.

Britain has become heavily dependent upon imported food. Many products travel thousands of miles before reaching supermarket shelves. Such systems work well during periods of stability. They become progressively less dependable when confronted by repeated environmental, geopolitical and economic shocks.

Localism offers a different direction.

Instead of asking how global supply chains can be restored to their previous efficiency, localism asks how communities can become less dependent upon them.

This does not imply complete self-sufficiency. Few localities could produce everything they require. It does mean increasing resilience by shortening supply chains wherever practical.

The opportunities are numerous.

  • More locally grown fruit and vegetables.
  • Greater support for nearby livestock producers.
  • Local food processing.
  • Farmers’ markets and community food hubs.
  • Community orchards.
  • Allotments and productive gardens.
  • Better food storage and preservation.
  • Reduced dependence on imported seasonal produce.

Each step may appear modest, but together they reduce vulnerability to distant disruptions over which local communities have no control.

The coming years are likely to bring more frequent weather extremes across many food-producing regions. They are also likely to bring continuing geopolitical instability, rising insurance costs, higher transport costs and increasing pressure on agricultural inputs. None of these developments sits comfortably alongside a highly centralised food distribution system.

The lesson is becoming increasingly clear.

Food security can no longer be measured simply by the amount of food available somewhere in the world. It depends upon whether that food can still be produced, transported, financed and delivered at prices ordinary households can afford.

In a shrinking economy these conditions become steadily more difficult to satisfy.

Local food production will never replace international trade entirely. Nor should it. But every tonne of food produced close to where it is consumed reduces exposure to the growing uncertainties of the global system.

The cost-of-living debate therefore risks concentrating on symptoms rather than causes.

The deeper issue is that Britain has built its food system around assumptions that belong to the age of expansion. Those assumptions are being overtaken by physical limits, declining economic surplus and increasing environmental volatility.

As global supply chains become less dependable, local food resilience ceases to be an environmental ideal or a lifestyle choice. It becomes an economic necessary.

369. Gardening for a Hotter Britain

Building the Localist Landscape

The recent heatwaves are not an isolated event. They are part of a trend. Whether one attributes them mainly to climate change, natural climatic variation or a combination of influences, the practical conclusion is the same. Britain is becoming warmer, summer droughts are becoming more frequent, and water can no longer be treated as an unlimited resource.

For those embracing localism this is not simply another gardening challenge. It is an opportunity to redesign our homes, farms and localities to become more resilient.

The traditional English garden evolved during centuries when summer rainfall was usually dependable. The future may demand something closer to Mediterranean thinking, while still respecting Britain’s winter rainfall and occasional cold spells.

The objective changes from growing plants that need watering to creating landscapes that rarely need it.

Water is the New Currency

Every drop of water becomes valuable.

Instead of asking how we can water more efficiently, we should first ask why water is needed at all.

Healthy soils rich in organic matter can hold several times more water than depleted soils. Deep-rooted plants survive long dry periods because they reach moisture unavailable to shallow-rooted species.

Rain that falls during winter should be regarded as income saved for summer.

The localist approach is therefore:

  • Build soil rather than buy fertiliser.
  • Capture rainfall rather than extract groundwater.
  • Grow drought-resistant plants rather than thirsty ones.
  • Shade the ground rather than leave bare soil exposed.

Rethinking the Land

Perhaps the greatest mistake is assuming the existing landscape should remain unchanged.

For generations fields have been flattened, hedges removed, streams straightened and water drained away as quickly as possible.

The future may require the opposite.

Land should increasingly be shaped to slow water.

This may include:

  • shallow swales following contours
  • ponds connected by overflow channels
  • small reservoirs
  • terraces on slopes
  • restored hedgerows
  • shelter belts of trees
  • wetlands in unsuitable corners

Instead of flooding in winter and drought in summer, rainfall can remain within the landscape for months.

Every farm becomes a water storage system.

Every garden becomes a miniature watershed.

The Soil Comes First

Soil is Britain’s greatest water reservoir.

Adding compost, leaf mould, well-rotted manure and wood chips greatly increases water retention.

Bare soil should become rare.

Mulches reduce evaporation dramatically while suppressing weeds.

No-dig methods disturb soil organisms less and allow fungi and earthworms to build underground channels that carry water deep below the surface.

Healthy soil feeds healthy plants.

Choosing Food Crops

Future gardens may contain fewer thirsty vegetables and more reliable crops.

Good choices include:

  • broad beans
  • climbing beans
  • peas (early season)
  • onions
  • garlic
  • shallots
  • beetroot
  • chard
  • kale
  • spinach beet
  • Jerusalem artichokes
  • globe artichokes
  • squash
  • pumpkins
  • courgettes
  • sweetcorn where moisture is available
  • herbs such as rosemary, thyme, sage, oregano and lavender

Perennial vegetables deserve renewed attention because their deep roots tolerate drought better than annual crops.

Examples include:

  • asparagus
  • rhubarb
  • sea kale
  • Good King Henry
  • sorrel
  • perennial onions

Many traditional Mediterranean vegetables may become easier to grow than they once were.

Grain and Protein

Smallholders should consider crops that provide calories rather than simply vegetables.

These may include:

  • field beans
  • peas
  • oats
  • rye
  • barley
  • heritage wheats suited to local conditions

Local milling and baking become increasingly valuable community skills.

Fruit Trees for Tomorrow

Fruit trees remain among the wisest long-term investments.

However, species and rootstocks deserve careful thought.

Deep-rooted trees generally outperform shallow-rooted bushes during drought.

Reliable choices include:

  • apples
  • pears
  • quinces
  • mulberries
  • walnuts
  • sweet chestnuts
  • medlars

Some traditionally southern species may become increasingly successful.

These include:

  • figs
  • apricots
  • peaches in sheltered sites
  • almonds in favourable districts

Olives may eventually become practical in southern Britain, although severe winters will occasionally remain a risk.

Young trees need watering while establishing themselves.

Once mature they should survive with little assistance.

Around each tree the ground should remain permanently mulched.

Grass should not be allowed right up to the trunk.

Soft Fruit

Soft fruit can struggle during prolonged drought.

Nevertheless:

  • blackcurrants
  • gooseberries
  • autumn raspberries
  • blackberries
  • jostaberries

remain worthwhile if mulched well.

Blueberries require acidic soils and regular moisture and may become increasingly difficult without irrigation.

Flowers Still Matter

Localism is not only about survival.

Beauty strengthens community life.

Flowers celebrate births, weddings, anniversaries, harvest festivals and remembrance.

The future garden should still provide abundance.

Reliable drought-tolerant flowers include:

  • lavender
  • echinacea
  • yarrow
  • verbena bonariensis
  • gaura
  • rudbeckia
  • cosmos
  • salvia
  • sedum
  • eryngium
  • agapanthus
  • helenium

Traditional cottage garden flowers can still flourish if planted into improved soil and deeply mulched.

Many herbs provide both flowers and food for pollinating insects.

Flowers for the Home

Cut flowers should become part of everyday local life rather than an imported luxury.

Grow plants with long vase life.

Excellent choices include:

  • dahlias
  • zinnias
  • snapdragons
  • sweet peas where moisture allows
  • sunflowers
  • chrysanthemums
  • asters
  • statice
  • strawflowers for drying

Dried flowers may regain popularity because they require no refrigeration or constant replacement.

Seasonal arrangements using grasses, seed heads, berries and dried stems celebrate the changing year.

Pollinators Become Essential Workers

Without insects there is little fruit.

Gardens, farms and roadside verges should provide nectar throughout the growing season.

Avoid sterile ornamental plants.

Allow some wild corners.

Accept that perfect tidiness may become the enemy of resilience.

Greenhouses Must Change

The traditional greenhouse becomes increasingly difficult to manage.

Summer temperatures above 45°C may become common inside.

Plants stop growing.

Pollination fails.

Water demand soars.

Future greenhouses may need:

  • external shading
  • removable shade cloth
  • white reflective coatings
  • roof ventilation
  • side ventilation
  • solar-powered extraction fans
  • rainwater-fed irrigation
  • thermal mass such as water tanks
  • grape vines trained over roofs
  • deciduous shade trees nearby

Some growers may discover that a shade house is more useful than a greenhouse during midsummer.

Water Harvesting

Every roof should become a catchment.

Rainwater tanks should become normal.

Overflow should feed ponds.

Grey water from baths and showers may irrigate trees where regulations and suitable biodegradable products allow.

At community level, local reservoirs and ponds may become as important as village halls.

Farms of the Future

Large monocultures become increasingly vulnerable.

Mixed farming offers greater resilience.

Livestock return nutrients to the soil.

Trees provide shelter.

Hedges reduce drying winds.

Agroforestry may become one of Britain’s most productive farming systems.

The farm becomes a living ecosystem rather than a factory.

Learning from the Mediterranean

Many regions around the Mediterranean have survived dry summers for thousands of years.

Their lessons include:

  • white buildings reflecting heat
  • courtyards creating cool spaces
  • thick walls storing coolness
  • shaded outdoor living
  • drought-tolerant crops
  • water stored through winter
  • planting for shade before ornament

Britain need not copy these exactly, but their underlying principles are increasingly relevant.

Communities Working Together

No household needs to face these challenges alone.

Neighbouring gardens can exchange seeds.

Smallholders can share equipment.

Villages can establish communal orchards.

Local nurseries can propagate plants already adapted to local conditions.

Seed saving becomes a valuable community activity.

Knowledge becomes every bit as important as water.

A New Vision

The localist garden of the future may look different from today’s.

There will be more trees, deeper soils, fewer lawns, more mulch, more shade and more perennial plants.

There will be ponds where there were once dry corners.

There will be fruit where there were once ornamental shrubs.

The landscape will hold water rather than shed it.

Above all, it will work with nature instead of constantly struggling against it.

That is the deeper lesson of a hotter Britain. Localism is not simply about living closer to home. It is about reshaping the places where we live so they become capable of sustaining us through whatever climate the future may bring.

366. Land Ownership and Localism – Not a Return to Feudalism

A move towards localism is sometimes misunderstood as a return to the past – perhaps even a return to feudalism, where a small number of landowners controlled most of the countryside and ordinary people had little say over how land was used. That is not the intention.

Localism requires the opposite. It requires that ordinary people have a greater connection with the land on which they live and the ability to produce at least some of the essentials of life.

Land ownership should not mean that a few individuals or corporations control a finite resource that everyone depends upon. Land is not simply another financial asset. It is the foundation of food, water, biodiversity and community life.

A localist society would seek a wider distribution of access to land. This does not mean that everyone needs to own a large farm. A small plot, allotment, community garden or shared local holding can provide valuable food production and reconnect people with the natural systems that support them.

The aim is not ownership by a privileged few, but stewardship by many.

What Kind of Farming?

The farming system required for a localist future would be very different from the industrial model that developed during the period of cheap fossil energy.

Industrial agriculture depends heavily on machinery, long supply chains, artificial fertilisers, pesticides and global markets. It has achieved very high yields, but it has also created problems – soil degradation, loss of biodiversity, dependence on imported inputs and vulnerability when energy becomes expensive.

Local farming would focus more on resilience than maximum production.

This could include:

  • Market gardens producing vegetables close to where people live.
  • Mixed farms combining crops and livestock rather than separating them.
  • Agroforestry where trees, crops and animals are integrated together.
  • Permaculture systems designed around natural cycles.
  • Small orchards and community food growing areas.
  • Traditional crop varieties that are adapted to local conditions.

The emphasis would be on producing nutritious food with fewer external inputs and using local knowledge.

What About Fertiliser?

Modern agriculture relies heavily on nitrogen fertiliser produced using natural gas. This has been one of the major drivers of increased food production over the last century. However, it is also an example of how the industrial economy depends upon abundant energy.

A localist future would need to reduce dependence on synthetic fertilisers and rebuild natural soil fertility.

Possible approaches include:

  • Compost made from local organic waste.
  • Animal manure from local livestock systems.
  • Green manures, where crops such as clover and legumes are grown to fix nitrogen naturally.
  • Cover crops to protect soil and improve fertility.
  • Biochar, produced from organic material, to improve soil structure and retain nutrients.
  • Careful crop rotation to prevent soil exhaustion.

This does not mean abandoning all modern knowledge. Science and technology will still have a role. The difference is that technology would support natural systems rather than attempting to replace them.

Land as a Community Asset

In a localist economy, land would increasingly be viewed as a community asset rather than simply a commodity.

This could include:

  • Community-owned farms.
  • Shared equipment pools.
  • Local food cooperatives.
  • Small parcels made available for new growers.
  • Long-term leases that encourage stewardship.

A young person should not need to inherit wealth or buy hundreds of acres to participate in food production. Access to land is as important as access to education or housing.

The Scale of Farming

The future is unlikely to be a return to the small farms of the past exactly as they existed. Those farms often involved very hard physical labour and low productivity.

Nor is the answer simply to continue with ever larger industrial farms.

The likely direction is a mixture:

  • Larger areas producing staple crops efficiently.
  • Smaller local farms producing fresh food.
  • Communities growing some of their own requirements.
  • More integration between town and countryside.

The key change is that food production becomes less distant and anonymous. People understand where their food comes from and participate in maintaining the systems that produce it.

Land Ownership and the Post-Growth Economy

As the economy moves away from the era of unlimited growth based on cheap energy, land will become increasingly important.

The question will not simply be “how much money can land make?” but “how can land support the survival and wellbeing of communities?”

Localism is therefore not about going backwards. It is about adapting to a different economic reality.

The industrial age allowed humanity to separate itself from local resources. Cheap energy made it possible to import food, transport goods across the world and concentrate ownership.

A post-growth future will require a closer relationship between people and place.

Land should belong to people – but ownership must come with responsibility. The purpose of land is not only to generate wealth. Its deeper purpose is to sustain life.

363. A comprehensive guide to effectively stockpiling food

Copied from The Daily Telegraph

As the government endorses stocking up in case of an emergency, our food expert advises how best to approach it without panicking

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Xanthe Clay food writer Show biography Xanthe Clay

Published 15 July 2026 5:56pm BST

Be prepared, says the Boy Scout motto, and the phrase has taken on a new significance. For years, people who stockpile as a safeguard in the event of national emergency have been the butt of jokes and even a Radio 4 satire, Preppers. Now they are being given government endorsement, with new advice on what to keep at home in the event of a breakdown in power or food supply.

Not-so-neurotic, then. But in fact experts such as Tim Lang, emeritus professor of food policy at City St George’s, University of London, have often warned that we need to ready ourselves. “For too long a ‘don’t frighten the public’ ethos has ruled,” he says, “yet other countries take a more grown-up approach to the public.” He is right that countries such as Sweden have detailed advice for coping with food shortages in an emergency, and Lang’s Just In Case report for the National Preparedness Commission warns of the vulnerabilities in the food system, from war, climate change, terrorism and myriad other threats.

So what can we do? Firstly, don’t panic – and don’t panic buy. But we can give a little thought to how we’d manage if the power went out for a day or a week, or if the internet stopped working, or shops ran low on supplies. In fact, a little less dependence on all these props of modern life can’t be a bad thing. Here are some starting points.

Store-cupboard essentials to stock up on

Items that last without being kept chilled or frozen – what supermarkets call “ambient goods” – are the cornerstone of any food cache, as they’ll survive long power outages. We can all take inspiration from the old-fashioned pantry.

board items should be the cornerstone of any food stockpile  Credit: Andrew Crowley

Pasta

Allow 75g per person per meal; a family of four eating pasta every other day for a week will need about 1kg. Allow 1.25kg for bigger appetites.

Rice

Plan on using about 70g per person in a risotto or as a side dish. 1kg will be enough for a family of four, eating rice every other day.

Bread flour, yeast and baking powder

The smell of freshly baked bread is guaranteed to lift the spirits. You’ll need 500g flour and 1 sachet (7g) of easy-blend yeast for each small loaf. Even if you can’t get the oven going, you can use the dough to make warm flatbreads on a hob, using either yeast or 1 tsp baking powder.

Crackers and biscuits

Include a pack of each per person per week for instant carbs and a vital adjunct to a cup of tea.

Pulses

Beans, lentils and chickpeas are a good source of protein and are better than meat at keeping us fuller for longer. Dried pulses last pretty much indefinitely, although beyond their best-before date they may take longer to cook. Crucially, they take up much less space than tinned, and 100g dried weight will swell to around 240g (roughly the amount in a tin) once cooked. Tins, however make sense when time, fuel or water for cooking are in short supply. Allow half a tin or 120g cooked weight of pulses per serving.

Tinned meat

Worth considering for variety. Spam and corned beef are salt-heavy, so how about tinned mince? M&S’s version (one of Delia Smith’s favourite “cheat” ingredients) has a respectable 1.26g per 200g serving. Use it for bolognese and cottage pie, or good old mince and potatoes. Allow 90g per serving, more for cooked meat and stews.

Tinned vegetables

Allow 1.5 x 300g tins per person per day. Carrots, peas and green beans from a tin or jar will count towards your five a day, but I advise dousing them in plenty of olive oil or ghee when cooking.

Pickles

A livelier alternative to tinned vegetables, and they don’t need to be refrigerated, unlike trendy “live ferments” (which will explode if kept at room temperature). Pickled onions, cabbage and gherkins are game on.

Tinned fruit

Tinned fruit such as pineapple, pears and peaches can be just as nutritious as fresh. Ideally, choose those in fruit juice or water rather than sugar syrup (allow 1 x 400g can per person per day), and add a cheering tin, or carton, of custard too.

A jar of tomato purée

Tomato concentrate is a great space saver. Once opened, press a piece of greaseproof paper onto the surface of the purée and store in the fridge or a cool place. Two tablespoons of it mixed with 90ml water make a substitute for tinned tomatoes or passata.

Tinned fish

Tinned sardines, tuna and anchovies are excellent sources of omega-3 and protein. Eaten straight out of the tin with bread and butter, they are even rather chic.

Dairy

Include a tub of powdered skimmed milk, and cartons of full-fat long-life milk as well, if you have space. Tins of ghee will keep for a year or more and fill the butter gap.

Fixes from the freezer

Keeping the freezer stocked is worthwhile for short-term power cuts and supply-chain glitches. Spare space? Keep ice packs in there, ready to add to insulated cool bags to lengthen the life of chilled food if the fridge stops working.

Frozen veg

Peas, of course, and bags of mixed med veg will add much-needed colour to dinnertime. Blocks of frozen spinach pack a lot of veg in the smallest space and are great for a quick shakshuka.

Water

Frozen bottles of water work as ice packs, too, and you can drink the water as it defrosts. Empty the top couple of inches before freezing so the plastic doesn’t split.

Fresh top-ups

Supply of fresh foods is the most vulnerable to disruption, so lettuce may be off the menu. But if you have a cool room, cellar, shed or garage, stock up on the following:

Root vegetables

Mature roots such as carrots, beetroot, celeriac and swede keep for months buried in damp sand or wood shavings, but trim off leafy tops and make sure there is good air flow by making holes in any plastic bags or boxes.

Onions and garlic

Look for traditional bundles with plaited stems, as this keeps bacteria from entering through the tops. Hang in a cool, dark place, and they should last six months, but keep using and rotating them.

Apples

Home-grown apples can be wrapped individually in newspaper and stored on racks or plastic mushroom trays in a cool, dark place. Inspect the stash regularly to check for any rotting fruit.

Fresh pickles

Ferments such as kimchi and sauerkraut last for as much as a year in the fridge, with the flavour developing over time.

341. A Very British Famine – The Case for Localism

The article “A Very British Famine” argues that Britain has become dangerously dependent upon long and fragile supply chains for its food. We have assumed that supermarket shelves will always remain full, imports will always arrive, fuel will always be available and money will always buy whatever we need. Yet these assumptions rest upon an industrial system which is becoming increasingly vulnerable to energy constraints, financial instability, climate disruption and international conflict.

If these pressures intensify, food shortages are unlikely to appear first as complete starvation. Instead, they will emerge as empty shelves, rationing, rising prices, shortages of particular products and growing difficulty in obtaining basic necessities. Those with money may still struggle to buy what is simply unavailable.

The conventional response is to imagine that government will somehow rescue the situation. But national governments can only redistribute what already exists. If there is insufficient food entering the country, no amount of administration can create supplies that do not exist.

Many people assume that communities would then depend upon charity. That may happen for a time, but charity is not a stable economic system. It relies upon surplus. As surplus disappears, charity also becomes increasingly difficult.

Localism offers something entirely different.

In a localist society, people do not depend primarily upon gifts from strangers. They depend upon the productive capacity of their own locality. Food is grown locally because local people require it. Skills are shared because neighbours depend upon one another. Land is used productively because idle land becomes an unaffordable luxury. Security comes from participation rather than from dependence.

This is not a moral argument. It is simply the way societies have organised themselves whenever large-scale systems have failed.

As imported food becomes less reliable, more land will have to return to cultivation. Gardens, orchards, smallholdings and unused land will once again become productive. Families will rediscover skills which industrial society allowed them to forget. Local food processing, storage, repair and distribution will all become valuable occupations.

In such circumstances, local cooperation is no longer an act of generosity. It becomes ordinary economic behaviour. People work together because everyone benefits from reliable local production.

This is why localism should not be presented merely as an attractive political philosophy. It is the natural outcome of a society adapting to physical limits. As national systems lose resilience, local systems gain importance.

The future is therefore unlikely to consist simply of greater hardship. It is more likely to involve a gradual transfer of responsibility from distant institutions to local people themselves.

That transition will not be easy. It will require changes in land ownership, education, planning, farming and local enterprise. But once the old assumptions no longer hold, the direction becomes increasingly obvious.

Localism is not charity.

It is the practical means by which people secure food, livelihoods and prosperity when large systems can no longer guarantee them.

327. Food, Limits, and the Shape of Tomorrow’s Economy – Part Two

As seen from the bottom up

A shrinking economy, seen from the ground, does not begin with policy or national plans. It begins in small changes in daily life, in the cost of food, in the availability of work, and in what people notice they can no longer rely on. The food system then adjusts from the bottom up, because it has to.

From a grassroots perspective, the first shift is often in household behaviour. People begin to grow more of their own food not out of ideology but out of practicality. Gardens, allotments and any available patches of land become more important. The same applies to community spaces where informal growing develops alongside older traditions of local food knowledge.

In this setting, the ideas associated with Professor Tim Benton can be understood in a very direct way. The structure of food is not an abstract system but something experienced through rising prices, fewer imported goods, and a gradual narrowing of choice. As imports become less reliable, diets adjust. People do not plan this in advance, they respond to what is available.

Animal farming also changes from the ground upwards. Intensive systems based on imported feed become harder to sustain, while grazing animals and mixed small holdings become more practical. This shift is not driven by policy first, but by cost and availability. Farmers and smallholders adapt by simplifying their systems and relying more on local inputs.

Labour follows a similar path. As formal employment contracts and discretionary work weaken, people move into whatever local work exists. Food growing, small scale processing, repair work and distribution begin to absorb labour that would otherwise be unused. This is not always a smooth transition. It is often uneven and informal, but it gradually becomes the real economy that people depend on.

Processing becomes something visible again. Instead of being hidden in large industrial facilities, it appears in villages, farms, community buildings and domestic settings. People milling grain, preserving vegetables, baking bread, making cheese or preparing meat are not specialists in the modern sense but participants in a shared necessity. Labour intensity rises because scale falls. More hands are needed for smaller, more frequent tasks.

Training also shifts in character. Instead of formal institutions defining entry routes, knowledge spreads through practice. People who already garden become informal teachers. Skills are passed on in allotments, community gardens and smallholdings. Learning becomes local, direct and repetitive, rather than abstract or credential based.

Diet changes in a similarly grounded way. Less meat is eaten not through instruction but because feed and imported inputs become expensive. Where animals are kept, they tend to be part of mixed local systems rather than intensive units. This shift has knock-on effects for health. As diets simplify and processed food becomes less dominant, there is often a reduction in obesity and long term conditions associated with diet, which in turn reduces pressure on local health services.

Allotments and smallholdings become central rather than marginal. They are no longer seen as leisure spaces but as part of household security. Within them, informal specialisation develops. Some focus on vegetables, others on fruit trees, seed saving, poultry or composting systems. Orchards in particular become valuable again because they provide long term food with relatively low ongoing input once established.

Biofuels appear in small and practical forms rather than large industrial schemes. They are used where necessary for local transport or essential machinery, but they remain constrained by land availability. In most cases they sit alongside food production rather than replacing it.

Alongside this, a wood based economy begins to reappear in everyday life. Coppicing, local timber use and small scale forestry become important for fuel, building and tools. This is not a new invention but a reactivation of older practices adapted to present constraints.

Trade also becomes more local in character. Where cash is limited or unreliable, informal exchange develops. Local currencies or simple barter systems emerge to keep basic goods moving between people. These systems are not uniform but reflect the needs of particular places.

Other forms of production re-emerge in small but significant ways. Hops grown locally support small breweries that serve nearby communities. Herbs and medicinal plants become more widely cultivated and used, with herbalists and growers responding to demand that is both practical and cultural. Hand tools, repair skills and small scale manufacture gain importance as imported goods become harder to obtain or maintain.

From this perspective, the shrinking economy is not experienced as a single transition but as a series of adjustments made by households, growers, workers and small communities. The overall effect is a gradual rebuilding of food, energy and labour systems from the ground up, shaped less by design and more by necessity.

326. Food, Limits, and the Shape of Tomorrow’s Economy – Part One

As seen from the top down

This article has been inspired by Professor Tim Benton’s chapter, “Food Systems Futures and How to Achieve Them”, published as part of Regenerative Farming and Sustainable Diets. The original chapter is freely available here:

Whilst this essay develops a perspective based on local food systems and resilience, it is grounded in Professor Benton’s analysis of the global food system and the pressures it now faces.


Professor Tim Benton’s work on food systems begins from a simple but uncomfortable observation. The modern global food system is extraordinarily productive, yet increasingly fragile. It delivers large quantities of food across the world, but it does so through systems that are highly complex, energy intensive, and deeply dependent on long supply chains.

For much of the twentieth century, agricultural policy was focused almost entirely on increasing production. The priority was to maximise yields, reduce labour costs, and expand output through mechanisation, chemical fertilisers, improved crop varieties, and global trade. This approach succeeded in increasing food availability on a scale never seen before.

However, it also created a system that depends heavily on a narrow range of staple crops, intensive livestock production, and a high level of external inputs such as fuel, fertiliser, and pesticides. At the same time, large areas of agriculture became increasingly specialised, and food systems became more globally interconnected.

The result is a system that appears efficient under stable conditions, but is exposed when conditions change.


Professor Benton highlights a central paradox. There is more than enough food produced globally to feed everyone, yet hunger and poor nutrition persist. This is not simply a question of total supply. It is also a question of distribution, affordability, diet quality, and the structure of food systems.

Many populations now consume diets high in processed foods, fats, and sugars, while lacking sufficient access to fresh fruit, vegetables, and diverse plant-based foods. At the same time, agriculture continues to rely heavily on a limited set of crops that are primarily traded in global commodity markets.

This mismatch between production and nutritional need lies at the heart of the modern food challenge.


At the same time, environmental pressures are increasing. Climate change is altering rainfall patterns, increasing the frequency of extreme weather events, and reducing the reliability of harvests in many parts of the world. Soil degradation continues in many intensively farmed areas. Biodiversity loss is weakening the ecological systems that support agriculture, including pollinators and natural pest control.

Energy costs and supply volatility add another layer of uncertainty, given the dependence of modern agriculture on fossil fuels for machinery, fertiliser production, processing, and transport.

Taken individually, these pressures are serious. Taken together, they suggest a system under increasing strain.


One of Professor Benton’s key insights is that complexity itself creates vulnerability. Modern food systems rely on long and interconnected supply chains. A single product may depend on inputs from multiple countries, be processed in several locations, and be transported over long distances before reaching consumers.

This structure has developed over decades in pursuit of efficiency and low cost. It works well when global systems are stable. However, it becomes fragile when disrupted by political conflict, pandemics, transport interruptions, or energy shocks.

Recent events have already demonstrated this fragility. Disruptions to trade routes, increases in energy prices, and geopolitical instability have all led to sharp rises in food prices and reduced availability in certain categories.

The issue is not that food disappears entirely, but that the system becomes less reliable and more expensive.


Professor Benton therefore argues that the future of food cannot be addressed simply by increasing production. Instead, it requires a fundamental reconsideration of how food systems are structured.

Technological innovation will continue to play a role. Improvements in crop genetics, precision agriculture, robotics, data analysis, and alternative proteins may all contribute to efficiency and sustainability. However, these solutions often assume that the existing global structure remains intact.

The deeper question is whether that structure itself is sufficiently resilient for an uncertain future.


A useful way to think about resilience is through diversity. Natural ecosystems are not based on uniformity. They rely on a wide range of species performing different roles. This diversity provides stability by preventing a total system failure when one element is disrupted.

Modern agriculture, by contrast, has moved towards uniformity. Large-scale monocultures dominate many landscapes, and supply chains are highly concentrated.

This creates efficiency, but reduces flexibility.

Reintroducing diversity into food systems can therefore be understood as a form of risk management as much as an environmental goal.


This is where the idea of local food systems becomes particularly important.

A local food system is not simply one that reduces transport distances or supports nearby farmers, although these are valuable outcomes. Its deeper significance lies in resilience and distributed capability.

When food production is spread across many localities rather than concentrated in a small number of large production centres, the system becomes less vulnerable to large-scale disruption. A problem in one place does not automatically cascade through the entire system.

In addition, knowledge and skills are preserved more widely. Farming, horticulture, food processing, and land management remain part of everyday life rather than being confined to a shrinking specialist sector.


In the United Kingdom, this issue is particularly relevant. A significant proportion of food is imported. Supermarket availability depends on functioning international trade, stable fuel supplies, and complex logistics networks.

These systems usually operate effectively. However, they are not guaranteed to remain stable under all conditions.

Recent events have shown how quickly external shocks can affect prices and availability. The system does not need to fail completely for its weaknesses to become visible. Partial disruption is enough to reveal underlying fragility.


A more resilient approach would not remove international trade. Many foods cannot be produced in the United Kingdom, and global exchange has long contributed to dietary variety and cultural exchange.

The issue is balance.

Essential food security would be strengthened by increasing localities’ capacity to produce a greater share of their basic food needs. Trade would then complement local production rather than replace it.

This would reduce dependence on long supply chains for essential items, while still allowing access to foods that are naturally imported.


There is also a social dimension to this discussion. Food is not only an economic commodity. It is part of culture, education, health, and community life.

Over time, many people have become disconnected from the processes that produce their food. Cooking skills have declined in some areas, and knowledge of soil, seasons, and agriculture has diminished.

Rebuilding this knowledge would have benefits beyond food production itself. It would strengthen understanding of nature, improve dietary habits, and support healthier communities.


Public policy also plays a significant role in shaping food systems. Governments influence agriculture through procurement, subsidies, regulation, and education. Large public institutions such as schools, hospitals, and care facilities purchase substantial quantities of food.

These purchasing decisions could be used more deliberately to support resilient local production where appropriate.

In addition, education systems could place greater emphasis on food literacy, including practical skills such as cooking, gardening, and basic land stewardship.


There is a further economic dimension to consider. Modern food systems have developed within a broader framework that assumes continuous economic growth, low energy costs, and highly efficient global logistics.

However, there is increasing debate about whether these assumptions will remain valid indefinitely.

If growth slows or becomes more uneven, systems designed for maximum efficiency may become less robust. In such conditions, resilience may become more valuable than marginal gains in efficiency.


Efficiency and resilience are not the same thing.

Highly efficient systems reduce waste, lower costs, and optimise production. However, they often do so by removing redundancy. Storage is reduced. Supply chains are streamlined. Producers are consolidated.

This works well under stable conditions, but creates vulnerability when disruptions occur.

Resilient systems, by contrast, maintain a degree of redundancy. They may appear less efficient in purely economic terms, but they are better able to absorb shocks.


Nature provides a clear example of this principle. Ecosystems survive not because they are optimised for a single outcome, but because they contain multiple overlapping functions. When one pathway is disrupted, others can compensate.

Applying this principle to food systems suggests the importance of maintaining multiple sources of production, diverse farming methods, and distributed supply networks.


A resilient food future would therefore include several key elements.

Every locality would retain a meaningful capacity to produce food.

Agricultural knowledge would remain widely distributed.

A greater proportion of fresh food would be produced closer to where it is consumed.

Public institutions would support local production through procurement.

Trade would continue, but would not be the sole foundation of food security.


This is not a return to the past. It is an adaptation to present and future conditions.

Modern tools, scientific knowledge, and improved agricultural techniques can all contribute to stronger local food systems. Technology is not the opposite of localism. It can be an important support for it.

The key distinction is not between modern and traditional methods, but between fragile dependence and distributed resilience.


Professor Benton’s work helps clarify the scale of the challenge. The current food system has delivered abundance, but at the cost of increasing complexity and vulnerability.

The question now is not whether change will occur, but how it will occur and whether it will be planned or forced by circumstances.


A more resilient food system would not rely on a single model. It would combine global trade with strong local production, technological innovation with ecological understanding, and economic efficiency with social and environmental stability.

Above all, it would recognise that food is not simply a commodity. It is a foundation of security, health, and community life.


The future of food will therefore depend on choices made in the present. These choices will shape not only what people eat, but how societies function under conditions of uncertainty.

If resilience becomes the guiding principle, then strengthening local food systems is not a marginal idea. It becomes central to long-term stability.

In that sense, the strongest food system is not necessarily the one that spans the greatest distance. It is the one that can continue to function when wider systems are under strain.

And that begins, quite simply, in every locality.

324. Rebuilding a 1600 Local Process Today – The Watermill as a Model for Modern Localism

If we take one of the most complete “understood processes” from around 1600 in England, the watermill stands out because it links land, energy, food, and daily life in a single local system. It also shows clearly what can still be reconstructed today in a locality, without needing industrial scale.


The original 1600 pattern

In a typical English locality around 1600, the process looked like this:

  • Grain grown within a few miles
  • Harvested and stored locally
  • Taken by cart or foot to a nearby mill
  • Water power turned a wheel
  • Millstones ground grain into flour
  • Flour returned to households
  • Bread baked locally, usually weekly or more often

This was not a “sector”. It was a complete local loop.

The mill itself was the only “machine”, and even that was simple in concept: flowing water turning a wheel which turns two stones.


What survives today (surprisingly more than people expect)

Even in a modern UK locality, parts of the system still exist:

1. The knowledge of food production

  • Small farms still grow wheat in some areas
  • Milling grain is still understood technically (even if centralised)
  • Baking bread has become popular again at household level

2. Physical remnants

  • Many old mill buildings still exist
  • Some watercourses still have weirs and mill leats
  • Old mill ponds and channels remain in the landscape

3. Basic engineering understanding

  • The principle of water turning a wheel is unchanged
  • Small-scale hydroelectric systems already exist in the UK
  • Carpentry and metal fabrication skills still exist locally, though less common

What would need rebuilding for a local system today

To recreate a 1600-style local milling process, the missing parts are not conceptual, but practical and social.

1. Local grain production

This is the foundation.

It would require:

  • Small fields or shared land within walking or short transport distance
  • Suitable wheat or heritage grain varieties
  • Local storage (barns or dry sheds)

Without this, milling has nothing to work on.


2. A working water source

A modern locality would need:

  • A reliable stream or river flow
  • Rights of access or community agreement
  • Basic water control structures (weirs, channels)

In many places this already exists but is unused.


3. A rebuilt small mill system

This does not need to be a historic replica. It could be:

  • Restored traditional watermill
  • Modern small hydro-powered grinding system
  • Electrically assisted mill powered by local hydro or wind

The key requirement is not authenticity, but local controllability.


4. Milling knowledge and operation

In 1600 this was a craft role. Today it would require:

  • A trained operator (or small group)
  • Knowledge of grain types and grind settings
  • Maintenance of stones or rollers
  • Basic mechanical repair skills

This is a skill gap rather than a technology gap.


5. Local distribution

Instead of manorial obligation, today it would be:

  • Small local bakeries
  • Household baking
  • Farmers’ markets or direct distribution
  • Possibly cooperative ownership

The key difference is choice rather than compulsion.


What changes in the modern version

If rebuilt today, the system would not be identical to 1600. It would shift in three important ways:

1. Energy flexibility

Instead of only water power:

  • Micro-hydro
  • Solar-assisted milling
  • Backup electric systems

The principle remains local energy conversion.


2. Ownership structure

Instead of manor or miller monopoly:

  • Cooperative ownership
  • Small private enterprise
  • Community trust models

This affects fairness and access, not the process itself.


3. Hygiene and regulation

Modern systems would add:

  • Food safety standards
  • Clean storage requirements
  • Traceability

These do not alter the core process, only formalise it.


What this tells us about localism

The important lesson is not nostalgia, but structure.

A watermill system shows that:

A complete economic cycle can exist entirely within a locality when energy, food production, and processing are physically connected.

In 1600 this was normal because it was the only practical option.

Today it is still technically possible, but has been replaced by long-distance systems that are efficient at scale but fragile at disruption.


The underlying principle

If you strip it to its essence, the model is:

  • Local energy source (water)
  • Local raw material (grain)
  • Local transformation (milling)
  • Local consumption (bread)

That four-step loop is the core pattern.


321. William Cobbett and Localism – The Voice of the Independent Local Economy

William Cobbett remains one of the clearest early voices arguing that real social strength comes from the locality rather than distant power. Writing in the early nineteenth century, he observed a country being reshaped by industrial expansion, financial speculation, and the growing dominance of London over rural life. What he saw was not progress in a simple sense, but a shift in control away from households and villages toward large, impersonal systems.

His most practical expression of this outlook appears in Cottage Economy. It is not a theoretical work. It is a manual for living: how to keep a cow, how to bake bread, how to brew beer, how to make the most of small plots of land, and how a household can remain materially independent without constant reliance on external suppliers. In modern terms, it is a handbook of localism before the word existed.

Cobbett’s central idea was simple. A society is strongest when ordinary people can meet their daily needs close to where they live. Once food, fuel, and basic production move away from the household and the locality, dependency grows. With dependency comes vulnerability, not only to price but to political and economic decisions made far away.

This thinking aligns closely with what is now often described as localism. Cobbett did not use that term, but he clearly understood its foundations. He believed that the enclosure of common land, the consolidation of farms, and the rise of urban wage dependence were not neutral developments. They altered the balance of power between people and place. The more people depended on wages from distant employers, the less control they had over their own survival.

In his writing, the cottage is not sentimental. It is an economic unit. The smallholding, the garden, the local craft skill, and the ability to produce food and essentials at home are not hobbies but safeguards. In this sense, Cobbett anticipated many later arguments about resilience, sustainability, and decentralised economies.

What makes Cobbett particularly relevant today is that his concerns reappear whenever large systems become strained. When transport networks, energy systems, or financial structures become expensive or unstable, attention often returns to the question of what can be done locally. Cobbett would recognise the pattern immediately. He would argue that reliance on distant supply chains always carries a cost, even when times appear stable.

There is also a social dimension in his work. Cobbett valued independence not only as an economic condition but as a form of dignity. A household that can produce part of its own food and meet some of its own needs is less exposed to pressure and more able to choose its own way of living. This overlaps with modern localist thinking, where the emphasis is on reducing unnecessary dependence on large institutions where smaller-scale provision is possible.

However, Cobbett was not proposing isolation. His world was still connected through trade, markets, and national structures. His argument was about balance. The locality should provide the foundation of life, while wider systems should support rather than replace it.

Seen through that lens, Cobbett becomes less a historical figure and more a continuing reference point. His work suggests that whenever economies expand to the point where people lose contact with the means of everyday survival, a correction becomes likely. That correction often takes the form of renewed interest in local production, local skills, and local responsibility.

In that sense, Cobbett’s writing still speaks to present conditions. It reminds us that localism is not an ideology imposed from outside, but a recurring response to the simple question of how people secure their daily needs when large systems become distant or fragile.

320. The Fertiliser Trap – Why Localism May Be the Only Defence Against Hunger

Most people assume that food comes from fields and farms. In reality, much of it comes from natural gas.

This uncomfortable truth lies at the heart of growing warnings about an oncoming food crisis. Modern agriculture does not simply depend upon sunshine, rain and fertile soil. It depends upon vast quantities of synthetic nitrogen fertiliser, produced using enormous amounts of energy. Remove that energy, and the food system itself begins to falter.

The invention of the Haber-Bosch process in the early twentieth century transformed the world. By extracting nitrogen from the atmosphere and converting it into ammonia, humanity was able to manufacture fertilisers on an unprecedented scale. Crop yields rose dramatically. Populations expanded. It is estimated that almost half the people alive today are fed because of synthetic nitrogen fertilisers.

Yet this apparent triumph concealed a dangerous dependency.

Ammonia production requires natural gas. Gas is both the raw material and the energy source. When energy prices rise sharply, fertiliser plants reduce output or close altogether because production becomes uneconomic. This happened during the recent energy crises, when fertiliser factories across Europe curtailed operations.

Senior figures in the industry issued stark warnings. The chief executive of one of the world’s largest fertiliser companies warned that the world was facing a food crisis. Others pointed out that half of global food production depends upon fertilisers that can no longer be taken for granted.

The chain of events is simple enough.

Energy shortages lead to reduced fertiliser production.

Reduced fertiliser availability leads to lower application rates by farmers.

Lower fertiliser use leads to lower crop yields.

Lower yields lead to food shortages and rising prices.

But there is another step in the chain that is too often ignored.

When food becomes scarce, those with money can continue to obtain it. Those without money cannot.

If governments simply allow the market to determine who eats and who goes hungry, scarcity falls most heavily upon the poor. Wealthier households may complain about rising prices, but they can often absorb them. Poorer households, already spending a larger proportion of their income on essentials, are forced to cut back. Nutritional quality declines. Meals are skipped. Hunger becomes concentrated amongst those least able to protect themselves.

History teaches this lesson repeatedly. Famines are not always caused by the complete absence of food. Often they arise because people lose the means to command food through the market. Scarcity becomes an issue of entitlement as much as supply.

This is one reason why rationing emerged in Britain during the Second World War. The purpose was not merely administrative control. It was to ensure that limited supplies were shared fairly and that the rich could not simply outbid the poor. The Ministry of Food recognised that shortages and uncontrolled prices would leave many people unable to obtain enough to eat. Orderly distribution at fair prices became a moral necessity as well as an economic one. Britain’s rationing system ensured that everyone received a basic entitlement and, in many poorer households, nutrition actually improved.

For most people in Britain today, the possibility of food rationing seems unimaginable. It belongs to black-and-white photographs and memories of another age. Yet if fertiliser shortages were severe enough to reduce harvests significantly, governments could once again face the same dilemma.

Without rationing, the poor suffer first.

With rationing, hardship is shared.

The remarkable fact is not that rationing might return. It is that a highly sophisticated society could once again be discussing it because of interruptions in the supply of natural gas.

This should force us to reconsider the assumptions upon which our food system rests.

Britain imports a large proportion of its food. Even domestic production relies heavily upon fossil fuel inputs, global supply chains and industrial methods dependent upon synthetic fertilisers. We have built a system optimised for efficiency under ideal conditions, but one possessing limited resilience when those conditions change.

Localism offers another way of thinking.

It does not promise complete self-sufficiency. Nor does it seek to abolish trade. Rather, it asks whether each locality should possess enough productive capacity, knowledge and organisation to weather disruptions beyond its control.

A localist Britain would encourage market gardens, allotments, orchards and smallholdings. It would support smaller farms serving nearby communities. Skills in cultivation, food preservation and seed saving would once again become ordinary parts of community life rather than specialist hobbies. Local food processing and distribution networks would complement national systems rather than disappear entirely.

No local system can eliminate every hardship. Yet local food production can soften the blow. A locality that retains productive land, practical knowledge and mutual obligation is less likely to see its poorest members abandoned to the impersonal logic of the market. Neighbours know who is struggling. Communities can respond before hunger becomes starvation.

Critics may dismiss such ideas as nostalgic. Yet dependence upon industrial fertilisers was itself an historical development. For centuries communities fed themselves using rotations, composting, animal manures and intimate knowledge of local conditions. Modern science has taught us much, but resilience has been sacrificed in pursuit of scale and efficiency.

The choice before us is therefore not between progress and the past. It is between vulnerability and resilience.

If the warnings prove exaggerated, stronger local food systems will still bring healthier communities, stronger local economies and a renewed connection between people and the sources of their nourishment.

If the warnings prove correct, and energy shortages do trigger fertiliser shortages, harvest failures and rationing, localities that have retained the capacity to feed themselves will face the future with greater confidence.

Food security cannot be left entirely to distant markets, fragile supply chains and the fluctuating price of natural gas. The ability to nourish a community is not merely an economic activity. It is one of the first responsibilities of any civilised society.

The coming food crisis, should it arrive, may teach us a lesson we have long forgotten.

The road from the gas field to the dinner table is far shorter than we imagine.

And the road back to resilience begins in the locality.

295. Local Bakeries and the Return of Bread to the Locality

One of the simplest and most practical businesses in a shrinking economy is the local bakery. Bread is an everyday necessity. Even in difficult times people still need basic food, and flour can often be sourced from relatively nearby farms. A bakery also creates local employment, keeps money circulating within the locality, and becomes a social centre as well as a food supplier.

Large industrial bakeries depend upon long-distance transport, huge energy inputs, complex machinery, packaging, national distribution systems and supermarket contracts. These systems work best in an expanding economy with cheap fuel and abundant consumer spending. In a shrinking economy they become increasingly vulnerable to energy prices, transport disruption and falling purchasing power.

The local bakery is different. It can survive on modest turnover, shorter supply chains and direct relationships with local people.

The Building Required

A local bakery does not need an elaborate building. In earlier times many villages had small bakeries attached to cottages or small workshops. Modern health regulations are stricter, but the principle remains the same – simplicity, cleanliness and practicality.

The ideal bakery building would contain:

  • A preparation and mixing room
  • A baking room with ovens
  • Flour and ingredient storage
  • Cooling racks and shelving
  • A small retail counter or collection point
  • Wash-up and sanitation area
  • Toilet and handwashing facilities
  • Possibly a small outside yard for deliveries and fuel

The building could be:

  • A converted shop
  • A redundant agricultural building
  • A workshop
  • A small industrial unit
  • A purpose-built single-storey structure
  • Part of a community food centre

The essential requirement is that it must be easy to clean, dry, well ventilated and safe from contamination.

A modest bakery might operate comfortably in a building of 800 to 1,500 square feet. A very small locality bakery could begin in even less space.

Ovens and Energy

The oven is the heart of the bakery. Modern electric deck ovens are efficient but depend entirely on the electrical system. Gas ovens are common where mains gas exists. In a more localist future there may be renewed interest in wood-fired ovens, particularly where local wood economies develop.

A wood-fired oven has advantages:

  • Fuel may be sourced locally
  • Heat storage can reduce fuel use
  • Bread quality is often excellent
  • The oven can become a centrepiece of the locality

However, wood-fired systems require labour, fuel storage and skill.

In practice many bakeries may use mixed systems – electric for reliability and wood-fired baking for resilience and lower fuel dependence.

Ingredients

The core ingredients are simple:

  • Flour
  • Water
  • Salt
  • Yeast or sourdough starter

A locality bakery should ideally develop relationships with nearby grain growers and millers where possible. Even partial local sourcing strengthens the locality economy.

As national systems become strained, local milling may slowly reappear in some areas. Small stone mills require comparatively little energy compared with giant industrial systems.

Employment

A bakery creates several kinds of work:

  • Bakers
  • Delivery drivers
  • Counter staff
  • Grain growing and milling support
  • Maintenance and cleaning
  • Firewood preparation if wood-fired ovens are used

Importantly, bakery work is essential rather than discretionary. People may stop buying luxury goods long before they stop buying bread.

Community Value

The old village bakery was often a social meeting place. People collected bread daily and exchanged information. In a future localist economy such centres may again become important.

A bakery may also connect with:

  • Local cafés
  • Schools
  • Care homes
  • Community kitchens
  • Markets
  • Food co-operatives

Unsold bread can feed animals, become breadcrumbs, or be composted locally, reducing waste.

Finance and Scale

One of the strengths of a local bakery is that it can begin modestly and expand slowly. It does not necessarily require huge borrowing.

A small bakery may begin with:

  • One baker
  • One oven
  • Limited product range
  • Direct local sales only

The danger comes when businesses over-expand, borrow heavily and become dependent upon distant markets.

In a shrinking economy resilience may matter more than growth.

The Future

As transport costs rise and national systems become less reliable, local bakeries may slowly return. Bread production is one of the oldest and most practical human skills. It fits naturally into a localist economy because it combines essential food, local labour, modest scale and community connection.

The future bakery may not resemble the giant industrial bread factories of today. It may instead resemble something much older – smaller, simpler, slower and closely tied to the life of the locality.

290. Supermarket Slowdown and the Localist Future

The article “Supermarket Slowdown” on Consciousness of Sheep points to an important change taking place within the industrial consumer economy. The slowdown in supermarket sales is not simply a temporary fluctuation caused by weather or changing fashions. It is part of a broader pattern of weakening consumer demand, rising costs, and the gradual contraction of discretionary spending.

Recent retail figures support this picture. UK supermarket sales and wider retail activity have weakened during 2026, while inflation in groceries remains elevated and consumer confidence has fallen sharply. Rising energy prices, fertiliser costs and international instability are feeding directly into food prices and supply chains.

The article argues that supermarkets were built during a period of cheap energy, abundant transport and increasing prosperity. Their success depended upon long supply chains, huge distribution systems, refrigerated transport, industrial agriculture and consumers with enough disposable income to purchase large quantities of packaged and processed goods. As energy and transport costs rise, and as household budgets come under increasing pressure, this model begins to weaken.

This has major implications for localism.

One implication is that food systems may gradually relocalise, not because governments force people to do so, but because industrial systems become increasingly expensive and less reliable. Supermarkets depend upon national and international logistics networks. Local food systems depend more upon nearby land, local labour, shorter transport routes and direct relationships between producers and consumers.

As industrial systems weaken, local alternatives become more practical and attractive. Local markets, small growers, community-supported agriculture, local butchers, bakers and food processors may slowly recover importance. In many places this may begin informally – neighbours sharing produce, small roadside sales, local delivery networks, cooperative growing projects and part-time food production.

The slowdown also highlights the distinction between essential and discretionary activity. During economic contraction, households tend to prioritise necessities. Large amounts of industrial consumer activity depend upon surplus income. When that surplus declines, sectors linked to convenience, novelty and consumerism weaken first. Food itself remains essential, but the highly industrialised and heavily processed supermarket model becomes increasingly vulnerable.

Another implication concerns employment. Supermarkets replaced many smaller local shops and local supply chains during the growth era. But local economies are generally more labour-intensive. A relocalised food economy may provide increasing opportunities for part-time, self-employed and family-based work closer to home. This becomes increasingly important as formal industrial employment contracts.

The article also indirectly raises the issue of resilience. Long supply chains are efficient during periods of stability, but fragile during disruption. Local systems may be less “efficient” in industrial economic terms, but they are often more adaptable and resilient. A locality producing part of its own food is less dependent upon distant systems which may become unreliable due to energy shortages, transport disruption or financial instability.

In localist terms, the supermarket slowdown may therefore represent something much larger than a retail problem. It may be an early sign of the gradual transition from a high-energy, centralised consumer economy toward a lower-energy, more localised society.

This transition is unlikely to happen suddenly or evenly. Supermarkets will remain important for many years. But their slowing growth may indicate that the industrial expansionary phase has reached its limits. As that happens, local economies based upon essentials, particularly food, may slowly re-emerge as the practical foundation of everyday life.

274. Fertiliser, Fossil Fuel, and Localism: The Possibility of Biochar

There is growing concern about the future availability of artificial fertiliser. This concern is not widely understood by the public, but it deserves attention because modern food production depends heavily on it.

Most people assume fertiliser is simply manufactured from minerals. In fact, the most important fertiliser used in modern farming is nitrogen fertiliser, and this depends mainly on natural gas. It is produced using the Haber-Bosch process, which turns nitrogen from the air into ammonia using large amounts of fossil fuel energy.

About half of the world’s food production now depends on this process.

If natural gas becomes expensive, difficult to import, or less available, fertiliser becomes expensive as well. This creates a direct risk to food production in countries like the United Kingdom, which rely heavily on imported fertiliser.

Artificial fertiliser also has another important characteristic. It is produced almost entirely by large industrial organisations and distributed through long supply chains. Farmers, gardeners, and households cannot make it for themselves. This makes soil fertility dependent on distant production systems rather than local resources.

Because of this, people are beginning to ask whether other methods of maintaining soil fertility could play a larger role in future farming.

One possibility is biochar.

Biochar is a charcoal-like material made by heating wood, crop waste, or plant material without oxygen. It has been used for centuries in parts of the Amazon basin, where it helped create extremely fertile soils that are still productive today.

Modern research shows that biochar improves soil in several ways. It helps soil retain water. It supports beneficial microorganisms. It holds nutrients in place so they are not washed away by rain. It improves soil structure. These effects make existing nutrients work better.

Biochar is not a direct replacement for artificial fertiliser because it does not contain large amounts of nitrogen. Instead, it makes natural fertilisers such as compost, manure, and crop residues more effective. In this way it reduces dependence on industrial fertiliser.

Unlike artificial fertiliser, biochar can be made locally. It can be produced in domestic gardens, on small farms, in woodlands, and by community groups using simple equipment. Larger quantities can be produced by farmers and local enterprises. This makes it especially suited to a localist approach to the future economy, in which essential needs such as food and soil fertility are supported increasingly within each locality rather than supplied entirely through national and international industrial systems.

Biochar is already being used in parts of Africa, India, South America, and increasingly in Europe. In most cases it is produced locally from crop waste or woodland material that would otherwise be burned or discarded.

The United Kingdom has a particular advantage in this area. Much of the country already produces woodland thinnings, hedge cuttings, sawmill residues, and garden waste that could be converted into biochar within localities. This means fertility could increasingly be supported using local biological resources rather than imported fossil fuel products.

Seen in this way, biochar is not simply a soil improvement technique. It is an example of how localism can strengthen resilience by shifting part of the foundation of food production from large industrial supply systems to households, farms, and communities working within their own localities.

Biochar will not replace artificial fertiliser overnight. However, it offers a practical way to strengthen soil fertility while reducing dependence on energy intensive industrial systems. As fertiliser prices rise and supplies become less predictable, approaches like this are likely to become more important.

Footnote:

Duchy estate looking for a regenerative farmer

PRINCE William is on the hunt for a new farmer to take on a 900-acre farm in Herefordshire, with a rare long-term arable farming opportunity announced.

The Duchy of Cornwall has made available Monkhall Farm, a 900-acre holding in Callow, near Hereford, under a 25-year regenerative Farm Business Tenancy (rFBT).

The Duchy is seeking a tenant committed to exploring and embedding regenerative practices in UK agriculture.

Monkhall Farm is about 4 miles away from where the author of this blog lives.

272. How to Think About the Future (Part 1): Changing the Future Starts with How You Think

Nate Hagens

In this week’s Frankly, I open a new series called How to Think About the Future. I begin with some comments I’ve heard repeatedly on this platform: why cover nuclear, plastics, renewables, or climate when something else is the real issue? I observe that these questions come from people who have already settled on a single storyline about what’s coming, and are filtering everything else through it. Our actual reality is much more complex and unknowable, and even the most well-informed perspectives may only be able to capture pieces of the bigger picture. I emphasize that even my own base scenario – that the global economy is likely to hit a wall in the relatively-near future – should be held with humility.

I introduce the idea of “scenario thinking” as a practical strategy to reflect on and prepare for several versions of the future, keeping one engaged and grounded in what matters. I also name why this line of thinking is hard in practice – 1. our nervous systems want resolution, 2. our careers and identities are attached to particular futures, and 3. cultural incentives reward confident stories over honest uncertainty. The episode closes by introducing shortfall risk, which is the danger that something essential, like topsoil, social trust, grid stability, or the nuclear taboo drops below a threshold from which it cannot easily recover. This concept will act as connective tissue across the rest of the series, which is an attempt to expand perception instead of picking the right future, and to identify what is coupled, what is irreversible, and what kinds of responses stay robust across many possible worlds.

Where in your life have you quietly settled on a single story about the future? Which of the essentials you rely on would be hardest to rebuild if they fell below a threshold? And how might the decisions you make this week change if you held more than one plausible future in mind at the same time?

269. Local Abattoirs and the Future of Local Food

Recent reporting has highlighted the rapid closure of abattoirs across the United Kingdom, with serious consequences for family farms and rural communities. The number of licensed abattoirs has fallen from around 2,500 in the 1970s to just over 200 today. As facilities disappear, farmers are increasingly forced to transport animals long distances for slaughter, often 30 to 40 miles or more.

At first sight, this appears to be just another symptom of economic pressure on the farming industry. In reality, it reveals something deeper about the structure of the modern industrial food system. Over the past fifty years the processing of food has become concentrated in fewer and larger facilities. Small abattoirs have been replaced by large regional plants designed to serve supermarket supply chains rather than local markets.

For the industrial food system this concentration makes sense. Large plants reduce unit costs, standardise production, and supply national distribution networks. But the system works only as long as farming itself becomes large, centralised, and integrated with mass distribution.

Family farms operate in a very different world. Their animals are often sold locally, through farm shops, local butchers, farmers’ markets, and direct sales to households. For them, the loss of nearby abattoirs removes a vital part of the local food infrastructure. Without a local slaughter facility, the practical ability to sell meat locally begins to disappear.

The consequences are significant.

Animals must travel longer distances, increasing stress and reducing welfare. Farmers incur higher transport costs. Booking slaughter slots becomes difficult as fewer facilities serve wider areas. Some farmers report that they have had to abandon direct meat sales altogether because the processing infrastructure no longer exists locally.

This situation illustrates a broader structural weakness in the industrial system. When key facilities become centralised, entire local economies lose the practical capacity to operate independently. A farm may still produce livestock, but without nearby processing it cannot easily turn that livestock into locally sold food.

In the emerging era of economic contraction, this concentration becomes increasingly fragile. Transport costs rise, supply chains become less reliable, and large processing plants depend on continuous high throughput to remain profitable. Under such conditions, the disappearance of local infrastructure becomes a systemic risk.

Localism offers a different perspective.

In a local food economy, the abattoir is not simply an industrial facility. It is part of the basic infrastructure of the locality, alongside farms, mills, bakeries, breweries, and local markets. Its role is to enable livestock raised within the locality to be processed and sold within the same area.

Historically this was the normal arrangement. Most towns once had their own slaughterhouses. Animals rarely travelled far from the farms where they were raised. Meat was sold through local butchers who knew the farmers supplying them.

The industrial era replaced this distributed network with a highly concentrated system. For several decades the arrangement appeared efficient because cheap fossil fuels allowed animals, meat, and processed products to be transported across the country with little apparent cost.

But as economic conditions tighten and the cost structures of the industrial system change, the weaknesses of that model become increasingly visible.

From a localist perspective, the current crisis in abattoirs is not merely a problem to be solved by subsidy or regulation. It is a signal that an essential part of the local food economy has been removed.

Rebuilding local abattoirs would therefore have multiple benefits.

Farmers would regain the ability to process livestock locally. Animal journeys would become shorter and less stressful. Local butchers and markets could source meat from nearby farms. Food supply chains would become shorter and more resilient.

Perhaps most importantly, the locality would regain control over an essential part of its own food system.

In the long term, a distributed network of small and medium-scale abattoirs may prove far more compatible with a shrinking, decentralised economy than the highly concentrated processing system that dominates today.

The present wave of closures therefore poses an important question.

If the future economy becomes more local, more human-scale, and less dependent on long-distance transport, should the infrastructure of food production not evolve in the same direction?

Local abattoirs may once again become a normal feature of the British countryside – not as relics of the past, but as practical foundations of a more local food economy.

259. Rethinking Sustainable Development: Hot Water in a Post-Industrial World

Much of what is currently called sustainable development is not truly sustainable. Many modern solutions depend on a complex industrial system that may not last indefinitely. Heat pumps, photovoltaic panels, advanced electronics and digital control systems all rely on global manufacturing, rare materials, specialist maintenance and international supply chains. If the industrial system that supports them weakens or contracts, these technologies may become impossible to repair or replace.

A different test must judge true sustainability. A technology is sustainable only if future generations, using mainly local materials and modest tools, could continue to build and maintain it. In other words, the system must survive even when the complex industry fades.

Hot water is a good example of the challenge. Every household needs it for washing and hygiene. The question, therefore, becomes: what kind of hot water system could continue to work in a simpler, more local economy?

Principles of a Truly Sustainable System

A sustainable hot water system for the long future would need several qualities.

First, it must rely on natural energy flows that will always exist, such as sunlight or wood.

Second, it must be mechanically simple, with few parts that can break.

Third, it must be repairable with basic tools and local materials such as wood, clay, brick, copper or steel.

Fourth, it should work without electronics, pumps or complex control systems.

These principles suggest a very different approach from modern industrial devices.

The Passive Solar Water Wall

One possible design is a passive solar water wall.

Imagine the south-facing wall of a house. On the outside of that wall is mounted a simple panel made from dark metal sheets or blackened copper pipes. Behind the pipes is insulation made from clay, wool or straw. A sheet of glass or clear plastic covers the front to trap solar heat.

Water slowly circulates through the pipes and into an insulated storage tank inside the house. Circulation occurs naturally by gravity through a process called thermosiphon. When water in the panel warms in sunlight, it becomes lighter and rises into the tank. Cooler water from the tank flows down to the panel for reheating.

Because the system relies on natural convection, it requires no pump or electricity.

The main parts are simple:

  • metal pipes or channels
  • a storage tank
  • a glass cover
  • insulation
  • two connecting pipes

All of these could be made or repaired locally for centuries.

Winter Backup Using Wood

In northern climates, sunlight is weaker in winter. A sustainable system, therefore, needs a second source of heat.

A simple solution is to connect the water tank to a wood-heated stove or range. Many traditional stoves already heated water through a metal coil or small boiler. When the stove is used for cooking or heating the room, some of the heat automatically warms the water.

Wood can be harvested from local coppice woodland, a renewable system used in Britain for many centuries. Managed woodland produces a continuous supply of fuel without destroying the forest.

The result is a dual system:

  • Solar heating during sunny months
  • Wood heating during darker winter periods

The Masonry Storage Tank

Another improvement would be to store hot water in a large insulated masonry tank built into the house structure. The tank could be lined with clay, lime plaster or metal. Thick insulation around it would keep the water warm for long periods.

Because the tank holds a large volume of water, it acts as a thermal storage device. One sunny day can provide hot water for several days afterwards.

Longevity

Such a system has remarkable durability.

Solar panels of this kind can last for decades and are easy to repair. Pipes can be replaced individually, and glass covers can be swapped if broken. The tank and basic plumbing could last for generations.

Most importantly, none of the components requires advanced industry or electronic control.

A village blacksmith, plumber or metalworker could maintain the system indefinitely.

A Different Meaning of Sustainable Development

Seen in this way, sustainable development is not mainly about high technology. It is about designing systems that continue to function when societies become simpler and more local.

The aim is resilience rather than technical sophistication.

A passive solar water wall combined with wood heating is only one possible design. Many variations could exist. But the key lesson remains the same: sustainability must be measured not by modern efficiency alone, but by the ability of future communities to build and maintain the system using local skills and materials.

That is the kind of technology that can genuinely endure.

258. The controversial start-up revolutionising Britain’s allotments

According to the Daily Telegraph

For the first time, private grow-your-own plots have been rapidly commercialised at scale – but not everyone is happy”

This is an example of the natural evolution of the industrial economy into localism.

Increasing unemployment from discretionary formal employment is leading to an increase in demand for land to grow your own food.

Their model is simple: to lease land from farmers and rent patches of it out as allotments, like a sort of WeWork [a flexible workspace provider] for veg.

It has proved stunningly successful. Having opened its first site in Bath in 2022, Roots has since created 19 more on the edges of British towns and cities. It has attracted some 5,000 members, each paying from £9.99 per month for a “mini” 12sq m allotment to £45.99 per month for a larger plot of land to call their own –or at least theirs to grow on.”