Document IV · Aotearoa New Zealand · 2026

LIVING SYSTEMS

Animals, Fermentation, and the Integrated Farm
Every animal is a complete system. Every microorganism is an ally. Every waste stream is a resource waiting for its next destination. This document covers what the others do not: the whole animal, fermentation as a complete technology platform, salt, bees, dairy, leather, smoke, and the closed loops that bind them all.
Document IV in the series. Read alongside The Practical Guide (Doc II) and Layer Zero (Doc III). The Waikato's existing dairy economy, abundant pasture, and mild climate make almost everything described here immediately accessible.
I
The Closed Loop Principle
Waste is a design failure — every output belongs somewhere
The hemp–cow–biogas–paper loop — a working model
Core model
"The difference between a waste problem and a resource is only the absence of the next step. Find the next step for every output and the system sustains itself."
Hemp Farm
Seeds → cold-press for oil (food + biodiesel) Seed cake → high-protein cow feed supplement Stalks and leaves → additional fodder, fibre, paper Higher-cellulose dung from hemp-fed cows → better paper
The Cow
Milk → dairy, medicine, kefir, whey (feed + fertiliser) Dung → biogas digester (cooking fuel + heat) Dung → paper pulp (no chemicals needed) Urine → liquid nitrogen fertiliser (dilute 1:10)
Biogas Digester
Methane out → cooking, heat, engine fuel Digestate out → rich liquid fertiliser Digestate → back to hemp field, loop closes
Dung Paper
Washed dung → pulp (already partly processed) Paper → records, wrapping, seed packets, books Rinse water → dilute garden fertiliser

Every stage feeds the next. Nothing leaves as waste. This is the design discipline to bring to every animal and every crop decision: map all outputs before acquiring anything. Any output without a destination is a future waste problem. Any output with a destination is a future resource.

· · ·
II
The Cow as Complete System
Every part has a destination — nose to tail to dung to bone
Complete output map — the whole animal
Waikato
Waikato context: Greater density of dairy and beef farming than almost anywhere in NZ. Even a single community cow, managed well, is a complete materials and food production platform. Relationships with neighbouring farms for manure, tallow, and bone are immediately available.
Milk
Drinking milk · butter · cream · cheese · yoghurt · kefir · whey (animal feed, fermentation base, fertiliser) · ghee · casein glue (strong wood adhesive)
Dung
Biogas feedstock · paper pulp · composting accelerant · garden fertiliser direct · cob building additive · biochar feedstock when dried and pyrolysed
Urine
High-nitrogen liquid fertiliser (dilute 1:10) · leather softening in tanning · traditional mordant for natural dyes · pH adjuster in some fermentation applications
Tallow (rendered fat)
Candles · soap · biodiesel feedstock · leather conditioner · wood preservative · skin balm base · cooking fat · tool and machinery lubricant
Hide
Leather for clothing · footwear · tool handles · book binding · drum heads · bags · harness · rope · drum skins · rawhide for lashing and tool construction
Bone
Bone char (soil amendment + water filter) · bone meal fertiliser · hide glue · buttons · tool handles · needles · knife handles · carving material
Blood
Blood meal (14% nitrogen — very high) · blood pudding · blood glue · historically used as paint and pigment binder · tanning assistant
Horns and Hooves
Horn: cups, spoons, buttons, combs, tools, powder (slow-release nitrogen) · Hooves: hoof glue (very strong) · slow-release fertiliser · hoof oil for leather
Bone char — one of the most underused byproducts
  1. Collect bones post-butchering. Remove excess meat and fat — organic residue reduces char quality. Dry thoroughly before processing.
  2. Place bones in a sealed metal container with a small pressure relief hole — a lidded pot or sealed tin. Do not use open-air fire; oxygen converts bone to white ash, not black char.
  3. Heat the sealed container in a fire or forge for 1–2 hours. Gases escape through the relief hole. Bone interior pyrolyses without combustion.
  4. Cool completely before opening. The result is jet-black, highly porous bone char — calcium phosphate and carbon matrix.
  5. Applications: soil amendment (slow-release phosphate directly addresses the phosphate-binding problem of Waikato allophanic soils) · water filtration (removes heavy metals and fluoride far better than sand or activated carbon) · biochar substitute · pigment for ink and paint.
Hemp supplementation — what it changes about the cow's outputs

Hemp seed cake (the residue after oil pressing) is an approved livestock feed in NZ. At 30–35% protein with an excellent amino acid profile, it is nutritionally superior to most commercial feed supplements. Fed alongside pasture, it increases milk production and quality. More relevant to the closed loop: hemp stalks and leaves contain significantly more structural cellulose than grass. Cows fed a hemp-supplemented diet pass more undigested cellulose fibre in their dung — producing dung that is richer in the paper-making fibre described in the next section. The same feed decision that improves milk quality also improves paper quality. This is integrated systems thinking expressed as a single practical choice.

· · ·
III
Dung Paper
The cow's digestive system as paper mill — no chemicals required
Making paper from cow dung — the complete process
Skill 1$ Free
Why this works
A cow's digestive system is approximately 65% efficient at extracting nutrients from grass. The remaining 35% — primarily cellulose fibre from plant cell walls — passes through largely intact. This undigested fibre is exactly what paper is made from. The digestive process has already done the mechanical breakdown work, partially separated the fibre from lignin, and sterilised the material through anaerobic fermentation in the gut. The dung is, in effect, pre-processed paper pulp. No lye cooking required. No chemical preparation. Wash it, beat it, sheet it.
What you need
Fresh cow dung — collected same day. Older dung begins to degrade further and loses fibre quality. Dung from grass-fed or hemp-supplemented cows contains most fibre.
Large bucket or tub for washing · clean running water or several changes of water
Mould and deckle (see Layer Zero Section VIII for construction) · vat large enough to submerge mould
Blender or heavy wooden stamper for beating pulp
Felts or wool blankets for pressing · boards for drying
Build steps
  1. Collect fresh dung and place in a large bucket. Cover completely with water. Work with your hands (gloves) to break up any large clumps and begin releasing the fibre from the surrounding organic matter.
  2. Drain the water through a coarse mesh screen. This first rinse water carries away the liquid fraction — dilute and use on garden directly, it is excellent fertiliser. Refill with clean water and repeat. Continue rinsing and draining until the water runs relatively clear — typically 4–6 washes. The material remaining in the bucket is predominantly cellulose fibre with minimal organic residue.
  3. Boil the washed fibre in clean water for 30 minutes. This final step sterilises the pulp completely and softens any remaining fibre for beating. No chemicals are required — the washing and boiling is sufficient preparation.
  4. Drain the boiled fibre and beat to pulp. A blender with water works quickly; a wooden stamper in a bucket works without electricity and produces good results with more effort. Beat until the fibre is broken into individual filaments with no clumped masses visible.
  5. Fill your paper vat with clean water. Add several ladles of prepared pulp and stir. Dip your mould and deckle through the pulp suspension, lift level, drain, couch onto felt, and press and dry exactly as described in Layer Zero Section VIII. The technique is identical — only the fibre source differs.
  6. The finished paper is warm brown in colour, slightly textured, with a pleasant earthy character. It is strong, durable, and produced entirely from materials that would otherwise be managed as farm waste. Hemp-dung paper is noticeably stronger and more uniform than grass-dung paper due to the longer, more consistent cellulose fibres.
Notes on quality and use
  • Dung paper takes ink and charcoal well — adequate for records, letters, and documentation
  • For finer writing paper, blend 50/50 with hemp tow fibre — this produces a lighter, smoother sheet
  • Elephant dung paper is commercially produced and sold internationally — the same principle. Cow dung paper from hemp-supplemented cattle is the Waikato equivalent.
  • Horse dung paper is also viable if cattle are not accessible — similar cellulose content
· · ·
IV
Tallow — Rendering and Uses
Candles, soap, fuel, lubricant, skin care, and leather from rendered fat
Rendering tallow and processing it into usable products
Skill 1$ Free
Rendering — converting raw fat to tallow
  1. Collect fat trimmings from butchering — the hard fat around the kidneys (suet) produces the finest, hardest tallow and is best for candles and soap. Softer fat from other areas is fine for lubricants and leather dressing.
  2. Cut fat into small pieces or mince it — smaller pieces render more completely. Remove any meat or blood clots as these cause the finished tallow to smell and go rancid faster.
  3. Wet render (simplest): place fat in a heavy pot with a small amount of water (500ml per 2kg fat). Heat on very low heat — the fat should melt slowly without browning. The water prevents scorching and eventually evaporates. Simmer for 2–3 hours, stirring occasionally.
  4. Strain through cloth into a clean container, removing all the solid cracklings (the protein residue — these are edible, high-protein, and delicious salted as a snack or fed to chickens and pigs). The strained liquid is tallow.
  5. Allow to cool. Tallow sets to a firm, white or cream-coloured solid at room temperature. Store covered in a cool place. Properly rendered and strained tallow keeps for months without refrigeration and indefinitely in a cool larder.
Tallow candles
  1. Melt tallow gently. Cut a cotton wick (or twisted cotton string) to the required length plus 5cm extra. Tie the extra length to a stick laid across the top of a mould (a straight-sided tin, a rolled cardboard tube, or a carved wooden mould).
  2. Pour melted tallow into the mould around the wick. Allow to cool completely — tallow shrinks as it sets and may require a second pour to fill the depression that forms at the centre top.
  3. Remove from mould when fully set and cold. Trim wick to 1cm above the candle surface. Tallow candles burn well, with a warm light. They are softer than beeswax and have a faint animal smell, but are entirely functional and made from what would otherwise be waste.
  4. Dipped candles: repeatedly dip a wick into melted tallow and allow to cool between dips, building up layers. This is the simplest method requiring no moulds.
Tallow soap (with wood ash lye)
  1. Prepare a measured quantity of wood ash lye (see Layer Zero Section IV). For a basic tallow soap, you need lye at egg-float strength (potassium hydroxide) or purchased NaOH at calculated weight.
  2. Melt tallow to liquid and allow to cool to 45–50°C. Prepare lye solution at the same temperature. Both components at similar temperature prevents separation during mixing.
  3. Very slowly pour the lye into the tallow — not the reverse. Stir continuously. The mixture will begin to thicken as saponification occurs — the fat and lye chemically combine to form soap. Continue stirring until the mixture reaches trace — when drizzled from the spoon, it leaves a trail on the surface rather than sinking immediately.
  4. Pour into moulds (a lined wooden box, flexible silicone, or any non-reactive container). Cover with cloth or cardboard to insulate. Allow to saponify fully for 24–48 hours undisturbed.
  5. Unmould and cut into bars. Cure in open air for 4–6 weeks — this completes saponification, evaporates excess moisture, and produces a harder, milder soap. Fresh soap is usable but softer and more caustic. Cured soap is superior.
  6. KOH lye from wood ash produces a soft soap — excellent for liquid soap, shaving soap, and dish soap. NaOH lye produces hard bar soap. Both work.
Other tallow uses
Leather conditioningWarm tallow rubbed into leather replaces natural oils lost through use and weathering. Prevents cracking. Slightly waterproofs. The traditional leather dressing used for centuries.
Wood preservationHot tallow worked into end grain and cut surfaces of timber seals against moisture penetration. More effective than most commercial products on raw wood.
Tool and machinery lubricationPure tallow is an excellent lubricant for wooden tools, drawer runners, saw blades, and any metal-on-metal or metal-on-wood interface that does not reach high temperature.
Skin balmTallow is chemically similar to human sebum (skin fat). Mixed with beeswax and a few drops of essential oil, it produces an effective skin moisturiser, hand cream, and wound salve used before petroleum-based products existed.
Biodiesel feedstockTallow processes into biodiesel at slightly higher temperatures than vegetable oil. NZ's beef processing industry produces substantial tallow — relationships with the local freezing works give access to this feedstock at scale.
Fire startingTallow-soaked cotton rag or tallow-impregnated wood shavings make reliable, weather-resistant fire starters. The traditional equivalent of commercial firelighters.
· · ·
V
Leather Tanning
From fresh hide to durable leather — using NZ native bark tannins
Bark tanning — the complete traditional process
Skill 2NZ Tannins
NZ tannin sources: Mānuka and kānuka bark are exceptional tannin sources — among the highest tannin content of any NZ species. Harvesting bark from coppiced mānuka (already being harvested for charcoal and essential oil) produces tannin with no additional resource cost. This creates a direct connection between the energy systems and the leather systems of the community.
Stage 1 — Curing the fresh hide
  1. Work quickly after butchering — fresh hides begin to decompose within hours in warm weather. Either process immediately or salt the hide thoroughly (cover every surface, fold flesh-to-flesh) and allow to cure for 2–4 weeks. Salt preserves the hide indefinitely for later processing.
  2. Soak salted hides in clean water for 24–48 hours to rehydrate and remove the salt before processing. Unsalted fresh hides skip directly to the next step.
Stage 2 — Liming (hair removal)
  1. Prepare a lime solution: hydrated lime (from your own kiln-burnt limestone, see Layer Zero Section X) dissolved in water to a thick paint consistency — approximately 1kg lime per 5 litres water.
  2. Submerge hides in the lime solution in a sealed container. Weight down to keep fully submerged. Leave 5–10 days. The alkaline lime loosens the hair follicles and begins to swell the hide structure — opening the fibres for tannin penetration.
  3. Remove the hide and scrape the hair off the grain side with a dull blade (a drawknife, a rounded scraper, or a flat piece of hardwood). The hair should release easily. Remove remaining flesh and fat from the flesh side — this is fleshing, done with the same scraping motion.
  4. Rinse thoroughly in several changes of water to remove all lime. The hide is now raw, swollen, and white — this is called a pelt. It must be kept wet until tanning or it will dry stiff and unusable.
Stage 3 — Bating (softening)
  1. Soak the pelt in a mild acid solution to neutralise the lime and relax the swollen fibres — slightly acidic water (rainwater with a splash of vinegar, or fermented bran water) for 24 hours. The pelt will become noticeably more supple and less swollen.
  2. Traditional bating used fresh animal dung (dog dung historically — contains proteolytic enzymes). Fermented chicken or pigeon dung in water works. Soak 4–12 hours then rinse. This step significantly improves the final leather's softness and is worth including if possible.
Stage 4 — Tanning
  1. Prepare tannin liquor: simmer mānuka or kānuka bark (fresh or dried) in water for 2–3 hours. The water turns deep red-brown. Strain out the bark. This liquor contains the polyphenol tannins that will chemically bind to the hide proteins and preserve them permanently.
  2. Begin in weak tannin liquor (diluted 4:1 with water) and move progressively to stronger concentrations over 2–4 weeks. Starting in strong tannin cases the outer surface before the interior is penetrated, resulting in uneven, stiff leather. Progressive strengthening ensures even penetration throughout the thickness.
  3. Layer hides with fresh bark in a pit or sealed container — this is pit tanning, the traditional method. Ensure hides are fully submerged and not folded against each other. Change the liquor and add fresh bark weekly.
  4. Total tanning time depends on hide thickness: light hides (goat, sheep) — 4–6 weeks. Heavier cattle hides — 3–6 months for full penetration. The leather is fully tanned when a cross-section cut shows uniform brown colour throughout with no pale centre remaining.
Stage 5 — Fat liquoring and finishing
  1. Remove from tanning liquor and allow to dry to approximately 50% moisture — damp but not wet. This is the window for mechanical working.
  2. Work warm tallow or a tallow-neatsfoot oil blend thoroughly into both surfaces of the leather. This replaces the natural oils removed during liming and softens the fibres. The leather absorbs the fat as it dries.
  3. Work and stretch the leather repeatedly as it dries — pulling, folding, and working over a smooth edge. This mechanical action softens the fibres and is what produces supple, workable leather rather than stiff board. Continue working until fully dry.
  4. The finished leather is now ready for use. Natural bark-tanned leather is warm brown, durable, develops a patina with use, and will last generations with basic maintenance (occasional tallow or oil conditioning).
Watch points
  • Lime is caustic — gloves and eye protection during all liming stages. Dispose of spent lime solution carefully — it is strongly alkaline and harmful to waterways.
  • Decomposition happens fast in NZ summer warmth — keep hides cold or salted until you are ready to process. A hide that smells of ammonia has begun to putrefy — the grain layer may be damaged and the finished leather will be weak or split easily.
  • The entire process produces strong-smelling wastewater — site the tanning operation away from living areas and downwind. Spent tannin liquor is acidic and should not go into waterways at volume.
· · ·
VI
Dairy Processing
Butter, cheese, kefir, yoghurt, ghee — and what to do with the whey
Butter, cream, and ghee — the fat fraction
Skill 1
Butter
  1. Allow fresh whole milk to sit undisturbed in a cool place for 12–24 hours. The cream rises and can be skimmed from the surface with a ladle or shallow spoon.
  2. Culture the cream for richer flavour (optional but recommended): add a tablespoon of active kefir or yoghurt to the cream and leave at room temperature for 12–18 hours until slightly thickened and pleasantly sour. This produces cultured butter with a depth of flavour absent from sweet cream butter.
  3. Churn the cream by agitating it vigorously. A sealed jar shaken by hand works for small batches. A plunge churn (a cylinder with a perforated disc on a handle) is simple to build from timber and is far less tiring. Agitate until the cream breaks — a sudden change where yellow fat globules separate from white liquid. This typically takes 10–30 minutes depending on cream temperature. Cream at 12–16°C churns most efficiently.
  4. Pour off the buttermilk (the white liquid). Save it — it is excellent in bread, pancakes, and as a fermentation medium. Knead the butter under cold water, squeezing out remaining buttermilk until the water runs clear. Unsalted butter is ready to use. Salt with fine sea salt (1% by weight) for preservation and flavour.
Ghee
  1. Melt butter slowly in a heavy pan on low heat. It will foam initially, then quiet down. Continue heating gently for 20–45 minutes (longer for larger batches) until the milk solids settle to the bottom and begin to turn golden, and the butter fat above turns clear and fragrant.
  2. Strain through fine cloth into a sealed jar. The clarified fat is ghee. The golden solids left in the cloth are delicious on bread or vegetables.
  3. Ghee keeps at room temperature indefinitely without refrigeration — the milk solids that cause butter to spoil have been removed. Traditional Indian households stored ghee for years at room temperature. For a community without refrigeration, ghee is the stable, preserved form of butter.
Simple fresh cheeses — from an hour to a month
Skill 2
Rennet — the essential ingredient

Rennet contains enzymes (primarily chymosin) that cause milk proteins to coagulate into curds. Three sources are available to a community, in increasing complexity:

Vegetable rennetNettles, fig sap, thistle flower stamens, and dried yellow bedstraw all contain plant proteases that coagulate milk. Simmer nettles in salted water, strain, and add the liquid to warm milk. Less predictable than animal rennet but entirely home-produced.
Animal rennetThe stomach lining of an unweaned ruminant (calf, lamb, kid) contains chymosin. Dry and salt a small piece of stomach lining. To use, soak a thumbnail-sized piece in cool water for 20 minutes, then strain the water into the warm milk. Strong, reliable, free at butchering time.
Acid coagulationLemon juice or vinegar added to hot milk coagulates proteins without rennet — this produces paneer, ricotta-style cheese, and quark. Less complex than rennet cheeses but requires no culture or rennet — just acid and heat.
Fresh cheese (paneer / quark style)
  1. Heat whole milk to just below boiling (90°C). Add acid slowly while stirring — 60ml lemon juice or white vinegar per litre of milk. The milk will curdle, separating into white curds and pale green-yellow whey.
  2. Allow to sit undisturbed 10 minutes. Line a colander with cloth and pour in the curds and whey. The whey drains through; the curds remain.
  3. For soft fresh cheese: season the curds with salt and herbs and eat immediately or refrigerate for up to one week. For firmer pressed cheese: gather the corners of the cloth, twist to form a ball, and press under a weighted board for 1–4 hours depending on desired firmness.
Aged cheese — the basic hard cheese process
  1. Heat milk to 32°C. Add a starter culture — a tablespoon of active kefir, whey from a previous cheese, or purchased mesophilic starter. Allow to ripen 45 minutes.
  2. Add diluted rennet (animal or vegetable). Stir briefly, then leave completely undisturbed for 45–60 minutes. A firm curd forms that cuts cleanly — test by inserting a finger and lifting; the curd should break cleanly, not shatter or smear.
  3. Cut the curd into 1–2cm cubes using a long knife in a grid pattern. Allow to rest 5 minutes, then gently heat while stirring from 32°C to 38°C over 30 minutes. The curds shrink and release more whey — this determines the final moisture content and hardness of the cheese.
  4. Drain the whey (save it — see below). Salt the curds generously (2% salt by weight of curds). Press in a cloth-lined mould under increasing weight — start with 2kg, increase to 10–20kg over 12–24 hours.
  5. Remove from mould. The cheese requires air-drying and regular turning for 1–2 weeks to form a rind. Then wax with beeswax or wrap in cloth rubbed with lard and age in a cool, humid space. Most hard cheeses improve significantly with 2–6 months of aging.
Whey — never discard it
Animal feedWhey is high in lactose, protein, and B vitamins. Pigs, chickens, and dogs all consume it readily and thrive on it. Feed directly or mixed with grain.
Bread and bakingSubstitute whey for water in any bread recipe. Adds protein, improves crust, and deepens flavour. Lacto-fermented whey is especially good in sourdough.
Fermentation mediumWhey contains lactobacillus bacteria from the cheese process. Use as a starter for lacto-fermented vegetables or as an inoculant for new batches of kefir or yoghurt.
FertiliserDiluted 1:5 with water, whey applied to soil adds calcium, potassium, and beneficial bacteria. Particularly useful for brassicas and root vegetables.
Kefir and yoghurt — cultured dairy medicine
Skill 1

Cultured dairy is simultaneously preserved food, probiotic medicine, and a means of converting fresh milk into something shelf-stable without refrigeration. These are among the simplest and most valuable fermented products available.

Milk kefir
  1. Kefir grains are a symbiotic community of bacteria and yeasts held in a polysaccharide matrix — they look like small, irregular white cauliflower florets. Source from an existing kefir maker; once established they self-perpetuate indefinitely and can be shared freely. They are genuinely an heirloom culture.
  2. Add grains (1–2 tablespoons) to fresh whole milk in a glass jar (500ml to 1L). Cover with cloth — the culture is aerobic and needs to breathe. Leave at room temperature (18–22°C) for 24 hours.
  3. Strain out the grains (they do not dissolve — they remain whole and can be reused immediately). The liquid is kefir — tart, slightly effervescent, probiotic-rich. The longer the ferment, the more sour and lower in lactose.
  4. Rinse grains with a little milk (not water) and begin the next batch immediately. Grains not in use can be stored in milk in the fridge for 1–2 weeks between batches.
  5. Kefir contains a broader and more diverse range of probiotic organisms than yoghurt — it is genuinely medicinal for gut health, immune function, and digestion. Its slight alcohol content (0.5–1% from yeast fermentation) is relevant for those who avoid alcohol — negligible but present.
Yoghurt
  1. Heat milk to 85°C and hold for 10 minutes (this denatures proteins for a thicker set). Cool to 43°C.
  2. Stir in 2 tablespoons of existing yoghurt (the live culture). Maintain at 40–45°C for 6–8 hours — wrap in blankets, place in a warm oven with just the pilot light, or use the warm surface of a rocket mass heater. The bacteria ferment the lactose and the milk sets to a gel.
  3. Refrigerate when set. Reserve 2 tablespoons from each batch as the starter for the next. A yoghurt culture maintained this way is self-perpetuating indefinitely.
· · ·
VII
Other Animals
Pig, chicken, goat, rabbit — each one a complete system
The small farm animal matrix — what each brings to the community
Overview
Pig
The supreme waste converter — eats kitchen scraps, dairy waste, whey, garden reject produce, spent grain from brewing, black soldier fly pre-compost. Lard (cooking fat, soap, lubricant, skin care). Leather (pigskin). Manure for biogas. Meat. Bone for glue and char. Bristles for brushes. Everything used. Nothing wasted.
Chicken
Eggs (food, medicine — albumin as clarifying agent, yolk as emulsifier in paint). Meat. Feathers (insulation in quilts and pillows, fly-tying, quill pens). Manure — very high nitrogen, excellent compost activator. Pest control — free-ranging chickens dramatically reduce insect pest pressure in gardens. Eggshells — calcium soil amendment.
Goat
Milk (richer in some nutrients than cow milk, naturally homogenised, often tolerated by those who cannot drink cow milk). Cheese (chèvre and aged goat cheeses). Fibre (cashmere from cashmere goats, mohair from Angora goats — both valuable spinning fibre). Leather (soft, fine-grained). Manure for composting and biogas. Exceptionally suited to browse on scrub — land clearing.
Rabbit
The most efficient meat converter of any common livestock — 4:1 feed-to-meat ratio. Fur (warm, soft — usable in spinning blended with wool). Manure — uniquely cold (not hot), meaning it can go directly onto garden without composting first. High phosphate and potassium. Skins for small leather goods. Easily housed and managed at household scale.
Black Soldier Fly
Not an animal to manage — an ally to invite. Larvae consume organic waste (kitchen scraps, food processing waste, manure) at extraordinary speed — a small colony processes 2kg of waste per day. The larvae themselves are 40% protein, 30% fat — excellent chicken, fish, and pig feed. The residue (frass) is a high-value fertiliser. No feeding required. Self-managing if given the right environment.
Duck
Eggs (larger than chicken, richer yolk — preferred for baking and pasta making). Meat. Feathers and down (the finest insulation available). Pest control — ducks in a garden consume slugs, snails, and insects with enthusiasm. Manure. Suited to the Waikato's wet winters. Require minimal shelter compared to chickens.
Integration: These animals should be thought of as a cascade, not a collection. Kitchen scraps → pig and chickens → their manure → compost and biogas → garden → more kitchen scraps. Whey from cheese making → pig → pork → tallow and leather. Spent brewing grain → chickens → eggs → back to the kitchen. Design the flows first, then acquire the animals.
· · ·
VII·II
Animal Husbandry — Paddocks, Fencing, and Pasture
The infrastructure and management knowledge that determines whether an animal system works or fails
Paddock design — the foundation of a functioning livestock system
Skill 2
"The size and layout of your paddocks determines how much of the land's productive capacity you actually capture, and how hard the animals work against you or with you. A well-designed paddock system is one of the highest-leverage infrastructure investments on any community property."
Rotational grazing — the governing principle
Continuous grazing — leaving animals in the same area permanently — is the single most common cause of pasture degradation. Animals graze their preferred species first and repeatedly, weakening them while allowing unpalatable species to dominate. Pasture is never allowed to fully recover. Soil compaction increases. The productive capacity of the land falls year by year. Rotational grazing — moving animals between paddocks on a planned schedule — allows each paddock to recover fully before being grazed again. This is not a modern invention. It is what herding animals across a landscape naturally produces, formulated as a management system.
Paddock sizing — the calculation

The number and size of paddocks needed depends on stocking rate, pasture growth rate, and the desired rotation length. A basic planning framework for NZ conditions:

  1. Determine your stocking rate: a rough NZ guide is 6–8 dry sheep equivalents (DSE) per hectare on reasonable Waikato pasture. One cow = 6–8 DSE. One goat = 1–1.5 DSE. One sheep = 1 DSE. Calculate total DSE for your animal numbers.
  2. Determine rotation length: how many days before each paddock needs to be grazed again? In spring (fast pasture growth), 21–28 days. In summer drought, 60–90 days. In winter, 80–120 days. Design for your longest expected rotation.
  3. Number of paddocks = rotation length ÷ grazing period per paddock. If animals graze each paddock for 5 days and the rotation is 35 days, you need 7 paddocks minimum. More paddocks give more flexibility.
  4. Paddock shape: rectangular paddocks allow more efficient fencing (less fence per unit area than irregular shapes) and easier stock movement. Long, narrow paddocks work well for strip grazing with temporary fence. Square paddocks are easiest for animals to graze evenly without corners being over or underutilised.
  5. Water access: every paddock must have reliable water. Planning the water system before fencing is essential — a paddock without water is unusable. Gravity-fed troughs from a header tank (filled by the ram pump or micro-hydro system) are the most reliable; troughs on a reticulated system are second-best.
Species-specific requirements
CattleMinimum paddock size for rotational grazing: 0.3–0.5 ha per beast as a rough minimum. Cattle require robust fencing — 4 wire or 5 wire post and rail, or equivalent electric fence (minimum 3 strands). A cow that decides to push through a fence will. Water requirement: 40–80 litres per day per adult beast. Gates wide enough for cattle: minimum 3.5m.
SheepSmaller paddocks viable — 0.1–0.2 ha per sheep in rotation. Sheep require fencing that prevents them going under rather than through — netting or tight batten fencing for permanent boundaries. Electric netting is effective for temporary subdivision. Sheep will find every gap in a fence. Water: 4–8 litres per day. Note NZ facial eczema risk — manage pasture covers to avoid fungal spore concentration in autumn.
GoatsThe most challenging species to contain. A goat considers any fence a puzzle to be solved. Minimum: 5-wire electric fence energised at all times, or stock netting 1.2m high with tight batten spacing. Goats browse rather than graze — they will strip bark from young trees if allowed access. Exclude from any area with valuable trees. Water: 4–6 litres per day.
PigsElectric fence is the primary pig containment — a single strand 20–25cm above the ground is sufficient for well-trained pigs (trained by temporary yard with electric fence before introduction to larger paddocks). Pigs root — any paddock used by pigs will be significantly disturbed. Plan pig paddocks on areas where disturbance is acceptable or desired (pre-cultivation before planting). Water: 10–20 litres per day, plus wallowing access in summer.
Chickens and poultryElectric poultry netting (the most practical mobile fencing for poultry) allows regular rotation — move the flock every 1–2 weeks. This prevents pasture devastation and dramatically reduces disease and parasite pressure. A chicken tractor (a moveable coop and run unit) is the simplest system for small flocks — 1–2 weeks per site, then move.
Mixed species grazingDifferent species exploit different pasture components and carry different parasites. Sheep and cattle grazed together use the pasture more completely than either alone — cattle graze the rough material sheep avoid, sheep graze around the dung pats cattle leave. Importantly, internal parasites are generally species-specific — cattle grazing a sheep paddock and vice versa breaks parasite cycles that devastate single-species systems. Mixed grazing is a pasture management tool, not just space sharing.
Fencing — types, construction, and the right fence for each application
Skill 2$$ Med
Post and wire — the foundation of NZ farm fencing
  1. Posts: standard NZ farm fencing uses treated pine posts (strainer posts: 150mm diameter, 1.8m in ground; line posts: 75–100mm diameter, 600mm in ground, spaced 5–6m apart). Alternatively, mānuka or kānuka posts from community forestry — naturally rot-resistant, zero cost. Post hole digger or a bar and spade for installation.
  2. Strainer assemblies: the structural anchors of any wire fence. A strainer post at each end and corner, braced by a horizontal strainer rail to a second post set back 1.5–2m, with a diagonal strut between them. The tension in the wire is ultimately held by the strainer assembly — it must be solid. A poorly built strainer is the most common cause of fencing failure.
  3. Wire: high-tensile 2.5mm wire (standard NZ farm wire) can carry far more tension than old mild steel wire — fewer wires needed, longer post spacings possible. Standard cattle fence: 7 wires (4 plain, 3 barbed) or 8 plain wires. Standard sheep fence: 7–8 plain wires with closer spacing at the bottom. Barbed wire: effective for cattle, not sheep (wool and hide injuries) and illegal to use as a boundary fence in some situations.
  4. Tensioning: wire must be tensioned to the correct level — too loose and animals push through; too tight and cold weather snaps it. A wire strainer (tirfor or box strainer) applies controlled tension. Tension until the wire sings at a consistent note when plucked — a practical check used by experienced fencers.
Electric fencing — the community's most flexible tool

Electric fencing changed livestock management. A single polywire strand energised at 5,000+ volts provides a psychological barrier that most animals respect after one contact. The capital cost is a fraction of permanent fencing; the flexibility is total. A community with a reliable energiser (solar-powered energiser — runs indefinitely from its own solar panel, no mains connection required) and a reel of polywire can subdivide any paddock in minutes, strip-graze a crop precisely, exclude animals from a specific area overnight, and reconfigure the entire system seasonally.

EnergisersSolar energisers with an integral battery are the correct choice for a community not connected to mains power. Size: energiser joule output must match the total fence length. A 1-joule energiser handles 10–15km of single wire in good conditions. Vegetation touching the wire is the primary cause of poor performance — keep the fence line clear.
Training animals to electric fenceAnimals must be taught to respect electric fence before being managed with it. Confine in a small yard with electric tape as the inner boundary before introduction to larger paddocks. One contact is usually sufficient — animals learn rapidly. An animal that has never encountered electric fence and is turned into a large paddock bounded by a single polywire strand will go straight through it.
EarthingThe most commonly neglected element of electric fence systems. The energiser must be earthed through multiple earth stakes (galvanised steel, 1.2m long, driven fully into moist soil). Poor earthing — particularly in dry summer conditions — reduces voltage dramatically. Add extra earth stakes if performance drops in dry conditions.
Temporary subdivisionStrip grazing with temporary electric fence extracts maximum utilisation from a paddock of standing crops (swedes, kale, fodder beet, tall grass) by allowing animals into small strips daily. This prevents selective grazing, wastage from treading, and allows precise allocation of feed — the difference between running out of winter feed in July and having enough through August.
Gates — sizing and placement

A gate placed in the wrong position is as damaging as no gate at all. Gates should be at the highest point of a paddock corner (reduces mud and wear), accessible from a race or laneway rather than opening directly into a paddock where possible, and sized for the largest equipment that will need to pass through. Farm standard: 3.6m gates for cattle and tractor access, 2.4m for sheep and foot traffic. A continuous gateway race connecting all paddocks to the yards and house eliminates the need to move animals through multiple gates — animals flow easily through a race; they resist when forced through unfamiliar space without clear direction.

Pasture management — growing the feed that grows the animals
Skill 2NZ Specific
Reading pasture cover

Managing pasture by eye — assessing the density, height, and species composition of standing feed — is the skill that separates effective farmers from those who are constantly firefighting. Pasture cover is measured in kilograms of dry matter per hectare (kg DM/ha). A sward at 1,500 kg DM/ha is the minimum entry point for grazing; optimal entry is 2,500–3,000 kg DM/ha for cattle, 1,800–2,200 kg/ha for sheep. Exit cover (the amount left after grazing) should be no lower than 1,200–1,500 kg DM/ha — grazing below this point removes the leaf area the plant needs to regrow, significantly extending the recovery period. A pasture plate meter (a simple device that compresses pasture and reads cover from the compressed height) allows objective measurement. Without a meter, use the palm of the hand pressed onto the pasture surface — if the pasture is level with the back of the hand on a flat surface, it is approximately 1,500 kg DM/ha.

NZ pasture species — what grows and why it matters
Ryegrass and white cloverThe foundation of NZ pastoral farming. Perennial ryegrass provides the bulk of feed; white clover fixes nitrogen (replacing purchased fertiliser) and improves pasture quality significantly. A pasture with 20–30% clover content requires minimal nitrogen input. Maintain clover by managing grazing pressure — overgrazing weakens clover; rank grass growth shades it out. Both conditions produce a grass-dominant pasture requiring nitrogen to maintain production.
Chicory and plantainDeep-rooted species increasingly used in NZ pastoral systems. Drought-tolerant (roots access subsoil moisture), high in minerals, and significantly reduce urinary nitrogen leaching from ruminants. Plantain also has genuine anti-parasitic properties — research confirms it reduces internal worm burden in sheep. Worth including in any new pasture establishment on community land.
KikuyuA warm-season grass that performs well in northern NZ summers when ryegrass goes dormant. Very productive in summer, but low quality and stemmy when mature. Common in the northern Waikato. Manage by grazing before seed head emergence — once stemmy, cattle will refuse it and sheep struggle.
Weed pasture speciesBrowntop, yorkshire fog, and sweet vernal are lower-production species that dominate overgrazed, acidic, or poorly drained soils. Their presence is diagnostic — a predominantly browntop paddock indicates soil pH below 5.5 or persistent pugging damage. Lime (from community lime production, Layer Zero Section X) to correct pH; drainage improvement for wet soils; better grazing management to reduce overgrazing. These underlying causes, not the weed species themselves, must be addressed.
Soil fertility without purchased inputs
  1. Lime: the most important soil amendment for Waikato pastoral land. Most Waikato soils are naturally acidic (pH 5.0–5.5) and respond dramatically to lime application. Community lime production (Layer Zero Section X) provides an ongoing source. Soil test pH annually — target 6.0–6.2 for pastoral systems. Apply at 1–2 tonne per hectare when pH falls below 5.8.
  2. Nitrogen from clover: a well-managed clover-grass sward fixes 100–200 kg N/ha/year — equivalent to significant purchased fertiliser. Maintaining clover content through good grazing management is the highest-leverage fertility strategy available.
  3. Dung and urine return: grazing animals deposit approximately 80% of the nutrients they consume back onto the pasture as dung and urine. Rotational grazing distributes this evenly across the whole paddock rather than concentrating it around gates and water troughs. This return cycle is the foundation of pastoral fertility — it is not free nutrition, but it is efficient recycling of what the system already contains.
  4. Composted manure from housed animals: winter housing produces concentrated manure that can be composted and spread back onto pastures, particularly those that are undersupplied with organic matter. The biochar addition (Layer Zero Section VI) to manure significantly improves its fertility value and reduces nitrogen losses during composting.
· · ·
VII·III
Working Dogs
Stock dogs and hunting dogs — selection, training, and care
The working dog in community context — why they matter
Foundation
"A good heading dog is worth three farm workers for mustering sheep. A good huntaway moves a mob of cattle that two people on foot cannot shift. A good pig dog finds and bails game that would otherwise be invisible in dense NZ bush. A working dog is not a pet with a job — it is a partner in a task, and it deserves to be understood as one."
NZ working dog types
Heading dog (border collie type)Works silently, using eye (sustained, intense gaze) to control stock. Moves at distance from the mob, gathering animals and bringing them toward the handler. The most versatile and intelligent of the working breeds. High energy, high drive, and very biddable — they want to work and respond well to clear handling. Essential for mustering in any paddock system with more than a few animals. The NZ heading dog is typically a border collie or border collie cross.
HuntawayThe quintessential NZ working dog — bred specifically in NZ to drive stock away from the handler by barking. Deep, commanding bark and a working style that pushes animals forward. Used to drive mobs up hills, through gateways, and over distances that would exhaust a heading dog working in silence. A good huntaway and a good heading dog working together — one gathering, one driving — is the most effective stock management combination available.
Pig dogA purpose-selected dog (or cross-breed) used for finding, tracking, and bailing wild pigs in NZ bush. Two types in practice: the finder (typically a lighter, faster dog — a cross with scent hound or greyhound genetics — that locates and bails the pig) and the holder (typically a heavier, more powerful dog that physically holds the pig until the hunter arrives). Pig dogs require specific selection for biddability — an uncontrolled pig dog is dangerous to its handler and to the community. Training and selection for cooperation with the handler is non-negotiable.
Deer and general hunting dogsDogs can be used for tracking and recovering shot deer — a dog that follows a blood trail and locates a downed animal significantly reduces lost game. General pointer and flusher breeds (springer spaniel, labrador crosses) are useful for game bird hunting. Selection for a calm temperament and strong retrieve instinct is the priority — a hunting dog that ranges too far or is unresponsive to recall is a liability rather than an asset.
Stock dog training — the foundations
Skill 2–3
The governing principle
A working dog is trained by shaping behaviour that already exists in the dog's genetics, not by imposing arbitrary commands. A border collie already wants to gather and circle. The trainer's job is to put that instinct under control — to give it direction, timing, and boundaries. Training that works with the dog's instinct is fast and permanent. Training that fights against it is slow, stressful, and fragile. Understanding what the dog is trying to do before deciding how to respond to it is the foundation of all effective dog training.
Starting a young heading dog — the sequence
  1. Do not rush: a heading dog should not be put on stock before 8–12 months of age. Starting too early produces a dog that is overexcited and difficult to control. Allow the pup to mature, develop confidence, and build a strong relationship with the handler through basic obedience before introducing stock.
  2. Basic obedience first: come, sit, stay, and walking quietly on a lead — these are the commands that keep a dog safe and functional before stock work begins. A dog that will not come reliably when called away from stock is dangerous on a farm. Train these thoroughly in low-distraction environments before adding the complexity of stock.
  3. First introduction to stock: use a small mob of quiet, dog-broken sheep in a small yard or round pen. Allow the pup to move naturally — watch what it does without interfering initially. Most heading dogs will begin to orbit the mob instinctively. This is the raw material you are shaping.
  4. The four key commands: come bye (circle clockwise), away to me (circle anti-clockwise), steady (slow down), and lie down (stop). These are the complete vocabulary of stock dog handling. Introduce each command as the dog naturally performs the corresponding action — put the word to the action rather than demanding the action on command before the dog understands it.
  5. Distance and pace: gradually extend the distance at which the dog works. A dog that only works close to the handler is limited utility. The ability to send a dog 200 metres and have it gather a mob accurately takes months of progressive training — there is no shortcut.
  6. Correction: corrections must be immediate (within 2 seconds of the unwanted behaviour), proportionate (a verbal correction for a minor fault; a firmer response for a serious one), and followed immediately by the opportunity to succeed. Corrections that are delayed, excessive, or not followed by success produce a stressed, shut-down dog that is worse to work than no dog at all.
Huntaway training — different approach, same principles

A huntaway works by bark, drive, and confidence — its training emphasises forward movement and vocalisation rather than the quiet, controlled orbiting of a heading dog. Key: the dog must bark on command, move forward into pressure (toward a mob moving away), and be biddable enough to stop when the handler needs it. Huntaways are generally easier to start than heading dogs — their instinct is simpler and less likely to produce the overexcitement that plagues early heading dog training. The basic commands: speak (bark and drive), get back (move toward mob), and that'll do (cease and return). Most huntaways find their voice naturally when they see mob movement — the trainer's job is to channel and control rather than create.

Pig dog training and safety
  1. Selection is training: a pig dog with poor temperament — one that is aggressive to people, other dogs, or unresponsive to its handler — is dangerous. Selection must prioritise biddability and handler-focus above hunting drive. High hunting drive with poor biddability produces an out-of-control dog that is a liability in the bush and around children.
  2. Recall above everything: a pig dog that will not recall off a bailed pig when called is unworkable. Train and proof recall in progressively higher-distraction environments before using the dog on game. A pig dog that will come off a pig on command is a safe and functional tool. One that will not can cause serious injury to itself, the pig, and the hunter.
  3. Graduated introduction to game: begin with tame or penned pigs before hunting wild boar. Allow the dog to build confidence and learn to bail (bark and hold position) rather than tackle. A dog that bails well allows the hunter to approach and dispatch humanely. A dog that immediately tackles may be injured by a fighting boar.
  4. Protective gear: cut-proof vests (commercially available, designed specifically for pig dogs) protect against tusk wounds. A pig dog operating in dense NZ bush without protection will accumulate injuries. The investment in a good vest extends a working dog's career significantly.
Dog health and care — keeping a working dog working
Foundation
NutritionA working dog on a full day of mustering or hunting burns significantly more energy than a dog at rest. Lean body condition is ideal — a dog that is too heavy is slow and overheats; too thin and it lacks the energy reserves for hard days. Feed a high-protein diet appropriate to the work level. Raw feeding (green tripe, offal, and raw meaty bones from community butchering) is entirely appropriate and removes the dependency on commercial dog food — a community that processes its own animals has access to high-quality dog food as a byproduct.
Worms and parasitesWorking dogs in NZ contact stock and wild game regularly, increasing exposure to a range of internal parasites. Drench every 3 months with a combination product. Hydatid tapeworm (Echinococcus granulosus) is a specific NZ concern — dogs that eat raw offal from sheep or cattle can carry hydatids, which are transmissible to humans and cause serious disease. Never feed raw sheep or cattle offal to dogs without freezing for 3+ weeks first (freezing kills the cysts). This is a genuine and well-documented public health risk — take it seriously.
Feet and jointsWorking dogs cover large distances on variable terrain. Check feet after every work day for cuts, thorn penetrations, and worn pads. Toughen pads gradually — don't suddenly require a dog to cover 20km on rough ground if it has been resting. Joint health for heading dogs particularly: hip and elbow dysplasia are common in border collies. Maintain healthy weight, avoid excessive jumping in young dogs (under 12 months), and be aware of lameness as an early sign of joint problems.
Heat stressNZ summer conditions can be dangerous for working dogs, particularly brachycephalic crosses and heavily coated breeds. Avoid mustering in the heat of the day in summer. Provide shade and water access constantly. Signs of heat stress: excessive panting, drooling, disorientation. Treatment: move to shade, apply cool (not cold) water to groin and armpits, allow to drink. A dog that collapses from heat requires urgent veterinary attention.
Hydatid warning — repeat for emphasis: Hydatid disease (caused by Echinococcus granulosus tapeworm) is a serious zoonosis endemic in NZ sheep-farming areas. Dogs acquire the infection by eating raw offal from infected sheep or cattle. Humans acquire it from accidental ingestion of tapeworm eggs in dog faeces. The result in humans is cysts in the liver, lungs, and brain requiring surgery. Drench dogs regularly, do not feed raw sheep or cattle offal without prior freezing, wash hands after handling dogs, and do not allow dogs to lick food preparation surfaces. This is not an abstract risk — it is a documented, ongoing public health issue in NZ rural communities.
· · ·
VIII
Bees
Honey, wax, propolis, mead — and the pollination service that multiplies every other system
Beekeeping fundamentals and the complete bee product system
Skill 2$$ MedNZ AFB
Why bees are foundational
A community without bees is leaving 30–50% of its food production potential unrealised. The pollination service provided by a single healthy hive in a community food garden measurably increases the yield of every fruit, seed, and vegetable crop within a 3km radius. Before the honey and wax — which are genuinely significant — the pollination alone justifies the investment. Add the honey, the wax, the propolis, and the mead, and beekeeping becomes one of the highest-value investments in the entire system.
NZ legal and health context

American Foulbrood (AFB) is a serious bacterial disease of bee larvae that is endemic in NZ. All beekeepers in NZ must be registered with the Ministry for Primary Industries (MPI) and are required by law to inspect hives regularly, report AFB, and destroy infected hives by burning. This sounds more burdensome than it is in practice — registration is free and straightforward. Know the signs of AFB (sunken, discoloured cappings; ropy, foul-smelling larvae) and inspect hives every 6–8 weeks. NZ beekeeping is otherwise relatively straightforward compared to many countries.

Basic hive setup
  1. Choose a hive design: the Langstroth is the most common globally and locally — standardised box sizes make it easy to source equipment and assistance. The Warré (top-bar vertical hive) is simpler to manage and more closely mimics natural colony structure. Either works; Langstroth is easier to find mentorship for in the Waikato.
  2. Source a nucleus colony (nuc) — a small established colony on 4–5 frames with a laying queen — rather than a package of bees or a swarm for your first hive. Nucs are more reliably established and easier for beginners. Source from a local registered beekeeper.
  3. Site the hive: morning sun (east-facing) to warm the hive early and encourage foraging. Protected from prevailing wind. 1m+ clearance in front of the entrance for flight path. Near a water source. Not in a high-foot-traffic area.
  4. Inspect every 6–8 weeks during the active season (spring through autumn). Look for: a laying queen (eggs and young larvae in a consistent pattern), healthy brood (pale cream, plump larvae curled in cells), adequate food stores, signs of disease or pest. NZ's varroa mite is present — treat with approved treatments as part of the management calendar.
  5. Harvest honey only when there is significant surplus — a full super (the upper box where bees store honey beyond their own needs) with capped (wax-sealed) cells. Never take so much that the colony has insufficient stores for winter. A healthy colony needs 15–20kg of honey to overwinter in the Waikato.
Honey — medicine and food
Mānuka honey (UMF-rated)Produced from mānuka nectar. Contains methylglyoxal (MGO) at significant concentrations — a documented broad-spectrum antimicrobial effective against Staphylococcus, Streptococcus, and H. pylori. Applied to wounds directly as a dressing. Taken internally for gastric infections. The higher the UMF rating, the higher the MGO content. Community hives near mānuka regeneration produce this.
General honeyAny raw, unheated honey contains hydrogen peroxide, bee defensin-1 proteins, and low pH — all antimicrobial. Indefinite shelf life when sealed from moisture (archaeological honey thousands of years old has been found viable). Wound dressing, cough medicine, sleep aid, and energy food. A sealed jar of honey is one of the most useful medicine cabinet items possible.
PropolisThe resinous substance bees collect from tree buds and use to seal the hive. Powerful antimicrobial, antifungal, and antiviral. Scrape from hive surfaces and dissolve in alcohol (70% ethanol) to make propolis tincture. Applied to mouth ulcers, skin infections, and taken internally for immune support. Small amounts go a long way — a single hive produces 50–100g of propolis per year.
BeeswaxThe most versatile hive product after honey. Candles (finest quality — burns clean, bright, long). Still sealing (Layer Zero). Wood finish and polish. Leather conditioner. Thread waxing (prevents tangles, strengthens thread for hand sewing). Grafting wax. Cosmetics base. Wax wraps to replace plastic food wrap. Preserve and lubricate wooden tools. A single hive produces 1–2kg of wax per year.
Mead — fermented honey wine
  1. The simplest fermented drink available — honey and water, nothing more. Ratio: 1 part honey to 3–4 parts water for a standard mead (about 12–14% ABV when complete). More honey produces a sweeter, stronger mead.
  2. Dissolve honey in warm (not hot — heat destroys delicate aromatics and enzymes) water. Add yeast when cooled to below 30°C. Wild yeast capture from fruit (see Layer Zero Section III) works well for mead; the result is complex and site-specific. Add a pinch of nutrient (Vegemite or a crushed vitamin B tablet) — honey lacks the nitrogen yeast need and fermentation stalls without supplementation.
  3. Ferment in a sealed vessel with airlock for 4–8 weeks. Mead clears slowly — rack (siphon) off the sediment once settled. Age for minimum 3 months; 12 months produces a significantly finer drink. Mead made with mānuka honey is both a medicinal product and a genuinely fine beverage.
  4. Mead is one of the oldest fermented drinks in human history. Every culture with access to bees has made it. It is medicine, ceremony, and hospitality simultaneously.
· · ·
IX·I
Hunting in Aotearoa
Wild protein is abundant, underutilised, and in most cases actively encouraged — know what is available and how to take it
NZ game — what exists, where it lives, and what the law says
FoundationNZ Specific
"Aotearoa New Zealand has some of the most abundant and accessible wild protein on earth. Deer, pig, rabbit, and possum are present in enormous numbers, actively managed as pests, and free for the taking with minimal regulatory burden. A community that learns to see and take this food has access to a significant protein source that costs nothing but skill and effort."
Key species — Waikato and Hauraki Plains region
Feral pig (Sus scrofa)Present throughout the Waikato hill country and bush margins. No license required. No bag limit. No season. Landowner permission required on private land; open on DOC land under a hunting permit (free, obtained online). Pigs are intelligent, social, and can be dangerous when cornered — particularly sows with young. Exceptional eating: the lean, dark, flavourful meat of a free-ranging pig is significantly better than commercial pork. All bush-edge areas in the Waikato foothills hold pigs. Dogs are commonly used for hunting; spearing and shooting are both effective and legal.
Feral deer (Cervus elaphus, red deer primarily)Present in forested hill country. On private land: landowner permission only, no license. On DOC land: a free hunting permit required (obtained at doc.govt.nz). No license required for private land deer. Red deer are the primary species in the Waikato hill country. Sika deer (Cervus nippon) in the Kaimanawa ranges east of the Waikato. A mature stag dresses to 60–80kg of meat — a significant and free food resource. Hunting season: no closed season for introduced deer in NZ. Dawn and dusk are primary activity periods.
Rabbit (Oryctolagus cuniculus)Abundant on the Hauraki Plains and Waikato farmland. No license, no season, no bag limit — actively encouraged for control. The most accessible protein on farmland. Trapping (kill traps — Timms trap, snap trap) and shooting both effective. Rabbits can be taken year-round and in any numbers. Excellent eating when young; older animals benefit from slow cooking. Populations fluctuate — learn where they concentrate (paddock margins, fence lines, scrub edges).
Possum (Trichosurus vulpecula)Abundant throughout NZ. Actively controlled as a major agricultural and ecological pest. No restrictions on taking. Usually nocturnal — spotlighting effective. Possum meat was eaten historically and is nutritious; the fur is commercially valuable (possum-merino blends are a significant NZ textile product). A community that traps possums for control serves the land and gains both protein and a valuable fibre raw material.
Game birds — pheasant, California quail, paradise shelduckRequire a game bird hunting license and must be taken within the open season (typically May–August). License from Fish and Game NZ. The Waikato region holds reasonable pheasant and quail populations in scrub and farmland margins. Paradise shelduck (pūtangitangi) are common on Waikato farmland — beautiful birds and good eating. License is inexpensive and worthwhile.
Hare (Lepus europaeus)Present on open farmland and high country. No license, no season, no bag limit. Larger than rabbit — a single hare provides significant meat. Strong-flavoured, best slow-cooked or marinated. Taken by shooting or coursing with dogs.
Hunting ethics — the foundation

A hunter who takes an animal has accepted a responsibility: to use it fully, to kill it as quickly and cleanly as possible, and to leave the land no worse than they found it. These are not regulations — they are the ethic that makes hunting sustainable and honourable. Wasting meat, leaving gut piles where they cause problems, taking more than can be used — these are failures of the hunter, not the hunt. Every animal taken should be fully utilised: meat, fat, hide, organs, bone. The whole-animal approach described in the cow system earlier in this document applies equally to wild game.

Field craft — the knowledge that determines success
  1. Reading sign: animals leave evidence of their presence — tracks (learn to identify each species' print in mud and soft ground), scat, rooting sign (pigs), wallows (deer and pigs), rubs on trees (deer), runs through vegetation (rabbits). Finding and reading sign tells you what is present, how recently, and where it is moving.
  2. Wind awareness: most game animals have a far better sense of smell than eyesight. Always approach from downwind — with the wind blowing from the animal toward you. A deer or pig that scents a human at 200 metres will be gone. The same animal at 20 metres that has not caught your scent will stand still long enough for a clean shot.
  3. Movement and noise: slow, deliberate movement. Stop frequently and wait — animals that hear movement often freeze and wait; a hunter who also stops and waits will eventually see them move first. Dry leaves and sticks underfoot are the primary noise problem in bush — learn to place your feet on solid ground.
  4. Dawn and dusk: most game is most active in the hour after dawn and the hour before dusk. In summer, midday finds most animals bedded in shade. Planning around these periods is the single most impactful field craft decision.
  5. Patience over urgency: hunting is primarily waiting and watching rather than moving and searching. A hunter who finds good sign and waits in a downwind position will outperform one who walks all day.
Trapping — passive harvest for rabbits, possums, and small game
Skill 1$ Low

Trapping allows a community to harvest wild protein continuously without requiring the hunter to be present at the moment of harvest. A trap line checked daily or every two days provides consistent small game without significant time investment once established. All kill traps used in NZ must comply with the Animal Welfare (Traps) Regulations — this means approved trap types, correct sizing for target species, and maximum check intervals. The relevant regulations are on the MPI website and should be in the offline library.

Timms trapThe most effective and commonly used kill trap for possums and rabbits in NZ. A spring-loaded device that kills instantly on trigger contact. Lure with apple, carrot, or commercial lure. Place on established runs (paths the animals use regularly — visible as worn tracks through grass or scrub). Must be checked every 24 hours under NZ animal welfare regulations for possums; 12 hours for rabbits where they are the target.
Victor snap trap (rat size for rabbits)Inexpensive, effective for rabbits in runs. Bait with apple or vegetable. Place across the rabbit's run with the trigger across the path. Multiple traps on a single run increase catch rate.
Cage trapsLive capture — allows selective release of non-target species. Less effective per unit than kill traps but appropriate where non-target animal risk is high. Feral cats, stoats, and ferrets may enter traps set for rabbits — cage traps allow release of these animals where kill traps do not.
SnaresWire snares are effective for rabbits on established runs. Simple to make from fencing wire — a loop of approximately 10cm diameter placed 8cm above the ground across a run, supported by a small twig. Legal for rabbits in NZ; the regulations specify minimum wire gauge and loop dimensions. Check every 12 hours.
· · ·
IX·II
Fishing in Aotearoa
Freshwater, coastal, and offshore — the most abundant and accessible protein source in NZ
Freshwater fishing — rivers, lakes, and the Waikato system
Skill 1NZ Specific
NZ freshwater fishing — the licensing reality

Trout (brown and rainbow) require a freshwater fishing license from Fish and Game NZ — available annually or by the week, inexpensive, purchased online. This is non-negotiable and enforced. Eels (tuna) are a different matter: taking eels for personal consumption from private land is generally permitted without a license — check regional rules. Koi carp and other pest fish can be taken without restriction and are in fact encouraged to be removed. The Waikato River system and its tributaries hold significant populations of brown trout, rainbow trout, and eels — all excellent eating.

Brown and rainbow troutPresent throughout the Waikato system and in countless hill country streams. Brown trout prefer slower, deeper pools and undercut banks; rainbow trout prefer faster, more oxygenated water. Both feed actively at dawn and dusk. Fly fishing is the traditional method — a deeply satisfying skill worth learning. Spinning with lures is simpler and equally effective. Minimum size limits and bag limits apply — check Fish and Game NZ regulations for the specific waterway.
Eels (tuna — longfin and shortfin)Both species present throughout the Waikato system. Longfin eel (Anguilla dieffenbachii) is a taonga species of cultural significance to Māori and should be treated with respect — take only what is needed, release large females (longfin females can live 80+ years and are slow to reproduce). Shortfin eels are more abundant and faster-reproducing. Eels are excellent eating — rich, fatty flesh that smokes beautifully. Caught on baited hooks (worm, fish offal) at night. An eel pot (a funnel trap in the water) is traditional and effective.
Koi carpAn invasive pest species now widespread in the Waikato lowland waterways. No limit, no license, actively encouraged to remove. Edible but requires preparation — the muddy flavour is reduced by bleeding immediately and soaking in clean water. Better smoked. Remove and kill on capture — it is illegal to release koi carp back into the waterway.
Freshwater crayfish (kōura)Native freshwater crayfish present in cleaner Waikato streams and hill country waterways. Bag limit applies — check regulations. Excellent eating. Caught in small funnel traps baited with fish scraps, or by hand at night with a torch (they are photophobic and freeze in light). A significant food source that most people overlook completely.
Coastal and sea fishing — no license required

Sea fishing from the NZ coastline requires no license for recreational harvest. Bag limits and size limits apply for most species under the Fisheries Regulations. The west Waikato coastline (Raglan, Whaingaroa, and the surrounding area) offers excellent surfcasting, rock fishing, and estuary fishing for snapper, kahawai, trevally, flounder, and shellfish. The Waikato region's position means the Firth of Thames is within reach — a productive estuary system for flounder, mullet, and shellfish.

Snapper (tāmure)The most sought-after NZ inshore fish. Present year-round but more accessible in summer. Surfcasting from beaches and rock platforms, or from a small boat. Bag limit: 9 per person per day outside the Hauraki Gulf Special Management Area. Size limit: 27cm. Feed on shellfish, crab, and small fish — baited ledger rigs or soft baits both effective.
KahawaiAn abundant schooling fish present year-round. Excellent eating when bled immediately and eaten fresh — often dismissed but genuinely good quality. Takes lures readily — one of the easiest fish to catch. No bag limit. Rich in omega-3 oils. Smokes exceptionally well.
Flounder (pātiki)Found in estuaries, harbours, and sandy beaches. The Firth of Thames margins and Raglan Harbour both hold good flounder populations. Caught by wading at night with a torch and spear (legal in NZ), or on baited bottom rigs. Bag limit: 20 per person. Excellent pan fish.
ShellfishPipi, tuatua, cockles, mussels, and paua are all present on accessible NZ coastline. Bag limits apply — the standard limit for most shellfish is 50 per species per person per day for combined household use. Shellfish are among the most nutritious and calorie-dense foods per unit of effort available — gathering shellfish at low tide is genuinely productive foraging. Avoid areas with sewage discharge or red tide (shellfish toxin — phytoplankton bloom poisoning, real and serious).
Improvised fishing gear — when commercial equipment is unavailable
  1. Hand line: the simplest possible fishing setup — a length of line wound on a frame (wood, a bottle, anything), a hook, a sinker, and bait. Effective from any elevated position over water. No rod required. The hand line was the primary fishing method of most of human history and remains completely functional.
  2. Hook making: a hook can be carved from bone, wood, or bent wire (a straightened safety pin works for small fish). Traditional Māori matau (fish hooks) were carved from bone and shell — highly effective designs that have been refined over centuries. The carved bone hook is a legitimate community skill worth learning and preserving.
  3. Fish trap (hinaki): a funnel-shaped basket woven from harakeke, supplejack, or wire, placed in a stream or estuary with bait inside. Fish enter easily through the funnel but cannot find their way back out. The hinaki is a traditional Māori fishing technology of high effectiveness — a set trap requires no active fishing effort. Check daily.
  4. Net making: gill nets (panels of mesh that entangle fish by the gills) can be woven from any strong fibre — nylon, hemp, or braided natural cordage. Mesh size determines the size of fish taken. Gill nets are regulated in freshwater (prohibited in most situations) but are a traditional coastal and estuarine tool. Understanding the technology matters regardless of current regulation.
· · ·
IX·III
Foraging in Aotearoa
Wild food is everywhere — learning to see it is the primary skill
NZ wild food — edible plants, fungi, and coastal harvest
Skill 1NZ Specific
The first rule of foraging
  • Never eat anything you cannot positively identify. Positive identification means: you have confirmed the species using multiple characteristics (not just one), you have cross-referenced with a reliable field guide, and you are certain — not fairly sure. When in doubt, leave it out. NZ has few truly deadly plants but several that cause serious illness. Learn a small number of species with absolute certainty rather than a large number imperfectly.
  • Download and store offline: Andrew Crowe's "Which Native Forest Plant?" and "Field Guide to the Native Edible Plants of New Zealand" — the standard NZ references. Also: "Foraging New Zealand" by Peter Langlands. These should be in the community's offline library.
Reliable edible natives — Waikato and wider NZ
Kawakawa (Piper excelsum)The most recognisable and useful native edible. Heart-shaped leaves with holes (made by the kawakawa looper moth — the holes are a sign of a healthy, potent plant). Leaves used as a flavouring (peppery, aromatic) in cooking, tea, and fermentation. Medicinally significant — anti-inflammatory, analgesic. Grows in moist, shaded bush throughout the Waikato. Use the holey leaves freely — they are the most bioactive.
Harakeke (Phormium tenax) — NZ flaxThe young flower stalks and the nectar-rich flowers are edible. Nectar from the flowers was historically an important sugar source for Māori. The root and leaves are not edible — only the flower and stalk. Flax is extremely abundant in the Waikato. Harvest flower stalks before they open fully for the best nectar concentration.
Tī kōuka (cabbage tree, Cordyline australis)The growing tip (heart) of young plants is edible — crisp, slightly sweet, eaten raw or cooked. The young leaves can be cooked as a vegetable. The berry is small and not significant as food. Cabbage trees are abundant throughout the Waikato, particularly in wet areas. Harvesting the heart kills the plant — take only where plants are abundant and leave the majority.
Pikopiko (Deparia petersenii, hen and chicken fern)The young, tightly coiled fronds (fiddleheads) of this native fern are edible when gathered just as they emerge. Lightly steamed or sautéed. Found in moist, shaded forest areas. Historically an important Māori food. Learn to identify accurately — other fern fiddleheads are not edible.
Watercress (Nasturtium officinale)Introduced but naturalised throughout NZ waterways including the Waikato. Peppery, nutritious, high in vitamins C and K. Grows in and beside running water. Harvest upstream of any agricultural land to avoid nitrate and bacterial contamination — always wash thoroughly. One of the most nutritionally dense and abundant wild greens available.
Puha (Sonchus oleraceus, sow thistle)Introduced, abundant, and highly nutritious. Eaten extensively by Māori and early settlers. The young leaves before flowering are best — less bitter. Blanch in hot water to reduce bitterness if needed. Present on disturbed ground, roadsides, and garden margins throughout the Waikato. Extremely high in vitamins and minerals. One of the most accessible and overlooked wild vegetables available.
Karaka (Corynocarpus laevigatus)The orange fruit of the karaka tree is edible after preparation — the kernel contains karakin, a toxic compound, and must be prepared correctly (traditional Māori method: boiling and long soaking). The prepared kernel (kōpī) was a significant food source. The raw fruit flesh (not the kernel) is edible. This is included because the tree is common in NZ bush and the food value is significant — but the preparation requirement must be followed exactly.
Wild fungiNZ has few edible native fungi of significance, but several introduced species have established. Field mushroom (Agaricus campestris) — common on Waikato farmland in autumn. Puffballs (Lycoperdon species) — edible when young and entirely white inside. Oyster mushroom (Pleurotus species) — on decaying timber. Learn each species with absolute certainty before consuming. NZ has no Amanita phalloides (death cap) — but does have some Amanita species of varying toxicity. The golden rule applies particularly to fungi.
Introduced edibles — widely naturalised in NZ
Blackberry (Rubus fruticosus)Abundant throughout NZ, particularly on Waikato roadsides and margins. Fruit in late summer–autumn. Weed status means harvesting is encouraged. High in antioxidants. Also: boysenberry and related Rubus species similarly naturalised.
Elder (Sambucus nigra)Elderflower (spring) and elderberry (late summer) both edible. Elderflower for cordial, fritters, and flavouring. Elderberry for syrup, wine, and medicinal use (genuinely effective antiviral). Present in Waikato hedgerows and margins. Note: raw elderberries cause nausea — cook before consuming.
Fennel (Foeniculum vulgare)Naturalised along roadsides throughout NZ. All parts edible: leaves, stems, seeds, and root. Anise-flavoured. Seeds are a valuable spice. Young leaves useful as a herb. One of the most accessible and useful naturalised edible plants.
Rosehip (Rosa canina and relatives)Hips from wild roses after first frost — extremely high in vitamin C (20 times more than oranges per gram). Found in Waikato hedgerows and margins. Hips for tea, syrup, jam, and dried fruit. Remove the seeds and hairs inside (they irritate mucous membranes) before consuming or straining the preparation.
· · ·
IX·IV
Butchery — from whole animal to table
Field dressing, skinning, and breaking down any animal taken
Field dressing — the first and most time-critical step
Skill 1
Why speed matters
The quality of meat from any animal depends primarily on what happens in the first hour after death. Body heat is the enemy — bacteria multiply rapidly in a warm carcass, and the digestive contents, if perforated, contaminate the meat. Field dressing (removing the internal organs) removes the primary heat and contamination sources. In NZ's climate, a carcass in bush in summer will spoil within 2–4 hours if not dressed. Cool conditions extend this, but the principle always applies: dress as quickly as possible after the kill.
  1. Ensure the animal is dead — approach carefully from behind. A deer or pig that is only wounded can cause serious injury.
  2. Bleed immediately: cut the throat or sever the major neck vessels to allow rapid blood drainage. Hang the animal head-down if possible — gravity assists drainage significantly.
  3. Position on its back. Make a careful incision from the sternum to the pelvis — shallow enough to cut only skin and abdominal muscle, not the digestive organs beneath. Circle around the anus and genitals, cutting them free without puncturing the rectum.
  4. Reach inside and sever the diaphragm. Reach forward into the chest cavity and sever the oesophagus and windpipe as far forward as possible. All organs should now be free. Roll the animal to allow everything to fall clear.
  5. If the stomach or intestine is punctured — work around the contaminated area, remove the organs as cleanly as possible, and flush the contaminated area thoroughly with clean water. Contaminated meat is not necessarily lost — trim away the affected tissue.
  6. Prop the chest cavity open with a stick to allow cooling. Remove to shade immediately. In warm conditions, get the carcass into cool air within 30 minutes of dressing.
  7. Save the heart, liver, and kidneys — these are the most nutritionally dense parts of any animal. Wrap separately in cloth and carry out with the carcass. The liver should be consumed within 24 hours; kidneys within 48 hours. Heart keeps similarly to muscle meat.
Skinning and quartering for transport
  1. For deer and pigs: hang by the hind legs from a branch or game pole if possible. This positions the animal for efficient skinning and keeps the meat off the ground. Work the skin away from the carcass using the fist between skin and membrane rather than the knife — this preserves the membrane that protects the meat and keeps the skin clean for tanning.
  2. Quarter large animals for transport: separate the hind legs at the hip joint, the front legs at the shoulder, and split the backbone to produce two sides. Each quarter is a manageable carry weight. A large red stag can be 120–150kg live weight — quartering before carry-out is essential for solo or two-person hunting.
  3. Cooling in the field: if the carry-out is more than a few hours, place the quarters in breathable cloth game bags to keep flies off while allowing air circulation. Hang in the shade at the highest available point — even a few metres of elevation provides cooler air in NZ bush.
Breaking down a carcass — primal cuts
  1. Hang the dressed carcass for 3–7 days in a cool (below 10°C), airy space before butchering — ageing tenderises the meat through natural enzymatic processes. A shed or cool room in winter, or the community cold storage, is ideal. Skip ageing only if the weather is too warm to hold the carcass safely.
  2. The major cuts from deer or pig follow the same logic as cattle (Living Systems Section II): hindquarter (leg, rump — roasting, slow cooking), loin and backstrap (the most tender, finest cuts — grill or pan-fry quickly), shoulder (slow cooking, braise, pulled), ribs (slow cook or smoke), neck (mince or braise).
  3. Mince trimmings, connective tissue scraps, and secondary cuts — game mince is excellent for sausages, pies, and bolognese-style dishes. Nothing is wasted. Bones go to the pot for stock. Fat is rendered for cooking lard or tallow (the same process described in Section III of this document for beef tallow).
  4. For small game (rabbit, hare): skin, remove head and feet, gut. The whole process takes under 5 minutes with practice. Joint into saddle, two hind legs, two front legs — these are the serving pieces. Rabbit is best slow-cooked or braised; hare requires marination to manage the stronger flavour.
· · ·
IX·V
Archery, Bowery, and Arrow Craft
A hunting tool, a traditional craft, and a skill worth preserving — from traditional to modern
Archery in NZ — legal position and hunting application
FoundationNZ Law

Bows and crossbows are entirely legal to own and use in New Zealand. No licence, registration, or permit is required. A bow is not a firearm under the Arms Act 1983 and is not subject to any of the licensing requirements that apply to firearms. Archery for hunting on private land requires only landowner permission — the same requirement as any other hunting method. On DOC land, the standard free hunting permit applies regardless of method. Bowhunting is a legitimate, legal, and increasingly practised hunting method in NZ — it requires closer range and greater field craft than rifle hunting and is in many ways a more demanding and rewarding skill.

Archery as a community skill

The bow has been a primary hunting and food procurement tool for at least 70,000 years across every human culture. Its value for a community is not primarily as a hunting tool — though it is effective for that — but as a skill that connects the community to a deep lineage of human technology, that requires and develops patience, focus, and body awareness, and that can be produced entirely from community materials using the bowery skills described below. A community that can make its own bows and arrows from its own timber, sinew, and fletching is genuinely self-sufficient in this tool in a way that is impossible with firearms.

Archery basics — form, technique, and developing accuracy
Skill 1
The fundamentals — these apply to any bow
  1. Stance: stand perpendicular to the target, feet shoulder-width apart, body relaxed. For right-handed archers, left shoulder faces the target. Weight distributed evenly. Do not lean forward or back — a stable, relaxed stance is the foundation of every accurate shot.
  2. Grip: hold the bow loosely in the bow hand — a tight grip causes the bow to torque on release, throwing the arrow left or right. The bow sits across the meat of the thumb and the base of the index finger. After release, a correctly gripped bow falls forward slightly — do not grab it.
  3. Draw and anchor: draw the string back to a consistent anchor point on the face — typically the corner of the mouth, the cheekbone, or under the chin depending on the style. Consistency of anchor point is the single most important factor in accuracy. The same anchor every time means the same shot every time.
  4. Aim: with a sight, align the sight pin on the target. Without a sight (instinctive shooting), focus on the target rather than the arrow — the same way you focus on where you want to throw a stone, not on your hand. Instinctive shooting takes longer to develop but is faster and more adaptable in hunting conditions.
  5. Release: do not pluck or snatch the string — relax the drawing fingers while maintaining back tension. The string leaves smoothly. A good release feels as though the string escaped rather than being let go. Follow through: hold your position after release until the arrow hits the target. Dropping the bow arm immediately is a common fault that pulls the arrow low.
  6. Practice routine: dry-fire (draw and release without an arrow — never with a recurve or compound bow, which can be damaged) to build muscle memory without using arrows. Shoot at close range (5–10 metres) until consistent, then move back. Distance is irrelevant until form is correct at close range.
Bowhunting — additional field considerations

Effective bowhunting range for deer and pigs is typically 20–40 metres — significantly closer than rifle hunting. This requires much more thorough field craft: better scent control, more patience, and the ability to wait for an animal to present a clean shot angle (quartering away or broadside — never head-on). The reward is a more demanding and more intimate form of hunting. Arrow placement for a clean kill: aim for the heart-lung area behind the front shoulder — a well-placed broadhead arrow kills quickly and humanely. Always follow up a shot animal carefully — a hit deer may run 50–100 metres before going down.

Traditional bowery — making a bow from NZ timber
Skill 3$ Free
The wood and the design
A bow works by storing elastic energy in the limbs when drawn and releasing it into the arrow on release. The wood must withstand both compression (belly — the side facing the archer) and tension (back — the side facing the target) simultaneously. Different species handle these stresses differently. The ideal bow wood is a species that combines good compression strength in the heartwood with good tension strength in the outer sapwood — the classic self-bow design uses both layers of the tree in the same stave.
NZ timber options for bow-making
Mānuka (Leptospermum scoparium)The best traditional NZ bow wood. Dense, strong, with good compression and tension properties. Used historically in NZ for tool handles and implements requiring strength. Slow-grown mānuka from exposed sites (harder, denser) is superior to fast-grown lowland mānuka. Harvest straight-grained staves from stems 6–10cm diameter. Air dry for 6–12 months before working — green wood cannot be shaped into a bow.
Kānuka (Kunzea ericoides)Similar to mānuka but slightly more flexible. Also suitable and equally available in the Waikato. Often grows alongside mānuka and can be used interchangeably for bow-making purposes. The same harvesting and drying process applies.
Exotic alternatives in NZOsage orange (Maclura pomifera) is the gold standard of bow woods globally and is naturalised in some NZ areas. Black locust (Robinia pseudoacacia) — widely naturalised in NZ, excellent bow wood. Yew (Taxus baccata) — the traditional English longbow wood, present in some NZ plantings. Any of these, where accessible, are excellent alternatives to native species.
Making a basic self bow
  1. Select and split a stave: find a straight-grained section of mānuka or kānuka, 100–130cm long, free of knots in the working section. Split (rive) along the grain with a froe or hatchet — a riven stave is far stronger than a sawn one because the grain runs continuously without interruption. The back of the bow (the side that will face the target) should follow a single growth ring — do not cut through growth rings on the back.
  2. Rough shape: use a drawknife, spokeshave, or coarse rasp to bring the stave to a rough bow shape — wider and thicker at the handle, tapering evenly toward both tips. The limbs should be symmetric — measure both limbs from the handle and remove equal amounts from each.
  3. Tillering — the critical skill: bend the bow gently over a tillering stick (a notched board that holds the handle while you pull the string to check bend). The bow should bend in a smooth, even curve along its full length. If one section bends more than the rest, remove wood from the stiffer sections on each side of it — never from the overbending section itself. Work slowly in small increments. A bow that is tillered too quickly breaks. Work to a target draw weight of 30–50lb for a beginner hunting bow.
  4. Final shaping and finishing: sand progressively to 220 grit. Apply linseed oil (raw, not boiled) as a preservative — multiple thin coats, each allowed to penetrate fully before the next. The oil prevents moisture cycling that causes cracking.
  5. String the bow: traditional bowstrings from twisted plant fibre (flax, hemp, nettle) or sinew. Modern: Dacron or Fast Flight string material from archery suppliers. String length to produce 15–18cm of brace height (the distance from the bow handle to the string at rest). Too low a brace height — string slaps the arm and arrow flight is poor. Too high — reduced cast (power).
Reference to download: "The Traditional Bowyer's Bible" (3 volumes) — the definitive English-language reference for bowery. "The Art of Making a Self Bow" by Jim Hamm — more accessible entry-level text. Both available on archive.org — download to the offline library.
Arrow crafting — shaft, fletching, nock, and point
Skill 2$ Low
Arrow shaft — wood selection and preparation

A good arrow shaft must be straight, stiff enough to handle the bow's power without collapsing, and consistent in diameter and weight. Traditionally: straight-grained timber dowels (pine, cedar) riven and straightened, or natural shoots from species that produce naturally straight growth (hazel, dogwood, river reed, toetoe). In NZ, toetoe (Austroderia species — the native pampas) produces excellent natural arrow shafts — the flowering stems are straight, lightweight, and of suitable diameter. Harvest in late summer before the seed head fully opens. Dry completely before fletching.

  1. Straighten shafts: heat gently over coals or in an oven (not flames) while applying bending pressure. Wood becomes plastic when hot and holds the corrected shape on cooling. Work in small increments — straightening is easier in stages than all at once. Test by rolling the shaft on a flat surface — any bend is immediately visible as a wobble.
  2. Spine (stiffness): the arrow must be matched to the bow's draw weight. Too stiff an arrow deflects to the left of the target (for a right-handed archer); too weak an arrow deflects right. A rough guide: a 30–40lb bow suits an arrow of 5–6mm diameter from most woods. Spine matching is refined through shooting — adjust shaft diameter or wall thickness until arrows fly straight.
  3. Nock: a notch at the back end of the arrow that engages the bowstring. In traditional arrows, cut directly into the wood — a simple slot 3–4mm wide and 5–6mm deep, perpendicular to the grain of the wood (if the nock splits the grain, it will crack). A reinforcing wrap of sinew or thread prevents splitting.
  4. Fletching: three feathers (or modern plastic vanes) attached at the nock end to stabilise the arrow in flight. Traditional fletching uses primary flight feathers split along the quill — the curved side of the feather must all face the same direction (all left-wing or all right-wing feathers on one arrow — mixing causes spin inconsistency). Attach with hide glue (from the Layer Zero adhesives section) and a thread wrap. Modern: hot-melt glued plastic vanes are faster and weather-resistant.
  5. Point: a sharpened wooden point works for small game and practice. Knapped stone (obsidian or flint where available — NZ obsidian from Tūhua/Mayor Island) produces a genuinely sharp hunting point using the same flintknapping skills described in traditional stone tool making. Modern: commercially available field points and broadheads screw onto threaded inserts glued into the shaft end — far simpler and more reliable for hunting. Stock a supply of broadheads in the community stores.
Crossbow construction and use

A crossbow is mechanically a bow mounted horizontally on a stock, with a trigger mechanism that holds the drawn string until released. It requires less upper body strength than a traditional bow, holds the draw indefinitely without muscle fatigue, and can be aimed in the manner of a rifle — making it more accessible for more community members, including those with physical limitations that make a traditional bow difficult. Modern crossbows from sporting goods stores are effective hunting tools and require no licensing in NZ. Traditional crossbow construction follows the same principles as the self-bow for the prod (the horizontal bow element) — the stock and trigger mechanism are woodworking projects within the capability of the community workshop.

· · ·
IX
Fermentation
The complete technology platform — preservation, nutrition, medicine, and transformation
Fermentation as a technology — what it actually is
Foundation
"Fermentation is not a technique for making alcohol and sauerkraut. It is the oldest biotechnology in human history — the deliberate cultivation of microbial communities to transform food, produce medicine, preserve harvests, generate fuel, and manufacture materials. Every culture in human history has practised it. Its absence from modern life is recent, abnormal, and costly."
What fermentation does that cooking cannot
Heat destroys. Fermentation transforms. Cooking kills bacteria and denatures proteins. Fermentation uses bacteria and fungi to create new compounds: vitamins not present in the original food, enzymes that unlock nutrients otherwise unavailable, organic acids that preserve and protect, alcohols that extract medicine, and flavour compounds of extraordinary complexity. Fermentation increases the nutritional value of food, extends its shelf life, makes it safer, and often makes it medicinal. It requires no heat, no equipment beyond a vessel, and no inputs beyond time and the correct microbial culture.
The fermentation spectrum — by microbial community
Lacto-fermentation
Lactobacillus and related bacteria
Salt + vegetables + time. No starter needed — the bacteria live on the vegetable surface. Produces lactic acid which preserves and transforms. The foundation of sauerkraut, kimchi, pickles, kvass, and hundreds of regional traditions. Increases vitamin C and B vitamins. Pre-digests starches. Creates a probiotic-rich food from any vegetable.
Alcoholic fermentation
Saccharomyces and wild yeasts
Yeast converts sugars to ethanol and CO2. Applies to any sugar-containing substrate: fruit (wine, cider), grain (beer, kvass), honey (mead), tubers (chicha), sap (palm wine). The alcohol is simultaneously a preservation agent and a medicinal solvent. Covered in depth in Layer Zero Section XVI and the Distillation section of The Practical Guide.
Acetic fermentation (vinegar)
Acetobacter bacteria
A two-stage process: first alcoholic fermentation produces ethanol, then acetobacter converts ethanol to acetic acid in the presence of oxygen. The result is vinegar — preservation agent, medicine, cleaning agent, pH adjuster, and flavour. Covered in depth in Section X of this document.
Mould fermentation (koji)
Aspergillus oryzae and related moulds
The most transformative fermentation category. Koji mould produces powerful enzymes (amylases, proteases, lipases) that break down starches to sugars, proteins to amino acids, and fats to fatty acids — unlocking nutrition and creating umami flavour compounds in extraordinary depth. The basis of miso, soy sauce, sake, amazake, and shio koji. One of the most significant additions to any community food system.
Tempeh
Rhizopus oligosporus mould
A single mould transforms cooked legumes or grains into a complete protein food with a firm, sliceable texture. Tempeh from soy, chickpeas, hemp seeds, or grains is one of the most efficient protein production methods available. The mould also produces vitamin B12 — rare in plant foods — making tempeh one of very few complete plant-based protein sources. More in depth below.
Combucha and jun
SCOBY — symbiotic bacterial/yeast culture
A rubbery cellulose culture (SCOBY) ferments sweet tea into an acidic, lightly effervescent, probiotic drink. Kombucha uses black or green tea with cane sugar. Jun uses green tea with honey. Both produce B vitamins, organic acids, and probiotic organisms. The SCOBY is self-perpetuating and shares freely once established.
Koji — the enzyme factory that transforms grain and protein
Skill 2
Why koji matters
Koji is Aspergillus oryzae — a mould cultivated across East Asia for at least 9,000 years. It produces enzymes of extraordinary power: amylases that convert starch to sugar (enabling fermentation of grains without malting), proteases that break protein into amino acids (creating umami and accelerating digestion), and lipases that transform fats. Koji is the basis of miso, sake, soy sauce, and amazake. It also has direct modern applications: koji-aged meat (produces deep flavour in days rather than years), shio koji (a seasoning paste that tenderises and flavours simultaneously), and fermented grain pastes that function as a nutrient-dense condiment. It is arguably the most useful single fermentation organism a community can cultivate.
Growing koji
  1. Source Aspergillus oryzae spores (koji-kin). Available from homebrew and Japanese cooking suppliers. Once established, spores can be harvested from each batch to inoculate the next — the culture is self-perpetuating.
  2. Cook and cool grain or legumes — rice, barley, wheat berries, oats, or soybeans. The substrate must be fully cooked but not wet — surface moisture prevents the mould from growing correctly.
  3. Mix cooled grain with a small amount of koji-kin spores (approximately 1g per kg of grain). Spread in a shallow tray to 3–4cm depth. The mould needs oxygen throughout — do not pack deeply.
  4. Maintain at 28–33°C with high humidity (70–80% RH) for 40–50 hours. A blanket-wrapped box with a small water tray inside maintains these conditions without electricity. The mould produces its own heat as it grows — monitor temperature carefully after the first 24 hours and provide ventilation if it climbs above 40°C.
  5. Finished koji is covered in white mycelium and has a sweet, floral, chestnut-like aroma. It should feel warm and have a slightly crispy surface. Use immediately or dry and store — dried koji keeps for months.
Miso — long-aged fermented paste
  1. Mix cooked, mashed soybeans (or chickpeas, lentils — any cooked legume) with grain koji and salt. Standard ratio: 1kg cooked beans, 500g rice koji, 200g non-iodised salt.
  2. Mix thoroughly until a uniform paste. Pack into a crock or jar with no air gaps — press firmly to eliminate air pockets. Spread a thin layer of salt on the surface to prevent surface mould. Cover with plastic wrap pressed directly onto the paste surface, then weight the top.
  3. Allow to ferment at room temperature for minimum 3 months (white miso) to 1 year or more (darker, complex red or mugi miso). The longer the ferment, the deeper and more complex the flavour. The miso is ready when it tastes savoury, complex, and pleasant — no right or wrong endpoint.
  4. Miso is a complete protein and probiotic food in a single paste. It stores indefinitely in a cool place. A spoonful in hot water is a medicinal broth. It seasons grain dishes, vegetables, soups, and dressings. A community with a steady miso production culture has a continuous supply of deeply nourishing, shelf-stable fermented protein.
Amazake — fermented grain drink
  1. Mix warm cooked rice (or other grain) with grain koji at a 1:1 ratio. Keep warm at 55–60°C for 8–10 hours (a thermos, a hay box, the warm surface of a rocket mass heater). The koji enzymes convert the starch to sugars, producing a sweet, porridge-like drink.
  2. Amazake is non-alcoholic (or very low alcohol) — it is the sweet stage before yeast fermentation would produce sake. Drink warm as a nourishing, naturally sweet energy food. High in glucose, B vitamins, and easily assimilated nutrients. Traditional Japanese recovery food given to the ill and elderly.
  3. If left to continue fermenting with added yeast, amazake becomes sake — the traditional Japanese rice wine. The same process with barley or wheat produces a grain beer without requiring hops.
Tempeh — complete protein from legumes and grains
Skill 1$ Free once established
Tempeh and hemp: Hemp seeds are an excellent tempeh substrate. Hemp tempeh produces a complete protein food from the same plant already being grown for oil, fibre, and animal feed — adding another closed loop to the hemp system.
  1. Source Rhizopus oligosporus spores — available from the same homebrew suppliers as koji-kin, or online. Once you have an active batch, scrape some of the white mycelium from the surface and dry it on rice flour for future use as your own spore culture.
  2. Prepare substrate: for soy or chickpea tempeh — soak dried beans overnight, dehull by rubbing between palms and rinsing (the hull inhibits mould penetration), cook until just tender but not mushy. For hemp tempeh — use hulled hemp seeds (available commercially or hull by soaking and rubbing). For grain tempeh — cook grain to just cooked, not soft.
  3. Spread cooked substrate on a clean cloth or tray and allow to cool and surface-dry completely. Moisture on the surface causes bacterial rather than fungal growth — the enemy of good tempeh.
  4. Mix in spores thoroughly: approximately 1g spore powder per kilogram of substrate. Mix until every surface is inoculated.
  5. Pack into perforated bags (poke holes every 2–3cm in a zip-lock bag or banana leaf wrap) to 2–3cm thickness. The holes allow oxygen in — Rhizopus is strictly aerobic. Without oxygen flow the mould dies and bacteria take over.
  6. Ferment at 28–32°C for 24–48 hours. At 24 hours, white mycelium begins to appear. At 36–40 hours, the substrate is fully bound by white mould into a firm, sliceable cake. A slight ammonia smell is normal at this stage — it dissipates with cooking.
  7. Use fresh (fry slices in tallow or oil until golden — exceptional), steam, or store refrigerated for up to one week. Fresh tempeh freezes well for longer storage.
  8. Tempeh is the most protein-dense and nutritionally complete plant food available to a community. It contains all essential amino acids, vitamin B12 (in traditionally made tempeh), significant iron, calcium, and is pre-digested by the mould's enzymes — making it highly bioavailable even for people with compromised digestion.
Traditional grain ferments — kvass, injera, and beer from first principles
Skill 2
KvassThe oldest Slavic fermented grain drink. Soak stale bread (any bread — sourdough rye is traditional) in warm water. Add a small amount of sourdough starter or allow wild capture over 24 hours. Ferment 1–3 days until pleasantly sour and lightly fizzy. Low alcohol (0.5–1%). High in B vitamins. Both food and drink. A use for bread that would otherwise go to waste.
Injera batterThe Ethiopian and Eritrean staple — a large, spongy sourdough flatbread fermented from teff (or any grain flour) for 2–3 days. The fermentation dramatically increases iron bioavailability and produces a probiotic-rich, naturally gluten-modified product far more digestible than unfermented grain. Cook on a hot flat stone or cast iron pan. Doubles as plate, utensil, and food.
Traditional grain beerAny malted (sprouted and dried) grain can be fermented into a nutritious, low-alcohol drink. The sprouting process converts starch to fermentable sugars — no koji needed. Mash in hot water at 65°C for 1 hour, strain, cool, ferment with wild yeast or sourdough starter. Traditional beer globally was consumed as a nutrient-dense food beverage (1–3% alcohol) rather than the higher-alcohol product it has become commercially.
Fermented porridge (ogi, uji)Grain soaked and ground, then allowed to ferment for 1–3 days. The fermentation reduces anti-nutrients (phytic acid which binds minerals), increases B vitamins, and makes the porridge more digestible and nutritious than unfermented grain. Widely practiced across Africa and Asia. Particularly valuable for young children, the elderly, and anyone with compromised digestion.
Natto — the simplest and most nutritious fermented soy
Skill 1

Natto requires only Bacillus subtilis — a common soil bacterium — and cooked soybeans. The resulting sticky, pungent, strongly flavoured fermented bean is one of the most nutritionally dense foods available to a community. It is the richest known dietary source of vitamin K2 (critical for calcium metabolism, bone density, and cardiovascular health), contains nattokinase (an enzyme with documented blood-clot-dissolving properties), and is an extremely rich source of protein and probiotics.

  1. Soak and cook soybeans until fully soft. Drain and spread on a tray. While still warm (but below 60°C), inoculate with Bacillus subtilis. The most accessible source: a small amount of commercially made natto (a quarter teaspoon mixed with 500ml water, sprinkled over the beans). Once you have an active batch, use a small amount from each one to inoculate the next indefinitely.
  2. Cover loosely with paper or cloth (oxygen access is important) and ferment at 38–42°C for 18–24 hours. A hay box, a wrapped container near a heat source, or an oven with just the light on maintains this temperature range adequately.
  3. The beans develop white filaments and a distinctive, strong smell. Stir gently. Refrigerate for 24 hours before eating — this develops the flavour further and makes the texture characteristic. Natto keeps refrigerated for 1 week.
  4. Eat with rice, in soup, or on toast with soy sauce. The flavour is an acquired taste — one of those foods that people either immediately love or take time to appreciate. The nutritional case for acquiring the taste is exceptionally strong.
Fermented fish — garum and traditional fish sauce
Skill 2

One of the most ancient and most dismissed fermentation traditions. Salt-fermented fish produces a liquid sauce of extraordinary flavour depth (the basis of Roman garum, Thai nam pla, and dozens of other traditions) and a highly shelf-stable protein concentrate. In a coastal or river-access community in Aotearoa, this converts a seasonal surplus of fish — which would otherwise require refrigeration — into a long-lasting, nutrient-dense condiment.

  1. Use whole small fish, fish heads, fish guts, or any fish offcuts that would otherwise be discarded. The enzymes present in fish organs are what drive the fermentation — small whole fish or gut-rich pieces are ideal.
  2. Mix thoroughly with salt: 20–30% salt by weight of the fish. This high salt concentration prevents putrefaction while allowing the enzymatic fermentation to proceed. Pack tightly into a sealed container with no air gaps. A weight pressed onto the fish ensures they remain submerged in the brine that forms.
  3. Leave at room temperature for 3–12 months. In warm Waikato summers, fermentation is faster. The mixture will liquify progressively — this is correct. Stir occasionally.
  4. Strain through cloth when the liquid is a deep amber-brown and smells intensely savoury (not putrid — the distinction is clear). The strained liquid is fish sauce. The remaining solids are an excellent garden fertiliser.
  5. Use in small amounts as a condiment and cooking seasoning. A few drops transforms the depth of any savoury dish. Lasts indefinitely when sealed.
· · ·
X
Vinegar Production
From any fermented liquid — preservation, medicine, cleaning, and pH control
Making vinegar from wine, cider, mead, or any fermented wash
Skill 1$ Free
The two-stage process
Stage 1: yeast ferments sugar to alcohol. Stage 2: Acetobacter bacteria convert alcohol to acetic acid in the presence of oxygen. The second stage requires a mother of vinegar — a cellulose mat formed by Acetobacter — and air access. Any alcoholic liquid that has not been distilled, pasteurised, or heavily sulphited will eventually become vinegar if left open to the air. The art is accelerating and controlling that process.
  1. Produce or source any unpasteurised wine, cider, beer, or mead at 5–10% alcohol. Higher alcohol slows Acetobacter activity; lower alcohol may not produce sufficient acidity.
  2. Obtain a mother of vinegar — the white, jelly-like cellulose mat from a bottle of raw, unpasteurised apple cider vinegar (or any live vinegar). Alternatively, allow the process to occur without a starter — wild Acetobacter from the environment will colonise the surface over several weeks.
  3. Pour the alcoholic liquid into a wide-mouthed container — maximum surface area exposed to air accelerates conversion. Cover with cloth (allows air in, keeps insects out). Add the mother to the surface if you have one.
  4. Keep warm (20–30°C) and undisturbed. The mother will grow across the surface. Underneath, alcohol is converting to acetic acid. This process takes 3–8 weeks depending on temperature and starting alcohol content.
  5. Taste regularly. When the sharpness of vinegar is present and alcohol smell has dissipated, the conversion is complete. Strain through cloth to remove the mother (save it — add to your next batch as starter). Bottle and seal the vinegar.
  6. Vinegar improves significantly with age — a sealed bottle stored in a cool, dark place deepens in flavour over months. Raw, unfiltered vinegar retains the mother and has additional probiotic benefits.
Uses of community-produced vinegar
Food preservationPickling vegetables, fruits, and fish. The acetic acid creates an environment hostile to all spoilage organisms. Properly pickled produce keeps for months to years at room temperature.
MedicineFire cider base (see Practical Guide). Digestive tonic. Wound cleaner (diluted). Throat treatment (honey and vinegar). Skin pH balancer. Apple cider vinegar with the mother is a probiotic food.
Cleaning and sanitationDiluted vinegar (1:1 with water) cleans and sanitises food preparation surfaces, fermentation vessels, and dairy equipment without leaving harmful residues. Replaces commercial sanitisers for most household and community food production purposes.
pH adjustmentAcidifying soil for blueberries and other acid-loving plants. Adjusting fermentation pH. Neutralising lye residue on equipment. Descaling calcium deposits from water systems and cooking equipment.
Tanning assistantUsed in leather tanning (Section V) to acidify the bating bath and condition hides before tanning.
Dyeing mordantVinegar as a mordant fixes natural dyes to protein fibres (wool, silk, leather) without heavy metal mordants.
· · ·
XI
Salt Production
The critical mineral — from NZ coastline to the community larder
Solar evaporation and boiling — producing salt from seawater
Skill 1$ FreeNZ Coast
Why salt cannot be absent from this system
Salt is a prerequisite for food preservation (curing, pickling, lacto-fermentation), cheese making, leather tanning, soap hardening, fermentation control, and human electrolyte balance. A community without a domestic salt supply is dependent on one of the most basic and critical inputs. Aotearoa has thousands of kilometres of coastline. Seawater is approximately 3.5% sodium chloride. The technology to extract it is as simple as a shallow container and sunshine.
Waikato access to salt

The Waikato is approximately 50km from the Raglan coast and 80km from the Coromandel. A community collection run to either coastline produces seawater and coastal salt material. The Firth of Thames (Hauraki Gulf coast) is more accessible from the Hauraki Plains and has shallow intertidal areas suited to salt collection. This is not a daily operation — salt produced in bulk during summer visits stores indefinitely and supplies the community for months to years per collection.

Method 1 — Solar evaporation (most efficient, requires sun and space)
  1. Construct shallow evaporation pans — any flat, waterproof container with maximum surface area. Black plastic sheeting stretched over a shallow timber frame works well. Shallow ceramic or concrete ponds are more permanent. The shallower the water, the faster evaporation.
  2. Fill with clean seawater collected away from urban runoff, boat moorings, or industrial areas. Raglan and the outer Coromandel coast are clean sources. Taste the water first — it should taste purely salty with no chemical or fuel smell.
  3. Allow solar evaporation over days to weeks. In NZ summer (December–March) with consistent sunshine, a 1m² evaporation pan produces 3–5 litres of brine reduction per day. Top up with fresh seawater as water evaporates — this concentrates salt progressively.
  4. When the brine becomes visibly thick and crystals begin to form, stop topping up. Allow to evaporate to final salt crystals. Scrape and collect. The salt will be slightly grey or tan — this is mineral-rich natural salt, superior nutritionally to pure white commercial salt.
  5. Dry the collected salt in a warm oven or in direct sun. Store in sealed containers. Dry salt keeps indefinitely.
Method 2 — Boiling (for immediate production, less efficient)
  1. Collect seawater in large containers. Pre-filter through cloth to remove particles and marine organisms.
  2. Boil in a large pot, uncovered. Seawater is approximately 3.5% salt — it takes approximately 30 litres of seawater to produce 1kg of salt by boiling. This is energy-intensive and best suited to using surplus biogas or wood fuel rather than primary cooking fuel.
  3. As water evaporates, the brine concentrates. When a thick slurry of salt crystals remains, reduce heat to the lowest possible setting and continue until dry. The final stage is critical — too much heat browns and bitters the salt.
  4. Scrape out, cool, and store as above. Boiled salt is finer in crystal than solar salt and dissolves more readily — better for precise measurement in cheesemaking and curing.
Salt from coastal plants

Several coastal NZ plants accumulate salt in their tissues and can be harvested and burned to produce salt ash. Sea blight (Suaeda), glasswort (Salicornia), and saltmarsh plants along the Hauraki coast all concentrate sodium chloride. Burning the dried plants and dissolving the ash in water, then filtering and evaporating, produces a salt solution. Less efficient than direct seawater evaporation but useful when seawater access is difficult.

Water quality
  • Collect seawater from clean, open coast locations well away from any freshwater input, urban area, boat anchorage, or industrial site. NZ's coastal water quality is generally high but localised contamination exists.
  • The concentration process concentrates everything in the seawater — including any heavy metals or persistent pollutants if present. The Firth of Thames inner areas near Paeroa and Thames receive agricultural and industrial runoff — collect from outer coast areas rather than inner estuary.
· · ·
XII
Food Preservation
Smoking, drying, salt curing, fat preservation, and the root cellar
The preservation toolkit — turning seasonal surplus into year-round food security
Skill 1–2
Fermentation is one preservation method. It works alongside smoking, drying, salt curing, fat immersion, and cold storage — each method suited to different foods and different community needs.
Cold smoking and hot smoking
  1. Build a cold smoker: a firebox at ground level connected by a long (2–3m minimum) pipe or trench to a smoking chamber above. The distance cools the smoke before it reaches the food. The chamber can be a wooden box, an old fridge, or a barrel with hooks inside. Cold smoke temperature: below 30°C. Cold smoking preserves and flavours but does not cook — pre-cured food only (salt the food for 24–48 hours before cold smoking).
  2. Build a hot smoker: a single chamber with a fire below and food above, controlled to maintain 70–120°C. A large steel drum with a fire basket at the bottom and wire racks above works well. Hot smoking cooks and preserves simultaneously — fish, poultry, and sausages can go in raw and come out ready to eat.
  3. Smoking wood choices dramatically affect flavour. NZ options: mānuka (the classic NZ smoking wood — sweet, medium strength), kānuka (slightly lighter), apple and feijoa (mild, fruity), cherry (sweet), beech (traditional European character). Never use treated timber, pine, or macrocarpa — these contain resins and preservatives that produce toxic smoke.
  4. Cold-smoked fish (salmon, kahawai, snapper) keeps for 1–3 weeks refrigerated or 2–4 days unrefrigerated in cool weather. Hot-smoked fish keeps similarly. For very long preservation, smoke after salt-drying — dried smoked fish in a cool, airy place keeps for months.
Solar drying — the simplest preservation method
  1. Build a solar dehydrator: a black-painted backing board in an angled wooden frame with glass or clear plastic on top. Food is placed on mesh racks inside. Solar heat concentrated by the dark backing dries food at 40–60°C — high enough to prevent spoilage, low enough to preserve nutrients and enzymes better than oven drying.
  2. Dry fruits (feijoa, plum, apple, fig), vegetables (tomato, capsicum, courgette slices, mushrooms), herbs, fish, and meat. Properly dried food has reduced water activity below the threshold for microbial growth — most bacteria require water activity above 0.91 to reproduce.
  3. Test for dryness: fruit should be leathery but pliable, not sticky. Vegetables should be brittle. Meat and fish should be hard, not flexible. Any remaining flexibility means insufficient drying — moisture remains and the food will mould in storage.
  4. Store in sealed containers away from light and moisture. A properly dried and sealed food product keeps for months to years at room temperature.
Salt curing — dry cure and brine cure
Dry cureRub meat or fish thoroughly with a salt-sugar mixture (2:1 by weight). The salt draws moisture out through osmosis, creating a concentrated brine on the surface that penetrates inward. Minimum cure times: fish fillets 24–48 hours, thin cuts of meat 3–5 days, whole legs or thick pieces 2–4 weeks in the fridge or cold larder. Rinse, dry, and smoke or hang to dry. A dry-cured ham from a community pig can last 12+ months hanging in a cool larder.
Brine cureSubmerge food in a solution of 10–20% salt in water (100–200g salt per litre). The brine penetrates food more evenly than dry cure and is suited to whole pieces and poultry. Immerse completely for the prescribed time, weighted down to keep submerged. Corned beef (salt-brined beef) is the traditional Waikato preservation food — still made at home easily and providing shelf-stable protein for months.
Confit — fat immersion preservation
  1. Salt the food lightly (meat, poultry, root vegetables, garlic) for 12–24 hours in the refrigerator. Rinse and pat dry.
  2. Submerge completely in rendered tallow, lard, or duck fat in a heavy pot. Heat to a very gentle simmer (80–90°C — the fat should barely move). Maintain this temperature for 2–6 hours depending on the size of the pieces.
  3. Transfer food and all the fat into a sealed crock or jar, ensuring food remains completely submerged in fat. Seal and store in a cool place.
  4. Food preserved in fat at cool temperatures (below 15°C) keeps for 6 months or more. The fat excludes oxygen, preventing aerobic spoilage. When ready to eat, scrape off the solidified fat (reuse it — it has absorbed flavour) and pan-fry until golden. Duck confit and tallow-preserved duck are genuinely among the finest preserved foods available.
Root cellar — cold storage without electricity
  1. The root cellar exploits the fact that below 1.5–2m depth, soil temperature in the Waikato stabilises at approximately 10–13°C year-round — cool enough to store most vegetables and fruit for months without mechanical refrigeration.
  2. Excavate a space 2–3m underground, accessed by stairs or a sloping entry. Line walls and floor with stone or concrete to stabilise temperature and prevent rodent entry. Ventilation is important — CO2 released by stored produce must be able to escape, and some fresh air exchange is needed. Two vents (one high, one low) in opposing walls provides passive ventilation.
  3. Ideal root cellar conditions: 2–10°C and 85–95% humidity for most root vegetables (potatoes, kūmara, parsnip, carrot, beet). Slightly drier and cooler for onions and garlic. Fruits and vegetables should be stored separately — apples and pears release ethylene gas that accelerates ripening in other produce.
  4. Pack root vegetables in slightly damp sand or sawdust in wooden crates — this maintains humidity around individual vegetables and prevents them touching each other. A single bad potato contacting its neighbours spreads rot rapidly — the sand/sawdust layer isolates each one.
  5. A well-designed root cellar in the Waikato keeps: potatoes 6–8 months, kūmara 4–6 months, carrots and parsnips 4–6 months, onions 6–10 months, cabbages 3–4 months, pumpkins 3–6 months, apples 3–5 months. Combined with fermented, dried, and smoked produce, a community with a root cellar can maintain food security through the entire year from a single growing season.

All documents in this series are free. Share them, build upon them, correct them. No permission required. No attribution required. Take what is useful and pass it forward.

I — Foundations · The declaration · Start here
II — The Practical Guide · Food, water, energy, medicine, knowledge
III — Layer Zero · Prerequisites · Hemp, glass, lye, methanol, smithing, building
IV — Living Systems · This document · Animals, fermentation, dairy, bees, salt, preservation
V — The Machine Commons · Electricity, electronics, machining, welding, code, steam, computing
VI — Community Life · Emergency medicine, governance, education, textiles, weather, security

Written in Aotearoa New Zealand, 2026. The microcosm mapping onto the macrocosm.