π² Vehicles & Transport
Transport is a force multiplier β the right vehicle at the right time determines whether a community can trade, evacuate, forage, or stay isolated. This section covers every tier from your own feet to watercraft, with deep focus on bicycles, alternative fuels, engine diagnosis, animal power, and building boats from raw materials.
- Fill all vehicle fuel tanks immediately β availability collapses within hours of a crisis.
- Add STA-BIL or PRI-G to all stored gasoline β extends shelf life from 3 months to 2 years.
- Inspect and tune up every bicycle you own. Check tubes, brakes, chain. Bicycles outlast every vehicle once fuel is exhausted.
- Locate and secure a factory service manual for every vehicle you depend on.
- Identify your most fuel-efficient vehicle for essential runs; preserve the others.
1. The Transport Hierarchy
In a collapse scenario, transport options should be evaluated by fuel dependence, repairability, and longevity. The list below ranks from most to least durable over a multi-year timeline without supply chain support.
Your Feet
Zero fuel, zero maintenance, silent, always works. Sustainable pace: 20β25 miles/day. The baseline everything else improves upon β and the only option that never runs out.
Bicycle
50Γ more efficient than walking at the same caloric expenditure. No fuel. Repairable with basic hand tools. Can carry 200+ lbs with panniers and trailer. Silent. Can access trails no car can use. Also serves as an electricity generator.
Animal (Horse, Mule, Ox, Donkey)
No fossil fuel required. Self-reproducing. Multi-use: transport + draft labor + food source. Requires daily care and feed, but that feed can come from land you control. Mules especially are extraordinarily hardy.
Pre-1980 Vehicle
No computer ECU. Points ignition β purely mechanical. Carbureted fuel delivery. Can run on alternative fuels with minimal modification. Locally repairable with basic tools. A 1972 pickup is worth more than a 2022 pickup in an EMP scenario.
Modern Vehicle (Post-1990)
ECU-dependent. Vulnerable to EMP. Fuel injection is complex to repair without dealer scan tools. High short-term value when fuel and parts exist; rapidly loses utility as supply chains fail.
Watercraft
Situational, but extremely high value where applicable. No road required. Large cargo capacity β water transport uses roughly 1/10th the energy of equivalent land transport. Where rivers and lakes exist, this becomes Tier 2.
2. Bicycle Maintenance & Repair
A bicycle in good repair may be the single most valuable piece of hardware you own after collapse. It is 50Γ more efficient than walking, carries 200+ lbs, requires no fuel, is repairable with simple hand tools, operates silently, and can double as a power generation source. Maintain yours obsessively.
Why Bicycles Win
- 50Γ more efficient than walking at the same caloric expenditure
- No fuel required β ever
- Repairable with simple hand tools and improvised parts
- Can carry 200+ lbs with proper cargo setup (panniers + trailer)
- Access trails and paths cars cannot use
- Silent operation β no acoustic signature
- Can be used as a power generation source (see Bicycle Generator below)
Bicycle Cargo Setup
Critical Spare Parts to Stockpile (Per Bike)
| Part | Qty | Why Critical |
|---|---|---|
| Inner tubes | 10 | Flats are guaranteed β most common failure |
| Tires | 4 | Sidewall damage is not patchable; tires wear out |
| Brake pads | 4 sets | Braking is survival, especially loaded downhill |
| Brake cables | 4 each | Cables fray and snap under repeated stress |
| Derailleur cables | 4 each | Shifting failure is annoying but manageable short-term |
| Chains | 3 | Chains wear and break; measure stretch before failure |
| Chain lubricant | 2 bottles | Dry chains destroy cassettes rapidly |
| Spoke wrench + spare spokes | 36 spokes | Wheel truing is essential for long-term use |
| Freewheel/cassette | 1 spare | Hard to improvise; irreplaceable without supply chain |
| Multi-tool with chain breaker | 1 | Essential for field repair of chain, cables, bolts |
| Patch kit | 5 kits | Field flats when you're miles from camp |
| Tire levers | 2 sets | Tire mounting/dismounting without damaging tube |
Flat Repair Without a Patch Kit
- Boot a sidewall tear: Fold a dollar bill or a strip of duct tape in thirds and place it inside the tire directly over the tear, between tube and tire casing. Works for hundreds of miles β the bill is just stiff enough to prevent the tube from extruding through.
- Pack the tire: If the tube is destroyed, stuff the tire casing completely with dry grass, moss, rags, or cloth strips. Ride slowly. You will have a rough, bumpy ride but can travel several miles to safety.
- Tube-within-tube: If you have an oversized tube (26" tube in a 24" tire, for example), fold and double it inside the tire β two layers provide enough cushion for limited travel.
Chain Maintenance
12 links of a new chain = exactly 12.0 inches. Measure regularly:
12.0 β 12.0625" = acceptable
12.0625" (1/16" stretch) = replace chain now
12.125" = chain is overdue; cassette likely damaged too
- Cleaning: Kerosene, diesel, or hot soapy water. Scrub with an old brush. Dry completely before lubing.
- Lubing: Apply thin oil to inner plates only β the roller-to-sprocket contact area. Wipe outer plates completely clean. Excess lube attracts grit and accelerates wear.
Wheel Truing Without a Stand
Bicycle Generator
- Motor: Salvage a DC motor from a treadmill, washing machine, or car starter (permanent magnet DC motors work best as generators)
- Friction drive: Mount motor with a rubber wheel on its shaft pressing against the tire sidewall. The rubber wheel contacts and spins the motor as you pedal.
- Rectification: Add a bridge rectifier (4 diodes in a bridge configuration) to convert the motor's AC output to DC at ~12V
- Regulation: Add a simple voltage regulator IC (LM7812 or equivalent) to stabilize output for sensitive electronics
- Output connections: 12V battery charging direct; phones via USB 5V regulator; LED strips direct at 12V
3. Engine Basics
The Four-Stroke Cycle
[INTAKE] [COMPRESSION] [POWER/IGNITION] [EXHAUST]
piston β piston ββ spark β β piston β
intake both valves explosion exhaust
valve closed drives piston valve
opens compress 8:1 down β WORK opens
air+fuel stroke stroke gases
enters exit
1 2 3 4
| | | |
βββ βββ βββ βββ
βββ air+fuel β β compressed β*β BANG! βββ exhaust
β βββββββββββ β βββββββββββ β βββββββββββ β βββββββββββ
βββ βββ βββ βββ
^intake ^compression ^power ^exhaust
valve open valves closed spark fires valve open
Understanding these four strokes lets you diagnose any gasoline engine problem as a failure in one of four systems: Fuel Β· Air Β· Spark Β· Compression. If the engine has all four in correct amounts at the right time, it runs. If it doesn't, one of these four is missing.
Carbureted vs. Fuel Injected
| Feature | Carbureted (Pre-1990) | Fuel Injected (Post-1990) |
|---|---|---|
| Adjustability | Fully adjustable with screwdrivers | Requires ECU/computer scan tools |
| Fuel quality tolerance | Tolerates lower octane, degraded fuel | More sensitive to fuel quality |
| EMP resistance | Resistant β no computers | Vulnerable β ECU is a chip |
| Repair access | Basic hand tools | Dealer scan tools often required |
| Altitude adjustment | Manual needle/jet screw | ECU auto-adjusts (but not if ECU is dead) |
| Alternative fuel use | Simple jet swap or needle adjustment | Complex reprogramming required |
Points ignition is purely mechanical β a cam-triggered contact set with no semiconductors. No ECU means no chips to fry. Carbureted fuel delivery is fully mechanical with no solenoids or computers. A well-maintained 1972 pickup truck is more operationally valuable than a 2022 pickup after an electromagnetic pulse event.
Engine Won't Start β Diagnosis Checklist
Oil β Never Neglect This
- Lubricates all moving metal; also cools, suspends combustion byproducts, and seals gaps between rings and cylinder
- Check on dipstick: level between MIN and MAX; color golden to dark brown = OK; milky = water contamination (head gasket failure)
- Running without oil: cylinder wall and bearing destruction in minutes β not hours
- Change interval without fresh supply: extend to 5,000 miles maximum if using quality oil; never skip the change entirely
Cooling System
- Coolant circulates: engine block β radiator β back β thermostat β repeat
- Overheating causes: low coolant, failed water pump, clogged radiator, stuck thermostat, blown head gasket
- Improvised radiator repair: crack 2 raw eggs into the coolant β proteins coagulate at the leak point and seal it temporarily (hours to days)
- Failed thermostat: Remove the thermostat entirely and reinstall the housing. Engine runs cooler and less efficiently but will not overheat
Tire Repair
- Plug: Drive a rubber plug into the tread puncture from the outside using a plug tool and rubber cement. Fast, field-applicable. Not for sidewalls.
- Patch: Remove tire, buff the tube or inside casing, apply vulcanizing patch and glue. More permanent than a plug.
- Run-flat improvisation: Stuff the tire casing with dense cloth, cut foam, or packed grass. Rim will take damage but allows slow travel to safety.
- Tire irons required for bead seating and unseating on most vehicle tires.
4. Fuel Alternatives
Wood Gas (Producer Gas)
Over 1 million European vehicles ran on wood gas during World War II. Sweden alone had 70,000 wood gas vehicles by 1944. The FEMA published complete construction plans in 1989 (available in the public domain). This works.
Wood gas contains 20β30% carbon monoxide (CO) β odorless, colorless, deadly in any enclosed space. All connections must be sealed and leak-tested before operation. Operate gasifiers outdoors only. Never run in a garage, barn, or building of any kind.
Principle: Burning wood in a restricted-oxygen environment produces carbon monoxide (CO) and hydrogen (Hβ) gas. This gas mixture is combustible and runs in any carbureted gasoline engine. Expect a 30β40% power reduction versus gasoline.
Key Gasifier Components
- Reactor vessel: Heat-resistant steel drum or pipe, ΒΌ"+ wall. Fire brick lining ideal for throat area where temperatures reach 1,100Β°C.
- Air nozzle: 1β2 steel pipes entering at combustion zone. The restriction creates gasification, not full combustion.
- Reduction zone: Below combustion, above the grate. COβ + HβO β CO + Hβ conversion happens here β this is where the usable fuel gas is made.
- Ash grate: Perforated steel plate. Ash falls through; fuel bed rests on top; gas rises and exits sideways.
- Cooling tubes: 10β15 feet of 2" pipe. Cools hot gas to a usable temperature for the engine. Coil in water or air-cool with fins.
- Condensate trap: Lowest point in the cooling run. Collects tar and water. Drain after every use β neglected traps cause engine failure.
- Filter: Sawdust or hay box removes particulates. Clean and replace regularly. Particulates destroy engine rings.
- Output: Connect cleaned, cooled gas to carburetor air intake. Replace or bypass the choke butterfly valve.
Best Fuel for Gasifier
- Hardwood chunks 2β3" size
- Below 20% moisture content (critical)
- Oak, hickory, beech preferred β high energy density, less tar
- Softwoods produce more tar; require more frequent filter cleaning
Operating Procedure
- Pre-heat gasifier 5β10 minutes before connecting to engine
- Test output flame β should be steady blue before connecting
- Expect 30β40% power reduction vs gasoline
- Drain condensate trap and clean filter after every use
Biodiesel β From Waste Cooking Oil
Methanol is highly toxic by skin absorption and ingestion; causes blindness and death. Lye (sodium hydroxide) is caustic and causes severe chemical burns. Sodium methoxide (the combination) is extremely reactive. Work outdoors with gloves and eye protection. No open flames during mixing β methanol is extremely flammable.
Appleseed Processor β Step by Step
Ethanol as Fuel
- Ferment any sugar or starch source β distill to 85%+ ABV β fuel grade ethanol (see Chemistry section for full distillation process)
- Runs in flex-fuel vehicles natively; carbureted engines need main jet needle adjustment (~30% richer mixture)
- Lower energy density: approximately 30% more volume needed than equivalent gasoline energy
- Also functions as: solvent, disinfectant (at 70β90% ABV), trade commodity, antiseptic for medical use
Fuel Storage Reference
| Fuel | Untreated Life | Treated Life | Container | Notes |
|---|---|---|---|---|
| Gasoline | 3β6 months | 1β2 years (STA-BIL) | Metal jerry can | Ethanol blends degrade faster; E0 lasts longer |
| Diesel | 1β2 years | 5β10 years (biocide) | Metal or HDPE | Less volatile than gasoline; easier to store safely |
| Biodiesel | 6 months | 1β2 years | Dark sealed container | Degrades in light and oxygen; keep sealed |
| Ethanol | 1+ year | 2+ years | Glass or metal | Do not store in plastic β absorbs water |
| Wood gas | N/A | β | N/A | Generate on demand only; cannot be stored |
Store away from living spaces in vented enclosures, away from all ignition sources. Ground metal containers before pouring in dry climates (static spark hazard). Never mouth-siphon gasoline β use a hand pump. Label all containers with fuel type and date filled.
5. Animal Transport
When fuel is gone and vehicles are inoperable, draft animals become the backbone of agriculture, hauling, and transport. Communities with animal power will outperform those without by an enormous margin over a multi-year timeline.
Horse Care Essentials
Daily Working Requirements
- 20 lbs hay + 5 lbs grain (working hard)
- 10β12 gallons water
- 2β3 acres/horse if using grazing to reduce feed cost
- Hoof trim every 6β8 weeks minimum
Common Ailments
- Colic: Most deadly; horse cannot vomit; keep walking; veterinary care critical
- Laminitis: Hoof inflammation from rich pasture; restrict grazing on lush grass
- Thrush: Bacterial hoof rot from wet conditions; clean hooves daily; treat with dilute bleach or copper sulfate solution
Harness Basics
Collar harness is the most efficient for draft work β the load is distributed across the horse's shoulders. Breastplate harness is simpler and lighter but less efficient for heavy loads. Traces connect collar to load. Singletree distributes the pull evenly between traces. A skilled person can fabricate functional harness from heavy leather (see Textiles / Tanning sections) with hand tools.
Mule vs. Horse
| Feature | Horse | Mule |
|---|---|---|
| Hardiness | Moderate | Very high |
| Lifespan | 25β30 years | 35β40 years |
| Daily feed | High requirement | ~30% less than horse |
| Forage quality needed | Good hay/grain | Survives poor forage |
| Disease resistance | Moderate | High |
| Hoof care | Regular shoeing needed | Tougher hooves, less care |
| Reproduction | Can breed | Sterile (requires ongoing breeding program) |
| "Stubbornness" | Controllable | Refuses if it senses danger β a safety feature |
Ox and Draft Cattle
- Any cattle breed can be trained as draft animals; start at 1β2 years old before they're fully set in their ways
- Slower than a horse, but with greater pulling strength for their size and dramatically lower maintenance cost
- Yoke construction: Neck yoke for single ox (wooden bow fits under throat); head yoke for a team of two (crossbeam rests on poll)
- Basic commands: Gee (right), Haw (left), Whoa (stop), Get up (forward) β consistent training from the start is critical
- Key advantage: The ox becomes food at the end of its working life β horses and mules do not
Donkey
- The hardiest of all working animals β survives on minimal forage where horses and mules cannot
- Excellent pack animal; carries 20β30% of body weight (50β80 lbs) reliably
- Strong attachment to home territory makes them difficult to steal and easy to return
- The loud bray is a liability in stealth situations β consider this for operational security
6. Watercraft
Historical civilizations were built along rivers for this reason. A simple raft or skiff carrying 500 lbs downstream requires a fraction of the effort of a horse-drawn wagon carrying the same load on a dirt road. Communities near navigable waterways have an enormous logistical advantage.
Dugout Canoe
Dugout Canoe β Construction Details
- Tree selection: Straight grain, rot-resistant species. Cedar is the first choice; cypress, tulip poplar, and basswood also work. Diameter must equal your intended finished beam width plus 6" minimum for wall thickness.
- Felling and drying: Score the cut ends with a saw and apply paint or pine pitch to slow drying β this prevents cracking. Dry the log 6β12 months before hollowing.
- Burn and adze: Controlled burning inside the log while adzing (scraping) accelerates removal. Burn β scrape β burn β scrape cycle. Maintain 1.5β2" wall thickness throughout.
- Outrigger assembly: Two crossbeams (amas), each 18β24" long, lashed to the canoe gunwale. One float log lashed to the outboard ends. Lashing with plant fiber rope or paracord is sufficient.
- Propulsion options: Double-blade paddle (fastest, most efficient), single-blade, pole in shallow water, or a simple lateen sail on a mast stepped through a thwart.
Flat-Bottomed Skiff
Flat-Bottomed Skiff Construction Sequence
Raft Construction
- Lash logs or planks to cross-members. No joinery required β only lashing skill.
- Buoyancy calculation: 1 cubic foot of wood floats approximately 30β40 lbs net. A raft 10 ft Γ 10 ft Γ 6" thick uses about 50 cu ft of wood β ~1,500β2,000 lbs gross buoyancy β supports ~800 lbs cargo plus raft weight.
- Steering oar: long pole or oar at the stern on a simple pin pivot. One person steering; others can pole in shallow water.
- Current does most of the downstream work β reserve energy for poling upstream or across current.
Reading Water
| Environment | Key Skills | Primary Hazards |
|---|---|---|
| River | Reading current, eddies, strainers, knowing when to portage | Strainers (debris), hydraulics at drops, low-head dams |
| Lake | Wind reading, weather assessment, maintaining headings | Sudden storms, no current to assist, long exposure to wind |
| Coastal | Tide tables, chart reading, headland crossing timing | Tidal currents, offshore winds, rogue waves, lee shores |
Reading River Current
- Fastest water is on the outside of bends; slowest on the inside
- Eddy: Calm water behind an obstruction (rock, point); safe stopping point; enter from downstream edge
- V pointing downstream = clear, deepest channel; run this
- V pointing upstream = submerged rock below the surface; avoid
Strainer Hazard
- A strainer is submerged debris (fallen tree, fence) through which current flows
- Current pins anything flexible (boat, body) against the debris with extreme force
- Always scout unfamiliar rivers before committing
- If broaching on a strainer: lean INTO it (counterintuitive), create air gap to pull away
Metallurgy β Fabricating vehicle and implement parts from scrap steel Β· Energy β Fuel storage, electrical generation, and battery systems Β· Agriculture β Growing oil crops for biodiesel feedstock Β· Chemistry β Ethanol distillation process detail Β· Animal Husbandry β Breeding and maintaining draft animals