The Drone Wars — Data Infographic

The Economics of Asymmetry

Defender interceptor cost divided by attacker drone cost. Higher = more advantageous for the attacker.

FPV ($500) vs Stinger MANPADS ($120,000) 240×

Shahed-136 vs Patriot PAC-3 ($4 M) 133×

Shahed-136 vs Arrow-3 ($3.5 M) 117×

FPV vs Gepard cannon (per shot) 10×

Lancet ($35k) vs Stinger 3.4×

Shahed-136 vs Iron Dome (Tamir interceptor) 1.7×

Source: The Drone Wars series (2026); RAND Corporation. Interceptor cost = missile only, excluding radar and launch system.

Monthly Drone Production (2025–2026)

Ukraine's cottage-industry FPV workshops outproduce every state factory combined.

Ukraine — FPV kamikaze 30,000–40,000 / mo

Russia — Geran-2 (Shahed copy) 10,000–15,000 / mo

Iran — Shahed-136 6,000–10,000 / mo

China (est.) — various 8,000–12,000 / mo

Russia — Lancet 2,000–3,000 / mo

US — Lucas (FLM-136) 2,000 / mo (target: 5,000 by 2027)

Source: Ukrainian MOD; British Defence Intelligence; RAND Corporation (2025).

Fiscal Asymmetry: Iran vs US/Israel (March 2026)

One month. 3,560 Shaheds. The numbers tell the story.

$150M

Iran's production cost

3,560 Shahed-136s @ ~$30–50k each

$12–15B

US/Israel interception cost

Arrow-3, David's Sling, Patriot PAC-3, combat air patrols

80–100× cost ratio in a single month. For every dollar Iran spent, the US and Israel spent at least eighty dollars defending against it. Iran's factories ran for another month. The US Congressional Budget Office warned of interceptor-inventory depletion.

Source: The Drone Wars series (2026); US Congressional Budget Office (estimate).

The Electronic Warfare Spiral (Ukraine, 2022–2026)

Each counter-measure shortens the window before the next adaptation is required.

1

Standard 2.4 GHz analogue (2022 baseline)

Both sides use off-the-shelf radio protocols. No countermeasure yet.

2

Russian wideband jamming (Late 2022)

~6 months to develop

Brute-force white noise overwhelms FPV radio links. Thousands of Ukrainian drones grounded.

3

Ukrainian frequency-hopping (2023)

~4 months to field

100+ channel hops per second, faster than any jammer can sweep. Drones resume operations.

4

Fibre-optic FPV tether (2024)

~6 months to field

Physical filament carries signal. No radio; no jamming possible. Effective to 5–10 km.

5

AI terminal guidance / "Saker" FPV (2025)

~3 months to field

Machine-vision lock at 100 m. No radio link in final phase. Fire-and-forget for $2,000.

6

Machine-vision autonomous search (2026, ongoing)

~2 months (est.)

Drone autonomously searches an area, classifies targets, and engages. Human selects zone, not individual target.

Cycle time trend: 6 months (2022) → 2 months (2026). Each turn of the spiral shortens.

Source: Ukrainian MOD; The Drone Wars series (2026).

Drone Performance Matrix

Eight systems across four orders of magnitude of cost.

System	Cost (USD)	Range (km)	Weight (kg)	Warhead (kg)
FPV improvised	$500	5–20	0.5–1.5	0.5–2
Shahed-136 (Iran)	$30,000	2,000	200	30–50
Geran-2 (Russia)	$30,000	1,500–2,000	200	50
Lancet-3 (Russia)	$35,000	40–70	12	3–5
Lucas / FLM-136 (US)	$35,000	650	180	18–20
Switchblade 600 (US)	$75,000	80	23	15
Bayraktar TB2 (Turkey)	$5,000,000	300	650	88 (4× MAM-L)
MQ-9 Reaper (US)	$32,000,000	1,850	4,760	1,700 ext.

Source: Jane's All the World's Aircraft; RAND; The Drone Wars series (2026).

Five Invariant Mechanisms of Drone Warfare

Every leap from 1849 to 2026 maps onto one or more of these patterns.

Risk Transfer

Remove the pilot; lower the political cost; accept operations too lethal for manned aircraft.

Austrian balloons (1849), Lightning Bug (Vietnam)

Gap Exploitation

Drones succeed when they fly slower, smaller, or lower than legacy sensors are calibrated to track.

TB2 in Nagorno-Karabakh (2020)

Economic Asymmetry

The attacker spends 1 unit; the defender spends 10–240 units to neutralise the same threat.

Shahed vs Arrow (2023–2026)

EW Spiral

Jam; hop; bury in fibre; add AI. Each countermeasure generates the next adaptation, faster each time.

Ukraine FPV evolution (2022–2026)

Copycat Proliferation

Once a design proves optimal, adversaries reverse-engineer and mass-produce it within months.

Lucas (US copy of Shahed), Geran-2 (Russian copy)

Ukraine's FPV Pilot Pipeline (2025)

Training 5,000 per quarter; losing 2,000. Net gain barely keeps pace with drone production.

Trained / quarter

5,000

Lost to attrition

2,000

Net gain

+3,000

Total operators (mid-2025): ~25,000

Training time (basic): 3–6 months

Training time (advanced): 12–18 months

Drones per operator: 5–10 (rotated)

Source: Ukrainian MOD (2025); The Drone Wars series estimate.

Global Military Drone Market: $18B → $67B (2025–2035)

CAGR ~13.8%. Driven by loitering munitions, counter-drone systems, and autonomous swarms.

Source: RAND Corporation; SIPRI; analyst consensus (2025). 2020–2024 interpolated.

Forecast: Drone Warfare in 2030

Based on current technology trajectories and field-tested adaptation rates.

50–100

Drones per swarm (typical operational unit)

200:1

Drones supervised per human operator (maximum projected)

<$10k

Cost of a basic autonomous loitering munition (commoditised)

2028–29

Likely first fully autonomous kill (no human authorisation), classified

60–70%

Estimated share of air forces comprised by drones by 2035 (up from ~20% in 2025)

3–5 yr

Timeline to $200 printable FPV drones with open-source guidance

Source: US DoD Replicator programme; RAND; ICRC (2025); author's assessment.