Satisfactory Drone Transport & Logistics Network Guide

🎯 The core idea

Drones unlock in Tier 8 as the long-distance answer to logistics, but their battery consumption and fuel economy is genuinely opaque compared to a train or truck route — every trip burns two fixed 51-second docking animations regardless of distance, which makes a drone route either the most efficient thing in your save or a complete waste of fuel depending entirely on how far apart its two ports are. This is an aerial transport option, not a ground one, and this guide follows a real network-design walkthrough, pairing it with the current Satisfactory Wiki's fuel table since the video's own on-screen fuel ranking gets confused partway through and the wiki settles it definitively.

• free costs nothing
• cheap small cost
• setup needs preparation
• grind pays off slowly
• skip the thing to stop doing

Unlocking drones and what they actually cost to build

Drones unlock at Tier 8 (Aeronautical Engineering) alongside the Drone Port itself — confirmed on the current Satisfactory Wiki, matching this guide's source video calling it "Phase 4, Tier 8." A Drone Port has one cargo input, one cargo output and a separate fuel input, and its internal inventory is split into two 18-slot buffers (double a Drone's own 9 slots) for outgoing and incoming cargo. Building a single Drone itself costs 4 Motor, 10 Alclad Aluminum Sheet, 1 Radio Control Unit, 2 AI Limiter and 1 Portable Miner — a late-game recipe list that assumes you already have an aluminum and electronics supply chain running, which is why a drone transport network is usually a Tier 8+ project rather than something you reach for the moment it unlocks.

What fuel a Drone Port actually accepts

Drones can run on seven fuel types, and despite this guide's source video second-guessing its own ranking on screen, the current Satisfactory Wiki settles it with an exact table of fuel value and drone speed: Packaged Fuel (750 MJ, 50 m/s), Packaged Turbofuel (2,000 MJ, 60 m/s), Battery (6,000 MJ, 75 m/s), Packaged Rocket Fuel (7,200 MJ, 75 m/s), Packaged Ionized Fuel (10,000 MJ, 100 m/s), Uranium Fuel Rod (750,000 MJ, 90 m/s) and Plutonium Fuel Rod (1,500,000 MJ, 100 m/s) — Plutonium Fuel Rods are unambiguously the best fuel on both energy density and speed, and Uranium Fuel Rods, despite their enormous fuel value, are actually slower than Packaged Ionized Fuel. For a starter network before you have an aluminum or nuclear supply chain running, Packaged Turbofuel is a reasonable practical choice, matching this guide's source video's own recommendation to skip Packaged Fuel and start there — the video also suggests Battery as a middle-ground option once your battery production line (Sulfuric Acid + Alumina Solution on a Blender) is up and running, since it beats Packaged Turbofuel on both fuel value and speed.

Why distance is what makes a drone route worth it

The single most important number for drone logistics is fixed and doesn't depend on fuel: the take-off and landing animations each take 51 seconds, for 102 seconds of total round-trip overhead on top of actual flight time — confirmed on the current Satisfactory Wiki, and it matches this guide's source video's own math exactly. Two Drone Ports placed right next to each other therefore take a minimum of 102 seconds to move anything between them, almost all of it spent docking rather than flying, which makes a short local drone hop dramatically less efficient than the same distance covered by a belt or truck. The efficiency of a drone route increases with distance for exactly this reason: the fixed 102-second overhead becomes a smaller fraction of the total trip the farther apart the two ports are.

Setting up a fuel hub before anything else

The practical starting point for any drone network is a dedicated fuel hub: one or more drone ports next to a fuel-producing setup (in this build, a Packaged Turbofuel plant) whose only job is to disperse fuel out to every other drone port in the network via their own drone routes. Only one Drone Port on a given route needs to actually hold fuel — if the destination port is the one supplying it, the drone takes fuel for the round trip on its way out and doesn't consume it until it's back home, so a single well-stocked fuel hub can keep an entire chain of routes running without fueling every port individually.

Reading a route once it's actually running

Once a route is configured with a destination port and a drone assigned to it, each leg plays out as a takeoff animation, a flight, a landing animation and an unload — and it's worth watching the first few trips complete to confirm items are actually clearing on the receiving end rather than backing up. Waiting drones circle above a port that's still busy rather than blocking anything, and a Drone Port can be the destination for any number of drones even though only one can unload at a time, so a busy hub naturally throttles itself instead of jamming.

The real numbers a route reports

After a route's first completed round trip, its home Drone Port displays real per-route numbers: fuel consumed per trip and per minute, total round-trip duration, and cargo throughput. In this guide's source video's own example, one route burns 32 turbofuel canisters over a roughly 4-minute-52-second round trip, working out to about 8.19 fuel per minute — a concrete illustration of how to read these stats on your own network, though the exact figures will differ for every route since they depend entirely on distance and fuel choice. This is also where you can directly compare a drone route's throughput against what a truck or train covering the same distance would move, since drones have the smallest cargo inventory of any vehicle in exchange for their flexibility and speed over distance.

Scaling a network to match a real ore node

Once the fuel hub is running, sizing a cargo route means matching drone count to actual node output rather than guessing. This guide's source video demonstrates the process with a fully overclocked Mark 3 miner pulling caterium ore, sent by drone to a distant Quickwire factory — with fast belts (Mark 4 and Mark 6) on both ends specifically so belt speed is never the bottleneck being tested, isolating drone throughput as the only variable in question.

Confirming you have enough drones with a sink test

The most reliable way to check whether a drone route is actually keeping up with a node's full output, without doing the throughput math by hand, is to route the destination's output through a smart splitter set to overflow into an AWESOME Sink and simply watch it for a few minutes. If nothing appears in the sink, the drones are keeping pace; if items start piling into it, the route needs more drones or a fuel upgrade. In this guide's source video's own test, nothing overflowed — confirming the route was moving more than the roughly 1,200-per-minute the node in question could produce, meaning the setup could have run with slightly fewer drones than it used.

How this guide was fact-checked

The Tier 8 unlock, the Drone Port's cargo and fuel port layout, the 18-slot buffer sizes, the Drone's build cost, the complete seven-fuel table with exact MJ and m/s values, and the 51-second docking animations totaling 102 seconds minimum round-trip overhead are all confirmed on the current Satisfactory Wiki. Two of those figures are genuine, exact matches with this guide's source video's own on-screen numbers — the 51/102-second docking math and the Tier 8 unlock — which is a good sign the rest of the video's practical demonstration is trustworthy even where the wiki doesn't independently confirm a specific number. The one real correction: the video's own spoken fuel-efficiency ranking gets confused and self-corrects mid-explanation, so this guide presents the wiki's table as the definitive reference instead of transcribing the video's uncertain ordering. The route-building steps, the fuel hub pattern, the specific 32-canister/4:52/8.19-per-minute trip example, the caterium mining demonstration and the sink-test verification method all come directly from the source video's own on-screen network.

What this guide doesn't answer

This guide doesn't give a universal formula for exactly how many drones a given node output requires — that depends on distance, fuel choice and drone speed all at once, and the source video demonstrates the sink-test method for checking rather than a calculator you could apply generically. It also doesn't cover multiplayer-specific drone behavior or the player-riding trick the wiki mentions (standing on a drone's wing with fall protection equipment), since neither appears in the source video. Finally, it doesn't compare drones against trains and trucks on a cost-per-item basis across every possible route length — the wiki confirms drones favor long-range, low-throughput cargo in general terms, but a precise crossover distance where a train route becomes more efficient than a drone route would need its own dedicated comparison to calculate properly.