In September 2025 Copenhagen airport closed for hours because of drones nobody could identify. Over the following year, drone incursions over airports and bases in Denmark, Norway, Germany, Poland and the Baltic states turned counter-drone equipment from a niche military speciality into something every European ministry, airport operator, energy company and police force is now buying. The manuals for that equipment were written in Ukraine, under fire, over four years, and they are being read very carefully in Warsaw, Bucharest, Berlin and Brussels. 🛡️
This article is for the people who have to buy, integrate, move and maintain that equipment: procurement officers, unit logisticians, airport security managers, systems integrators and the distributors who supply them. It describes the nine kinds of counter-drone kit that Ukraine has proven work, what each one actually is, what it weighs, what it costs, what it needs to function, and, because this is a blog written by people who make and sell transport cases, how each kind is packed, transported, stored and kept alive between deployments. The sourcing is from Ukrainian defence media (Defense Express, Militarnyi, United24), Ukrainian manufacturers' public statements, and European defence analysis (CEPA, the War Zone, the Institute for Science and International Security); figures are as published at the time of writing and change monthly.
One framing point before the list. Every Ukrainian source says the same thing in different words: there is no single counter-drone system. There is a stack, and the stack is only as good as its weakest, least-maintained, worst-transported layer. The European buyer's question is not "which system" but "which stack, and how do we keep it working".
Part 1: The threat the stack is built against
Two very different drones
Ukraine faces two threats that need almost opposite responses. The first is the long-range one-way attack drone: the Iranian-designed Shahed-136 and its Russian-built Geran-2 variant, a propeller aircraft with a 40 to 50 kilogram warhead, flying hundreds of kilometres at low altitude, launched in waves. Russia launched more than 8,000 of them in May 2026 alone, with single nights above 700, and Ukraine's reported interception rate that month was above 90 percent. The second is the small FPV drone: a quadcopter with a grenade or a shaped charge, flown by an operator a few kilometres away, in numbers that make it the leading cause of casualties on the front. Since 2024 a growing share of those FPV drones fly on a fibre-optic cable rather than a radio link, which makes them immune to jamming and has forced the whole counter-drone market toward physical and kinetic answers.
Why Europe's threat is the same shape
The drones over Copenhagen and Munich in 2025 were not Shaheds and not armed FPVs. They were reconnaissance and provocation. But the detection problem is identical (small, low, slow, cheap, launched from anywhere), the response problem is identical (you cannot fire a missile that costs a million euros at a target that costs a thousand), and the equipment Ukraine built for its problem is the equipment Europe is now buying for its own. Poland and Romania have bought Ukrainian-designed interceptor systems; the United States has deployed Ukrainian-designed detection and command software at its own bases; NATO air-defence commanders have said publicly that they want the acoustic sensor network.
The economics that decide everything
A Shahed costs Russia an estimated 40,000 to 80,000 dollars. A Ukrainian interceptor drone that kills it costs 2,000 to 3,500. A machine-gun burst costs less. A surface-to-air missile costs 500,000 to several million. That ratio is why the stack exists: the expensive layers are reserved for the targets only they can hit, and everything else is handled by cheap, numerous, expendable equipment operated by people who are not necessarily specialists. Cheap and numerous also means transported in bulk, stored in the field, and replaced often, which is where the logistics start.
Part 2: The nine kinds of counter-drone kit
1. Acoustic sensor networks: listening for the lawnmower
What it is. The Shahed is loud; its engine sounds like a moped. In 2022 Ukrainian engineers put a microphone and a smartphone on a two-metre pole, trained a machine-learning model to recognise the sound signature of drones and cruise missiles, and connected thousands of these poles to a central system over the mobile network. The result, known as Sky Fortress, now has more than 14,000 sensors across the country, at a unit cost that Ukrainian sources put between 400 and 1,000 dollars. A parallel system, Zvook, uses higher-grade sensors on mobile-phone masts. Both are passive: they emit nothing, cannot be located by anti-radiation weapons, cannot be jammed, and detect drones flying below radar coverage. Ukrainian officials have said the system's accuracy dropped only a few percent when Russia tried to alter drone engine noise.
What it does in the stack. It cues everything else. The sensor network feeds a map that tells mobile fire groups where to drive, interceptor drone crews where to launch, and radar operators where to switch on. It is the reason a machine gunner in a pickup can be waiting on the drone's flight path rather than searching the sky.
What it needs. Power (mains or solar with battery), a mobile data connection, a mounting point, and a central server with the model. Hundreds or thousands of units per region. Installation crews with the right tools and a way of carrying twenty sensors, their poles, cables and batteries at a time.
How it moves. This is a kit that goes out in vans in batches and stays out for years. The sensor units travel in cut-foam cases, ten or twenty to a case, with cables and mounting hardware in the lid organiser; installation teams carry a 1510 or 1610 with the day's units and a 1200 with the configuration laptop and test equipment. Spares and returned units for repair come back the same way. Because the units live outdoors on poles, the cases matter most at the start and the end of the unit's life, and the case is what keeps the fleet organised: one case, twenty serials, one label.
2. Radar, RF detection and the command picture
What it is. Acoustic sensors hear; radar and radio-frequency sensors see. Small portable radars detect drones at ranges of a few kilometres and track them for fire control; RF detectors pick up the control and video links between an FPV drone and its operator and can locate the operator; electronic intelligence systems map where enemy drone crews are working. Ukrainian firms have fielded families of all three, and the newer ones use AESA radar panels with AI-assisted classification to tell a drone from a bird. The command-and-control layer, of which Ukraine's Sky Map is the best-known example, fuses acoustic, radar, RF and visual data into one picture and dispatches the response; the United States began deploying it at its own bases in 2026.
What it does in the stack. Radar and RF turn a warning into a target: bearing, range, altitude, speed. The C2 layer turns a target into a task for a specific crew. A Ukrainian company that protected a regional city reported more than 7,000 drones neutralised by a networked system of this kind; its founders describe the approach as detect, then defeat, with everything routed through one operational picture.
What it needs. Power, elevation, line of sight, calibration, a network, trained operators, and, for the C2 layer, servers that run in the field. Radar is active and can be targeted; it is switched on when the acoustic layer says something is coming.
How it moves. Portable radar panels and RF sensors travel in large wheeled Protector cases with CNC-cut foam, with the tripod or mast in a long case (1750 or 1780) and the power supply and cables in a separate case. The C2 servers, switches and radios are the classic rack-case load: a shock-mounted 19-inch rack in a sealed rotomoulded shell, so the system arrives configured, is plugged in and switched on, and is closed and rolled out when the site moves. A radar team's whole kit is typically four to six cases with a consistent labelling and colour scheme, packed so that the first case opened contains what is needed first.
3. Trench and vehicle electronic warfare: the jamming dome
What it is. The most numerous counter-drone equipment in Ukraine is the small jammer: a box with antennas that transmits noise on the frequencies FPV drones use for control and video, so that a drone entering the bubble loses its link and falls or flies off. They come in three sizes. Pocket and belt units protect one soldier for a few tens of metres. Backpack units, of which the Ukrainian AD Counter FPV is a typical example at about 3 kilograms, cover a radius of a couple of hundred metres and are carried by infantry. Vehicle units, sometimes called domes, cover several hundred metres around a truck or an armoured vehicle and are bolted to the roof. Fixed trench units cover a position. Ukrainian manufacturers have shipped tens of thousands of them, prices for portable units run from around a thousand to a few thousand euros, and the frequency coverage has to be updated constantly as the drones move bands; a Ukrainian radio specialist reported in July 2026 that a Russian FPV had moved its video link above 6 GHz, outside the coverage of most existing jammers.
What it does in the stack. It is the last-metres defence against radio-controlled FPV drones and it is cheap enough to be everywhere. Its limits are the reason the rest of the stack exists: it does nothing against fibre-optic drones, it does not stop a Shahed, it needs power, it heats up, and it interferes with your own drones and radios unless carefully managed.
What it needs. Batteries, lots of them, and a charging routine; antennas that are not broken; firmware updates for new frequency bands; and a way of moving units between positions without damaging the connectors. Jammers are electronics with heat sinks and antenna ports, and the antenna ports are what break.
How it moves. A platoon's jammers travel in a 1610 or 1620 with cut foam for each unit and its antennas, batteries stored separately in their own case (lithium, partial charge, contacts covered), chargers and spares in the lid. Vehicle domes ship in a 1690 or an 0550 trunk with the mounting hardware. The connectors and antennas are the fragile parts and the foam is cut so that they are supported and nothing rests on them. For units that go back to the manufacturer for a firmware update or a repair, the same case is the shipping container; a jammer sent loose in a box arrives with a bent antenna port.
4. Directional jammers: the anti-drone rifle
What it is. A jammer with a directional antenna, shaped like a rifle, that an operator points at a drone to cut its link at a range of several hundred metres to a kilometre. Ukrainian and European makers produce them; Ukraine's AD G-6 series is one example. They are heavier than a rifle, run on a battery pack, and are used by guards, checkpoint crews and protection details rather than by infantry in contact.
What it does in the stack. It is the one-drone-at-a-time tool for sites: an airport perimeter, a power station, a convoy stop. It works against radio-controlled drones and is useless against fibre-optic ones, and its effectiveness depends entirely on whether its bands match the drone's.
What it needs. Charged batteries, trained operators, a legal framework (jamming is regulated in every European country and is illegal for civilians almost everywhere), and a firmware update path.
How it moves. A rifle-shaped device with a battery and antennas is a long-case load: a 1750 or 1770 with cut foam for the device, its batteries in their own cavities, the charger and spare antennas alongside. Sites with several units keep them in a locked case at the guard post with the batteries on charge next to it. The case is also what makes the device an inventory item with a serial and a custodian rather than something leaning in a corner.
5. Close-in physical defeat: shotguns, nets and cages
What it is. When jamming stopped working against fibre-optic drones, Ukraine went physical. Shotguns with anti-drone loads are issued widely; soldiers train to fire at an incoming FPV at tens of metres. Net launchers, from shoulder-fired reusable units to the Ukrainian single-use MITLA, a 365-gram tube that throws a 3.5-metre net to about 25 metres, are carried in pouches. Passive measures, wire cages on vehicles, netting over trenches and roads, and anti-drone screens on buildings, are everywhere on the front and are being copied by every army that studies it. None of this is high technology, all of it works against every drone regardless of how it is controlled, and all of it is being bought by European forces for the first time.
What it does in the stack. It is the layer that works when everything electronic has failed. It is also the layer that is bought by the thousand and issued to the individual soldier or guard.
What it needs. Ammunition or cartridges, training, and a supply chain that can deliver thousands of small items to the right places.
How it moves. Shotguns are firearms and travel as such: long cases, locked, in vehicles, with the ammunition separate. We covered the case side of that in what goes wrong with gun cases. Net launchers and cartridges are small pyrotechnic items and travel in bulk in sealed trunks with the rest of a unit's consumables, dry, labelled, counted. Netting and cage kits travel on pallets and are not a case problem, except for the tools to fit them.
6. Mobile fire groups: the pickup with a machine gun
What it is. Ukraine's first mass answer to the Shahed was several hundred crews of four or five people in pickup trucks with a heavy machine gun on a mount, thermal sights, a searchlight, sometimes a shoulder-fired missile, and a tablet showing the acoustic network's track. Cued by the sensor network, the crew drives to a point on the drone's predicted path and waits. At their peak Ukrainian sources credit these groups with the majority of Shahed kills; as the drones started flying higher and in larger waves their share fell sharply and the interceptor drones took over, but they remain part of the stack and the model has been copied in the Gulf and studied across NATO. Some crews were later given anti-aircraft guns and the German Gepard system, which remains one of the most effective single platforms against Shaheds.
What it does in the stack. It is the human, mobile, cheap, always-available layer that can be stood up in weeks from existing weapons and vehicles, which is why it was first. Its limits are altitude and geometry: a machine gun does not reach a drone at two kilometres and cannot hit one that is not directly overhead.
What it needs. A vehicle, a mount, a weapon, ammunition, optics, a thermal sight, a searchlight, a radio, a tablet on the network, and a crew that can be out all night in winter. Everything except the vehicle and the weapon is electronics with batteries.
How it moves. A fire group's kit is the archetype of a case-based load: the thermal sight and the day optic in a foam-cut 1450 or 1500 that lives in the cab, the radio and the tablet in a 1200 or 1400 with their chargers, the searchlight and its battery in a 1610, the spare barrels and tools in an 0550 trunk in the bed, and a lighting set (a battery area light for the position, headlamps for the crew) in its own case. The crew works in the dark, in the rain, in a hurry, and the cases are what let them find the thermal sight by touch and keep it dry when the truck bed floods. Everything in the truck is strapped; everything that matters is in a case.
7. Interceptor drones: the layer that changed the war
What it is. A small, fast drone, usually a quadcopter or a fixed-wing, with a warhead or a simple impact design, flown or guided into a Shahed at altitude. Ukraine developed them from 2024 and by 2026 they carry most of the Shahed defence: the Sting quadcopter from Wild Hornets was reported at more than 10,000 units a month in production and 9,000 Shaheds destroyed by June 2026; the Merops system has been bought by Poland and Romania and deployed by the United States; Ukrainian officials reported the forces receiving 1,500 interceptor drones a day at the start of the year and manufacturers producing two to three times what the forces need. Costs are in the 2,000 to 3,500 dollar range per interceptor against a 40,000 to 80,000 dollar Shahed. Ukraine has launched them from pickups, from unmanned boats and, in 2026, from the wings of a turboprop aircraft. The Ukrainian command has reported combat effectiveness above 70 percent for the interceptor layer.
What it does in the stack. It is now the primary kill mechanism against long-range attack drones, and the reason a European air-defence plan without an interceptor layer is already out of date. It is also the export product every Gulf and European buyer is queuing for, and the one where Ukraine's manufacturing capacity exceeds its own demand.
What it needs. Airframes in quantity, lithium batteries in larger quantity, a ground control station, a link to the detection network, launch crews positioned along the threat axis, and a supply chain that delivers hundreds of airframes a week to dispersed sites. Batteries are the constraint: charged, stored, transported and replaced, in numbers.
How it moves. Interceptors are consumables and they move like consumables: in batches, in the manufacturer's packaging, on pallets to a depot, and then in cases to the launch sites. A launch crew's working stock of airframes travels in large Protector cases (1690, 1780) or in trunk lockers, with foam cut for the airframe and the propellers removed; the batteries in separate cases with dividers, at storage charge, never full in transit; the ground station, radios and screens in a 1610 or a rack case; the launcher, where there is one, in its own case or on the vehicle. The case fleet for one interceptor crew is a dozen items and the discipline is that batteries and airframes never share a case, that every case is labelled with what and how many, and that the empty cases go back to the depot for the next batch. This is the counter-drone layer with the highest case turnover and it is where the difference between a case that lasts a decade and one that lasts a season shows up in the budget.
8. Guns and directed energy: the expensive precision layer
What it is. Above the cheap layers sit the systems that hit what the cheap layers cannot: radar-guided anti-aircraft guns such as the Gepard, short-range missile systems used sparingly because of cost, and, newly, lasers. Ukraine's Tryzub laser was announced in 2024 and has been reported in combat use against Shaheds; European and American laser programmes are at various stages. Lasers have a cost per shot close to zero and a range and weather sensitivity that limits them to point defence. They are also complex, power-hungry and fragile.
What it does in the stack. Point defence of the most valuable sites, and the only economical answer once the cheap layers have thinned the wave. Missiles are reserved for cruise missiles and aircraft.
What it needs. Power on a scale that means generators, cooling, precise optics, radar cueing, trained crews and a supply chain for spares that only the manufacturer can provide.
How it moves. Systems of this class move on their own vehicles or on pallets, but their optics, control electronics, spares and test equipment are case loads: sealed, foam-cut, labelled, and stored in conditions the equipment specifies. The spare optics for a laser system are the most valuable single items in a unit's inventory and they travel in cases built for them.
9. The people and the training: the layer that is always underfunded
What it is. Every Ukrainian source, and every European analysis of why buying Ukrainian equipment is not enough, ends on the same point: the equipment works because tens of thousands of people have been trained to use it, in a doctrine that assigns the right layer to the right threat, with a command system that ties it together. Ukraine's training centres for EW and drone operators run continuously; European buyers who bought interceptor systems in 2026 found that the delivery was the easy part.
What it does in the stack. It is the stack. A jammer with the wrong firmware, a fire group without the acoustic feed, an interceptor crew with flat batteries, a radar nobody switched on: every one of those is a training and maintenance failure, not an equipment failure.
What it needs. Instructors with recent combat experience, training kit that is the same as the operational kit, a maintenance routine for everything with a battery, and a spares and repair pipeline.
How it moves. Training kits are case loads by definition: a course's worth of jammers, sensors, radios, batteries and tools, in cases that go from classroom to range to classroom without anything lost, with a packing list on the lid. The case with the packing list is the humblest piece of counter-drone equipment and the one whose absence is felt first.
Large Protector cases for jammers, sensors, optics and interceptor stock
Part 3: What Ukraine's logistics taught about moving this equipment
The kit is electronics, and electronics die of the same three things
Water, shock and heat. Every layer above except the nets and the cages is a box of electronics with a battery and a connector, and the connectors and the batteries are what fail. Ukrainian units learned in the first winter that equipment that arrived loose in cardboard did not survive the first month in a trench or a truck, and that equipment in sealed cases with cut foam survived years. The distributors and volunteers who supplied the front learned to ship in cases from the start, because a jammer returned for a bent antenna port is a jammer that was not protecting anyone for six weeks.
Batteries are a separate logistics problem
Interceptors, jammers, sensors, radios, thermal sights, searchlights and tablets all run on lithium. A unit's battery inventory is larger than its equipment inventory and turns over faster. The rules Ukrainian crews settled on are the rules any European unit will need: batteries transported at storage charge, never full; each battery in its own cavity or sleeve, contacts covered; batteries never in the same case as the airframe or the jammer they power; a charging routine written down and followed; a temperature range respected in storage, which in a Ukrainian winter means indoors and in a European summer means out of the sun. The case for batteries is a dividers case, not a foam case, because the battery types change and the count matters more than the fit.
Dispersal means many small kits, not one big one
Counter-drone equipment is spread across hundreds of positions and crews, moved often, and operated by people who did not pack it. That is the opposite of a depot model. The unit of logistics is the crew kit: everything one crew needs, in a known set of cases, labelled consistently, so that a replacement crew can take over the position and find the thermal sight. Ukrainian units label by colour and number and keep a packing list in the lid; European units are adopting the same convention because there is no better one.
Turnover: the case outlives the equipment
Jammers are replaced as frequencies move; interceptors are expended; sensors are upgraded; radios change. The case does not change. A 1620 bought for one generation of jammer is recut for the next; the cases that carried interceptor batches in 2025 are carrying different airframes in 2026. That is the argument for buying the case as infrastructure rather than as packaging, and it is the argument Ukrainian logisticians make when they explain why they specify sealed polymer cases with replaceable foam rather than whatever the equipment shipped in.
The rack case for the command layer
Detection and C2 systems run on servers, switches and radios that need to arrive configured and be running within minutes. A shock-mounted 19-inch rack in a sealed rotomoulded case is how that is done in every army that does it well; Ukraine's C2 nodes are no exception. The rack case is opened front and back, cabled, powered, closed on the move, and the equipment inside never leaves it. For European buyers of Ukrainian C2 systems, the rack case is part of the procurement, not an afterthought, and the manufacturer's shock and thermal specifications decide its depth and rating. We wrote about European-made rack cases in Peli cases for EU-funded projects.
Lighting is counter-drone equipment too
Fire groups, interceptor crews and sensor installers work at night, in winter, in the rain. A crew without a lighting set works slower, breaks more equipment and makes more mistakes; Ukrainian crews carry battery area lights and headlamps as standard and the area light has its own case. It is the least glamorous item in the stack and the one that decides whether the thermal sight gets mounted correctly at three in the morning.
Trunks, footlockers and rack cases for unit kit and command systems
Part 4: Four buyers, four stacks
The airport operator
The threat is reconnaissance and disruption, not attack; the constraint is that nothing kinetic can be fired on an airfield and jamming near aviation frequencies is tightly regulated. The stack is detection first: an acoustic and RF sensor ring, a portable radar or two, a C2 picture shared with the police and the air navigation service, and directional jammers or net launchers in the hands of a trained response team for the last resort. The cases are the sensor installation kits, the radar and mast cases, the rack case for the C2 node, and locked long cases at the security posts for the directional units. The lesson from Copenhagen in 2025 was that detection without a decision chain is a closure; the C2 layer is the purchase.
The energy or utility company
Substations, refineries and pipeline compressor stations are the targets Shaheds are built for, and the sites are large, remote and unmanned at night. The stack is a sensor perimeter, a radar with a long dwell, a C2 node that alerts a regional centre, and, in countries where the law allows it, a contracted response with interceptors or guns. Netting and passive protection of the most valuable components is cheap and effective. The cases are the sensor and radar kits, the rack case, and, for the protection crew, the full fire-group set.
The army unit
Everything on the list, in depth, at every level from the individual soldier's pocket jammer and net launcher to the brigade's interceptor crews and C2. The case fleet is large and it is the only thing that keeps the fleet accounted for: crew kits by colour and number, battery cases separate, interceptor stock in trunks, C2 in racks, optics in foam, tools and consumables in 0550s, lighting in its own cases. Ukrainian brigades run this at a scale of thousands of cases; European brigades are building toward it.
The police or protection service
Events, VIP protection, prisons, borders. The threat is a small drone with a camera or a package; the stack is an RF detector that locates the operator, a directional jammer where legal, a net launcher where not, and a portable radar for large events. The cases are the ones that go in the back of an estate car: a 1510 with the detector and the tablet, a 1750 with the directional unit and its batteries, a 1450 with the net launchers and the thermal monocular. It fits in a boot and it is deployed by two officers.
Part 5: Specifying the case fleet for a counter-drone unit
Start from the crew kit, not the equipment list
List what one crew carries to one position for one night: every device, every battery, every cable, the lighting, the tools, the consumables. That list is the case set. Multiply by crews; add a depot set for spares and stock. Equipment lists that are organised by device type produce cases that are organised by device type, and a crew that has to open six cases to assemble one kit.
Foam for devices, dividers for batteries and consumables
Cut foam for anything with a connector or a lens: jammers, radios, optics, sensors, airframes. Padded dividers for anything that changes count and type: batteries, cables, net cartridges, spares. A lid organiser for the paperwork, the packing list, the small tools. The foam is recut when the device changes; the case is not replaced.
Batteries in their own cases, always
Not with the devices, not with the airframes, not full. A dividers case per crew for batteries, a trunk at the depot, a charging point next to it. This is the single rule that prevents the most damage and the one most often broken by units in a hurry.
Labelling, colour and the packing list
One colour per kit type, one number per crew, a laminated packing list in every lid, a serial-number log for anything with a serial. The case is the inventory record. A unit that can say which crew has which jammer with which firmware is a unit that can update them; one that cannot has jammers on the wrong frequencies.
The rack case is a specification, not a purchase
Depth, rack units, shock isolation rating, thermal load, front and back access, cable pass-throughs, power distribution. It is specified with the C2 manufacturer, and it is the case in the fleet that must not be improvised.
Wheels, handles and the ten-year view
Large cases with wheels get pulled over rubble, mud and airfield concrete for years. Wheels and latches are replaceable parts on the cases worth buying; on the ones not worth buying they are the reason the case is thrown away. The maintenance side of that is in the article on Peli parts and repair on this blog, and it applies word for word to a counter-drone unit's fleet: the case is bought once, the parts are kept in the depot, and a latch is a minute.
Lighting, again
One battery area light per position, one headlamp per person, in the crew kit, charged on the same routine as the batteries. It costs less than one broken thermal sight.
Part 6: The European picture in autumn 2026
What has been bought
Interceptor systems by Poland and Romania; detection and C2 software by the United States for its European bases; acoustic sensor networks under evaluation by several NATO air forces; jammers and directional units by police forces and airport operators across the Nordic and Baltic countries after the 2025 incursions; counter-drone training from Ukrainian instructors for units in a growing list of countries. Ukrainian manufacturers report interceptor production two to three times above domestic need and are exporting; Gulf buyers are ahead of most European ones in the queue.
What the analysts say is missing
The consistent European finding, from CEPA and others, is that buying the equipment is the easy part: the doctrine, the training, the command integration and the maintenance pipeline are what turn a delivery into a capability, and those take a year or more. Ukraine's advice to buyers is to start with detection and C2, add the cheap layers in quantity, train continuously, and build the logistics for batteries and consumables before the first interceptor arrives.
Where the cases come in
Every one of those recommendations has a case fleet underneath it. Detection kits that install and return in cases; jammers that travel and update in cases; interceptor stock and batteries that move in trunks and dividers cases; C2 in racks; training kits with packing lists. It is not the exciting part of counter-drone procurement and it is the part Ukrainian logisticians say they wished they had planned for in 2022 rather than improvised in 2023.
Part 7: Seven mistakes in counter-drone logistics
Buying one system
Every threat needs a different layer. A jammer does nothing against a Shahed; an interceptor does nothing against a fibre-optic FPV. Buy the stack.
Batteries with the devices
A shorted battery in a case with a jammer is a lost jammer and a fire. Separate cases, storage charge, contacts covered.
Equipment in the manufacturer's cardboard
It survives the depot and not the first deployment. Cases from day one.
No packing list
The replacement crew cannot find the thermal sight. Laminated list in every lid.
Firmware nobody tracks
Jammers on last year's frequencies. Serial log, update routine, case label with the firmware version.
An improvised rack
Servers in a soft bag arrive with bent rails. The rack case is specified with the system.
Training kit that differs from operational kit
Operators trained on one jammer and issued another. Same equipment, same cases, same list.
Frequently asked questions
Which counter-drone layer should a European site buy first?
Detection and a command picture. Without knowing what is coming and where, none of the response layers can be used. Acoustic and RF sensors with a C2 node is the entry point Ukraine recommends.
Do jammers still work?
Against radio-controlled drones, yes, if their frequency coverage is current, which needs a firmware pipeline. Against fibre-optic drones, no; that is why nets, shotguns and interceptors exist.
Can civilians buy or operate jammers in Europe?
Generally no; transmitting on those frequencies is restricted to authorised bodies in almost every European country. Detection equipment is generally permitted; net launchers vary by country.
How are interceptor drones transported?
In batches, airframes and batteries in separate cases, propellers off, batteries at storage charge, from depot to launch site in large Protector cases or trunk lockers with cut foam and dividers, with empty cases returning for the next batch.
What case does a C2 node need?
A shock-mounted 19-inch rack case specified with the system's manufacturer for depth, rack units, thermal load and shock rating; front and rear access; cable pass-throughs.
Does the case fleet need maintenance?
Latches and wheels are replaceable parts; foam is recut when equipment changes; a yearly inspection per case. The fleet outlives several generations of the equipment inside it.
Checklist: the counter-drone case fleet
- ✅ Crew kits defined per position per night, not per device type
- ✅ Cut foam for devices, optics and airframes; dividers for batteries and consumables
- ✅ Batteries in their own cases, storage charge, contacts covered, never with devices
- ✅ One colour per kit type, one number per crew, laminated packing list in every lid
- ✅ Serial and firmware log per device, on the case label
- ✅ Rack case specified with the C2 manufacturer
- ✅ Interceptor stock in trunks with foam, empty cases cycling back to the depot
- ✅ Lighting set per position, charged on the battery routine
- ✅ Spare latches, wheels and foam at the depot; yearly case inspection
The short version
Ukraine built a counter-drone stack out of microphones on poles, jammers in backpacks, shotguns, nets, pickups with machine guns, thousands of cheap interceptor drones, a few expensive guns and lasers, a command picture that ties them together, and the training to run it. Europe is buying that stack, layer by layer, after a year of drones over its airports. Every layer is electronics with batteries, dispersed across many crews, moved often and replaced constantly, and the thing that keeps it working between deployments is the same in Warsaw as in Kharkiv: a sealed case with cut foam, a label, a packing list, and the batteries somewhere else. 🛡️
If you are specifying cases for a counter-drone unit, a detection installation or a C2 node, send us the equipment list and the crew structure. We will propose the case fleet, cut the foam, and quote it as one order.
