Germany Testing a Surprising Technique to Launch Powerful Strike Drones

Hello everyone, and welcome back to the Fluctus channel. Small unmanned aircraft have changed modern battlefields by combining surveillance, precision, and comparatively low operating cost. Tactical strike drone can search beyond the range of ground patrols, transmit imagery to a protected control station, and remain available while an operator decides whether a suspected target is genuine. This reduces exposure for air crews and gives commanders another option between artillery and crewed aircraft. Germany's Rheinmetall has entered this field with the FV014, also called Raider. It is a fixed-wing loitering munition designed for reconnaissance and one-way attack missions. Company figures describe a range of approximately 100 kilometers, endurance reaching 70 minutes, and a launch weight near 22 kilograms. Its electric pusher propeller reduces noise during normal flight, while folding wings allow the entire aircraft to remain inside a compact launch tube. The operator works away from the launcher using a control interface and incoming sensor imagery. Mission software can assist with navigation and recognition, but a human remains involved in target validation and the final engagement decision. This separation allows the launcher to occupy one position while the crew controls the aircraft from greater protection. The unusual feature is Rheinmetall's containerized missile launcher. Instead of carrying one exposed drone on a rail, A standard 20-foot container can reportedly house as many as 18 FV014s. During the first mobile test, the container rode on an HX military truck. Its roof opened, a launch cell elevated, and a booster expelled the folded aircraft upward. Once safely clear, the wings deployed and the electric motor carried it into controlled flight. This approach turns an ordinary-looking logistics module into a mobile launch battery. The container can travel by truck and potentially operate from fixed sites or ships, simplifying transportation and concealment. Multiple cells also permit rapid consecutive launches without assembling every drone beside the vehicle. Production begins with lightweight airframe sections, internal wiring, flight electronics, sensors, propulsion components, ...and folding mechanisms. Technicians assemble the fuselage, connect control surfaces, install the motor, and test electrical continuity before completing the outer shell. Each aircraft then undergoes inspection and functional checks before being sealed inside its launch canister under demanding battlefield and weather conditions. In 2026, Germany signed a framework agreement covering a possible five-figure quantity with initial deliveries planned for 2027. Yet launching attack drones creates an urgent opposite challenge – detecting and stopping them before they arrive. Counter-drone defense begins by recognizing that no single weapon can defeat every unmanned threat. A small quadcopter may fly slowly between buildings. While a fixed-wing attack drone approaches at greater speed and distance, defenders therefore combine radar, optical cameras, thermal sensors, radio frequency detectors, command software, electronic disruption, guns, and missiles into one layered network. Rheinmetall's Skyranger family packages several of these functions onto armoured vehicles. Its turret can combine search and tracking sensors with a rapid-firing cannon, while optional missiles extend the engagement envelope. The latest 30mm configuration is designed to fire programmable airburst ammunition. Instead of requiring a direct collision, Each round can release a cloud of projectiles at a calculated point near the drone, increasing the chance of damaging a small target. Testing begins before live ammunition is introduced. Engineers verify turret movement, sensor alignment, communications, safety limits, and the fire control computer. A target drone is launched along a planned route, while radar searches the airspace. Once detected, the system establishes a track, predicts the target's movement, and cues the weapon. During firing trials, high-speed cameras and telemetry record the engagement so engineers can compare the predicted intercept with the actual burst. These trials also expose difficult conditions. Drones may approach low against ground clutter, change directions suddenly, arrive in groups, or operate after dark. Crews repeat scenarios from different angles and distances, then review whether detection occurred early enough and whether the chosen response was proportionate. The purpose is not simply to prove that a gun can fire, but to determine whether the entire chain from detection to identification and engagement works quickly and reliably. NATO exercises expand that process across ships, aircraft, and ground units. During Neptune strike activities, unmanned aircraft help test how allied sensors and command networks share information across domains. A radar belonging to one nation may detect a target, while another platform provides identification or conducts the interception. Standardized communications become as important as the weapon itself. NATO counter-drone development has also examined jammers, interceptor drones, nets, directed energy, and automated command systems. A jammer may interrupt navigation or control links without scattering debris, while a kinetic interceptor may be required against an autonomous aircraft that continues flying after communications are lost. Lasers offer precise engagement if atmospheric conditions permit. Although weather, power demand, and line of sight remain important limitations, training also determines how crews distinguish hostile drones from friendly aircraft operating nearby. Identification rules, airspace coordination, and disciplined authorization reduce the risk of attacking the wrong object. As drone numbers increase, command software must prioritize tracks Recommend suitable effectors and prevent several defensive systems from wasting ammunition on the same target simultaneously in combat. The result is a defensive contest measured in seconds. Attack drones benefit from low altitude, small signatures, and numbers. Defenders rely on earlier warning, rapid classification, and several response options. Skyranger represents the mobile front edge of that network, but larger bases and formations require another layer capable of confronting rockets, artillery, cruise missiles, and aircraft. One established answer is counter-rocket, artillery, and mortar defense, commonly shortened to C-RAM. The system protects a limited area by detecting incoming projectiles, calculating whether they threaten the defended zone, warning personnel, and engaging selected threats. Its distinctive rapid-firing gun is related to the naval Phalanx close-in weapon system, adapted for operations on land. Assembly is a coordinated engineering task. Crews position the weapon mount on prepared ground, connect power and communications, Establish safety boundaries and integrate the radar and command equipment. Technicians inspect mechanical assemblies, electronic cabinets, ammunition pathways, and cooling systems. Alignment checks ensure the sensors and gun reference the same coordinates, because even a small error becomes significant when tracking a fast object. During testing, the mount rotates through its permitted arcs Before ammunition is loaded, Operators confirm that software, radar, and emergency stops function correctly. The weapon then fires controlled, bursts into an authorized range. Its 20mm cannon can produce thousands of rounds per minute, creating the familiar stream of tracers as the mount tracks. After firing, maintainers inspect the mechanism, review diagnostic data, and account for ammunition before releasing the system for duty. C-RAM is intended for close protection, but air defense must also reach farther. The MIM-104 Patriot system uses separate radar, command, power, and launcher vehicles that must operate as a coordinated battery. After reaching a field position, crews establish the site, level the launchers, connect communications, and orient major components. The radar searches assign sectors, while the Engagement Control Station evaluates tracks and distributes firing instructions. Each launcher carries sealed missile canisters raised toward the required firing angle. During an exercise, crews rehearse identification, authorization, and communication procedures before a missile leaves its tube. At launch, the booster accelerates the interceptor rapidly away from the battery. Guidance updates direct it toward the predicted meeting point, where the interceptor attempts to destroy the target before it reaches protected forces. Patriot has evolved since entering service in the 1980s. Different interceptor variants are designed for aircraft, cruise missiles, and tactical ballistic missiles, giving the battery a wider mission than traditional anti-aircraft artillery. Exercises such as Balikatan place these systems in coastal and expeditionary settings, where crews must establish defense with limited time and unfamiliar terrain during repeated deployments. Cost and scale determine how every layer is used. Launching a sophisticated missile at a cheap drone may succeed technically, but prove difficult to sustain against repeated attacks. Guns provide more shots, although their range is shorter. Electronic systems can be economical, but their effectiveness depends on the target's guidance and resistance to interference. Commanders therefore combine Patriot for demanding distant threats, SeaRAM for close defense, And mobile counter drone units for the low altitude gap between them. This layered structure also prevents one equipment failure from opening the entire airspace. Electronic attack provides a way to defeat some drones without physically striking them. Systems such as the Army's Mobile Low, Slow, Small Unmanned Aircraft Integrated Defeat System, or MLIDS, combine sensors, electronic warfare equipment, and kinetic weapons on tactical vehicles. Radar and optical devices first search for small aircraft, while radio frequency sensors examine signals connecting a drone with its controller. Once a threat is identified, an electronic system can transmit interference intended to disrupt its control or navigation. The result may force the aircraft to stop, land, retreat, or lose mission effectiveness, depending on its programming. Because advanced drones can navigate with limited external guidance, MLIDS also supports physical defeat options when jamming alone is insufficient. The maneuver's short-range air defense system extends protection to mobile formations. Mounted on a striker vehicle, M-SHORAD combines radar, electro-optical sights, a 30mm cannon, machine gun, Stinger missiles, and Hellfire missiles. This mixture lets a crew select a response suited to the range and type of threat while remaining able to move with armored forces. Night training is essential because darkness does not stop aerial attack. Crews use thermal imagery and radar instead of relying on unaided vision. They establish tracks, confirm sectors, communicate identification, and engage illuminated or instrumented targets under controlled range conditions. Every launch tests the team as much as the hardware, from the FV014 rising out of a freight container to Sky Ranger, SeaRAM, Patriot, electronic jammers, and M-SHORAD. Air warfare has become a contest between inexpensive attackers and defenses. Germany's unusual launcher demonstrates how quickly strike power can be dispersed, while NATO's response depends on detecting, sharing, and acting faster. That is the end of this video. I hope you enjoyed it. Make sure to subscribe to this channel so you don't miss any of our new content. Thank you.