Thursday, August 20, 2026

LÉGION ÉTRANGÈRE — 13e DBLE Equipment and Field Systems, Part 1

Preface

This field reference summarizes the personal, squad, local-support and ground-vehicle systems most likely to be encountered by French Foreign Legion personnel on Aurore. It is intended for familiarization, recognition and practical comparison. It is not a complete catalogue of French military matériel, nor does inclusion imply that every formation holds every listed system.

Legion equipment is drawn from several generations of French service issue, allied designs, colonial purchases and locally supported stocks. Model, manufacturer and national origin matter because weapons and protective systems that appear similar may impose very different requirements for ammunition, power, software and maintenance.

Contents

·          1. Equipment philosophy and procurement context

·          2. Personal field equipment

·          3. Small arms and squad weapons

·          4. Grenades, missiles and local fire support

·          5. Armor and personal protection

1. Equipment philosophy and procurement context

1.1 Advanced engineering, recognizable machines

French military equipment in 2297 is technologically sophisticated. Advanced materials, compact power systems, advanced electronics, adaptive control software, automation and precision weapons have enhanced performance across all metrics, but they have not abolished mass, terrain, heat, maintenance or fuel economy.

An armored carrier remains a protected vehicle whose principal purpose is carrying infantry. A cargo machine still devotes most of its volume to cargo. Powered equipment requires power and cooling. The future is most visible in integration: sensors, weapons, protection and support machinery exchange information and often share components that were once unique to a single platform.

1.2 Preferential treatment — and its limits

The Foreign Legion occupies a favored but sometimes contradictory position within French procurement. Its expeditionary and colonial responsibilities give it priority for personal weapons, environmental protection, communications, portable support systems, medical equipment and the specialized logistics needed to sustain isolated deployments.

This preference does not extend equally to heavy combat vehicles, major artillery, aerospace craft and other expensive systems dominated by the Metropolitan Army and specialist commands. Legion formations may receive such equipment as attachments, inherit older examples or compete with Army formations for new production. Arguments over allocation, maintenance responsibility and Army vehicles which have mysteriously acquired Legion modifications are longstanding features of French service life.

1.3 New equipment must prove itself

The Legion is frequently selected to test new equipment, but does not confuse novelty with reliability. A system that performs impressively during trials in France may prove less satisfactory after months of dust, temperature extremes, irregular power and maintenance several worlds from its manufacturer.

Rugged construction, accessible components, interchangeable parts and useful degraded modes are therefore valued alongside nominal performance. An older system repairable at a colonial workshop may be preferred to a more capable replacement dependent upon proprietary diagnostics or a supply chain measured in light-years. This attitude is strongest among technical personnel and experienced noncommissioned officers, who must keep the equipment working after the procurement presentation has ended.

1.4 French systems and foreign influences

France has a long tradition of designing and manufacturing its own military equipment. Domestic production is regarded as both a strategic necessity and a matter of national prestige. French procurement has never been entirely insular, however. Foreign systems are purchased when necessary, while useful technologies are licensed, copied, adapted or incorporated into French designs.

American development influenced both the 9×44 mm weapon family and the 9×24 mm French service-pistol cartridge. Russian forces were early major adopters of Gauss small arms, and their operational experience informed later French programmes. Japanese vehicle technology became particularly influential after Japan entered the Central Asian War alongside France. The finished system may carry a French designation and emerge from a French factory while owing something to several allied traditions.

1.5 Commonality, local adaptation and the technical tail

Interstellar shipping and dispersed deployments reward common power connections, diagnostics, controls, ammunition and replaceable modules. Mission equipment may change more quickly than the chassis or weapon carrying it. Perfect standardization is neither expected nor achieved: equipment purchased in different decades remains in service, local workshops manufacture substitutes, and arriving formations bring their own maintenance histories.

The Legion is classified as light infantry because it owns comparatively little heavy armor, major artillery and aerospace equipment. It is not light because its soldiers lack machinery. A battalion may operate hundreds of crewed, powered and robotic systems while remaining light by the standards of a continental field army. Power generation, charging, software support and technical recovery now form a logistical class alongside fuel, ammunition, water and conventional spare parts.

1.6 Technology, tradition and failure

Official training maxim. La technique multiplie; la discipline demeure. — Technology multiplies; discipline remains.

The Legion is an enthusiastic user of advanced weapons, sensors, powered equipment and robotics. It is also unusually conscious of how rapidly those capabilities can disappear when power, communications or technical support are disrupted. Colonial service makes the dependence visible: a failed component replaceable within hours in France may remain unavailable for months on a distant world.

Equipment is selected for useful degraded modes wherever practical. Training places similar emphasis upon manual alternatives. Legion personnel practise navigation without shared overlays, target identification without network confirmation, casualty treatment without automated diagnostics and movement without powered load assistance. The object is not to pretend that technology is unnecessary, but to prevent a technical failure from becoming immediate organizational collapse.

Traditional drill and esprit de corps contribute directly to this resilience. They reinforce a human chain of command that does not depend upon a tactical network and help dispersed groups retain cohesion when the technical framework fails. The Legion cultivates the image that a legionnaire can cross a continent with a rifle, boots and bad coffee. Its technical and logistical personnel work very hard to ensure that he is rarely required to prove it.

2. Personal field equipment

2.1 Clothing and environmental equipment

Ordinary Legion field dress combines durable clothing, weather protection, load-bearing equipment and modular environmental layers. Uniforms are designed to work beneath armor and powered assistance without requiring a completely different wardrobe for every configuration.

Standard French equipment is adapted through interchangeable liners, filters, cooling systems, protective coatings and environmental accessories. Local procurement is common where colonial products are adequate or unusual planetary conditions make local equipment more suitable than general-service issue. Boots, outer clothing, shelter material and protective accessories may therefore vary considerably between Legion commands.

Such purchases remain subject to military inspection, but distant formations receive considerable latitude. A locally manufactured item proven under local conditions is often more useful than a regulation replacement several worlds away. On Aurore, water carriage, thermal protection, eye protection, dust control and circadian-management equipment receive particular attention.

2.2 Powered load assistance and cargo handling

Legion infantry routinely use powered load-assist frames. These are not sealed powered armor. They transfer equipment weight to the ground, reduce fatigue, stabilize firing positions, assist casualty movement and heavy lifting, and provide standardized power and data connections for carried systems.

The soldier remains mobile if a normal assist frame fails, although endurance and carrying capacity decline sharply. Improved capacity naturally encourages the institution to issue more armor, batteries, ammunition, missiles, drones and environmental equipment until the soldier is once again carrying as much as doctrine permits.

Larger power loaders are vehicles rather than suits. The Saint-Chamond CH-90 is a common operator-controlled loader used for ammunition, cargo modules and vehicle components. The operator occupies a control frame or compact cab and directs articulated lifting arms. It remains valuable when cargo is damaged, irregular or poorly marked and when automated handling systems cannot be trusted.

The Satory MR-94 is representative of fully robotic cargo handlers used at depots, landing fields and established bases. It unloads standardized containers, replenishes vehicles and moves stores continuously under limited supervision. The Army programme de robotisation du soutien seeks to release personnel from repetitive handling work, but units retain piloted loaders for damaged infrastructure, improvised cargo and emergency operations.

Equipment class

Representative system

Normal use

Wearable assist

EPI-compatible load frame

Personal load carriage and casualty movement

Piloted loader

Saint-Chamond CH-90

Irregular cargo, repair work and field handling

Robotic loader

Satory MR-94

Depot, landing-field and standardized cargo handling

2.3 Communications, sensors and medical systems

Helmet displays, weapon sights, vehicles, drones and command systems exchange information through encrypted tactical networks. Common equipment includes multispectral imaging, navigation and terrain mapping, shared target designation, electronic-support measures, counter-drone sensors, atmospheric and xenobiological monitors and compact medical diagnostics.

This is a priority area for Legion procurement. Dispersed colonial operations make reliable communications, environmental monitoring and local awareness matters of survival rather than convenience. The same equipment is expensive and technically demanding. Batteries, replacement sensors, encryption control, software support and trained maintainers impose a considerable burden upon companies and battalions.

Legion medical practice reflects the same dispersed conditions. More personnel receive advanced trauma training than is usual in equivalent Army formations, while designated medics are equipped to stabilize serious casualties without immediate access to a physician or evacuation aircraft. Compact diagnostics, automated drug delivery, blood substitutes and environmental treatment systems improve survival, but do not replace skilled judgment. Legion medicine at squad and platoon level is particularly good at keeping a casualty alive until proper treatment can be reached.

Connectivity increases speed but also creates signatures and vulnerabilities. Units retain voice, visual, wired and procedural fallbacks. A platoon cut off from the network should become less efficient, not incapable of acting.

2.4 The ordinary burden and local supply

Beneath the sophisticated layer remains the ordinary burden of military life: boots, shelter, food, water, hygiene equipment, medical supplies, entrenching tools, spare clothing, socks and eating utensils. No technological advance has eliminated the operational importance of dry feet, clean water or a spoon.

Many such goods are procured on the world where they will be used. Orbital and interstellar transport is routine but not free, and high-bulk, low-value cargo competes poorly with weapons, electronics and specialist components. Food, containers, clothing, packaging, simple tools, shelter components and ordinary consumables are therefore purchased or produced locally whenever acceptable sources exist.

The Legion is generally more comfortable with local supply than the Metropolitan Army. This flexibility reduces transport requirements and supports colonial industry, but produces uneven quality, nonstandard stocks and compatibility problems. It also ties a formation to its present world: contracts, workshops and accumulated reserves cannot accompany a unit when it redeploys.

The 13e DBLE benefits more than most from local procurement because it is an established Aurore formation rather than a temporary expeditionary force. Its knowledge of local producers and workshops is itself a logistical asset, although advanced weapons and specialist components must still arrive from elsewhere.

Briefing-room version. Le matériel tombe en panne. La mission demeure. — Equipment fails. The mission remains.

3. Small arms and squad weapons

3.1 FAM-90 rifle family

The FAM-90 is the standard rifle of the French Army and Foreign Legion. It is a Gauss weapon firing small projectiles at extreme velocity. The FAM-90P precision variant uses the same family with a longer barrel, precision components and enhanced optics. Both accept the standard integral programmable grenade launcher.

The rifle's integrated sight was considered exceptional when introduced and remains among the best military small-arms fire-control systems available. It combines optical magnification, low-light amplification, thermal imaging, laser rangefinding and atmospheric compensation. Target motion, range, wind and weapon orientation produce a continuously updated aiming solution. The sight does not merely help the soldier see; it indicates corrected points of aim, predicts movement, programs grenades and exchanges target data with the squad network.

The FAM-90 also provides a useful close counter-drone capability. Its Gauss mechanism can fire ordinary ballistic projectiles at reduced energy and a much higher rate than normally used against personnel. Predictive sights place short bursts across a drone's anticipated path. When several rifles share the combat network, targets and firing sectors can be assigned between soldiers. This is effective against small, low-end drones but consumes power and ammunition rapidly and does not replace dedicated point defence.

Gauss weapons are highly effective against flexible inertial armor and remain dangerous to hard plates. Their performance comes with requirements for electrical power, electronic diagnostics and trained maintenance.

3.2 Conventional weapons and colonial stocks

The MAS FA-78 was the principal French 9×44 mm service rifle before the FAM-90. It belongs to an ammunition family of American origin and shares its caseless smart-fused projectile with the AAT-78 general-purpose machine gun. The round remains dangerous to personnel, cover, equipment and light vehicles, although the rifle is heavy and less effective against modern armor than the FAM-90.

The Franco-Bavarian MAS-Mauser FSA-68, designated StG 68 in Bavarian service, is a well-regarded 7.5 mm binary-propellant rifle developed during close military cooperation between the two states. French and Bavarian versions differ in furniture and sights but share their action, magazines and ammunition. The weapon remains common in reserve forces, colonial militias and among troops familiar with Bavarian equipment.

The Argentine Arsenales Belgrano FB-78 Pampero is another widespread 7.5 mm design. Built for forces unable to rely upon elaborate maintenance, it is simple, inexpensive and tolerant of locally manufactured ammunition. It lacks the FAM-90's refined integration but has become one of the most frequently encountered colonial service rifles outside the arsenals of the major powers.

The PAM9 service pistol, manufactured in several French plants under a common military specification, uses the American-derived 9×24 mm caseless cartridge. It is standard among officers, vehicle crews, military police and personnel for whom a full rifle is inconvenient.

Weapon

Origin

Service character

MAS FA-78

France / American ammunition lineage

Older 9×44 mm explosive-projectile service rifle

MAS-Mauser FSA-68 / StG 68

France and Bavaria

Reliable allied 7.5 mm binary-propellant rifle

Arsenales Belgrano FB-78 Pampero

Argentina

Robust and widely exported colonial rifle

PAM9

France / American cartridge lineage

Standard 9×24 mm caseless service pistol

3.3 FM-94 and AAT-78 automatic weapons

The FM-94 is the current French Gauss squad automatic weapon. It reduces ammunition weight, integrates with modern fire control and performs well against armored infantry. The older AAT-78 is heavier and more ammunition-hungry, but rugged, independent of weapon power and capable of sustained 9×44 mm explosive fire.

Many nations pair their 7.5 mm binary-propellant rifles with a machine gun using the same ammunition. France evaluated several such weapons and issued limited numbers to reserve and colonial formations, but the Legion never adopted them widely. The AAT-78 offered greater range and effect against protected targets; the Legion consequently moved from the 9×44 mm AAT directly toward the Gauss FM-94.

Vehicle-mounted AAT-78s remain common because mounting removes the ammunition burden and exploits vehicle sensors, stabilization, cooling and storage. Dual-feed installations normally carry standard explosive armor-piercing ammunition and the Munitions du Rhône OFP-94 proximity-fragmentation round. The OFP-94 sacrifices penetration for a prefragmented casing, programmable proximity fuze and automatic self-destruction, making it useful against drones, missiles, grenades and mortar bombs.

The small proximity sensor is not entirely reliable near terrain, vegetation or electronic clutter. Vehicle fire control compensates by placing short calculated bursts around the predicted interception point. An infantry AAT-78 can fire the OFP-94, but without suitable sensors and programming equipment gains little from doing so.

The argument in the ranks. Higher command considers the FAM-90, FAM-90P, FM-94 and squad plasma gun an exceptionally powerful combination. The troops agree — and still miss the AAT-78 that went brrrrrt.

3.4 Quinn-Darlan Mk 2-A2 PGMP

The Foreign Legion was among the earliest and heaviest French adopters of man-portable plasma weapons. On paper, the PGMP answered several colonial requirements with one reusable system: antivehicle fire, defeat of armored personnel, precision attack against fortified positions and protection against dangerous native life. It gave dispersed squads a measure of the direct-fire capability otherwise supplied by vehicles, missiles or attached support weapons.

Each standard Legion rifle squad includes a gunner and assistant for the 12 kg Quinn-Darlan Mk 2-A2 Plasma Gun, Man-portable. Several features of the Mk 2-A2 reflect Legion experience with earlier weapons: mounting, power connections, cooling and controls were redesigned for prolonged dismounted use under colonial conditions.

A plasma impact resembles a shaped-charge event more than an ordinary high-explosive detonation. The primary pulse concentrates enormous energy into a small area, producing a secondary explosion of vaporized material, incandescent debris, pressure and fragmentation. This is dangerous to exposed personnel near the impact, especially in confined spaces, but does not create the broad casualty radius of a proper explosive shell. A direct hit makes ordinary personal armor largely irrelevant.

The apparent economy carries a different logistical cost. The PGMP requires power, cooling, trained operators and specialist maintenance. It cannot suppress an area like a machine gun or produce the broad effect of mortar fire. The Legion nevertheless considers the trade worthwhile for squads expected to operate beyond immediate vehicle support.

The French Army fields the PGMP widely in high-readiness, assault and expeditionary formations but does not place one in every squad. The United States is another extensive user of man-portable plasma weapons. Japan fields technically advanced but expensive systems, while German formations tend to concentrate them at platoon level. Plasma guns remain uncommon among forces unable to support their power and maintenance requirements.

3.5 Laser rifles in French service

Laser rifles are mature military weapons and can replace a conventional or Gauss service rifle on approximately a one-for-one basis. Modern examples have rifle-like handling, self-contained power, combat sights and, in some models, integral grenade launchers. Several advanced militaries use them as general-service weapons.

France selected the Gauss FAM-90 as its universal rifle but maintains laser weapons for special forces, reconnaissance, aerospace-security troops and other formations whose missions reward precision, negligible recoil and almost instantaneous time of flight. The CILAS-Saint-Étienne FL-92 is the principal French model; the FL-92G adds a compact programmable grenade launcher.

Laser fire is exceptionally accurate and effective against exposed sensors, drones and damaged armor. Smoke, dust, fog, precipitation and purpose-designed obscurants reduce practical range. The weapon also generates substantial heat and depends upon clean optics and functioning power modules. The Legion has evaluated and occasionally deployed the FL-92 but retains the FAM-90 as standard because its physical projectile is less sensitive to adverse atmospheric conditions and already has a mature colonial support base.

System

Normal Legion level

Principal role

FAM-90 / FAM-90P

Individual / squad

Standard Gauss rifle and precision variant

FM-94

Squad

Modern Gauss automatic weapon

AAT-78

Support / vehicle

Sustained 9×44 mm fire and vehicle point defence

PAM9

Individual

9×24 mm caseless service pistol

Quinn-Darlan Mk 2-A2

Squad

Reusable plasma fire against hard targets

CILAS FL-92

Specialist issue

Precision laser rifle

4. Grenades, missiles and local fire support

4.1 Hand grenades

Purpose-built hand grenades remain standard issue despite the FAM-90's integral launcher. A grenade can be thrown, rolled, dropped or placed without exposing the rifle or requiring room to aim it. Rifle grenades extend reach and permit precise airburst; they do not replace the flexibility and simplicity of a munition held in the hand.

Designation

Manufacturer

Purpose

GDF-92

Lacroix Défense

Defensive fragmentation grenade

GO-92

Lacroix Défense

Offensive concussion grenade

GMO-94

Société Pyrotechnique de Bourges

Multispectral obscurant

GIT-90

Société Pyrotechnique de Bourges

Incendiary and equipment destruction

GPP-95

Munitions du Rhône

Programmable multipurpose grenade

The GPP-95 provides selectable delay, impact and limited airburst functions and accepts different effect sleeves. It is more expensive than a conventional grenade and has not displaced the simpler GDF-92, GO-92 and specialist smoke or incendiary types. Legion units normally carry a mixture rather than expecting one programmable munition to perform every task.

4.2 Antivehicle weapons

The Guiscard Blindicide-3 is a disposable smart light antivehicle weapon carried at squad level against armored personnel, light vehicles, firing positions and dangerous large fauna. It is compact and simple but short-ranged and vulnerable to countermeasures, obscuration and poor target identification.

The Blindicide-9 is a proper guided missile with greater range, a heavier warhead and more sophisticated guidance. Dismounted teams and vehicle installations are normally controlled at platoon or company level and issued according to the anticipated threat.

Vehicle-mounted plasma weapons

Vehicle plasma weapons range from the Quinn-Darlan Mk 2-V, an adaptation of the infantry PGMP drawing power and cooling from its carrier, to the heavier CPV-95 turret family. They provide repeatable direct fire against armor, fortified positions and other hard targets.

A plasma discharge is difficult to intercept or decoy, while feedstock occupies less volume than an equivalent number of missiles. The disadvantages are high electrical demand, major cooling requirements, direct line of sight and a conspicuous firing signature. Plasma cannon provide a deep supply of direct-fire engagements; missiles retain greater reach, independent guidance, top attack and the ability to engage targets outside the gunner's immediate view.

Box launchers and vertical launch systems

The simplest vehicle installation is an exposed box or rail carrying one to four sealed missiles. The Guiscard LD-9 double launcher fitted above some 8×8 remote weapon stations normally carries two Blindicide-9 missiles. Such launchers are inexpensive and easily added to existing vehicles, but have few ready rounds and remain exposed to fragments, weather and collision damage.

Dedicated missile vehicles use the Aérospatiale Narval-Guiscard LVM-95 lanceur vertical modulaire. Armored cells are installed within the hull or a protected mission module. A full cell holds one large antivehicle, air-defence or surface-strike missile; a multipack cassette places several smaller missiles in the same space. Vertical launch provides all-direction coverage and permits a vehicle's ammunition mix to be selected for the mission.

The LVM-95 occupies internal volume, adds weight and requires sophisticated fire control and launch-gas management. It is therefore fitted to specialist missile and air-defence vehicles rather than ordinary carriers.

4.3 Air defence and point defence

The Guiscard Martel is a compact shoulder-fired missile for drones, helicopters, low-flying aircraft and aerospace vehicles making close approaches. Vehicle-mounted versions can use light external boxes or multipacked LVM-95 cells. The heavier Aérospatiale Narval Épervier-6 offers greater range, altitude, seeker discrimination and countermeasure resistance and normally occupies a full launch cell or substantial elevating canister.

Counter-UAV aircraft and interceptor drones extend the defensive perimeter, investigate uncertain contacts and may attack hostile drone carriers or control relays. They are less reliable as terminal defence: an interceptor must already be airborne or launch, identify, coordinate and reach the threat within a very short engagement. French units therefore employ counter-UAVs as an outer patrol layer rather than as a substitute for direct-fire point defence.

Vehicle-mounted lasers provide both soft-kill and hard-kill protection. The CILAS LPR-96 family uses a compact stabilized director rather than a conventional gun barrel. It can dazzle or overload optical sensors, disrupt missile seekers and damage drone optics at lower output; more powerful settings burn through exposed sensors, control surfaces and lightly built incoming munitions. Its practical magazine is limited by power and heat rather than ready rounds, but dust, smoke, fog and precipitation reduce effectiveness and robust targets require sufficient dwell time.

The GIAT SPP-96 système de protection plasma is fitted to high-value combat vehicles. A compact, rapidly traversing emitter receives tracks from the vehicle's warning and fire-control system, predicts the interception point and fires without requiring the long barrel of a conventional cannon. It can destroy drones, missiles, guided artillery, mortar bombs and some submunitions which have penetrated the outer defences. Plasma fire is difficult to spoof and its charges are compact, but the complete installation demands considerable power, capacitor capacity, cooling, protected feed equipment and clear firing arcs.

Neither system creates an impenetrable bubble. Terrain masking, damaged sensors, obstructed arcs and simultaneous attacks can overwhelm the director or exhaust ready power. Very fast kinetic penetrators remain principally a problem for armor and conventional active protection. Automatic engagement is necessary at these reaction times, but the crew defines the defensive mode, protected sectors and authorized target classes; friendly infantry and civilian traffic can restrict both laser and plasma fire.

The AAT-78 remains an inexpensive lower layer. A dual-feed mount using OFP-94 ammunition can engage small drones, guided missiles, grenades and mortar bombs at close range. A sophisticated defensive vehicle may combine conventional fire against numerous low-end targets, lasers against sensors and light drones, plasma against robust close threats and VLS missiles against distant aircraft and weapons.

Defensive system

Best use

Principal limitation

AAT-78 / OFP-94

Small drones and inexpensive close threats

Ammunition use and limited interception probability

CILAS LPR-96 laser

Sensors, seekers, light drones and precision interception

Weather, obscurants, heat and dwell time

GIAT SPP-96 plasma PD

Hard kill of robust close-range threats

Power, heat, signature and clear firing arcs

Martel / Épervier missile

Longer-range air and missile defence

Limited ready rounds and countermeasures

4.4 Smart mortars

The Brandt-TDA MIP-93 Mortier intelligent portable is a dismountable platoon and company support weapon. It can be divided between its crew, transported by a robotic hauler or fired from a temporary vehicle mounting. Automated laying and networked ballistic computation allow it to receive targets from observers, rifle sights, drones and vehicles.

MIP-93 ammunition includes fragmentation, programmable airburst, smoke, multispectral obscurant, illumination, guided top attack and limited sensor or communications-relay payloads. Course correction compensates for ordinary errors in range, atmosphere and firing position but cannot make uncertain target information reliable.

The Systèmes Balistiques d'Auvergne MVA-95 Mortier véhiculaire automatique is a larger vehicle system with an autoloader, protected ammunition and networked fire direction. It can fire several rounds on different trajectories so they arrive almost simultaneously, then displace before the first impacts. Sustained fire still demands considerable ammunition transport, power and maintenance and remains vulnerable to counterbattery detection.

System

Normal level

Principal capability

Brandt-TDA MIP-93

Platoon / company

Dismountable networked indirect fire

SBA MVA-95

Company / battalion support

Automated vehicle fire and rapid displacement

4.5 Mines and tactical area denial

Legion infantry use mines on a limited tactical basis to protect camps, block approaches, delay pursuit and channel vehicles into observed fire. Large minefields, remotely delivered mines and mechanical minelaying remain engineer or higher-command responsibilities.

System

Type

Normal use

Lacroix MDD-94

Directional defensive munition

Command-controlled defence against personnel and light drones

Guiscard MAV-91

Smart antivehicle mine

Attack on wheels, tracks, lift systems or vehicle undersides

Bourges BALISE-3

Sensor and warning node

Detect and report movement without necessarily attacking

Munitions du Rhône MPA-95

Programmable area-denial munition

Restricted autonomous or command-authorized engagement

Modern French mines normally report their positions and incorporate timers, remote safing and self-neutralization. Smart models classify targets and ignore authorized identification signals, but damage, jamming, unfamiliar vehicles and native life can make discrimination unreliable. The Legion therefore prefers observed or command-controlled minefields whenever circumstances permit.

Engineer warning. Mine warfare has become more controllable, not harmless. A mine may announce its position and deactivate on schedule; it may also be damaged, spoofed, buried by weather or forgotten when the network collapses. Every minefield remains dangerous until physically accounted for.

5. Armor and personal protection

5.1 Development of the EPI-92 family

French personal protection developed from separate ballistic garments, environmental suits and load-assistance equipment. Experience during the Central Asian War demonstrated the value of combining these systems and the difficulty of maintaining elaborate armor under expeditionary conditions.

The EPI-83 family was the principal integrated French system during the later stages of that war. It provided good fragmentation and conventional ballistic protection, but rigid components were heavy and its environmental and electronic systems were poorly standardized. Field modifications varied considerably between formations.

The EPI-92 programme replaced that collection with a common modular architecture. Textiles Techniques d'Albi supplies the SI-92 inertial layer; Saint-Chamond Protection produces the principal plates and powered frames; SAGEM Défense Personnel integrates the CI-94 helmet, sensors and communications. Components are manufactured by additional licensed firms under the same government specification.

Designation

Common name

Purpose

EPI-92/CL

Patrol plate

SI-92, helmet and limited vital-area plates

EPI-92/CCM

Half plate

Standard Legion medium combat configuration

EPI-92/CCL

Full plate

Sealed heavy combat and environmental armor

EPI-92/CAP

Breacher plate

Powered assault, boarding and fortified entry

CI-94

Integrated helmet

Sensors, communications, protection and environment

5.2 Colonial and auxiliary protection

The complete EPI-92 family is not universally issued. Colonial militias, locally raised troops and lower-priority security forces frequently operate with an inertial layer and helmet but few hard plates. Some use older French systems, locally produced carriers or imported equipment compatible with only part of the French standard.

An inertial layer and modern helmet provide substantial protection against common colonial threats: conventional small arms, fragments, industrial accidents, dangerous debris and some forms of native life. They are comparatively easy to store and maintain. Hard plates are more expensive, while powered assistance introduces continuing demands for batteries, actuators, diagnostics and trained repair personnel.

Powered load assistance is therefore uncommon in poorer colonial formations and often held in shared pools rather than issued to every soldier. Wealthy colonies and units protecting strategic installations may be considerably better equipped; colonial appearance alone is not a reliable indication of capability.

Recent French Army procurement trends in the opposite direction. High-readiness infantry receive greater plate coverage, stronger powered frames and more robotic ammunition and sensor carriers. This increases tactical endurance and carrying capacity while lengthening the logistical tail of power generation, charging, spare actuators, software support and technical recovery.

5.3 Inertial layer and half plate

The SI-92 remains flexible during movement but becomes rigid when struck by a fast object, spreading impact across a wider area. It is particularly effective against conventional small arms, fragments, ricochets and debris. Gauss projectiles concentrate too much energy into too small an impact; lasers and plasma attack primarily through heat rather than mechanical shock.

CCM half plate adds composite chest, back and side plates, an armored collar, shoulder and upper-arm protection, groin protection and the CI-94 helmet. Forearms, much of the thighs and lower legs retain the flexible layer. Demi-armure describes the configuration's visual and practical character rather than a mathematical coverage percentage.

The Legion favors half plate because it provides substantial protection while preserving mobility and remaining supportable during prolonged colonial operations. Powered load assistance is common but essential loads are distributed so that the loss of a frame or robotic hauler does not immediately immobilize the unit.

5.4 Full and breacher plate

CCL full plate is a complete combat and environmental system rather than half plate with additional panels. It provides full-body armor, sealing, thermal control, communications, multispectral imaging and limited life support. Mission packages adapt it to vacuum, toxic or corrosive atmospheres and extreme temperature or pressure.

CAP breacher plate is a heavily reinforced powered assault system for boarding, fortified positions and urban entry. Protection, breaching tools and heavy weapons make powered assistance integral. Power or actuator failure can leave the wearer severely encumbered or immobilized. Breacher plate is personal equipment only in the narrow sense that one person wears it; its transport, power and recovery requirements approach those of a small vehicle.

5.5 Protection against common weapons

Armor changes the probability and consequences of a hit rather than making the wearer invulnerable. Sensors, seals, joints and power connections are generally more vulnerable than the principal plates, while repeated hits can damage even material which defeats the first projectile.

Threat

SI-92 alone

CCM half plate

Full or breacher plate

Conventional rifle

Good against many hits

Strong where plates cover

Strong; repeated fire remains dangerous

Fragments and debris

Very effective

Excellent

Excellent

9×44 mm explosive fire

Reduces fragments; poor against direct hits

Plate may contain isolated hits

Good chance against isolated hits

Gauss rifle

Frequently defeated

Plate may deflect marginal hits

Best personal protection; no immunity

Laser rifle

Ablative layers delay damage

Requires dwell or repeated hits

Strong initially; heat accumulates

Plasma gun

Negligible against direct hit

Direct hit normally catastrophic

Reduces secondary effects; direct hit remains severe

5.6 Powered infantry, loaders and combat walkers

Powered armor remains personal equipment: the wearer's limbs occupy or directly control the suit's limbs. A powered loader is a vehicle operated from a cab or control frame, even when its lifting arms reproduce human movements. A combat walker is a piloted vehicle whose operator sits within an armored torso or capsule while powered limbs provide movement at greater scale.

French doctrine continues to define infantry by what it can do after dismounting and dispersing. Infantry can enter ordinary buildings, climb through confined terrain, search and occupy ground and continue after abandoning damaged machinery. A powered system begins to resemble a walker when its operator cannot move without functioning actuators, cannot use ordinary human spaces or requires dedicated vehicle transport and recovery.

The mechanization question. Modern infantry may wear powered armor, carry vehicle-grade sensors and draw ammunition from robotic haulers. The decisive question is not how much machinery accompanies the soldier, but how much useful capability survives when power, communications and technical support fail.

BH-21 combat walker

The BH-21 was France's principal heavy combat walker during the Franco-German and Flemish wars. It combines powerful armament, substantial frontal armor and considerable physical strength, but was already showing its age in 2292. German Hannover designs possessed better stabilization, faster control response, more efficient actuators and superior integration with battlefield sensors.

The BH-21 remained dangerous but was consistently outmaneuvered and detected earlier than its German opponents. Upgrades have improved sensors, fire control and protection without changing the basic structure. Germany has continued development, while several other powers now field or are preparing modern walkers. The BH-21 remains useful in assault, engineering support and exceptional terrain, but no longer represents the leading edge of walker design.

Walker armor is necessarily uneven. The central crew capsule may approach the protection of a light armored vehicle, while joints, actuators, sensors and limb structures remain exposed. A walker may survive damage that would kill powered infantry yet lose mobility or weapon control without its crew compartment being penetrated.

Bipedal terrain carriers

Non-humanoid two-legged carriers, often called striders, occupy a narrower category. A low crew pod or robotic control body is mounted between articulated legs without humanoid arms. The arrangement is inefficient on roads and open ground but can cross rubble, terraces, trenches, dense vegetation and industrial ruins which defeat ordinary wheeled vehicles.

Early striders retained crews because autonomous navigation through broken terrain remained unreliable in combat. Modern examples are increasingly robotic or optionally crewed. They serve as reconnaissance, engineer and specialist weapons platforms, not substitutes for APCs, tanks or humanoid walkers.