(DEFENCE SECURITY ASIA) — Iran claims its ballistic missiles can now alter course during flight, evade layered air defences and redirect towards secondary targets, potentially transforming the interception challenge confronting United States, Israeli and Gulf military forces.

Islamic Revolutionary Guard Corps spokesman Brigadier General Hossein Mohebbi disclosed the claimed capability on August 10, 2026, presenting advanced missile guidance as a central component of Iran’s expanding technological warfare strategy.

“Iran’s missiles are no longer like they were in the past, merely launched from one point to land at another,” Mohebbi said during an event in Qazvin.

He claimed Iranian missiles now possess guidance and course-changing capabilities enabling some weapons to bypass hostile air-defence systems, while selected missiles could reportedly be redirected towards another target after launch.

The distinction is operationally critical because terminal manoeuvring improves accuracy and interceptor evasion, whereas genuine mid-course retargeting requires substantially more sophisticated communications, navigation, processing and command architecture.

If independently verified, the capability could complicate defensive planning around American bases, Israeli military facilities, Gulf energy infrastructure and maritime routes adjoining the strategically indispensable Strait of Hormuz.

Mohebbi characterised the development as “technological warfare,” arguing that contemporary military power increasingly depends upon artificial intelligence, scientific innovation, advanced guidance systems and the ability to disrupt an adversary’s wider power network.

However, Iran has released no public telemetry, flight-test documentation or independently verifiable combat evidence demonstrating reliable redirection towards entirely different targets after launch under contested electronic-warfare conditions.

The announcement therefore combines a plausible continuation of Iran’s documented guidance improvements with an unverified assertion whose operational maturity, deployment scale and resistance to countermeasures remain uncertain.

Iranian missile forces nevertheless occupy the centre of Tehran’s conventional deterrence posture, compensating for vulnerabilities within its combat aviation fleet and creating retaliatory options against geographically dispersed regional adversaries.

The claimed breakthrough emerges after intense 2026 exchanges involving Iranian missiles and drones, American strikes against Iranian military infrastructure, and disputed accounts concerning damage to radars, command facilities and air-defence batteries.

Consequently, even an incremental improvement could reshape regional force posture by compelling defenders to disperse aircraft, harden bases, expand sensor coverage and allocate increasingly scarce interceptors across larger defended areas.

From Predictable Ballistic Arcs to Manoeuvring Threats

Traditional ballistic missiles generally follow predictable trajectories after boost-phase completion, allowing warning satellites, long-range radars and fire-control systems to calculate likely impact zones and generate interceptor engagement solutions.

A manoeuvrable re-entry vehicle changes that geometry by using aerodynamic control surfaces, fins or thrusters to adjust lateral position, altitude, velocity and impact angle during the terminal flight phase.

Those movements can invalidate earlier intercept calculations, compress engagement timelines and force Patriot PAC-3, THAAD or Arrow interceptors to perform energy-intensive corrections that reduce their remaining kinematic margin.

Iran has associated advanced manoeuvring or guidance characteristics with the Fattah-1, Fattah-2, Kheibar Shekan, Khorramshahr-4, Emad and Etemad missile families, although their capabilities differ considerably.

The liquid-fuel Emad introduced a steerable re-entry vehicle with control surfaces, while the solid-fuel Kheibar Shekan reflects Iran’s broader pursuit of faster launch preparation, improved survivability and greater terminal accuracy.

Fattah-1 and Fattah-2 are promoted by Tehran as hypersonic weapons, but speed alone does not establish a missile’s ability to sustain unpredictable manoeuvres throughout atmospheric flight.

Claims that newer Iranian missiles achieve circular error probable measurements within tens of metres remain difficult to validate consistently, particularly during mass launches conducted against electronic interference and layered interception.

Nevertheless, wreckage examinations and previous combat episodes indicate that Iran has progressively replaced early, comparatively inaccurate inertial guidance with improved navigation, manoeuvrable warheads and more refined aerodynamic control.

Such advances do not make Iranian missiles invulnerable, but they increase the probability that selected weapons could penetrate when launched with drones, decoys, jammers or less sophisticated missiles.

The military consequence is cumulative: defenders must distinguish genuine threats from penetration aids, preserve interceptors for priority targets and continuously revise engagement solutions as the attacking formation evolves.

Secondary-Target Redirection Remains the Critical Unverified Claim

Redirecting a missile towards a different target during flight exceeds the technical requirements of a terminal course correction intended to strike a pre-programmed aim point more accurately.

A credible retargeting architecture would require an operational data link, secure command channel or autonomous onboard system capable of receiving intelligence, recalculating trajectories and confirming that sufficient manoeuvring energy remains.

The missile would also need a resilient inertial navigation system, potentially supported by satellite navigation and controlled-reception pattern antennas capable of suppressing jamming directed against vulnerable positioning signals.

Iran has demonstrated growing interest in multi-element anti-jamming navigation arrays, but public evidence does not establish that these technologies enable dependable long-range retargeting during combat.

Command links would themselves face electronic attack, cyber disruption, signal interception and latency, particularly when missiles cross heavily monitored airspace protected by American or Israeli intelligence networks.

Autonomous target reassignment could reduce dependence upon external communications, although it would demand trusted sensors, powerful onboard processing and identification safeguards preventing strikes against unintended or obsolete targets.

Pre-programmed alternative aim points offer a less demanding explanation because a missile could select among stored coordinates when predetermined conditions occur without receiving an entirely new target assignment.

Mohebbi’s wording does not clarify whether Iran possesses real-time human-directed retargeting, autonomous selection, waypoint modification or merely advanced terminal guidance presented through strategically ambitious language.

This ambiguity matters because each architecture generates a different warning signature, electronic vulnerability, interception problem and operational risk for civilian infrastructure located near potential secondary targets.

Until telemetry, representative wreckage or repeatable combat performance becomes available, the secondary-target claim should be treated as consequential strategic signalling rather than a confirmed revolutionary capability.

Patriot, THAAD and Arrow Face a More Complex Engagement Problem

Patriot PAC-3 employs hit-to-kill interceptors optimised for precise endgame engagements, making accurate tracking and predicted intercept geometry essential against fast ballistic targets manoeuvring within compressed terminal windows.

THAAD operates higher within the defensive architecture, attempting interceptions during the terminal phase outside or within the upper atmosphere before surviving threats descend towards lower-tier systems.

Israel’s Arrow family provides another high-altitude layer, but manoeuvring warheads, simultaneous salvos and penetration aids can still multiply tracking demands across interconnected sensors and command networks.

An Iranian missile initially appearing to threaten one installation before shifting towards another could force defenders to protect wider sectors, delay engagement decisions or allocate interceptors against several possible trajectories.

Because defensive doctrine commonly assigns more than one interceptor against dangerous ballistic threats, uncertainty can accelerate magazine depletion even when most incoming weapons are eventually destroyed.

A Patriot interceptor costs approximately USD4 million, equivalent to RM16 million, while a THAAD interceptor costs about USD15 million, or RM60 million, producing severe economic asymmetry during sustained exchanges.

Iranian missiles are not necessarily inexpensive, but integrating lower-cost drones and decoys with precision ballistic weapons can compel defenders to consume disproportionately valuable interceptors and radar capacity.

Sequential attacks could first target surveillance radars, communications links and command nodes before manoeuvring missiles exploit degraded coverage against aircraft shelters, logistics hubs, fuel storage or headquarters.

Limited damage to a critical sensor can generate operational effects beyond its physical destruction by opening temporary coverage gaps, slowing engagement authorisation and fragmenting the recognised air picture.

Accordingly, missile defence remains effective but cannot be evaluated solely through interception percentages, because inventory consumption, radar availability and disrupted operations determine whether protection remains sustainable.

Missile Logistics and Dispersed Force Posture Become Decisive

Iran’s expanding solid-fuel missile inventory supports survivable force posture because mobile launchers can disperse, prepare rapidly, fire from concealed positions and relocate before counter-strike aircraft reach their operating areas.

Liquid-fuel systems generally impose larger preparation and support requirements, although underground facilities, hardened storage complexes and rehearsed launch procedures can reduce exposure during prolonged military confrontation.

For defenders, manoeuvring and potentially retargetable missiles require continuous protection across airfields, ports, headquarters, desalination plants, refineries, power networks and ammunition depots rather than isolated point defence.

American and allied forces may consequently disperse aircraft, establish expeditionary operating locations, separate ammunition stocks and create redundant command posts to prevent one successful strike from paralysing operations.

Base hardening reduces vulnerability but cannot eliminate it, especially when fixed radar arrays, fuel systems, runways and satellite communications terminals remain geographically identifiable and operationally indispensable.

Rapid sensor reconstitution therefore becomes essential, requiring mobile radars, replacement components, trained maintenance teams, protected communications and rehearsed procedures for transferring engagements between surviving batteries.

The logistics burden expands further because interceptor reloads, specialised transporters, maintenance equipment and secure storage must be distributed without creating concentrated nodes vulnerable to Iranian surveillance and targeting.

Iran faces corresponding constraints, including launcher availability, missile production rates, quality control, sanctions-related component shortages and the challenge of sustaining precision across repeated combat launches.

External assistance or illicit procurement networks may mitigate technological restrictions, but neither alleged foreign support nor Iranian industrial declarations confirm the scale of operationally dependable advanced missiles.

The resulting competition is fundamentally logistical: Iran must generate sufficient complex salvos, while its adversaries must preserve sensors, interceptors and operational tempo throughout a potentially prolonged attritional campaign.

Strategic Signalling Across the Gulf and Strait of Hormuz

Iran’s announcement strengthens deterrence messaging by implying that American bases and regional infrastructure remain vulnerable despite the deployment of some of the world’s most advanced missile-defence systems.

For Saudi Arabia, the United Arab Emirates, Bahrain, Kuwait and Jordan, wider trajectory uncertainty could influence interceptor procurement, basing agreements, intelligence integration and decisions concerning participation in future military operations.

Energy infrastructure presents a particularly consequential target set because limited physical damage to processing, export or electrical facilities could trigger disproportionate global effects through interrupted supply and market uncertainty.

The Strait of Hormuz magnifies that leverage, as military escalation affecting shipping, coastal surveillance or energy terminals could transmit regional insecurity directly into global trade and hydrocarbon prices.

Mohebbi’s reference to the waterway’s economic importance therefore links missile technology with coercive signalling, suggesting Iran views precision strike capabilities as instruments affecting both battlefields and international decision-making.

The claim also serves domestic morale by portraying Iran’s defence industry as adaptive after an intensive conflict that exposed missiles, radars, launch facilities and command networks to sustained attack.

Iranian accounts have asserted successful strikes against American radars, Patriot batteries, aircraft and command installations, whereas opposing accounts frequently describe high interception rates and comparatively limited verified damage.

Equal scrutiny remains necessary because wartime battle-damage assessments, interception claims and missile performance figures are routinely shaped by operational security, political incentives and incomplete evidence.

Maneuverability could raise penetration probability without rendering layered defences obsolete, while retargeting might broaden Iran’s options without guaranteeing accuracy against hardened, concealed or mobile objectives.

The most defensible assessment is therefore incremental but serious: Iranian guidance improvements increase defensive cost and uncertainty, while the most dramatic claim of secondary-target redirection awaits independent technical confirmation.

Strategic Assessment: Attrition, Adaptation and the Future Missile Battlespace

Iran’s emerging missile doctrine combines volume, precision, mobility, penetration aids and technological adaptation to impose costs without relying upon air superiority or crossing directly into nuclear escalation.

This approach seeks to overwhelm decision-making as much as hardware, forcing commanders to protect numerous facilities, maintain continuous readiness and expend finite interceptors against uncertain or changing trajectories.

Artificial intelligence could eventually accelerate onboard navigation, threat recognition and route optimisation, but Iran has provided no evidence demonstrating operational AI-enabled retargeting inside currently deployed ballistic missiles.

Future missile salvos may integrate ballistic weapons with cruise missiles and one-way attack drones, distributing threats across different altitudes, speeds and radar signatures to fragment defensive attention.

Defenders will increasingly require space-based warning, over-the-horizon surveillance, airborne sensors and networked ground radars capable of maintaining custody when individual missiles deviate from expected ballistic corridors.

Directed-energy weapons and cheaper counter-drone systems could preserve premium interceptors for ballistic threats, although power requirements, weather sensitivity, range limitations and magazine-management challenges constrain near-term deployment.

“Left-of-launch” operations against production sites, storage facilities and mobile launchers may gain priority, yet dispersal, camouflage, underground infrastructure and escalation risks limit their reliability.

The contest will consequently extend across intelligence, cyber operations, electronic warfare, industrial production and logistics, making missile performance only one component of the broader regional balance.

Iran’s declaration signals that Tehran intends to convert combat experience into successive guidance and survivability improvements, whether or not every publicised capability has reached dependable operational maturity.

For military planners, dismissing the announcement would underestimate Iran’s demonstrated technical progression, while accepting it uncritically would confuse strategic messaging with verified combat capability.

The immediate requirement is sustained technical collection through flight observation, electronic signatures, recovered debris and battle-damage analysis capable of distinguishing terminal manoeuvring from genuine real-time retargeting.

Until that evidence emerges, Iran’s missiles should be assessed as increasingly accurate and difficult threats whose greatest strategic power derives from combining technological improvement with saturation, attrition and regional economic vulnerability.