Today, the problems experienced by the Hellenic Navy's Meko 200HN class HS Hydra frigate during its Red Sea mission have become a trending topic on Twitter. I will address these based on my own experience. 🧵 ieidiseis.gr/ellada/251828/…
1-According to the reports, the commander of the Hydra was warned by the Larissa NATO Operations Center of an incoming ballistic missile, which then exploded 150 meters away. There is an irrationality here.
2-NATO-affiliated ships involved in joint operations use a Link-11 network, where each ship (or its helicopter, etc.) broadcasts detected contacts via this network, providing a comprehensive surface/air tactical picture visible to all ships in the area. This picture is also sent via satellite to NATO operations centers, disseminating the final tactical picture back to the ships.
3-Therefore, if the Larissa operations center received this information, the Hydra should have already received it as well. If the claim is true and the ship did not react to the incoming missile, it would imply that all ships in the area were unaware, which is highly unlikely.
4-There is intense air coordination in such areas, and the first ship to detect the missile would broadcast it with the code "WAMPIRE," prompting all ships to initiate ZIPPO reactions, to counter incoming missilesl. Even if Hydra's radar failed to detect the missile, it should have initiated countermeasures based on the Link-11 information.
5-Another claim is that the Phalanx CIWS was ineffective against drones. It's important to note that the Phalanx is a "close-in weapon system" rather than an air defense system. Hydra is equipped with a Phalanx Block 1, which, when operating in standalone mode (as it would in a threat zone), only targets air contacts diving towards the ship.
6-The Phalanx will not target a drone orbiting in the area unless the contact's approach angle is close to zero.
Newer versions of the Phalanx integrated into the CMS can be launched from fire control consoles, but given its effective range of around 2 km, it is not expected to be effective against non-diving drones.
The weapons that should be used in this scenario are the Sea Sparrow air defense missiles and the 127mm naval gun.
6- Another allegation is that drones were mistaken for stars. Knowing that radars cannot make such errors, it seems the confusion arose either from optical systems or personnel on watch duty.
7-This indicates an organizational issue within the ship. Identifying air contacts is a process: the ship detects them with radar, verifies them with electro-optics and ESM, and personnel on watch report visual detections to the combat operations center. If the lookouts panicked and mistook stars for drones, this should have been corrected by radar verification.
8-The Meko-200HNs have the MW-08 air surveillance radar, a 3D radar, and one of the better PESA radars. Under normal conditions (with proper maintenance), this radar should detect drones.
Additionally, confirmation can be sought from other ships via Link-11. Although momentary inaccuracies can occur, the contact is usually correctly identified through this process. If such an issue occurs, it suggests a incoherence between the Combat Information Center (CIC) and other stations.
9-It is stated that there is no counter-drone system on board.
The drone threat is relatively new in naval warfare, and many ships do not yet have dedicated anti-drone systems. While some ships have begun installing anti-drone radars, those operating in the Red Sea generally counter this threat with existing air defense systems.
10-Many ships have been criticized for engaging $10,000-cost drones with $2 million-cost missiles. Before deploying the ship on this mission, the Hellenic Navy should have established and trained procedures for defense against drones based on the ship's capabilities.
It is unclear if this was done, but even if it was, the measures do not appear to have been effective.
11-The Red Sea mission is exceptionally challenging. When the mission first began, detailed preparations were lacking, and many procedures had to be established during the mission itself.
Unlike many other missions, this one presents a constant and immediate real threat, requiring the ship's personnel to be on high alert 24/7. A ship is at its highest combat readiness when all personnel are at their combat posts.
However, due to human limitations, maintaining this state over extended periods is not feasible. As a result, watchkeeping personnel take on the responsibility of safeguarding the ship, a practice known as combat guard posts. This continuous state of vigilance makes the Red Sea mission particularly exhausting for the crew.
12-Furthermore, the region's high temperatures, above-average seawater temperatures, and reliance on seawater for cooling many devices complicate maintenance efforts.
13-This mission is a serious test for all involved. We often read in the media about how Arleigh Burke-class destroyers frequently intercept ballistic missiles or drones, but while it may seem straightforward on a screen, the reality on the ground is vastly different and far from easy.
Allegedly, HS Hydra may have struggled to meet the demands of this mission. The best course of action now would be for NATO-affiliated navies to learn from these experiences and enhance their preparedness for this evolving threat in naval warfare.
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When discussing Electronic Warfare (EW), jammers are often the first thing that comes to mind. However, jamming (or Electronic Attack) is just one of the three key subcategories of ECM (Electronic Countermeasures), alongside deception and neutralization. Moreover, ECM is one of the three subcategories of EW, while ESM (Electronic Support Measures) and Electronic Protection stand out as other pillars.
In recent years, electronic attack (EA) systems have been increasingly integrated into warships, leading many observers to perceive them as indispensable components of modern naval warfare. However, this perception is not entirely accurate.
A warship commander must carefully weigh the decision to turn on electronic attack systems. While they can disrupt enemy systems, their activation also comes with significant drawbacks. One of the primary concerns is that electronic countermeasures (ECM) emit energy that can expose the ship’s position.
1-The recent conflict in the Red Sea served as a crucial test of the operational readiness of U.S. naval forces, particularly the Arleigh Burke-class destroyers. During these engagements, a variety of naval vessels intercepted a significant number of ballistic missiles, kamikaze drones, and other threats.
2-Most of these were neutralized at a safe distance by advanced weapon systems, with only one missile being intercepted by the Phalanx Close-In Weapon System (CIWS) at approximately 2 kilometers.
3-From an outsider’s perspective, these successes might seem straightforward, but the reality is far more complex. Intercepting an incoming missile—even one utilizing older technology—is a challenging process that demands well-maintained systems and highly trained personnel.
In modern naval warfare, surface and air surveillance sensors are evolving rapidly, but the underwater domain remains a complex area where one can more easily hide.
1-Sonar, the primary sensor for underwater detection, is heavily affected by underwater environmental factors. In negative gradient water conditions, submarines enjoy a significant tactical advantage, as these conditions make them extremely difficult to detect.
2-In contrast, under positive gradient conditions or other more favorable sonar environments, submarines often choose to stay beneath the layer depth—a natural barrier where sonar signals have great difficulty reaching—further enhancing their stealth and evading detection. This strategic use of depth in varying water conditions enables submarines to maintain a low profile and avoid enemy surveillance effectively.
Bugün Deniz Kuvvetleri Komutanlığı yalnızca bir denizaltıyı hizmete almadı, daha önce envanterde olmayan bir teknolojiyi de hizmete aldı: Air Independent Propulsion (AIP), yani Havadan Bağımsız Tahrik (HBT) sistemi.
1-Denizaltı harekatının temelini gizlilik oluşturur. Bir denizde düşmana ait yeri bilinmeyen bir denizaltı varsa kimse huzurlu bir şekilde gemisini götüremez. Teknolojisine bakmaksızın, 1 denizaltıyı bulmak için bazen koca bir filo seferber edilir.
2-Bu denizaltının illa hücum etmesine gerek yok, varlığına yönelik bir istihbarat bile stratejik intikalleri bile geciktirebilir. Eğer intikal edeceğiniz yol güvenli değilse stratejik nakliyat ya da değerli birlik bulunan konvoyu oradan geçirmek risk olur.
1- When promoting missiles on social media, there's often a lot of talk about "hitting critical areas of the ship thanks to this system," especially concerning the features of the guidance system.
2-However, it’s important to understand that you cannot hit the pre-aimed part of a maneuvering ship engaged in operations. This is true even for the most advanced missiles like the NSM or LRASM.
3-The assumption that a missile can hit a ship in a desired area is valid for stationary or very slow-moving ships. In reality, no warship remains stationary waiting for an incoming missile to arrive. In anti-ship missile defence (ASMD), ships maneuver aggressively. If a warship detects a guided missile (with ESM or radar), it will begin countermeasures, known in NATO as ZIPPO reactions.
1-Russian Black Sea Fleet suffered from the kamikaze USV attacks in this war. They lost several assets as a result of these assaults, and Ukraine's USV tactics started to change paradigms in the naval scene.