The U.S. Navy is applying insights from recent extended carrier deployments to prepare the USS Theodore Roosevelt for a forthcoming Middle East assignment amid rising tensions with Iran.

Chief of Naval Operations Adm. Daryl Caudle and Master Chief Petty Officer of the Navy John Perryman outlined the initiative in a video released on X, emphasizing improvements to onboard logistics and sailor welfare.

The Roosevelt will receive expanded storage capacity for provisions and hygiene supplies, enabling longer periods between resupply stops during its anticipated seven-month deployment.

The carrier is slated to relieve the USS George Washington in the Arabian Sea in the coming weeks, following the completion of its current operations.

The move follows the prolonged deployments of the USS Gerald R. Ford and USS Abraham Lincoln, both of which faced scrutiny over operational sustainability and crew conditions.

Currently, nearly 19 U.S. warships operate in the region, enforcing a naval blockade of Iranian ports and facilitating commercial shipping through the Strait of Hormuz.

In a recent incident, U.S. forces intercepted five Iranian oil tankers in the Strait of Hormuz after attempts by the Islamic Revolutionary Guard Corps to target a U.S. vessel with ballistic missiles.

No damage was sustained by the U.S. ship, and no injuries were reported, according to U.S. Central Command.

Earlier in the deployment cycle, the USS Abraham Lincoln experienced extended time at sea, with sailors reporting concerns about mental health, food and water access, and communication delays with families.

A prior incident involving a sailor attempting to jump overboard was documented by Stars and Stripes but not confirmed by the Navy.

The Lincoln ultimately made a five-day port call in Thailand after nearly 10 months at sea, marking its first regular stop since departing San Diego.

The Roosevelt’s upcoming deployment will overlap with operations by other vessels, including the USS George H.W. Bush and USS Boxer.

The Ford previously completed a 326-day deployment, the longest for a U.S. carrier since the Vietnam War, though it was interrupted by a fire in a laundry facility that injured three sailors and required repairs in Greece.

To improve self-sufficiency, the Navy is upgrading climate control systems and ensuring critical services remain functional even under degraded conditions.

New recreational equipment and durable fitness machines are being installed on mess decks to support morale.

Holiday supplies are being procured in advance, and software updates are being implemented to maintain operational continuity.

Family outreach efforts are being strengthened through ombudsmen and readiness groups to ensure consistent communication during the deployment.

Perryman noted that attention to small but meaningful details reflects a broader commitment to sustaining combat readiness through personnel care.

The Roosevelt’s preparation exemplifies a Navy increasingly focused on learning from past deployments to improve future operations.

Japan is seeking to sell air defense, maritime surveillance and counter-drone systems to the Philippines as part of its effort to strengthen forces in the South China Sea and Luzon Strait. The proposal was highlighted during the 72nd founding anniversary of the Japan Self-Defense Force, where Japanese firms Mitsubishi Electric Corporation and Toshiba displayed systems including the Type 03 medium-range surface-to-air missile, Type 11 short-range air defense system and Type 91 man portable air defense system. All three are currently in active use by the Japan Ground Self-Defense Force. The Armed Forces of the Philippines is pursuing procurement of dozens of surface-to-air missile batteries for the Philippine Air Force, Army and Marine Corps under its ongoing modernization program. Recent revisions to Japan’s defense export guidelines have enabled the potential transfer of these systems to the Philippines, according to a Japanese defense industry representative. Yoshihiro Inaba, a Japanese military analyst, stated that the integrated systems could protect urban areas, critical infrastructure and military installations, forming a layered air defense network capable of countering aerial threats at multiple levels. Inaba also noted that while Japan is expanding domestic missile production, current capacity may not fully meet export demand, though exports remain vital for sustaining the production base after domestic deliveries are completed. The Philippines currently lacks an operational air defense network able to cover its extensive airspace or intercept ballistic missile threats. China, the Philippines’ primary strategic rival, possesses a wide range of cruise, ballistic and hypersonic missiles that can be launched from ground, naval and air platforms against Philippine bases. Alongside air defense systems, Japanese firms presented space-based and coastal radar maritime surveillance systems, including a satellite constellation monitoring Scarborough Shoal, a contested feature in the South China Sea. Maritime surveillance radars on display ranged from fixed installations to mobile units, with one system capable of tracking targets up to 75 nautical miles away. Since the 2010s, Japan has funded 17 Coast Guard cutters and supplied four air surveillance radars to the Philippine Air Force. In 2023, Japan’s Ministry of Foreign Affairs launched the Official Security Assistance program, under which the Philippines has received maritime patrol infrastructure, radar maintenance support and coastal surveillance systems. Discussions are also underway regarding the transfer of five Japan Maritime Self-Defense Force Abukuma-class destroyers, with the first transfer expected within the next two to three years. Beyond air defense, Inaba indicated that future security assistance may include unmanned systems and transport vessels. Recently, Japan launched a series of British-designed high-speed landing craft intended for rapid troop and supply insertion across the Ryukyu Islands, a strategic island chain near Taiwan. These vessels could support operations in the South China Sea by enabling swift deployment of personnel and equipment.

Sudan's war, now in its fourth year, has become a testing ground for advanced drone systems, reshaping military dynamics across the region.

The conflict began in April 2023 when the Sudanese Armed Forces clashed with the Rapid Support Forces, a paramilitary group with roots in the Janjaweed militia. Early fighting in Khartoum saw limited drone use, but both sides quickly adapted. By March 2025, the Rapid Support Forces had seized control of the capital, prompting a shift in tactics. The group began deploying long-range drones to strike strategic targets, including Port Sudan, Sudan's main port city, from distances exceeding 250 kilometers.

These attacks, which caused widespread power outages and disrupted humanitarian operations, relied on Chinese-made CH-95 and FH-95 drones observed at Nyala Airport. Yale’s Humanitarian Research Lab confirmed their presence in April 2025, noting their range could reach critical infrastructure. The Centre for Information Resilience later linked debris from strikes in Port Sudan to earlier attacks in al-Malha, North Darfur, underscoring a pattern of escalating aerial assaults.

Civilian infrastructure bore the brunt of the violence. Between January and June 2026, over 1,100 civilians died in drone-related incidents, according to U.N. data, representing 80% of recorded fatalities during that period. In June 2026, I returned to Khartoum after years in exile and witnessed the aftermath firsthand: darkened streets, damaged power stations, and the wreckage of attacks on the Merowe Dam. Sudan’s energy minister estimated $14 billion in losses to the electricity sector since the war began.

The United Arab Emirates has emerged as a pivotal, though officially denied, supplier of drone technology to the Rapid Support Forces. Multiple U.N. reports and investigative journalism, including coverage by The New York Times, indicate that Emirati personnel have operated Chinese drones from bases in Chad, enabling strikes deep within Sudanese territory. In October 2026, such attacks killed at least 13 children at a displacement shelter in al-Obeid, highlighting the growing threat to civilian populations.

The conflict has intensified a technological arms race. By September 2025, Janes verified the loss of Turkish-made Akıncı drones by the Sudanese Armed Forces and identified components in Rapid Support Forces footage resembling parts of China’s FK-2000 air defense system. In February 2026, a Bayraktar Akıncı drone destroyed an FK-2000 system in South Kordofan, marking a turning point in the use of advanced anti-drone systems.

This exchange reflects broader regional tensions. The Rapid Support Forces, active in western Sudan and Chad, may transfer drone capabilities to militant groups across the Sahel, including al-Qaeda and Islamic State affiliates in the Lake Chad Basin. The U.S. Treasury Department has sanctioned Colombian mercenaries and entities linked to drone training for the group, while the U.N. Institute for Disarmament Research documented increased drone use by extremist organizations in conflict zones.

Meanwhile, Sudan’s military has countered with Turkish-supplied TB2 drones and anti-drone systems like HİSAR-A. In August 2026, a Sudanese drone strike on a court session in Darfur killed 35 people, illustrating the indiscriminate risks of escalating aerial capabilities. The military has also expanded operations beyond Sudan’s borders, using Egyptian air bases to target Rapid Support Forces supply routes in Libya and northern Chad, drawing accusations from Chadian authorities.

Despite the U.N. Security Council extending Darfur-related sanctions through December 2026, efforts to impose a comprehensive arms embargo have stalled. U.S. proposals for broader restrictions face opposition from China, Russia, and Sudan’s government, which argues that expanded measures would unfairly target state actors protecting civilians. The existing embargo on Darfur, in place since 2004, has failed to prevent weapons transfers, including those facilitated by non-state actors.

Legal experts advocate for targeted measures under the Arms Trade Treaty, which requires states to assess diversion risks and block transfers that could enable serious violations of international humanitarian law. China, as a treaty signatory, is urged to prevent its weapons from reaching Sudanese militias. The United States and European Union, which maintain arms deals with the UAE, are encouraged to condition future sales on compliance with the treaty and the Darfur embargo.

The proliferation of drone technology in Sudan poses long-term risks to regional stability. As combatants innovate, the potential for cross-border transfers to armed groups increases, threatening humanitarian access and civilian safety. While international responses remain fragmented, the conflict underscores the urgent need for coordinated action to address the militarization of emerging technologies.

Yasir Zaidan, a researcher focusing on Middle Eastern influence in the Horn of Africa, has studied these developments extensively. His work highlights the intersection of geopolitical interests, arms transfers, and civilian impact in one of the world’s most complex conflict zones.

U.S. and NATO forces concluded a joint exercise focused on coordinating defense of the alliance’s eastern border, a priority for European nations responding to heightened Russian activity.

The Avenger Triad drills, held at the Grafenwoehr Training Area in Germany, involved approximately 4,000 personnel from U.S. Army Europe and Africa and NATO Allied Land Command.

Unlike conventional field exercises, Avenger Triad centered on headquarters operations that plan and synchronize military actions.

Participants evaluated a system linking sensors, shared battlefield data and artificial intelligence to support cross-border coordination.

Troops from command posts in Germany, Poland, France and the Netherlands took part, with U.S. and allied units evenly represented.

Brig. Gen. Thomas Lowin, NATO Allied Land Command’s deputy chief of staff for operations, stated that the exercise tested an approach to ensure troops could be supplied, reinforced and protected while maintaining links with other NATO commands.

Despite reliance on artificial intelligence, Lowin emphasized that final decisions rested with human commanders.

“The machine makes a recommendation,” he said. “We, as the staff, examine that recommendation and prepare it. The decision is made by our commander.”

Russia’s 2022 full-scale invasion of Ukraine has intensified NATO’s efforts to strengthen deterrence along its eastern flank.

The exercise aligned with the Eastern Flank Deterrence Initiative, which aims to reinforce defenses through layered barriers, sensors, weapons systems and interconnected communications networks.

The initiative seeks to degrade an adversary’s capabilities before large-scale allied troop deployments occur.

Physical obstacles such as anti-tank barriers and natural terrain features, combined with threat-detection sensors, are being integrated into the strategy.

Some capabilities are already operational.

Within a combined operations and intelligence center, American and allied personnel processed battlefield information, generated recommendations and coordinated operations across Europe.

The scenario simulated combat across a region stretching from northern Norway to the Black Sea, requiring coordination over thousands of miles.

Maj. Brian Hobeck, of the combined Theater Land Component Command, monitored simulated operations and briefed senior commanders on developments.

Cloud-based platforms and artificial intelligence were used to aggregate data from participating units and present commanders with response options.

Challenges arose due to differences in allied communications systems, software and security protocols.

This year’s exercise expanded its scope across NATO’s northern, central and southeastern operational zones, fostering stronger collaboration among joint headquarters.

During Avenger Triad, headquarters of V Corps, the 2nd Polish Corps, the 1st French Corps and the 1st German-Netherlands Corps exchanged information via a shared digital network using standardized data-sharing procedures, according to USAREUR-AF.

The exercise connected to NATO’s broader Steadfast Duel exercise, which involved roughly 8,000 military and civilian personnel across all 32 NATO member nations.

Allied forces tested a digital network designed to transmit information from sensors to human decision-makers and ultimately to weapons systems.

One tool employed was the Maven Smart System, which merged simulated battlefield data with live inputs including weather, terrain and sensor feeds.

Hobeck described a scenario in which Maven detected movements suggesting enemy reserve forces were being deployed.

Staff reviewed the data and prepared options for commanders, including reinforcing friendly positions.

Maven also enabled comparison of friendly and opposing force strengths and modeled potential outcomes of different operational choices.

Lowin underscored the importance of building resilient cooperative relationships, noting that deterrence effectiveness depends on the ability to operate even when established procedures fail or communications are disrupted.

“The more credible our deterrence is, the less likely it becomes that someone will attack us,” he said.

The U.S. Army is advancing plans to embed high-energy laser systems onto a broad range of vehicles, aiming to make directed energy capabilities a standard feature rather than a niche experiment. At the Association of the U.S. Army’s annual meeting, senior acquisition officials outlined a strategy to attach laser turrets to any platform in the motor pool, from light tactical vehicles to heavier combat trucks. Brig. Gen. Guy Yelverton, who leads the Army’s Directed Energy Project Office, emphasized that the effort is designed to create a flexible, vehicle-agnostic architecture that can be adapted across different units and operational environments.

The initiative builds on existing field deployments of AeroVironment’s LOCUST laser system, which has already been used in limited numbers along the U.S.-Mexico border. In September, the Army awarded its first production contract for the upgraded LOCUST X3 variant, a 30-kilowatt-class system capable of engaging small unmanned aerial systems. Earlier versions of LOCUST have been mounted on Joint Light Tactical Vehicles, Infantry Squad Vehicles, and palletized configurations, allowing for rapid deployment in forward areas. The service is also exploring containerized and shipboard adaptations of the technology, reflecting a broader push to integrate lasers into naval and ground-based defense architectures.

Yelverton described the current approach as a “modular” solution that can be detached from one vehicle and reinstalled on another with minimal reconfiguration. He argued that this flexibility would allow the Army to distribute laser firepower more widely, reduce dependency on dedicated platforms, and accelerate the fielding of new capabilities. “We’re focused on any vehicle in the motorpool,” he said during a panel discussion. “If we can make the system easy to operate and maintain, we can place it in the hands of soldiers across the force, not just within specialized air defense units.”

Despite progress, technical challenges remain. Laser effectiveness diminishes with distance, and performance can be affected by weather, dust, and atmospheric conditions. Power and cooling requirements also limit sustained engagement, particularly on smaller vehicles. To address these constraints, the Army is investing in adaptive optics, improved tracking algorithms, and artificial intelligence-assisted targeting to enhance precision and reduce operator workload. Col. Charles Kean, a deputy commander at the 7th Infantry Division, noted that smaller, more mobile systems could be tested in diverse environments — from the humid conditions of the Pacific to the arid border zones — to refine their reliability under real-world stress.

The Army’s broader laser strategy includes parallel efforts to develop higher-power systems. The Joint Laser Weapon System program aims to field containerized 150-kilowatt units by the early 2030s, with long-term goals of reaching 300- and 500-kilowatt configurations. Industry partners such as nLIGHT are working on scaling up power output, with executives suggesting megawatt-class lasers could become viable in the coming decade. While these systems are still in development, the Army views even modest-capability lasers like LOCUST X3 as a critical layer in a layered defense against drone and missile threats.

Mobility and logistics are central to the vision. Laser turrets mounted on light vehicles can be slung under helicopters, transported by air, or repositioned quickly on the battlefield. Palletized and containerized versions offer additional deployment options for fixed-site defense. In July 2025, soldiers from Joint Task Force-Southern Border conducted sling-loading exercises to position LOCUST-equipped vehicles under CH-47 Chinook helicopters, demonstrating the system’s transportability.

The service remains cautious about overpromising. While lasers offer the potential for low-cost, high-volume interception — eliminating the need for traditional missile magazines — they are not a panacea. Each shot requires significant energy, and sustained firing depends on available power reserves and cooling capacity. Nevertheless, officials argue that integrating lasers into existing vehicle platforms represents a pragmatic step toward making directed energy weapons a routine part of the Army’s defensive toolkit.