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The rescue operation hinges on a strict code: leave no man behind. Dozens of attack helicopters, over 100 special forces and Delta operators, and a sprawling multi-stage plan were required to bring one person home after an aircraft went down. The mission began when both crew members ejected; the pilot was recovered, but the weapons systems officer (WSO) was injured and stranded. WSO survival training kicked in as he trekked to a rugged mountainous ridge and activated his beacon just as IRGC militias closed in on the crash site. The CIA was one step ahead, initiating a massive deception tactic designed to make the IRGC search the wrong location. When the enemy realized they had been tricked, they swarmed the mountainous ridge around the wounded officer. Special forces moved in on low-burn helicopters, laying down heavy covering fire alongside A-10 Thunderbolts and MQ-9 Reaper drones. As they moved toward the extraction point, everything went wrong, demonstrating that the military would burn a $100,000,000 aircraft to save a single comrade. Stage one: after the jet went down, both crew members ejected. The pilot was recovered within hours, but the WSO landed in an incredibly rugged, mountainous region. He hiked over two miles to reach higher ground despite injuries, and triggered his emergency beacon to ping US forces. Stage two: The CIA launched a deception campaign inside Iran, leaking rumors that US forces had already found the WSO and were attempting to smuggle him out on the ground. The phantom ground exfiltration diverted Iranian military resources and attention away from the actual extraction site. Stage three: It was 02:00 AM when the US deployed Delta Force and Navy SEAL Team Six with MA-60 Little Bird helicopters, armed with miniguns and missiles, alongside MA-60 Black Hawks or Pave Hawks to insert and extract. Dozens of US aircraft, including HC-130J Combat Kings and EA-18 Growlers, cast an electronic warfare net to blind Iranian early warning radars, while an MQ-9 Reaper kept eyes on the wounded WSO. Stage four: The US set up a temporary forward operating base inside Iran, seizing an abandoned agricultural airstrip 200 feet wide and 3,900 feet long, about 14 miles north of Sharaza City in Southern Isfahan Province. Stage five: US Special Forces helicopters reached the objective and established a defensive perimeter around the wounded WSO. A fierce, hours-long firefight erupted as IRGC ground forces, popular mobilization units, and local militias converged. Ground operators relied on a wall of suppressive fire, while overhead air power continued to pound surrounding Iranian positions with A-10s, Little Birds, and Black Hawks, taking a heavy toll and drawing casualties in areas like Kui Siyah and Kaken. Despite the onslaught, the extraction corridor remained open long enough for the team to load the WSO onto an extraction helicopter. Yet, back at the makeshift landing strip near Chereza City, two transport planes suffered critical issues and couldn't take off, prompting a decision to destroy the two transport planes to prevent data from falling into IRGC hands. A confiscated helicopter, an H-6 Little Bird, was spotted near the wreckage of the HC-130J rescue aircraft. The Zagros Mountains, in Kermanshah Province near the Iran-Iraq border, provided terrain masking for long-range radar but allowed short-range anti-air ambushes. The operation began with 02:15 hours when two F-15E Strike Eagles crossed the border at low altitude to strike a deeply buried command bunker, using terrain-following radar to stay beneath Iran’s long-range BEYVER missiles network. The lead Strike Eagle pulled up to drop its GBU-28 bunker buster, while a TOR M1 surface-to-air missile system awaited a lock in a gorge. A second missile detonated on proximity, causing hydraulic failure; the crew ejected into the mountains. The Sandy protocol activated, and a rescue was organized. By 02:45 hours, a 10 Thunderbolt rescue escort was diverted for resort, and a LiV A-10 performed a low-level strafing run on a convoy, neutralizing it with 30mm cannon while revealing its position to Iranian forces. Despite the intense engagement, the F-15E pilot managed to steer the crippled jet toward safer airspace, even as the A-10 endured damage yet retained enough controls to continue flight. The F-15E crashed deep inside southwestern Iran, while the A-10 eventually crashed in the southern waters of the Persian Gulf near the Strait of Hormuz. A dedicated CSAR package launched at 03:15 hours, pushing into the Zagros as dawn approached. Pedro 11 located the A-10 pilot’s position; Pedro 12 provided overwatch. An ambush by a concealed anti-aircraft gun interrupted Pedro 12, but a coordinated strike by C-130 overhead and two F-35 stealth fighters silenced the weapon, allowing Pedro 11 to extract the pilot. The rescue helicopter, Pedro 11, flew overloaded, narrowly clearing tree line and exiting into Iraqi airspace by 05:30, battered but alive. The F-15E crew remained missing, prompting a follow-up JSO raid the next night. Notes on aviation and defense gaps include a discussion of radar-guided versus heat-seeking missiles, including an analysis of the F-35’s vulnerability to infrared-guided threats, the role of distributed aperture systems, flares, and the potential use of a hybrid SA-358/SA-67 system in infrared detection.

The UK Ministry of Defense has successfully tested a laser weapon called Dragonfire against aerial targets. This high-powered laser, developed through a joint investment of £100 million, demonstrated great accuracy and cost-effectiveness. Dragonfire is a line of sight weapon that can engage any visible target, making it a potentially revolutionary tool in warfare.

The airborne laser, known as the ABL, is the world's first airborne directed energy weapon. Its installation involves complex modifications, including removing and retrofitting the entire nose section and installing the world's largest titanium plate to hold the turret-mounted laser. The ABL system is designed to locate, track, and eliminate enemy targets in the air and on the ground. It can stay airborne at 40,000 feet for 5 hours, refuel in mid-air, and destroy a target up to 60 miles away in less than a second.

Directed EMP weapons have been developed, and the founder of Palantir, an AI platform used by the military, has played a significant role in revolutionizing warfare. The capability to neutralize drones was available at any moment.

Patrolling the south quarter, the speaker reports hits and requests the deployment of the Latias. Elbit Systems introduces the Lanius, an autonomous lethal solution utilizing racing drones. The Lanius operates in complex urban environments, conducting GPS navigation, flight scanning, enemy detection, and lethality. Equipped with AI technology, it scans buildings, identifies openings, avoids obstacles, detects and classifies enemies, and targets them for attack. The system can also perform ad hoc lethal ambushes, increasing combat tempo while prioritizing human survivability. LANEUS: search and attack combined.

Real lasers have the advantage of being invisible; you only see the damage as something blows up. The Athena laser system can burn through a truck engine within seconds. Key advantages of lasers include: unlimited ammo, as long as there is power; silent operation, giving the enemy no warning; and travel at the speed of light, delivering powerful force.

Newly released footage showcases the Dragonfire laser weapon system, set to be operational in 5 years. It uses a precise beam of light to hit small targets from a kilometer away. Firing costs are only £10 per shot, making it more cost-effective than missiles. The UK-developed technology has proven effective against drones and could revolutionize defense capabilities. Dragonfire will undergo further trials before potential deployment. Other countries are also developing similar systems, but the UK's bespoke technology gives them a unique advantage.

Pentagon scientists have developed a new weapon utilizing the laser-induced plasma effect, allowing lasers to project human voice commands over a distance. This technology can secure perimeters by warning individuals to disperse without deploying troops. Additionally, the laser can create discomfort through targeted heat, prompting immediate movement away from the area. It also functions as a continuous flashbang, producing audible effects to disorient and confuse individuals, similar to traditional flashbang grenades. While laboratory testing of the audio feature has been completed, a fieldable version is expected within five years for use in crowd control and area protection.

Speaker 0 discusses China’s newest radar systems and their potential impact on battlefield reliability, suggesting that the US’s long-held advantages could become obsolete. The segment centers on emerging technologies such as quantum radar, which, according to the presentation, would make even the stealthiest aircraft lose its most potent capability. Speaker 1 states that China may have just flipped the game on stealth technology. A new six g powered system backed by cutting edge photonics can generate over 3,600 radar illusions and even jam and communicate simultaneously. It is designed to target frequencies used by advanced jets like the F-thirty five, potentially exposing them to detection. With the ability to link 300 plus platforms in real time, this innovation could reshape the future of aerial operations. The question raised is whether this marks the end of stealth as we know it. To dive deeper, the presenters set out the following points: China’s latest radar technology is described as a significant international development with the potential to alter how stealth capabilities are perceived and utilized in modern warfare. The six g powered system is highlighted for its photonics-driven capabilities, enabling it to create a large number of radar illusions while simultaneously jamming and communicating. The system’s targeting of frequencies associated with advanced jets, including the F-35, is presented as a key factor in its potential to expose otherwise stealthy platforms to detection. A further capability emphasized is the system’s capacity to link more than 300 platforms in real time, suggesting a highly integrated and coordinated network that could redefine aerial operations. The discussion implies that these features collectively could challenge established stealth advantages and prompt a reevaluation of modern air superiority strategies. The phrase “quantum radar, which could make even the stealthiest aircraft lose its most potent capability” is repeated as a framing device for the advanced technology under consideration. The overall message is that China’s developing radar and photonics-enabled systems, combined with networked platform linkage, are positioned to alter the balance in aerial combat and provoke questions about the durability of stealth in future warfare.

Laser weapons, once considered fictional, are actually real and more powerful than expected. The US Navy's LAWS Laser System is a 30 kilowatt directed energy weapon that can detonate explosives, disable boats, and shoot down unmanned aircraft. It is easy to use and safer than traditional weapons. The cost per shot is only $0.59, making it more affordable than missiles. Lockheed Martin is developing the HELIOS, a 60 kilowatt laser system, for the Navy. These laser systems are primarily focused on defense against drones and potential attacks, rather than offensive capabilities. While they may not resemble the blasters in Star Wars, laser weapons are becoming a reality, albeit on a smaller scale.

Global persistent infrared surveillance is crucial for national security. The Space Based Infrared System (SBIRS) replaces the Cold War defense support program and has already deployed two infrared sensor payloads in highly elliptical orbits. SBIRS also includes multiple spacecraft in Geosynchronous Earth Orbit, each equipped with two independent infrared sensors. One sensor is dedicated to missile warning and full earth monitoring, while the other can focus on selected regions. These sensors work simultaneously and independently, making SBIRS a robust and taskable infrared platform. With successful deployment, SBIRS will become an unprecedented resource for the nation's global and persistent infrared monitoring.

Directed energy weapons, such as lasers and microwaves, have been developed by the United States, Russia, China, India, the UK, and Iran. Turkey was the first to deploy this technology in combat. Defense Secretary Mark Esper announced that China and Russia have weaponized satellites with directed energy weapons. There have been concerns about these advanced weapons causing the unprecedented fires in recent years. Laser-based weapons can destroy targets with external heat, while microwave weapons penetrate targets and ignite internal electronics. Satellite imagery shows an equal distance spread of fires starting within the same four hours, raising questions about the cause. Additionally, a beam of light seen in infrared spectrum appears to excite the heat signature of fires in California and Oregon. The timing of the deployment of these weapons is notable, leading to speculation about potential attacks with directed energy weapons.

Global persistent infrared surveillance is crucial for national security. The Space Based Infrared System (SBIRS) replaces the Cold War defense support program and has already deployed two infrared sensor payloads in highly elliptical orbits. SBIRS is also placing multiple spacecraft into Geosynchronous Earth Orbit, each equipped with two independent infrared sensors. One sensor is dedicated to missile warning and full earth monitoring, while the other can focus on specific regions. These sensors work simultaneously and independently, making SBIRS a robust and taskable infrared platform. With successful payloads already in orbit, the deployment of the GEO spacecraft will make SBIRS an unprecedented resource for global, taskable, and persistent infrared monitoring.

Epirus' Leonidas high power microwave system eliminates drone swarms instantly by using directed energy to fry enemy electronics in milliseconds. Unlike conventional weapons, Leonidas doesn't use missiles or gunfire, but pure electromagnetic power. It neutralizes entire swarms, wiping out dozens or hundreds of threats simultaneously, regardless of whether they are small tactical drones or high speed kamikaze UAVs. Leonidas is presented as a next generation shield against drone warfare for military bases and critical infrastructure.

China has been developing laser weapons for over 60 years, with a focus on anti-satellite capabilities. They have ground-based laser systems that can target objects in space and have been caught using laser weapons to probe foreign satellites. China has also developed a directed energy weapon called the relativistic klystron amplifier (RKA), which can be mounted on satellites to destroy their electronics. The US is aware of the threat and has responded by prioritizing laser weapons in its defense budget. The Army has the IFPC HEL and the DEM SHORAD, the Air Force has the SHIELD program, and the Navy has the Helios laser weapon. The battle between the US and China extends across all domains and services.

Missiles have three phases of flight: boost, mid-course, and terminal. To counter this threat, a layered defense system has been developed. The airborne laser, a modified Boeing 747, is the centerpiece of this defense. Equipped with infrared lasers, it scans the horizon for missiles and measures their distance. Once a target is identified, a high-energy laser is fired, causing the missile to explode. Currently, the US Air Force only has one airborne laser, and there are concerns about the laser's quality being affected by moisture and air turbulence. Despite the defense system's capabilities, it is believed that one missile will always manage to get through.

The Department of Defense spends $1 billion annually on developing directed energy weapons like lasers and microwaves. These weapons can quickly disrupt or destroy targets and are cheaper than traditional weapons. However, the DOD faces challenges in transitioning these technologies from the lab to actual use. The army has a transition plan in place and it is recommended that the Navy and Air Force develop similar plans.

Today, we're at White Sands Missile Range showcasing the layered laser defense system. In collaboration with the Office of Naval Research (ONR), we have successfully demonstrated the capability of our compact laser weapons system to neutralize a surrogate cruise missile in flight. This marks the first time a modern fiber laser weapon system with adaptive optics has achieved such a feat. Our dedicated team, working tirelessly for extended periods, has produced impressive results. We are proud of their efforts, and today's demonstration exemplifies the effectiveness of our laser weapon systems against threats relevant to our warfighters.

Dragonfire is the UK's first laser weapon, set to be ready for warships in three years. The government's procurement reforms will speed up weapon delivery to soldiers, sailors, and aviators, strengthening the British Armed Forces for defense at home and abroad.

Global persistent infrared surveillance is crucial for national security. The Space Based Infrared System (SBIRS) replaces the Cold War defense support program and has already deployed two infrared sensor payloads in highly elliptical orbits. SBIRS also includes multiple spacecraft in Geosynchronous Earth Orbit, each equipped with two independent infrared sensors. One sensor is dedicated to missile warning and full earth monitoring, while the other can focus on selected regions. These sensors work simultaneously and independently, providing a robust and taskable infrared platform. SBIRS is the nation's next generation of space-based infrared surveillance, offering unprecedented global and persistent monitoring capabilities.

Newly released footage showcases the Dragonfire laser weapon, set for military use in 5 years. It's precise, hitting targets the size of a coin from a kilometer away. Firing costs £10, much cheaper than missiles. The UK-developed system proved effective against drones in testing. Dragonfire's unique technology can enhance the UK's defense capabilities. Other countries are also developing similar technology. Dragonfire will undergo further trials. (Original transcript translated into English)

The US has developed a new laser firing aircraft carrier that operates with incredible precision. It can target specific areas, like a ship's engine, without causing damage to other parts. The laser is silent and invisible, making it a surprise for enemies. It can target moving objects on land, water, or in the air. The laser generates an infrared beam from a solid state laser array and has a lightning-fast response. It can eliminate threats in less than a second due to its speed of light. Additionally, it can fire multiple shots without traditional ammunition, resulting in a lower cost per shot.