Day: May 14, 2026

Trump in China – 2026

The Core Agenda

High-Profile Business Delegation

Key Cabinet Attendees

Event Details & Logistics

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Will laser-based Air Defenses make the current kinetic state of Drone Warfare obsolete, and how soon?
#CIA  #DroneWarfare  #Lasers
Pic.: Drone warfare is already DEAD – how pennies-per-kill lasers are the future of battle… but come with new
AI Overview
Laser-based air defenses will not make kinetic drone warfare obsolete, but they will completely transform it. By providing a nearly limitless “magazine” at a cost of just pennies per shot, lasers solve the problem of wasting expensive missiles on cheap targets. Instead, they will force drones to evolve with heat-resistant shielding and faster swarm tactics. [1, 2, 3, 4, 5]
The Timeline: How Soon?

Now (2026): Systems are actively moving out of the lab and into the field. The U.S. DoD has initiated pilot programs deploying directed-energy systems at five U.S. military bases. Globally, Israel’s 100kW Iron Beam and South Korea’s Cheongwang are on the cusp of operational deployment.
2027: The UK is accelerating the deployment of its DragonFire laser onto Royal Navy destroyers, while other NATO allies ramp up naval and ground-based directed-energy programs.
The Next Decade: Lasers will act as primary point-defense shields for fixed sites, ships, and vehicles, fundamentally altering the economics of the battlefield. [6, 7, 8, 9, 10, 11, 12, 13]

The Limits of Lasers
Despite their speed of light and low cost, lasers are not a silver bullet. They face several fundamental hurdles:

Atmospheric Interference: Fog, rain, dust, and smoke can scatter the beam and drastically diminish a laser’s effective range (usually limited to about $1$ to $2$ km).
Dwell Time: Lasers require time to “burn” through their targets. This limits a laser’s capacity to handle massive, simultaneous “bandwidth” swarms compared to rapid-fire kinetic methods.
Drones Fighting Back: Attack drones will adapt by using reflective and ablative coatings, or spinning in-flight to prevent the laser from focusing on one spot. [1, 6, 14, 15, 16, 17]

The Future of “Cat and Mouse”
Because lasers require an unobstructed line-of-sight and are limited by severe weather, they won’t replace kinetic weapons like rapid-fire anti-aircraft guns, electronic warfare, or interceptor drones. Instead, a multi-layered air defense network will emerge. The current kinetic state of drone warfare will simply force robotic warfare into a rapid technological escalation rather than making it obsolete. [6, 14, 15, 16, 18]
If you are interested in how other countermeasures are shaping up, I can:

Detail how High-Powered Microwave (HPM) defenses fry electronics
Explain the role of anti-drone interceptor drones (kamikaze drones hunting other drones)
Discuss how drones themselves are using AI and autonomous tracking to bypass air defenses [6, 11, 19, 20, 21]

Let me know what you would like to explore next!

AI responses may include mistakes.
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share.google/aimode/KlXMIeQW…
No, laser-based air defenses will not make drone warfare completely obsolete, but they will force a rapid, multi-tiered technological evolution. High-energy lasers are fundamentally shifting the economic calculus of defense away from expensive kinetic interceptors, though physical and tactical limitations ensure that lasers will function as a complementary inner layer of air defense rather than a total replacement. [1, 2, 3, 4, 5]
The transition is happening immediately: initial nationwide operational integration arrived at the end of December 2025, with widespread multi-national deployment pacing out through 2027–2028. [6, 7, 8, 9]
The Shift in Warfighting Economics
The primary disruption from lasers is economic, resolving the unsustainable “math problem” where defenders use million-dollar missiles to down $500 commercial-off-the-shelf drones. [3, 10, 11, 12, 13]

Pennies-per-shot: Systems like the UK’s DragonFire cost roughly $13 (£10) per shot. Australia’s “Apollo” system operates at under 10 cents per shot.
Infinite Magazines: Lasers remove the bottleneck of physical ammunition storage, operating continuously as long as the platform has a stable power supply. [8, 14, 15, 16, 17]

Deployment Timelines
Laser integration is no longer a future concept; it is an active battlefield reality. [18]

Active Deployment (Late 2025 – Early 2026): Israel’s 100-kilowatt Iron Beam completed operational testing and achieved initial nationwide deployment by the IDF in December 2025. Concurrently, Russia deployed its “Laser Buzz” system to counter small FPV drones on frontlines, and the Pentagon designated five primary bases to receive anti-drone directed energy platforms.
Near-Term Scaling (2027): The British Royal Navy and Army are on course for frontline deployment of DragonFire by 2027. The U.S. Navy is scaling its Joint Laser Weapon System to 150–300 kW systems to target both drones and cruise missiles.
Widespread Adoption (2028 and beyond): Major NATO allies are taking delivery of mass-production tactical lasers capable of destroying up to 20 drones per minute. [1, 6, 8, 9, 14, 15, 19, 20]

Why Kinetic Methods and Drones Will Survive
Lasers possess innate physical weaknesses that prevent them from entirely replacing kinetic weapons (like autocannons, automated shotgun systems, and missile interceptors): [2, 3, 21, 22, 23]

Atmospheric Degradation: Laser beams suffer from scattering and attenuation. Rain, fog, heavy smoke, and dust drastically increase the required “dwell time” to melt a target, dropping efficiency right when an attack is most likely to occur.
Line-of-Sight and Horizon Limits: Lasers cannot fire beyond the horizon or through terrain obstacles. Ground-based systems have an effective anti-drone engagement range often restricted to 1–3 kilometers.
The “Dwell Time” Vulnerability: Unlike a kinetic shell that causes instantaneous destruction upon impact, a laser must remain perfectly focused on a single spot of a drone for several milliseconds to seconds to burn through components. High-speed, high-bandwidth swarm attacks can mathematically overwhelm a single laser’s maximum “kills-per-minute” capacity.
Drone Countermeasures: Drone manufacturers are already adapting. Future drones will bypass laser efficacy using reflective or ablative heat-resistant coatings, rapid-spinning chassis designs to distribute thermal energy, and localized shielding over critical electronics. [2, 24, 25, 26, 27, 28, 29]

If you would like to explore this topic deeper, let me know if you want to focus on the specific laser programs of a particular military, the technical mechanics of drone countermeasures, or how high-powered microwaves (HPM) fit into the defense equation.

[1]  kurdistan24.net
[2]  reddit.com
[3]  avinc.com
[4]  marineforum.online
[5]  defensemagazine.com
[6]  jpost.com
[7]  newatlas.com
[8]  nytimes.com
[9]  ukdefencejournal.org.uk
[10]  nbcrightnow.com
[11]  instagram.com
[12]  facebook.com
[13]  instagram.com
[14]  youtube.com
[15]  youtube.com
[16]  thinkdefence.co.uk
[17]  thedefensewatch.com
[18]  facebook.com
[19]  taskandpurpose.com
[20]  defensenews.com
[21]  theconversation.com
[22]  inews.co.uk
[23]  sandboxx.us
[24]  defenseone.com
[25]  nytimes.com
[26]  eos-aus.com
[27]  al-monitor.com
[28]  eos-aus.com
[29]  eos-aus.com
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— Michael Novakhov (@mikenov) May 14, 2026