Best of LinkedIn: Defense Tech CW 04/ 05

Show notes

We curate most relevant posts about Defense Tech on LinkedIn and regularly share key takeaways.

This edition examines the rapid shift in global military strategy toward autonomous systems, artificial intelligence, and scalable technology, emphasizing a move to "software-defined defense" where hardware serves as a vessel for upgradeable AI. Operational lessons from Ukraine demonstrate the dominance of data-driven warfare, where low-cost drone programs have inflicted over $1 billion in damages and "robot-to-robot" evacuations are becoming doctrinal reality. Despite a record $50 billion influx in venture capital for 2025, contributors argue that Western procurement remains sluggish, necessitating a shift toward decentralized innovation models like BRAVE1 to bridge the gap between prototyping and industrial-scale production. To counter evolving threats, the industry is adopting layered, modular defenses from kinetic ground robots to quantum-optimized air defense that integrate industrial capacity with frontline insights to ensure technological sovereignty

This podcast was created via Google NotebookLM.

Show transcript

00:00:00: provided by Thomas Allgeier and Frenness.

00:00:02: based on the most relevant posts on LinkedIn about defense tech and CWO four and O five.

00:00:07: Frenes is a B to B market research company that eclips product and strategy teams with market and competitive intelligence across the defense industry.

00:00:15: So it's the start of February twenty twenty six.

00:00:17: And looking at the landscape right now it feels like the defense tech industry is kind of holding its breath.

00:00:24: Yeah.

00:00:24: We aren't just seeing new gadgets anymore.

00:00:26: We're seeing the foundational doctrines of warfare well shift in real

00:00:30: time.

00:00:30: It definitely feels.

00:00:31: You know, we've moved past the look at this cool drone phase, right?

00:00:35: And we're straight into the how do we actually build a military around this stuff phase, right?

00:00:39: The novelty is wearing off and the let's say reality of deployment is setting in

00:00:44: exactly.

00:00:45: and Looking at the stack of sources we have for this week, calendar weeks four and five, a mission for this deep dive is pre-specific.

00:00:51: We need to parse the signal from the noise.

00:00:54: There's just so much out there, flashy demos, press releases, startup hype, but you know, you and I, we represent the listener here.

00:01:02: We need to figure out what is actually deployment ready.

00:01:05: We

00:01:05: need to find the capabilities that survive contact with reality.

00:01:09: Looking at the research, three big themes stood out to me.

00:01:12: First, we have the evolution of drones and counter UAS towards like true robot ecosystems.

00:01:19: that's getting messy and crowded on the ground.

00:01:21: And then I guess the software layer, AI and autonomy are finally penetrating high-end warfare.

00:01:26: And we're talking ASW and air combat, not just chatbots.

00:01:29: And finally, the strategic layer, the massive shift towards data-driven warfare and, well, the industrial funding boom that hit in twenty twenty five.

00:01:38: It turns out writing the code is the easy part.

00:01:41: Building the factory and finding the talent, that's the hard part.

00:01:44: That's it.

00:01:44: So let's get right into the mud.

00:01:45: Theme one, drones and counter UAS, the kinetic frontline.

00:01:50: I want to start with a piece of intel that sounds like science fiction, but it's just gritty tactical reality from Ukraine.

00:01:57: You're looking at the robot logistics insight.

00:01:58: Yeah.

00:01:59: From Tim DeZitter.

00:02:00: That's the one.

00:02:01: He highlighted this doctrinal signal from the Pokrovsk front.

00:02:06: Here's the scenario.

00:02:07: A ground robot, a UGV malfunctions during a mission.

00:02:12: Now, standard procedure for the last hundred years says you send a couple of soldiers to go get the gear.

00:02:17: Which exposes them to artillery.

00:02:19: Snipers, you know those ubiquitous FPV drones.

00:02:22: Right, so instead the unit dispatched a second robot to go retrieve the broken one, a robot towing a robot.

00:02:28: And

00:02:28: what stuck out to me in Desider's analysis wasn't just that they did it, it was how long it took.

00:02:32: Fifteen

00:02:33: hours.

00:02:33: Yeah, a fifteen hour operation.

00:02:35: Which,

00:02:35: I mean, that sounds incredibly inefficient to me.

00:02:38: If I'm a commander, do I really want to tie up resources for fifteen hours just to drag a busted chassis back to base?

00:02:44: Wouldn't it be faster to just send a team?

00:02:47: Faster.

00:02:47: Yes.

00:02:48: But safer.

00:02:49: Absolutely not.

00:02:50: And that's the critical takeaway here.

00:02:51: This is about force preservation.

00:02:54: Fifteen hours for a robot is cheap compared to fifteen minutes of exposure for a human squad.

00:02:59: These interpoints out that we're moving from single gadgets to a ground robotics ecosystem.

00:03:05: It's unmanned sustainment.

00:03:07: So the robot isn't just the spear tip.

00:03:09: It's the ambulance in the tow truck too.

00:03:11: Exactly.

00:03:12: And once you start building an ecosystem like that, you run into engineering problems.

00:03:16: I mean, if we have robots rescuing robots, these machines are getting complex.

00:03:20: For sure.

00:03:21: And we had a really sharp critique this week from Scott Davis about how we're building them.

00:03:25: I

00:03:25: saw that.

00:03:26: He's going after the industries.

00:03:28: obsession with software.

00:03:30: His argument is, we're over-engineering code to fix, well, bad hardware design.

00:03:36: It's a classic trap.

00:03:37: Take the drone dilemma.

00:03:38: You want to fly high to cover a large area, but you need to fly low to see details or drop a payload.

00:03:44: Right, and doing both just eats up battery.

00:03:46: It eats up battery and requires incredibly complex flight logic, complex autonomy.

00:03:52: David says, stop trying to code your way out of physics.

00:03:54: So what's the alternative then?

00:03:56: Build better hardware.

00:03:58: He points to the hybrid hopper concept.

00:04:00: It flies to get to the location, but then it lands on a roof or a hill to observe.

00:04:04: Uh, so you're grounding the sensor.

00:04:06: Exactly.

00:04:07: By landing, you stop fighting gravity.

00:04:09: You stop draining the battery on hovering.

00:04:11: And suddenly, your mission logic gets simple.

00:04:14: You don't need an AI supercomputer to manage flight stability if the thing is just sitting on a brick wall.

00:04:20: It's a good reality check.

00:04:21: Sometimes mechanical innovation beats algorithmic complexity.

00:04:25: But let's flip the script.

00:04:27: If the enemy is using these hoppers and rescue bots, how do we stop them?

00:04:31: The counter UAS, the COS market is just exploding right now.

00:04:35: And we saw two completely opposing philosophies this week on how to handle that problem.

00:04:40: Okay,

00:04:40: so on one side we have the brute force method.

00:04:44: Philippe Albino shared details on Rhinemiddles new approach.

00:04:47: And subtle is not the word I would use.

00:04:49: No,

00:04:49: kinetic solution to a kinetic problem is the phrasing, I think.

00:04:52: They put two miniguns on a ground robot.

00:04:55: We are talking about firing three thousand rounds per minute.

00:04:58: It sounds like something from an action movie, but Albina argues the math actually works.

00:05:02: And it comes down to the economics of the intercept.

00:05:05: That is the single biggest problem in air defense right now.

00:05:07: Right, because if you shoot a hundred thousand dollar missile at a twenty thousand dollar Shaheed drone, you might win the engagement, but you lose the war.

00:05:15: You go bankrupt.

00:05:16: Precisely.

00:05:17: But if you spray it with, what, two hundred dollars worth of bullets, you win.

00:05:21: Abino describes it as creating a cone of projectiles.

00:05:25: A wall of lead.

00:05:26: A wall of lead, yeah.

00:05:27: You aren't sniping the drone, you're creating a barrier that the drone has to fly through.

00:05:33: Highly effective for swarms.

00:05:34: But you know, bullets fall down and they don't discriminate.

00:05:38: Is brute force the only option?

00:05:39: No, and that's where Raven Decker and Scott Fowler come in.

00:05:42: They highlighted a partnership between Drone Shield and Nutellic, who used to be Avalor AI.

00:05:47: This is the opposite of brute force.

00:05:48: This is about modularity.

00:05:49: This

00:05:50: is the software brain for the counter UAS system.

00:05:53: Think of it as an operating system for defense.

00:05:55: Their argument is that threats evolve too fast for any single hardware solution.

00:06:00: Today, it's a quadcopter.

00:06:01: Tomorrow, it's a jet-powered drone.

00:06:03: You need a system that is effector agnostic.

00:06:06: OK, just to clarify for everyone, effector being the thing that actually stops the drone.

00:06:10: so jamming lasers, nets, bullets.

00:06:13: Correct.

00:06:14: The drone shield and intelligent approach is to build an open architecture.

00:06:17: You might need jamming today, a laser tomorrow, and that Rheinmetall minigun next week.

00:06:23: The software stays the same, the effector just swaps out.

00:06:26: That feels much more future-proof.

00:06:28: And speaking of future-proof, we have to talk about the high-end fight.

00:06:31: We aren't just fighting cheap quadcopters.

00:06:34: Catherine Knee from Lockheed Martin shared something about the JGM missile that caught my

00:06:38: eye.

00:06:38: Yeah, this is significant because it bridges the gap.

00:06:41: The JGM is a serious piece of hardware.

00:06:44: and Lockheed demonstrated a true vertical launch capability with it against a UAS threat.

00:06:50: Why

00:06:50: does vertical launch matter specifically here?

00:06:52: It's all about geometry.

00:06:54: If you are on a ship or a truck in an urban canyon, you can't always point a launcher at the horizon.

00:07:00: Vertical launch means you can shoot straight up.

00:07:01: turn and engage a threat coming from any angle.

00:07:04: It's about flexibility in tight spaces.

00:07:06: Exactly.

00:07:07: And adding to that high-end mix, Jack Chung noted that Lockheed's Helios laser system was praised for neutralizing drones at sea.

00:07:14: So lasers are finally moving from PowerPoint to deck of a ship.

00:07:18: They are.

00:07:19: And again, it comes back to that economic equation.

00:07:21: If a laser, which costs pennies per shot in electricity, can fry a drone, you save your multi-million dollar SM-II missiles for the anti-ship cruise missiles.

00:07:32: His

00:07:33: resource management.

00:07:34: You don't use a sledgehammer to kill a fly, especially when you need that sledgehammer for the tank coming up behind it.

00:07:39: Precisely.

00:07:40: But before we leave the hardware world, there is one factor that no amount of software or funding can fix.

00:07:46: The weather.

00:07:46: The weather.

00:07:47: The Arctic test.

00:07:48: Mark C.L.

00:07:49: and Adam Painter raise a really cold point about testing in Latvia.

00:07:53: minus fifteen degrees Celsius.

00:07:55: That is where the rubber meets the frozen road.

00:07:57: It's easy to look good in a desert test range.

00:08:00: But Adam Painter's takeaway was that when technology meets extreme cold, simplicity is what saves lives.

00:08:06: Totally.

00:08:07: Batteries fail faster, sensors ice over, touch screens don't work with thick gloves.

00:08:12: Painter's point is that arctic proof on a spec sheet is often, well, a lie.

00:08:17: If your system is fragile, it's useless on the Eastern flank in February.

00:08:20: It's a stark reminder that geography still dictates technology.

00:08:23: Okay, so that's the hardware reality, frozen batteries, miniguns, and rescue robots.

00:08:29: Let's shift gears to theme two, AI and autonomy.

00:08:34: This is what they're calling software-defined defense.

00:08:37: And interestingly, the most advanced stuff we saw this week isn't in the sky, it's underwater.

00:08:42: Yes, the anti-submarine warfare domain.

00:08:45: or ASW.

00:08:46: Jennifer McArdle shared some insights on Helsing's Lura AI.

00:08:50: Now for the listener who isn't a naval expert, ASW is notoriously difficult.

00:08:55: You're basically listening to a noisy ocean and trying to hear a specific metal tube moving miles away.

00:09:00: It is the ultimate signal to noise problem.

00:09:02: Whales, waves, shipping traffic, it's all just noise.

00:09:05: What Helsing is doing is deploying this AI On gliders, these are low-power, long-endurance underwater drones.

00:09:11: But

00:09:11: here's the key part.

00:09:12: The AI processes the data at the edge, right, on the glider itself.

00:09:16: That is the game changer.

00:09:18: Usually you record sound and send it back for analysis, but sending data underwater requires loud sonar pings or surfacing to use radio, which immediately reveals your position.

00:09:27: So edge processing means the glider listens, the AI identifies the SUG locally, and it stays silent.

00:09:32: Exactly.

00:09:33: It only transmits when it has a hit.

00:09:35: It allows for a passive, silent dragnet.

00:09:38: It turns the ocean transparent for you while you stay invisible to the enemy.

00:09:42: That's a huge tactical leap.

00:09:43: That is incredibly stealthy.

00:09:45: Now taking it from the sea to the sky, Harold Copey shared a collaboration between GROB aircraft and Helsing, and I love the tagline here.

00:09:53: The aircraft is the platform, the software is the weapon.

00:09:56: This is the K-One Europa concept.

00:09:59: They took a standard trainer aircraft, the G-One-Twenty-TP, prop plane and turned it into a test bed for autonomous combat.

00:10:06: This isn't just a drone pilot on the ground with a joystick, though.

00:10:09: Oh,

00:10:09: far from it.

00:10:10: This is about an aircraft that understands intent.

00:10:12: It collaborates with manned aircraft.

00:10:14: It makes decisions when communication is cut.

00:10:16: It's a shift towards the aircraft being a computing node that just happens to fly.

00:10:20: But the speed of decision making, it's getting a little scary, isn't it?

00:10:24: Ricardo Grande brought up the UK's baby raptor interceptor.

00:10:28: He did.

00:10:29: And he raised the philosophical and tactical question.

00:10:32: If AI interceptors react in milliseconds faster than humanly possible, what is the human's role?

00:10:39: If the machine observes, Oriens decides and acts before I can even blink, am I really in the loop?

00:10:45: Or am I just liability?

00:10:47: That is the tension we are going to face for the next decade.

00:10:50: And Torsten Stov's report on Endoral and D-Wave adds another layer of speed to this.

00:10:55: They are bringing quantum computing into the mix.

00:10:58: Quantum computing and air defense.

00:11:00: I thought quantum was still years away from practical use.

00:11:03: For encryption breaking, maybe.

00:11:05: But for optimization, it's here.

00:11:06: They use quantum annealing to figure out the best placement for air defense systems.

00:11:11: Explain that.

00:11:11: Why do you need a quantum computer to tell you where to put a missile launcher?

00:11:15: Because it's a math problem with infinite variables.

00:11:18: Terrain, incoming threat vectors, coverage overlap, battery ranges.

00:11:22: A classical computer takes hours to crunch that.

00:11:25: Stab reports that the quantum approach achieved a ten-x speedup.

00:11:28: But did it actually improve the defense, or did it just do the math faster?

00:11:32: Both.

00:11:33: In simulations with five hundred incoming threats, a massive saturation attack, the quantum optimized placement improved intercept rates by nine to twelve percent.

00:11:42: Twelve percent.

00:11:43: In a saturation attack that could involve nuclear or biological warheads, stopping twelve percent more missiles isn't a statistic.

00:11:50: That's saving a city.

00:11:51: Exactly.

00:11:52: When you are dealing with mass, optimization isn't just math.

00:11:56: It's survival.

00:11:57: And wrapping up the AI theme, we have Agentec AI.

00:12:01: Mario Delab gave us an update on DARPA's programs.

00:12:04: The AIR program.

00:12:05: They are training AI pilots for beyond visual range combat.

00:12:09: But I think the more critical one is AIECC autonomous cyber defense.

00:12:13: Why is that one more critical?

00:12:15: Because cyber moves at light speed.

00:12:17: If the enemy uses AI to hack your command and control, a human cyber defender is just going to be too slow to patch the whole.

00:12:24: You need AI to fight AI.

00:12:26: It's a machine-on-machine fight in the digital spectrum.

00:12:28: It is.

00:12:29: Which leads us perfectly into our third theme, strategy, industry, and command and control.

00:12:34: Because if the warfare is changing this fast machines fighting machines at light speed, the industry and the decision making structures have to change too.

00:12:42: Right.

00:12:42: And we're seeing a massive split in how different regions are handling this.

00:12:46: For sure.

00:12:46: Let's talk about data driven warfare.

00:12:49: Artem Rose shared some stats from the Army of Drones, twenty twenty five in Ukraine that are just staggering.

00:12:55: The numbers are intense.

00:12:57: Roughly eight hundred twenty thousand enemy targets hit.

00:13:00: Huge vehicle losses.

00:13:01: But the real story isn't the destruction.

00:13:04: It's the accountability.

00:13:05: What do you mean by accountability?

00:13:07: Morose points out that decisions in Ukraine are now based on verified video data, not intuition or field reports.

00:13:14: You can track performance, you know exactly which unit is effective, which pilot is missing, and which drone model is failing.

00:13:20: That sounds corporate, like KPIs for combat.

00:13:23: It's efficiency applied to lethality.

00:13:26: And Jonas Singer contrasts this sharply with Europe.

00:13:29: He says Ukraine has undergone a live-fire organizational revolution.

00:13:32: They have decentralized procurement.

00:13:34: They have the brave one platform to speed up innovation.

00:13:37: And Europe.

00:13:37: Singer argues Europe is still stuck in slow processes.

00:13:40: He calls for a live-fire organizational revolution in the West.

00:13:43: A drone PowerPoint versus a revolution.

00:13:47: Ouch.

00:13:47: It's a harsh critique, but his point is valid.

00:13:49: Innovation can't be a committee meeting when the adversary is iterating their software on a weekly basis.

00:13:54: Well,

00:13:54: the private sector is certainly trying to catch up.

00:13:57: Matt Atkins dropped a market report that shows, twenty twenty five was a breakout year for defense

00:14:02: tech funding.

00:14:02: It was a massive year.

00:14:04: Fifty billion dollars in VC funding for defense tech.

00:14:07: Fifty billion.

00:14:07: Yeah,

00:14:08: that is double the total from twenty twenty four.

00:14:10: And we saw ten new unicorns born.

00:14:13: So the cash is there, but I have to play devil's advocate here.

00:14:17: Is this a bubble?

00:14:18: Are we just throwing money at cool keywords?

00:14:21: That's the risk.

00:14:22: But Atkins makes a crucial distinction.

00:14:24: Twenty twenty five was the year of fundraising.

00:14:27: Twenty twenty six is the year of execution.

00:14:29: The check is cleared.

00:14:30: Now you have to build the factory.

00:14:32: And that brings us to the talent war.

00:14:34: Exactly.

00:14:35: You have fifty billion dollars.

00:14:36: But can you find the engineers who can get top level security clearances and know how to build autonomous guidance systems?

00:14:43: That talent pool is shallow.

00:14:44: That is going to be the bottleneck.

00:14:46: Speaking of bottlenecks and supply chains, Britta Jacobs shared some insights from a delegation trip to Taiwan.

00:14:52: This connects back to that idea of resilience.

00:14:54: She noted a focus on whole of society resilience.

00:14:59: It's not just about the military, it's about the civil infrastructure being ready for asymmetric warfare.

00:15:04: And Christoph Reithke connected this to the European startup scene.

00:15:08: He mentioned that dual use is becoming essential.

00:15:11: That's a commercial reality.

00:15:12: If you are a defense startup, relying solely on government contracts is risky and slow.

00:15:18: If your tech has a commercial application, dual use.

00:15:21: You can sell it to civilian markets to keep the lights on while you wait for the Ministry of Defense to sign the contract.

00:15:27: So if you make a drone battery, sell it to delivery companies and the army.

00:15:31: Exactly.

00:15:31: It's becoming a requirement for viability.

00:15:33: And finally, on the software side of things, we have a point about user experience.

00:15:38: Mikhael and Rogandino from the U.S.

00:15:39: Space Force and Dr.

00:15:41: Sinan Alaw Baidi from Barzan Holdings both touched on this.

00:15:45: This is the user-centered design argument.

00:15:47: For a long time, military software was terrible.

00:15:50: Clunky, hard to use, looked like Windows' ninety-five on a bad day.

00:15:54: I've seen some of those interfaces.

00:15:55: They look like you need a Ph.D.

00:15:56: just to open a menu.

00:15:57: Right.

00:15:58: But the inside here... is that bad design isn't just annoying, it's dangerous.

00:16:03: If the software isn't intuitive, if it doesn't work.

00:16:05: like the apps these twenty year old soldiers use on their phones, it fails the warfighter.

00:16:10: Cognitive load.

00:16:11: Yes.

00:16:12: In a high-stress situation, if you have to fight the user interface to send a command, you make errors.

00:16:17: Friendly fire, missed targets.

00:16:19: So making C to command and control systems intuitive is about operational effectiveness, not just aesthetics.

00:16:26: Okay, let's unpack this.

00:16:27: We've covered robot ecosystems that tow each other to safety, AI speags that are beating human reaction times, and a massive industrial pivot toward data and usability.

00:16:38: It's a lot to digest.

00:16:39: It is.

00:16:40: But if there's one thought to leave you with, I think Eva Zula summed it up perfectly.

00:16:44: I have that quote right here.

00:16:45: She warned that autonomy isn't a drone race, it's a capability race.

00:16:49: Precisely.

00:16:50: The winners in twenty-twenty-six won't be the ones with the flashiest demo video on LinkedIn.

00:16:54: The winners will be the ones whose architectures are resilient enough to survive electronic warfare.

00:16:59: It's about data pipelines, C-II integration, and systems that don't crash when the jamming starts.

00:17:04: Resilience over hype.

00:17:06: That is the boring, unsexy work that actually wins wars.

00:17:10: It is.

00:17:10: And that's where the industry needs to focus.

00:17:12: If you enjoyed this episode, new episodes drop every two weeks.

00:17:15: Also, check out our other editions on ICT and tech insights, health tech, cloud, digital products and services, artificial intelligence and sustainability in green ICT.

00:17:25: Thanks for listening.

00:17:26: Stay curious and keep looking for the signal and the noise.

00:17:29: Don't forget to subscribe.

00:17:30: See you in the next deep dive.

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