The Hacker Defense: How Taiwan is Turning Into a Lethal "Hornet's Nest" | Digging into China

Hi, I'm Dong Xiong. Welcome to Digging into China where we take a deep dive into what's really happening in China and share some unique insights. Today we continue the discussion of how Ukraine completely rebuilt its war machine using a Silicon Valley startup playbook, speeding up the battlefield iteration and bypassing old school government bureaucracy entirely. But now let's look at a highly innovative and frankly deeply controversial initiative called ePoints. Time magazine ran an extensive feature on this last year titled How Ukraine Gamified Drone Warfare. Stripped off the bureaucratic jargon, Ukraine developed a digital tracking system called ePoints that allow frontline drone pilots to log in, rack up scores based on verified battlefield performance and use those points to requisition higher tier equipment. Think of it like an elite tier system in a video game. A unit gets allocated a batch of standard reconnaissance drones. The pilots fly those drones out to hunt down high-value Russian assets, things like advanced air defense installations, heavy armor, command posts or defense factories. Once they successfully neutralize a target, they upload the recorded video evidence directly through the platform. The feed is verified by a combination of automated software and military intelligence analysts. Once confirmed, the unit is credited with a specific allotment of points. The squad can then take those points directly into a digital marketplace to redeem them for advanced drones, specialized components or premium gear to take back into the field. The reporting highlighted some fascinating granular details of this digital economy. Knocking out a standard Russian manned battle tank, for instance, might net you squad 40 points. Bagging a high-priority multiple launch rocket system could climb as high as 50 points. According to official disclosures from Ukraine's defense ministry, this digital pipeline has already funneled over 181,000 pieces of critical equipment directly to the frontline, ranging from attack drones and tactical ground robotics to sophisticated electronic jamming kits and specialized spare parts. Now, this concept has triggered plenty of debate among ethicists who worry that turning actual combat into a high-score loop sanitizes the horrific realities of war and detaches soldiers from the gravity of taking human lives. Those are valid philosophical concerns. But if we set ethics aside for a moment and analyze this purely as an operational framework, the sheer strategic utility of this design is breathtaking. What makes ePoint so devastatingly effective is that it fundamentally aligns the incentives of the individual soldier with the grand strategy of the high command. In any complex organization, the way you structure your reward system dictates exactly how your people behave. If a school system rewards raw memorization, students will master the art of cramming for tests. If a social media algorithm rewards raw views, creators will churn out sensationalized clickbait to spark outrage. A military operates on the exact same human psychology. Historically, armies incentivized performance by tracking raw aggregated metrics, how many total enemy soldiers were neutralized, how many tanks were claimed, or how many kilometers of dirt were captured. On paper, that sounds perfectly logical. But in reality, it creates a dangerous disconnect. Frontline troops naturally seek out the easiest targets to inflate their numbers and claim credit, even if those targets don't move the strategic needle. Imagine you are a drone pilot on the line and you are looking at two potential missions. Option one, there is a cluster of Russian infantry fighting vehicles just two kilometers away. They are exposed, easy to hit, and the operational risk to your drone is minimal. Option two, there is a vital Russian supply convoy idling 20 kilometers behind enemy lines. Cutting that supply line could cripple an entire local offense. But flying that deep means breathing thick layers of signal jamming, and there is a very high probability you will lose a costly drone in the process. If both targets offer the exact same institutional reward, which one is a rational soldier going to choose? They are going to take the easiest shot every single time. High command can hold all the briefings they want telling officers to prioritize the supply lines, but commanding from a conference room is one thing. Getting a tired pilot to risk their best gear on a high stakes mission is another. The E-point platform solves this by translating high-level strategic objectives directly into clear, immediate incentives for the operator on the ground. If the general staff needs to degrade enemy artillery this week, they simply dial up the point value for artillery units on the dashboard. If they need to choke off logistics the next week, the payout for fuel trucks, rail lines, and supply depots goes up. It mirrors the exact psychological loop of a video game. When you go out on a raid, you know precisely which targets yield the most experience points and what the drop rate is for elite gear. The feedback is instant, transparent, and highly motivating. Beyond motivation, this digital architecture serves another critical overlooked purpose. It acts as a massive truth machine that stamps out administrative fraud. Traditional militaries suffer from a chronic institutional disease, the inflation of battlefield victories. We see it throughout history, but it becomes particularly acute in highly centralized authoritarian systems where failing to meet quotas is not tolerated. If a commander reports low numbers, it looks like incompetence and their superiors won't have anything impressive to put in the state media press release. So everyone down the chain develops an unspoken agreement to help polish the data. We've seen the Russian military turn into a complete laughing stock because of this. Their defense spokesman regularly announced the destruction of more Ukrainian hardware than Ukraine ever held in its entire inventory. We saw a similar pattern with the state media reports out of Iran, where official channels claimed to have obliterated dozens of American and Israel targets, even bizarrely claiming to have sunk 35 aircraft carriers without ever providing a single shred of satellite imagery or physical proof to back it up. The ePoints framework effectively eliminates this kind of paddling within drone operations. Your points, your equipment allocations, your unloaded video files, and the verified destruction of enemy assets are all tied into a single immutable ledger. You can't talk your way into a higher school. The math has to balance. If the system shows a unit earned 1,000 points and received a corresponding shipment of advanced gear, it means they mathematically documented 1,000 points worth of destroyed enemy hardware. This transparency completely reshapes how information flows to the top. Instead of relying on a slow distorted chain of command where bad news gets filtered out as it moves from the trenches to the presidential palace, leadership has access to clean real-time data feeding straight from the front lines. As Zelensky pointed out, a computer has no friends. Then there is the latest initiative, Trophy Lab. Launched just last month in June 2026, this platform turns another ancient rule of warfare completely on its head. Let me ask you, historically what happens when an army captures a cutting-edge piece of enemy hardware on the battlefield? They immediately lock it away in a secure facility, hand it over to a tiny circle of domestic intelligence officers and defense scientists, reverse engineer it in total secrecy, and guard those findings with their lives. They wouldn't dream of sharing that data with a third party, often not even with their closest allies. Trophy Lab does the exact opposite. It's an open-source digital repository where you can upload detailed teardowns, engineering schematics, software source codes, instruction manuals, and battlefield performance analysis of captured Russian and North Korean military hardware. Any verified domestic tech company, academic research lab, allied government agency, or private defense firm can log in and access the database. And if an organization needs physical access to a component for advanced testing, they can submit a request through the platform, and the military will literally courier the captured hardware directly to their lab. According to major defense outlets, the platform saw over 150 elite entities registered within its very first week, with roughly a third of those users coming from foreign governments and international aerospace firms. The database already hosts over 150 physical weapon specimens and 225 ongoing research projects. The catalog includes everything from Russian cruise missiles, advanced drones, and surface-to-air systems to heavy armor and encrypted electronic warfare components. It also features detailed analysis of the short-range ballistic missiles supplied to Russia by North Korea, uncovering a massive volume of subcomponents sourced directly from commercial suppliers inside China. When asked about the philosophy behind this radical transparency, Fedorov captured it perfectly. He noted that the moment a missile or drone is pulled from the wreckage, it ceases to be just an enemy weapon. It transforms into a repository of actionable data for the free world, and it belongs in the hands of everyone working to counter that threat. When you look at all these initiatives together, you begin to see the distinct operational style of this millennial defense leadership. It is an explicitly anti-bureaucratic hacker mindset, and it stands in direct stark contrast to the old-school industrial-era philosophy embraced by regimes like China and Russia, the classic concentrated state power to achieve massive-scale doctrine. The traditional authoritarian model is obsessed with centralized command, absolute top-down control, rigid secrecy, and a single point of authority. Fedorov's model relies on decentralized execution, radical delegation of authority to the tactical edge, and a commitment to open-source collaboration. And when you are dealing with a field of war, which is fundamentally a highly volatile, unpredictable, and chaotic system, the agile, decentralized model possesses an undeniable evolutionary advantage. Take the ongoing drone race between Russia and Ukraine. It's a literal battle of the bots. And make no mistake, Russia fields an immense number of drones. Early in the conflict, Moscow enjoyed a massive structural advantage because they had the full backdoor weight of China's industrial supply chain behind them. Now facing intense international scrutiny, Beijing avoids shipping fully assembled military-grade weapon systems directly to the Russian front. Instead, they opted for a strategy of strategic circumvention, flooding Russia with the commercial dual-use components, allowing Russian factories to handle final assembly domestically. Reuters exposed this dynamic in a detailed report, revealing that a Russian defense firm was churning out a long-range strike drone called the Gapiya-A1, using an almost entirely Chinese supply chain, everything from the gas engines and specialized batteries to flight controllers, optical modules, advanced microchips, and Beidou satellite navigation receivers. It wasn't just the bots either. Chinese aerospace engineers have repeatedly traveled to Russian facilities to assist with technical integration and field testing. In fact, Estonian intelligence issued a public briefing stating that over 80% of the Western-designed microelectronics pulling down Russian systems are entering the country through corporate conduits inside mainland China. So let's call this what it really is. The drone war in Ukraine is fundamentally a clash of systems. It is China's industrial drone ecosystem going head-to-head against Ukraine and NATO's tech-integrated defense network. On paper, China should be running away with this. They control the most dominant drone supply chain and manufacturing infrastructure on the planet, giving them an overwhelming advantage in terms of raw unit economics and volume. Yet, out on the actual battlefield, Russia's drone operations are hitting a wall. What was supposed to be a lightning-fast campaign to take Kiev was deteriorated into a desperate defense of their own airspace, with over a third of Russia's domestic oil refining capacity hobbled by drone strikes. The sheer, massive output of companies like DJI, which Chinese internet commentators love to hype as an unstoppable military asset, has failed to translate into decisive strategic victory. Why? Because of a fundamental, irreconcilable difference in organizational philosophy and military doctrine. When the old god in Beijing looks at modern warfare, they look at it through the lens of industrial capacity, what gamers call zerging or spamming units. They focus entirely on mass production, how many hulls you can lay down, how many ballistic missiles can you roll off the line, how many cheap drones can you stamp out of a factory. You hear this constantly in Chinese state media, bragging about launching warships like dropping dumplings into boiling water, or listening to nationalistic pundits talk about sweeping across theaters with an unstoppable red iron river. Now, don't get me wrong, manufacturing capacity matters enormously. During World War II, the United States essentially won the war by outproducing the Axis powers, crushing Germany and Japan under the sheer, unmatchable weight of American industrial output. But the fundamental nature of warfare is undergoing a profound shift, and the old playbook doesn't work the same way anymore. Just look at the defense shifts happening globally right now. Look at Japan. Their defense minister publicly confirmed that the Maritime Self-Defense Force has begun integrating ultra-low-cost, commercial-grade cardboard drones into their training operations to serve as expendable targets and decoys. These things cost a mere two to three thousand dollars a piece, meaning you can pack hundreds of them into a single standard shipping container. It sounds incredibly low-tech, almost primitive, but it proves that Tokyo has fully embraced the core lesson of the Ukrainian theater. In modern warfare, you don't need every asset to be an exquisite multi-million dollar piece of engineering. Low-cost, high-volume agility is the new gold standard. South Korea is taking an even more radical approach. Their Ministry of National Defense announced a sweeping directive to train all 500,000 active duty personnel as drone warriors, treating autonomous systems as a standard universal secondary weapon for every single soldier in the field. Seoul has already cleared budgets to acquire 11,000 tactical training drones by the end of this year, with plans to scale that inventory to 60,000 units by 2029. This isn't a cautious pilot program. It's a total systemic overhaul of their entire military doctrine. And finally, let's look at the two players at the heart of this geopolitical chess match, Ukraine and Taiwan. Western defense journals note that Kyiv is actively purging Chinese manufactured components from its military drone supply chains, and Taiwan is quietly stepping up to fill that void as a critical trusted tech supplier. Furthermore, German media outlets reported that Raymond Greene, the director of the American Institute in Taiwan, effectively Washington's top diplomat on the island, spoke at a defense forum in Taichung and stated bluntly that Taiwan needs to transform itself into a dense multi-layered hornet's nest comprised of aerial surface and subsurface autonomous systems to deter a cross-strait invasion. More importantly, the same reporting revealed that Taipei quietly introduced a massive dedicated defense procurement budget running through December 2031, allocating a staggering 210 billion new Taiwan dollars specifically for autonomous systems. While it's still working its way through the legislative process, the strategic trajectory is unmistakable. Taiwan is converting the strait into an automated highly lethal denial zone. When you connect all these dots, a very clear picture emerges. The international coalition led by the United States is actively constructing a dense interconnected drone wall running directly along the first island chain to contain the Chinese military. In this ecosystem, Ukraine serves as a real-world laboratory, feeding live combat data and operational software back to the alliance. The U.S. provides the underlying intelligence architecture, secure satellite networks, and advanced edge AI processing. Taiwan steps in to handle secure trusted hardware manufacturing and supply chain integration. Meanwhile, major regional allies like the UK, Japan, and South Korea are rapidly restructuring their entire defense apparatus to align with this new reality. Now, a lot of nationalist voices in China will instantly dismiss this. They will say, you want to challenge China in a drone war? That's suicide. China is the undisputed king of global drone manufacturing, controlling over 70% of the world's commercial capacity. Nobody can match our supply chains or beat our prices. On a purely hardware level, they aren't wrong. China's manufacturing base is a powerhouse. But while they excel at bending metal and stamping out plastic holes, their software ecosystem and data integration are hobbled by systemic vulnerabilities. Take a look at the grassroots reality. Groups like the Kuma Academy in Taipei are launching civil defense drone pilot programs that are seeing unprecedented public demand, with slots booking out months in advance. As of late last year, Taiwan had over 4 million registered commercial and hobbyist drones active on the island, and local high schools are regularly hosting summer camps focused on autonomous assembly and search and rescue programming. What does that tell you? It means Taiwan is building a deep, culturally integrated reservoir of tactical pilots, tech-savvy citizens, and decentralized engineering expertise. And that organic, bottom-up technical literacy is precisely what allowed Ukraine to survive the opening salvos of Russia's invasion. Meanwhile, what is Beijing busy doing? They are moving in the exact opposite direction. The central government has implemented sweeping, draconian regulations on the domestic drone market, effectively choking out their own low-attitude economy. Drones are subject to absolute airspace bans over major metropolitan zones. Mandatory real-time registration is strictly enforced, and pilots are required to seek formal government clearance just to take off. These restrictive policies have utterly decimated the market valuations of domestic tech champions like DJI. The regime is also terrified of decentralized technology being used for independent journalism or domestic unrest that they've crippled the very ecosystem they need. When a real conflict erupts, a nation's strength relies on its reservoir of experienced pilots, decentralized repair networks, agile supply chains, and an open, collaborative community of hardware hackers. China has systematically suffocated all of them. The war in Ukraine has shattered another classic military illusion. A drone campaign is not a simple game of raw numbers and factory output. It is a challenge of systems integration. As we noted, Russia had all the industrial advantage early on, yet their operations stalled out. Analysts love to point to Elon Musk's Starlink network as the sole reason for Ukraine's edge. And while secure satellite data is a massive variable, it's only one piece of a much larger puzzle. The first major differentiator lies in the architecture of production. Russia relies on a highly centralized corporate model, similar to how massive automotive conglomerates build cars. They build gargantuan factories designed to run uniform standardized assembly lines. The benefit is high efficiency and immense volume. The fatal flaw is total rigidity. Ukraine, by contrast, pioneered a hyper-decentralized micro-factory model. They rely on hundreds of independent agile teams, garage workshops, and frontline engineering clusters. They can't match Russia's raw factory output. But they possess two things a massive centralized bureaucracy can never replicate. Near instantaneous feedback loop and immense structural resilience. Consider this. Russia centralized its main long-range strike drone assembly inside a single massive manufacturing complex in the city of Yelabuga, deep within the Republic of Tatarstan. Because everything was concentrated under one roof, Ukrainian long-range strike drones were able to target that specific facility multiple times, knocking the entire production line offline for extended periods. That is Achilles heel of a centralized mega-factory. Because your production is concentrated, a precise targeted strike can freeze your entire supply chain. And the moment the line stops, your frontline units run dry. Now look at Ukraine. How do you disrupt a manufacturing network that is scattered across thousands of anonymous basements, garages, and small machine shops across an entire country? You can't. Even if a Russia missile strikes a dozen of those workshops, it doesn't even dent the macro supply chain feeding the front. Furthermore, getting a drone off the line is only half the battle. The real challenge is updating it fast enough to survive the afternoon's electronic warfare environment. If a battery payload needs a modification to carry an extra two pounds of explosives without destroying the flight time, a massive rigid factory line cannot adapt. They have to halt production, retool the machinery, and route approvals through senior management. By the time the modified unit rolls off the line, the tactical window has closed. Ukrainian defense startup have noted in interviews that they routinely push up to 20 minor software and hardware patches a month alongside a total architectural overhaul every six months. A monolithic state-owned enterprise simply cannot move at that speed. This is why the Ukrainian military relies heavily on modular architecture. They distribute standardized components and the raw chipsets directly to frontline units, allowing the pilot and the local engineers to assemble, program, and tune the systems right at the tactical edge to match the immediate electronic environment. That agility is precisely how they managed to out-innovate a vastly larger industrial adversary. Naturally, plenty of skeptics will argue, you think China can do this? You think the world's largest pool of programmers and tech companies can't figure out a rapid software iteration? But when you map these dynamics onto a cross-strait scenario, the physical geometry and the mathematics of drone warfare creates a landscape that is inherently hostile to an invading force. Let's look at operational reality. Everyone knows that targeting an American carrier strike group is an incredibly difficult mission. And that's not just because they are ringed by layers of high-tech air defense. It's because the ocean is unimaginably vast and a carrier group is constantly moving at high speed. By the time a satellite spots a hole and relays those coordinates to a land-based missile battery, the ship has already steamed miles away from the target zone. You cannot reliably kill a carrier group using static, long-range land-based ballistic missiles. But the Taiwan Strait is an entirely different beast. It isn't the open Pacific, and its narrowest point, the Strait, is a mere 100 kilometers wide. And the distance from mainland outposts to Taiwan's frontline islands like Kingman is barely 30 kilometers. In an environment that is compressed, land-based defensive systems hold a massive structural advantage. If Beijing attempts a full-scale amphibious invasion, they will have to field massive fleets of slow-moving troop transports, landing craft, and naval escorts, even if they deploy advanced air defense ships. How does a traditional naval radar system protect a fleet when it is suddenly swarmed by thousands of low-attitude, autonomous strike drones launching simultaneously from every corner of the island? The standard nationalistic counter-argument is that China will simply launch a massive, overwhelming pre-emptive strike, showering the island with thousands of cruise missiles and tactical ballistic drones to wipe out Taiwan's defense lines, before a single troop ship ever leaves the port. But that assumes the targets are static. If Taiwan executes the Ukrainian playbook, their drone manufacturing, pilot stations, and launch systems will be completely decentralized and hidden across rugged terrain and urban centers. Drones can be launched from a hidden alleyway, a mountain terrace, or the bed of a civilian pickup truck anywhere on the island. You cannot preemptively destroy a defense system that has no central hub. Furthermore, these autonomous systems will be backed by secure low-Earth-orbit satellite arrays and running-edge AI target recognition. They can shift frequencies automatically, completely bypassing traditional electronic warfare jamming, and execute coordinated, high-density saturation strikes against an invasion fleet. This isn't a theoretical concept. Ukraine has demonstrated this exact capability repeatedly in the Black Sea, completely breaking Russia's naval dominance despite Moscow's advanced surface-to-air missile umbrellas. Some might wonder, why can't China just deploy their own defensive drone swarms to intercept the Taiwanese swarms? Can't you fight fire with fire? The mathematics of swarm mechanics say no. First, you'll run into the physical constraints of naval aviation. A carrier deck or an amphibious assault ship has a strictly limited amount of physical surface area. Taiwan can launch thousands of low-cost drones from the depths of an entire island. But an invasion fleet, even if they clear off every single manned fighter jet, can only space out and launch a fraction of that volume from their decks. More importantly, a drone swarm is an incredibly sharp spear, but it is a terrible shield. It is an asset optimized for hunting large, slow-moving, high-value targets. It is mechanically incapable of intercepting a swarm of tiny, fast-moving distributed targets coming at it from three dimensions. To use a drone swarm to intercept another drone swarm, your system has to solve a terrifying computing problem. In a standard ground strike mission, the target is slow and the spatial coordinates are relatively simple. But an aerial dogfight between two massive autonomous swarms requires real-time, microsecond processing of thousands of highly agile targets moving through a three-dimensional volume. The computational load scales exponentially. Let's look at the actual data tracking requirements. If you have two drones operating as a pair, the system only needs to manage a single two-way communication link. If you scale that up to four drones, the internal links jump to six, push it to ten drones, and your system has to process 45 simultaneous data streams. By the time you reach 100 drones, you are looking at almost 5000 interconnected communication pathways. If you attempt to field a swarm of thousands of units simultaneously, the data processing requirements will instantly melt the architecture of any standard mobile military command platform. So how does Ukraine manage to launch hundreds of drones simultaneously without overloading their systems? Very simple. They aren't trying to fight an aerial dogfight against an opposing swarm. They are flying one-way missions against the large fixed territorial targets. Their drones don't need to talk to each other mid-air. They can be pre-programmed with autonomous flight paths, launched in staggered waves, and rely on local AI image processing or insulated GPS signals to find their destination. It's the equivalent of a crowd of commuters rushing through a subway turnstile. They are all heading to the same platform, but they don't need to coordinate their heartbeats or talk to each other to get there. But if you are tasking with intercepting that crowd, you have to coordinate every single defensive unit perfectly to ensure every single incoming threat is body-blocked without any two defenders colliding or chasing the same person. The processing overhead is staggering. Even if you threw out autonomous coordination and try to rely on a massive army of manual pilots sitting in control rooms in Xiamen, the laws of human biology pulled emergency brake. The human nerve system has hard physical limits. If you are piloting a drone traveling at 170 kilometers per hour toward a massive stationary ship, the tracking is easy. But if you are ordered to use that drone to intercept another tiny agile drone screaming past you in the opposite direction on an unpredictable vector, the human brain cannot process that spatial relationship fast enough. A standard human reaction delay is roughly one tenth a second. At those closing speed, a tenth of a second translates to a miss of a dozen of meters. And that's assuming a perfect connection with zero network latency. Without an integrated autonomous network, your manual pilots will end up blind firing into the sky, crashing into each other, and suffering massive friendly fire casualties before they ever touch the adversary. And that brings us to the ultimate bottleneck for Beijing. You see, China can build all the factories it wants to stamp out the plastic frames and assemble electronic motors. But the operational software architecture and the real world data libraries, they are lagging miles behind. The autonomous network defending Ukraine wasn't built in a stereo lab. It was forged in the fire of a four-year high-intensity conflict. It is fueled by an absolute mountain of live combat data, countless loops of success, failure, signal jamming, and hardware adaptation. That data is an absolute goldmine. And it is completely impossible for the Chinese military to replicate or buy. But here's the kicker. Ukraine is going to share that entire playbook with its allies. They are already doing it, handing that hard-earned intelligence directly to Washington and Taipei. The Western alliance has already spent months systematically dismantling captured Russian and North Korea hardware. They have looked inside, cataloged every single commercial component flowing out of the mainland, and they know exactly what makes them tick. So when you strip away the nationalistic bluster and Chinese social media and look at the raw mathematical reality of modern warfare, the old-school industrial advantage is dead. The super factory is being systematically outpaced by the agile software network. And when the dust settles, the top brass in Beijing might just realize that their unstoppable red iron river is nothing more than a collection of very large, very expensive, and very vulnerable targets. Faced with an adversary that already known your secrets before you even launch, you really have to ask yourself, do they honestly think they stand a chance? Thank you so much for watching. If you find this video helpful, please like it, drop a comment below, and hit the subscribe button right here. It really helps YouTube suggest my video to others. I'll be back with more content soon. Until then, be well.