For all the technical info given in the video, there is a curious lack of any data regarding the actual accuracy of the system. What percentage of rockets tested managed to hit anything and at what range?
No lack of entrackment data generated by [edit] d̶i̶g̶i̶t̶a̶l̶ ̶t̶w̶i̶n̶ github repo of "the system".
Is there a simulation that has been documented to have the identical behavior and flight characteristics as the real thing? Does not seem like it.
If there is a difference, it is not a twin.
The other part is the limited production runs. Until last month, the DoD was generally purchasing ~100 of these annually. There's no scale economy in making these, so those 100 missiles need to support the entire production & R&D of the product.
Also if you want to harden the rocket against EMP attacks you need an inertial guidance system, and those things also demand extreme precision.
Once you add in modern electronics and guidance and reliability that cost quickly skyrockets, going up an order of magnitude at each step of complexity (advanced guided like the Javelin, cruise, ballistic, etc).
This is a rather basic (passive) seeker head by modern standards.
https://en.wikipedia.org/wiki/File:R-27_missile_homing_head,...
I think there's lots of people talking past each other on this post. These kinds of designs won't be as reliable as the existing designs, and they may have a systemic flaw, for example, susceptibility to disabling with microwaves. And they aren't going to work after sitting in an ammo depot for 15 years in the desert or after being dropped from a plane.
But these designs will cost just a few dollars more than the equivalent dumb munition (and can possibly be retrofitted), and can be two orders of magnitude more effective in the short term. The threat here isn't "guy in garage makes MANPADS", it's "IRGC converts 100's of thousands of existing unguided cold-war rockets into guided S2A and S2S missiles for $20 each". Even if it doesn't hit any target, each aircraft has a limited number of countermeasures and has to return to base if they run out or risk being hit.
Guided munition at a dumb munition price is enough to invalidate many strategies.
I don't want to use it for war. I think it would be a pretty cool technical project (if it works).
What nonviolent application are you imagining for a gps-guided rocket that is launched by pulling a gun trigger on a hand held mount?
A launcher for a climbing rope or grappling hook. Have you ever tried getting a rope up over a branch on a very tall tree?
Not joking - I considered it as a hobby project years ago until I discovered how hard it would be to do legally.
It clearly needs more work, but if an amateur can get this far at this low cost, odds are you'll see attempts at overwhelming attackers or defense systems by sheer volume with cheap decoys like this long before they become an actual threat in and of themselves.
Get the rocket a bit more stable, and force an attack to try to take out dozens of these because one of them might be a real threat, and you'll have created a problem.
We don't try to regulate those things out of existence like we do with new technology (drones and now 3D printers)
Kind of ridiculous that a country with more guns than people and 45k firearms deaths per year wants to regulate 3D printed plastic. Yet collecting and shooting actual guns is still an acceptable hobby in many states.
I'm completely against regulation of any sorts on 3D printing, but you have to admit there is a huge difference in purpose there.
Hiya! (Grenade)
There's clearly a need for more cheap interceptor drones as well, but it's not like the US military won't start deploying those soon enough.
Really? I think rocket science is still not easy. Just look at how much nation states are spending on maintaining their liquid and/or solid fuel rocket programs. If they even have one, let alone both.
This book might give some insights into the why https://library.sciencemadness.org/library/books/ignition.pd...
Quote: "All this sounds fairly academic and innocuous, but when it is translated into the problem of handling the stuff, the results are horrendous. It is, of course, extremely toxic, but that's the least of the problem. It is hypergolic with every known fuel, and so rapidly hypergolic that no ignition delay has ever been measured. It is also hypergolic with such things as cloth, wood, and test engineers, not to mention asbestos, sand, and water —with which it reacts explosively. It can be It has recently been shown that an argon fluoride, probably ArF2, does exist, but it is unstable except at cryogenic temperatures.
[...] kept in some of the ordinary structural metals — steel, copper, aluminum, etc. —because of the formation of a thin film of insoluble metal fluoride which protects the bulk of the metal, just as the invisible coat of oxide on aluminum keeps it from burning up in the atmosphere. If, however, this coat is melted or scrubbed off, and has no chance to reform, the operator is confronted with the problem of coping with a metal-fluorine fire. For dealing with this situation, I have always recommended a good pair of running shoes."
Granted this is about a fuel that is AFAIK not used for MANPADs, but the joke about the running shoes could be made about most aspects of rocket propulsion.
I saw this pop up alongside its video thumbnail and nearly shit myself watching it and going "damn, that looks exactly like what's on those RU/UA drones going at each other"... https://www.ebay.com/itm/197224214645
"HS AI Vision Cube For Ultra-long-range Target Recognition tracking & Thermal" for as low as $175. I am feeling the potential ITAR violations straight through my screen.
And possibly landing on all kinds of watch lists.
I wouldn’t be surprised if some of the sellers there are just honeypots.
A name like “Ultra-long-range Target Recognition tracking” just screams “Hey, FBI, please come visit me and ask what I am building in the basement”
You could integrate acceleration to get speed - the flight is short enough to make compounding errors easy to ignore.
I think thanks to drones and RC hobbyists, there's a generally nice body of knowledge on how to get good enough data from consumer hardware to keep things flying.
‘Easy to ignore’ is not a term I would use here, especially given the motion environment of a rocket. It seems like it might be beginning to be borderline possible.
False, given how noisy MEMS IMUs are, and the accuracy required. Even Ring Laser Gyros drift quickly.
Realistically, I doubt there’s ANY system out there will be able to counter small weaponized drones that are flown manually let alone with AI, you might have some workarounds, but never a real counter.
Weaponized drones (say D_A) can be countered by other weaponized drones (say D_B), equally cheap or cheaper than D_A because the D_A is usually targeting something larger (so more payload) and typically has a longer range. D_B only needs to wreck D_A at a shorter defensive range. That's what Ukraine is doing.
You can also use drone swarms with coordinated action so that each drone in the swarm is only targeting one other drone, and automatic re-targeting if one node misses. [1]
I doubt it, as D_A's target is stationary (and could be reduced to GPS coords) while D_B's target is moving.
It's a good point, though I should point out that GPS denial is assumed in those sort of contexts as a first countermeasure so D_A likely has alternative targeting, and that smaller drones can move faster with less energy storage, which itself requires less weight, compounding the benefits of being smaller.
https://en.wikipedia.org/wiki/The_bomber_will_always_get_thr...
hardest issue as I mentioned in another comment is detection. Now on using other drones to counter a drone, there are other issues, as I built and tested some before, assuming you got the detection part done. The first one is guidance and correction mid-air, flying manually won’t really be practical due to the need for an extraordinary flying skills, which can’t be relied on in the field, the second part is the speed, you need to ALWAYS make sure the interceptor is faster to catch it up, third is the weight, I disagree about the payload part you mentioned, I have seen videos of light weight drones failing to wreck bigger ones, if you are relying on collision alone. Additionally, the telemetry/video/C&C for the interceptor, if jamming is already in place, your counter won’t work either.
The swarm will require a low latency comms link, centralized or decentralized, if the area is jammed, it won’t work. i have built a self-healing decentralized system using cellular in each drone, but that’s useless if the network is down to start with.
So they might work in a very specific use case, but not an ultimate solution to counter them.
This [2] talks about swarmer software used by Ukraine.
$1k-$2.5k gives a lot of room for tech to avoid jamming - ir or visible light, ultrasound, for in-swarm comms.
And I wonder if the battery itself could be weaponized. We have seen that a very thin layer of the right material can turn phones/pagers very destructive.
[1] https://www.twz.com/news-features/ukrainian-companies-prohib...
[2] https://united24media.com/war-in-ukraine/ukrainian-drone-swa...
https://www.ycombinator.com/companies/9-mothers-corporation
Given the war in Ukraine, wanting to build such things is certainly understandable. But still, this is the stuff of nightmares.
Why would lasers not work?
Those cheap drones are made from plastic, if you have a laser powerful enough and a target guidance system (like a camera and a PI) - then you would just need enough of them.
Not impossible but many times more expensive than the drone
And even in the case it could be useful as an addition to or paired with a tank etc.
At that point might as well spend the money to use a kinetic weapon with basic tracking and ballistic calculations.
- are cheap to shoot - do not fall on someones head if they miss (unlike firing bullets and rockets at a drone that will come down again) - do hit the target immediately if aimed right
Problems with lasers are, cooling, power consumption limiting mobile use - and indeed targeting and fog and clouds.
Those are bigger and noisier.
DJI ARGAS Series are good starting point.
Nowadays I fly nothing, but I do see them Iranian drones get intercepted from my porch in Abu Dhabi.
The fact I am watching it and not panicking anymore tells about how cooked I am.
https://www.redbull.com/id-id/worlds-fastest-filming-drone-b...
Even the fastest "real-time" LLM frameworks currently report sub-second latencies around 120ms. This is fine for high-level mission planning (e.g., "fly to the red house") but too slow to prevent a drone from hitting a tree at 50mph (80 KM/h)[1]
Whilst the Shahed-136 kamikaze drone typically flies at a maximum speed of around 185 km/h (roughly 115 mph or 100 knots).
[1] https://arxiv.org/html/2602.19534v1 [2] https://en.wikipedia.org/wiki/HESA_Shahed_136
LLMs (Large Language Models) are far from the only type of AI around. It's a pretty broad field, and there are real-time AI systems, for example, self-driving cars, which have the response times you're thinking of. [1]
[1] https://en.wikipedia.org/wiki/Artificial_Intelligence:_A_Mod...
YOLO is a good example for something that can work.
What kind of systems are you thinking about? Jet airplanes for sure are completely safe from small drones.
That feels like a bold and unsupported assertion. Ask a pilot how they'd feel about takeoffs or landings through airspace filled with adversarial drones.
Until they land then, due to their cost, they become a very juicy target to aim for.