Wicked problems: when the problem fights back.
The most expensive decision on any hard problem is the one you make in the first sixty seconds without noticing: what kind of problem is this? Here is the worst-behaved category, told through one small drone, and a dare at the end.
You have been in the room. A kickoff, a war room, an escalation, an offsite. Someone described something broken, said make it go away, and the table went straight to solutions. Maybe you were fastest to the whiteboard. It felt like competence.
Here is why it should bother you. Get the problem TYPE wrong and everything downstream is wasted. The cleaner the execution, the more it costs, because you are building an excellent answer to a question that was never the real one. Whole quarters disappear this way. So do products. And nobody hands you a label: problems do not arrive stamped tame or wicked. You classify them yourself, early, before the momentum of solving makes the choice for you. That skill is rarely taught. It is, quietly, what separates teams that compound from teams that thrash.
Two words, and the solving begins.
A room full of engineers. No briefing, no constraints. The instructor sets one object on the table, a small quadcopter trailing a hair-thin glass fiber that spools out behind it, and says two words: fix it.
And they cannot help themselves. Within seconds the room is solving. Make the fiber lighter. Redesign the spool. Build a cutter. Detect the heat and burn through it. Net it. Trace it. Three solutions deep, arguing about drag coefficients. Nobody, in those first sixty seconds, asks the only question that matters: fix what? For whom, in what setting, measured against what?
That reflex, straight to the build, is the whole subject of this piece. Because the thing on the table is not a problem you fix. It is a problem that fights back.

Follow the object’s history, and the trap appears.
The drone is the fiber-optic tethered FPV: flown through goggles, its control and live video running down the glass as pulses of light. There is no frequency to jam. The room sees that and reaches for a counter. But watch where the object came from, because its history is the trap drawn in slow motion.
First the drone was the problem, and the answer was jamming. So someone deleted the radio and ran the signal through glass. Jamming stopped mattering. But the tether cannot fly past its own cable; it drags, it tangles, it can be traced and cut. So the next room builds the cutter, the net, the heat-detector, exactly what our engineers just sketched. And the room after that hardens the fiber. Each answer rearranges the problem and hands the next room a fresh thing to fix. There is no last move.
The engineers did not solve the problem. They took their seat in an argument that has no end, and they did it without noticing they had sat down.
A tame problem you finish. A wicked problem you only ever leave.
One of these closes. The other never does.
The idea is older than the drone and has nothing to do with weapons. In 1973, two urban planners, Rittel and Webber, split the world into tame problems and wicked ones. A tame problem has a stable definition, a finite solution space, and an answer you can verify. A wicked one has a contested, shifting definition, an effectively infinite solution space, and no test that will ever confirm you got it right, because by the time you could run the test, the problem has already moved. The room treated the drone as tame. It is wicked. That single misread is the entire mistake.
How to know the problem is fighting back.
How you frame it already decides which fixes look sensible. Frame the drone as an un-jammable threat and you get countermeasures. Frame it as a contested-airspace doctrine problem and you rewrite the rules instead. The framing is not a step toward the answer. It is the answer, in disguise.
A tame problem ends when it is solved. Here there is no natural finish. You stop when you run out of time, budget, or patience. The arms race has no end state, only a current one.
Cut the fiber and it is good for the defender, catastrophic for the operator. Good depends entirely on where you are standing, and the room never asked where it was standing.
You cannot run a clean trial on a live problem. Every intervention leaves a trace and changes the field, so there is no controlled second attempt. You act, the world reacts, and the conditions are now different ones.
The tether is a symptom of jamming, which is a symptom of cheap drones, which is a symptom of contested airspace and cheap autonomy. Pull the thread and there is always another problem underneath.
In a contested zone it is one thing. Over a worksite, a stadium, or a border crossing it is a completely different problem wearing the identical body. The engineers were optimizing a spool for a mission nobody in the room had named.
You do not fix these. You intervene.
This is the trap that capable teams fall into hardest. They take a problem that fights back, declare it tame because they wish it were, build something excellent, and field it everywhere. Then the system fights back, the arms race they ignored writes the next chapter, and they are caught holding a flawless answer to a question that already changed.
Wicked problems are managed, not solved. The shift is from fixing to intervening: find the leverage points, map the stakeholders and the feedback loops, make a move, watch what actually shifts, and adjust. The deliverable is not a solution and a victory lap. It is an intervention strategy and a standing agreement to keep watching. The fix for the room was never a better spool. It was the question they skipped, the same one that opens all four problem types: which kind of problem is this, before I pick up a tool?
You think you have a drone problem. You have a problem you have not classified.
So test it. Copy the whole story below, drop it into MindrianOS, and find out which of the four you are actually standing in. Larry will not hand you a countermeasure. He classifies first, then picks the method to match. Bet you cannot guess the type before he names it.
Copy the story. Mindrian kicks in.
I want to solve a problem, and I am not even sure I have named it correctly. The object: a fiber-optic tethered FPV drone. You fly it through goggles, but instead of a radio link its controls and live video run down a hair-thin glass fiber that spools out behind it. There is no frequency to jam, so it flies through heavy electronic interference as if it were not there. Its history is a chain of solutions, each answer creating the next problem: - The drone was the problem. The answer was to jam the radio link. - So the radio was removed and the signal moved to glass. Jamming stopped mattering. - But the tether drags, tangles, and can be traced and cut. So the answer became cutters, nets, and heat-tracing. - So the next answer hardens the fiber. Then the next counter. Then the next. And the same drone is not one problem. In a contested zone it is one thing; over a worksite, a stadium, or a border crossing it is a completely different problem wearing the same body. Help me think this through properly. First classify it: is this undefined, ill-defined, well-defined, or wicked, and why? Do not jump to a fix. Then tell me which method fits the type you found, and walk me through the first move.
Six moves, classification first.
Each command is copyable. Every one is a real MindrianOS move, documented in the catalog.
- 1Open a room and paste the story
Larry reads the whole thing and refuses to hand you a countermeasure. First he classifies.
On the tethered droneHe names it out loud: this is wicked, not well-defined.
- 2Classify against the problem-type matrix
Undefined, ill-defined, well-defined, or wicked. The single highest-leverage call you make all project.
On the tethered droneThe tether fails every tame test: no stable definition, no stopping rule, no clean verification.
- 3Map the domain and its life cycle
Pulls the prior art and the chain of past answers in as typed graph evidence, not guesswork.
On the tethered droneEvery previous counter becomes a node you can see, instead of a surprise you trip over.
- 4Borrow a solved problem from another field
Cross-domain analogies are where the eureka actually hides. Same structure, different industry.
On the tethered droneHow does any field survive an escalation with no last move? Find that move, then steal it.
- 5Find the holes nobody is addressing
Maps the terms of competition and surfaces the unaddressed problems sitting in the gaps.
On the tethered droneThe opening is rarely a better spool. It is the move three counters ahead of the fight.
- 6Turn the room into knowledge
Climbs from scattered data to a position you can defend, act on, and keep watching.
On the tethered droneYou leave with an intervention strategy and a standing watch, not a false finish line.
- MindrianOS Brain.The tame-vs-wicked contrast (definition stable vs contested, solution space finite vs infinite, verification possible vs impossible), “managed, not solved,” systems thinking, and leverage-point intervention. The classroom framing is drawn from the teaching corpus.
- Rittel & Webber (1973). The original ten properties of wicked problems, from Dilemmas in a General Theory of Planning. Overview: Wicked problem.
- The drone. Background on the tethered fiber-optic concept: Fiber optic drone.
Ready when you are. Install MindrianOS. Start thinking with Larry.