Measurement is not magic: the Born rule by hand
Why a quantum result is a probability: amplitude squared, worked on paper and checked in NumPy, one basis at a time.
Why a quantum result is a probability: amplitude squared, worked on paper and checked in NumPy, one basis at a time.
Quantum and automation are my two threads. This node is where they meet. It is verified on n8n Cloud now, and installs straight from the canvas.
The best study partner I have ever had is also the most confident liar I have met. The prompts and checks that keep it honest.
I built an open-source n8n node for IBM Quantum and ran a Bell state on a real 156-qubit processor. The full loop, the transpilation gotcha, and why n8n.
A pure state fits in a vector. A noisy or entangled one does not. Density matrices, quantum channels, and what they show that vectors miss
A surprising number of hard problems are one eigenvalue problem on a matrix too big to build. Variational, Krylov, sample based, compared
Quantum kernels, variational classifiers, and the honest part: when quantum beats classical machine learning, and when it does not.
Dictionaries for counts, just enough OOP to read Qiskit, and NumPy as the bridge. The thin slice that matters, nothing else.
The superposition myth, taken apart with math you can run. Not a hidden answer waiting to be read, but something stranger and far more precise.
Milestones
My first IBM Quantum badge said Intermediate and it bent my brain. The second one says Advanced. It is about the algorithms that actually run on today's noisy quantum machines, and I am a self-taught builder who was not supposed to get here.
Milestones
There is a type of computer that holds every possible answer at once and only picks one when you force it to look. I found it a few weeks ago. I have not slept well since. First IBM Quantum badge earned. The chapter starts here.