But to an extent, I'm really just talking to myself.
Cogitation repository, capitalising on the indefatigability of Twitter servers' storage facilities
A Kelvin (4-wire) setup is a master at eliminating Ohmic resistance, but it is surprisingly vulnerable to inductance. Sad lol the inductance of the wires is destroying my EIS nyquist plot
Lots of very easy to damage the device lol so we've gotta be careful brr. Also had to run through many iterations to arrive at this because I had to work with what was available in the lab. This should ideally be done with
PGND and AGND are separated, not isolated. Isolation means they are open-circuit to each other. Separation means they share a single, low-impedance connection point but their return current paths are physically routed through different copper regions.
If you change the duty cycle to something like 30% or 70%, the waveform loses that half wave symmetry, and even harmonics will appear in your Fourier transform. Keeping it exactly at 50% simplifies the digital signal processing for your device
What I learnt from working on capstone today (9/3/26):
1. Battery equivalent models can have capacitances in the kF range: I had been using voltage sources as batteries in my simulink simulations since
2. The effect of a mosfet switching at a 50% duty cycle vs not, on DSP: A perfectly symmetrical 50% square wave consists only of a fundamental frequency and its odd harmonics (3rd, 5th, 7th, etc).