I've been pretty busy with college for the past couple days and have finally finished categorizing my battery pack. I will be using 32 cells to make a (mostly) 2S14P pack, with 3 cells on 4 of the parallel groups because they have weaker cells. According to my measurements and calculations, the finished pack should have around 33 mΩ of resistance at 4.1v/20°c. When the battery warms up and isn't fully charged (IR goes down near mid-SOC and higher temperatures during summer riding) I'm expecting the IR to drop into the low 20s of milliohms.
For under $80, a pack that holds 750 watt hours and can put out 180 amps is a total steal even if it only lasts a single season. Given that my bike peaks at 130 and can only do 70 continuous amps, I should get 2 or 3 years out of this pack. Now I'm wishing that I had a beefed-up motor like SpinningMagnets (or LiveForPhysics :lol: my battery would probably

if I tried to do that much power).
Spreadsheet of cell data: https://docs.google.com/spreadsheets/d/1Qm3_1tURi5xlAu6vcwRYsnC_p1OJYXtSMZms9W6FNhI/edit?usp=sharing
Docrocket, You're correct about jumping the gun on the voltage cut-off. When I capacity-mapped a random cell (https://endless-sphere.com/forums/viewtopic.php?f=14&t=54202&start=75), it showed that most of the charge was stored between 3.6-3.8 volts resting. Under a moderate load, you'd lose a TON of capacity if you cut off at 3.6. Personally I'd set the LVC for when the weakest cell hit 3.1v under load. These batteries are rated for discharge to 2.5, so 3.1 won't hurt them a bit.
Regarding your question about balancing, NO, it's not a good idea to not balance, especially if the cells aren't matched to begin with. If you had a pack with 5 strong cells and one weak cell, the weak cell would be way overcharged by the time the strong cell hit 4.1 volts. If you don't have a balance charger or lead, charge only to 4.0 volts/cell and then balance by hand (or put them all in parallel like I did).