Thanks Mac, happy holidays and good luck to you also. I do need to get some new Kanthal, this time I'll purchase online and get a spool. I would like to try some 28g builds like beck has posted, (I'd actually like to attempt to repeat the exact build that is pictured above @
Post#352! lol).
I think I'm going to grab some
29gauge Kanthal and see what kinds of microcoils I can build with that (or 31g?)! 30g will still probably be ideal for most people/situations (and me), but I haven't seen anybody post any 29g microcoil results for the Protank/eVod/etc.. I still need some 28g also.

But either way, will post pics and results very soon. I'd like to compile a large table of definite results from different microcoil builds, exactly like you have been posting Mac
Thanks M, and the same to you and yours.
I'd like to take your lead to post the first validated 29 AWG value from my own results tables. Now validated no less than three times. A further validation for
torsioned 29 AWG. I'm annotating my tables with the new designation
torsioned micro coil to differentiate those results from conventional hand-over-hand manual pressure winds (all of the latter necessarily torched to arrive at a final contact coil resistance).
30AWG, 9/8 1.75mm i.d., t.m.c. = 2.01Ω √
29AWG, 9/8 1.75mm i.d., t.m.c. = 1.92Ω √
View attachment 285985 View attachment 285986
These winds are now running at consistently superlative results at 4V, 8W on KPT 1, 1.5 (cross-bar) and 2 with four tanks running off eVic's and the zMax v3 (variety). One so far out 10 days on Nextel XC-132. I should mention the last 30g confirmation was conducted on the fly, a snap-shot build for a friend, a Pinoy high-end dealer, himself a builder and modder. Literally grabbed my gear out of the bag and constructed the PT build in less than 5 minutes for a proof-of-concept under pressure (pardon the pun). I attribute this directly to build tightness and quality. Techniques gleaned from this thread and Metalhed's original localization thread, refined with the feedback and help
of you guys. Thank you!
I certainly expected that tensioned winds would tighten the resistance and performance of PT coils. However, the increased durability of the wicking was an unexpected and very, very rewarding surprise. I've also observed a rather impressive reduction, practically an elimination of color change in juices. Product like Ginger's RY4, every bit as dense as Boba's Bounty, remaining fairly consistent in coloration with both the two above winds. I devoted one tank to high temp test and have run it out to 10W also pressing and chaining that device with only very slight discoloration over 4-5 days (a Johnson Creek honey flue blend).
So thanks M for any contribution to the spec's of these build tables, and all of you. I would suggest if you post a result and your wind is tensioned directly from a spool, tool or by other method that you spell it out for others. This may allow reproduction and confirmation of your result. Very much to all our benefit to encourage it.
Validate at least twice confirming resistance on two separate devices. This might reduce the incidence of variation by others and and the tedium of addressing them. So try to post numbers that are likely to be reached because you've been there, done that. I only consider a resistance target validated when I have at least 2 successive builds at that precise resistance run on different tanks and devices with the exact build. Using the exact technique can vary anyway usually .04-.05Ω (+/- .025Ω). But you tend to hit multiples within that range. I remain suspicious of any lower result until verified as above. There is always the potential of equipment failure on my end. I may
not have yet reached the low end of potential for
any of the below. I may also have
exceeded it [an unobserved intermittent short] in gear or testing tools. I rely on the helpful worthwhile contributions of my peers on ECF to firm up this report. And your help is appreciated.
This has been tried elsewhere on the forum to varying degrees of success. But to our advantage the Protank is one of the most universal atomizers we have. It's design parameters fairly uniform across versions, well understood and quantifiable. So we have a better chance here of identifying what constitutes a working build because of the substantial base of users available. It's a numbers game. Plus resistance on an RDA, for example, can only be reliably duplicated by exact configuration (wire length). With the PTK the wire length is limited by the design and our coil configuration (the turns we ad). That is measurable. I believe these target values, along with a stable technique based on sound electrical principles, will give newcomers in particular the confidence to rely on specific targets, and results. For all of us an additional layer of safety in having a greater confidence that a variation is either a sloppy build or we should exercise care (to the low side).
Here is a sum-up of the most pertinent validations I have made for KPT…
32AWG, 7/6 1.75mm i.d. m.c. = 2.2Ω √
32AWG, 5/4 2mm i.d., loose m.c. = 1.85Ω √
30AWG, 11/10 1/16-1.58mm i.d., m.c. = 2.1Ω √ #
292 MrOcelot
30AWG, 10/9 1/16-1.58mm i.d., m.c. = 2.04Ω √
30AWG, 9/8 1.75mm i.d., t.m.c. =2.01 √
30AWG, 8/7 1.75mm i.d. m.c. = 1.85Ω √
30AWG, 8/7 1/16-1.58mm i.d. m.c. = 1.81√
30AWG, 8/7 1/16-1.58mm i.d. t.m.c. = 1.73Ω √
30AWG, 7/6 1.75mm i.d., m.c. = 1.78 √
30AWG, 7/6 1/16-1.58mm i.d., m.c. = 1.57Ω √
29AWG, 9/8 1.75mm i.d., t.m.c. = 1.92Ω √
28AWG, 12/11, 1/16-1.58mm i.d., m.c. = 1.3Ω
#241 vdaedalus
28AWG, 10/9, 2mm i.d., m.c.= 1.7Ω
28AWG, 10/9, 2mm i.d., m.c.= 1.64Ω
28AWG, 10/9, 2mm i.d., m.c.= 1.62Ω
28AWG, 10/9, 2mm i.d., m.c.= 1.62Ω
28AWG, 9/8, 2mm i.d., m.c.= 1.49Ω
28AWG, 9/8, 2mm i.d., m.c.= 1.49Ω
28AWG, 9/8, 2mm i.d., m.c.= 1.49Ω
28AWG, 8/7 2mm i.d., m.c.= 1.3Ω
I hope this info may prove helpful to you in targeting your Protank builds.
Good luck! Happy Holidays all.
