So at moderate power levels, 15A to 20A or so, the Efest's lower internal resistance means it will run for longer in a regulated device. At lower power levels though the LiitoKala's higher capacity leads to it running for longer.l
Were their temperatures recorded? That would help determine how hard they were being run and the effect on cycle life the different discharges would have.
Mooch, at 15/20A the voltage drift (vs Efest purple) rarely exceeds 1.5%, and mostly in the midrange. At 20A, the capacity difference is still ≈10%. I really doubt the Efest purple has any chance of winning even in a regulated device.
Temperature graphs:
The full review link is above, just below the graph.
Thanks for the temp graphs! Those temperatures are significantly lower than what I would measure though if discharging that battery so I can't compare our results.
At 20A down to 3.2V the Efest delivers about 2.7Ah. The LiitoKala delivers about 2.4Ah. IMHO, that 10% will certainly be noticeable in a regulated device.
I have nothing against the LiitoKala. Its higher internal resistance just means it's a lower amp-rated, high capacity cell. This is normal behavior for the over-4500mAh 26650's. Perfect for lower power vaping.
Significantly lower temps? Are you sure? If I am to add ≈25-30° ambient temp to the chart figures, it makes sense. Maybe a tad lower, if anything. No expert in this regard, bear in mind.
3.2V? Why such a high cutoff? Neither of those cells have reached the “slope ditch point” there at 15-20A.
Yes, it probably is the king of runtime for up to ≈50W/cell.
Significantly lower temps? Are you sure? If I am to add ≈25-30° ambient temp to the chart figures, it makes sense. Maybe a tad lower, if anything. No expert in this regard, bear in mind.
3.2V? Why such a high cutoff? Neither of those cells have reached the “slope ditch point” there at 15-20A.
Yes, it probably is the king of runtime for up to ≈50W/cell.
Yes, I am sure, I have done the tests many, many times.
My tests would probably read about 70°C for a 20A discharge down to 2.8V at an ambient temp of 24°C. That most certainly qualifies as significantly higher. What is used to measure the temperature with, and how the sensor is coupled to the battery, fundamentally affects what temperature is measured.
I used 3.2V because almost no one vapes below that.
It is the most common low voltage cutoff for a regulated mod and mech users will probably stop higher than that (but around there due to sag). Any increase in effective capacity below about 3.2V will never be seen in our application.
Hell, the figures in my mind were already correct . HKJ's temp graphs do not reflect the absolute battery temperature but the drift over ambient. Of course this was making sense to me, well accustomed to his reviews' data interpretation.
Hell, the figures in my mind were already correct . HKJ's temp graphs do not reflect the absolute battery temperature but the drift over ambient. Of course this was making sense to me, well accustomed to his reviews' data interpretation.
I can confirm with my Flawless and iJoy Solo Plus that these batteries work like a champ and last me all day. I am a heavy vaper and that is what I wanted! Tired of carrying extra 18's around. 50W-70W average vape.
This site uses cookies to help personalise content, tailor your experience and to keep you logged in if you register.
By continuing to use this site, you are consenting to our use of cookies.