Feasible? Sure, you just need a nuclear reactor for every charging point.
Quotethe industrial production of special electrolytes may be costly. It also remains to be seen how the batteries will perform in long-term tests with higher cycle counts.
So...not a breakthrough. Like every other "Hey we developed a new way of charging batteries in a few years, we just have to ramp it up to production, keep costs low, etc. etc..."
Without a scalable production process, it's niche and a preview of absolutely nothing to us measly consumers.
Even the first few Solid State batteries in production offer no advantage over LI-Ion that benefits the consumer.
AI-Dumb article.
The article summary kinda mentions a solid electrolyte.
And they mention a respectable 386 Wh kg energy density.
But no mention of even a projected lifespan. Which is weird since the dendrite problem they are solving is mostly affecting the lifespan/safety.
With so much efforts& so much demand for cleaner energy
The biggest drawback is chargeing time
I wait for a system which can charge from household 220v a quicker way to benefit from 8kw solar system reducing tbe time to charge
Quote from: Martin2025 on September 27, 2025, 09:23:29With so much efforts& so much demand for cleaner energy
The biggest drawback is chargeing time
I wait for a system which can charge from household 220v a quicker way to benefit from 8kw solar system reducing tbe time to charge
Depending on your onboard AC charger, you could be able to get nearly 7kwh in while charging.
Realistically then you'd be able to consume all available solar.
I'm assuming that you've stated the total array size and so you won't necessarily see the full 8kwh from the panels.
IE you might get around 90% of the capacity over the day and that'd be 7.2kwh.
Otherwise, there are systems that I see coming out on battery storage that support DC charging rates through a inverter that draws off the house battery.
Which could make sense as you might not be at home when the sun is shining to capture the solar.