Hi Guys,
Thanks for your posts.
The short answer is "no" - I have no plans to offer DC-to-AC regeneration equipment.
The longer answer and explanation why (which is my opinion and I'm not looking to turn this into a debate):
Converting from pure DC back to AC, and then feeding AC powered components (which internally convert back to DC) is cumbersome, inefficient, and if not implemented very well, could be: Of little benefit, no benefit, or actually be worse than AC from your wall outlet.
In the case of power inverters (typically, these take a 12V car battery and output 120Vac or 240Vac), the output under load is far from clean sine wave. There is a lot of high frequency switching noise as well. Lots of hash, harmonics, etc. So this would be a case where you would end up with output that is most likely worse than your wall outlet.
Even in "cleaner" DC-to-AC designs (which could get very expensive), there is still the choking of instantaneous current under load due to the DC-to-AC conversion process, and other issues to deal with (the need for large and heavy batteries in order to feed power-hungry AC products like power amps, music servers, etc.). Your wall outlet will have more power available (most home outlets have at least 15amp at 120Vac). Getting that from a DC-to-AC converter would require BIG current draw on 12Vdc or 24Vdc batteries, or the use of a high voltage battery string (>100Vdc, which is very dangerous if one goes inside to tweak around with special tuning fuses or whatever
).
But even if perfect AC could be generated (a pure 50Hz or 60Hz sine wave, which all the current you could ever use), you still have the AC-to-DC conversion process
inside your components (no matter if they use linear power supplies or switch-mode power supplies) because audio components run on DC. In this internal conversion process, there are step-down transformers (or step-ups in the case of tube amps), rectification stages, regulation stages, etc. and they choke instantaneous current [which is why large storage caps are found in power hungry devices like power amps - in order to reduce voltage sag], and there is noise in the AC/DC conversion process - especially with switch-mode power supplies. Transformers induce hum if not well shielded, diodes and regulators are limited in how much power they can provide.
This topic can go on and on, but I much prefer the "DC Direct" approach of using high-current LiFePO4 battery power to feed directly to the my components (even their tube stages and tube heaters) - no switching DC/DC converters, no tube or solid-state rectifiers, no transformers. So there is NO internal AC to DC conversion process... high current DC is fed directly to our components. I strongly believe in this approach and the results that it achieves.
Cheers!
Vinnie