What I meant about costs regarding patents is, if the budget for the project so far has been about $600 I don't think we're gonna be able to scrape together however many thousands of dollars it takes to file a patent claim. I'm also sorta allergic to BS, and every patent I've ever [tried to] read makes almost no sense because any technical information is completely obscured in stupid legal language. I mean if someone wants to go through what I put together, decide if it's patentable, translate the technical information into Vogon and push it through the system pro-bono, sure we can patent some of the TypeZero stuff. But right now I'm a little more concerned with being one of two engineers in a two-man business than being a paperpusher. You may be right about everything, but that doesn't change the fact that I'm broke and undertrained in legal documentation.
Also, and no offense to PlanetCrypto because I know he really likes liquid cooling, but I really don't care much about it. There's just something reliably low-tech about a heatsink and fan that makes things so much easier for regular people to work with, and since making things regular people want to work with is our priority, I'll stick to considering those needs. That said, if our Spec1 boards are compatible with S[odd] heatsinks, it also means they're compatible with the waterblocks folks are using for them, so there you go. The Spec2 board would be built dimensionally as a Prisma board, which I know PanetCrypto has worked with in immersion cooling attempts. Something like that might be better for an oiltank. If y'all want to figure out the best ways to high-density or watercool the works-with-aircooling boards I want to make, I won't get in the way. But I'm not going to retool designs for MinerEdge-style boxes unless someone wants to specifically commission that project and pay for the dev. The miners I want to make are for people, not corporations.
Also, no progress. Family reunions all weekend. Hopefully I have PCBs in the mailbox on Monday though - barebones 18-boards and version 0.5 Compacs.
Regarding patents and patenting:
We're more alike than you might think. I stayed an E-5 in the Navy precisely because I loved the tech versus the paperwork (Was THE senior E-5 in the Navy for almost a decade till I got caught and was forced to advance or get busted to an E-4.)
For some types of patents the process has become much simpler and dramatically cheaper. As is evidenced by
http://www.legalzoom.com/sem/ip/patent/patent-lb.html?kid=07705699-061f-2529-72f2-00004a8dcce3&cvokid=07705699-061f-2529-72f2-00004a8dcce3&keyword=legalzoom%20provisional%20patent&matchtype=broad&cvosrc=ppc.google.legalzoom%20provisional%20patent&gclid=COLYl-qWxcUCFQ4yaQodDIIA_wJesus, look at that URL. Anyway.
Depending on your upcoming design(s), we would entertain taking on the patenting process BS and is something we can converse about when the time is ripe.
Regarding non-air cooling:
None taken. But let's see if I can make a case for a liquid cooled design for the masses. Air is a REALLY low density liquid. As such, there is a finite limit on how much cooling can be packed into consumer product. That limits profitability of an air cooled consumer design. Which makes them less profitable than an "industrial" design. Traditionally, liquid cooling adds several levels of complexity and failure points, most notably the mechanism to pump fluid. Now if one could design a liquid cooling system that used convection to move the fluid. . . . This also solves the noise issues that plague a home design that can largely be ignored in a DC. And while pumps have a lower MTBF, fans fail too. And then there's the KISS principle.
Standardization is what made the small block Chevy engines/transmissions, Ford Model A, and Ford 9N/2N/8N tractors advanceable and popular designs. Combined with their affordability. If I were designing something, anything, I'd lean towards something that had become the "defacto standard". In the Bitcoin mining H/W world, I think, hands down, the S1/S3/C1/S5/S? boards physical dimensions account for the majority of the hashing power out there. I think I'd steer clear of a Prisma physical dimensions design and focus on packing the largest amount of hashing power into a board that "bolts up" to a S1/S3/C1/S5/S? cooling device. Be it air, waterblock, or immersion. If it had an edge card connector that plugged into a server PSU all the better, poke poke.
I contend that if you put that much hashing power on a board that meets those physical dimensions (or Prisma dimensionality) that it will no longer be able to be cooled by air without ridiculously massive heatsinks.
The Prisma design is nicely dense, but is finicky with regard to heat. Due to the huge surface area required "on air" to keep them from burning up (here I'm referring to the cooling not a flawed circuit card design). Friedcat's design to "tube" the heatsinks was brilliant but required from a heat dissipation standpoint (and that required a "one off" heatsink design). Hash chip (BE200) temperature from the front to back vary enormously. The last chain of chips on each board in a properly operating Prisma have got to be on the edge of max Tj. I'm surprised they survive. Waterblock and immersion cooling solves this issue.
IMHO, to keep the consumer/home hasher "in the game" of BTC mining (as this strengthens the BTC ecosystem) they need the kind of industrial strength high density hashing power that large farms can afford to implement. In effect what I'm talking about is miniaturizing a mining farm into a desktop unit from a W/GH/s standpoint. Superior high density board designs (efficient and flexible) are a component of this solution, but, pretty sure you can't do that "on air". Cuz' if one could, the "big boys" would be doing it. Haven't ever heard of a large mining concern that doesn't have a facilities chilled water system, for a reason. This becomes all the more important because home hashers typically buy electricity at a premium price (residential rates).
These small scale mining issues will become more, not less, pronounced as transistor size decreases and eventually bumps into the quantum wall at or below 12nm (Dec 2015 - Feb 2016 ?). The "big guys" will be able to afford and manage those high density designs because they cool with a denser liquid that is enabled by economies of scale. Something the home hasher, currently, can't afford to do.
Am reasonably confident that if you'all produce a high density design that has a common dimensionality (S1/S3/C1/S5/S?) and it can't be cooled by air (in a reasonable volume), this community will figure out a plethora of ways to cool it. Like yourselves, there are some pretty bright bulbs in this box. And am not saying, by any stretch, that I'm included in that box.
First step is to get a board to work with because it's obvious that the "big 4" don't give a F@#$ about us little guys. Little being defined as sub 500TH/s mining operations.
Another key element in securing the survivability of the "little guy" is a source of state of the art hashing chips. Because a board design can only be as good as the components on the board. AM could have been this if they hadn't imploded. And why I'm REALLY interested in who owns the IP for the BE300. But those are topics for other posts in other threads.
Heading out to spend the obligatory Fathers Day w/kids and grandkids, catch ya'all l8r.