Open Source Finally Hits Real Silicon
pagercam2 writes "While Open Source software has many success stories, hardware and particularly chips haven't had as much. While there have been multiple Open Source projects, none have come to a final product until now. The OpenRISC 1000 has been implemented by Flextronics Semiconductor(a division of Flextronics, the contract manufacturer possibly best known for its production of many Cisco products) along with PCI, 10/100 Ethernet, serial, GPIO etc. ... Details and pretty pictures available at OpenCores.org, and it even runs uClinux. Good Job!"
If they make money with this and other chip fabricators get on the open source boat then perhaps one day we'll see an entire open source chipset and motherboard combo. No "SecureThisBIOS" and "TrustedThatOS" needed.. That would be damn sweet.
Trolling is a art,
What's the roadmap from here for these open core processors? Is there one?
I have been pwned because my
>>Flextronics Semiconductor(a division of Flextronics, the contract manufacturer possibly best known for its production of many Cisco products).
m l
Flextronics would actually be best known for being the main manufacter of the Microsoft Xbox.
http://www.wired.com/wired/archive/9.11/flex.ht
A lot of what's floating in space runs with what we could consider antiquated hardware.
Old != Junk
Trolling is a art,
Or, I'm just being fanatical and ranting about nothing, whatever.
- A
In general, what problems would there be in creating open-source engineering designs for hardware of all kinds branched off from off-patent intellectual property? That, as it turns out, was the express purpose of the US Patent system as conceived by Benjamin Franklin, unless I am mistaken.
Just my two cents...
Procrastination sucks.
"Can anyone seriously point out some practical applications of this processor?"
Sure.
For chips derived from this test SoC:
MP3player
VoIP hard phone
Network Router
Firewall
Wireless Access Point
DVD player
Car stereo
Cell Phone
PDA
For uClinux:
It's all around you, many of the products _you_ use every day run it. Just because you think Linux means servers and desktops doesn't mean that's the only place it's widely deployed!
J
Didn't you hear? Honda is purchasing Apple. I work in middle management at Hopple MotorComps, so you can believe me.
Have open-source cores been available to implement those specs been available for a LONG time?
For quite awhile, as I understand. The Leon chip is an example of this. Other areas such as Fujitsu's processors and set top devices have been based on Sparc.
I'm not saying that OpenCores is a bad thing. I'm just refuting this "we were here first" bullshit.
Javascript + Nintendo DSi = DSiCade
I appreciate the joke, heh, heh.
But I'd like to point out that opencores has had a fair amount of its open IP commited to silicon to date... not via lithographic processes maybe, but in FPGA's at least in onesies twosies lots if not more.
It's pretty sweet to be able to put a Z80 core on an FPGA along with a few peripheral cores and make a machine-on-a-chip that can run your legacy embedded code with little or no change... and at a faster clock rate.
This represents a branch point from the First World industrial paradigm of economy of scale and elimination of manual labor, coupled with planned obsolescence and faddishness to ensure a short interval between new car purchases. An open-source car reverses this drastically. Low economy of scale and higher manual labor content coupled with an open-ended product lifetime shifts the focus from the manufacture of the car to that of its components. The car owner repairs the vehicle over a period of many years, possibly turning over the majority of its components one or more times over a long period of time. Small-scale manufacturers would build a mix of components based on demand for specific versions of a component. Clever management of the project should consciously support this. This business model is unsustainable by massive industrial concerns, but might work well in an economy with lower-skilled, small-scale enterprise. It would not be massively profitable, but may be a model for keeping large populations employed.
If the interconnection ot the automobile's components is carefully and thoughtfully evolved, a single vehicle might be an ever-changing machine, gradually absorbing better components over time. It would not be a static piece of technology that quickly becomes obsolete. This is a subtext of my original post.
Maybe today open hardware is an esoteric industry. But with self-assembling circuits being the way things are heading (What? IBM's announcement of self-assembling FLASH didn't make Slashdot? Shame on the mods.) that'll change. Why? Because the most practical way to make dense circuits will be as an FPGA where the self-assembling units are not FLASH modules but FPGA cells. In effect, all major components become FPGAs.
:v)
But it won't stop there. Turning this new capability to its advantage, it will make sense to re-compile the CPU cores to perform the task at hand with maximum efficiency. If you're going to start doing that, an open design is nigh on essential.
We are rapidly entering an era where it is worth designing things that cannot yet be built, because the manufacturing technology is catching up very rapidly. Even now, Sony are designing their consumer device chipsets as FPGAs to shorten time to market. The trend will not decrease.
Vik
From the SPARC website:
Hell, it doesn't even look like much of an open standard. You need to license the instruction set in order to be able to implement it. This is like saying UNIX is open source, since anyone can implement POSIX and license the UNIX trademark, and because a lot of people have licensed the source code. That's not open source; it may be an open standard (although I'd argue that in order to be an open standard, you can't restrict who implements it with licensing agreements). So really, SPARC is in no way open source, and I wouldn't even consider it an open standard.OpenCores, on the other hand, is really open source. You get the full design of the entire chip; you could just produce the chip by sending the CAD files to a chip fab and having them produce it. All of the Verilog/VHDL/etc. are open and freely available for you to use and modify. Even if you license the SPARC ISA, you still have to design the chip yourself.
Hell, there are plenty of ISA's that you can license. The IA32 architecture is implemented by Intel, AMD, Transmeta, and others. PowerPC is implemented by IBM and Motorola. MIPS chips are produced by lots of people. Open ISA's are a dime a dozen. What's important about OpenCores is that the full chip design is completely open.