The first month of [WoolyDawg5’s] summer break went into building one Nintendo emulator to rule them all. He thinks there’s nothing like playing the games on the original controllers, and we agree with him 100%. Here you can see that the cartridge door on this NES enclosure hides the extra connectors he needs.
With that door closed this looks like a stock console, but only from the front. If you take a look at the back of it you’ll see how he pulled this off. There’s a Zotac motherboard whose I/O panel has been fitted into the back. It’s responsible for emulating games for the NES, SNES, and GameCube consoles — we’re sure it can do more but that covers the controller ports seen here. Each port is wired to a USB controller module. The cables for these modules exit the back of the case and plug into the motherboard’s I/O panel. There is WiFi for the board, and that’s what [WoolyDawg] uses for configuration, tunneling into the OS instead of connecting a keyboard or mouse.
Of course you could just shoehorn all-original console hardware into one package to accomplish something like this.
One of the really cool things about the Nintendo Wii when it was first introduced was the ability to play GameCube games on it. This made it a no-brainer for a lot of folks to upgrade. But as the heyday of legacy systems fades into history, Nintendo decided this was no longer a selling point and stopped populating those components. The good new is, if you don’t mind a lot of PCB soldering you can add your GameCube bits to a modern Wii motherboard.
[Deadlyfoez] launched a raffle to raise enough money to buy a new version of the hardware (we guess the raffle prize is the modded console). He then proceeded to solder on four GameCube controller ports and a memory card reader. There are also a number of passive surface mount components that need to be added. But as the video after the break shows, once in place the functionality reappears on the software side.
Continue reading “Grab your iron and add GameCube back to the Wii”
Tim wrote in to tell us about this simple hack where he replaced the stock button lights with some really cool Blue LEDS on an ’87 BMW. He uses some capacitors, to achieve the effect that it takes a bit for the charge to drain out so the lights stay on for a bit after being turned off. The lights themselves look really nice, so check out the pic.
Here’s an awesome coffee Table built using a large electrical board. It definitely would look good in anyone’s den, although it most likely has a low wife approval factor (WAF). This is actually based on a “motherboard wall that HAD covered before, but the “coffee table” form probably looks even better.
Finally, after the break is a video of someone washing an interactive art exhibit. Not sure if it qualifies as a hack, but it looks pretty cool to see lights following someone around when he’s washing the screen/window.
Continue reading “Hackaday Links: Monday June 13”
SLI, for those who don’t know, is the process of taking two Nvidia graphics cards and allowing them to work in parallel to render to a single monitor. In theory this doubles the power, getting more FPS for video games. Great right? Except due to encryption, only a limited amount of motherboards can actually support SLI.
That is, until now. Russian hackers at xDevs discovered that the newer encryption is based around string identifiers. This can be modified within the operating system itself, so in theory any motherboard could work. Be wary, this could brick your system; but if successful, you’ll have more power without shelling out for an officially SLI supported motherboard.
When the RepRap team found themselves pushing the limits of the Arduino, they started looking for alternatives. They found it in the ATMega644P. It has four times the memory and four times the RAM compared to the ATMega168 used in the standard Arduino. It also has 32 I/O pins. They ported the Arduino software to the microcontroller and started producing Sanguino boards. Now that the base design is nailed down, they’ve begun expanding it to their specific purpose. Pictured above is a prototype RepRap motherboard. While the Sanguino is barebones, this board has onboard connectors for all of the RepRap’s motors, so you can just plug it in. It is also designed to support the future Generation 3 electronics. Probably the most interesting feature is the SD card slot. The goal is to eventually have a board that can run the RepRap without a host computer if necessary; it will manufacture designs directly from the flash card.