The great irony of the social media revolution is that it’s not very social at all. Users browse through people’s pictures in the middle of the night while laying in bed, and tap out their approval with all the emotion of clearing their spam folder. Many boast of hundreds or thousands of “friends”, but if push came to shove, they probably couldn’t remember when they had last seen even a fraction of those people in the real world. Assuming they’ve even met them before in the first place. It’s the dystopian future we were all warned about, albeit a lot more colorful than we expected.
But what if we took social media tropes like “Likes” and “Follows”, and applied them to the real world? That’s precisely what [Tuang] set out to do with the “Social Touch Suit”, a piece of wearable technology which requires a person actually make physical contact with the wearer to perform social engagements. There’s even a hefty dose of RGB LEDs to recreate the flashy and colorful experience of today’s social media services.
Every social action requires that a specific and deliberate physical interaction be performed, which have largely been designed to mimic normal human contact. A pat on the shoulder signifies you want to follow the wearer, and adding them as a friend is as easy as giving a firm handshake. These interactions bring more weight to the decisions users make. For example, if somebody wants to remove you as a friend, they’ll need to muster up the courage to look you in the eye while they hit the button on your chest.
The jacket uses an Arduino to handle the low level functions, and a Raspberry Pi to not only provide the slick visuals of the touch screen display, but record video from the front and rear integrated cameras. That way you’ve even got video of the person who liked or disliked you. As you might expect, there’s a considerable energy requirement for this much hardware, but with a 5200 mAh LiPo battery in the pocket [Tuang] says she’s able to get a run time of 3 to 4 hours.
Considering how much gadgetry is packed into it, the whole thing looks remarkably wearable. We wouldn’t say it’s a practical piece of outerwear when fully decked out, but most of the electronic components can be removed if you feel like going low-key. [Tuang] also points out that for a garment to be functional it really needs to be washable as well, so being able to easily strip off the sensitive components was always an important part of the design in her mind.
The technology to sensors wearable and flexible is still largely in its infancy, but we’ve very excited to see where it goes. If projects like these inspire you, be sure to check out the presentation [Kitty Yeung] gave at the Hackaday Supercon where she talks about her vision for bespoke wearable technology. Continue reading “Social Media Jacket Puts Your Likes On Your Sleeve”
Typically when we hear the words “LED” and “Cube”, we think of small blinking devices on protoboard designed to flex one’s programming and soldering skills. However, while [Heliox]’s Cube Infini could be described as “a cube of LEDs”, it’s rather a different beast (video in French, subtitles available).
The cube starts with a 3D printed frame, designed in Fusion 360. The devil really is in the details — [Heliox] puts in nice touches, such as the artistic cube relief on the base, and the smart integrated cable management in the edges. The faces of the cube are plexiglass sheets, covered with a one-way reflective film that is applied in a similar manner to automotive window tint. For lighting, a high-density LED strip is fitted to the inside edges, chosen for maximum visual effect. It’s controlled by an IR remote and a cheap control module from Amazon.
While the build contains no particularly advanced tools, materials, or techniques, the final result is absolutely stunning. It’s a piece we’d love to have as a lamp in a stylish loungeroom or study. [Heliox] does a great job of explaining how the cube is designed and fits together, and it’s a testament to just what can be achieved with a little ingenuity and hard work.
Once you’re done here, check out this ping-pong based build.
Continue reading “Infinity Cube Is Gorgeous Yet Simple”
How often do you find yourself having to pause a project to make a test circuit or write some test code to find the source of a problem? Do enough variations of the same test and you’ll eventually make a dedicated test tool. That’s just what [Devon Bray] found himself doing.
[Devon] does a lot of work with addressable LEDs of different types and after much experience, created the BlinkBox, a dedicated test tool for addressable LEDs. It supports multiple LED chipsets, you can give it a count of the LEDs you want to light up, and you can choose a test animation. It even writes your settings to an EEPROM so you that don’t have to repeat yourself when you next turn it on.
He’s also done a very nice job packaging it all up, creating a 3D printed case, using backlit buttons for working in the dark, and even added a contrast knob for the LCD screen. Kudos to him for all the effort he’s put making this polished. Everything you need to duplicate it is available on his webpage, along with the schematic for the curious. Watch it in action, or just admire his handiwork in the video below.
Continue reading “BlinkBox: Debugging Tool For Addressable LEDs”
When [Felix Rusu], maker of the popular Moteino boards which started life as wireless Arduino compatibles, says he’s made a wireless ring light for his SMD microscope, we redirect our keystrokes to have a look. Of course, it’s a bit of wordplay on his part. What he’s done is made a new ring light which uses a battery instead of having annoying wires go to a wall wart. That’s important for someone who spends so much time hunched over the microscope. Oh, and he’s built the ring light on a rather nice looking SMD board.
The board offers a few power configurations. Normally he powers it from a 1650 mAh LiPo battery attached to the rear of his microscope. The battery can be charged using USB or through a DC jack for which there’s a place on the board, though he hasn’t soldered one on yet. In a pinch, he can instead power the light from the USB or the DC jack, but so far he’s getting over 6 hours on a single charge, good enough for an SMD session.
The video below shows his SMD board manufacturing process, from drawing up the board in Eagle, laser cutting holes for a stencil, pasting, populating the board, and doing the reflow, along with all sorts of tips along the way. Check it out, it makes for enjoyable viewing.
Here’s another microscope ring light with selectable lighting patterns for getting rid of those pesky shadows. What features would make your SMD sessions go a little easier?
Continue reading “Wireless Ring Light For SMD Microscope”
Just in case you thought your eyes were playing tricks on you, we’d like to confirm right from the start that what you are looking at is a loaf of bread with internal LED lighting. Why has this bread been internally lit? We can’t really say. But what we can do is pass on the fascinating process that took an unremarkable piece of stale bread and turned it into an exceptional piece of stale bread.
As demonstrated by [The Maker Monster], working with stale bread is basically like working with wood. Wood that you can dip in soup, granted, but wood nonetheless. The process of electrifying the loaf starts with cutting it down the length on a bandsaw, and then hollowing it out with a rotary tool. This creates a fairly translucent shell that’s basically just crust.
You’re probably wondering how you keep a bread-light from getting moldy, and thankfully [The Maker Monster] does address that issue. The bread shell is completely coated with shellac, which creates a hard protective layer that will not only prevent decay but should give it some added strength. In the video it looks like only one coat is applied, but if we had to guess, a few coats would be necessary to really seal it up. Coating it with epoxy wouldn’t be a terrible idea either.
While the shellac dries on the bread, he gets to work on the lighted base (bet you never imagined you’d read a sentence like that), which is really just a sanded piece of wood with a standard LED strip stuck too it. It’s very understated, but of course the glowing loaf really draws the eye anyway. All that’s left is to glue the bread down to the base, and proudly display your creation at your next dinner party.
We can’t say that an electric ciabatta is in the cards for Hackaday HQ; but we know that baking good bread is a science in itself, and turning the failed attempts into works of art does have a certain appeal to it.
Continue reading “Illuminated Bread for a Cookie Cutter World”
We’ve said it a million times before: 3D printing will expand your horizons. The more you print, the more you think about things you could print and new ways to use printing in the process of building projects. [AHNT] knows all about this phenomenon, because he thought of a way to use soda cans as canvases for customizable pixel art lamp shades.
[AHNT] designed a printable sleeve that fits perfectly over 250mL cans. It provides a sturdy grid for poking tiny holes with a medical needle, and can be reused indefinitely with any pattern imaginable. He created two different printable bases to illuminate the lamp: one is sized to hold a votive candle, and the other is made for an LED strip circuit with a rocker switch and 12 VDC barrel jack. We suppose it wouldn’t take much to use an RGB LED instead—a Trinket or a Gemma would surely fit in the base.
In the video after the break, [AHNT] talks about prepping the can by cleanly removing the lid, which he does by filing the top edge until the layers separate. He also discusses a few methods for removing the paint, and notes that sandblasting worked the best.
Don’t need another lamp? There’s a million things you can do with that empty soda can. You could make a theremin, or a battery, or even a treasure box. Cut it open and make a solder stencil. Or do something else entirely, and send us a tip.
Continue reading “Soda Can Lamp Pinpoints Your Interests”
A light arch is exactly what it sounds like: an arch fitted with LED strips that can evenly illuminate the area below. They are becoming very popular in the miniature and model making communities as they put a lot of light where you need it without the shadows that you can get with purely overhead lighting. Those same characteristics make it excellent for electronics work as well, so while we haven’t seen many light arches come our way yet, we expect it won’t be long before they start tricking in.
[Spencer Owen] recently wrote in to tell us about his LED light arch that’s exceptionally easy and cheap to build. Whatever excuse you had before about not trying a light arch over your bench is probably out the window once you check this build out.
The heart of the arch is a length of plastic tile edging, which you can pick up from any big box home improvement store. LED strips are then attached to the inside face of the tile edging, and a suitable power supply wired into one end. [Spencer] mentions he’s strategically wrapped some sections of the arch with a diffuser, which may or may not be necessary for your particular application.
At this point the astute reader may have realized that this doesn’t make an arch, and would just give you a floppy light stick thing. Right you are. The real magic of this design are the 3D printed anchors. All you need to do is bend the tile edging, insert the ends in the anchors, and you’ve got a perfectly formed arch.
The hole in the anchor matches the profile of the tile edging closely, though might need to be adjusted to match a different brand of edging from what [Spencer] has. The tension of the plastic will be enough to hold the arch up without the need for glue or fasteners. As an added bonus, the arch can be taken down by just pulling the edging out and letting it return to its original shape.
Using your newly arisen arch to light up the bench is all well and good, but why stop there? Why not use it as clock, or to play a dungeon crawler?
Continue reading “Workbench Light Arch on the Cheap”