What do you do with a Hue smart lightbulb? Well, if you are [Chris Greening], you take it apart and get hacking. If you ever wondered what’s inside, the teardown is pretty good, and you can also watch the video below. The potting compound, however, makes a mess.
Once you get the potting undone, there are three PCBs: an LED carrier, a power supply, and a logic board. The arrangement of the LEDs is a bit confusing, but [Chris] explains it along with providing schematics for all of the boards.
Continue reading “Hacking Hue Lightbulbs”
The ESP32 and ESP8266 spread like wildfire a few years ago due to their small form factor, low price, and wireless capability. They didn’t just take over the DIY scene, though. Plenty of mass market products began to incorporate these tiny chips as well, which means that there are some interesting pre-made devices around that are ripe for modification. In this case, using an off-brand smart light bulb as a base for an semi-proprietary lighting setup.
The lighting in this build is a generic RGB light bulb with the ability to control its color over Wi-Fi. Since it has an ESP8266 chip in it, it can be made to work with Philips Hue lights with some minor modifications, allowing a much wider range of control than otherwise available. For this one, [Vadim] needed to pry open the bulb case to access the chip, then solder wires to it for reprogramming. It needed power during this step which meant plugging the resulting mess of wires back into a lamp socket, but after this step the new programming allows the bulb to be reprogrammed remotely.
After that step is complete, though, the generic bulb is ready for its inclusion into a Hue lighting system. In this case, [Vadim] is using diyHue, a Hue emulator that allows control of the bulbs without needing to use any cloud services, running on a BeagleBone. It’s a fairly comprehensive way of adding many different types and brands of bulbs to one system, and avoids any subscription models or the use of a cloud service, which is always something we can get behind.
Continue reading “Modifying Lights For DIY Ambiance”
Roku TVs are interesting beasts, which use automatic content recognition on whatever you happen to be watching in order to market online streaming services direct to your loungeroom. [Ammar Askar] realised that this technology could instead be used to feed data to a computer to run a Philips Ambilight setup natively from whatever the TV displays.
The core of the hack came about because [Ammar’s] TV doesn’t work natively with Philips Ambilight technology. Most off-the-shelf solutions involve feeding sources, like Chromecasts or game consoles, to a HDMI splitter and then to a PC running the Ambilight software, but it gets messy real quick. Instead, [Ammar] realised that the Roku-enabled TV should be more than capable of working with the Ambilight system, given the capability of its inbuilt hardware.
The hack consists of a custom app running on the Roku hardware, which uses the in-built Roku libraries to capture frames of whatever is being displayed on the TV. It then breaks up the screen into sections and averages the color in each area. This data is then passed to a laptop, which displays the relevant colors on its own screen, where the standard Philips Hue Sync app handles the Ambilight duties.
It’s a great hack and [Ammar] doesn’t skimp on the granular fine details of what it took to get this custom code running on the Roku TV. We’d love to see more hacks of this calibre done on smart TVs; after all, there’s plenty of horsepower under the hood in many cases. Alternatively, you could always follow the CIA’s example and turn your Samsung TV into a covert listening device. Video after the break.
Continue reading “Roku TV Hacked To Run Philips Ambilight Setup”
With an ever-growing range of smart-home products available, all with their own hubs, protocols, and APIs, we see a lot of DIY projects (and commercial offerings too) which aim to provide a “single universal interface” to different devices and services. Usually, these projects allow you to control your home using a list of devices, or sometimes a 2D floor plan. [Wassim]’s project aims to take the first steps in providing a 3D interface, by creating an interactive smart-home controller in the browser.
Note: this isn’t just a rendered image of a 3D scene which is static; this is an interactive 3D model which can be orbited and inspected, showing information on lights, heaters, and windows. The project is well documented, and the code can be found on GitHub. The tech works by taking 3D models and animations made in Blender, exporting them using the .glTF format, then visualising them in the browser using three.js. This can then talk to Hue bulbs, power meters, or whatever other devices are required. The technical notes on this project may well be useful for others wanting to use the Blender to three.js/browser workflow, and include a number of interesting demos of isolated small key concepts for the project.
We notice that all the meshes created in Blender are very low-poly; is it possible to easily add subdivision surface modifiers or is it the vertex count deliberately kept low for performance reasons?
This isn’t our first unique home automation interface, we’ve previously written about shAIdes, a pair of AI-enabled glasses that allow you to control your devices just by looking at them. And if you want to roll your own home automation setup, we have plenty of resources. The Hack My House series contains valuable information on using Raspberry Pis in this context, we’ve got information on picking the right sensors, and even enlisting old routers for the cause.
The Internet of Things is eating the world alive, and we can’t buy incandescent light bulbs anymore. This means the Internet is now in light bulbs, and with that comes some special powers. You can turn lights on and off from a botnet. You can change the colors. This is the idea for the Philips Hue system, which is well respected among people who like putting their lights on the Internet. There are other brands — and you can make your own — but the Hue system does work pretty well.
This is what led [Marius] to create software to interface various electronics with the Hue system. It’s a project called diyHue, and already there’s a vibrant community of devs creating their own smart lights and connecting them to the Internet.
The software for this project is built in Python, and is designed to run on certain single board computers. This allows the SBC to connect to the Hue bridge so Hue bulbs can be controlled, a MiLight hub so MiLight bulbs can be controlled, or, with the addition of a ZigBee radio, all those ZigBee devices can be controlled. Right now the only thing that doesn’t work is Google Home because it requires a remote API, the Home & Away feature from the Hue app (again, remote API), and the Eneco Toon.
There really are a fantastic number of devices this software works with, and if you’re building out your Internet-connected home lighting solution, this is one piece of software you need to check out. Thanks to [cheesemarathon] for bringing our attention to this. He also liked it so much he’s now contributing to the GitHub. Very cool.
The Philips Hue range is a great way to add wirelessly controllable lighting to your home, but the protocol is proprietary which makes it difficult to add our own custom hardware. [Peter] found a way to create his own Hue compatible devices based on cheap JN5168 modules that are able to connect to the Hue bridge. This means you can roll out your own lamps using cheap RGB or White LEDs, a power supply and the JN5168 Zigbee Light Link module.
He started off by trying to clone a Zigbee Light Link device to a MeshBee — Seeed studio’s open source Zigbee Pro module based on the NXP JN5168. Even though the MeshBee used the same device as a Hue lamp, it would not connect to the Hue bridge. But another clone lamp called Innr that he purchased from the local hardware store did connect quite easily. Using NXP’s open source tools, he was able to download the flash and EEPROM contents from the Innr and copy them to the MeshBee which did the trick.
After the EEPROM transfer trick, he figured out how to modify the two keys used for the ZigBee protocol — one for Home Automation and the other for the Light Link. With this final discovery he is able to take the ZigBee Light Link demo project, edit it using Beyond Studio, and then load the binaries on the MeshBee device so it can connect to the Hue bridge.
All of this work culminates in two custom firmware binaries; one for white dimmable lights and another for RGB dimmable ones. It even runs on these cheap JN5168 breakout kits he found for a few bucks. With all of the software taken care of, and having cheap ZigBee Light Link compatible modules on hand, building low cost Hue compatible lights becomes pretty straight forward.
Thanks [wind-rider] for the tip.
After getting his hands on the Philips Hue smart lightbulb [Brandon Evans] cracked open some of the hardware to see what is inside. He also spent time working out the software tricks necessary to use Siri to control light bulbs from iOS.
If you haven’t heard of the Hue product before it’s an LED bulb that fits in a standard medium base whose color and intensity can be controlled wirelessly. Included in each unit is Zigbee compatible hardware that lets the bulbs form their own mesh network. [Brandon] didn’t crack open the bulb since these things cost a pretty penny and disassembly requires cutting. But he did point us to this post where [Michael Herf] shows what the bulb’s case is hiding. We do get to see the other piece of the puzzle as [Brandon] exposes the internals on the base unit that bridges the mesh network to your home network via Ethernet. An STM32 chip is responsible for controlling the base unit.
Aside from a look at the guts [Brandon] hacked Siri (Apple’s voice activated virtual assistant) to control the system. You can see a demonstration of that in the clip after the break. The details are found in the second half of his post which is linked at the top. The code is found in his siriproxy-hue repository.
Continue reading “Giving Siri Control Of Some Smart Bulbs”