Wifi Lighting

Find and compare the top Wifi Light Control Solutions. Free guide to remotely control your home and outdoor lighting from your iPhone and Android device.

The following Channel Guide will help you:

  • Filter bulb based on useage type - Outdoor/Garden, Aquarium, LED Color Strip, etc
  • Get app reviews, and see if the bulb or socket can work with your Android or iOS phone, or existing home automation platform.
  • Filter based on price, monthly fees, or home hub requirements and integration's.

There are two types of Wi-Fi Lighting you might be looking for:

  1. IP enabled lights that you can monitor, manage and control from any internet-enabled device. ([email protected], etc)
  2. LED lights that are able to send data using Visible Light Communications (VLC) technology.
In this resource article we will cover both types of wireless light bulbs.

Wifi and Bluetooth Smarth Bulbs



  • Control your lights with your Apple Watch or Android Wear.
  • Works with Nest, SmartThings, Harmony, Scout Alarm & Flic.
  • WiFi Connectivity and Daily Schedules

Pricing & reviews




User & Technical

Phillips Hue

"Turn on Living"


  • Light schedules
  • Apple HomeKit compatible
  • Requires Bridge -- Philips Hue system supports up to 50 Philips Hue lights, luminaires, switches and other accessories.

Pricing & reviews




User & Technical

Flux Bluetooth Bulb


  • Music sync and custom mode and scenes
  • Bluetooth Connectivity
  • Comes with 20 preset modes like cross fades, strobes etc.

Pricing & reviews




User & Technical


Visible Light Communications

byte-light-largeImage: Bytelight

Visible frequencies generated by LED lights are being touted by researchers (See the history of the idea below) as a way to transmit data and supplement our exisiting information networks. Fluctuations of a bulb in a pattern that are imperceptible to the human eye, can be used to generate data transmission at average speeds of 10 megabits per second (and have been shown capable of reaching 100-500 Mbps).

Applications of the technology have the most potential where wireless transmissions cannot currently be used. Immediate benefits could be seen in hospitals, airplanes, hazardous environments, underwater operations, and in the military where the use of the light would enable activity that does not compromise safety and security standards.

The technology is also shown to be applicable for indoor GPS and in car-to-car communication from headlights and street lights to manage traffic flows and overt accidents.

A potential downside to this technology is its need to have line-of-site visiblity in order to work. This restriction can be reframed as a security benefit as the data cannot breach walls like typical Wi-Fi can.

Harald Haas, one of the professors working on this technology, gave a presentation at TEDGlobal in July 2011 talking about potential uses and demonstrating the technology sending video.

Thinking of outfitting your own home with these data lightbulbs? Advances will need to be made in Power Line Communications (PLC) technology in order to enable you to use existing home power lighting cables to carry the data. There will also need to be advances in the capacity to upload data through that same connection.

In most cases VLC is subject to regulation by a noncommunication standards (Ex: eye-safety standard, illumination regulation, automotive standards in the case of traffic signals). This presents challenges working across regulatory bodies and frameworks which most other communication standards do not have to do.

Line-of-site Limitations
Since this is a requirement it brings with it certain benefits (mainly security) and restraints like having interferance from atmospheric conditions like fog, rain, etc.

Speed Limitations:
The data transfer rate for LED transceivers is limited to 622 Mbit/s. Due to the characteristic switch hysteresis.

Companies in the industry:

lvx-system-vlc-lightbulb labratories
LVX System
Nakagawa Laboratories

VLC Research

Northumbria University, Fraunhofer Heinrich Hertz Institute for Telecommunications, Siemens AG, Boston University, University of California.


This concept of Visible Light Communications dates back to 1880 in connection to Alexander Graham Bell. Here is a brief history that begins with Bell's idea and follows through to the most recent discoveries and innovations.

phonophone 1880: The first VLC transmission (which was also the first wireless transmission in the world) was sent in Washington D.C. on 3 June 1880 by Dr. Alexander Graham Bell and his assistant Charles Sumner Tainter. They used a system they called the Photophone which transmitted speech on modulated sunlight over several hundred meters. This demonstration pre-dates the transmission of speech via radio and Bell is said to have stated it was his greatest achievement, surpassing even the telephone in terms of importance.
1931: Dr. Sergius P. Grace, of the US Bell Telephone Laboratories, discusses the potential for using light for wireless communications to prevent the danger of eavesdropping by others.
Image Soure: Radio Museum
1955 The first visible light wireless remote control is made by Zenith and called the Flash-Matic Remote Control. This system used photoelectric cells in the four corners of the screen to control on/off,mute and channel selection. The Flash-matic had problems working well on sunny days, because sunlight often changed the channels at random. One year later, ultrasound technology was used to replace the light system to eliminate this flaw in the operation.
vlcc1 2003: The Visible Light Communications Consortium (VLCC) is established between major Japanese companies to develop, plan, research and standardise Japan’s own visible light communication systems.
Image Source: Twibright
2006: RONJA The Reasonable Optical Near Joint Access (RONJA) Free Space Optics device developed in the Czech Republic can transmit data wirelessly using beams of red visible light up to 0.87 miles (1.4 kilometres), or infrared light up to 1.25 miles (0.78 kilometres).
2009: A result of the joint cooperative agreement between VLCC and the IrDA, the VLCC issues their first Specification Standard.
ieee-802.157 2009: IEEE 802.15 TG7 Task Group seven was chartered to write standards for free-space optical communication using visible light.
university-vlc-lightbulbs 2011: 100Mbit/s data rate was achieved from a standard low-cost LED light bulb by researchers on the D-Light project at the University of Edinburgh


If you are interested in learning more about VLC technology and applications below is a list of videos and resources for your viewing pleasure.

VLC Videos:

In the Media:

New Scientist: Will Li-Fi be the new Wi-Fi?
NYTimes: Using Light to Send Data Across the Room
The Engineer: Light reading: visible light communications
Good: Forget WiFi, Connect to the Internet Through Lightbulbs
MIT Sloan: Harald Haas’s Li-Fi Vision: Light Bulbs That Transmit Data
EE Times: Visible light illuminates a new approach for wireless comms

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