Saffron’s Drift Light is here to help. The Drift Light is like a normalAmanda Kooser reviewed the Drift Light earlier in the month. Kooser reports that during the first night, she was highly aware of the way the light was dimming, but during the next few nights, she never caught the light turning off because she was already asleep. As somone who claims to have “notorious” sleeping troubles, this would imply that the Drift Light works pretty well.

Kooser says that since you know the LED light bulb will dim over the course of 37 minutes, it’s easy to plan for the light to turn off around the time you want to fall asleep. The most compelling statement Kooser makes about the Drift Light: “There is something soothing about the world dimming around you. It’s like being a kid with an early bedtime, sensing the sun set outside your window.”

I’m interested to see if this product will become popular. Have you ever tried anything like this to improve your sleeping habits? Leave a comment, and let us know!

Super Bright LEDs employs skilled engineers and experts to test LED lights before they’re sold. Our in-house test lab is stocked with numerous pieces of equipment that provide important specifications about each product, such as brightness, color temperature, and operating temperature. Testing methods include the use of integrating spheres, spectrometers, Forward-Looking Infrared (FLIR) cameras, and an environmental chamber. In addition to this equipment, our technicians perform burn-in tests and durability tests that can last anywhere from two weeks to several months.

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Our state-of-the-art environmental testing chamber utilizes a 30-cubic-foot enclosure to reproduce the full ranges of temperature and relative humidity found within commercial and industrial LED lighting applications. Data collection (photometric & electrical) occurs while a device-under-test cycles through specified environmental extremes. Chamber temperature ranges from negative 35° C (negative 31° F)  to 200° C (392° F), and humidity ranges from 10 to 95 percent.

To ensure that our products will perform under normal and extreme conditions—and to have a little fun—our technicians put them through a round of applicable tests. A selection of LED lights is time tested in the environment that each product is designed for. For example, waterproof boat lights are submerged in water, and weather-resistant landscape lights are installed outside. Depending on the type of product and its impact/weather rating, our technicians might drop, run over, freeze, burn, or even saw it in half to test the product’s durability.

“No two snowflakes are alike.” This is a statement nearly every schoolchild has heard at least once, either while crafting unique snowflakes with a sheet of folded paper and some scissors or while learning a lesson on the science of snow. While even most scientists don’t quite understand what causes a snowflake to form such complex and beautiful columns and points and branches, one thing is for certain, the composition of snowflakes guarantees that no two will ever be identical.  However, it is possible for two snowflakes to appear to be nearly exactly alike.

A snowflake begins to form when a piece of dust catches water vapor out of the air. Water is created when two hydrogen molecules attach to an oxygen molecule. The two hydrogen molecules are angled from one another in such a way that they form a hexagonal shape when they come together during the freezing process; thus, a snowflake begins as a simple hexagonal shape or as layers of hexagons called diamond dust. The emergent properties that follow from the original hexagon are what differentiate one snowflake from another, as the humidity, the temperature in the air, and many other factors (some of which remain unclear to scientists) allow each snowflake to form in an entirely unique way with a seemingly endless variety of shapes.

However, in 1988, a scientist named Nancy Knight claimed to have located two that were the same while studying snowflakes as part of an atmospheric research project. And it appeared to be so; when put under a microscope, the emergent properties looked nearly identical. But while it is feasible that two snowflakes can appear to be exactly alike on the outside, they are never identical on an atomic level. Deuterium is an atom that appears attached to about one in every 3000 hydrogen molecules in the air. Because there are millions of atoms that make up a snowflake, the random assortment of deuterium in any two snowflakes—even in two that so very closely resemble one another—simply cannot be the same.