Light-emitting diodes(LEDs) are semiconductor devices that produce light when an electric current is passed through them, an effect known as electroluminescence. Unlike incandescent lightbulbs, which generate light by heating a filament, LEDs convert electrical energy directly into photons, making them compact, durable, fast-switching and highly energy-efficient. Electroluminescence was observed in semiconductors in the early 20th century, but the first practical visible LED appeared in 1962. Early devices were dim and mostly red, serving as indicator lights. The key breakthrough came with efficient blue LEDs in the late 1980s and early 1990s, which made practical white LED lighting possible and later earned their developers the 2014 Nobel Prize in Physics. Modern LEDs span ultraviolet, visible and infrared wavelengths and range from microscopic emitters to multi-kilowatt lighting systems. Their applications include domestic and architectural lighting, vehicle lamps, displays, telecommunications, remote controls, machine vision, horticultural grow lights, medical instrumentation and increasingly sophisticated consumer products. Individually addressable RGB and RGBW LEDs have enabled programmable smart-lighting systems and decorative light strips, while high-CRI LED panels have become standard equipment for photography, video production and streaming. LEDs are also used in products marketed for more specialized purposes. High-output red and near-infrared arrays are sold for photobiomodulation or "red-light therapy", including large wall panels and wearable facial masks, while narrow-spectrum LED grow lamps are widely promoted for indoor cultivation. Premium flashlights, headlamps, automotive retrofit lamps and portable video lights exploit modern high-efficiency emitters to produce outputs that would have required substantially larger electrical systems only a few decades ago. Ongoing advances in microLEDs, phosphors and semiconductor materials continue to improve efficiency, brightness and spectral control, extending LEDs into next-generation displays, precision lighting and compact optical systems. [3D model credit] Farm House by MaX3Dd ESP32 WROOM 32 - Low Poly Photorealistic by wojteX Camera CANON EOS 400D by Santiago Stylized Game Boy - Low poly by Coozy 5" Tri-Blade Propeller Avatar of thevan by The Van
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I can confirm that was a wild night.
I miss the old steam powered LEDs. Sure, they were a little tough to start when it was cold, but anyone could fix them at home with just a few very tiny tools.
Another video for the electronic DIY fans! Comment video ideas!!!!!👇👇👇🚨🚥💡
1:58 the class 0.001 second after the teacher left:
This video was made just for the LED rave and nothing else. I love it. Seriously though, i like how these things are just generic insects that can be found on farms or something. Very fun and cool
I need the rave song 1:41
Can I join that absolute rave?
Watch the rave scene again 2:01 at 0.25 speed, mesmerizing. And if you look closely you can see the dude genuinely animated the final scene as a real video screen array! 🤯
something about seeing all those little dudes heading out for an adventure makes me smile
LEDs (Diodus lux) have a symbiotic relationship with cameras (Cubus photographus).
THE LED DANCE PARTY CONTINUES
As a lighting technician, I can confirm.
Figures I see this right after wiki diving into All Tommarows
This is what I'll write for my basic electronics test of my college.
Very educational.
They looke like Tripod lol
Whats the song used in the rave?
The NE555 timer is one of the most crucial parts of the party, it creates the beats. Without it, the motors and leds will be bored and sad
how an radioisotope thermoelectric generator works would really be a good one. wonder how the radiation would work with the organic kind of thing
555 always keeping the beat, and I do believe we have all been stickbugged.