The Story of Indium Tin Oxide: The Most Important Material You've Never Heard of

The story and science behind one of the most important materials in modern electronics. What makes ITO essential? How does it get its unique properties? In what applications is it commonly used?
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[@DBuilder1977]

BEST explanation of why ITO is conductive I've heard thus far. Man you are awesome, thanks for the video.

[@Tabak-ck8gf]

This is by far the best explanation of semiconductors

[@alonsobarba6795]

An amazing explanation with great sense of humor. Thanks for posting this!

[@robinrice5331]

excellent video, very succinct explanation of band gaps and transparency

[@lorriecarrel9962]

I absolutely love this type content and you are doing a incredible job making it.

[@jakobriedel3725]

Probably the best KZbin channel you never heard of!

[@yura2424]

Very well explained. Thank you for posting this!

[@forthebirds4]

I just came here after watching the new "temporal double slit experiment" using ITO and wanted to know more about it, that was a fantastic explanation, subscribed!

[@jordanrathbone76]

Fantastic video, thanks for making it!

[@oliver6061]

Respect your efforts in making and putting this video up. Very well done. I came from researching LED manufacturing process, and I then look for more info on ITO material. This video explaining ITO material just hit every question I have in mind. I definitely have learned what is ITO well from this video. The energy band gap explanation is pretty neat. Truly science and material discussion here. An extension to talk about material substitution is also thoughtful part. Thanks. Keep it up. 😊👍💯🌟👌🚦

[@hakandede8588]

Very good, keep up the good work

[@jacoblpeterson]

AMAZING video! Excellent explanations, animations, and background information. Thank you so much!

[@mohammadnasirinezhad7627]

Thank you for your great video

[@adelallal1419]

excellent explanation, Thank you

[@bahaahenou]

Great and very well explained. Thanks alot

[@msanikantaprawira3109]

what a great explanation, huge thanks for educating me about this

[@killmeromantically7242]

good job, you explained it very well, thank you

[@yanweihe3906]

Nice work! Deserve more subscribes and likes!

[@eriktempelman2097]

Well done. Thanks!

[@AndrewManko]

Very informative, thank you very much

[@SathyaSankar]

Great video! I wonder why it has not reached even 1k views!

[@furkansahin3772]

Great video!!!

[@OrdinaryVin-pc5dq]

Fantastic explanation on the conductivity principles of ITO! Mind sharing the source or references for some of your data? such as the comparison of ITO conductivity with other metals. Much appreciated!

[@MrMishra814]

Love it. Keep these videos coming!

[@Ron_Bessler]

WOW!!!!! AMazing video!!!

[@tanveersingh8290]

Love this video man really informative.Keep making videos like this and your channel will reach a new horizon very soon.

[@user-ti9pp6fi4k]

This video is great, quite informative and interesting! Thanks a lot!

[@sollinw]

GREAT!!!!

[@IrfanKhan-ys9he]

wow! Great video! Keep it up! :)

[@jp003456]

Amazing explanation. Thank you!

[@franciscos.9237]

Im going to share this video

[@sauravti]

Awesomeeeeeeeeeeeeeeeeeeeeee

[@mherna4115]

Not sure if this is an accurate definition of the fermi level in semiconductors. I might be wrong though. Can anyone explain this to me in a slightly different way? everything else was amazing though!

[@rossfriedman6570]

What's the difference between an orbital and a band?

[@thematsciguy6254]

That’s a great question! In discrete molecules where there is no long range order it makes sense to think about energy levels in terms of individual orbitals. You will often hear organic semiconductors described with terms LUMO (lowest unoccupied molecular orbital) and HOMO (highest occupied molecular orbital) because when excited by light this is the relevant transition. In crystalline semiconductors, electrons are in a periodic lattice with a large number of hybridized orbitals. The allowed energy states are so numerous and close together that they form an energy ‘band’ where and electron can essentially occupy any energy level within it.

[@jigar014]

Need all these video in Hindi Language, plz

[@incomplete_machine]

it is all too sad that this is not the most watched video on youtube.

[@talkshowlivehost3476]

f22 use ITO for its stealth

[@kenhtonghop1911]

Hello you. I have indium pure quantity 26 kg

[@peterl6417]

Nanoweb®️ from Metamaterials Inc can solve the ITO problem 👍

[@user-youzer]

FTO and AZO watching on sunset of ITO glory >:))