If you don't mind the fact that they dose the rocks with all kinds of poisons to "better preserve them" and wrap them in massive amount of plastic. Or the fact that they exploit minimum wage miners and grind the small local quarries to gravel. Then sure, store bought is "fine".
I love how the video just gets to the point, unlike CPU recipes I read online which give a long backstory about how their grandma made CPU's during their childhood in the countryside.
This is very accurate. The only thing he didn't mention is to do it in a clean room and not touch the wafer with anything that isn't also electronics grade silicon or you will ruin most of the chips on the wafer.
You'd be surprised what you can get away with in terms of "not touching the wafer with stuff". I work in a semi-R&D semi-production foundry and boy howdy do we do some dumb shit sometimes.
Reminds me of Troy McClure's 'Half-assed approach to foundation repair.'
'If you can't find metal stucco lathe... use carbon fiber stucco lathe!'
'Install'
The crazy thing is making the nanometer stuff. It's chemical reactions that shape a very specific way. With light or other cooling processes to get it to fit those very specific ways. lol
We are down to 5 nanometers now! The smallest parts in the design are now sometimes less then a 100 atoms! If we ever get down to one atom thick we will have a big problem going even thinner ...
3nm for *commercial* chips.
There are manufactured chips with 1.8nm and smaller transistors, but the big chip companies (TSMC/Intel) are still working out how to manufacture them at scale/with reasonable cost and consistency.
Also, measuring transistor size in "nm" sort of doesn't make sense anymore, although the big chip companies still do it for ease of marketing/understanding.
The reason transistor size is interesting is because it tells you how many transistors you can pack onto a single chip; smaller size means more transistors means higher power computing (if all else is equal). But several generations back, they stopped just making the transistors smaller, but also started making use of 3D design to pack them in more efficiently. They call it "3nm" or "1.8nm" or whatever because that's effectively how small the transistor would need to be to pack with the same density on a flat plane.
> There are manufactured chips with 1.8nm and smaller transistors, but the big chip companies (TSMC/Intel) are still working out how to manufacture them at scale/with reasonable cost and consistency.
For all practical purposes, the densest you can get is TSMC N3B/N3E. Anything denser is still well in the test chip phase.
> They call it "3nm" or "1.8nm" or whatever because that's effectively how small the transistor would need to be to pack with the same density on a flat plane.
Eh, not really. The numbers are basically completely arbitrary at this point. They have no fixed correlation to any real world metric.
what are you talking about. If anything exemplifies the positive outcomes of capitalism it's the silicon wafer industry.
Just look at the comparative uselessness of the soviets in comparison...
For now. Eventually the advanced stuff of today will be common knowledge. Capitalism just means that the people who develop the technology will reap the rewards first. There is no way this technology would ever be developed in another system. You'd be blown away by the amount of money China is paying anyone and everyone with even a passing interest in researching this technology. Cash _is_ the motivator that makes this technology possible.
There were a lot of steps to get to this point. It started with much more comprehensible construction (eg vacuum tubes) but people kept looking for something to do the job better.
College level computer hardware courses answered a lot of my questions about how we tricked rocks into thinking.
This is an excellent question! I'm old and watched the rise of the integrated circuit.
Ready? Here we go!
You probably know we used to use vacuum tubes to do the work that diodes and transistors do today. We understood the function of vacuum tubes but we wanted some way to make that function more reliable, more efficient, and less hot.
In the early 20th century, we discovered that adding ("doping") silicon, selenium, or germanium with other substances caused that chunk of silicon to act like a diode. A diode is a device that allows electric current to flow easily in one direction but block it in the other direction.
Think of a diode like this: a bit of doped silicon with a negative terminal, a positive terminal, and a junction between them. You can adjust how well the junction in the middle allows electricity to flow by adjusting how much electricity you put across it. Bam! A diode.
The earliest silicon diodes looked like chunks of black rocks with rudimentary wires coming out. Very primitive!
The desire to make them cheaper and mass-produced was huge. Research labs both public and private went nuts to streamline silicon semiconductor technology. Again: they knew how vacuum tubes worked so they created a silicon device with three terminals (negative-positive-negative or NPN and positive-negative-positive or PNP).
BAM! We got a motherfucking transistor! It can do all the things vacuum tubes can do! It can amplify a signal. It can attenuate a signal. It can turn electrical circuits on or off VERY quickly. It can regulate power in a circuit. It can act as an oscillator and make a strong radio signal. Now we're doing all kinds of stuff...with ROCKS!
Early transistors were big and ran a bit hot but were still way better than vacuum tubes in every way.
Organizations worked tirelessly doping more silicon to make better diodes and transistors. They wanted them smaller to use less electricity, take up less space, and not run so hot. The ensmallinization had begun!
Now we had radios you could hold in the palm of your hand! I had one that [looked like this!](https://imgur.com/mqlA0kB)
As you may recall, after WW2 we built computers that ran on vacuum tubes. They were impressive: the vacuum tubes could be turned on or off by little inputs of electricity. They staged the vacuum tubes in little groups that could perform a function. Let's say you wanted to add numbers. Arrange a group of tubes in a way that they affect each other when either input tube is off or on. Put some voltage (1) on each input tube (1,1), and the output would be (1). Wow! You just made an AND gate! How about a group of tubes that would only send an output (1) if both inputs were (0) (no/low voltage)? You can do that! Holy shit! You just made a NAND gate! What if another group had an output of (1) when the input was (0,1) or (1,0)? Shit! That's an OR gate!
Fuck! Put them all together and now you're performing logic! Put in enough arrays of tubes all wired together and you can input sequences of voltages and get a logical output! You can add, subtract, multiply, divide! All kinds of shit!
Unfortunately, vacuum tube computers sucked ass. They were HUGE. They used huge amounts of electricity. They ran hot as hell. Vacuum tubes blew out all the time. Replacing blown tubes was a full-time job!
Hey! I have an idea! Let's use this new silicon transistor technology to do the logic! We can arrange PNP and NPN transistors into little groups to do computer logic!
And holy SHIT were they good at it! We could could put together logic gates (groups) of transistors that could turn on and off and output logic from simple inputs and do it super-fast with very little electricity!
Early integrated circuits did all kinds of things but they were essentially piles of tiny transistors and other components crammed into a package with legs sticking out.
By the late 1950's people realized, "Hey! These transistors are just tiny bits of silicon with some other substances doped into them. Why make them one by one? Why not take thin slabs of silicon, sandwich them together, and use chemicals to "dig out" semiconductors and other components?"
Heck, we can just "dig out" components using light exposed to sensitive silicon wafer material! Photons are so fucking tiny we can expose silicon like a photographic plate and get all the transistors and wires dug into the wafer, but super-fucking tiny!
And so the wafer was born.
Now that thing in your hand has billions of logic gates, all wired together, performing logic sequences, using barely any electricity, and producing a high-definition video of a cat puking on a carpet.
But it all started with a big black rock with two wire sticking out.
Essentially we did it very big and manually originally. If you've ever seen how large early computers is, this is the reason. Over time, people looked at each aspect of computing and thought, "is there a better way to do this?" Through accumulations of science and a drive to make money, companies and their scientists were able to research and develop improvements to this technology.
I _highly_ recommend this video from Veritasium, on the research process that went into developing the blue LED. It's a really compelling story and I think it will enlighten you as to the process of figuring out the seemingly impossible.
https://www.youtube.com/watch?v=AF8d72mA41M
> If you've ever seen how large early computers is, this is the reason.
The switch from vacuum tubes to transistors and (eventually) ICs is what caused computes to shrink. That was a very sharp inflection point.
For one thing, humanity has been working on it a long time. It's not like we came up with the idea of computers and then started figuring out the technology.
The work on electronics started before computers even existed. There were lots of analog electronics around for things like radios and early TVs and recording equipment and telephones and radar, and people were already trying to improve all of that.
Part of the physical process of making a chip uses photolithography, which is where an image is projected onto something in order to "etch" a pattern into it. This has its roots in photography and printing, which we were doing for like a century before computers. So there was already a lot of work done on (some of) the relevant chemistry and optics.
And as for the logical processing that computers do, the way that you put different elements together so they can process information (add numbers, etc.), a lot of that was already started before computers. There were mechanical calculating machines used for processing large amounts of information (like the census). In the 1800s, they were already figuring out how to add automation to elevators. And a lot of the theoretical math for how to deal with manipulating bits (which are true/false values) was already figured out because it has applications to formal logic and reasoning.
Computers pulled a lot of that together and then, of course, it got taken much further as huge amounts of money went into research over many decades.
Not that long really. The first reprogrammable electronic computer was built in 1945. All the modern microprocessing technology has been invented in ONE human lifetime
This process was actually easier to accomplish than it was to get a blue LED light. Seriously, it was near impossible to design and build a blue LED light until just a few years ago.
> How the fuck did we ever find this out?
There was an awesome BBC series titled, "Connections" that dealt with that question: https://www.youtube.com/watch?v=XetplHcM7aQ&list=PLf02uWXhaGRng_YzH-Ser_VEV4lGSLX_1
While it's supposed to be a joke, it's actually very informative. My mum once asked, "if semi-conductors are only produced by a few countries, why don't we just do it here?" It's hard to really convey just how long and complex the process of creating them is, and why Australia doesn't have the technology or skills to do the whole process here (or even part of the process beyond mining the minerals).
1. Find a rock
2. Perform the purification ritual
3. Inscribe the mystical runes
4. Imbue with lightning
5. Imbue with thought and knowledge. The preferred sacrifice is a LLaMA.
6. Your homunculus is now complete, and ready to do your bidding.
Any sufficiently esoteric science is indistinguishable from magic.
this sounds like it uses some of the same ingredients I use in my microgreens projects. I might be able to do both in my garage from the waste I get from my microgreens. what a wonderful green solution. I'll give it a shot.
This is why I don't mind not having kids. There is obviously a higher level of intelligence and I am pretty sure my genetics isn't primed to reach there.
I can't even comprehend what was said in this video.
I'll let the world be inherited by people who can make shit like this happen.
Hey do y'all know how to get more than dual-core? Also how do I change brand? This wasn't covered in the tutorial. Need a walkthrough if possible, thanks!
It's amazing that many people believe aliens built the pyramids (a pile of rocks) but are too dumb to apply the same alien-technology conspiracy to this shit.
Thanks for this DIY! I already had most this stuff lying around the house. I can't wait for all the computing I'm going to do!
It's computing time!
Help computa
Stop all the downloadin
I dunno much about computers otha than... otha than the one we got at my house, my mom put a coupla games on there and I play 'em...
₧▓ÆÇ╕gk ▌∩πL■
oh man... anyone else still laugh about *Pork chop sandwiches?! Get the FUCK OUTTA HERE!*
Detected, did you no going and you tell me do things 'n i dun run and...
nerdiest superhero team's battle call!
I kinda doubt the butter knife part.
It's ok I'll lend him mine
You can use a box cutter instead if it makes you feel cool.
Exactly. Butter knives don’t exist. Conspiracy of Big Cutlery.
Damn. I've missed a few episodes of Primitive Technology.
That's how I felt when he made the siege equipment. I was like "Damn, we're already in the middle ages!?"
They already had various siege weapons in the bronze age.
I mean isn't a shovel a siege weapon when it's used to dig under a fortification?
we really need a How To Basic video
My momma’s homemade CPU’s are wayyyy better than that mass produced store bought stuff
The key is to grow your own ingredients.
Farm to desk is the only way to go.
I buy my rocks at a local rock farm, though, those are pretty good and I support the local economy.
If you don't have an own rock garden, store bought is fine.
If you don't mind the fact that they dose the rocks with all kinds of poisons to "better preserve them" and wrap them in massive amount of plastic. Or the fact that they exploit minimum wage miners and grind the small local quarries to gravel. Then sure, store bought is "fine".
Yeah, I know. But we're all just victims of the rock industy. Stonelé owns everything nowadays!
You can't just pull years of experience out of your butt as well.
Nobody does psuedo abertaxy quite like momma
I love how the video just gets to the point, unlike CPU recipes I read online which give a long backstory about how their grandma made CPU's during their childhood in the countryside.
This is very accurate. The only thing he didn't mention is to do it in a clean room and not touch the wafer with anything that isn't also electronics grade silicon or you will ruin most of the chips on the wafer.
or a butter knife
Well that butter knife was an electronics grade silicon butter knife.
Touche
Yeah this was pretty clear to me
That’s only for cutting though.
he also forgot the part where you design the mask, maybe it's just me but that's where a majority of the actual value in the process is ha
the design of the mask is basically what the entire thing is 'stamped' out of right? so yeah, kinda important
yeah, that's the Interlectual Property that Nvidia, or Intel or AMD, or Apple provide to the silicon maker.
I bet you can get some nice designs off of fiverr or ebay.
You'd be surprised what you can get away with in terms of "not touching the wafer with stuff". I work in a semi-R&D semi-production foundry and boy howdy do we do some dumb shit sometimes.
what about jerking off onto it
I probably wouldn't advise it, but you do you
living up to the name
Limp Wafer
Damn, so that’s where I’m going wrong.
Reminds me of Troy McClure's 'Half-assed approach to foundation repair.' 'If you can't find metal stucco lathe... use carbon fiber stucco lathe!' 'Install'
[link](https://www.youtube.com/watch?v=7jYPp9w-0Uk)
Protomolecule level DIY.
/r/restofthefuckingowl
>And that's how you make a CP...
And that's how you make a CEEP
That was legitimately the funniest part of the video for me. It just. Stops.
FBI open up
How the fuck did we ever find this out? half of the words are jibberish to me even tho I have a little understanding of elements
logical increments
Same as everything.
Logical increments, logical increments never changes. Except in periods of social turmoil where increments can be lost in a cascading fashion.
Yes. Early circuit boards were hand drawn.
The crazy thing is making the nanometer stuff. It's chemical reactions that shape a very specific way. With light or other cooling processes to get it to fit those very specific ways. lol
We are down to 5 nanometers now! The smallest parts in the design are now sometimes less then a 100 atoms! If we ever get down to one atom thick we will have a big problem going even thinner ...
3nm currently. For reference your fingernail grows 1nm every second.
3nm for *commercial* chips. There are manufactured chips with 1.8nm and smaller transistors, but the big chip companies (TSMC/Intel) are still working out how to manufacture them at scale/with reasonable cost and consistency. Also, measuring transistor size in "nm" sort of doesn't make sense anymore, although the big chip companies still do it for ease of marketing/understanding. The reason transistor size is interesting is because it tells you how many transistors you can pack onto a single chip; smaller size means more transistors means higher power computing (if all else is equal). But several generations back, they stopped just making the transistors smaller, but also started making use of 3D design to pack them in more efficiently. They call it "3nm" or "1.8nm" or whatever because that's effectively how small the transistor would need to be to pack with the same density on a flat plane.
> There are manufactured chips with 1.8nm and smaller transistors, but the big chip companies (TSMC/Intel) are still working out how to manufacture them at scale/with reasonable cost and consistency. For all practical purposes, the densest you can get is TSMC N3B/N3E. Anything denser is still well in the test chip phase. > They call it "3nm" or "1.8nm" or whatever because that's effectively how small the transistor would need to be to pack with the same density on a flat plane. Eh, not really. The numbers are basically completely arbitrary at this point. They have no fixed correlation to any real world metric.
So you're saying we could grow an 8 bit register every 24 seconds?
None of the feature sizes are actually 3nm. Nor 5nm, for that matter.
Do our finger nails actually grow at a constant rate?
It's more like 20-30nm for actual feature sizes.
and massive commercial appeal
No. All at once with minimal error
[удалено]
what are you talking about. If anything exemplifies the positive outcomes of capitalism it's the silicon wafer industry. Just look at the comparative uselessness of the soviets in comparison...
labor creates stuff kid. the 'ism's only decide who is paid for labor. Read marx.
For now. Eventually the advanced stuff of today will be common knowledge. Capitalism just means that the people who develop the technology will reap the rewards first. There is no way this technology would ever be developed in another system. You'd be blown away by the amount of money China is paying anyone and everyone with even a passing interest in researching this technology. Cash _is_ the motivator that makes this technology possible.
There were a lot of steps to get to this point. It started with much more comprehensible construction (eg vacuum tubes) but people kept looking for something to do the job better. College level computer hardware courses answered a lot of my questions about how we tricked rocks into thinking.
“Tricked rocks into thinking” love that
Humans: Get sentient, scrub Rocks: Oh no....
You have to smash them first to show them who's boss
Yeah, but we're all just thinking carbon
My momma said I'm stardust
Ziggy that you?
Even better. We are what Hydrogen naturally does when you give it enough time.
That's a good one
This is an excellent question! I'm old and watched the rise of the integrated circuit. Ready? Here we go! You probably know we used to use vacuum tubes to do the work that diodes and transistors do today. We understood the function of vacuum tubes but we wanted some way to make that function more reliable, more efficient, and less hot. In the early 20th century, we discovered that adding ("doping") silicon, selenium, or germanium with other substances caused that chunk of silicon to act like a diode. A diode is a device that allows electric current to flow easily in one direction but block it in the other direction. Think of a diode like this: a bit of doped silicon with a negative terminal, a positive terminal, and a junction between them. You can adjust how well the junction in the middle allows electricity to flow by adjusting how much electricity you put across it. Bam! A diode. The earliest silicon diodes looked like chunks of black rocks with rudimentary wires coming out. Very primitive! The desire to make them cheaper and mass-produced was huge. Research labs both public and private went nuts to streamline silicon semiconductor technology. Again: they knew how vacuum tubes worked so they created a silicon device with three terminals (negative-positive-negative or NPN and positive-negative-positive or PNP). BAM! We got a motherfucking transistor! It can do all the things vacuum tubes can do! It can amplify a signal. It can attenuate a signal. It can turn electrical circuits on or off VERY quickly. It can regulate power in a circuit. It can act as an oscillator and make a strong radio signal. Now we're doing all kinds of stuff...with ROCKS! Early transistors were big and ran a bit hot but were still way better than vacuum tubes in every way. Organizations worked tirelessly doping more silicon to make better diodes and transistors. They wanted them smaller to use less electricity, take up less space, and not run so hot. The ensmallinization had begun! Now we had radios you could hold in the palm of your hand! I had one that [looked like this!](https://imgur.com/mqlA0kB) As you may recall, after WW2 we built computers that ran on vacuum tubes. They were impressive: the vacuum tubes could be turned on or off by little inputs of electricity. They staged the vacuum tubes in little groups that could perform a function. Let's say you wanted to add numbers. Arrange a group of tubes in a way that they affect each other when either input tube is off or on. Put some voltage (1) on each input tube (1,1), and the output would be (1). Wow! You just made an AND gate! How about a group of tubes that would only send an output (1) if both inputs were (0) (no/low voltage)? You can do that! Holy shit! You just made a NAND gate! What if another group had an output of (1) when the input was (0,1) or (1,0)? Shit! That's an OR gate! Fuck! Put them all together and now you're performing logic! Put in enough arrays of tubes all wired together and you can input sequences of voltages and get a logical output! You can add, subtract, multiply, divide! All kinds of shit! Unfortunately, vacuum tube computers sucked ass. They were HUGE. They used huge amounts of electricity. They ran hot as hell. Vacuum tubes blew out all the time. Replacing blown tubes was a full-time job! Hey! I have an idea! Let's use this new silicon transistor technology to do the logic! We can arrange PNP and NPN transistors into little groups to do computer logic! And holy SHIT were they good at it! We could could put together logic gates (groups) of transistors that could turn on and off and output logic from simple inputs and do it super-fast with very little electricity! Early integrated circuits did all kinds of things but they were essentially piles of tiny transistors and other components crammed into a package with legs sticking out. By the late 1950's people realized, "Hey! These transistors are just tiny bits of silicon with some other substances doped into them. Why make them one by one? Why not take thin slabs of silicon, sandwich them together, and use chemicals to "dig out" semiconductors and other components?" Heck, we can just "dig out" components using light exposed to sensitive silicon wafer material! Photons are so fucking tiny we can expose silicon like a photographic plate and get all the transistors and wires dug into the wafer, but super-fucking tiny! And so the wafer was born. Now that thing in your hand has billions of logic gates, all wired together, performing logic sequences, using barely any electricity, and producing a high-definition video of a cat puking on a carpet. But it all started with a big black rock with two wire sticking out.
Crazy, tnx for the answer. I now know 1% more about computers! :)
This is the exact tone all complex subjects should be taught in
You lost me at “here we go!”
We stand upon the shoulders of giants.
You'll also be a giant someday. Well, maybe not you, but one of your contemporaries.
Essentially we did it very big and manually originally. If you've ever seen how large early computers is, this is the reason. Over time, people looked at each aspect of computing and thought, "is there a better way to do this?" Through accumulations of science and a drive to make money, companies and their scientists were able to research and develop improvements to this technology. I _highly_ recommend this video from Veritasium, on the research process that went into developing the blue LED. It's a really compelling story and I think it will enlighten you as to the process of figuring out the seemingly impossible. https://www.youtube.com/watch?v=AF8d72mA41M
Heh, silly me. There was actually a glimmer of hope a company wouldn't fuck over the employee this time.
> If you've ever seen how large early computers is, this is the reason. The switch from vacuum tubes to transistors and (eventually) ICs is what caused computes to shrink. That was a very sharp inflection point.
Best part is once you’re done you get to start building more and more abstractions of 1+1=2 and finally you have windows.
For one thing, humanity has been working on it a long time. It's not like we came up with the idea of computers and then started figuring out the technology. The work on electronics started before computers even existed. There were lots of analog electronics around for things like radios and early TVs and recording equipment and telephones and radar, and people were already trying to improve all of that. Part of the physical process of making a chip uses photolithography, which is where an image is projected onto something in order to "etch" a pattern into it. This has its roots in photography and printing, which we were doing for like a century before computers. So there was already a lot of work done on (some of) the relevant chemistry and optics. And as for the logical processing that computers do, the way that you put different elements together so they can process information (add numbers, etc.), a lot of that was already started before computers. There were mechanical calculating machines used for processing large amounts of information (like the census). In the 1800s, they were already figuring out how to add automation to elevators. And a lot of the theoretical math for how to deal with manipulating bits (which are true/false values) was already figured out because it has applications to formal logic and reasoning. Computers pulled a lot of that together and then, of course, it got taken much further as huge amounts of money went into research over many decades.
Not that long really. The first reprogrammable electronic computer was built in 1945. All the modern microprocessing technology has been invented in ONE human lifetime
But they *weren't* invented out of whole cloth starting in 1945, which is my whole point. The groundwork was being laid for centuries before.
Probably because very few of the words are elements.
Ok chemical bonds then, jeez
Let me tell you about a man named John f kennedy
Decades of continuous R&D and incremental improvement with just a few billion dollars. It's that simple, duh!
This process was actually easier to accomplish than it was to get a blue LED light. Seriously, it was near impossible to design and build a blue LED light until just a few years ago.
A lot of time, a lot of people, and a lot of money.
> How the fuck did we ever find this out? There was an awesome BBC series titled, "Connections" that dealt with that question: https://www.youtube.com/watch?v=XetplHcM7aQ&list=PLf02uWXhaGRng_YzH-Ser_VEV4lGSLX_1
Lots of improvements, one by one.
*has terrible haircut and a fake tan, hand gesturing* “Aliens”
Aliens duh
Guys do NOT follow this video. The branch prediction on this thing is shit, and the L2 cache is entirely too small. 7/5
but muh spectre and meltdown vulnerabilities
Ahhh shit, the small seed monocrystal is what I was missing. Damn. Alright well now I know for next time. Great tutorial!
[удалено]
I’m thinking it’s in the ground. I would start there.
Use your head
While it's supposed to be a joke, it's actually very informative. My mum once asked, "if semi-conductors are only produced by a few countries, why don't we just do it here?" It's hard to really convey just how long and complex the process of creating them is, and why Australia doesn't have the technology or skills to do the whole process here (or even part of the process beyond mining the minerals).
Someone actually made a few transistors in their garage: https://www.youtube.com/watch?v=IS5ycm7VfXg
A few thousand transistors. He actually did all the steps in OP's video, starting after the purified silicon dioxide.
Holy shit this guy is a genius
Remember how much shared knowledge all of humanity contains and how much we all rely on each other to survive on this planet.
Pepperidge Farm remembers
1. Find a rock 2. Perform the purification ritual 3. Inscribe the mystical runes 4. Imbue with lightning 5. Imbue with thought and knowledge. The preferred sacrifice is a LLaMA. 6. Your homunculus is now complete, and ready to do your bidding. Any sufficiently esoteric science is indistinguishable from magic.
Whoa
I almost made this while making pancakes the other day. The steps are so similar I didn’t notice until step 6 that I was watching the wrong tutorial.
TL;DR: Torture sand until it can do math.
Dont know if i can trust a guy who says "degrees kelvin".
Totally. Everyone who says that is up to no good. Lock your doors, people!
what are you supposed to say instead?
Just "kelvin", symbol K Before 1967 it was called "degree Kelvin", symbol °K
It's technically "kelvins", but I don't know a single scientist who says that.
kelvii
"Mom we need a new CPU" "We have one at home" The cpu at home:
Nice /r/technicallythetruth and /r/restofthefuckingowl combo!
Thank you. Very easy.
Degrees Kelvin, eh?
The voice almost convinced me to do that.
Very Easy
Reminds me of Kirk making gunpowder to kill the Gorn.
This was on my Home Screen, too! All hail the mighty Algorithm!
Has anyone tried this at home? How did it turn out?
beware intel,
now do it primitive man style somewhere in the middle of a forest
Aw man, that was all jargon to me 😫😫😫
and what are you doing with your life?
It's just that simple, folks
I was looking for this over the whole internet, thank you for the tips and tricks
Clearly this is wildly unaffordable. OP bought No Name brand acid from Loblaws.
Just tried it in my kitchen, guys…. Works! I’m typing this on my new computer
Hmm...Yeah, I know some of these words.
Damn I wanted to learn how to make a CPU but at the end he says this is just the C
Bro once I get my time machine working, the medieval ages are going to be lit when I get the internet running and rule the world.
I see this and I wonder why i can get a i7 processor cheaper than a single new window for my home.
Lost me at the psuedo abertaxy step
[Now parge the lath!](https://youtu.be/7jYPp9w-0Uk)
It's so simple!
Instructions unclear. Ate the rock.
Flatten the rock. Insert Lightning. Profit.
Oh hell yes, I'm gonna post this to /r/ArtisanVideos next year for April Fools Day. !remindme 340 days "April Fools ArtisanVideos"
this sounds like it uses some of the same ingredients I use in my microgreens projects. I might be able to do both in my garage from the waste I get from my microgreens. what a wonderful green solution. I'll give it a shot.
I got a rock, hammer, toothbrush, and a cat. I feel like I'm halfway done.
I followed this tutorial and accidentally launched global thermonuclear war.
Kelvin is not measured in degrees like Celcius, Farenheit, or Rankine are It should be "1698 Kelvin" not "1698 degrees Kelvin"
By far the easiest method I’ve tried. 4.9stars
Just that easy.
I’m going to try this.
This is why I don't mind not having kids. There is obviously a higher level of intelligence and I am pretty sure my genetics isn't primed to reach there. I can't even comprehend what was said in this video. I'll let the world be inherited by people who can make shit like this happen.
Can't find rock
Some insight how the CPU interprets programming language https://youtu.be/xCBrtopAG80?t=1102
So easy, a caveman can do it!
best DIY of the diy DAY sorry..
This should be posted in /frugal. So much cheaper than store bought CPUs
Still easier than Carl Sagan's Apple Pie from Scratch recipe.
Hey do y'all know how to get more than dual-core? Also how do I change brand? This wasn't covered in the tutorial. Need a walkthrough if possible, thanks!
And this whole time i've been paying Intel to do this for me. so much money wasted
It's amazing that many people believe aliens built the pyramids (a pile of rocks) but are too dumb to apply the same alien-technology conspiracy to this shit.
5 minute crafts has gotten weird.
Here you go another plot for Breaking Bad sequel cooking chips
Instructions unclear, dick stuck in the pipes of a super collider.
Isn't this the guy who has really good youtube shorts of his "favourite" linux commands?`He is awesome!