We could use amino acids, we could use nucleic acids, carboxylic acids, fatty acids.

Alkalis neutralize acids.

Plus your chlorine anion in an aqueous solution.

Aqueous methylamine. With that, you don't need pseudo.

Acids act on metals.

So HCl in an aqueous solution or a solution of water disassociates completely into hydrogen ions in an aqueous solution, which is really hydronium.

It's a very long chain of these amino acids, and there are actually 20 different amino acids.

They use some other cell's amino acids and ribosomes and nucleic acids and everything to build themselves.

Acids act on many things including metals.

Fatty acids can be short or long.

Some fatty acids have only single bonds.

So that we actually, to test this idea, first took a look at amino acids and some other carboxylic acids.

It's not just the chain of the amino acids, but what's more important is how these amino acids actually fold.

And it is detectable not just in amino acids.

And amino acids are the building blocks of proteins.

For insulin right here, this is 50 amino acids.

Triplets of those letters code for roughly 20 amino acids, such that there's a single letter designation for each of the amino acids.

It has the chemical sequences of amino acids which says,

And somehow these amino acids are combined, and life begins.

Now, what I'm going to do is I'm going to titrate this aqueous solution of acid.

Well, my thinking is, by tapering the phenyl you get an oilier aqueous layer, and hence...

And these proteins, the building blocks of proteins are amino acids.

It's possible because the mycelium produces oxalic acids, and many other acids and enzymes, pockmarking rock and grabbing calcium and other minerals and forming calcium oxalates.

leads to sodium well, we could think of it a lot of different ways, but we could think of it as sodium ion aqueous plus chloride anions this is a cation and anion aqueous, so it gets dissolved.

I am absolutely certain that life can exist in outer space, move around, find a new aqueous environment.

Bacteria is in there, eating the same sugars, turning them into acids.

And these are predominantly what are called the Omega 3 fatty acids.

Now, genes are short segments of DNA that code for amino acids.

Some of these are multiple chains of amino acids kind of fitting together like a big puzzle, but some of them or just single chains of amino acids.

It also needs omega 3 fatty acids and iodine. This is a sinapse.

And what I took here from Wikipedia is these are some amino acids.

Actually, it's overkill, because we can actually have 64 combinations here, and there are only 20 amino acids, so we can even have redundant combinations code for different amino acids.

Omega 3 fatty acids are very important to insulate that wiring in your brain.

They're very repetitive, and they're very rich in the amino acids glycine and alanine.

Amazingly, proteins are the molecules composed of combinations of only 20 type amino acids.

And this one happens to be a good source of all 20 amino acids.

Twenty different amino acids are pretty much the structure of all of our proteins.

But this right here is approximately 50 I forgot the exact number amino acids.

Remember, hydroxide is a strong base. So the NaOH disassociates completely in an aqueous solution. To OH minus plus sodium cation.

Dogs can distinguish two very similar fatty acids, extremely diluted caprylic acid and caproic acid.

shuts off screen Load the amino acids. I'll extract the viral DNA from his blood.

What we can use are the smaller molecules that make up these proteins, the amino acids.

I want you to have high quality proteine that is rich in Omega 3 fatty acids.

So a very obvious question is how can these things code for 20 different amino acids?

And the reason why they talk about amino acids is because those are the building blocks of proteins.