Misaka Mikoto said:
As real as the square root of -1?
Well i is quite 'real', despite bean an imaginary number it does have real world applications.
Misaka Mikoto said:
As real as the square root of -1?
Well i is quite 'real', despite bean an imaginary number it does have real world applications.
indekkusutaku said:
Well i is quite 'real', despite bean an imaginary number it does have real world applications.
yes, you are real XD
Yes, I know Complex Analysis is required in many things. My first exposure to it involved the Joukowski airfoil. I'm still not a fan of working integrals involving the residue theorem
Misaka Mikoto said:
yes, you are real XD
Yes, I know Complex Analysis is required in many things. My first exposure to it involved the Joukowski airfoil. I'm still not a fan of working integrals involving the residue theorem
First off lol and Second off:
Taking a look at Joukowski's Airfoil it looks interesting and when I have more time I'll have to give it a look, but mostly I was referring to the use of complex numbers to determine how AC electrical circuits will or will not behave based on their impedance.
indekkusutaku said:
First off lol and Second off:
Taking a look at Joukowski's Airfoil it looks interesting and when I have more time I'll have to give it a look, but mostly I was referring to the use of complex numbers to determine how AC electrical circuits will or will not behave based on their impedance.
Well, not just AC electrical circuits. Higher order differential equations might have complex eigenvalues which tells us something regarding their homogeneous solutions.
Too many uses of Complex Analysis, so I won't get into that.
Misaka Mikoto said:
Well, not just AC electrical circuits. Higher order differential equations might have complex eigenvalues which tells us something regarding their homogeneous solutions.
Too many uses of Complex Analysis, so I won't get into that.
When I said AC electrical currents it was only meant to say that it applied only to AC not DC current, not to exclude non-electrical uses of complex eigenvalues. In AC electrical circuitry the magnitude (eigenvector) of impedance is where the incorporation of complex numbers comes in as the magnitude of impedance is a squared root of resistance and reactance(plotted along the complex plane where reactance lies on the complex axis and resistance lies along the real axis) with both resistance and reactance squared . DC current only has resistance and not reactance an therefore does not incorporate the use of complex eigenvectors when determining its behavior.
Anyways I really have some homework to finish before my class tomorrow so you'll have to excuse me for the night, it's always fun talking to you about things, so whenever I'm not working on procrastinated work again we will have to talk more.
Pffft, keeners.
Your shoes RULE.
I wish i could walk in high heels...
I KNOW RIGHT!? I'm a shoe-hoe.
A tip is to start by walking in short heels and then getting higher and higher. Before you know it, you'll be walking in 13cm stiletto heel (LOL, THOSE ARE A PAIN IN THE ASS).
those are quite the sexy shoes.
Vegio said:
those are quite the sexy shoes.
No, those are cute ones. These are the sexy ones! Steel Heel FTW.
antika said:
No, those are cute ones. These are the sexy ones! Steel Heel FTW.
Eh. Heh. Hehehe. My new boots are sexy. THAT'S CRAP. AND IT'S NOT STEEL DAMNIT. IT'S PLASTIC. STOP FOOLING YOURSELF WOMAN!
Aaaah that was nice, I've always wanted to say it. YOU SEE. I TRY TO BE NICE, BUT DAMNIT WHEN YOU KEEP REPEATING STUPID SHIT I FEEL LIKE I'M GOING TO EXPLODE.
I know it's plastic but they still are my Steel Heel darlings. And they are still sexier than your boots.
antika said:
I know it's plastic but they still are my Steel Heel darlings. And they are still sexier than your boots.
No they're not.
I demand pics of said steel boots.
Yea I wanna see the boots too!
Dominatrix Boots
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