Examples of using Algebraically in English and their translations into Serbian
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Colloquial
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Ecclesiastic
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Computer
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Latin
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Cyrillic
And you saw that algebraically.
Expressed algebraically, for numbers a and with a> b> 0.
Let's show this algebraically.
Algebraically, this involves calculating the discriminant.
Now what will that look like algebraically?
All I did is algebraically manipulate this.
But we could just figure it out algebraically.
Expressed algebraically, for quantities a and b with a> b> 0.
We can summarize this result algebraically.
If you want to do it algebraically, you could cross-multiply.
When the conic section is written algebraically as.
So these are algebraically the exact same definition for our function.
The complex numbers are algebraically closed.
Algebraically, classical negation is called an involution of period two.
You divided-- then we just solved this algebraically.
And if you think about it algebraically you might get rid of the Y here.
The second way is to formualte the model algebraically.
But let's play around with it algebraically to get it in that form.
Now lets think about how we can represent that algebraically.
The above group can be described algebraically as well as geometrically.
Well you can algebraically manipulate them to see that they're the exact same thing.
The field of complex numbers is algebraically closed!
This was expressed algebraically as having a cost of N, and a value of N².
Let me write this a little bit more algebraically now.
As we algebraically manipulate or mathematically manipulate the numbers, we do the same thing with the units.
The fact that the complex numbers are algebraically closed is required here.
But the first thing I wanna do is, is, is, have you think about,whether you can represent this algebraically?
Both are related to manifolds, butare constructed algebraically using sheaves instead of atlases.
Algebraically, classical negation corresponds to complementation in a Boolean algebra, and intuitionistic negation to pseudocomplementation in a Heyting algebra.
This restriction means that functions in FP are a module(generated by the built-in functions) over the algebra of functional forms, andare thus algebraically tractable.