What is "Z" - Alphas, LaTex & MathType Explored

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The discussion revolves around the mathematical concept of "Z," representing the set of all integers, and the relationship between two alphas in a tangent equation. Participants express a desire to learn LaTeX, noting its user-friendly nature for coding mathematical expressions. A specific equation involving tangent functions is proposed, questioning whether a second alpha exists in the rational numbers that satisfies the equation. There is uncertainty regarding the formulation of the problem, with suggestions that it may involve arctangent instead of tangent. Overall, the conversation highlights the intersection of LaTeX usage, mathematical inquiry, and the complexities of trigonometric identities.
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I wish I knew LaTex :frown: . But I know MathType!

Does such a pair of alphas exist?? (See the Below Thumbnail/attached image)
"Z" is the set of all integers
 

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LaTeX is really easy to learn, just click on stuff people have wrote and it will show you the code. Check this thread out: https://www.physicsforums.com/showthread.php?t=8997

Correct me if I am wrong but your question simplifies down to:

\text{If} \, \alpha_1 \in \mathbb{Q} \, \, \, \text{does} \, \exists \, \alpha_2 \in \mathbb{Q}

Such that:

\tan \left( \alpha_1 \right) + \tan \left( \alpha_2 \right) = \frac{\pi}{3}

I'd guess not but to be honest I have no idea.

Oh and I think the question is wrong otherwise you could always let k=0.
 
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Are we sure that that is supposed to be a tangent and not an arctangent ? I don't know of any "special" identities involving the arctangent of multiples of pi. The term in pi looks more suited to be the argument of the tangent function.
 
Let \alpha_1 = 1^c

That should solve the problem.
 
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