Overall I would say no, because it can make big mistakes, but it seems to be able to somehow adapt to new knowledge, after processing its data exabytes. Let me give you a couple of examples.

- First, a basic mistake it made:

You

And mathematically, as functions on the real axis, is their behavior very different or similar? Are both peaked functions that tend to zero as the value of the variable increases or do their behaviors bear little similarity?

ChatGPT

Mathematically, both the sinc and Gaussian functions have similar behaviors in that they are both smooth functions that tend to zero as the independent variable moves infinitely further away on the real axis. However, there are differences in their specific forms and how quickly they tend to zero. Sinc Function: The sinc function has a bell shape and is defined as sinc(x)=sin(πx)/πx​. It vanishes for x=0 and has additional zeros at =±1,±2,…x=±1,±2,…. As ∣x∣ increases, the sinc function tends to zero, but its convergence is relatively slow, since the presence of zeros prevents a rapid decay

...

You

I think you are wrong. The sinc function that you have sent does not vanish at x=0 (its value at the origin is 1). On the other hand, the Gaussian always takes positive values ​​and decreases monotonically. For me it is a big difference. Don't you agree?

ChatGPT

My apologies for the confusion and thanks for pointing it out. You are correct in your observation. The sinc function, in fact, does not vanish at x=0 (its value is 1 at that point), and presents oscillations as ∣x∣ increases, which makes it not smooth in the sense of having continuous derivatives in all orders.

- Next, a situation in which it seems to be able to adapt to new knowledge:

You

But the Gaussian and Lorentzian representations do not need to be convolved with test functions in the Schwartz space (as distributions) to get the same result, they can be integrated together with any continuous function and produce the same result as they do with test functions. Only the sinc function or similarly problematic representations need to be restricted to the Schwartz space to become equal to the others. Did you know that? Do you think that this mathematical restriction is fair to the Gaussian and Lorentzian? In this sense, maybe we are talking about different categories of delta functions.

ChatGPT

Yes, you're correct in pointing out a subtle yet crucial distinction. The Gaussian and Lorentzian representations of the Dirac delta function indeed have a special property that allows them to be integrated with a broader class of functions, not necessarily limited to the Schwartz space, and still produce the same result. This property is a consequence of the fact that these representations are entire functions of t and have certain regularity properties.

I would be curious to know your opinion/experience, if only because AI will soon become widespread.

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