OT but the fonts are awful, the title page isn't even centred properly, figures lose quality when zoomed in... Just use LaTeX, people.
Actually, this was made with LaTeX. Sadly, LaTeX doesn't prohibit you from making ugly documents.
An Introduction to the Mathematics of Uncertainty (2010) [pdf]
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Re: An Introduction to the Mathematics of Uncertainty (2010) [pdf]
#12It is important to distinguish between risk and uncertainty. > "Uncertainty must be taken in a sense radically distinct from the familiar notion of Risk, from which it has never been properly separated.... The essential fact is that 'risk' means in some cases a quantity susceptible of measurement, while at other times it is something distinctly not of this character; and there are far-reaching and crucial differences…
Re: An Introduction to the Mathematics of Uncertainty (2010) [pdf]
#13OT but the fonts are awful, the title page isn't even centred properly, figures lose quality when zoomed in... Just use LaTeX, people.
I do agree, though, that using a math font that doesn’t match the text font is a high typographic crime.
Re: An Introduction to the Mathematics of Uncertainty (2010) [pdf]
#14Can anyone give a high level summary of what you can accomplish with fuzzy logic that you can't do with more classical probability theory? What's the 'elevator pitch' for why someone should learn the theory?
Fuzzy sets allow you to use set theoretic tools over objects with varying degrees of membership. This is a useful construct when trying to reason over probabilistic evidence, and IMO can be a useful modelling tool.
you can also do exactly that in probability theory by multiplying the probabilities. Is there any difference?
Re: An Introduction to the Mathematics of Uncertainty (2010) [pdf]
#15OT but the fonts are awful, the title page isn't even centred properly, figures lose quality when zoomed in... Just use LaTeX, people.
Re: An Introduction to the Mathematics of Uncertainty (2010) [pdf]
#16Can anyone give a high level summary of what you can accomplish with fuzzy logic that you can't do with more classical probability theory? What's the 'elevator pitch' for why someone should learn the theory?
1. The color of this apple is kind of yellow, but there's also a little red here and there.
2. This apple may be yellow with p=0.8, and red with p=0.2.
Re: An Introduction to the Mathematics of Uncertainty (2010) [pdf]
#17Earlier quoted context omitted.
Fuzzy sets allow you to use set theoretic tools over objects with varying degrees of membership. This is a useful construct when trying to reason over probabilistic evidence, and IMO can be a useful modelling tool.
> set theoretic tools over objects with varying degrees of membership you can also do exactly that in probability theory by multiplying the probabilities. Is there any difference?
Have you got a concrete example?
i.e., show us the probability version precisely with mathematics and maybe someone can tell you the corresponding fuzzy version, if any.
Re: An Introduction to the Mathematics of Uncertainty (2010) [pdf]
#18Can anyone give a high level summary of what you can accomplish with fuzzy logic that you can't do with more classical probability theory? What's the 'elevator pitch' for why someone should learn the theory?
The Japanese were quick to adopt FL and benefited enormously financially. Now FL is embedded almost everywhere.
Michio Sugeno built a fuzzy logic control system that flies a helicopter with a rotor blade missing! It is possible to do that with a conventional control system (that is, a mathematical solution must exist), but I believe the mathematics might be a bit more difficult.
Re: An Introduction to the Mathematics of Uncertainty (2010) [pdf]
#19Can anyone give a high level summary of what you can accomplish with fuzzy logic that you can't do with more classical probability theory? What's the 'elevator pitch' for why someone should learn the theory?
In classical set theory, every person is either tall or not. As a result, there has to be some cutoff below which people aren't tall, and above which they are. But that doesn't match up with the way that we think about tallness. Someone who's 6' (182.9 cm) is kinda tall but not really.
Fuzzy logic and set theory is the math that allows you to reason precisely about properties like tallness, where some things have the property and other things don't and still other things kinda have it.
Now imagine trying to formulate tallness in the language of probability theory. If you say that a person who's 6' is 50% tall, and I show up with a large group of people of that exact height, then you'd have to claim that half of them are tall and half of them aren't in order for the law of large numbers to hold. Is that really what you want, or even coherent?