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We need a general scheme for verbalizations of functional concepts. Marcel Dreier's B.Sc Thesis has some thoughts on this, which are not quite implemented yet.
But the is more than discussed there. I have been stumbling over the treatment of "$n$-ary" again, which I had marked up as \defi[name=nary]{$n$-ary} or as $n$\defi[name=arity]{ary}. All of this muddles the fact that the word ary is functional and takes $n$ as an argument. Other examples are $\mathal{C}$-derivable and $C^\infty$-manifold or $n$ to $m$ relation.
The text was updated successfully, but these errors were encountered:
#1 contains discussions on that. I think ary should be a unary function with n as argument, e.g. \symdef[type={\funtype{\NaturalNumbers,\funtype}{\prop}}]{ary}[1]{#1\text{-ary}}
Then #1 proposes to write e.g.: $f$ is an \ary{$n$}[-ary] function
Come to think of it, \ary is a binary predicate on a positive integer and a function, e.g. \ary{$f$}[ is an ]{$n$}[-ary] function.. Either way, things get tricky, if we want to "type" \ary, since the type would already have to carry the arity...
We need a general scheme for verbalizations of functional concepts. Marcel Dreier's B.Sc Thesis has some thoughts on this, which are not quite implemented yet.
But the is more than discussed there. I have been stumbling over the treatment of "$n$-ary" again, which I had marked up as
\defi[name=nary]{$n$-ary}
or as$n$\defi[name=arity]{ary}
. All of this muddles the fact that the wordary
is functional and takes$n$
as an argument. Other examples are$\mathal{C}$-derivable
and$C^\infty$-manifold
or$n$ to $m$ relation
.The text was updated successfully, but these errors were encountered: