Fcalva/chibi-scheme
1
0
Fork 0
mirror of https://github.com/ashinn/chibi-scheme.git synced 2025-05-19 13:49:17 +02:00
Code Issues Projects Releases Packages Wiki Activity Actions

Merge pull request #807 from lubgr/docs/small-fixes

Browse source 
Minor documentation improvements (C API)
This commit is contained in:
Alex Shinn 2022-01-07 00:04:53 +09:00 • committed by GitHub
commit d642f34f25
No known key found for this signature in database
GPG key ID: 4AEE18F83AFDEB23
1 changed files with 7 additions and 2 deletions
Show stats Download patch file Download diff file Expand all files Collapse all files

9
doc/chibi.scrbl
View file

@ -684,7 +684,9 @@ need to check manually before applying the predicate.
\item{\ccode{sexp_fixnump(obj)} - \var{obj} is an immediate integer} \item{\ccode{sexp_fixnump(obj)} - \var{obj} is an immediate integer}
\item{\ccode{sexp_flonump(obj)} - \var{obj} is an inexact real} \item{\ccode{sexp_flonump(obj)} - \var{obj} is an inexact real}
\item{\ccode{sexp_bignump(obj)} - \var{obj} is a heap-allocated integer} \item{\ccode{sexp_bignump(obj)} - \var{obj} is a heap-allocated integer}
\item{\ccode{sexp_integerp(obj)} - \var{obj} is an integer} \item{\ccode{sexp_integerp(obj)} - \var{obj} is an integer (or flonum truncating without loss)}
\item{\ccode{sexp_ratiop(obj)} - \var{obj} is an exact rational (with SEXP_USE_RATIOS)}
\item{\ccode{sexp_complexp(obj)} - \var{obj} is a complex number (with SEXP_USE_COMPLEX)}
\item{\ccode{sexp_numberp(obj)} - \var{obj} is any kind of number} \item{\ccode{sexp_numberp(obj)} - \var{obj} is any kind of number}
\item{\ccode{sexp_charp(obj)} - \var{obj} is a character} \item{\ccode{sexp_charp(obj)} - \var{obj} is a character}
\item{\ccode{sexp_stringp(obj)} - \var{obj} is a string} \item{\ccode{sexp_stringp(obj)} - \var{obj} is a string}
@ -780,6 +782,8 @@ once.
\item{\ccode{sexp_unbox_boolean(obj)} - 1 if \var{obj} is \scheme{#t}, 0 otherwise} \item{\ccode{sexp_unbox_boolean(obj)} - 1 if \var{obj} is \scheme{#t}, 0 otherwise}
\item{\ccode{sexp_make_fixnum(n)} - creates a new fixnum representing int \var{n}} \item{\ccode{sexp_make_fixnum(n)} - creates a new fixnum representing int \var{n}}
\item{\ccode{sexp_unbox_fixnum(obj)} - converts a fixnum to a C integer} \item{\ccode{sexp_unbox_fixnum(obj)} - converts a fixnum to a C integer}
\item{\ccode{sexp_make_flonum(sexp ctx, float f)} - creates a new floating point value}
\item{\ccode{sexp_flonum_value(obj)} - converts a flonum to a C float}
\item{\ccode{sexp_make_character(ch)} - creates a new character representing char \var{ch}} \item{\ccode{sexp_make_character(ch)} - creates a new character representing char \var{ch}}
\item{\ccode{sexp_unbox_character(obj)} - converts a character to a C char} \item{\ccode{sexp_unbox_character(obj)} - converts a character to a C char}
\item{\ccode{sexp sexp_make_string_cursor(int offset)} - creates a string cursor for the given byte offset} \item{\ccode{sexp sexp_make_string_cursor(int offset)} - creates a string cursor for the given byte offset}
@ -812,6 +816,7 @@ Any of these may fail and return the OOM exception object.
\item{\ccode{sexp_cons(sexp ctx, sexp obj1, sexp obj2)} - create a new pair whose car is \var{obj1} and whose cdr is \var{obj2}} \item{\ccode{sexp_cons(sexp ctx, sexp obj1, sexp obj2)} - create a new pair whose car is \var{obj1} and whose cdr is \var{obj2}}
\item{\ccode{sexp_list1(sexp ctx, sexp obj)} - alias for sexp_cons(ctx, obj, SEXP_NULL)} \item{\ccode{sexp_list1(sexp ctx, sexp obj)} - alias for sexp_cons(ctx, obj, SEXP_NULL)}
\item{\ccode{sexp_list2(sexp ctx, sexp obj1, sexp obj2)} - create a list of two elements} \item{\ccode{sexp_list2(sexp ctx, sexp obj1, sexp obj2)} - create a list of two elements}
\item{\ccode{sexp_list3(sexp ctx, sexp obj1, sexp obj2, sexp obj3)} - create a list of three elements}
\item{\ccode{sexp_make_string(sexp ctx, sexp len, sexp ch)} - create a new Scheme string of \var{len} characters, all initialized to \var{ch}} \item{\ccode{sexp_make_string(sexp ctx, sexp len, sexp ch)} - create a new Scheme string of \var{len} characters, all initialized to \var{ch}}
\item{\ccode{sexp_c_string(sexp ctx, const char* str, int len)} - create a new Scheme string copying the first \var{len} characters of the C string \var{str}. If \var{len} is -1, uses strlen(\var{str}).} \item{\ccode{sexp_c_string(sexp ctx, const char* str, int len)} - create a new Scheme string copying the first \var{len} characters of the C string \var{str}. If \var{len} is -1, uses strlen(\var{str}).}
\item{\ccode{sexp_intern(sexp ctx, const char* str, int len)} - interns a symbol from the first \var{len} characters of the C string \var{str}. If \var{len} is -1, uses strlen(\var{str}).} \item{\ccode{sexp_intern(sexp ctx, const char* str, int len)} - interns a symbol from the first \var{len} characters of the C string \var{str}. If \var{len} is -1, uses strlen(\var{str}).}
@ -850,7 +855,7 @@ Any of these may fail and return the OOM exception object.
\item{\ccode{sexp_assq(sexp ctx, sexp x, sexp ls)} - \scheme{assq}} \item{\ccode{sexp_assq(sexp ctx, sexp x, sexp ls)} - \scheme{assq}}
\item{\ccode{sexp_reverse(sexp ctx, sexp ls)} - \scheme{reverse}} \item{\ccode{sexp_reverse(sexp ctx, sexp ls)} - \scheme{reverse}}
\item{\ccode{sexp_nreverse(sexp ctx, sexp ls)} - \scheme{reverse!}} \item{\ccode{sexp_nreverse(sexp ctx, sexp ls)} - \scheme{reverse!}}
\item{\ccode{sexp_append2(sexp ctx, sexp ls)} - \scheme{append} for two arguments} \item{\ccode{sexp_append2(sexp ctx, sexp ls1, sexp ls2)} - \scheme{append} for two arguments}
\item{\ccode{sexp_copy_list(sexp ctx, sexp ls)} - return a shallow copy of \var{ls}} \item{\ccode{sexp_copy_list(sexp ctx, sexp ls)} - return a shallow copy of \var{ls}}
\item{\ccode{sexp_list_to_vector(sexp ctx, sexp ls)} - \scheme{list->vector}} \item{\ccode{sexp_list_to_vector(sexp ctx, sexp ls)} - \scheme{list->vector}}
\item{\ccode{sexp_symbol_to_string(sexp ctx, sexp sym)} - \scheme{symbol->string}} \item{\ccode{sexp_symbol_to_string(sexp ctx, sexp sym)} - \scheme{symbol->string}}