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;;; DO NOT MODIFY THIS FILE
(if (featurep 'mule-autoloads) (error "Already loaded"))
;;;### (autoloads (ccl-execute-with-args check-ccl-program define-ccl-program declare-ccl-program ccl-dump ccl-compile) "mule-ccl" "mule/mule-ccl.el")
(autoload 'ccl-compile "mule-ccl" "\
Return a compiled code of CCL-PROGRAM as a vector of integer." nil nil)
(autoload 'ccl-dump "mule-ccl" "\
Disassemble compiled CCL-CODE." nil nil)
(autoload 'declare-ccl-program "mule-ccl" "\
Declare NAME as a name of CCL program.
This macro exists for backward compatibility. In the old version of
Emacs, to compile a CCL program which calls another CCL program not
yet defined, it must be declared as a CCL program in advance. But,
now CCL program names are resolved not at compile time but before
execution.
Optional arg VECTOR is a compiled CCL code of the CCL program." nil 'macro)
(autoload 'define-ccl-program "mule-ccl" "\
Set NAME the compiled code of CCL-PROGRAM.
CCL-PROGRAM has this form:
(BUFFER_MAGNIFICATION
CCL_MAIN_CODE
[ CCL_EOF_CODE ])
BUFFER_MAGNIFICATION is an integer value specifying the approximate
output buffer magnification size compared with the bytes of input data
text. If the value is zero, the CCL program can't execute `read' and
`write' commands.
CCL_MAIN_CODE and CCL_EOF_CODE are CCL program codes. CCL_MAIN_CODE
executed at first. If there's no more input data when `read' command
is executed in CCL_MAIN_CODE, CCL_EOF_CODE is executed. If
CCL_MAIN_CODE is terminated, CCL_EOF_CODE is not executed.
Here's the syntax of CCL program code in BNF notation. The lines
starting by two semicolons (and optional leading spaces) describe the
semantics.
CCL_MAIN_CODE := CCL_BLOCK
CCL_EOF_CODE := CCL_BLOCK
CCL_BLOCK := STATEMENT | (STATEMENT [STATEMENT ...])
STATEMENT :=
SET | IF | BRANCH | LOOP | REPEAT | BREAK | READ | WRITE | CALL
| TRANSLATE | END
SET := (REG = EXPRESSION)
| (REG ASSIGNMENT_OPERATOR EXPRESSION)
;; The following form is the same as (r0 = integer).
| integer
EXPRESSION := ARG | (EXPRESSION OPERATOR ARG)
;; Evaluate EXPRESSION. If the result is nonzeor, execute
;; CCL_BLOCK_0. Otherwise, execute CCL_BLOCK_1.
IF := (if EXPRESSION CCL_BLOCK_0 CCL_BLOCK_1)
;; Evaluate EXPRESSION. Provided that the result is N, execute
;; CCL_BLOCK_N.
BRANCH := (branch EXPRESSION CCL_BLOCK_0 [CCL_BLOCK_1 ...])
;; Execute STATEMENTs until (break) or (end) is executed.
LOOP := (loop STATEMENT [STATEMENT ...])
;; Terminate the most inner loop.
BREAK := (break)
REPEAT :=
;; Jump to the head of the most inner loop.
(repeat)
;; Same as: ((write [REG | integer | string])
;; (repeat))
| (write-repeat [REG | integer | string])
;; Same as: ((write REG [ARRAY])
;; (read REG)
;; (repeat))
| (write-read-repeat REG [ARRAY])
;; Same as: ((write integer)
;; (read REG)
;; (repeat))
| (write-read-repeat REG integer)
READ := ;; Set REG_0 to a byte read from the input text, set REG_1
;; to the next byte read, and so on.
(read REG_0 [REG_1 ...])
;; Same as: ((read REG)
;; (if (REG OPERATOR ARG) CCL_BLOCK_0 CCL_BLOCK_1))
| (read-if (REG OPERATOR ARG) CCL_BLOCK_0 CCL_BLOCK_1)
;; Same as: ((read REG)
;; (branch REG CCL_BLOCK_0 [CCL_BLOCK_1 ...]))
| (read-branch REG CCL_BLOCK_0 [CCL_BLOCK_1 ...])
;; Read a character from the input text while parsing
;; multibyte representation, set REG_0 to the charset ID of
;; the character, set REG_1 to the code point of the
;; character. If the dimension of charset is two, set REG_1
;; to ((CODE0 << 8) | CODE1), where CODE0 is the first code
;; point and CODE1 is the second code point.
| (read-multibyte-character REG_0 REG_1)
WRITE :=
;; Write REG_0, REG_1, ... to the output buffer. If REG_N is
;; a multibyte character, write the corresponding multibyte
;; representation.
(write REG_0 [REG_1 ...])
;; Same as: ((r7 = EXPRESSION)
;; (write r7))
| (write EXPRESSION)
;; Write the value of `integer' to the output buffer. If it
;; is a multibyte character, write the corresponding multibyte
;; representation.
| (write integer)
;; Write the byte sequence of `string' as is to the output
;; buffer. It is encoded by binary coding system, thus,
;; by this operation, you cannot write multibyte string
;; as it is.
| (write string)
;; Same as: (write string)
| string
;; Provided that the value of REG is N, write Nth element of
;; ARRAY to the output buffer. If it is a multibyte
;; character, write the corresponding multibyte
;; representation.
| (write REG ARRAY)
;; Write a multibyte representation of a character whose
;; charset ID is REG_0 and code point is REG_1. If the
;; dimension of the charset is two, REG_1 should be ((CODE0 <<
;; 8) | CODE1), where CODE0 is the first code point and CODE1
;; is the second code point of the character.
| (write-multibyte-character REG_0 REG_1)
;; Call CCL program whose name is ccl-program-name.
CALL := (call ccl-program-name)
;; Terminate the CCL program.
END := (end)
;; CCL registers that can contain any integer value. As r7 is also
;; used by CCL interpreter, its value is changed unexpectedly.
REG := r0 | r1 | r2 | r3 | r4 | r5 | r6 | r7
ARG := REG | integer
OPERATOR :=
;; Normal arithmethic operators (same meaning as C code).
+ | - | * | / | %
;; Bitwize operators (same meaning as C code)
| & | `|' | ^
;; Shifting operators (same meaning as C code)
| << | >>
;; (REG = ARG_0 <8 ARG_1) means:
;; (REG = ((ARG_0 << 8) | ARG_1))
| <8
;; (REG = ARG_0 >8 ARG_1) means:
;; ((REG = (ARG_0 >> 8))
;; (r7 = (ARG_0 & 255)))
| >8
;; (REG = ARG_0 // ARG_1) means:
;; ((REG = (ARG_0 / ARG_1))
;; (r7 = (ARG_0 % ARG_1)))
| //
;; Normal comparing operators (same meaning as C code)
| < | > | == | <= | >= | !=
;; If ARG_0 and ARG_1 are higher and lower byte of Shift-JIS
;; code, and CHAR is the corresponding JISX0208 character,
;; (REG = ARG_0 de-sjis ARG_1) means:
;; ((REG = CODE0)
;; (r7 = CODE1))
;; where CODE0 is the first code point of CHAR, CODE1 is the
;; second code point of CHAR.
| de-sjis
;; If ARG_0 and ARG_1 are the first and second code point of
;; JISX0208 character CHAR, and SJIS is the correponding
;; Shift-JIS code,
;; (REG = ARG_0 en-sjis ARG_1) means:
;; ((REG = HIGH)
;; (r7 = LOW))
;; where HIGH is the higher byte of SJIS, LOW is the lower
;; byte of SJIS.
| en-sjis
ASSIGNMENT_OPERATOR :=
;; Same meaning as C code
+= | -= | *= | /= | %= | &= | `|=' | ^= | <<= | >>=
;; (REG <8= ARG) is the same as:
;; ((REG <<= 8)
;; (REG |= ARG))
| <8=
;; (REG >8= ARG) is the same as:
;; ((r7 = (REG & 255))
;; (REG >>= 8))
;; (REG //= ARG) is the same as:
;; ((r7 = (REG % ARG))
;; (REG /= ARG))
| //=
ARRAY := `[' integer ... `]'
TRANSLATE :=
(translate-character REG(table) REG(charset) REG(codepoint))
| (translate-character SYMBOL REG(charset) REG(codepoint))
MAP :=
(iterate-multiple-map REG REG MAP-IDs)
| (map-multiple REG REG (MAP-SET))
| (map-single REG REG MAP-ID)
MAP-IDs := MAP-ID ...
MAP-SET := MAP-IDs | (MAP-IDs) MAP-SET
MAP-ID := integer
" nil 'macro)
(autoload 'check-ccl-program "mule-ccl" "\
Check validity of CCL-PROGRAM.
If CCL-PROGRAM is a symbol denoting a CCL program, return
CCL-PROGRAM, else return nil.
If CCL-PROGRAM is a vector and optional arg NAME (symbol) is supplied,
register CCL-PROGRAM by name NAME, and return NAME." nil 'macro)
(autoload 'ccl-execute-with-args "mule-ccl" "\
Execute CCL-PROGRAM with registers initialized by the remaining args.
The return value is a vector of resulting CCL registers.
See the documentation of `define-ccl-program' for the detail of CCL program." nil nil)
;;;***
(provide 'mule-autoloads)
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