*/ REBINT CT_Logic(REBVAL *a, REBVAL *b, REBINT mode)
/*
***********************************************************************/
{
if (mode >= 0) return (VAL_LOGIC(a) == VAL_LOGIC(b));
return -1;
}
*/ REBINT Get_Num_Arg(REBVAL *val)
/*
** Get the amount to skip or pick.
** Allow multiple types. Throw error if not valid.
** Note that the result is one-based.
**
***********************************************************************/
{
REBINT n;
if (IS_INTEGER(val)) {
if (VAL_INT64(val) > (i64)MAX_I32 || VAL_INT64(val) < (i64)MIN_I32)
Trap_Range(val);
n = VAL_INT32(val);
}
else if (IS_DECIMAL(val) || IS_PERCENT(val)) {
if (VAL_DECIMAL(val) > MAX_I32 || VAL_DECIMAL(val) < MIN_I32)
Trap_Range(val);
n = (REBINT)VAL_DECIMAL(val);
}
else if (IS_LOGIC(val)) n = (VAL_LOGIC(val) ? 1 : 2);
else Trap_Arg(val);
return n;
}
*/ REBFLG Get_Logic_Arg(REBVAL *arg)
/*
***********************************************************************/
{
if (IS_NONE(arg)) return 0;
if (IS_INTEGER(arg)) return (VAL_INT64(arg) != 0);
if (IS_LOGIC(arg)) return (VAL_LOGIC(arg) != 0);
if (IS_DECIMAL(arg) || IS_PERCENT(arg)) return (VAL_DECIMAL(arg) != 0.0);
Trap_Arg(arg);
DEAD_END;
}
*/ REBINT Awake_System(REBSER *ports, REBINT only)
/*
** Returns:
** -1 for errors
** 0 for nothing to do
** 1 for wait is satisifed
**
***********************************************************************/
{
REBVAL *port;
REBVAL *state;
REBVAL *waked;
REBVAL *awake;
REBVAL tmp;
REBVAL ref_only;
REBINT result;
REBVAL out;
// Get the system port object:
port = Get_System(SYS_PORTS, PORTS_SYSTEM);
if (!IS_PORT(port)) return -10; // verify it is a port object
// Get wait queue block (the state field):
state = VAL_OBJ_VALUE(port, STD_PORT_STATE);
if (!IS_BLOCK(state)) return -10;
//Debug_Num("S", VAL_TAIL(state));
// Get waked queue block:
waked = VAL_OBJ_VALUE(port, STD_PORT_DATA);
if (!IS_BLOCK(waked)) return -10;
// If there is nothing new to do, return now:
if (VAL_TAIL(state) == 0 && VAL_TAIL(waked) == 0) return -1;
//Debug_Num("A", VAL_TAIL(waked));
// Get the system port AWAKE function:
awake = VAL_OBJ_VALUE(port, STD_PORT_AWAKE);
if (!ANY_FUNC(awake)) return -1;
if (ports) Val_Init_Block(&tmp, ports);
else SET_NONE(&tmp);
if (only) SET_TRUE(&ref_only);
else SET_NONE(&ref_only);
// Call the system awake function:
if (Apply_Func_Throws(&out, awake, port, &tmp, &ref_only, 0))
raise Error_No_Catch_For_Throw(&out);
// Awake function returns 1 for end of WAIT:
result = (IS_LOGIC(&out) && VAL_LOGIC(&out)) ? 1 : 0;
return result;
}
STOID Mold_Logic(REB_MOLD *mold, REBVAL *value)
{
REBYTE buf[20];
Pre_Mold(value, mold);
INT_TO_STR(VAL_LOGIC(value), buf);
Append_Bytes(mold->series, buf);
Append_Byte(mold->series, ' ');
old_Block_Series(mold, BLK_HEAD(VAL_LOGIC_WORDS(value)), 0);
End_Mold(mold);
}
*/ void Do_Action(REBVAL *func)
/*
***********************************************************************/
{
REBVAL *ds = DS_OUT;
REBCNT type = VAL_TYPE(D_ARG(1));
Eval_Natives++;
assert(type < REB_MAX);
// Handle special datatype test cases (eg. integer?)
if (VAL_FUNC_ACT(func) == 0) {
VAL_SET(D_OUT, REB_LOGIC);
VAL_LOGIC(D_OUT) = (type == VAL_INT64(BLK_LAST(VAL_FUNC_SPEC(func))));
return;
}
Do_Act(D_OUT, type, VAL_FUNC_ACT(func));
}
//
// Get_Num_From_Arg: C
//
// Get the amount to skip or pick.
// Allow multiple types. Throw error if not valid.
// Note that the result is one-based.
//
REBINT Get_Num_From_Arg(const REBVAL *val)
{
REBINT n;
if (IS_INTEGER(val)) {
if (VAL_INT64(val) > (i64)MAX_I32 || VAL_INT64(val) < (i64)MIN_I32)
fail (Error_Out_Of_Range(val));
n = VAL_INT32(val);
}
else if (IS_DECIMAL(val) || IS_PERCENT(val)) {
if (VAL_DECIMAL(val) > MAX_I32 || VAL_DECIMAL(val) < MIN_I32)
fail (Error_Out_Of_Range(val));
n = (REBINT)VAL_DECIMAL(val);
}
else if (IS_LOGIC(val))
n = (VAL_LOGIC(val) ? 1 : 2);
else
fail (Error_Invalid_Arg(val));
return n;
}
//
// Do_Breakpoint_Throws: C
//
// A call to Do_Breakpoint_Throws does delegation to a hook in the host, which
// (if registered) will generally start an interactive session for probing the
// environment at the break. The `resume` native cooperates by being able to
// give back a value (or give back code to run to produce a value) that the
// call to breakpoint returns.
//
// RESUME has another feature, which is to be able to actually unwind and
// simulate a return /AT a function *further up the stack*. (This may be
// switched to a feature of a "STEP OUT" command at some point.)
//
REBOOL Do_Breakpoint_Throws(
REBVAL *out,
REBOOL interrupted, // Ctrl-C (as opposed to a BREAKPOINT)
const REBVAL *default_value,
REBOOL do_default
) {
REBVAL *target = NONE_VALUE;
REBVAL temp;
VAL_INIT_WRITABLE_DEBUG(&temp);
if (!PG_Breakpoint_Quitting_Hook) {
//
// Host did not register any breakpoint handler, so raise an error
// about this as early as possible.
//
fail (Error(RE_HOST_NO_BREAKPOINT));
}
// We call the breakpoint hook in a loop, in order to keep running if any
// inadvertent FAILs or THROWs occur during the interactive session.
// Only a conscious call of RESUME speaks the protocol to break the loop.
//
while (TRUE) {
struct Reb_State state;
REBCTX *error;
push_trap:
PUSH_TRAP(&error, &state);
// The host may return a block of code to execute, but cannot
// while evaluating do a THROW or a FAIL that causes an effective
// "resumption". Halt is the exception, hence we PUSH_TRAP and
// not PUSH_UNHALTABLE_TRAP. QUIT is also an exception, but a
// desire to quit is indicated by the return value of the breakpoint
// hook (which may or may not decide to request a quit based on the
// QUIT command being run).
//
// The core doesn't want to get involved in presenting UI, so if
// an error makes it here and wasn't trapped by the host first that
// is a bug in the host. It should have done its own PUSH_TRAP.
//
if (error) {
#if !defined(NDEBUG)
REBVAL error_value;
VAL_INIT_WRITABLE_DEBUG(&error_value);
Val_Init_Error(&error_value, error);
PROBE_MSG(&error_value, "Error not trapped during breakpoint:");
Panic_Array(CTX_VARLIST(error));
#endif
// In release builds, if an error managed to leak out of the
// host's breakpoint hook somehow...just re-push the trap state
// and try it again.
//
goto push_trap;
}
// Call the host's breakpoint hook.
//
if (PG_Breakpoint_Quitting_Hook(&temp, interrupted)) {
//
// If a breakpoint hook returns TRUE that means it wants to quit.
// The value should be the /WITH value (as in QUIT/WITH)
//
assert(!THROWN(&temp));
*out = *ROOT_QUIT_NATIVE;
CONVERT_NAME_TO_THROWN(out, &temp, FALSE);
return TRUE; // TRUE = threw
}
// If a breakpoint handler returns FALSE, then it should have passed
// back a "resume instruction" triggered by a call like:
//
// resume/do [fail "This is how to fail from a breakpoint"]
//
// So now that the handler is done, we will allow any code handed back
// to do whatever FAIL it likes vs. trapping that here in a loop.
//
DROP_TRAP_SAME_STACKLEVEL_AS_PUSH(&state);
// Decode and process the "resume instruction"
{
struct Reb_Frame *frame;
REBVAL *mode;
REBVAL *payload;
assert(IS_GROUP(&temp));
assert(VAL_LEN_HEAD(&temp) == RESUME_INST_MAX);
mode = VAL_ARRAY_AT_HEAD(&temp, RESUME_INST_MODE);
payload = VAL_ARRAY_AT_HEAD(&temp, RESUME_INST_PAYLOAD);
target = VAL_ARRAY_AT_HEAD(&temp, RESUME_INST_TARGET);
// The first thing we need to do is determine if the target we
// want to return to has another breakpoint sandbox blocking
// us. If so, what we need to do is actually retransmit the
// resume instruction so it can break that wall, vs. transform
// it into an EXIT/FROM that would just get intercepted.
//
if (!IS_NONE(target)) {
#if !defined(NDEBUG)
REBOOL found = FALSE;
#endif
for (frame = FS_TOP; frame != NULL; frame = frame->prior) {
if (frame->mode != CALL_MODE_FUNCTION)
continue;
if (
frame != FS_TOP
&& FUNC_CLASS(frame->func) == FUNC_CLASS_NATIVE
&& (
FUNC_CODE(frame->func) == &N_pause
|| FUNC_CODE(frame->func) == &N_breakpoint
)
) {
// We hit a breakpoint (that wasn't this call to
// breakpoint, at the current FS_TOP) before finding
// the sought after target. Retransmit the resume
// instruction so that level will get it instead.
//
*out = *ROOT_RESUME_NATIVE;
CONVERT_NAME_TO_THROWN(out, &temp, FALSE);
return TRUE; // TRUE = thrown
}
if (IS_FRAME(target)) {
if (NOT(frame->flags & DO_FLAG_FRAME_CONTEXT))
continue;
if (
VAL_CONTEXT(target)
== AS_CONTEXT(frame->data.context)
) {
// Found a closure matching the target before we
// reached a breakpoint, no need to retransmit.
//
#if !defined(NDEBUG)
found = TRUE;
#endif
break;
}
}
else {
assert(IS_FUNCTION(target));
if (frame->flags & DO_FLAG_FRAME_CONTEXT)
continue;
if (VAL_FUNC(target) == frame->func) {
//
// Found a function matching the target before we
// reached a breakpoint, no need to retransmit.
//
#if !defined(NDEBUG)
found = TRUE;
#endif
break;
}
}
}
// RESUME should not have been willing to use a target that
// is not on the stack.
//
#if !defined(NDEBUG)
assert(found);
#endif
}
if (IS_NONE(mode)) {
//
// If the resume instruction had no /DO or /WITH of its own,
// then it doesn't override whatever the breakpoint provided
// as a default. (If neither the breakpoint nor the resume
// provided a /DO or a /WITH, result will be UNSET.)
//
goto return_default; // heeds `target`
}
assert(IS_LOGIC(mode));
if (VAL_LOGIC(mode)) {
if (DO_VAL_ARRAY_AT_THROWS(&temp, payload)) {
//
// Throwing is not compatible with /AT currently.
//
if (!IS_NONE(target))
fail (Error_No_Catch_For_Throw(&temp));
// Just act as if the BREAKPOINT call itself threw
//
*out = temp;
return TRUE; // TRUE = thrown
}
// Ordinary evaluation result...
}
else
temp = *payload;
}
// The resume instruction will be GC'd.
//
goto return_temp;
}
DEAD_END;
return_default:
if (do_default) {
if (DO_VAL_ARRAY_AT_THROWS(&temp, default_value)) {
//
// If the code throws, we're no longer in the sandbox...so we
// bubble it up. Note that breakpoint runs this code at its
// level... so even if you request a higher target, any throws
// will be processed as if they originated at the BREAKPOINT
// frame. To do otherwise would require the EXIT/FROM protocol
// to add support for DO-ing at the receiving point.
//
*out = temp;
return TRUE; // TRUE = thrown
}
}
else
temp = *default_value; // generally UNSET! if no /WITH
return_temp:
// The easy case is that we just want to return from breakpoint
// directly, signaled by the target being NONE!.
//
if (IS_NONE(target)) {
*out = temp;
return FALSE; // FALSE = not thrown
}
// If the target is a function, then we're looking to simulate a return
// from something up the stack. This uses the same mechanic as
// definitional returns--a throw named by the function or closure frame.
//
// !!! There is a weak spot in definitional returns for FUNCTION! that
// they can only return to the most recent invocation; which is a weak
// spot of FUNCTION! in general with stack relative variables. Also,
// natives do not currently respond to definitional returns...though
// they can do so just as well as FUNCTION! can.
//
*out = *target;
CONVERT_NAME_TO_THROWN(out, &temp, TRUE);
return TRUE; // TRUE = thrown
}
*/ void Mold_Value(REB_MOLD *mold, REBVAL *value, REBFLG molded)
/*
** Mold or form any value to string series tail.
**
***********************************************************************/
{
REBYTE buf[60];
REBINT len;
REBSER *ser = mold->series;
CHECK_STACK(&len);
ASSERT2(SERIES_WIDE(mold->series) == sizeof(REBUNI), RP_BAD_SIZE);
ASSERT2(ser, RP_NO_BUFFER);
// Special handling of string series: {
if (ANY_STR(value) && !IS_TAG(value)) {
// Forming a string:
if (!molded) {
Insert_String(ser, -1, VAL_SERIES(value), VAL_INDEX(value), VAL_LEN(value), 0);
return;
}
// Special format for ALL string series when not at head:
if (GET_MOPT(mold, MOPT_MOLD_ALL) && VAL_INDEX(value) != 0) {
Mold_All_String(value, mold);
return;
}
}
switch (VAL_TYPE(value)) {
case REB_NONE:
Emit(mold, "+N", SYM_NONE);
break;
case REB_LOGIC:
// if (!molded || !VAL_LOGIC_WORDS(value) || !GET_MOPT(mold, MOPT_MOLD_ALL))
Emit(mold, "+N", VAL_LOGIC(value) ? SYM_TRUE : SYM_FALSE);
// else
// Mold_Logic(mold, value);
break;
case REB_INTEGER:
len = Emit_Integer(buf, VAL_INT64(value));
goto append;
case REB_DECIMAL:
case REB_PERCENT:
len = Emit_Decimal(buf, VAL_DECIMAL(value), IS_PERCENT(value)?DEC_MOLD_PERCENT:0,
Punctuation[GET_MOPT(mold, MOPT_COMMA_PT) ? PUNCT_COMMA : PUNCT_DOT], mold->digits);
goto append;
case REB_MONEY:
len = Emit_Money(value, buf, mold->opts);
goto append;
case REB_CHAR:
Mold_Uni_Char(ser, VAL_CHAR(value), (REBOOL)molded, (REBOOL)GET_MOPT(mold, MOPT_MOLD_ALL));
break;
case REB_PAIR:
len = Emit_Decimal(buf, VAL_PAIR_X(value), DEC_MOLD_MINIMAL, Punctuation[PUNCT_DOT], mold->digits/2);
Append_Bytes_Len(ser, buf, len);
Append_Byte(ser, 'x');
len = Emit_Decimal(buf, VAL_PAIR_Y(value), DEC_MOLD_MINIMAL, Punctuation[PUNCT_DOT], mold->digits/2);
Append_Bytes_Len(ser, buf, len);
//Emit(mold, "IxI", VAL_PAIR_X(value), VAL_PAIR_Y(value));
break;
case REB_TUPLE:
len = Emit_Tuple(value, buf);
goto append;
case REB_TIME:
//len = Emit_Time(value, buf, Punctuation[GET_MOPT(mold, MOPT_COMMA_PT) ? PUNCT_COMMA : PUNCT_DOT]);
Emit_Time(mold, value);
break;
case REB_DATE:
Emit_Date(mold, value);
break;
case REB_STRING:
// FORM happens in top section.
Mold_String_Series(value, mold);
break;
case REB_BINARY:
if (GET_MOPT(mold, MOPT_MOLD_ALL) && VAL_INDEX(value) != 0) {
Mold_All_String(value, mold);
return;
}
Mold_Binary(value, mold);
break;
case REB_FILE:
if (VAL_LEN(value) == 0) {
Append_Bytes(ser, "%\"\"");
break;
}
Mold_File(value, mold);
break;
case REB_EMAIL:
case REB_URL:
Mold_Url(value, mold);
break;
case REB_TAG:
if (GET_MOPT(mold, MOPT_MOLD_ALL) && VAL_INDEX(value) != 0) {
Mold_All_String(value, mold);
return;
}
Mold_Tag(value, mold);
break;
// Mold_Issue(value, mold);
// break;
case REB_BITSET:
Pre_Mold(value, mold); // #[bitset! or make bitset!
Mold_Bitset(value, mold);
End_Mold(mold);
break;
case REB_IMAGE:
Pre_Mold(value, mold);
if (!GET_MOPT(mold, MOPT_MOLD_ALL)) {
Append_Byte(ser, '[');
Mold_Image_Data(value, mold);
Append_Byte(ser, ']');
End_Mold(mold);
}
else {
REBVAL val = *value;
VAL_INDEX(&val) = 0; // mold all of it
Mold_Image_Data(&val, mold);
Post_Mold(value, mold);
}
break;
case REB_BLOCK:
case REB_PAREN:
if (!molded)
Form_Block_Series(VAL_SERIES(value), VAL_INDEX(value), mold, 0);
else
Mold_Block(value, mold);
break;
case REB_PATH:
case REB_SET_PATH:
case REB_GET_PATH:
case REB_LIT_PATH:
Mold_Block(value, mold);
break;
case REB_VECTOR:
Mold_Vector(value, mold, molded);
break;
case REB_DATATYPE:
if (!molded)
Emit(mold, "N", VAL_DATATYPE(value) + 1);
else
Emit(mold, "+DN", SYM_DATATYPE_TYPE, VAL_DATATYPE(value) + 1);
break;
case REB_TYPESET:
Mold_Typeset(value, mold, molded);
break;
case REB_WORD:
// This is a high frequency function, so it is optimized.
Append_UTF8(ser, Get_Sym_Name(VAL_WORD_SYM(value)), -1);
break;
case REB_SET_WORD:
Emit(mold, "W:", value);
break;
case REB_GET_WORD:
Emit(mold, ":W", value);
break;
case REB_LIT_WORD:
Emit(mold, "\'W", value);
break;
case REB_REFINEMENT:
Emit(mold, "/W", value);
break;
case REB_ISSUE:
Emit(mold, "#W", value);
break;
case REB_CLOSURE:
case REB_FUNCTION:
case REB_NATIVE:
case REB_ACTION:
case REB_COMMAND:
Mold_Function(value, mold);
break;
case REB_OBJECT:
case REB_MODULE:
case REB_PORT:
if (!molded) Form_Object(value, mold);
else Mold_Object(value, mold);
break;
case REB_TASK:
Mold_Object(value, mold); //// | (1<<MOPT_NO_NONE));
break;
case REB_ERROR:
Mold_Error(value, mold, molded);
break;
case REB_MAP:
Mold_Map(value, mold, molded);
break;
case REB_GOB:
{
REBSER *blk;
Pre_Mold(value, mold);
blk = Gob_To_Block(VAL_GOB(value));
Mold_Block_Series(mold, blk, 0, 0);
End_Mold(mold);
}
break;
case REB_EVENT:
Mold_Event(value, mold);
break;
case REB_REBCODE:
case REB_OP:
case REB_FRAME:
case REB_HANDLE:
case REB_STRUCT:
case REB_LIBRARY:
case REB_UTYPE:
// Value has no printable form, so just print its name.
if (!molded) Emit(mold, "?T?", value);
else Emit(mold, "+T", value);
break;
case REB_END:
case REB_UNSET:
if (molded) Emit(mold, "+T", value);
break;
default:
Crash(RP_DATATYPE+5, VAL_TYPE(value));
}
return;
append:
Append_Bytes_Len(ser, buf, len);
}
*/ REBINT Text_Gob(void *richtext, REBSER *block)
/*
** Handles all commands for the TEXT dialect as specified
** in the system/dialects/text object.
**
** This function calls the REBOL_Dialect interpreter to
** parse the dialect and build and return the command number
** (the index offset in the text object above) and a block
** of arguments. (For now, just a REBOL block, but this could
** be changed to isolate it from changes in REBOL's internals).
**
** Each arg will be of the specified datatype (given in the
** dialect) or NONE when no argument of that type was given
** and this code must determine the proper default value.
**
** If the cmd result is zero, then it is either the end of
** the block, or an error has occurred. If the error value
** is non-zero, then it was an error.
**
***********************************************************************/
{
REBCNT index = 0;
REBINT cmd;
REBSER *args = 0;
REBVAL *arg;
REBCNT nargs;
//font object conversion related values
REBFNT* font;
REBVAL* val;
REBPAR offset;
REBPAR space;
//para object conversion related values
REBPRA* para;
REBPAR origin;
REBPAR margin;
REBPAR indent;
REBPAR scroll;
do {
cmd = Reb_Dialect(DIALECTS_TEXT, block, &index, &args);
if (cmd == 0) return 0;
if (cmd < 0) {
// Reb_Print("ERROR: %d, Index %d", -cmd, index);
return -((REBINT)index+1);
}
// else
// Reb_Print("TEXT: Cmd %d, Index %d, Args %m", cmd, index, args);
arg = BLK_HEAD(args);
nargs = SERIES_TAIL(args);
// Reb_Print("Number of args: %d", nargs);
switch (cmd) {
case TW_TYPE_SPEC:
if (IS_STRING(arg)) {
rt_text(richtext, ARG_STRING(0), index);
} else if (IS_TUPLE(arg)) {
rt_color(richtext, ARG_TUPLE(0));
}
break;
case TW_ANTI_ALIAS:
rt_anti_alias(richtext, ARG_OPT_LOGIC(0));
break;
case TW_SCROLL:
rt_scroll(richtext, ARG_PAIR(0));
break;
case TW_BOLD:
case TW_B:
rt_bold(richtext, ARG_OPT_LOGIC(0));
break;
case TW_ITALIC:
case TW_I:
rt_italic(richtext, ARG_OPT_LOGIC(0));
break;
case TW_UNDERLINE:
case TW_U:
rt_underline(richtext, ARG_OPT_LOGIC(0));
break;
case TW_CENTER:
rt_center(richtext);
break;
case TW_LEFT:
rt_left(richtext);
break;
case TW_RIGHT:
rt_right(richtext);
break;
case TW_FONT:
if (!IS_OBJECT(arg)) break;
font = (REBFNT*)rt_get_font(richtext);
val = BLK_HEAD(ARG_OBJECT(0))+1;
if (IS_STRING(val)) {
font->name = VAL_STRING(val);
}
// Reb_Print("font/name: %s", font->name);
val++;
if (IS_BLOCK(val)) {
REBSER* styles = VAL_SERIES(val);
REBVAL* slot = BLK_HEAD(styles);
REBCNT len = SERIES_TAIL(styles) ,i;
for (i = 0;i<len;i++){
if (IS_WORD(slot+i)){
set_font_styles(font, slot+i);
}
}
} else if (IS_WORD(val)) {
set_font_styles(font, val);
}
val++;
if (IS_INTEGER(val)) {
font->size = VAL_INT32(val);
}
// Reb_Print("font/size: %d", font->size);
val++;
if ((IS_TUPLE(val)) || (IS_NONE(val))) {
COPY_MEM(font->color,VAL_TUPLE(val), 4);
}
// Reb_Print("font/color: %d.%d.%d.%d", font->color[0],font->color[1],font->color[2],font->color[3]);
val++;
if ((IS_PAIR(val)) || (IS_NONE(val))) {
offset = VAL_PAIR(val);
font->offset_x = offset.x;
font->offset_y = offset.y;
}
// Reb_Print("font/offset: %dx%d", offset.x,offset.y);
val++;
if ((IS_PAIR(val)) || (IS_NONE(val))) {
space = VAL_PAIR(val);
font->space_x = space.x;
font->space_y = space.y;
}
// Reb_Print("font/space: %dx%d", space.x, space.y);
val++;
font->shadow_x = 0;
font->shadow_y = 0;
if (IS_BLOCK(val)) {
REBSER* ser = VAL_SERIES(val);
REBVAL* slot = BLK_HEAD(ser);
REBCNT len = SERIES_TAIL(ser) ,i;
for (i = 0;i<len;i++){
if (IS_PAIR(slot)) {
REBPAR shadow = VAL_PAIR(slot);
font->shadow_x = shadow.x;
font->shadow_y = shadow.y;
} else if (IS_TUPLE(slot)) {
COPY_MEM(font->shadow_color,VAL_TUPLE(slot), 4);
} else if (IS_INTEGER(slot)) {
font->shadow_blur = VAL_INT32(slot);
}
slot++;
}
} else if (IS_PAIR(val)) {
REBPAR shadow = VAL_PAIR(val);
font->shadow_x = shadow.x;
font->shadow_y = shadow.y;
}
rt_font(richtext, font);
break;
case TW_PARA:
if (!IS_OBJECT(arg)) break;
para = (REBPRA*)rt_get_para(richtext);
val = BLK_HEAD(ARG_OBJECT(0))+1;
if (IS_PAIR(val)) {
origin = VAL_PAIR(val);
para->origin_x = origin.x;
para->origin_y = origin.y;
}
// Reb_Print("para/origin: %dx%d", origin.x, origin.y);
val++;
if (IS_PAIR(val)) {
margin = VAL_PAIR(val);
para->margin_x = margin.x;
para->margin_y = margin.y;
}
// Reb_Print("para/margin: %dx%d", margin.x, margin.y);
val++;
if (IS_PAIR(val)) {
indent = VAL_PAIR(val);
para->indent_x = indent.x;
para->indent_y = indent.y;
}
// Reb_Print("para/indent: %dx%d", indent.x, indent.y);
val++;
if (IS_INTEGER(val)) {
para->tabs = VAL_INT32(val);
}
// Reb_Print("para/tabs: %d", para->tabs);
val++;
if (IS_LOGIC(val)) {
para->wrap = VAL_LOGIC(val);
}
// Reb_Print("para/wrap?: %d", para->wrap);
val++;
if (IS_PAIR(val)) {
scroll = VAL_PAIR(val);
para->scroll_x = scroll.x;
para->scroll_y = scroll.y;
}
// Reb_Print("para/scroll: %dx%d", scroll.x, scroll.y);
val++;
if (IS_WORD(val)) {
REBINT result = Reb_Find_Word(VAL_WORD_SYM(val), Symbol_Ids, 0);
switch (result){
case SW_RIGHT:
case SW_LEFT:
case SW_CENTER:
para->align = result;
break;
default:
para->align = SW_LEFT;
break;
}
}
val++;
if (IS_WORD(val)) {
REBINT result = Reb_Find_Word(VAL_WORD_SYM(val), Symbol_Ids, 0);
switch (result){
case SW_TOP:
case SW_BOTTOM:
case SW_MIDDLE:
para->valign = result;
break;
default:
para->valign = SW_TOP;
break;
}
}
rt_para(richtext, para);
break;
case TW_SIZE:
rt_font_size(richtext, ARG_INTEGER(0));
break;
case TW_SHADOW:
rt_shadow(richtext, &ARG_PAIR(0), ARG_TUPLE(1), ARG_INTEGER(2));
break;
case TW_DROP:
rt_drop(richtext, ARG_OPT_INTEGER(0));
break;
case TW_NEWLINE:
case TW_NL:
rt_newline(richtext, index);
break;
case TW_CARET:
{
REBPAR caret = {0,0};
REBPAR highlightStart = {0,0};
REBPAR highlightEnd = {0,0};
REBVAL *slot;
if (!IS_OBJECT(arg)) break;
val = BLK_HEAD(ARG_OBJECT(0))+1;
if (IS_BLOCK(val)) {
slot = BLK_HEAD(VAL_SERIES(val));
if (SERIES_TAIL(VAL_SERIES(val)) == 2 && IS_BLOCK(slot) && IS_STRING(slot+1)){
caret.x = 1 + slot->data.series.index;
caret.y = 1 + (slot+1)->data.series.index;;
//Reb_Print("caret %d, %d", caret.x, caret.y);
}
}
val++;
if (IS_BLOCK(val)) {
slot = BLK_HEAD(VAL_SERIES(val));
if (SERIES_TAIL(VAL_SERIES(val)) == 2 && IS_BLOCK(slot) && IS_STRING(slot+1)){
highlightStart.x = 1 + slot->data.series.index;
highlightStart.y = 1 + (slot+1)->data.series.index;;
//Reb_Print("highlight-start %d, %d", highlightStart.x, highlightStart.y);
}
}
val++;
if (IS_BLOCK(val)) {
slot = BLK_HEAD(VAL_SERIES(val));
if (SERIES_TAIL(VAL_SERIES(val)) == 2 && IS_BLOCK(slot) && IS_STRING(slot+1)){
highlightEnd.x = 1 + slot->data.series.index;
highlightEnd.y = 1 + (slot+1)->data.series.index;;
//Reb_Print("highlight-End %d, %d", highlightEnd.x, highlightEnd.y);
}
}
rt_caret(richtext, &caret, &highlightStart,&highlightEnd);
}
break;
}
} while (TRUE);
}
*/ REBINT Cmp_Value(REBVAL *s, REBVAL *t, REBFLG is_case)
/*
** Compare two values and return the difference.
**
** is_case TRUE for case sensitive compare
**
***********************************************************************/
{
REBDEC d1, d2;
if (VAL_TYPE(t) != VAL_TYPE(s) && !(IS_NUMBER(s) && IS_NUMBER(t)))
return VAL_TYPE(s) - VAL_TYPE(t);
switch(VAL_TYPE(s)) {
case REB_INTEGER:
if (IS_DECIMAL(t)) {
d1 = (REBDEC)VAL_INT64(s);
d2 = VAL_DECIMAL(t);
goto chkDecimal;
}
return THE_SIGN(VAL_INT64(s) - VAL_INT64(t));
case REB_LOGIC:
return VAL_LOGIC(s) - VAL_LOGIC(t);
case REB_CHAR:
if (is_case) return THE_SIGN(VAL_CHAR(s) - VAL_CHAR(t));
return THE_SIGN((REBINT)(UP_CASE(VAL_CHAR(s)) - UP_CASE(VAL_CHAR(t))));
case REB_DECIMAL:
case REB_MONEY:
d1 = VAL_DECIMAL(s);
if (IS_INTEGER(t))
d2 = (REBDEC)VAL_INT64(t);
else
d2 = VAL_DECIMAL(t);
chkDecimal:
if (Eq_Decimal(d1, d2))
return 0;
if (d1 < d2)
return -1;
return 1;
case REB_PAIR:
return Cmp_Pair(s, t);
case REB_EVENT:
return Cmp_Event(s, t);
case REB_GOB:
return Cmp_Gob(s, t);
case REB_TUPLE:
return Cmp_Tuple(s, t);
case REB_TIME:
return Cmp_Time(s, t);
case REB_DATE:
return Cmp_Date(s, t);
case REB_BLOCK:
case REB_PAREN:
case REB_MAP:
case REB_PATH:
case REB_SET_PATH:
case REB_GET_PATH:
case REB_LIT_PATH:
return Cmp_Block(s, t, is_case);
case REB_STRING:
case REB_FILE:
case REB_EMAIL:
case REB_URL:
case REB_TAG:
return Compare_String_Vals(s, t, (REBOOL)!is_case);
case REB_BITSET:
case REB_BINARY:
case REB_IMAGE:
return Compare_Binary_Vals(s, t);
case REB_VECTOR:
return Compare_Vector(s, t);
case REB_DATATYPE:
return VAL_DATATYPE(s) - VAL_DATATYPE(t);
case REB_WORD:
case REB_SET_WORD:
case REB_GET_WORD:
case REB_LIT_WORD:
case REB_REFINEMENT:
case REB_ISSUE:
return Compare_Word(s,t,is_case);
case REB_ERROR:
return VAL_ERR_NUM(s) - VAL_ERR_NUM(s);
case REB_OBJECT:
case REB_MODULE:
case REB_PORT:
return VAL_OBJ_FRAME(s) - VAL_OBJ_FRAME(t);
case REB_NATIVE:
return &VAL_FUNC_CODE(s) - &VAL_FUNC_CODE(t);
case REB_ACTION:
case REB_COMMAND:
case REB_OP:
case REB_FUNCTION:
return VAL_FUNC_BODY(s) - VAL_FUNC_BODY(t);
case REB_NONE:
case REB_UNSET:
case REB_END:
default:
break;
}
return 0;
}
//
// MAKE_Decimal: C
//
void MAKE_Decimal(REBVAL *out, enum Reb_Kind kind, const REBVAL *arg) {
REBDEC d;
switch (VAL_TYPE(arg)) {
case REB_DECIMAL:
d = VAL_DECIMAL(arg);
goto dont_divide_if_percent;
case REB_PERCENT:
d = VAL_DECIMAL(arg);
goto dont_divide_if_percent;
case REB_INTEGER:
d = cast(REBDEC, VAL_INT64(arg));
goto dont_divide_if_percent;
case REB_MONEY:
d = deci_to_decimal(VAL_MONEY_AMOUNT(arg));
goto dont_divide_if_percent;
case REB_LOGIC:
d = VAL_LOGIC(arg) ? 1.0 : 0.0;
goto dont_divide_if_percent;
case REB_CHAR:
d = cast(REBDEC, VAL_CHAR(arg));
goto dont_divide_if_percent;
case REB_TIME:
d = VAL_TIME(arg) * NANO;
break;
case REB_STRING:
{
REBYTE *bp;
REBCNT len;
bp = Temp_Byte_Chars_May_Fail(arg, MAX_SCAN_DECIMAL, &len, FALSE);
VAL_RESET_HEADER(out, kind);
if (!Scan_Decimal(
&d, bp, len, LOGICAL(kind != REB_PERCENT)
)) {
goto bad_make;
}
break;
}
case REB_BINARY:
Binary_To_Decimal(arg, out);
VAL_RESET_HEADER(out, kind);
d = VAL_DECIMAL(out);
break;
#ifdef removed
// case REB_ISSUE:
{
REBYTE *bp;
REBCNT len;
bp = Temp_Byte_Chars_May_Fail(arg, MAX_HEX_LEN, &len, FALSE);
if (Scan_Hex(&VAL_INT64(out), bp, len, len) == 0)
fail (Error_Bad_Make(REB_DECIMAL, val));
d = VAL_DECIMAL(out);
break;
}
#endif
default:
if (ANY_ARRAY(arg) && VAL_ARRAY_LEN_AT(arg) == 2) {
RELVAL *item = VAL_ARRAY_AT(arg);
if (IS_INTEGER(item))
d = cast(REBDEC, VAL_INT64(item));
else if (IS_DECIMAL(item) || IS_PERCENT(item))
d = VAL_DECIMAL(item);
else {
REBVAL specific;
COPY_VALUE(&specific, item, VAL_SPECIFIER(arg));
fail (Error_Invalid_Arg(&specific));
}
++item;
REBDEC exp;
if (IS_INTEGER(item))
exp = cast(REBDEC, VAL_INT64(item));
else if (IS_DECIMAL(item) || IS_PERCENT(item))
exp = VAL_DECIMAL(item);
else {
REBVAL specific;
COPY_VALUE(&specific, item, VAL_SPECIFIER(arg));
fail (Error_Invalid_Arg(&specific));
}
while (exp >= 1) {
//
// !!! Comment here said "funky. There must be a better way"
//
--exp;
d *= 10.0;
if (!FINITE(d))
fail (Error(RE_OVERFLOW));
}
while (exp <= -1) {
++exp;
d /= 10.0;
}
}
else
fail (Error_Bad_Make(kind, arg));
}
if (kind == REB_PERCENT)
d /= 100.0;
dont_divide_if_percent:
if (!FINITE(d))
fail (Error(RE_OVERFLOW));
VAL_RESET_HEADER(out, kind);
VAL_DECIMAL(out) = d;
return;
bad_make:
fail (Error_Bad_Make(kind, arg));
}
//
// Cmp_Value: C
//
// Compare two values and return the difference.
//
// is_case TRUE for case sensitive compare
//
REBINT Cmp_Value(const RELVAL *s, const RELVAL *t, REBOOL is_case)
{
REBDEC d1, d2;
if (VAL_TYPE(t) != VAL_TYPE(s) && !(ANY_NUMBER(s) && ANY_NUMBER(t)))
return VAL_TYPE(s) - VAL_TYPE(t);
assert(NOT_END(s) && NOT_END(t));
switch(VAL_TYPE(s)) {
case REB_INTEGER:
if (IS_DECIMAL(t)) {
d1 = (REBDEC)VAL_INT64(s);
d2 = VAL_DECIMAL(t);
goto chkDecimal;
}
return THE_SIGN(VAL_INT64(s) - VAL_INT64(t));
case REB_LOGIC:
return VAL_LOGIC(s) - VAL_LOGIC(t);
case REB_CHAR:
if (is_case) return THE_SIGN(VAL_CHAR(s) - VAL_CHAR(t));
return THE_SIGN((REBINT)(UP_CASE(VAL_CHAR(s)) - UP_CASE(VAL_CHAR(t))));
case REB_PERCENT:
case REB_DECIMAL:
case REB_MONEY:
if (IS_MONEY(s))
d1 = deci_to_decimal(VAL_MONEY_AMOUNT(s));
else
d1 = VAL_DECIMAL(s);
if (IS_INTEGER(t))
d2 = cast(REBDEC, VAL_INT64(t));
else if (IS_MONEY(t))
d2 = deci_to_decimal(VAL_MONEY_AMOUNT(t));
else
d2 = VAL_DECIMAL(t);
chkDecimal:
if (Eq_Decimal(d1, d2))
return 0;
if (d1 < d2)
return -1;
return 1;
case REB_PAIR:
return Cmp_Pair(s, t);
case REB_EVENT:
return Cmp_Event(s, t);
case REB_GOB:
return Cmp_Gob(s, t);
case REB_TUPLE:
return Cmp_Tuple(s, t);
case REB_TIME:
return Cmp_Time(s, t);
case REB_DATE:
return Cmp_Date(s, t);
case REB_BLOCK:
case REB_GROUP:
case REB_MAP:
case REB_PATH:
case REB_SET_PATH:
case REB_GET_PATH:
case REB_LIT_PATH:
return Cmp_Array(s, t, is_case);
case REB_STRING:
case REB_FILE:
case REB_EMAIL:
case REB_URL:
case REB_TAG:
return Compare_String_Vals(s, t, NOT(is_case));
case REB_BITSET:
case REB_BINARY:
case REB_IMAGE:
return Compare_Binary_Vals(s, t);
case REB_VECTOR:
return Compare_Vector(s, t);
case REB_DATATYPE:
return VAL_TYPE_KIND(s) - VAL_TYPE_KIND(t);
case REB_WORD:
case REB_SET_WORD:
case REB_GET_WORD:
case REB_LIT_WORD:
case REB_REFINEMENT:
case REB_ISSUE:
return Compare_Word(s,t,is_case);
case REB_ERROR:
return VAL_ERR_NUM(s) - VAL_ERR_NUM(t);
case REB_OBJECT:
case REB_MODULE:
case REB_PORT:
return VAL_CONTEXT(s) - VAL_CONTEXT(t);
case REB_FUNCTION:
return VAL_FUNC_PARAMLIST(s) - VAL_FUNC_PARAMLIST(t);
case REB_LIBRARY:
return VAL_LIBRARY(s) - VAL_LIBRARY(t);
case REB_STRUCT:
return Cmp_Struct(s, t);
case REB_BLANK:
case REB_MAX_VOID:
default:
break;
}
return 0;
}
