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Posted to commits@nifi.apache.org by ph...@apache.org on 2018/01/02 18:28:24 UTC

[29/51] [partial] nifi-minifi-cpp git commit: MINIFICPP-351: Remove Civetweb third party directory

http://git-wip-us.apache.org/repos/asf/nifi-minifi-cpp/blob/ede68a10/thirdparty/civetweb-1.10/src/third_party/duktape-1.5.2/src-separate/duk_bi_date.c
----------------------------------------------------------------------
diff --git a/thirdparty/civetweb-1.10/src/third_party/duktape-1.5.2/src-separate/duk_bi_date.c b/thirdparty/civetweb-1.10/src/third_party/duktape-1.5.2/src-separate/duk_bi_date.c
deleted file mode 100644
index 1d5c7b7..0000000
--- a/thirdparty/civetweb-1.10/src/third_party/duktape-1.5.2/src-separate/duk_bi_date.c
+++ /dev/null
@@ -1,1728 +0,0 @@
-/*
- *  Date built-ins
- *
- *  Unlike most built-ins, Date has some platform dependencies for getting
- *  UTC time, converting between UTC and local time, and parsing and
- *  formatting time values.  These are all abstracted behind DUK_USE_xxx
- *  config options.  There are built-in platform specific providers for
- *  POSIX and Windows, but external providers can also be used.
- *
- *  See doc/datetime.rst.
- *
- */
-
-#include "duk_internal.h"
-
-/*
- *  Forward declarations
- */
-
-DUK_LOCAL_DECL duk_double_t duk__push_this_get_timeval_tzoffset(duk_context *ctx, duk_small_uint_t flags, duk_int_t *out_tzoffset);
-DUK_LOCAL_DECL duk_double_t duk__push_this_get_timeval(duk_context *ctx, duk_small_uint_t flags);
-DUK_LOCAL_DECL void duk__twodigit_year_fixup(duk_context *ctx, duk_idx_t idx_val);
-DUK_LOCAL_DECL duk_ret_t duk__set_this_timeval_from_dparts(duk_context *ctx, duk_double_t *dparts, duk_small_uint_t flags);
-
-/*
- *  Other file level defines
- */
-
-/* Debug macro to print all parts and dparts (used manually because of debug level). */
-#define  DUK__DPRINT_PARTS_AND_DPARTS(parts,dparts)  do { \
-		DUK_D(DUK_DPRINT("parts: %ld %ld %ld %ld %ld %ld %ld %ld, dparts: %lf %lf %lf %lf %lf %lf %lf %lf", \
-		                 (long) (parts)[0], (long) (parts)[1], \
-		                 (long) (parts)[2], (long) (parts)[3], \
-		                 (long) (parts)[4], (long) (parts)[5], \
-		                 (long) (parts)[6], (long) (parts)[7], \
-		                 (double) (dparts)[0], (double) (dparts)[1], \
-		                 (double) (dparts)[2], (double) (dparts)[3], \
-		                 (double) (dparts)[4], (double) (dparts)[5], \
-		                 (double) (dparts)[6], (double) (dparts)[7])); \
-	} while (0)
-#define  DUK__DPRINT_PARTS(parts)  do { \
-		DUK_D(DUK_DPRINT("parts: %ld %ld %ld %ld %ld %ld %ld %ld", \
-		                 (long) (parts)[0], (long) (parts)[1], \
-		                 (long) (parts)[2], (long) (parts)[3], \
-		                 (long) (parts)[4], (long) (parts)[5], \
-		                 (long) (parts)[6], (long) (parts)[7])); \
-	} while (0)
-#define  DUK__DPRINT_DPARTS(dparts)  do { \
-		DUK_D(DUK_DPRINT("dparts: %lf %lf %lf %lf %lf %lf %lf %lf", \
-		                 (double) (dparts)[0], (double) (dparts)[1], \
-		                 (double) (dparts)[2], (double) (dparts)[3], \
-		                 (double) (dparts)[4], (double) (dparts)[5], \
-		                 (double) (dparts)[6], (double) (dparts)[7])); \
-	} while (0)
-
-/* Equivalent year for DST calculations outside [1970,2038[ range, see
- * E5 Section 15.9.1.8.  Equivalent year has the same leap-year-ness and
- * starts with the same weekday on Jan 1.
- * https://bugzilla.mozilla.org/show_bug.cgi?id=351066
- */
-#define DUK__YEAR(x) ((duk_uint8_t) ((x) - 1970))
-DUK_LOCAL duk_uint8_t duk__date_equivyear[14] = {
-#if 1
-	/* This is based on V8 EquivalentYear() algorithm (see src/genequivyear.py):
-	 * http://code.google.com/p/v8/source/browse/trunk/src/date.h#146
-	 */
-
-	/* non-leap year: sunday, monday, ... */
-	DUK__YEAR(2023), DUK__YEAR(2035), DUK__YEAR(2019), DUK__YEAR(2031),
-	DUK__YEAR(2015), DUK__YEAR(2027), DUK__YEAR(2011),
-
-	/* leap year: sunday, monday, ... */
-	DUK__YEAR(2012), DUK__YEAR(2024), DUK__YEAR(2008), DUK__YEAR(2020),
-	DUK__YEAR(2032), DUK__YEAR(2016), DUK__YEAR(2028)
-#endif
-
-#if 0
-	/* This is based on Rhino EquivalentYear() algorithm:
-	 * https://github.com/mozilla/rhino/blob/f99cc11d616f0cdda2c42bde72b3484df6182947/src/org/mozilla/javascript/NativeDate.java
-	 */
-
-	/* non-leap year: sunday, monday, ... */
-	DUK__YEAR(1978), DUK__YEAR(1973), DUK__YEAR(1985), DUK__YEAR(1986),
-	DUK__YEAR(1981), DUK__YEAR(1971), DUK__YEAR(1977),
-
-	/* leap year: sunday, monday, ... */
-	DUK__YEAR(1984), DUK__YEAR(1996), DUK__YEAR(1980), DUK__YEAR(1992),
-	DUK__YEAR(1976), DUK__YEAR(1988), DUK__YEAR(1972)
-#endif
-};
-#undef DUK__YEAR
-
-/*
- *  ISO 8601 subset parser.
- */
-
-/* Parser part count. */
-#define DUK__NUM_ISO8601_PARSER_PARTS  9
-
-/* Parser part indices. */
-#define DUK__PI_YEAR         0
-#define DUK__PI_MONTH        1
-#define DUK__PI_DAY          2
-#define DUK__PI_HOUR         3
-#define DUK__PI_MINUTE       4
-#define DUK__PI_SECOND       5
-#define DUK__PI_MILLISECOND  6
-#define DUK__PI_TZHOUR       7
-#define DUK__PI_TZMINUTE     8
-
-/* Parser part masks. */
-#define DUK__PM_YEAR         (1 << DUK__PI_YEAR)
-#define DUK__PM_MONTH        (1 << DUK__PI_MONTH)
-#define DUK__PM_DAY          (1 << DUK__PI_DAY)
-#define DUK__PM_HOUR         (1 << DUK__PI_HOUR)
-#define DUK__PM_MINUTE       (1 << DUK__PI_MINUTE)
-#define DUK__PM_SECOND       (1 << DUK__PI_SECOND)
-#define DUK__PM_MILLISECOND  (1 << DUK__PI_MILLISECOND)
-#define DUK__PM_TZHOUR       (1 << DUK__PI_TZHOUR)
-#define DUK__PM_TZMINUTE     (1 << DUK__PI_TZMINUTE)
-
-/* Parser separator indices. */
-#define DUK__SI_PLUS         0
-#define DUK__SI_MINUS        1
-#define DUK__SI_T            2
-#define DUK__SI_SPACE        3
-#define DUK__SI_COLON        4
-#define DUK__SI_PERIOD       5
-#define DUK__SI_Z            6
-#define DUK__SI_NUL          7
-
-/* Parser separator masks. */
-#define DUK__SM_PLUS         (1 << DUK__SI_PLUS)
-#define DUK__SM_MINUS        (1 << DUK__SI_MINUS)
-#define DUK__SM_T            (1 << DUK__SI_T)
-#define DUK__SM_SPACE        (1 << DUK__SI_SPACE)
-#define DUK__SM_COLON        (1 << DUK__SI_COLON)
-#define DUK__SM_PERIOD       (1 << DUK__SI_PERIOD)
-#define DUK__SM_Z            (1 << DUK__SI_Z)
-#define DUK__SM_NUL          (1 << DUK__SI_NUL)
-
-/* Rule control flags. */
-#define DUK__CF_NEG          (1 << 0)  /* continue matching, set neg_tzoffset flag */
-#define DUK__CF_ACCEPT       (1 << 1)  /* accept string */
-#define DUK__CF_ACCEPT_NUL   (1 << 2)  /* accept string if next char is NUL (otherwise reject) */
-
-#define DUK__PACK_RULE(partmask,sepmask,nextpart,flags)  \
-	((duk_uint32_t) (partmask) + \
-	 (((duk_uint32_t) (sepmask)) << 9) + \
-	 (((duk_uint32_t) (nextpart)) << 17) + \
-	 (((duk_uint32_t) (flags)) << 21))
-
-#define DUK__UNPACK_RULE(rule,var_nextidx,var_flags)  do { \
-		(var_nextidx) = (duk_small_uint_t) (((rule) >> 17) & 0x0f); \
-		(var_flags) = (duk_small_uint_t) ((rule) >> 21); \
-	} while (0)
-
-#define DUK__RULE_MASK_PART_SEP  0x1ffffUL
-
-/* Matching separator index is used in the control table */
-DUK_LOCAL const duk_uint8_t duk__parse_iso8601_seps[] = {
-	DUK_ASC_PLUS /*0*/, DUK_ASC_MINUS /*1*/, DUK_ASC_UC_T /*2*/, DUK_ASC_SPACE /*3*/,
-	DUK_ASC_COLON /*4*/, DUK_ASC_PERIOD /*5*/, DUK_ASC_UC_Z /*6*/, DUK_ASC_NUL /*7*/
-};
-
-/* Rule table: first matching rule is used to determine what to do next. */
-DUK_LOCAL const duk_uint32_t duk__parse_iso8601_control[] = {
-	DUK__PACK_RULE(DUK__PM_YEAR, DUK__SM_MINUS, DUK__PI_MONTH, 0),
-	DUK__PACK_RULE(DUK__PM_MONTH, DUK__SM_MINUS, DUK__PI_DAY, 0),
-	DUK__PACK_RULE(DUK__PM_YEAR | DUK__PM_MONTH | DUK__PM_DAY, DUK__SM_T | DUK__SM_SPACE, DUK__PI_HOUR, 0),
-	DUK__PACK_RULE(DUK__PM_HOUR, DUK__SM_COLON, DUK__PI_MINUTE, 0),
-	DUK__PACK_RULE(DUK__PM_MINUTE, DUK__SM_COLON, DUK__PI_SECOND, 0),
-	DUK__PACK_RULE(DUK__PM_SECOND, DUK__SM_PERIOD, DUK__PI_MILLISECOND, 0),
-	DUK__PACK_RULE(DUK__PM_TZHOUR, DUK__SM_COLON, DUK__PI_TZMINUTE, 0),
-	DUK__PACK_RULE(DUK__PM_YEAR | DUK__PM_MONTH | DUK__PM_DAY | DUK__PM_HOUR /*Note1*/ | DUK__PM_MINUTE | DUK__PM_SECOND | DUK__PM_MILLISECOND, DUK__SM_PLUS, DUK__PI_TZHOUR, 0),
-	DUK__PACK_RULE(DUK__PM_YEAR | DUK__PM_MONTH | DUK__PM_DAY | DUK__PM_HOUR /*Note1*/ | DUK__PM_MINUTE | DUK__PM_SECOND | DUK__PM_MILLISECOND, DUK__SM_MINUS, DUK__PI_TZHOUR, DUK__CF_NEG),
-	DUK__PACK_RULE(DUK__PM_YEAR | DUK__PM_MONTH | DUK__PM_DAY | DUK__PM_HOUR /*Note1*/ | DUK__PM_MINUTE | DUK__PM_SECOND | DUK__PM_MILLISECOND, DUK__SM_Z, 0, DUK__CF_ACCEPT_NUL),
-	DUK__PACK_RULE(DUK__PM_YEAR | DUK__PM_MONTH | DUK__PM_DAY | DUK__PM_HOUR /*Note1*/ | DUK__PM_MINUTE | DUK__PM_SECOND | DUK__PM_MILLISECOND | DUK__PM_TZHOUR /*Note2*/ | DUK__PM_TZMINUTE, DUK__SM_NUL, 0, DUK__CF_ACCEPT)
-
-	/* Note1: the specification doesn't require matching a time form with
-	 *        just hours ("HH"), but we accept it here, e.g. "2012-01-02T12Z".
-	 *
-	 * Note2: the specification doesn't require matching a timezone offset
-	 *        with just hours ("HH"), but accept it here, e.g. "2012-01-02T03:04:05+02"
-	 */
-};
-
-DUK_LOCAL duk_bool_t duk__parse_string_iso8601_subset(duk_context *ctx, const char *str) {
-	duk_int_t parts[DUK__NUM_ISO8601_PARSER_PARTS];
-	duk_double_t dparts[DUK_DATE_IDX_NUM_PARTS];
-	duk_double_t d;
-	const duk_uint8_t *p;
-	duk_small_uint_t part_idx = 0;
-	duk_int_t accum = 0;
-	duk_small_uint_t ndigits = 0;
-	duk_bool_t neg_year = 0;
-	duk_bool_t neg_tzoffset = 0;
-	duk_uint_fast8_t ch;
-	duk_small_uint_t i;
-
-	/* During parsing, month and day are one-based; set defaults here. */
-	DUK_MEMZERO(parts, sizeof(parts));
-	DUK_ASSERT(parts[DUK_DATE_IDX_YEAR] == 0);  /* don't care value, year is mandatory */
-	parts[DUK_DATE_IDX_MONTH] = 1;
-	parts[DUK_DATE_IDX_DAY] = 1;
-
-	/* Special handling for year sign. */
-	p = (const duk_uint8_t *) str;
-	ch = p[0];
-	if (ch == DUK_ASC_PLUS) {
-		p++;
-	} else if (ch == DUK_ASC_MINUS) {
-		neg_year = 1;
-		p++;
-	}
-
-	for (;;) {
-		ch = *p++;
-		DUK_DDD(DUK_DDDPRINT("parsing, part_idx=%ld, char=%ld ('%c')",
-		                     (long) part_idx, (long) ch,
-		                     (int) ((ch >= 0x20 && ch <= 0x7e) ? ch : DUK_ASC_QUESTION)));
-
-		if (ch >= DUK_ASC_0 && ch <= DUK_ASC_9) {
-			if (ndigits >= 9) {
-				DUK_DDD(DUK_DDDPRINT("too many digits -> reject"));
-				goto reject;
-			}
-			if (part_idx == DUK__PI_MILLISECOND /*msec*/ && ndigits >= 3) {
-				/* ignore millisecond fractions after 3 */
-			} else {
-				accum = accum * 10 + ((duk_int_t) ch) - ((duk_int_t) DUK_ASC_0) + 0x00;
-				ndigits++;
-			}
-		} else {
-			duk_uint_fast32_t match_val;
-			duk_small_int_t sep_idx;
-
-			if (ndigits <= 0) {
-				goto reject;
-			}
-			if (part_idx == DUK__PI_MILLISECOND) {
-				/* complete the millisecond field */
-				while (ndigits < 3) {
-					accum *= 10;
-					ndigits++;
-				}
-			}
-			parts[part_idx] = accum;
-			DUK_DDD(DUK_DDDPRINT("wrote part %ld -> value %ld", (long) part_idx, (long) accum));
-
-			accum = 0;
-			ndigits = 0;
-
-			for (i = 0; i < (duk_small_uint_t) (sizeof(duk__parse_iso8601_seps) / sizeof(duk_uint8_t)); i++) {
-				if (duk__parse_iso8601_seps[i] == ch) {
-					break;
-				}
-			}
-			if (i == (duk_small_uint_t) (sizeof(duk__parse_iso8601_seps) / sizeof(duk_uint8_t))) {
-				DUK_DDD(DUK_DDDPRINT("separator character doesn't match -> reject"));
-				goto reject;
-			}
-
-			sep_idx = i;
-			match_val = (1UL << part_idx) + (1UL << (sep_idx + 9));  /* match against rule part/sep bits */
-
-			for (i = 0; i < (duk_small_uint_t) (sizeof(duk__parse_iso8601_control) / sizeof(duk_uint32_t)); i++) {
-				duk_uint_fast32_t rule = duk__parse_iso8601_control[i];
-				duk_small_uint_t nextpart;
-				duk_small_uint_t cflags;
-
-				DUK_DDD(DUK_DDDPRINT("part_idx=%ld, sep_idx=%ld, match_val=0x%08lx, considering rule=0x%08lx",
-				                     (long) part_idx, (long) sep_idx,
-				                     (unsigned long) match_val, (unsigned long) rule));
-
-				if ((rule & match_val) != match_val) {
-					continue;
-				}
-
-				DUK__UNPACK_RULE(rule, nextpart, cflags);
-
-				DUK_DDD(DUK_DDDPRINT("rule match -> part_idx=%ld, sep_idx=%ld, match_val=0x%08lx, "
-				                     "rule=0x%08lx -> nextpart=%ld, cflags=0x%02lx",
-				                     (long) part_idx, (long) sep_idx,
-				                     (unsigned long) match_val, (unsigned long) rule,
-				                     (long) nextpart, (unsigned long) cflags));
-
-				if (cflags & DUK__CF_NEG) {
-					neg_tzoffset = 1;
-				}
-
-				if (cflags & DUK__CF_ACCEPT) {
-					goto accept;
-				}
-
-				if (cflags & DUK__CF_ACCEPT_NUL) {
-					DUK_ASSERT(*(p - 1) != (char) 0);
-					if (*p == DUK_ASC_NUL) {
-						goto accept;
-					}
-					goto reject;
-				}
-
-				part_idx = nextpart;
-				break;
-			}  /* rule match */
-
-			if (i == (duk_small_uint_t) (sizeof(duk__parse_iso8601_control) / sizeof(duk_uint32_t))) {
-				DUK_DDD(DUK_DDDPRINT("no rule matches -> reject"));
-				goto reject;
-			}
-
-			if (ch == 0) {
-				/* This shouldn't be necessary, but check just in case
-				 * to avoid any chance of overruns.
-				 */
-				DUK_DDD(DUK_DDDPRINT("NUL after rule matching (should not happen) -> reject"));
-				goto reject;
-			}
-		}  /* if-digit-else-ctrl */
-	}  /* char loop */
-
-	/* We should never exit the loop above. */
-	DUK_UNREACHABLE();
-
- reject:
-	DUK_DDD(DUK_DDDPRINT("reject"));
-	return 0;
-
- accept:
-	DUK_DDD(DUK_DDDPRINT("accept"));
-
-	/* Apply timezone offset to get the main parts in UTC */
-	if (neg_year) {
-		parts[DUK__PI_YEAR] = -parts[DUK__PI_YEAR];
-	}
-	if (neg_tzoffset) {
-		parts[DUK__PI_HOUR] += parts[DUK__PI_TZHOUR];
-		parts[DUK__PI_MINUTE] += parts[DUK__PI_TZMINUTE];
-	} else {
-		parts[DUK__PI_HOUR] -= parts[DUK__PI_TZHOUR];
-		parts[DUK__PI_MINUTE] -= parts[DUK__PI_TZMINUTE];
-	}
-	parts[DUK__PI_MONTH] -= 1;  /* zero-based month */
-	parts[DUK__PI_DAY] -= 1;  /* zero-based day */
-
-	/* Use double parts, they tolerate unnormalized time.
-	 *
-	 * Note: DUK_DATE_IDX_WEEKDAY is initialized with a bogus value (DUK__PI_TZHOUR)
-	 * on purpose.  It won't be actually used by duk_bi_date_get_timeval_from_dparts(),
-	 * but will make the value initialized just in case, and avoid any
-	 * potential for Valgrind issues.
-	 */
-	for (i = 0; i < DUK_DATE_IDX_NUM_PARTS; i++) {
-		DUK_DDD(DUK_DDDPRINT("part[%ld] = %ld", (long) i, (long) parts[i]));
-		dparts[i] = parts[i];
-	}
-
-	d = duk_bi_date_get_timeval_from_dparts(dparts, 0 /*flags*/);
-	duk_push_number(ctx, d);
-	return 1;
-}
-
-/*
- *  Date/time parsing helper.
- *
- *  Parse a datetime string into a time value.  We must first try to parse
- *  the input according to the standard format in E5.1 Section 15.9.1.15.
- *  If that fails, we can try to parse using custom parsing, which can
- *  either be platform neutral (custom code) or platform specific (using
- *  existing platform API calls).
- *
- *  Note in particular that we must parse whatever toString(), toUTCString(),
- *  and toISOString() can produce; see E5.1 Section 15.9.4.2.
- *
- *  Returns 1 to allow tail calling.
- *
- *  There is much room for improvement here with respect to supporting
- *  alternative datetime formats.  For instance, V8 parses '2012-01-01' as
- *  UTC and '2012/01/01' as local time.
- */
-
-DUK_LOCAL duk_ret_t duk__parse_string(duk_context *ctx, const char *str) {
-	/* XXX: there is a small risk here: because the ISO 8601 parser is
-	 * very loose, it may end up parsing some datetime values which
-	 * would be better parsed with a platform specific parser.
-	 */
-
-	DUK_ASSERT(str != NULL);
-	DUK_DDD(DUK_DDDPRINT("parse datetime from string '%s'", (const char *) str));
-
-	if (duk__parse_string_iso8601_subset(ctx, str) != 0) {
-		return 1;
-	}
-
-#if defined(DUK_USE_DATE_PARSE_STRING)
-	/* Contract, either:
-	 * - Push value on stack and return 1
-	 * - Don't push anything on stack and return 0
-	 */
-
-	if (DUK_USE_DATE_PARSE_STRING(ctx, str) != 0) {
-		return 1;
-	}
-#else
-	/* No platform-specific parsing, this is not an error. */
-#endif
-
-	duk_push_nan(ctx);
-	return 1;
-}
-
-/*
- *  Calendar helpers
- *
- *  Some helpers are used for getters and can operate on normalized values
- *  which can be represented with 32-bit signed integers.  Other helpers are
- *  needed by setters and operate on un-normalized double values, must watch
- *  out for non-finite numbers etc.
- */
-
-DUK_LOCAL duk_uint8_t duk__days_in_month[12] = {
-	(duk_uint8_t) 31, (duk_uint8_t) 28, (duk_uint8_t) 31, (duk_uint8_t) 30,
-	(duk_uint8_t) 31, (duk_uint8_t) 30, (duk_uint8_t) 31, (duk_uint8_t) 31,
-	(duk_uint8_t) 30, (duk_uint8_t) 31, (duk_uint8_t) 30, (duk_uint8_t) 31
-};
-
-/* Maximum iteration count for computing UTC-to-local time offset when
- * creating an Ecmascript time value from local parts.
- */
-#define DUK__LOCAL_TZOFFSET_MAXITER   4
-
-/* Because 'day since epoch' can be negative and is used to compute weekday
- * using a modulo operation, add this multiple of 7 to avoid negative values
- * when year is below 1970 epoch.  Ecmascript time values are restricted to
- * +/- 100 million days from epoch, so this adder fits nicely into 32 bits.
- * Round to a multiple of 7 (= floor(100000000 / 7) * 7) and add margin.
- */
-#define DUK__WEEKDAY_MOD_ADDER  (20000000 * 7)  /* 0x08583b00 */
-
-DUK_INTERNAL duk_bool_t duk_bi_date_is_leap_year(duk_int_t year) {
-	if ((year % 4) != 0) {
-		return 0;
-	}
-	if ((year % 100) != 0) {
-		return 1;
-	}
-	if ((year % 400) != 0) {
-		return 0;
-	}
-	return 1;
-}
-
-DUK_INTERNAL duk_bool_t duk_bi_date_timeval_in_valid_range(duk_double_t x) {
-	return (x >= -DUK_DATE_MSEC_100M_DAYS && x <= DUK_DATE_MSEC_100M_DAYS);
-}
-
-DUK_INTERNAL duk_bool_t duk_bi_date_timeval_in_leeway_range(duk_double_t x) {
-	return (x >= -DUK_DATE_MSEC_100M_DAYS_LEEWAY && x <= DUK_DATE_MSEC_100M_DAYS_LEEWAY);
-}
-
-DUK_INTERNAL duk_bool_t duk_bi_date_year_in_valid_range(duk_double_t x) {
-	return (x >= DUK_DATE_MIN_ECMA_YEAR && x <= DUK_DATE_MAX_ECMA_YEAR);
-}
-
-DUK_LOCAL duk_double_t duk__timeclip(duk_double_t x) {
-	if (!DUK_ISFINITE(x)) {
-		return DUK_DOUBLE_NAN;
-	}
-
-	if (!duk_bi_date_timeval_in_valid_range(x)) {
-		return DUK_DOUBLE_NAN;
-	}
-
-	x = duk_js_tointeger_number(x);
-
-	/* Here we'd have the option to normalize -0 to +0. */
-	return x;
-}
-
-/* Integer division which floors also negative values correctly. */
-DUK_LOCAL duk_int_t duk__div_floor(duk_int_t a, duk_int_t b) {
-	DUK_ASSERT(b > 0);
-	if (a >= 0) {
-		return a / b;
-	} else {
-		/* e.g. a = -4, b = 5  -->  -4 - 5 + 1 / 5  -->  -8 / 5  -->  -1
-		 *      a = -5, b = 5  -->  -5 - 5 + 1 / 5  -->  -9 / 5  -->  -1
-		 *      a = -6, b = 5  -->  -6 - 5 + 1 / 5  -->  -10 / 5  -->  -2
-		 */
-		return (a - b + 1) / b;
-	}
-}
-
-/* Compute day number of the first day of a given year. */
-DUK_LOCAL duk_int_t duk__day_from_year(duk_int_t year) {
-	/* Note: in integer arithmetic, (x / 4) is same as floor(x / 4) for non-negative
-	 * values, but is incorrect for negative ones.
-	 */
-	return 365 * (year - 1970)
-	       + duk__div_floor(year - 1969, 4)
-	       - duk__div_floor(year - 1901, 100)
-	       + duk__div_floor(year - 1601, 400);
-}
-
-/* Given a day number, determine year and day-within-year. */
-DUK_LOCAL duk_int_t duk__year_from_day(duk_int_t day, duk_small_int_t *out_day_within_year) {
-	duk_int_t year;
-	duk_int_t diff_days;
-
-	/* estimate year upwards (towards positive infinity), then back down;
-	 * two iterations should be enough
-	 */
-
-	if (day >= 0) {
-		year = 1970 + day / 365;
-	} else {
-		year = 1970 + day / 366;
-	}
-
-	for (;;) {
-		diff_days = duk__day_from_year(year) - day;
-		DUK_DDD(DUK_DDDPRINT("year=%ld day=%ld, diff_days=%ld", (long) year, (long) day, (long) diff_days));
-		if (diff_days <= 0) {
-			DUK_ASSERT(-diff_days < 366);  /* fits into duk_small_int_t */
-			*out_day_within_year = -diff_days;
-			DUK_DDD(DUK_DDDPRINT("--> year=%ld, day-within-year=%ld",
-			                     (long) year, (long) *out_day_within_year));
-			DUK_ASSERT(*out_day_within_year >= 0);
-			DUK_ASSERT(*out_day_within_year < (duk_bi_date_is_leap_year(year) ? 366 : 365));
-			return year;
-		}
-
-		/* Note: this is very tricky; we must never 'overshoot' the
-		 * correction downwards.
-		 */
-		year -= 1 + (diff_days - 1) / 366;  /* conservative */
-	}
-}
-
-/* Given a (year, month, day-within-month) triple, compute day number.
- * The input triple is un-normalized and may contain non-finite values.
- */
-DUK_LOCAL duk_double_t duk__make_day(duk_double_t year, duk_double_t month, duk_double_t day) {
-	duk_int_t day_num;
-	duk_bool_t is_leap;
-	duk_small_int_t i, n;
-
-	/* Assume that year, month, day are all coerced to whole numbers.
-	 * They may also be NaN or infinity, in which case this function
-	 * must return NaN or infinity to ensure time value becomes NaN.
-	 * If 'day' is NaN, the final return will end up returning a NaN,
-	 * so it doesn't need to be checked here.
-	 */
-
-	if (!DUK_ISFINITE(year) || !DUK_ISFINITE(month)) {
-		return DUK_DOUBLE_NAN;
-	}
-
-	year += DUK_FLOOR(month / 12.0);
-
-	month = DUK_FMOD(month, 12.0);
-	if (month < 0.0) {
-		/* handle negative values */
-		month += 12.0;
-	}
-
-	/* The algorithm in E5.1 Section 15.9.1.12 normalizes month, but
-	 * does not normalize the day-of-month (nor check whether or not
-	 * it is finite) because it's not necessary for finding the day
-	 * number which matches the (year,month) pair.
-	 *
-	 * We assume that duk__day_from_year() is exact here.
-	 *
-	 * Without an explicit infinity / NaN check in the beginning,
-	 * day_num would be a bogus integer here.
-	 *
-	 * It's possible for 'year' to be out of integer range here.
-	 * If so, we need to return NaN without integer overflow.
-	 * This fixes test-bug-setyear-overflow.js.
-	 */
-
-	if (!duk_bi_date_year_in_valid_range(year)) {
-		DUK_DD(DUK_DDPRINT("year not in ecmascript valid range, avoid integer overflow: %lf", (double) year));
-		return DUK_DOUBLE_NAN;
-	}
-	day_num = duk__day_from_year((duk_int_t) year);
-	is_leap = duk_bi_date_is_leap_year((duk_int_t) year);
-
-	n = (duk_small_int_t) month;
-	for (i = 0; i < n; i++) {
-		day_num += duk__days_in_month[i];
-		if (i == 1 && is_leap) {
-			day_num++;
-		}
-	}
-
-	/* If 'day' is NaN, returns NaN. */
-	return (duk_double_t) day_num + day;
-}
-
-/* Split time value into parts.  The time value is assumed to be an internal
- * one, i.e. finite, no fractions.  Possible local time adjustment has already
- * been applied when reading the time value.
- */
-DUK_INTERNAL void duk_bi_date_timeval_to_parts(duk_double_t d, duk_int_t *parts, duk_double_t *dparts, duk_small_uint_t flags) {
-	duk_double_t d1, d2;
-	duk_int_t t1, t2;
-	duk_int_t day_since_epoch;
-	duk_int_t year;  /* does not fit into 16 bits */
-	duk_small_int_t day_in_year;
-	duk_small_int_t month;
-	duk_small_int_t day;
-	duk_small_int_t dim;
-	duk_int_t jan1_since_epoch;
-	duk_small_int_t jan1_weekday;
-	duk_int_t equiv_year;
-	duk_small_uint_t i;
-	duk_bool_t is_leap;
-	duk_small_int_t arridx;
-
-	DUK_ASSERT(DUK_ISFINITE(d));    /* caller checks */
-	DUK_ASSERT(DUK_FLOOR(d) == d);  /* no fractions in internal time */
-
-	/* The timevalue must be in valid Ecmascript range, but since a local
-	 * time offset can be applied, we need to allow a +/- 24h leeway to
-	 * the value.  In other words, although the UTC time is within the
-	 * Ecmascript range, the local part values can be just outside of it.
-	 */
-	DUK_UNREF(duk_bi_date_timeval_in_leeway_range);
-	DUK_ASSERT(duk_bi_date_timeval_in_leeway_range(d));
-
-	/* these computations are guaranteed to be exact for the valid
-	 * E5 time value range, assuming milliseconds without fractions.
-	 */
-	d1 = (duk_double_t) DUK_FMOD(d, (double) DUK_DATE_MSEC_DAY);
-	if (d1 < 0.0) {
-		/* deal with negative values */
-		d1 += (duk_double_t) DUK_DATE_MSEC_DAY;
-	}
-	d2 = DUK_FLOOR((double) (d / (duk_double_t) DUK_DATE_MSEC_DAY));
-	DUK_ASSERT(d2 * ((duk_double_t) DUK_DATE_MSEC_DAY) + d1 == d);
-	/* now expected to fit into a 32-bit integer */
-	t1 = (duk_int_t) d1;
-	t2 = (duk_int_t) d2;
-	day_since_epoch = t2;
-	DUK_ASSERT((duk_double_t) t1 == d1);
-	DUK_ASSERT((duk_double_t) t2 == d2);
-
-	/* t1 = milliseconds within day (fits 32 bit)
-	 * t2 = day number from epoch (fits 32 bit, may be negative)
-	 */
-
-	parts[DUK_DATE_IDX_MILLISECOND] = t1 % 1000; t1 /= 1000;
-	parts[DUK_DATE_IDX_SECOND] = t1 % 60; t1 /= 60;
-	parts[DUK_DATE_IDX_MINUTE] = t1 % 60; t1 /= 60;
-	parts[DUK_DATE_IDX_HOUR] = t1;
-	DUK_ASSERT(parts[DUK_DATE_IDX_MILLISECOND] >= 0 && parts[DUK_DATE_IDX_MILLISECOND] <= 999);
-	DUK_ASSERT(parts[DUK_DATE_IDX_SECOND] >= 0 && parts[DUK_DATE_IDX_SECOND] <= 59);
-	DUK_ASSERT(parts[DUK_DATE_IDX_MINUTE] >= 0 && parts[DUK_DATE_IDX_MINUTE] <= 59);
-	DUK_ASSERT(parts[DUK_DATE_IDX_HOUR] >= 0 && parts[DUK_DATE_IDX_HOUR] <= 23);
-
-	DUK_DDD(DUK_DDDPRINT("d=%lf, d1=%lf, d2=%lf, t1=%ld, t2=%ld, parts: hour=%ld min=%ld sec=%ld msec=%ld",
-	                     (double) d, (double) d1, (double) d2, (long) t1, (long) t2,
-	                     (long) parts[DUK_DATE_IDX_HOUR],
-	                     (long) parts[DUK_DATE_IDX_MINUTE],
-	                     (long) parts[DUK_DATE_IDX_SECOND],
-	                     (long) parts[DUK_DATE_IDX_MILLISECOND]));
-
-	/* This assert depends on the input parts representing time inside
-	 * the Ecmascript range.
-	 */
-	DUK_ASSERT(t2 + DUK__WEEKDAY_MOD_ADDER >= 0);
-	parts[DUK_DATE_IDX_WEEKDAY] = (t2 + 4 + DUK__WEEKDAY_MOD_ADDER) % 7;  /* E5.1 Section 15.9.1.6 */
-	DUK_ASSERT(parts[DUK_DATE_IDX_WEEKDAY] >= 0 && parts[DUK_DATE_IDX_WEEKDAY] <= 6);
-
-	year = duk__year_from_day(t2, &day_in_year);
-	day = day_in_year;
-	is_leap = duk_bi_date_is_leap_year(year);
-	for (month = 0; month < 12; month++) {
-		dim = duk__days_in_month[month];
-		if (month == 1 && is_leap) {
-			dim++;
-		}
-		DUK_DDD(DUK_DDDPRINT("month=%ld, dim=%ld, day=%ld",
-		                     (long) month, (long) dim, (long) day));
-		if (day < dim) {
-			break;
-		}
-		day -= dim;
-	}
-	DUK_DDD(DUK_DDDPRINT("final month=%ld", (long) month));
-	DUK_ASSERT(month >= 0 && month <= 11);
-	DUK_ASSERT(day >= 0 && day <= 31);
-
-	/* Equivalent year mapping, used to avoid DST trouble when platform
-	 * may fail to provide reasonable DST answers for dates outside the
-	 * ordinary range (e.g. 1970-2038).  An equivalent year has the same
-	 * leap-year-ness as the original year and begins on the same weekday
-	 * (Jan 1).
-	 *
-	 * The year 2038 is avoided because there seem to be problems with it
-	 * on some platforms.  The year 1970 is also avoided as there were
-	 * practical problems with it; an equivalent year is used for it too,
-	 * which breaks some DST computations for 1970 right now, see e.g.
-	 * test-bi-date-tzoffset-brute-fi.js.
-	 */
-	if ((flags & DUK_DATE_FLAG_EQUIVYEAR) && (year < 1971 || year > 2037)) {
-		DUK_ASSERT(is_leap == 0 || is_leap == 1);
-
-		jan1_since_epoch = day_since_epoch - day_in_year;  /* day number for Jan 1 since epoch */
-		DUK_ASSERT(jan1_since_epoch + DUK__WEEKDAY_MOD_ADDER >= 0);
-		jan1_weekday = (jan1_since_epoch + 4 + DUK__WEEKDAY_MOD_ADDER) % 7;  /* E5.1 Section 15.9.1.6 */
-		DUK_ASSERT(jan1_weekday >= 0 && jan1_weekday <= 6);
-		arridx = jan1_weekday;
-		if (is_leap) {
-			arridx += 7;
-		}
-		DUK_ASSERT(arridx >= 0 && arridx < (duk_small_int_t) (sizeof(duk__date_equivyear) / sizeof(duk_uint8_t)));
-
-		equiv_year = (duk_int_t) duk__date_equivyear[arridx] + 1970;
-		year = equiv_year;
-		DUK_DDD(DUK_DDDPRINT("equiv year mapping, year=%ld, day_in_year=%ld, day_since_epoch=%ld, "
-		                     "jan1_since_epoch=%ld, jan1_weekday=%ld -> equiv year %ld",
-		                     (long) year, (long) day_in_year, (long) day_since_epoch,
-		                     (long) jan1_since_epoch, (long) jan1_weekday, (long) equiv_year));
-	}
-
-	parts[DUK_DATE_IDX_YEAR] = year;
-	parts[DUK_DATE_IDX_MONTH] = month;
-	parts[DUK_DATE_IDX_DAY] = day;
-
-	if (flags & DUK_DATE_FLAG_ONEBASED) {
-		parts[DUK_DATE_IDX_MONTH]++;  /* zero-based -> one-based */
-		parts[DUK_DATE_IDX_DAY]++;    /* -""- */
-	}
-
-	if (dparts != NULL) {
-		for (i = 0; i < DUK_DATE_IDX_NUM_PARTS; i++) {
-			dparts[i] = (duk_double_t) parts[i];
-		}
-	}
-}
-
-/* Compute time value from (double) parts.  The parts can be either UTC
- * or local time; if local, they need to be (conceptually) converted into
- * UTC time.  The parts may represent valid or invalid time, and may be
- * wildly out of range (but may cancel each other and still come out in
- * the valid Date range).
- */
-DUK_INTERNAL duk_double_t duk_bi_date_get_timeval_from_dparts(duk_double_t *dparts, duk_small_uint_t flags) {
-#if defined(DUK_USE_PARANOID_DATE_COMPUTATION)
-	/* See comments below on MakeTime why these are volatile. */
-	volatile duk_double_t tmp_time;
-	volatile duk_double_t tmp_day;
-	volatile duk_double_t d;
-#else
-	duk_double_t tmp_time;
-	duk_double_t tmp_day;
-	duk_double_t d;
-#endif
-	duk_small_uint_t i;
-	duk_int_t tzoff, tzoffprev1, tzoffprev2;
-
-	/* Expects 'this' at top of stack on entry. */
-
-	/* Coerce all finite parts with ToInteger().  ToInteger() must not
-	 * be called for NaN/Infinity because it will convert e.g. NaN to
-	 * zero.  If ToInteger() has already been called, this has no side
-	 * effects and is idempotent.
-	 *
-	 * Don't read dparts[DUK_DATE_IDX_WEEKDAY]; it will cause Valgrind
-	 * issues if the value is uninitialized.
-	 */
-	for (i = 0; i <= DUK_DATE_IDX_MILLISECOND; i++) {
-		/* SCANBUILD: scan-build complains here about assigned value
-		 * being garbage or undefined.  This is correct but operating
-		 * on undefined values has no ill effect and is ignored by the
-		 * caller in the case where this happens.
-		 */
-		d = dparts[i];
-		if (DUK_ISFINITE(d)) {
-			dparts[i] = duk_js_tointeger_number(d);
-		}
-	}
-
-	/* Use explicit steps in computation to try to ensure that
-	 * computation happens with intermediate results coerced to
-	 * double values (instead of using something more accurate).
-	 * E.g. E5.1 Section 15.9.1.11 requires use of IEEE 754
-	 * rules (= Ecmascript '+' and '*' operators).
-	 *
-	 * Without 'volatile' even this approach fails on some platform
-	 * and compiler combinations.  For instance, gcc 4.8.1 on Ubuntu
-	 * 64-bit, with -m32 and without -std=c99, test-bi-date-canceling.js
-	 * would fail because of some optimizations when computing tmp_time
-	 * (MakeTime below).  Adding 'volatile' to tmp_time solved this
-	 * particular problem (annoyingly, also adding debug prints or
-	 * running the executable under valgrind hides it).
-	 */
-
-	/* MakeTime */
-	tmp_time = 0.0;
-	tmp_time += dparts[DUK_DATE_IDX_HOUR] * ((duk_double_t) DUK_DATE_MSEC_HOUR);
-	tmp_time += dparts[DUK_DATE_IDX_MINUTE] * ((duk_double_t) DUK_DATE_MSEC_MINUTE);
-	tmp_time += dparts[DUK_DATE_IDX_SECOND] * ((duk_double_t) DUK_DATE_MSEC_SECOND);
-	tmp_time += dparts[DUK_DATE_IDX_MILLISECOND];
-
-	/* MakeDay */
-	tmp_day = duk__make_day(dparts[DUK_DATE_IDX_YEAR], dparts[DUK_DATE_IDX_MONTH], dparts[DUK_DATE_IDX_DAY]);
-
-	/* MakeDate */
-	d = tmp_day * ((duk_double_t) DUK_DATE_MSEC_DAY) + tmp_time;
-
-	DUK_DDD(DUK_DDDPRINT("time=%lf day=%lf --> timeval=%lf",
-	                     (double) tmp_time, (double) tmp_day, (double) d));
-
-	/* Optional UTC conversion. */
-	if (flags & DUK_DATE_FLAG_LOCALTIME) {
-		/* DUK_USE_DATE_GET_LOCAL_TZOFFSET() needs to be called with a
-		 * time value computed from UTC parts.  At this point we only
-		 * have 'd' which is a time value computed from local parts, so
-		 * it is off by the UTC-to-local time offset which we don't know
-		 * yet.  The current solution for computing the UTC-to-local
-		 * time offset is to iterate a few times and detect a fixed
-		 * point or a two-cycle loop (or a sanity iteration limit),
-		 * see test-bi-date-local-parts.js and test-bi-date-tzoffset-basic-fi.js.
-		 *
-		 * E5.1 Section 15.9.1.9:
-		 * UTC(t) = t - LocalTZA - DaylightSavingTA(t - LocalTZA)
-		 *
-		 * For NaN/inf, DUK_USE_DATE_GET_LOCAL_TZOFFSET() returns 0.
-		 */
-
-#if 0
-		/* Old solution: don't iterate, incorrect */
-		tzoff = DUK_USE_DATE_GET_LOCAL_TZOFFSET(d);
-		DUK_DDD(DUK_DDDPRINT("tzoffset w/o iteration, tzoff=%ld", (long) tzoff));
-		d -= tzoff * 1000L;
-		DUK_UNREF(tzoffprev1);
-		DUK_UNREF(tzoffprev2);
-#endif
-
-		/* Iteration solution */
-		tzoff = 0;
-		tzoffprev1 = 999999999L;  /* invalid value which never matches */
-		for (i = 0; i < DUK__LOCAL_TZOFFSET_MAXITER; i++) {
-			tzoffprev2 = tzoffprev1;
-			tzoffprev1 = tzoff;
-			tzoff = DUK_USE_DATE_GET_LOCAL_TZOFFSET(d - tzoff * 1000L);
-			DUK_DDD(DUK_DDDPRINT("tzoffset iteration, i=%d, tzoff=%ld, tzoffprev1=%ld tzoffprev2=%ld",
-			                     (int) i, (long) tzoff, (long) tzoffprev1, (long) tzoffprev2));
-			if (tzoff == tzoffprev1) {
-				DUK_DDD(DUK_DDDPRINT("tzoffset iteration finished, i=%d, tzoff=%ld, tzoffprev1=%ld, tzoffprev2=%ld",
-				                     (int) i, (long) tzoff, (long) tzoffprev1, (long) tzoffprev2));
-				break;
-			} else if (tzoff == tzoffprev2) {
-				/* Two value cycle, see e.g. test-bi-date-tzoffset-basic-fi.js.
-				 * In these cases, favor a higher tzoffset to get a consistent
-				 * result which is independent of iteration count.  Not sure if
-				 * this is a generically correct solution.
-				 */
-				DUK_DDD(DUK_DDDPRINT("tzoffset iteration two-value cycle, i=%d, tzoff=%ld, tzoffprev1=%ld, tzoffprev2=%ld",
-				                     (int) i, (long) tzoff, (long) tzoffprev1, (long) tzoffprev2));
-				if (tzoffprev1 > tzoff) {
-					tzoff = tzoffprev1;
-				}
-				break;
-			}
-		}
-		DUK_DDD(DUK_DDDPRINT("tzoffset iteration, tzoff=%ld", (long) tzoff));
-		d -= tzoff * 1000L;
-	}
-
-	/* TimeClip(), which also handles Infinity -> NaN conversion */
-	d = duk__timeclip(d);
-
-	return d;
-}
-
-/*
- *  API oriented helpers
- */
-
-/* Push 'this' binding, check that it is a Date object; then push the
- * internal time value.  At the end, stack is: [ ... this timeval ].
- * Returns the time value.  Local time adjustment is done if requested.
- */
-DUK_LOCAL duk_double_t duk__push_this_get_timeval_tzoffset(duk_context *ctx, duk_small_uint_t flags, duk_int_t *out_tzoffset) {
-	duk_hthread *thr = (duk_hthread *) ctx;
-	duk_hobject *h;
-	duk_double_t d;
-	duk_int_t tzoffset = 0;
-
-	duk_push_this(ctx);
-	h = duk_get_hobject(ctx, -1);  /* XXX: getter with class check, useful in built-ins */
-	if (h == NULL || DUK_HOBJECT_GET_CLASS_NUMBER(h) != DUK_HOBJECT_CLASS_DATE) {
-		DUK_ERROR_TYPE(thr, "expected Date");
-	}
-
-	duk_get_prop_stridx(ctx, -1, DUK_STRIDX_INT_VALUE);
-	d = duk_to_number(ctx, -1);
-	duk_pop(ctx);
-
-	if (DUK_ISNAN(d)) {
-		if (flags & DUK_DATE_FLAG_NAN_TO_ZERO) {
-			d = 0.0;
-		}
-		if (flags & DUK_DATE_FLAG_NAN_TO_RANGE_ERROR) {
-			DUK_ERROR_RANGE(thr, "Invalid Date");
-		}
-	}
-	/* if no NaN handling flag, may still be NaN here, but not Inf */
-	DUK_ASSERT(!DUK_ISINF(d));
-
-	if (flags & DUK_DATE_FLAG_LOCALTIME) {
-		/* Note: DST adjustment is determined using UTC time.
-		 * If 'd' is NaN, tzoffset will be 0.
-		 */
-		tzoffset = DUK_USE_DATE_GET_LOCAL_TZOFFSET(d);  /* seconds */
-		d += tzoffset * 1000L;
-	}
-	if (out_tzoffset) {
-		*out_tzoffset = tzoffset;
-	}
-
-	/* [ ... this ] */
-	return d;
-}
-
-DUK_LOCAL duk_double_t duk__push_this_get_timeval(duk_context *ctx, duk_small_uint_t flags) {
-	return duk__push_this_get_timeval_tzoffset(ctx, flags, NULL);
-}
-
-/* Set timeval to 'this' from dparts, push the new time value onto the
- * value stack and return 1 (caller can then tail call us).  Expects
- * the value stack to contain 'this' on the stack top.
- */
-DUK_LOCAL duk_ret_t duk__set_this_timeval_from_dparts(duk_context *ctx, duk_double_t *dparts, duk_small_uint_t flags) {
-	duk_double_t d;
-
-	/* [ ... this ] */
-
-	d = duk_bi_date_get_timeval_from_dparts(dparts, flags);
-	duk_push_number(ctx, d);  /* -> [ ... this timeval_new ] */
-	duk_dup_top(ctx);         /* -> [ ... this timeval_new timeval_new ] */
-	duk_put_prop_stridx(ctx, -3, DUK_STRIDX_INT_VALUE);
-
-	/* stack top: new time value, return 1 to allow tail calls */
-	return 1;
-}
-
-/* 'out_buf' must be at least DUK_BI_DATE_ISO8601_BUFSIZE long. */
-DUK_LOCAL void duk__format_parts_iso8601(duk_int_t *parts, duk_int_t tzoffset, duk_small_uint_t flags, duk_uint8_t *out_buf) {
-	char yearstr[8];   /* "-123456\0" */
-	char tzstr[8];     /* "+11:22\0" */
-	char sep = (flags & DUK_DATE_FLAG_SEP_T) ? DUK_ASC_UC_T : DUK_ASC_SPACE;
-
-	DUK_ASSERT(parts[DUK_DATE_IDX_MONTH] >= 1 && parts[DUK_DATE_IDX_MONTH] <= 12);
-	DUK_ASSERT(parts[DUK_DATE_IDX_DAY] >= 1 && parts[DUK_DATE_IDX_DAY] <= 31);
-	DUK_ASSERT(parts[DUK_DATE_IDX_YEAR] >= -999999 && parts[DUK_DATE_IDX_YEAR] <= 999999);
-
-	/* Note: %06d for positive value, %07d for negative value to include
-	 * sign and 6 digits.
-	 */
-	DUK_SNPRINTF(yearstr,
-	             sizeof(yearstr),
-	             (parts[DUK_DATE_IDX_YEAR] >= 0 && parts[DUK_DATE_IDX_YEAR] <= 9999) ? "%04ld" :
-	                    ((parts[DUK_DATE_IDX_YEAR] >= 0) ? "+%06ld" : "%07ld"),
-	             (long) parts[DUK_DATE_IDX_YEAR]);
-	yearstr[sizeof(yearstr) - 1] = (char) 0;
-
-	if (flags & DUK_DATE_FLAG_LOCALTIME) {
-		/* tzoffset seconds are dropped; 16 bits suffice for
-		 * time offset in minutes
-		 */
-		if (tzoffset >= 0) {
-			duk_small_int_t tmp = tzoffset / 60;
-			DUK_SNPRINTF(tzstr, sizeof(tzstr), "+%02d:%02d", (int) (tmp / 60), (int) (tmp % 60));
-		} else {
-			duk_small_int_t tmp = -tzoffset / 60;
-			DUK_SNPRINTF(tzstr, sizeof(tzstr), "-%02d:%02d", (int) (tmp / 60), (int) (tmp % 60));
-		}
-		tzstr[sizeof(tzstr) - 1] = (char) 0;
-	} else {
-		tzstr[0] = DUK_ASC_UC_Z;
-		tzstr[1] = (char) 0;
-	}
-
-	/* Unlike year, the other parts fit into 16 bits so %d format
-	 * is portable.
-	 */
-	if ((flags & DUK_DATE_FLAG_TOSTRING_DATE) && (flags & DUK_DATE_FLAG_TOSTRING_TIME)) {
-		DUK_SPRINTF((char *) out_buf, "%s-%02d-%02d%c%02d:%02d:%02d.%03d%s",
-		            (const char *) yearstr, (int) parts[DUK_DATE_IDX_MONTH], (int) parts[DUK_DATE_IDX_DAY], (int) sep,
-		            (int) parts[DUK_DATE_IDX_HOUR], (int) parts[DUK_DATE_IDX_MINUTE],
-		            (int) parts[DUK_DATE_IDX_SECOND], (int) parts[DUK_DATE_IDX_MILLISECOND], (const char *) tzstr);
-	} else if (flags & DUK_DATE_FLAG_TOSTRING_DATE) {
-		DUK_SPRINTF((char *) out_buf, "%s-%02d-%02d",
-		            (const char *) yearstr, (int) parts[DUK_DATE_IDX_MONTH], (int) parts[DUK_DATE_IDX_DAY]);
-	} else {
-		DUK_ASSERT(flags & DUK_DATE_FLAG_TOSTRING_TIME);
-		DUK_SPRINTF((char *) out_buf, "%02d:%02d:%02d.%03d%s",
-		            (int) parts[DUK_DATE_IDX_HOUR], (int) parts[DUK_DATE_IDX_MINUTE],
-		            (int) parts[DUK_DATE_IDX_SECOND], (int) parts[DUK_DATE_IDX_MILLISECOND],
-		            (const char *) tzstr);
-	}
-}
-
-/* Helper for string conversion calls: check 'this' binding, get the
- * internal time value, and format date and/or time in a few formats.
- * Return value allows tail calls.
- */
-DUK_LOCAL duk_ret_t duk__to_string_helper(duk_context *ctx, duk_small_uint_t flags) {
-	duk_double_t d;
-	duk_int_t parts[DUK_DATE_IDX_NUM_PARTS];
-	duk_int_t tzoffset;  /* seconds, doesn't fit into 16 bits */
-	duk_bool_t rc;
-	duk_uint8_t buf[DUK_BI_DATE_ISO8601_BUFSIZE];
-
-	DUK_UNREF(rc);  /* unreferenced with some options */
-
-	d = duk__push_this_get_timeval_tzoffset(ctx, flags, &tzoffset);
-	if (DUK_ISNAN(d)) {
-		duk_push_hstring_stridx(ctx, DUK_STRIDX_INVALID_DATE);
-		return 1;
-	}
-	DUK_ASSERT(DUK_ISFINITE(d));
-
-	/* formatters always get one-based month/day-of-month */
-	duk_bi_date_timeval_to_parts(d, parts, NULL, DUK_DATE_FLAG_ONEBASED);
-	DUK_ASSERT(parts[DUK_DATE_IDX_MONTH] >= 1 && parts[DUK_DATE_IDX_MONTH] <= 12);
-	DUK_ASSERT(parts[DUK_DATE_IDX_DAY] >= 1 && parts[DUK_DATE_IDX_DAY] <= 31);
-
-	if (flags & DUK_DATE_FLAG_TOSTRING_LOCALE) {
-		/* try locale specific formatter; if it refuses to format the
-		 * string, fall back to an ISO 8601 formatted value in local
-		 * time.
-		 */
-#if defined(DUK_USE_DATE_FORMAT_STRING)
-		/* Contract, either:
-		 * - Push string to value stack and return 1
-		 * - Don't push anything and return 0
-		 */
-
-		rc = DUK_USE_DATE_FORMAT_STRING(ctx, parts, tzoffset, flags);
-		if (rc != 0) {
-			return 1;
-		}
-#else
-		/* No locale specific formatter; this is OK, we fall back
-		 * to ISO 8601.
-		 */
-#endif
-	}
-
-	/* Different calling convention than above used because the helper
-	 * is shared.
-	 */
-	duk__format_parts_iso8601(parts, tzoffset, flags, buf);
-	duk_push_string(ctx, (const char *) buf);
-	return 1;
-}
-
-/* Helper for component getter calls: check 'this' binding, get the
- * internal time value, split it into parts (either as UTC time or
- * local time), push a specified component as a return value to the
- * value stack and return 1 (caller can then tail call us).
- */
-DUK_LOCAL duk_ret_t duk__get_part_helper(duk_context *ctx, duk_small_uint_t flags_and_idx) {
-	duk_double_t d;
-	duk_int_t parts[DUK_DATE_IDX_NUM_PARTS];
-	duk_small_uint_t idx_part = (duk_small_uint_t) (flags_and_idx >> DUK_DATE_FLAG_VALUE_SHIFT);  /* unpack args */
-
-	DUK_ASSERT_DISABLE(idx_part >= 0);  /* unsigned */
-	DUK_ASSERT(idx_part < DUK_DATE_IDX_NUM_PARTS);
-
-	d = duk__push_this_get_timeval(ctx, flags_and_idx);
-	if (DUK_ISNAN(d)) {
-		duk_push_nan(ctx);
-		return 1;
-	}
-	DUK_ASSERT(DUK_ISFINITE(d));
-
-	duk_bi_date_timeval_to_parts(d, parts, NULL, flags_and_idx);  /* no need to mask idx portion */
-
-	/* Setter APIs detect special year numbers (0...99) and apply a +1900
-	 * only in certain cases.  The legacy getYear() getter applies -1900
-	 * unconditionally.
-	 */
-	duk_push_int(ctx, (flags_and_idx & DUK_DATE_FLAG_SUB1900) ? parts[idx_part] - 1900 : parts[idx_part]);
-	return 1;
-}
-
-/* Helper for component setter calls: check 'this' binding, get the
- * internal time value, split it into parts (either as UTC time or
- * local time), modify one or more components as specified, recompute
- * the time value, set it as the internal value.  Finally, push the
- * new time value as a return value to the value stack and return 1
- * (caller can then tail call us).
- */
-DUK_LOCAL duk_ret_t duk__set_part_helper(duk_context *ctx, duk_small_uint_t flags_and_maxnargs) {
-	duk_double_t d;
-	duk_int_t parts[DUK_DATE_IDX_NUM_PARTS];
-	duk_double_t dparts[DUK_DATE_IDX_NUM_PARTS];
-	duk_idx_t nargs;
-	duk_small_uint_t maxnargs = (duk_small_uint_t) (flags_and_maxnargs >> DUK_DATE_FLAG_VALUE_SHIFT);  /* unpack args */
-	duk_small_uint_t idx_first, idx;
-	duk_small_uint_t i;
-
-	nargs = duk_get_top(ctx);
-	d = duk__push_this_get_timeval(ctx, flags_and_maxnargs);
-	DUK_ASSERT(DUK_ISFINITE(d) || DUK_ISNAN(d));
-
-	if (DUK_ISFINITE(d)) {
-		duk_bi_date_timeval_to_parts(d, parts, dparts, flags_and_maxnargs);
-	} else {
-		/* NaN timevalue: we need to coerce the arguments, but
-		 * the resulting internal timestamp needs to remain NaN.
-		 * This works but is not pretty: parts and dparts will
-		 * be partially uninitialized, but we only write to them.
-		 */
-	}
-
-	/*
-	 *  Determining which datetime components to overwrite based on
-	 *  stack arguments is a bit complicated, but important to factor
-	 *  out from setters themselves for compactness.
-	 *
-	 *  If DUK_DATE_FLAG_TIMESETTER, maxnargs indicates setter type:
-	 *
-	 *   1 -> millisecond
-	 *   2 -> second, [millisecond]
-	 *   3 -> minute, [second], [millisecond]
-	 *   4 -> hour, [minute], [second], [millisecond]
-	 *
-	 *  Else:
-	 *
-	 *   1 -> date
-	 *   2 -> month, [date]
-	 *   3 -> year, [month], [date]
-	 *
-	 *  By comparing nargs and maxnargs (and flags) we know which
-	 *  components to override.  We rely on part index ordering.
-	 */
-
-	if (flags_and_maxnargs & DUK_DATE_FLAG_TIMESETTER) {
-		DUK_ASSERT(maxnargs >= 1 && maxnargs <= 4);
-		idx_first = DUK_DATE_IDX_MILLISECOND - (maxnargs - 1);
-	} else {
-		DUK_ASSERT(maxnargs >= 1 && maxnargs <= 3);
-		idx_first = DUK_DATE_IDX_DAY - (maxnargs - 1);
-	}
-	DUK_ASSERT_DISABLE(idx_first >= 0);  /* unsigned */
-	DUK_ASSERT(idx_first < DUK_DATE_IDX_NUM_PARTS);
-
-	for (i = 0; i < maxnargs; i++) {
-		if ((duk_idx_t) i >= nargs) {
-			/* no argument given -> leave components untouched */
-			break;
-		}
-		idx = idx_first + i;
-		DUK_ASSERT_DISABLE(idx >= 0);  /* unsigned */
-		DUK_ASSERT(idx < DUK_DATE_IDX_NUM_PARTS);
-
-		if (idx == DUK_DATE_IDX_YEAR && (flags_and_maxnargs & DUK_DATE_FLAG_YEAR_FIXUP)) {
-			duk__twodigit_year_fixup(ctx, (duk_idx_t) i);
-		}
-
-		dparts[idx] = duk_to_number(ctx, i);
-
-		if (idx == DUK_DATE_IDX_DAY) {
-			/* Day-of-month is one-based in the API, but zero-based
-			 * internally, so fix here.  Note that month is zero-based
-			 * both in the API and internally.
-			 */
-			/* SCANBUILD: complains about use of uninitialized values.
-			 * The complaint is correct, but operating in undefined
-			 * values here is intentional in some cases and the caller
-			 * ignores the results.
-			 */
-			dparts[idx] -= 1.0;
-		}
-	}
-
-	/* Leaves new timevalue on stack top and returns 1, which is correct
-	 * for part setters.
-	 */
-	if (DUK_ISFINITE(d)) {
-		return duk__set_this_timeval_from_dparts(ctx, dparts, flags_and_maxnargs);
-	} else {
-		/* Internal timevalue is already NaN, so don't touch it. */
-		duk_push_nan(ctx);
-		return 1;
-	}
-}
-
-/* Apply ToNumber() to specified index; if ToInteger(val) in [0,99], add
- * 1900 and replace value at idx_val.
- */
-DUK_LOCAL void duk__twodigit_year_fixup(duk_context *ctx, duk_idx_t idx_val) {
-	duk_double_t d;
-
-	/* XXX: idx_val would fit into 16 bits, but using duk_small_uint_t
-	 * might not generate better code due to casting.
-	 */
-
-	/* E5 Sections 15.9.3.1, B.2.4, B.2.5 */
-	duk_to_number(ctx, idx_val);
-	if (duk_is_nan(ctx, idx_val)) {
-		return;
-	}
-	duk_dup(ctx, idx_val);
-	duk_to_int(ctx, -1);
-	d = duk_get_number(ctx, -1);  /* get as double to handle huge numbers correctly */
-	if (d >= 0.0 && d <= 99.0) {
-		d += 1900.0;
-		duk_push_number(ctx, d);
-		duk_replace(ctx, idx_val);
-	}
-	duk_pop(ctx);
-}
-
-/* Set datetime parts from stack arguments, defaulting any missing values.
- * Day-of-week is not set; it is not required when setting the time value.
- */
-DUK_LOCAL void duk__set_parts_from_args(duk_context *ctx, duk_double_t *dparts, duk_idx_t nargs) {
-	duk_double_t d;
-	duk_small_uint_t i;
-	duk_small_uint_t idx;
-
-	/* Causes a ToNumber() coercion, but doesn't break coercion order since
-	 * year is coerced first anyway.
-	 */
-	duk__twodigit_year_fixup(ctx, 0);
-
-	/* There are at most 7 args, but we use 8 here so that also
-	 * DUK_DATE_IDX_WEEKDAY gets initialized (to zero) to avoid the potential
-	 * for any Valgrind gripes later.
-	 */
-	for (i = 0; i < 8; i++) {
-		/* Note: rely on index ordering */
-		idx = DUK_DATE_IDX_YEAR + i;
-		if ((duk_idx_t) i < nargs) {
-			d = duk_to_number(ctx, (duk_idx_t) i);
-			if (idx == DUK_DATE_IDX_DAY) {
-				/* Convert day from one-based to zero-based (internal).  This may
-				 * cause the day part to be negative, which is OK.
-				 */
-				d -= 1.0;
-			}
-		} else {
-			/* All components default to 0 except day-of-month which defaults
-			 * to 1.  However, because our internal day-of-month is zero-based,
-			 * it also defaults to zero here.
-			 */
-			d = 0.0;
-		}
-		dparts[idx] = d;
-	}
-
-	DUK_DDD(DUK_DDDPRINT("parts from args -> %lf %lf %lf %lf %lf %lf %lf %lf",
-	                     (double) dparts[0], (double) dparts[1],
-	                     (double) dparts[2], (double) dparts[3],
-	                     (double) dparts[4], (double) dparts[5],
-	                     (double) dparts[6], (double) dparts[7]));
-}
-
-/*
- *  Helper to format a time value into caller buffer, used by logging.
- *  'out_buf' must be at least DUK_BI_DATE_ISO8601_BUFSIZE long.
- */
-
-DUK_INTERNAL void duk_bi_date_format_timeval(duk_double_t timeval, duk_uint8_t *out_buf) {
-	duk_int_t parts[DUK_DATE_IDX_NUM_PARTS];
-
-	duk_bi_date_timeval_to_parts(timeval,
-	                             parts,
-	                             NULL,
-	                             DUK_DATE_FLAG_ONEBASED);
-
-	duk__format_parts_iso8601(parts,
-	                          0 /*tzoffset*/,
-	                          DUK_DATE_FLAG_TOSTRING_DATE |
-	                          DUK_DATE_FLAG_TOSTRING_TIME |
-	                          DUK_DATE_FLAG_SEP_T /*flags*/,
-	                          out_buf);
-}
-
-/*
- *  Indirect magic value lookup for Date methods.
- *
- *  Date methods don't put their control flags into the function magic value
- *  because they wouldn't fit into a LIGHTFUNC's magic field.  Instead, the
- *  magic value is set to an index pointing to the array of control flags
- *  below.
- *
- *  This must be kept in strict sync with genbuiltins.py!
- */
-
-static duk_uint16_t duk__date_magics[] = {
-	/* 0: toString */
-	DUK_DATE_FLAG_TOSTRING_DATE + DUK_DATE_FLAG_TOSTRING_TIME + DUK_DATE_FLAG_LOCALTIME,
-
-	/* 1: toDateString */
-	DUK_DATE_FLAG_TOSTRING_DATE + DUK_DATE_FLAG_LOCALTIME,
-
-	/* 2: toTimeString */
-	DUK_DATE_FLAG_TOSTRING_TIME + DUK_DATE_FLAG_LOCALTIME,
-
-	/* 3: toLocaleString */
-	DUK_DATE_FLAG_TOSTRING_DATE + DUK_DATE_FLAG_TOSTRING_TIME + DUK_DATE_FLAG_TOSTRING_LOCALE + DUK_DATE_FLAG_LOCALTIME,
-
-	/* 4: toLocaleDateString */
-	DUK_DATE_FLAG_TOSTRING_DATE + DUK_DATE_FLAG_TOSTRING_LOCALE + DUK_DATE_FLAG_LOCALTIME,
-
-	/* 5: toLocaleTimeString */
-	DUK_DATE_FLAG_TOSTRING_TIME + DUK_DATE_FLAG_TOSTRING_LOCALE + DUK_DATE_FLAG_LOCALTIME,
-
-	/* 6: toUTCString */
-	DUK_DATE_FLAG_TOSTRING_DATE + DUK_DATE_FLAG_TOSTRING_TIME,
-
-	/* 7: toISOString */
-	DUK_DATE_FLAG_TOSTRING_DATE + DUK_DATE_FLAG_TOSTRING_TIME + DUK_DATE_FLAG_NAN_TO_RANGE_ERROR + DUK_DATE_FLAG_SEP_T,
-
-	/* 8: getFullYear */
-	DUK_DATE_FLAG_LOCALTIME + (DUK_DATE_IDX_YEAR << DUK_DATE_FLAG_VALUE_SHIFT),
-
-	/* 9: getUTCFullYear */
-	0 + (DUK_DATE_IDX_YEAR << DUK_DATE_FLAG_VALUE_SHIFT),
-
-	/* 10: getMonth */
-	DUK_DATE_FLAG_LOCALTIME + (DUK_DATE_IDX_MONTH << DUK_DATE_FLAG_VALUE_SHIFT),
-
-	/* 11: getUTCMonth */
-	0 + (DUK_DATE_IDX_MONTH << DUK_DATE_FLAG_VALUE_SHIFT),
-
-	/* 12: getDate */
-	DUK_DATE_FLAG_ONEBASED + DUK_DATE_FLAG_LOCALTIME + (DUK_DATE_IDX_DAY << DUK_DATE_FLAG_VALUE_SHIFT),
-
-	/* 13: getUTCDate */
-	DUK_DATE_FLAG_ONEBASED + (DUK_DATE_IDX_DAY << DUK_DATE_FLAG_VALUE_SHIFT),
-
-	/* 14: getDay */
-	DUK_DATE_FLAG_LOCALTIME + (DUK_DATE_IDX_WEEKDAY << DUK_DATE_FLAG_VALUE_SHIFT),
-
-	/* 15: getUTCDay */
-	0 + (DUK_DATE_IDX_WEEKDAY << DUK_DATE_FLAG_VALUE_SHIFT),
-
-	/* 16: getHours */
-	DUK_DATE_FLAG_LOCALTIME + (DUK_DATE_IDX_HOUR << DUK_DATE_FLAG_VALUE_SHIFT),
-
-	/* 17: getUTCHours */
-	0 + (DUK_DATE_IDX_HOUR << DUK_DATE_FLAG_VALUE_SHIFT),
-
-	/* 18: getMinutes */
-	DUK_DATE_FLAG_LOCALTIME + (DUK_DATE_IDX_MINUTE << DUK_DATE_FLAG_VALUE_SHIFT),
-
-	/* 19: getUTCMinutes */
-	0 + (DUK_DATE_IDX_MINUTE << DUK_DATE_FLAG_VALUE_SHIFT),
-
-	/* 20: getSeconds */
-	DUK_DATE_FLAG_LOCALTIME + (DUK_DATE_IDX_SECOND << DUK_DATE_FLAG_VALUE_SHIFT),
-
-	/* 21: getUTCSeconds */
-	0 + (DUK_DATE_IDX_SECOND << DUK_DATE_FLAG_VALUE_SHIFT),
-
-	/* 22: getMilliseconds */
-	DUK_DATE_FLAG_LOCALTIME + (DUK_DATE_IDX_MILLISECOND << DUK_DATE_FLAG_VALUE_SHIFT),
-
-	/* 23: getUTCMilliseconds */
-	0 + (DUK_DATE_IDX_MILLISECOND << DUK_DATE_FLAG_VALUE_SHIFT),
-
-	/* 24: setMilliseconds */
-	DUK_DATE_FLAG_TIMESETTER + DUK_DATE_FLAG_LOCALTIME + (1 << DUK_DATE_FLAG_VALUE_SHIFT),
-
-	/* 25: setUTCMilliseconds */
-	DUK_DATE_FLAG_TIMESETTER + (1 << DUK_DATE_FLAG_VALUE_SHIFT),
-
-	/* 26: setSeconds */
-	DUK_DATE_FLAG_TIMESETTER + DUK_DATE_FLAG_LOCALTIME + (2 << DUK_DATE_FLAG_VALUE_SHIFT),
-
-	/* 27: setUTCSeconds */
-	DUK_DATE_FLAG_TIMESETTER + (2 << DUK_DATE_FLAG_VALUE_SHIFT),
-
-	/* 28: setMinutes */
-	DUK_DATE_FLAG_TIMESETTER + DUK_DATE_FLAG_LOCALTIME + (3 << DUK_DATE_FLAG_VALUE_SHIFT),
-
-	/* 29: setUTCMinutes */
-	DUK_DATE_FLAG_TIMESETTER + (3 << DUK_DATE_FLAG_VALUE_SHIFT),
-
-	/* 30: setHours */
-	DUK_DATE_FLAG_TIMESETTER + DUK_DATE_FLAG_LOCALTIME + (4 << DUK_DATE_FLAG_VALUE_SHIFT),
-
-	/* 31: setUTCHours */
-	DUK_DATE_FLAG_TIMESETTER + (4 << DUK_DATE_FLAG_VALUE_SHIFT),
-
-	/* 32: setDate */
-	DUK_DATE_FLAG_LOCALTIME + (1 << DUK_DATE_FLAG_VALUE_SHIFT),
-
-	/* 33: setUTCDate */
-	0 + (1 << DUK_DATE_FLAG_VALUE_SHIFT),
-
-	/* 34: setMonth */
-	DUK_DATE_FLAG_LOCALTIME + (2 << DUK_DATE_FLAG_VALUE_SHIFT),
-
-	/* 35: setUTCMonth */
-	0 + (2 << DUK_DATE_FLAG_VALUE_SHIFT),
-
-	/* 36: setFullYear */
-	DUK_DATE_FLAG_NAN_TO_ZERO + DUK_DATE_FLAG_LOCALTIME + (3 << DUK_DATE_FLAG_VALUE_SHIFT),
-
-	/* 37: setUTCFullYear */
-	DUK_DATE_FLAG_NAN_TO_ZERO + (3 << DUK_DATE_FLAG_VALUE_SHIFT),
-
-	/* 38: getYear */
-	DUK_DATE_FLAG_LOCALTIME + DUK_DATE_FLAG_SUB1900 + (DUK_DATE_IDX_YEAR << DUK_DATE_FLAG_VALUE_SHIFT),
-
-	/* 39: setYear */
-	DUK_DATE_FLAG_NAN_TO_ZERO + DUK_DATE_FLAG_YEAR_FIXUP + (3 << DUK_DATE_FLAG_VALUE_SHIFT),
-};
-
-DUK_LOCAL duk_small_uint_t duk__date_get_indirect_magic(duk_context *ctx) {
-	duk_small_int_t magicidx = (duk_small_uint_t) duk_get_current_magic(ctx);
-	DUK_ASSERT(magicidx >= 0 && magicidx < (duk_small_int_t) (sizeof(duk__date_magics) / sizeof(duk_uint16_t)));
-	return (duk_small_uint_t) duk__date_magics[magicidx];
-}
-
-/*
- *  Constructor calls
- */
-
-DUK_INTERNAL duk_ret_t duk_bi_date_constructor(duk_context *ctx) {
-	duk_idx_t nargs = duk_get_top(ctx);
-	duk_bool_t is_cons = duk_is_constructor_call(ctx);
-	duk_double_t dparts[DUK_DATE_IDX_NUM_PARTS];
-	duk_double_t d;
-
-	DUK_DDD(DUK_DDDPRINT("Date constructor, nargs=%ld, is_cons=%ld", (long) nargs, (long) is_cons));
-
-	duk_push_object_helper(ctx,
-	                       DUK_HOBJECT_FLAG_EXTENSIBLE |
-	                       DUK_HOBJECT_CLASS_AS_FLAGS(DUK_HOBJECT_CLASS_DATE),
-	                       DUK_BIDX_DATE_PROTOTYPE);
-
-	/* Unlike most built-ins, the internal [[PrimitiveValue]] of a Date
-	 * is mutable.
-	 */
-
-	if (nargs == 0 || !is_cons) {
-		d = duk__timeclip(DUK_USE_DATE_GET_NOW(ctx));
-		duk_push_number(ctx, d);
-		duk_xdef_prop_stridx(ctx, -2, DUK_STRIDX_INT_VALUE, DUK_PROPDESC_FLAGS_W);
-		if (!is_cons) {
-			/* called as a normal function: return new Date().toString() */
-			duk_to_string(ctx, -1);
-		}
-		return 1;
-	} else if (nargs == 1) {
-		duk_to_primitive(ctx, 0, DUK_HINT_NONE);
-		if (duk_is_string(ctx, 0)) {
-			duk__parse_string(ctx, duk_to_string(ctx, 0));
-			duk_replace(ctx, 0);  /* may be NaN */
-		}
-		d = duk__timeclip(duk_to_number(ctx, 0));
-		duk_push_number(ctx, d);
-		duk_xdef_prop_stridx(ctx, -2, DUK_STRIDX_INT_VALUE, DUK_PROPDESC_FLAGS_W);
-		return 1;
-	}
-
-	duk__set_parts_from_args(ctx, dparts, nargs);
-
-	/* Parts are in local time, convert when setting. */
-
-	(void) duk__set_this_timeval_from_dparts(ctx, dparts, DUK_DATE_FLAG_LOCALTIME /*flags*/);  /* -> [ ... this timeval ] */
-	duk_pop(ctx);  /* -> [ ... this ] */
-	return 1;
-}
-
-DUK_INTERNAL duk_ret_t duk_bi_date_constructor_parse(duk_context *ctx) {
-	return duk__parse_string(ctx, duk_to_string(ctx, 0));
-}
-
-DUK_INTERNAL duk_ret_t duk_bi_date_constructor_utc(duk_context *ctx) {
-	duk_idx_t nargs = duk_get_top(ctx);
-	duk_double_t dparts[DUK_DATE_IDX_NUM_PARTS];
-	duk_double_t d;
-
-	/* Behavior for nargs < 2 is implementation dependent: currently we'll
-	 * set a NaN time value (matching V8 behavior) in this case.
-	 */
-
-	if (nargs < 2) {
-		duk_push_nan(ctx);
-	} else {
-		duk__set_parts_from_args(ctx, dparts, nargs);
-		d = duk_bi_date_get_timeval_from_dparts(dparts, 0 /*flags*/);
-		duk_push_number(ctx, d);
-	}
-	return 1;
-}
-
-DUK_INTERNAL duk_ret_t duk_bi_date_constructor_now(duk_context *ctx) {
-	duk_double_t d;
-
-	d = DUK_USE_DATE_GET_NOW(ctx);
-	DUK_ASSERT(duk__timeclip(d) == d);  /* TimeClip() should never be necessary */
-	duk_push_number(ctx, d);
-	return 1;
-}
-
-/*
- *  String/JSON conversions
- *
- *  Human readable conversions are now basically ISO 8601 with a space
- *  (instead of 'T') as the date/time separator.  This is a good baseline
- *  and is platform independent.
- *
- *  A shared native helper to provide many conversions.  Magic value contains
- *  a set of flags.  The helper provides:
- *
- *    toString()
- *    toDateString()
- *    toTimeString()
- *    toLocaleString()
- *    toLocaleDateString()
- *    toLocaleTimeString()
- *    toUTCString()
- *    toISOString()
- *
- *  Notes:
- *
- *    - Date.prototype.toGMTString() and Date.prototype.toUTCString() are
- *      required to be the same Ecmascript function object (!), so it is
- *      omitted from here.
- *
- *    - Date.prototype.toUTCString(): E5.1 specification does not require a
- *      specific format, but result should be human readable.  The
- *      specification suggests using ISO 8601 format with a space (instead
- *      of 'T') separator if a more human readable format is not available.
- *
- *    - Date.prototype.toISOString(): unlike other conversion functions,
- *      toISOString() requires a RangeError for invalid date values.
- */
-
-DUK_INTERNAL duk_ret_t duk_bi_date_prototype_tostring_shared(duk_context *ctx) {
-	duk_small_uint_t flags = duk__date_get_indirect_magic(ctx);
-	return duk__to_string_helper(ctx, flags);
-}
-
-DUK_INTERNAL duk_ret_t duk_bi_date_prototype_value_of(duk_context *ctx) {
-	/* This native function is also used for Date.prototype.getTime()
-	 * as their behavior is identical.
-	 */
-
-	duk_double_t d = duk__push_this_get_timeval(ctx, 0 /*flags*/);  /* -> [ this ] */
-	DUK_ASSERT(DUK_ISFINITE(d) || DUK_ISNAN(d));
-	duk_push_number(ctx, d);
-	return 1;
-}
-
-DUK_INTERNAL duk_ret_t duk_bi_date_prototype_to_json(duk_context *ctx) {
-	/* Note: toJSON() is a generic function which works even if 'this'
-	 * is not a Date.  The sole argument is ignored.
-	 */
-
-	duk_push_this(ctx);
-	duk_to_object(ctx, -1);
-
-	duk_dup_top(ctx);
-	duk_to_primitive(ctx, -1, DUK_HINT_NUMBER);
-	if (duk_is_number(ctx, -1)) {
-		duk_double_t d = duk_get_number(ctx, -1);
-		if (!DUK_ISFINITE(d)) {
-			duk_push_null(ctx);
-			return 1;
-		}
-	}
-	duk_pop(ctx);
-
-	duk_get_prop_stridx(ctx, -1, DUK_STRIDX_TO_ISO_STRING);
-	duk_dup(ctx, -2);  /* -> [ O toIsoString O ] */
-	duk_call_method(ctx, 0);
-	return 1;
-}
-
-/*
- *  Getters.
- *
- *  Implementing getters is quite easy.  The internal time value is either
- *  NaN, or represents milliseconds (without fractions) from Jan 1, 1970.
- *  The internal time value can be converted to integer parts, and each
- *  part will be normalized and will fit into a 32-bit signed integer.
- *
- *  A shared native helper to provide all getters.  Magic value contains
- *  a set of flags and also packs the date component index argument.  The
- *  helper provides:
- *
- *    getFullYear()
- *    getUTCFullYear()
- *    getMonth()
- *    getUTCMonth()
- *    getDate()
- *    getUTCDate()
- *    getDay()
- *    getUTCDay()
- *    getHours()
- *    getUTCHours()
- *    getMinutes()
- *    getUTCMinutes()
- *    getSeconds()
- *    getUTCSeconds()
- *    getMilliseconds()
- *    getUTCMilliseconds()
- *    getYear()
- *
- *  Notes:
- *
- *    - Date.prototype.getDate(): 'date' means day-of-month, and is
- *      zero-based in internal calculations but public API expects it to
- *      be one-based.
- *
- *    - Date.prototype.getTime() and Date.prototype.valueOf() have identical
- *      behavior.  They have separate function objects, but share the same C
- *      function (duk_bi_date_prototype_value_of).
- */
-
-DUK_INTERNAL duk_ret_t duk_bi_date_prototype_get_shared(duk_context *ctx) {
-	duk_small_uint_t flags_and_idx = duk__date_get_indirect_magic(ctx);
-	return duk__get_part_helper(ctx, flags_and_idx);
-}
-
-DUK_INTERNAL duk_ret_t duk_bi_date_prototype_get_timezone_offset(duk_context *ctx) {
-	/*
-	 *  Return (t - LocalTime(t)) in minutes:
-	 *
-	 *    t - LocalTime(t) = t - (t + LocalTZA + DaylightSavingTA(t))
-	 *                     = -(LocalTZA + DaylightSavingTA(t))
-	 *
-	 *  where DaylightSavingTA() is checked for time 't'.
-	 *
-	 *  Note that the sign of the result is opposite to common usage,
-	 *  e.g. for EE(S)T which normally is +2h or +3h from UTC, this
-	 *  function returns -120 or -180.
-	 *
-	 */
-
-	duk_double_t d;
-	duk_int_t tzoffset;
-
-	/* Note: DST adjustment is determined using UTC time. */
-	d = duk__push_this_get_timeval(ctx, 0 /*flags*/);
-	DUK_ASSERT(DUK_ISFINITE(d) || DUK_ISNAN(d));
-	if (DUK_ISNAN(d)) {
-		duk_push_nan(ctx);
-	} else {
-		DUK_ASSERT(DUK_ISFINITE(d));
-		tzoffset = DUK_USE_DATE_GET_LOCAL_TZOFFSET(d);
-		duk_push_int(ctx, -tzoffset / 60);
-	}
-	return 1;
-}
-
-/*
- *  Setters.
- *
- *  Setters are a bit more complicated than getters.  Component setters
- *  break down the current time value into its (normalized) component
- *  parts, replace one or more components with -unnormalized- new values,
- *  and the components are then converted back into a time value.  As an
- *  example of using unnormalized values:
- *
- *    var d = new Date(1234567890);
- *
- *  is equivalent to:
- *
- *    var d = new Date(0);
- *    d.setUTCMilliseconds(1234567890);
- *
- *  A shared native helper to provide almost all setters.  Magic value
- *  contains a set of flags and also packs the "maxnargs" argument.  The
- *  helper provides:
- *
- *    setMilliseconds()
- *    setUTCMilliseconds()
- *    setSeconds()
- *    setUTCSeconds()
- *    setMinutes()
- *    setUTCMinutes()
- *    setHours()
- *    setUTCHours()
- *    setDate()
- *    setUTCDate()
- *    setMonth()
- *    setUTCMonth()
- *    setFullYear()
- *    setUTCFullYear()
- *    setYear()
- *
- *  Notes:
- *
- *    - Date.prototype.setYear() (Section B addition): special year check
- *      is omitted.  NaN / Infinity will just flow through and ultimately
- *      result in a NaN internal time value.
- *
- *    - Date.prototype.setYear() does not have optional arguments for
- *      setting month and day-in-month (like setFullYear()), but we indicate
- *      'maxnargs' to be 3 to get the year written to the correct component
- *      index in duk__set_part_helper().  The function has nargs == 1, so only
- *      the year will be set regardless of actual argument count.
- */
-
-DUK_INTERNAL duk_ret_t duk_bi_date_prototype_set_shared(duk_context *ctx) {
-	duk_small_uint_t flags_and_maxnargs = duk__date_get_indirect_magic(ctx);
-	return duk__set_part_helper(ctx, flags_and_maxnargs);
-}
-
-DUK_INTERNAL duk_ret_t duk_bi_date_prototype_set_time(duk_context *ctx) {
-	duk_double_t d;
-
-	(void) duk__push_this_get_timeval(ctx, 0 /*flags*/); /* -> [ timeval this ] */
-	d = duk__timeclip(duk_to_number(ctx, 0));
-	duk_push_number(ctx, d);
-	duk_dup_top(ctx);
-	duk_put_prop_stridx(ctx, -3, DUK_STRIDX_INT_VALUE); /* -> [ timeval this timeval ] */
-
-	return 1;
-}

http://git-wip-us.apache.org/repos/asf/nifi-minifi-cpp/blob/ede68a10/thirdparty/civetweb-1.10/src/third_party/duktape-1.5.2/src-separate/duk_bi_date_unix.c
----------------------------------------------------------------------
diff --git a/thirdparty/civetweb-1.10/src/third_party/duktape-1.5.2/src-separate/duk_bi_date_unix.c b/thirdparty/civetweb-1.10/src/third_party/duktape-1.5.2/src-separate/duk_bi_date_unix.c
deleted file mode 100644
index e1e7c42..0000000
--- a/thirdparty/civetweb-1.10/src/third_party/duktape-1.5.2/src-separate/duk_bi_date_unix.c
+++ /dev/null
@@ -1,309 +0,0 @@
-/*
- *  Unix-like Date providers
- *
- *  Generally useful Unix / POSIX / ANSI Date providers.
- */
-
-#include "duk_internal.h"
-
-/* The necessary #includes are in place in duk_config.h. */
-
-/* Buffer sizes for some UNIX calls.  Larger than strictly necessary
- * to avoid Valgrind errors.
- */
-#define DUK__STRPTIME_BUF_SIZE  64
-#define DUK__STRFTIME_BUF_SIZE  64
-
-#if defined(DUK_USE_DATE_NOW_GETTIMEOFDAY)
-/* Get current Ecmascript time (= UNIX/Posix time, but in milliseconds). */
-DUK_INTERNAL duk_double_t duk_bi_date_get_now_gettimeofday(duk_context *ctx) {
-	duk_hthread *thr = (duk_hthread *) ctx;
-	struct timeval tv;
-	duk_double_t d;
-
-	if (gettimeofday(&tv, NULL) != 0) {
-		DUK_ERROR_INTERNAL_DEFMSG(thr);
-	}
-
-	d = ((duk_double_t) tv.tv_sec) * 1000.0 +
-	    ((duk_double_t) (tv.tv_usec / 1000));
-	DUK_ASSERT(DUK_FLOOR(d) == d);  /* no fractions */
-
-	return d;
-}
-#endif  /* DUK_USE_DATE_NOW_GETTIMEOFDAY */
-
-#if defined(DUK_USE_DATE_NOW_TIME)
-/* Not a very good provider: only full seconds are available. */
-DUK_INTERNAL duk_double_t duk_bi_date_get_now_time(duk_context *ctx) {
-	time_t t;
-
-	DUK_UNREF(ctx);
-	t = time(NULL);
-	return ((duk_double_t) t) * 1000.0;
-}
-#endif  /* DUK_USE_DATE_NOW_TIME */
-
-#if defined(DUK_USE_DATE_TZO_GMTIME) || defined(DUK_USE_DATE_TZO_GMTIME_R)
-/* Get local time offset (in seconds) for a certain (UTC) instant 'd'. */
-DUK_INTERNAL duk_int_t duk_bi_date_get_local_tzoffset_gmtime(duk_double_t d) {
-	time_t t, t1, t2;
-	duk_int_t parts[DUK_DATE_IDX_NUM_PARTS];
-	duk_double_t dparts[DUK_DATE_IDX_NUM_PARTS];
-	struct tm tms[2];
-#ifdef DUK_USE_DATE_TZO_GMTIME
-	struct tm *tm_ptr;
-#endif
-
-	/* For NaN/inf, the return value doesn't matter. */
-	if (!DUK_ISFINITE(d)) {
-		return 0;
-	}
-
-	/* If not within Ecmascript range, some integer time calculations
-	 * won't work correctly (and some asserts will fail), so bail out
-	 * if so.  This fixes test-bug-date-insane-setyear.js.  There is
-	 * a +/- 24h leeway in this range check to avoid a test262 corner
-	 * case documented in test-bug-date-timeval-edges.js.
-	 */
-	if (!duk_bi_date_timeval_in_leeway_range(d)) {
-		DUK_DD(DUK_DDPRINT("timeval not within valid range, skip tzoffset computation to avoid integer overflows"));
-		return 0;
-	}
-
-	/*
-	 *  This is a bit tricky to implement portably.  The result depends
-	 *  on the timestamp (specifically, DST depends on the timestamp).
-	 *  If e.g. UNIX APIs are used, they'll have portability issues with
-	 *  very small and very large years.
-	 *
-	 *  Current approach:
-	 *
-	 *  - Stay within portable UNIX limits by using equivalent year mapping.
-	 *    Avoid year 1970 and 2038 as some conversions start to fail, at
-	 *    least on some platforms.  Avoiding 1970 means that there are
-	 *    currently DST discrepancies for 1970.
-	 *
-	 *  - Create a UTC and local time breakdowns from 't'.  Then create
-	 *    a time_t using gmtime() and localtime() and compute the time
-	 *    difference between the two.
-	 *
-	 *  Equivalent year mapping (E5 Section 15.9.1.8):
-	 *
-	 *    If the host environment provides functionality for determining
-	 *    daylight saving time, the implementation of ECMAScript is free
-	 *    to map the year in question to an equivalent year (same
-	 *    leap-year-ness and same starting week day for the year) for which
-	 *    the host environment provides daylight saving time information.
-	 *    The only restriction is that all equivalent years should produce
-	 *    the same result.
-	 *
-	 *  This approach is quite reasonable but not entirely correct, e.g.
-	 *  the specification also states (E5 Section 15.9.1.8):
-	 *
-	 *    The implementation of ECMAScript should not try to determine
-	 *    whether the exact time was subject to daylight saving time, but
-	 *    just whether daylight saving time would have been in effect if
-	 *    the _current daylight saving time algorithm_ had been used at the
-	 *    time.  This avoids complications such as taking into account the
-	 *    years that the locale observed daylight saving time year round.
-	 *
-	 *  Since we rely on the platform APIs for conversions between local
-	 *  time and UTC, we can't guarantee the above.  Rather, if the platform
-	 *  has historical DST rules they will be applied.  This seems to be the
-	 *  general preferred direction in Ecmascript standardization (or at least
-	 *  implementations) anyway, and even the equivalent year mapping should
-	 *  be disabled if the platform is known to handle DST properly for the
-	 *  full Ecmascript range.
-	 *
-	 *  The following has useful discussion and links:
-	 *
-	 *    https://bugzilla.mozilla.org/show_bug.cgi?id=351066
-	 */
-
-	duk_bi_date_timeval_to_parts(d, parts, dparts, DUK_DATE_FLAG_EQUIVYEAR /*flags*/);
-	DUK_ASSERT(parts[DUK_DATE_IDX_YEAR] >= 1970 && parts[DUK_DATE_IDX_YEAR] <= 2038);
-
-	d = duk_bi_date_get_timeval_from_dparts(dparts, 0 /*flags*/);
-	DUK_ASSERT(d >= 0 && d < 2147483648.0 * 1000.0);  /* unsigned 31-bit range */
-	t = (time_t) (d / 1000.0);
-	DUK_DDD(DUK_DDDPRINT("timeval: %lf -> time_t %ld", (double) d, (long) t));
-
-	DUK_MEMZERO((void *) tms, sizeof(struct tm) * 2);
-
-#if defined(DUK_USE_DATE_TZO_GMTIME_R)
-	(void) gmtime_r(&t, &tms[0]);
-	(void) localtime_r(&t, &tms[1]);
-#elif defined(DUK_USE_DATE_TZO_GMTIME)
-	tm_ptr = gmtime(&t);
-	DUK_MEMCPY((void *) &tms[0], tm_ptr, sizeof(struct tm));
-	tm_ptr = localtime(&t);
-	DUK_MEMCPY((void *) &tms[1], tm_ptr, sizeof(struct tm));
-#else
-#error internal error
-#endif
-	DUK_DDD(DUK_DDDPRINT("gmtime result: tm={sec:%ld,min:%ld,hour:%ld,mday:%ld,mon:%ld,year:%ld,"
-	                     "wday:%ld,yday:%ld,isdst:%ld}",
-	                     (long) tms[0].tm_sec, (long) tms[0].tm_min, (long) tms[0].tm_hour,
-	                     (long) tms[0].tm_mday, (long) tms[0].tm_mon, (long) tms[0].tm_year,
-	                     (long) tms[0].tm_wday, (long) tms[0].tm_yday, (long) tms[0].tm_isdst));
-	DUK_DDD(DUK_DDDPRINT("localtime result: tm={sec:%ld,min:%ld,hour:%ld,mday:%ld,mon:%ld,year:%ld,"
-	                     "wday:%ld,yday:%ld,isdst:%ld}",
-	                     (long) tms[1].tm_sec, (long) tms[1].tm_min, (long) tms[1].tm_hour,
-	                     (long) tms[1].tm_mday, (long) tms[1].tm_mon, (long) tms[1].tm_year,
-	                     (long) tms[1].tm_wday, (long) tms[1].tm_yday, (long) tms[1].tm_isdst));
-
-	/* tm_isdst is both an input and an output to mktime(), use 0 to
-	 * avoid DST handling in mktime():
-	 * - https://github.com/svaarala/duktape/issues/406
-	 * - http://stackoverflow.com/questions/8558919/mktime-and-tm-isdst
-	 */
-	tms[0].tm_isdst = 0;
-	tms[1].tm_isdst = 0;
-	t1 = mktime(&tms[0]);  /* UTC */
-	t2 = mktime(&tms[1]);  /* local */
-	if (t1 == (time_t) -1 || t2 == (time_t) -1) {
-		/* This check used to be for (t < 0) but on some platforms
-		 * time_t is unsigned and apparently the proper way to detect
-		 * an mktime() error return is the cast above.  See e.g.:
-		 * http://pubs.opengroup.org/onlinepubs/009695299/functions/mktime.html
-		 */
-		goto error;
-	}
-	DUK_DDD(DUK_DDDPRINT("t1=%ld (utc), t2=%ld (local)", (long) t1, (long) t2));
-
-	/* Compute final offset in seconds, positive if local time ahead of
-	 * UTC (returned value is UTC-to-local offset).
-	 *
-	 * difftime() returns a double, so coercion to int generates quite
-	 * a lot of code.  Direct subtraction is not portable, however.
-	 * XXX: allow direct subtraction on known platforms.
-	 */
-#if 0
-	return (duk_int_t) (t2 - t1);
-#endif
-	return (duk_int_t) difftime(t2, t1);
-
- error:
-	/* XXX: return something more useful, so that caller can throw? */
-	DUK_D(DUK_DPRINT("mktime() failed, d=%lf", (double) d));
-	return 0;
-}
-#endif  /* DUK_USE_DATE_TZO_GMTIME */
-
-#if defined(DUK_USE_DATE_PRS_STRPTIME)
-DUK_INTERNAL duk_bool_t duk_bi_date_parse_string_strptime(duk_context *ctx, const char *str) {
-	struct tm tm;
-	time_t t;
-	char buf[DUK__STRPTIME_BUF_SIZE];
-
-	/* copy to buffer with spare to avoid Valgrind gripes from strptime */
-	DUK_ASSERT(str != NULL);
-	DUK_MEMZERO(buf, sizeof(buf));  /* valgrind whine without this */
-	DUK_SNPRINTF(buf, sizeof(buf), "%s", (const char *) str);
-	buf[sizeof(buf) - 1] = (char) 0;
-
-	DUK_DDD(DUK_DDDPRINT("parsing: '%s'", (const char *) buf));
-
-	DUK_MEMZERO(&tm, sizeof(tm));
-	if (strptime((const char *) buf, "%c", &tm) != NULL) {
-		DUK_DDD(DUK_DDDPRINT("before mktime: tm={sec:%ld,min:%ld,hour:%ld,mday:%ld,mon:%ld,year:%ld,"
-		                     "wday:%ld,yday:%ld,isdst:%ld}",
-		                     (long) tm.tm_sec, (long) tm.tm_min, (long) tm.tm_hour,
-		                     (long) tm.tm_mday, (long) tm.tm_mon, (long) tm.tm_year,
-		                     (long) tm.tm_wday, (long) tm.tm_yday, (long) tm.tm_isdst));
-		tm.tm_isdst = -1;  /* negative: dst info not available */
-
-		t = mktime(&tm);
-		DUK_DDD(DUK_DDDPRINT("mktime() -> %ld", (long) t));
-		if (t >= 0) {
-			duk_push_number(ctx, ((duk_double_t) t) * 1000.0);
-			return 1;
-		}
-	}
-
-	return 0;
-}
-#endif  /* DUK_USE_DATE_PRS_STRPTIME */
-
-#if defined(DUK_USE_DATE_PRS_GETDATE)
-DUK_INTERNAL duk_bool_t duk_bi_date_parse_string_getdate(duk_context *ctx, const char *str) {
-	struct tm tm;
-	duk_small_int_t rc;
-	time_t t;
-
-	/* For this to work, DATEMSK must be set, so this is not very
-	 * convenient for an embeddable interpreter.
-	 */
-
-	DUK_MEMZERO(&tm, sizeof(struct tm));
-	rc = (duk_small_int_t) getdate_r(str, &tm);
-	DUK_DDD(DUK_DDDPRINT("getdate_r() -> %ld", (long) rc));
-
-	if (rc == 0) {
-		t = mktime(&tm);
-		DUK_DDD(DUK_DDDPRINT("mktime() -> %ld", (long) t));
-		if (t >= 0) {
-			duk_push_number(ctx, (duk_double_t) t);
-			return 1;
-		}
-	}
-
-	return 0;
-}
-#endif  /* DUK_USE_DATE_PRS_GETDATE */
-
-#if defined(DUK_USE_DATE_FMT_STRFTIME)
-DUK_INTERNAL duk_bool_t duk_bi_date_format_parts_strftime(duk_context *ctx, duk_int_t *parts, duk_int_t tzoffset, duk_small_uint_t flags) {
-	char buf[DUK__STRFTIME_BUF_SIZE];
-	struct tm tm;
-	const char *fmt;
-
-	DUK_UNREF(tzoffset);
-
-	/* If the platform doesn't support the entire Ecmascript range, we need
-	 * to return 0 so that the caller can fall back to the default formatter.
-	 *
-	 * For now, assume that if time_t is 8 bytes or more, the whole Ecmascript
-	 * range is supported.  For smaller time_t values (4 bytes in practice),
-	 * assumes that the signed 32-bit range is supported.
-	 *
-	 * XXX: detect this more correctly per platform.  The size of time_t is
-	 * probably not an accurate guarantee of strftime() supporting or not
-	 * supporting a large time range (the full Ecmascript range).
-	 */
-	if (sizeof(time_t) < 8 &&
-	   (parts[DUK_DATE_IDX_YEAR] < 1970 || parts[DUK_DATE_IDX_YEAR] > 2037)) {
-		/* be paranoid for 32-bit time values (even avoiding negative ones) */
-		return 0;
-	}
-
-	DUK_MEMZERO(&tm, sizeof(tm));
-	tm.tm_sec = parts[DUK_DATE_IDX_SECOND];
-	tm.tm_min = parts[DUK_DATE_IDX_MINUTE];
-	tm.tm_hour = parts[DUK_DATE_IDX_HOUR];
-	tm.tm_mday = parts[DUK_DATE_IDX_DAY];       /* already one-based */
-	tm.tm_mon = parts[DUK_DATE_IDX_MONTH] - 1;  /* one-based -> zero-based */
-	tm.tm_year = parts[DUK_DATE_IDX_YEAR] - 1900;
-	tm.tm_wday = parts[DUK_DATE_IDX_WEEKDAY];
-	tm.tm_isdst = 0;
-
-	DUK_MEMZERO(buf, sizeof(buf));
-	if ((flags & DUK_DATE_FLAG_TOSTRING_DATE) && (flags & DUK_DATE_FLAG_TOSTRING_TIME)) {
-		fmt = "%c";
-	} else if (flags & DUK_DATE_FLAG_TOSTRING_DATE) {
-		fmt = "%x";
-	} else {
-		DUK_ASSERT(flags & DUK_DATE_FLAG_TOSTRING_TIME);
-		fmt = "%X";
-	}
-	(void) strftime(buf, sizeof(buf) - 1, fmt, &tm);
-	DUK_ASSERT(buf[sizeof(buf) - 1] == 0);
-
-	duk_push_string(ctx, buf);
-	return 1;
-}
-#endif  /* DUK_USE_DATE_FMT_STRFTIME */
-
-#undef DUK__STRPTIME_BUF_SIZE
-#undef DUK__STRFTIME_BUF_SIZE

http://git-wip-us.apache.org/repos/asf/nifi-minifi-cpp/blob/ede68a10/thirdparty/civetweb-1.10/src/third_party/duktape-1.5.2/src-separate/duk_bi_date_windows.c
----------------------------------------------------------------------
diff --git a/thirdparty/civetweb-1.10/src/third_party/duktape-1.5.2/src-separate/duk_bi_date_windows.c b/thirdparty/civetweb-1.10/src/third_party/duktape-1.5.2/src-separate/duk_bi_date_windows.c
deleted file mode 100644
index c131d22..0000000
--- a/thirdparty/civetweb-1.10/src/third_party/duktape-1.5.2/src-separate/duk_bi_date_windows.c
+++ /dev/null
@@ -1,98 +0,0 @@
-/*
- *  Windows Date providers
- *
- *  Platform specific links:
- *
- *    - http://msdn.microsoft.com/en-us/library/windows/desktop/ms725473(v=vs.85).aspx
- */
-
-#include "duk_internal.h"
-
-/* The necessary #includes are in place in duk_config.h. */
-
-#if defined(DUK_USE_DATE_NOW_WINDOWS) || defined(DUK_USE_DATE_TZO_WINDOWS)
-/* Shared Windows helpers. */
-DUK_LOCAL void duk__convert_systime_to_ularge(const SYSTEMTIME *st, ULARGE_INTEGER *res) {
-	FILETIME ft;
-	if (SystemTimeToFileTime(st, &ft) == 0) {
-		DUK_D(DUK_DPRINT("SystemTimeToFileTime() failed, returning 0"));
-		res->QuadPart = 0;
-	} else {
-		res->LowPart = ft.dwLowDateTime;
-		res->HighPart = ft.dwHighDateTime;
-	}
-}
-DUK_LOCAL void duk__set_systime_jan1970(SYSTEMTIME *st) {
-	DUK_MEMZERO((void *) st, sizeof(*st));
-	st->wYear = 1970;
-	st->wMonth = 1;
-	st->wDayOfWeek = 4;  /* not sure whether or not needed; Thursday */
-	st->wDay = 1;
-	DUK_ASSERT(st->wHour == 0);
-	DUK_ASSERT(st->wMinute == 0);
-	DUK_ASSERT(st->wSecond == 0);
-	DUK_ASSERT(st->wMilliseconds == 0);
-}
-#endif  /* defined(DUK_USE_DATE_NOW_WINDOWS) || defined(DUK_USE_DATE_TZO_WINDOWS) */
-
-#ifdef DUK_USE_DATE_NOW_WINDOWS
-DUK_INTERNAL duk_double_t duk_bi_date_get_now_windows(duk_context *ctx) {
-	/* Suggested step-by-step method from documentation of RtlTimeToSecondsSince1970:
-	 * http://msdn.microsoft.com/en-us/library/windows/desktop/ms724928(v=vs.85).aspx
-	 */
-	SYSTEMTIME st1, st2;
-	ULARGE_INTEGER tmp1, tmp2;
-
-	DUK_UNREF(ctx);
-
-	GetSystemTime(&st1);
-	duk__convert_systime_to_ularge((const SYSTEMTIME *) &st1, &tmp1);
-
-	duk__set_systime_jan1970(&st2);
-	duk__convert_systime_to_ularge((const SYSTEMTIME *) &st2, &tmp2);
-
-	/* Difference is in 100ns units, convert to milliseconds w/o fractions */
-	return (duk_double_t) ((tmp1.QuadPart - tmp2.QuadPart) / 10000LL);
-}
-#endif  /* DUK_USE_DATE_NOW_WINDOWS */
-
-
-#if defined(DUK_USE_DATE_TZO_WINDOWS)
-DUK_INTERNAL_DECL duk_int_t duk_bi_date_get_local_tzoffset_windows(duk_double_t d) {
-	SYSTEMTIME st1;
-	SYSTEMTIME st2;
-	SYSTEMTIME st3;
-	ULARGE_INTEGER tmp1;
-	ULARGE_INTEGER tmp2;
-	ULARGE_INTEGER tmp3;
-	FILETIME ft1;
-
-	/* XXX: handling of timestamps outside Windows supported range.
-	 * How does Windows deal with dates before 1600?  Does windows
-	 * support all Ecmascript years (like -200000 and +200000)?
-	 * Should equivalent year mapping be used here too?  If so, use
-	 * a shared helper (currently integrated into timeval-to-parts).
-	 */
-
-	/* Use the approach described in "Remarks" of FileTimeToLocalFileTime:
-	 * http://msdn.microsoft.com/en-us/library/windows/desktop/ms724277(v=vs.85).aspx
-	 */
-
-	duk__set_systime_jan1970(&st1);
-	duk__convert_systime_to_ularge((const SYSTEMTIME *) &st1, &tmp1);
-	tmp2.QuadPart = (ULONGLONG) (d * 10000.0);  /* millisec -> 100ns units since jan 1, 1970 */
-	tmp2.QuadPart += tmp1.QuadPart;             /* input 'd' in Windows UTC, 100ns units */
-
-	ft1.dwLowDateTime = tmp2.LowPart;
-	ft1.dwHighDateTime = tmp2.HighPart;
-	FileTimeToSystemTime((const FILETIME *) &ft1, &st2);
-	if (SystemTimeToTzSpecificLocalTime((LPTIME_ZONE_INFORMATION) NULL, &st2, &st3) == 0) {
-		DUK_D(DUK_DPRINT("SystemTimeToTzSpecificLocalTime() failed, return tzoffset 0"));
-		return 0;
-	}
-	duk__convert_systime_to_ularge((const SYSTEMTIME *) &st3, &tmp3);
-
-	/* Positive if local time ahead of UTC. */
-	return (duk_int_t) (((LONGLONG) tmp3.QuadPart - (LONGLONG) tmp2.QuadPart) / 10000000LL);  /* seconds */
-}
-#endif  /* DUK_USE_DATE_TZO_WINDOWS */

http://git-wip-us.apache.org/repos/asf/nifi-minifi-cpp/blob/ede68a10/thirdparty/civetweb-1.10/src/third_party/duktape-1.5.2/src-separate/duk_bi_duktape.c
----------------------------------------------------------------------
diff --git a/thirdparty/civetweb-1.10/src/third_party/duktape-1.5.2/src-separate/duk_bi_duktape.c b/thirdparty/civetweb-1.10/src/third_party/duktape-1.5.2/src-separate/duk_bi_duktape.c
deleted file mode 100644
index 79d6919..0000000
--- a/thirdparty/civetweb-1.10/src/third_party/duktape-1.5.2/src-separate/duk_bi_duktape.c
+++ /dev/null
@@ -1,321 +0,0 @@
-/*
- *  Duktape built-ins
- *
- *  Size optimization note: it might seem that vararg multipurpose functions
- *  like fin(), enc(), and dec() are not very size optimal, but using a single
- *  user-visible Ecmascript function saves a lot of run-time footprint; each
- *  Function instance takes >100 bytes.  Using a shared native helper and a
- *  'magic' value won't save much if there are multiple Function instances
- *  anyway.
- */
-
-#include "duk_internal.h"
-
-/* Raw helper to extract internal information / statistics about a value.
- * The return values are version specific and must not expose anything
- * that would lead to security issues (e.g. exposing compiled function
- * 'data' buffer might be an issue).  Currently only counts and sizes and
- * such are given so there should not be a security impact.
- */
-DUK_INTERNAL duk_ret_t duk_bi_duktape_object_info(duk_context *ctx) {
-	duk_hthread *thr = (duk_hthread *) ctx;
-	duk_tval *tv;
-	duk_heaphdr *h;
-	duk_int_t i, n;
-
-	DUK_UNREF(thr);
-
-	/* result array */
-	duk_push_array(ctx);  /* -> [ val arr ] */
-
-	/* type tag (public) */
-	duk_push_int(ctx, duk_get_type(ctx, 0));
-
-	/* address */
-	tv = duk_get_tval(ctx, 0);
-	DUK_ASSERT(tv != NULL);  /* because arg count is 1 */
-	if (DUK_TVAL_IS_HEAP_ALLOCATED(tv)) {
-		h = DUK_TVAL_GET_HEAPHDR(tv);
-		duk_push_pointer(ctx, (void *) h);
-	} else {
-		/* internal type tag */
-		duk_push_int(ctx, (duk_int_t) DUK_TVAL_GET_TAG(tv));
-		goto done;
-	}
-	DUK_ASSERT(h != NULL);
-
-	/* refcount */
-#ifdef DUK_USE_REFERENCE_COUNTING
-	duk_push_size_t(ctx, DUK_HEAPHDR_GET_REFCOUNT(h));
-#else
-	duk_push_undefined(ctx);
-#endif
-
-	/* heaphdr size and additional allocation size, followed by
-	 * type specific stuff (with varying value count)
-	 */
-	switch ((duk_small_int_t) DUK_HEAPHDR_GET_TYPE(h)) {
-	case DUK_HTYPE_STRING: {
-		duk_hstring *h_str = (duk_hstring *) h;
-		duk_push_uint(ctx, (duk_uint_t) (sizeof(duk_hstring) + DUK_HSTRING_GET_BYTELEN(h_str) + 1));
-		break;
-	}
-	case DUK_HTYPE_OBJECT: {
-		duk_hobject *h_obj = (duk_hobject *) h;
-		duk_small_uint_t hdr_size;
-		if (DUK_HOBJECT_IS_COMPILEDFUNCTION(h_obj)) {
-			hdr_size = (duk_small_uint_t) sizeof(duk_hcompiledfunction);
-		} else if (DUK_HOBJECT_IS_NATIVEFUNCTION(h_obj)) {
-			hdr_size = (duk_small_uint_t) sizeof(duk_hnativefunction);
-		} else if (DUK_HOBJECT_IS_THREAD(h_obj)) {
-			hdr_size = (duk_small_uint_t) sizeof(duk_hthread);
-#if defined(DUK_USE_BUFFEROBJECT_SUPPORT)
-		} else if (DUK_HOBJECT_IS_BUFFEROBJECT(h_obj)) {
-			hdr_size = (duk_small_uint_t) sizeof(duk_hbufferobject);
-#endif
-		} else {
-			hdr_size = (duk_small_uint_t) sizeof(duk_hobject);
-		}
-		duk_push_uint(ctx, (duk_uint_t) hdr_size);
-		duk_push_uint(ctx, (duk_uint_t) DUK_HOBJECT_P_ALLOC_SIZE(h_obj));
-		duk_push_uint(ctx, (duk_uint_t) DUK_HOBJECT_GET_ESIZE(h_obj));
-		/* Note: e_next indicates the number of gc-reachable entries
-		 * in the entry part, and also indicates the index where the
-		 * next new property would be inserted.  It does *not* indicate
-		 * the number of non-NULL keys present in the object.  That
-		 * value could be counted separately but requires a pass through
-		 * the key list.
-		 */
-		duk_push_uint(ctx, (duk_uint_t) DUK_HOBJECT_GET_ENEXT(h_obj));
-		duk_push_uint(ctx, (duk_uint_t) DUK_HOBJECT_GET_ASIZE(h_obj));
-		duk_push_uint(ctx, (duk_uint_t) DUK_HOBJECT_GET_HSIZE(h_obj));
-		if (DUK_HOBJECT_IS_COMPILEDFUNCTION(h_obj)) {
-			duk_hbuffer *h_data = (duk_hbuffer *) DUK_HCOMPILEDFUNCTION_GET_DATA(thr->heap, (duk_hcompiledfunction *) h_obj);
-			if (h_data) {
-				duk_push_uint(ctx, (duk_uint_t) DUK_HBUFFER_GET_SIZE(h_data));
-			} else {
-				duk_push_uint(ctx, 0);
-			}
-		}
-		break;
-	}
-	case DUK_HTYPE_BUFFER: {
-		duk_hbuffer *h_buf = (duk_hbuffer *) h;
-		if (DUK_HBUFFER_HAS_DYNAMIC(h_buf)) {
-			if (DUK_HBUFFER_HAS_EXTERNAL(h_buf)) {
-				duk_push_uint(ctx, (duk_uint_t) (sizeof(duk_hbuffer_external)));
-			} else {
-				/* When alloc_size == 0 the second allocation may not
-				 * actually exist.
-				 */
-				duk_push_uint(ctx, (duk_uint_t) (sizeof(duk_hbuffer_dynamic)));
-			}
-			duk_push_uint(ctx, (duk_uint_t) (DUK_HBUFFER_GET_SIZE(h_buf)));
-		} else {
-			duk_push_uint(ctx, (duk_uint_t) (sizeof(duk_hbuffer_fixed) + DUK_HBUFFER_GET_SIZE(h_buf) + 1));
-		}
-		break;
-
-	}
-	}
-
- done:
-	/* set values into ret array */
-	/* XXX: primitive to make array from valstack slice */
-	n = duk_get_top(ctx);
-	for (i = 2; i < n; i++) {
-		duk_dup(ctx, i);
-		duk_put_prop_index(ctx, 1, i - 2);
-	}
-	duk_dup(ctx, 1);
-	return 1;
-}
-
-DUK_INTERNAL duk_ret_t duk_bi_duktape_object_act(duk_context *ctx) {
-	duk_hthread *thr = (duk_hthread *) ctx;
-	duk_activation *act;
-	duk_uint_fast32_t pc;
-	duk_uint_fast32_t line;
-	duk_int_t level;
-
-	/* -1             = top callstack entry, callstack[callstack_top - 1]
-	 * -callstack_top = bottom callstack entry, callstack[0]
-	 */
-	level = duk_to_int(ctx, 0);
-	if (level >= 0 || -level > (duk_int_t) thr->callstack_top) {
-		return 0;
-	}
-	DUK_ASSERT(level >= -((duk_int_t) thr->callstack_top) && level <= -1);
-	act = thr->callstack + thr->callstack_top + level;
-
-	duk_push_object(ctx);
-
-	duk_push_tval(ctx, &act->tv_func);
-
-	/* Relevant PC is just before current one because PC is
-	 * post-incremented.  This should match what error augment
-	 * code does.
-	 */
-	pc = duk_hthread_get_act_prev_pc(thr, act);
-	duk_push_uint(ctx, (duk_uint_t) pc);
-
-#if defined(DUK_USE_PC2LINE)
-	line = duk_hobject_pc2line_query(ctx, -2, pc);
-#else
-	line = 0;
-#endif
-	duk_push_uint(ctx, (duk_uint_t) line);
-
-	/* Providing access to e.g. act->lex_env would be dangerous: these
-	 * internal structures must never be accessible to the application.
-	 * Duktape relies on them having consistent data, and this consistency
-	 * is only asserted for, not checked for.
-	 */
-
-	/* [ level obj func pc line ] */
-
-	/* XXX: version specific array format instead? */
-	duk_xdef_prop_stridx_wec(ctx, -4, DUK_STRIDX_LINE_NUMBER);
-	duk_xdef_prop_stridx_wec(ctx, -3, DUK_STRIDX_PC);
-	duk_xdef_prop_stridx_wec(ctx, -2, DUK_STRIDX_LC_FUNCTION);
-	return 1;
-}
-
-DUK_INTERNAL duk_ret_t duk_bi_duktape_object_gc(duk_context *ctx) {
-#ifdef DUK_USE_MARK_AND_SWEEP
-	duk_hthread *thr = (duk_hthread *) ctx;
-	duk_small_uint_t flags;
-	duk_bool_t rc;
-
-	flags = (duk_small_uint_t) duk_get_uint(ctx, 0);
-	rc = duk_heap_mark_and_sweep(thr->heap, flags);
-
-	/* XXX: Not sure what the best return value would be in the API.
-	 * Return a boolean for now.  Note that rc == 0 is success (true).
-	 */
-	duk_push_boolean(ctx, !rc);
-	return 1;
-#else
-	DUK_UNREF(ctx);
-	return 0;
-#endif
-}
-
-DUK_INTERNAL duk_ret_t duk_bi_duktape_object_fin(duk_context *ctx) {
-	(void) duk_require_hobject(ctx, 0);
-	if (duk_get_top(ctx) >= 2) {
-		/* Set: currently a finalizer is disabled by setting it to
-		 * undefined; this does not remove the property at the moment.
-		 * The value could be type checked to be either a function
-		 * or something else; if something else, the property could
-		 * be deleted.
-		 */
-		duk_set_top(ctx, 2);
-		(void) duk_put_prop_stridx(ctx, 0, DUK_STRIDX_INT_FINALIZER);
-		return 0;
-	} else {
-		/* Get. */
-		DUK_ASSERT(duk_get_top(ctx) == 1);
-		duk_get_prop_stridx(ctx, 0, DUK_STRIDX_INT_FINALIZER);
-		return 1;
-	}
-}
-
-DUK_INTERNAL duk_ret_t duk_bi_duktape_object_enc(duk_context *ctx) {
-	duk_hthread *thr = (duk_hthread *) ctx;
-	duk_hstring *h_str;
-
-	DUK_UNREF(thr);
-
-	/* Vararg function: must be careful to check/require arguments.
-	 * The JSON helpers accept invalid indices and treat them like
-	 * non-existent optional parameters.
-	 */
-
-	h_str = duk_require_hstring(ctx, 0);
-	duk_require_valid_index(ctx, 1);
-
-	if (h_str == DUK_HTHREAD_STRING_HEX(thr)) {
-		duk_set_top(ctx, 2);
-		duk_hex_encode(ctx, 1);
-		DUK_ASSERT_TOP(ctx, 2);
-	} else if (h_str == DUK_HTHREAD_STRING_BASE64(thr)) {
-		duk_set_top(ctx, 2);
-		duk_base64_encode(ctx, 1);
-		DUK_ASSERT_TOP(ctx, 2);
-#ifdef DUK_USE_JX
-	} else if (h_str == DUK_HTHREAD_STRING_JX(thr)) {
-		duk_bi_json_stringify_helper(ctx,
-		                             1 /*idx_value*/,
-		                             2 /*idx_replacer*/,
-		                             3 /*idx_space*/,
-		                             DUK_JSON_FLAG_EXT_CUSTOM |
-		                             DUK_JSON_FLAG_ASCII_ONLY |
-		                             DUK_JSON_FLAG_AVOID_KEY_QUOTES /*flags*/);
-#endif
-#ifdef DUK_USE_JC
-	} else if (h_str == DUK_HTHREAD_STRING_JC(thr)) {
-		duk_bi_json_stringify_helper(ctx,
-		                             1 /*idx_value*/,
-		                             2 /*idx_replacer*/,
-		                             3 /*idx_space*/,
-		                             DUK_JSON_FLAG_EXT_COMPATIBLE |
-		                             DUK_JSON_FLAG_ASCII_ONLY /*flags*/);
-#endif
-	} else {
-		return DUK_RET_TYPE_ERROR;
-	}
-	return 1;
-}
-
-DUK_INTERNAL duk_ret_t duk_bi_duktape_object_dec(duk_context *ctx) {
-	duk_hthread *thr = (duk_hthread *) ctx;
-	duk_hstring *h_str;
-
-	DUK_UNREF(thr);
-
-	/* Vararg function: must be careful to check/require arguments.
-	 * The JSON helpers accept invalid indices and treat them like
-	 * non-existent optional parameters.
-	 */
-
-	h_str = duk_require_hstring(ctx, 0);
-	duk_require_valid_index(ctx, 1);
-
-	if (h_str == DUK_HTHREAD_STRING_HEX(thr)) {
-		duk_set_top(ctx, 2);
-		duk_hex_decode(ctx, 1);
-		DUK_ASSERT_TOP(ctx, 2);
-	} else if (h_str == DUK_HTHREAD_STRING_BASE64(thr)) {
-		duk_set_top(ctx, 2);
-		duk_base64_decode(ctx, 1);
-		DUK_ASSERT_TOP(ctx, 2);
-#ifdef DUK_USE_JX
-	} else if (h_str == DUK_HTHREAD_STRING_JX(thr)) {
-		duk_bi_json_parse_helper(ctx,
-		                         1 /*idx_value*/,
-		                         2 /*idx_replacer*/,
-		                         DUK_JSON_FLAG_EXT_CUSTOM /*flags*/);
-#endif
-#ifdef DUK_USE_JC
-	} else if (h_str == DUK_HTHREAD_STRING_JC(thr)) {
-		duk_bi_json_parse_helper(ctx,
-		                         1 /*idx_value*/,
-		                         2 /*idx_replacer*/,
-		                         DUK_JSON_FLAG_EXT_COMPATIBLE /*flags*/);
-#endif
-	} else {
-		return DUK_RET_TYPE_ERROR;
-	}
-	return 1;
-}
-
-/*
- *  Compact an object
- */
-
-DUK_INTERNAL duk_ret_t duk_bi_duktape_object_compact(duk_context *ctx) {
-	DUK_ASSERT_TOP(ctx, 1);
-	duk_compact(ctx, 0);
-	return 1;  /* return the argument object */
-}