/* This is a software decimal floating point library.
- Copyright (C) 2005, 2006, 2007 Free Software Foundation, Inc.
+ Copyright (C) 2005, 2006, 2007, 2008 Free Software Foundation, Inc.
This file is part of GCC.
Software Foundation, 51 Franklin Street, Fifth Floor, Boston, MA
02110-1301, USA. */
-/* This implements IEEE 754R decimal floating point arithmetic, but
+/* This implements IEEE 754 decimal floating point arithmetic, but
does not provide a mechanism for setting the rounding mode, or for
generating or handling exceptions. Conversions between decimal
floating point types and other types depend on C library functions.
Contributed by Ben Elliston <bje@au.ibm.com>. */
-/* The intended way to use this file is to make two copies, add `#define '
- to one copy, then compile both copies and add them to libgcc.a. */
-
-/* FIXME: This implementation doesn't support TFmode conversions. */
-#if !(defined (L_sd_to_tf) || defined (L_dd_to_tf) \
- || defined (L_td_to_tf) || defined (L_tf_to_sd) \
- || defined (L_tf_to_dd) || defined (L_tf_to_td))
-
#include <stdio.h>
#include <stdlib.h>
+/* FIXME: compile with -std=gnu99 to get these from stdlib.h */
+extern float strtof (const char *, char **);
+extern long double strtold (const char *, char **);
#include <string.h>
#include <limits.h>
void __ieee_to_host_128 (decimal128 in, _Decimal128 *out);
#endif
-/* A pointer to a unary decNumber operation. */
-typedef decNumber* (*dfp_unary_func)
- (decNumber *, decNumber *, decContext *);
-
-/* A pointer to a binary decNumber operation. */
-typedef decNumber* (*dfp_binary_func)
- (decNumber *, const decNumber *, const decNumber *, decContext *);
+/* A pointer to a binary decFloat operation. */
+typedef decFloat* (*dfp_binary_func)
+ (decFloat *, const decFloat *, const decFloat *, decContext *);
\f
-/* Unary operations. */
+/* Binary operations. */
-static inline DFP_C_TYPE
-dfp_unary_op (dfp_unary_func op, DFP_C_TYPE arg)
+/* Use a decFloat (decDouble or decQuad) function to perform a DFP
+ binary operation. */
+static inline decFloat
+dfp_binary_op (dfp_binary_func op, decFloat arg_a, decFloat arg_b)
{
- DFP_C_TYPE result;
+ decFloat result;
decContext context;
- decNumber arg1, res;
- IEEE_TYPE a, encoded_result;
-
- HOST_TO_IEEE (arg, &a);
decContextDefault (&context, CONTEXT_INIT);
DFP_INIT_ROUNDMODE (context.round);
- TO_INTERNAL (&a, &arg1);
-
/* Perform the operation. */
- op (&res, &arg1, &context);
+ op (&result, &arg_a, &arg_b, &context);
if (DFP_EXCEPTIONS_ENABLED && context.status != 0)
{
DFP_HANDLE_EXCEPTIONS (ieee_flags);
}
- TO_ENCODED (&encoded_result, &res, &context);
- IEEE_TO_HOST (encoded_result, &result);
return result;
}
-/* Binary operations. */
-
-static inline DFP_C_TYPE
-dfp_binary_op (dfp_binary_func op, DFP_C_TYPE arg_a, DFP_C_TYPE arg_b)
+#if WIDTH == 32
+/* The decNumber package doesn't provide arithmetic for decSingle (32 bits);
+ convert to decDouble, use the operation for that, and convert back. */
+static inline _Decimal32
+d32_binary_op (dfp_binary_func op, _Decimal32 arg_a, _Decimal32 arg_b)
{
- DFP_C_TYPE result;
+ union { _Decimal32 c; decSingle f; } a32, b32, res32;
+ decDouble a, b, res;
decContext context;
- decNumber arg1, arg2, res;
- IEEE_TYPE a, b, encoded_result;
- HOST_TO_IEEE (arg_a, &a);
- HOST_TO_IEEE (arg_b, &b);
+ /* Widen the operands and perform the operation. */
+ a32.c = arg_a;
+ b32.c = arg_b;
+ decSingleToWider (&a32.f, &a);
+ decSingleToWider (&b32.f, &b);
+ res = dfp_binary_op (op, a, b);
+ /* Narrow the result, which might result in an underflow or overflow. */
decContextDefault (&context, CONTEXT_INIT);
DFP_INIT_ROUNDMODE (context.round);
-
- TO_INTERNAL (&a, &arg1);
- TO_INTERNAL (&b, &arg2);
-
- /* Perform the operation. */
- op (&res, &arg1, &arg2, &context);
-
+ decSingleFromWider (&res32.f, &res, &context);
if (DFP_EXCEPTIONS_ENABLED && context.status != 0)
{
/* decNumber exception flags we care about here. */
int ieee_flags;
- int dec_flags = DEC_IEEE_854_Division_by_zero | DEC_IEEE_854_Inexact
- | DEC_IEEE_854_Invalid_operation | DEC_IEEE_854_Overflow
+ int dec_flags = DEC_IEEE_854_Inexact | DEC_IEEE_854_Overflow
| DEC_IEEE_854_Underflow;
dec_flags &= context.status;
ieee_flags = DFP_IEEE_FLAGS (dec_flags);
DFP_HANDLE_EXCEPTIONS (ieee_flags);
}
- TO_ENCODED (&encoded_result, &res, &context);
- IEEE_TO_HOST (encoded_result, &result);
- return result;
+ return res32.c;
}
+#else
+/* decFloat operations are supported for decDouble (64 bits) and
+ decQuad (128 bits). The bit patterns for the types are the same. */
+static inline DFP_C_TYPE
+dnn_binary_op (dfp_binary_func op, DFP_C_TYPE arg_a, DFP_C_TYPE arg_b)
+{
+ union { DFP_C_TYPE c; decFloat f; } a, b, result;
+
+ a.c = arg_a;
+ b.c = arg_b;
+ result.f = dfp_binary_op (op, a.f, b.f);
+ return result.c;
+}
+#endif
/* Comparison operations. */
-static inline int
-dfp_compare_op (dfp_binary_func op, DFP_C_TYPE arg_a, DFP_C_TYPE arg_b)
+/* Use a decFloat (decDouble or decQuad) function to perform a DFP
+ comparison. */
+static inline CMPtype
+dfp_compare_op (dfp_binary_func op, decFloat arg_a, decFloat arg_b)
{
- IEEE_TYPE a, b;
decContext context;
- decNumber arg1, arg2, res;
+ decFloat res;
int result;
- HOST_TO_IEEE (arg_a, &a);
- HOST_TO_IEEE (arg_b, &b);
-
decContextDefault (&context, CONTEXT_INIT);
DFP_INIT_ROUNDMODE (context.round);
- TO_INTERNAL (&a, &arg1);
- TO_INTERNAL (&b, &arg2);
-
/* Perform the comparison. */
- op (&res, &arg1, &arg2, &context);
+ op (&res, &arg_a, &arg_b, &context);
- if (decNumberIsNegative (&res))
+ if (DEC_FLOAT_IS_SIGNED (&res))
result = -1;
- else if (decNumberIsZero (&res))
+ else if (DEC_FLOAT_IS_ZERO (&res))
result = 0;
- else if (decNumberIsNaN (&res))
+ else if (DEC_FLOAT_IS_NAN (&res))
result = -2;
else
result = 1;
- return result;
+ return (CMPtype) result;
}
+#if WIDTH == 32
+/* The decNumber package doesn't provide comparisons for decSingle (32 bits);
+ convert to decDouble, use the operation for that, and convert back. */
+static inline CMPtype
+d32_compare_op (dfp_binary_func op, _Decimal32 arg_a, _Decimal32 arg_b)
+{
+ union { _Decimal32 c; decSingle f; } a32, b32;
+ decDouble a, b;
+
+ a32.c = arg_a;
+ b32.c = arg_b;
+ decSingleToWider (&a32.f, &a);
+ decSingleToWider (&b32.f, &b);
+ return dfp_compare_op (op, a, b);
+}
+#else
+/* decFloat comparisons are supported for decDouble (64 bits) and
+ decQuad (128 bits). The bit patterns for the types are the same. */
+static inline CMPtype
+dnn_compare_op (dfp_binary_func op, DFP_C_TYPE arg_a, DFP_C_TYPE arg_b)
+{
+ union { DFP_C_TYPE c; decFloat f; } a, b;
+
+ a.c = arg_a;
+ b.c = arg_b;
+ return dfp_compare_op (op, a.f, b.f);
+}
+#endif
\f
#if defined(L_conv_sd)
void
DFP_C_TYPE
DFP_ADD (DFP_C_TYPE arg_a, DFP_C_TYPE arg_b)
{
- return dfp_binary_op (decNumberAdd, arg_a, arg_b);
+ return DFP_BINARY_OP (DEC_FLOAT_ADD, arg_a, arg_b);
}
DFP_C_TYPE
DFP_SUB (DFP_C_TYPE arg_a, DFP_C_TYPE arg_b)
{
- return dfp_binary_op (decNumberSubtract, arg_a, arg_b);
+ return DFP_BINARY_OP (DEC_FLOAT_SUBTRACT, arg_a, arg_b);
}
#endif /* L_addsub */
DFP_C_TYPE
DFP_MULTIPLY (DFP_C_TYPE arg_a, DFP_C_TYPE arg_b)
{
- return dfp_binary_op (decNumberMultiply, arg_a, arg_b);
+ return DFP_BINARY_OP (DEC_FLOAT_MULTIPLY, arg_a, arg_b);
}
#endif /* L_mul */
DFP_C_TYPE
DFP_DIVIDE (DFP_C_TYPE arg_a, DFP_C_TYPE arg_b)
{
- return dfp_binary_op (decNumberDivide, arg_a, arg_b);
+ return DFP_BINARY_OP (DEC_FLOAT_DIVIDE, arg_a, arg_b);
}
#endif /* L_div */
CMPtype
DFP_EQ (DFP_C_TYPE arg_a, DFP_C_TYPE arg_b)
{
- int stat;
- stat = dfp_compare_op (decNumberCompare, arg_a, arg_b);
+ CMPtype stat;
+ stat = DFP_COMPARE_OP (DEC_FLOAT_COMPARE, arg_a, arg_b);
/* For EQ return zero for true, nonzero for false. */
return stat != 0;
}
DFP_NE (DFP_C_TYPE arg_a, DFP_C_TYPE arg_b)
{
int stat;
- stat = dfp_compare_op (decNumberCompare, arg_a, arg_b);
+ stat = DFP_COMPARE_OP (DEC_FLOAT_COMPARE, arg_a, arg_b);
/* For NE return zero for true, nonzero for false. */
if (__builtin_expect (stat == -2, 0)) /* An operand is NaN. */
return 1;
DFP_LT (DFP_C_TYPE arg_a, DFP_C_TYPE arg_b)
{
int stat;
- stat = dfp_compare_op (decNumberCompare, arg_a, arg_b);
+ stat = DFP_COMPARE_OP (DEC_FLOAT_COMPARE, arg_a, arg_b);
/* For LT return -1 (<0) for true, 1 for false. */
return (stat == -1) ? -1 : 1;
}
DFP_GT (DFP_C_TYPE arg_a, DFP_C_TYPE arg_b)
{
int stat;
- stat = dfp_compare_op (decNumberCompare, arg_a, arg_b);
+ stat = DFP_COMPARE_OP (DEC_FLOAT_COMPARE, arg_a, arg_b);
/* For GT return 1 (>0) for true, -1 for false. */
return (stat == 1) ? 1 : -1;
}
DFP_LE (DFP_C_TYPE arg_a, DFP_C_TYPE arg_b)
{
int stat;
- stat = dfp_compare_op (decNumberCompare, arg_a, arg_b);
+ stat = DFP_COMPARE_OP (DEC_FLOAT_COMPARE, arg_a, arg_b);
/* For LE return 0 (<= 0) for true, 1 for false. */
if (__builtin_expect (stat == -2, 0)) /* An operand is NaN. */
return 1;
DFP_GE (DFP_C_TYPE arg_a, DFP_C_TYPE arg_b)
{
int stat;
- stat = dfp_compare_op (decNumberCompare, arg_a, arg_b);
+ stat = DFP_COMPARE_OP (DEC_FLOAT_COMPARE, arg_a, arg_b);
/* For GE return 1 (>=0) for true, -1 for false. */
if (__builtin_expect (stat == -2, 0)) /* An operand is NaN. */
return -1;
#define BUFMAX 128
-#if defined (L_sd_to_dd) || defined (L_sd_to_td) || defined (L_dd_to_sd) \
- || defined (L_dd_to_td) || defined (L_td_to_sd) || defined (L_td_to_dd)
-DFP_C_TYPE_TO
-DFP_TO_DFP (DFP_C_TYPE f_from)
+/* Check for floating point exceptions that are relevant for conversions
+ between decimal float values and handle them. */
+static inline void
+dfp_conversion_exceptions (const int status)
+{
+ /* decNumber exception flags we care about here. */
+ int ieee_flags;
+ int dec_flags = DEC_IEEE_854_Inexact | DEC_IEEE_854_Invalid_operation
+ | DEC_IEEE_854_Overflow;
+ dec_flags &= status;
+ ieee_flags = DFP_IEEE_FLAGS (dec_flags);
+ if (ieee_flags != 0)
+ DFP_HANDLE_EXCEPTIONS (ieee_flags);
+}
+
+#if defined (L_sd_to_dd)
+/* Use decNumber to convert directly from _Decimal32 to _Decimal64. */
+_Decimal64
+DFP_TO_DFP (_Decimal32 f_from)
+{
+ union { _Decimal32 c; decSingle f; } from;
+ union { _Decimal64 c; decDouble f; } to;
+
+ from.c = f_from;
+ to.f = *decSingleToWider (&from.f, &to.f);
+ return to.c;
+}
+#endif
+
+#if defined (L_sd_to_td)
+/* Use decNumber to convert directly from _Decimal32 to _Decimal128. */
+_Decimal128
+DFP_TO_DFP (_Decimal32 f_from)
+{
+ union { _Decimal32 c; decSingle f; } from;
+ union { _Decimal128 c; decQuad f; } to;
+ decDouble temp;
+
+ from.c = f_from;
+ temp = *decSingleToWider (&from.f, &temp);
+ to.f = *decDoubleToWider (&temp, &to.f);
+ return to.c;
+}
+#endif
+
+#if defined (L_dd_to_td)
+/* Use decNumber to convert directly from _Decimal64 to _Decimal128. */
+_Decimal128
+DFP_TO_DFP (_Decimal64 f_from)
+{
+ union { _Decimal64 c; decDouble f; } from;
+ union { _Decimal128 c; decQuad f; } to;
+
+ from.c = f_from;
+ to.f = *decDoubleToWider (&from.f, &to.f);
+ return to.c;
+}
+#endif
+
+#if defined (L_dd_to_sd)
+/* Use decNumber to convert directly from _Decimal64 to _Decimal32. */
+_Decimal32
+DFP_TO_DFP (_Decimal64 f_from)
+{
+ union { _Decimal32 c; decSingle f; } to;
+ union { _Decimal64 c; decDouble f; } from;
+ decContext context;
+
+ decContextDefault (&context, CONTEXT_INIT);
+ DFP_INIT_ROUNDMODE (context.round);
+ from.c = f_from;
+ to.f = *decSingleFromWider (&to.f, &from.f, &context);
+ if (DFP_EXCEPTIONS_ENABLED && context.status != 0)
+ dfp_conversion_exceptions (context.status);
+ return to.c;
+}
+#endif
+
+#if defined (L_td_to_sd)
+/* Use decNumber to convert directly from _Decimal128 to _Decimal32. */
+_Decimal32
+DFP_TO_DFP (_Decimal128 f_from)
{
- DFP_C_TYPE_TO f_to;
- IEEE_TYPE s_from;
- IEEE_TYPE_TO s_to;
- decNumber d;
+ union { _Decimal32 c; decSingle f; } to;
+ union { _Decimal128 c; decQuad f; } from;
+ decDouble temp;
decContext context;
decContextDefault (&context, CONTEXT_INIT);
DFP_INIT_ROUNDMODE (context.round);
+ from.c = f_from;
+ temp = *decDoubleFromWider (&temp, &from.f, &context);
+ to.f = *decSingleFromWider (&to.f, &temp, &context);
+ if (DFP_EXCEPTIONS_ENABLED && context.status != 0)
+ dfp_conversion_exceptions (context.status);
+ return to.c;
+}
+#endif
- HOST_TO_IEEE (f_from, &s_from);
- TO_INTERNAL (&s_from, &d);
- TO_ENCODED_TO (&s_to, &d, &context);
+#if defined (L_td_to_dd)
+/* Use decNumber to convert directly from _Decimal128 to _Decimal64. */
+_Decimal64
+DFP_TO_DFP (_Decimal128 f_from)
+{
+ union { _Decimal64 c; decDouble f; } to;
+ union { _Decimal128 c; decQuad f; } from;
+ decContext context;
+ decContextDefault (&context, CONTEXT_INIT);
+ DFP_INIT_ROUNDMODE (context.round);
+ from.c = f_from;
+ to.f = *decDoubleFromWider (&to.f, &from.f, &context);
if (DFP_EXCEPTIONS_ENABLED && context.status != 0)
- {
- /* decNumber exception flags we care about here. */
- int ieee_flags;
- int dec_flags = DEC_IEEE_854_Inexact | DEC_IEEE_854_Invalid_operation
- | DEC_IEEE_854_Overflow;
- dec_flags &= context.status;
- ieee_flags = DFP_IEEE_FLAGS (dec_flags);
- if (ieee_flags != 0)
- DFP_HANDLE_EXCEPTIONS (ieee_flags);
- }
+ dfp_conversion_exceptions (context.status);
+ return to.c;
+}
+#endif
+
+#if defined (L_dd_to_si) || defined (L_td_to_si) \
+ || defined (L_dd_to_usi) || defined (L_td_to_usi)
+/* Use decNumber to convert directly from decimal float to integer types. */
+INT_TYPE
+DFP_TO_INT (DFP_C_TYPE x)
+{
+ union { DFP_C_TYPE c; decFloat f; } u;
+ decContext context;
+ INT_TYPE i;
+
+ decContextDefault (&context, DEC_INIT_DECIMAL128);
+ context.round = DEC_ROUND_DOWN;
+ u.c = x;
+ i = DEC_FLOAT_TO_INT (&u.f, &context, context.round);
+ if (DFP_EXCEPTIONS_ENABLED && context.status != 0)
+ dfp_conversion_exceptions (context.status);
+ return i;
+}
+#endif
+
+#if defined (L_sd_to_si) || (L_sd_to_usi)
+/* Use decNumber to convert directly from decimal float to integer types. */
+INT_TYPE
+DFP_TO_INT (_Decimal32 x)
+{
+ union { _Decimal32 c; decSingle f; } u32;
+ decDouble f64;
+ decContext context;
+ INT_TYPE i;
- IEEE_TO_HOST_TO (s_to, &f_to);
- return f_to;
+ decContextDefault (&context, DEC_INIT_DECIMAL128);
+ context.round = DEC_ROUND_DOWN;
+ u32.c = x;
+ f64 = *decSingleToWider (&u32.f, &f64);
+ i = DEC_FLOAT_TO_INT (&f64, &context, context.round);
+ if (DFP_EXCEPTIONS_ENABLED && context.status != 0)
+ dfp_conversion_exceptions (context.status);
+ return i;
}
#endif
-#if defined (L_sd_to_si) || defined (L_dd_to_si) || defined (L_td_to_si) \
- || defined (L_sd_to_di) || defined (L_dd_to_di) || defined (L_td_to_di) \
- || defined (L_sd_to_usi) || defined (L_dd_to_usi) || defined (L_td_to_usi) \
+#if defined (L_sd_to_di) || defined (L_dd_to_di) || defined (L_td_to_di) \
|| defined (L_sd_to_udi) || defined (L_dd_to_udi) || defined (L_td_to_udi)
+/* decNumber doesn't provide support for conversions to 64-bit integer
+ types, so do it the hard way. */
INT_TYPE
DFP_TO_INT (DFP_C_TYPE x)
{
/* Rescale if the exponent is less than zero. */
decNumberToIntegralValue (&n2, &n1, &context);
/* Get a value to use for the quantize call. */
- decNumberFromString (&qval, (char *) "1.", &context);
+ decNumberFromString (&qval, "1.", &context);
/* Force the exponent to zero. */
decNumberQuantize (&n1, &n2, &qval, &context);
/* Get a string, which at this point will not include an exponent. */
}
#endif
-#if defined (L_si_to_sd) || defined (L_si_to_dd) || defined (L_si_to_td) \
- || defined (L_di_to_sd) || defined (L_di_to_dd) || defined (L_di_to_td) \
- || defined (L_usi_to_sd) || defined (L_usi_to_dd) || defined (L_usi_to_td) \
+#if defined (L_si_to_dd) || defined (L_si_to_td) \
+ || defined (L_usi_to_dd) || defined (L_usi_to_td)
+/* Use decNumber to convert directly from integer to decimal float types. */
+DFP_C_TYPE
+INT_TO_DFP (INT_TYPE i)
+{
+ union { DFP_C_TYPE c; decFloat f; } u;
+
+ u.f = *DEC_FLOAT_FROM_INT (&u.f, i);
+ return u.c;
+}
+#endif
+
+#if defined (L_si_to_sd) || defined (L_usi_to_sd)
+_Decimal32
+/* Use decNumber to convert directly from integer to decimal float types. */
+INT_TO_DFP (INT_TYPE i)
+{
+ union { _Decimal32 c; decSingle f; } u32;
+ decDouble f64;
+ decContext context;
+
+ decContextDefault (&context, DEC_INIT_DECIMAL128);
+ context.round = DEC_ROUND_DOWN;
+ f64 = *DEC_FLOAT_FROM_INT (&f64, i);
+ u32.f = *decSingleFromWider (&u32.f, &f64, &context);
+ if (DFP_EXCEPTIONS_ENABLED && context.status != 0)
+ dfp_conversion_exceptions (context.status);
+ return u32.c;
+}
+#endif
+
+#if defined (L_di_to_sd) || defined (L_di_to_dd) || defined (L_di_to_td) \
|| defined (L_udi_to_sd) || defined (L_udi_to_dd) || defined (L_udi_to_td)
+/* decNumber doesn't provide support for conversions from 64-bit integer
+ types, so do it the hard way. */
DFP_C_TYPE
INT_TO_DFP (INT_TYPE i)
{
IEEE_TO_HOST (s, &f);
if (DFP_EXCEPTIONS_ENABLED && context.status != 0)
- {
- /* decNumber exception flags we care about here. */
- int ieee_flags;
- int dec_flags = DEC_IEEE_854_Inexact | DEC_IEEE_854_Invalid_operation
- | DEC_IEEE_854_Overflow;
- dec_flags &= context.status;
- ieee_flags = DFP_IEEE_FLAGS (dec_flags);
- if (ieee_flags != 0)
- DFP_HANDLE_EXCEPTIONS (ieee_flags);
- }
+ dfp_conversion_exceptions (context.status);
return f;
}
#if defined (L_sd_to_sf) || defined (L_dd_to_sf) || defined (L_td_to_sf) \
|| defined (L_sd_to_df) || defined (L_dd_to_df) || defined (L_td_to_df) \
|| ((defined (L_sd_to_xf) || defined (L_dd_to_xf) || defined (L_td_to_xf)) \
- && LIBGCC2_HAS_XF_MODE)
+ && LONG_DOUBLE_HAS_XF_MODE) \
+ || ((defined (L_sd_to_tf) || defined (L_dd_to_tf) || defined (L_td_to_tf)) \
+ && LONG_DOUBLE_HAS_TF_MODE)
BFP_TYPE
DFP_TO_BFP (DFP_C_TYPE f)
{
#if defined (L_sf_to_sd) || defined (L_sf_to_dd) || defined (L_sf_to_td) \
|| defined (L_df_to_sd) || defined (L_df_to_dd) || defined (L_df_to_td) \
|| ((defined (L_xf_to_sd) || defined (L_xf_to_dd) || defined (L_xf_to_td)) \
- && LIBGCC2_HAS_XF_MODE)
+ && LONG_DOUBLE_HAS_XF_MODE) \
+ || ((defined (L_tf_to_sd) || defined (L_tf_to_dd) || defined (L_tf_to_td)) \
+ && LONG_DOUBLE_HAS_TF_MODE)
DFP_C_TYPE
BFP_TO_DFP (BFP_TYPE x)
{
DFP_INIT_ROUNDMODE (context.round);
/* Use a C library function to write the floating point value to a string. */
-#ifdef BFP_VIA_TYPE
- /* FIXME: Is there a better way to output an XFmode variable in C? */
sprintf (buf, BFP_FMT, (BFP_VIA_TYPE) x);
-#else
- sprintf (buf, BFP_FMT, x);
-#endif
/* Convert from the floating point string to a decimal* type. */
FROM_STRING (&s, buf, &context);
return (decNumberIsNaN (&arg1) || decNumberIsNaN (&arg2));
}
#endif /* L_unord_sd || L_unord_dd || L_unord_td */
-
-/* !(L_sd_to_tf || L_dd_to_tf || L_td_to_tf \
- || L_tf_to_sd || L_tf_to_dd || L_tf_to_td) */
-#endif
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