|
| 1 | +#include <stdio.h> |
| 2 | +#include <stdint.h> |
| 3 | +#include <quadmath.h> |
| 4 | + |
| 5 | + |
| 6 | +typedef union |
| 7 | +{ |
| 8 | + __float128 value; |
| 9 | + |
| 10 | + struct{ |
| 11 | + uint64_t u0; |
| 12 | + uint64_t u1; |
| 13 | + } words64; |
| 14 | + |
| 15 | +} myfloat128; |
| 16 | + |
| 17 | +typedef union |
| 18 | +{ |
| 19 | + __complex128 value; |
| 20 | + |
| 21 | + struct{ |
| 22 | + uint64_t u0; |
| 23 | + uint64_t u1; |
| 24 | + uint64_t u2; |
| 25 | + uint64_t u3; |
| 26 | + } words64; |
| 27 | + |
| 28 | +} mycomplex128; |
| 29 | + |
| 30 | + |
| 31 | +#define F(x) (x.value) |
| 32 | + |
| 33 | + |
| 34 | +myfloat128 convert_qd(double a) { myfloat128 res; F(res) = a; return res; } |
| 35 | +myfloat128 convert_qui(unsigned long a) { myfloat128 res; F(res) = a; return res; } |
| 36 | +myfloat128 convert_qsi(long a) { myfloat128 res; F(res) = a; return res; } |
| 37 | + |
| 38 | +double convert_dq(myfloat128 a) { return (double) F(a); } |
| 39 | +float convert_fq(myfloat128 a) { return (float) F(a); } |
| 40 | + |
| 41 | + |
| 42 | +myfloat128 neg_q(myfloat128 a) { myfloat128 res; F(res) =-F(a); return res; } |
| 43 | + |
| 44 | +myfloat128 add_q(myfloat128 a, myfloat128 b) { myfloat128 res; F(res) = F(a)+F(b); return res; } |
| 45 | +myfloat128 add_qd(myfloat128 a, double b) { myfloat128 res; F(res) = F(a)+b; return res; } |
| 46 | +myfloat128 add_dq(double a, myfloat128 b) { myfloat128 res; F(res) = a+F(b); return res; } |
| 47 | +myfloat128 add_uiq(unsigned long a, myfloat128 b) { myfloat128 res; F(res) = a+F(b); return res; } |
| 48 | +myfloat128 add_qui(myfloat128 a, unsigned long b) { myfloat128 res; F(res) = F(a)+b; return res; } |
| 49 | +myfloat128 add_siq(long a, myfloat128 b) { myfloat128 res; F(res) = a+F(b); return res; } |
| 50 | +myfloat128 add_qsi(myfloat128 a, long b) { myfloat128 res; F(res) = F(a)+b; return res; } |
| 51 | + |
| 52 | +myfloat128 sub_q(myfloat128 a, myfloat128 b) { myfloat128 res; F(res) = F(a)-F(b); return res; } |
| 53 | +myfloat128 sub_qd(myfloat128 a, double b) { myfloat128 res; F(res) = F(a)-b; return res; } |
| 54 | +myfloat128 sub_dq(double a, myfloat128 b) { myfloat128 res; F(res) = a-F(b); return res; } |
| 55 | +myfloat128 sub_uiq(unsigned long a, myfloat128 b) { myfloat128 res; F(res) = a-F(b); return res; } |
| 56 | +myfloat128 sub_qui(myfloat128 a, unsigned long b) { myfloat128 res; F(res) = F(a)-b; return res; } |
| 57 | +myfloat128 sub_siq(long a, myfloat128 b) { myfloat128 res; F(res) = a-F(b); return res; } |
| 58 | +myfloat128 sub_qsi(myfloat128 a, long b) { myfloat128 res; F(res) = F(a)-b; return res; } |
| 59 | + |
| 60 | +myfloat128 mul_q(myfloat128 a, myfloat128 b) { myfloat128 res; F(res) = F(a)*F(b); return res; } |
| 61 | +myfloat128 mul_qd(myfloat128 a, double b) { myfloat128 res; F(res) = F(a)*b; return res; } |
| 62 | +myfloat128 mul_dq(double a, myfloat128 b) { myfloat128 res; F(res) = a*F(b); return res; } |
| 63 | +myfloat128 mul_uiq(unsigned long a, myfloat128 b) { myfloat128 res; F(res) = a*F(b); return res; } |
| 64 | +myfloat128 mul_qui(myfloat128 a, unsigned long b) { myfloat128 res; F(res) = F(a)*b; return res; } |
| 65 | +myfloat128 mul_siq(long a, myfloat128 b) { myfloat128 res; F(res) = a*F(b); return res; } |
| 66 | +myfloat128 mul_qsi(myfloat128 a, long b) { myfloat128 res; F(res) = F(a)*b; return res; } |
| 67 | + |
| 68 | +myfloat128 div_q(myfloat128 a, myfloat128 b) { myfloat128 res; F(res) = F(a)/F(b); return res; } |
| 69 | +myfloat128 div_qd(myfloat128 a, double b) { myfloat128 res; F(res) = F(a)/b; return res; } |
| 70 | +myfloat128 div_dq(double a, myfloat128 b) { myfloat128 res; F(res) = a/F(b); return res; } |
| 71 | +myfloat128 div_uiq(unsigned long a, myfloat128 b) { myfloat128 res; F(res) = a/F(b); return res; } |
| 72 | +myfloat128 div_qui(myfloat128 a, unsigned long b) { myfloat128 res; F(res) = F(a)/b; return res; } |
| 73 | +myfloat128 div_siq(long a, myfloat128 b) { myfloat128 res; F(res) = a/F(b); return res; } |
| 74 | +myfloat128 div_qsi(myfloat128 a, long b) { myfloat128 res; F(res) = F(a)/b; return res; } |
| 75 | + |
| 76 | + |
| 77 | +mycomplex128 cneg_q(mycomplex128 a) { mycomplex128 res; F(res) =-F(a); return res; } |
| 78 | + |
| 79 | +mycomplex128 cadd_q(mycomplex128 a, mycomplex128 b) { mycomplex128 res; F(res) = F(a)+F(b); return res; } |
| 80 | +mycomplex128 cadd_qd(mycomplex128 a, double b) { mycomplex128 res; F(res) = F(a)+b; return res; } |
| 81 | +mycomplex128 cadd_dq(double a, mycomplex128 b) { mycomplex128 res; F(res) = a+F(b); return res; } |
| 82 | +mycomplex128 cadd_qD(mycomplex128 a, myfloat128 b) { mycomplex128 res; F(res) = F(a)+F(b); return res; } |
| 83 | +mycomplex128 cadd_Dq(myfloat128 a, mycomplex128 b) { mycomplex128 res; F(res) = F(a)+F(b); return res; } |
| 84 | +mycomplex128 cadd_uiq(unsigned long a, mycomplex128 b) { mycomplex128 res; F(res) = a+F(b); return res; } |
| 85 | +mycomplex128 cadd_qui(mycomplex128 a, unsigned long b) { mycomplex128 res; F(res) = F(a)+b; return res; } |
| 86 | +mycomplex128 cadd_siq(long a, mycomplex128 b) { mycomplex128 res; F(res) = a+F(b); return res; } |
| 87 | +mycomplex128 cadd_qsi(mycomplex128 a, long b) { mycomplex128 res; F(res) = F(a)+b; return res; } |
| 88 | + |
| 89 | +mycomplex128 csub_q(mycomplex128 a, mycomplex128 b) { mycomplex128 res; F(res) = F(a)-F(b); return res; } |
| 90 | +mycomplex128 csub_qd(mycomplex128 a, double b) { mycomplex128 res; F(res) = F(a)-b; return res; } |
| 91 | +mycomplex128 csub_dq(double a, mycomplex128 b) { mycomplex128 res; F(res) = a-F(b); return res; } |
| 92 | +mycomplex128 csub_qD(mycomplex128 a, myfloat128 b) { mycomplex128 res; F(res) = F(a)-F(b); return res; } |
| 93 | +mycomplex128 csub_Dq(myfloat128 a, mycomplex128 b) { mycomplex128 res; F(res) = F(a)-F(b); return res; } |
| 94 | +mycomplex128 csub_uiq(unsigned long a, mycomplex128 b) { mycomplex128 res; F(res) = a-F(b); return res; } |
| 95 | +mycomplex128 csub_qui(mycomplex128 a, unsigned long b) { mycomplex128 res; F(res) = F(a)-b; return res; } |
| 96 | +mycomplex128 csub_siq(long a, mycomplex128 b) { mycomplex128 res; F(res) = a-F(b); return res; } |
| 97 | +mycomplex128 csub_qsi(mycomplex128 a, long b) { mycomplex128 res; F(res) = F(a)-b; return res; } |
| 98 | + |
| 99 | +mycomplex128 cmul_q(mycomplex128 a, mycomplex128 b) { mycomplex128 res; F(res) = F(a)*F(b); return res; } |
| 100 | +mycomplex128 cmul_qd(mycomplex128 a, double b) { mycomplex128 res; F(res) = F(a)*b; return res; } |
| 101 | +mycomplex128 cmul_dq(double a, mycomplex128 b) { mycomplex128 res; F(res) = a*F(b); return res; } |
| 102 | +mycomplex128 cmul_qD(mycomplex128 a, myfloat128 b) { mycomplex128 res; F(res) = F(a)*F(b); return res; } |
| 103 | +mycomplex128 cmul_Dq(myfloat128 a, mycomplex128 b) { mycomplex128 res; F(res) = F(a)*F(b); return res; } |
| 104 | +mycomplex128 cmul_uiq(unsigned long a, mycomplex128 b) { mycomplex128 res; F(res) = a*F(b); return res; } |
| 105 | +mycomplex128 cmul_qui(mycomplex128 a, unsigned long b) { mycomplex128 res; F(res) = F(a)*b; return res; } |
| 106 | +mycomplex128 cmul_siq(long a, mycomplex128 b) { mycomplex128 res; F(res) = a*F(b); return res; } |
| 107 | +mycomplex128 cmul_qsi(mycomplex128 a, long b) { mycomplex128 res; F(res) = F(a)*b; return res; } |
| 108 | + |
| 109 | +mycomplex128 cdiv_q(mycomplex128 a, mycomplex128 b) { mycomplex128 res; F(res) = F(a)/F(b); return res; } |
| 110 | +mycomplex128 cdiv_qd(mycomplex128 a, double b) { mycomplex128 res; F(res) = F(a)/b; return res; } |
| 111 | +mycomplex128 cdiv_dq(double a, mycomplex128 b) { mycomplex128 res; F(res) = a/F(b); return res; } |
| 112 | +mycomplex128 cdiv_qD(mycomplex128 a, myfloat128 b) { mycomplex128 res; F(res) = F(a)/F(b); return res; } |
| 113 | +mycomplex128 cdiv_Dq(myfloat128 a, mycomplex128 b) { mycomplex128 res; F(res) = F(a)/F(b); return res; } |
| 114 | +mycomplex128 cdiv_uiq(unsigned long a, mycomplex128 b) { mycomplex128 res; F(res) = a/F(b); return res; } |
| 115 | +mycomplex128 cdiv_qui(mycomplex128 a, unsigned long b) { mycomplex128 res; F(res) = F(a)/b; return res; } |
| 116 | +mycomplex128 cdiv_siq(long a, mycomplex128 b) { mycomplex128 res; F(res) = a/F(b); return res; } |
| 117 | +mycomplex128 cdiv_qsi(mycomplex128 a, long b) { mycomplex128 res; F(res) = F(a)/b; return res; } |
| 118 | + |
| 119 | + |
| 120 | +int stringq(char *s, size_t size, const char *format, myfloat128 a) |
| 121 | +{ |
| 122 | + __float128 a1 = F(a); |
| 123 | + return quadmath_snprintf(s, size, format, a1); |
| 124 | +} |
| 125 | + |
| 126 | +/* myfloat128 (const char *s, char **sp) */ |
| 127 | +myfloat128 set_str_q(const char *s) |
| 128 | +{ |
| 129 | + myfloat128 res; F(res) = strtoflt128(s, NULL); |
| 130 | + return res; |
| 131 | +} |
| 132 | + |
| 133 | +int less_q(myfloat128 a, myfloat128 b) { return (F(a) < F(b)); } |
| 134 | +int less_equal_q(myfloat128 a, myfloat128 b) { return (F(a) <= F(b)); } |
| 135 | +int equal_q(myfloat128 a, myfloat128 b) { return (F(a) == F(b)); } |
| 136 | +int greater_q(myfloat128 a, myfloat128 b) { return (F(a) > F(b)); } |
| 137 | +int greater_equal_q(myfloat128 a, myfloat128 b) { return (F(a) >= F(b)); } |
| 138 | + |
| 139 | +int less_qd(myfloat128 a, double b) { return (F(a) < b); } |
| 140 | +int less_equal_qd(myfloat128 a, double b) { return (F(a) <= b); } |
| 141 | +int equal_qd(myfloat128 a, double b) { return (F(a) == b); } |
| 142 | +int greater_qd(myfloat128 a, double b) { return (F(a) > b); } |
| 143 | +int greater_equal_qd(myfloat128 a, double b) { return (F(a) >= b); } |
| 144 | + |
| 145 | +int less_dq(double a, myfloat128 b) { return (a < F(b)); } |
| 146 | +int less_equal_dq(double a, myfloat128 b) { return (a <= F(b)); } |
| 147 | +int equal_dq(double a, myfloat128 b) { return (a == F(b)); } |
| 148 | +int greater_dq(double a, myfloat128 b) { return (a > F(b)); } |
| 149 | +int greater_equal_dq(double a, myfloat128 b) { return (a >= F(b)); } |
| 150 | + |
| 151 | +int less_qui(myfloat128 a, unsigned long b) { return (F(a) < b); } |
| 152 | +int less_equal_qui(myfloat128 a, unsigned long b) { return (F(a) <= b); } |
| 153 | +int equal_qui(myfloat128 a, unsigned long b) { return (F(a) == b); } |
| 154 | +int greater_qui(myfloat128 a, unsigned long b) { return (F(a) > b); } |
| 155 | +int greater_equal_qui(myfloat128 a, unsigned long b) { return (F(a) >= b); } |
| 156 | + |
| 157 | +int less_uiq(unsigned long a, myfloat128 b) { return (a < F(b)); } |
| 158 | +int less_equal_uiq(unsigned long a, myfloat128 b) { return (a <= F(b)); } |
| 159 | +int equal_uiq(unsigned long a, myfloat128 b) { return (a == F(b)); } |
| 160 | +int greater_uiq(unsigned long a, myfloat128 b) { return (a > F(b)); } |
| 161 | +int greater_equal_uiq(unsigned long a, myfloat128 b) { return (a >= F(b)); } |
| 162 | + |
| 163 | +int less_qsi(myfloat128 a, long b) { return (F(a) < b); } |
| 164 | +int less_equal_qsi(myfloat128 a, long b) { return (F(a) <= b); } |
| 165 | +int equal_qsi(myfloat128 a, long b) { return (F(a) == b); } |
| 166 | +int greater_qsi(myfloat128 a, long b) { return (F(a) > b); } |
| 167 | +int greater_equal_qsi(myfloat128 a, long b) { return (F(a) >= b); } |
| 168 | + |
| 169 | +int less_siq(long a, myfloat128 b) { return (a < F(b)); } |
| 170 | +int less_equal_siq(long a, myfloat128 b) { return (a <= F(b)); } |
| 171 | +int equal_siq(long a, myfloat128 b) { return (a == F(b)); } |
| 172 | +int greater_siq(long a, myfloat128 b) { return (a > F(b)); } |
| 173 | +int greater_equal_siq(long a, myfloat128 b) { return (a >= F(b)); } |
| 174 | + |
| 175 | + |
| 176 | + |
| 177 | + |
| 178 | +myfloat128 acos_q(myfloat128 x) { myfloat128 res; F(res) = acosq (F(x)); return res; } |
| 179 | +myfloat128 acosh_q(myfloat128 x) { myfloat128 res; F(res) = acoshq (F(x)); return res; } |
| 180 | +myfloat128 asin_q(myfloat128 x) { myfloat128 res; F(res) = asinq (F(x)); return res; } |
| 181 | +myfloat128 asinh_q(myfloat128 x) { myfloat128 res; F(res) = asinhq (F(x)); return res; } |
| 182 | +myfloat128 atan_q(myfloat128 x) { myfloat128 res; F(res) = atanq (F(x)); return res; } |
| 183 | +myfloat128 atanhq_q(myfloat128 x) { myfloat128 res; F(res) = atanhq (F(x)); return res; } |
| 184 | +myfloat128 atan2q_q(myfloat128 x, myfloat128 y) { myfloat128 res; F(res) = atan2q (F(x), F(y)); return res; } |
| 185 | +myfloat128 cbrtq_q(myfloat128 x) { myfloat128 res; F(res) = cbrtq (F(x)); return res; } |
| 186 | +myfloat128 ceilq_q(myfloat128 x) { myfloat128 res; F(res) = ceilq (F(x)); return res; } |
| 187 | +myfloat128 copysign_q(myfloat128 x, myfloat128 y) { myfloat128 res; F(res) = copysignq (F(x), F(y)); return res; } |
| 188 | +myfloat128 cosh_q(myfloat128 x) { myfloat128 res; F(res) = coshq (F(x)); return res; } |
| 189 | +myfloat128 cos_q(myfloat128 x) { myfloat128 res; F(res) = cosq (F(x)); return res; } |
| 190 | +myfloat128 erf_q(myfloat128 x) { myfloat128 res; F(res) = erfq (F(x)); return res; } |
| 191 | +myfloat128 erfc_q(myfloat128 x) { myfloat128 res; F(res) = erfcq (F(x)); return res; } |
| 192 | +myfloat128 exp_q(myfloat128 x) { myfloat128 res; F(res) = expq (F(x)); return res; } |
| 193 | +myfloat128 expm1_q(myfloat128 x) { myfloat128 res; F(res) = expm1q (F(x)); return res; } |
| 194 | +myfloat128 abs_q(myfloat128 x) { myfloat128 res; F(res) = fabsq (F(x)); return res; } |
| 195 | +myfloat128 fdim_q(myfloat128 x, myfloat128 y) { myfloat128 res; F(res) = fdimq (F(x), F(y)); return res; } |
| 196 | +int finite_q(myfloat128 x) { return finiteq (F(x)); } |
| 197 | +myfloat128 floor_q(myfloat128 x) { myfloat128 res; F(res) = floorq (F(x)); return res; } |
| 198 | +myfloat128 fma_q(myfloat128 x, myfloat128 y, myfloat128 z) { myfloat128 res; F(res) = fmaq (F(x), F(y), F(z)); return res; } |
| 199 | +myfloat128 max_q(myfloat128 x, myfloat128 y) { myfloat128 res; F(res) = fmaxq (F(x), F(y)); return res; } |
| 200 | +myfloat128 min_q(myfloat128 x, myfloat128 y) { myfloat128 res; F(res) = fminq (F(x), F(y)); return res; } |
| 201 | +myfloat128 fmod_q(myfloat128 x, myfloat128 y) { myfloat128 res; F(res) = fmodq (F(x), F(y)); return res; } |
| 202 | +myfloat128 frexp_q(myfloat128 x, int *n) { myfloat128 res; F(res) = frexpq (F(x), n); return res; } |
| 203 | +myfloat128 hypot_q(myfloat128 x, myfloat128 y) { myfloat128 res; F(res) = hypotq (F(x), F(y)); return res; } |
| 204 | +int isinf_q(myfloat128 x) { return isinfq (F(x)); } |
| 205 | +int ilogb_q(myfloat128 x) { return ilogbq (F(x)); } |
| 206 | +int isnan_q(myfloat128 x) { return isnanq (F(x)); } |
| 207 | +myfloat128 besselj0_q(myfloat128 x) { myfloat128 res; F(res) = j0q (F(x)); return res; } |
| 208 | +myfloat128 besselj1_q(myfloat128 x) { myfloat128 res; F(res) = j1q (F(x)); return res; } |
| 209 | +myfloat128 besselj_q(int n, myfloat128 x) { myfloat128 res; F(res) = jnq (n, F(x)); return res; } |
| 210 | +myfloat128 ldexp_q(myfloat128 x, int n) { myfloat128 res; F(res) = ldexpq (F(x), n); return res; } |
| 211 | +myfloat128 lgamma_q(myfloat128 x) { myfloat128 res; F(res) = lgammaq (F(x)); return res; } |
| 212 | +long long int llrint_q(myfloat128 x) { return llrintq (F(x)); } |
| 213 | +long long int llround_q(myfloat128 x) { return llroundq (F(x)); } |
| 214 | +myfloat128 log_q(myfloat128 x) { myfloat128 res; F(res) = logq (F(x)); return res; } |
| 215 | +myfloat128 log10_q(myfloat128 x) { myfloat128 res; F(res) = log10q (F(x)); return res; } |
| 216 | +myfloat128 log2_q(myfloat128 x) { myfloat128 res; F(res) = log2q (F(x)); return res; } |
| 217 | +myfloat128 log1p_q(myfloat128 x) { myfloat128 res; F(res) = log1pq (F(x)); return res; } |
| 218 | +long int lrint_q(myfloat128 x) { return lrintq (F(x)); } |
| 219 | +long int lround_q(myfloat128 x) { return lroundq (F(x)); } |
| 220 | +myfloat128 modfq_q(myfloat128 x, myfloat128 *y) { myfloat128 res; F(res) = modfq (F(x), (__float128 *) y); return res; } |
| 221 | +myfloat128 nan_q(const char *s) { myfloat128 res; F(res) = nanq (s); return res; } |
| 222 | +myfloat128 nearbyint_q(myfloat128 x) { myfloat128 res; F(res) = nearbyintq (F(x)); return res; } |
| 223 | +myfloat128 nextafter_q(myfloat128 x, myfloat128 y) { myfloat128 res; F(res) = nextafterq (F(x), F(y)); return res; } |
| 224 | +myfloat128 pow_q(myfloat128 x, myfloat128 y) { myfloat128 res; F(res) = powq (F(x), F(y)); return res; } |
| 225 | +myfloat128 remainder_q(myfloat128 x, myfloat128 y) { myfloat128 res; F(res) = remainderq (F(x), F(y)); return res; } |
| 226 | +myfloat128 remquo_q(myfloat128 x, myfloat128 y, int *n) { myfloat128 res; F(res) = remquoq (F(x), F(y), n); return res; } |
| 227 | +myfloat128 rint_q(myfloat128 x) { myfloat128 res; F(res) = rintq (F(x)); return res; } |
| 228 | +myfloat128 round_q(myfloat128 x) { myfloat128 res; F(res) = roundq (F(x)); return res; } |
| 229 | +myfloat128 scalbln_q(myfloat128 x, long int n) { myfloat128 res; F(res) = scalblnq (F(x), n); return res; } |
| 230 | +myfloat128 scalbn_q(myfloat128 x, int n) { myfloat128 res; F(res) = scalbnq (F(x), n); return res; } |
| 231 | +int signbit_q(myfloat128 x) { return signbitq (F(x)); } |
| 232 | +void sincos_q(myfloat128 x, myfloat128 *s, myfloat128 * c) { sincosq (F(x), (__float128 *) s, (__float128 *) c); } |
| 233 | +myfloat128 sinh_q(myfloat128 x) { myfloat128 res; F(res) = sinhq (F(x)); return res; } |
| 234 | +myfloat128 sin_q(myfloat128 x) { myfloat128 res; F(res) = sinq (F(x)); return res; } |
| 235 | +myfloat128 sqrt_q(myfloat128 x) { myfloat128 res; F(res) = sqrtq (F(x)); return res; } |
| 236 | +myfloat128 tan_q(myfloat128 x) { myfloat128 res; F(res) = tanq (F(x)); return res; } |
| 237 | +myfloat128 tanh_q(myfloat128 x) { myfloat128 res; F(res) = tanhq (F(x)); return res; } |
| 238 | +myfloat128 gamma_q(myfloat128 x) { myfloat128 res; F(res) = tgammaq (F(x)); return res; } |
| 239 | +myfloat128 trunc_q(myfloat128 x) { myfloat128 res; F(res) = truncq (F(x)); return res; } |
| 240 | +myfloat128 bessely0_q(myfloat128 x) { myfloat128 res; F(res) = y0q (F(x)); return res; } |
| 241 | +myfloat128 bessely1_q(myfloat128 x) { myfloat128 res; F(res) = y1q (F(x)); return res; } |
| 242 | +myfloat128 bessely_q(int n, myfloat128 x) { myfloat128 res; F(res) = ynq (n, F(x)); return res; } |
| 243 | + |
| 244 | + |
| 245 | + |
| 246 | +myfloat128 cabs_q (mycomplex128 z) { myfloat128 res; F(res) = cabsq(F(z)); return res; }; |
| 247 | +myfloat128 carg_q (mycomplex128 z) { myfloat128 res; F(res) = cargq(F(z)); return res; }; |
| 248 | +myfloat128 cimag_q (mycomplex128 z) { myfloat128 res; F(res) = cimagq(F(z)); return res; }; |
| 249 | +myfloat128 creal_q (mycomplex128 z) { myfloat128 res; F(res) = crealq(F(z)); return res; }; |
| 250 | +mycomplex128 cacos_q (mycomplex128 z) { mycomplex128 res; F(res) = cacosq(F(z)); return res; }; |
| 251 | +mycomplex128 cacosh_q (mycomplex128 z) { mycomplex128 res; F(res) = cacoshq(F(z)); return res; }; |
| 252 | +mycomplex128 casin_q (mycomplex128 z) { mycomplex128 res; F(res) = casinq(F(z)); return res; }; |
| 253 | +mycomplex128 casinh_q (mycomplex128 z) { mycomplex128 res; F(res) = casinhq(F(z)); return res; }; |
| 254 | +mycomplex128 catan_q (mycomplex128 z) { mycomplex128 res; F(res) = catanq(F(z)); return res; }; |
| 255 | +mycomplex128 catanh_q (mycomplex128 z) { mycomplex128 res; F(res) = catanhq(F(z)); return res; }; |
| 256 | +mycomplex128 ccos_q (mycomplex128 z) { mycomplex128 res; F(res) = ccosq(F(z)); return res; }; |
| 257 | +mycomplex128 ccosh_q (mycomplex128 z) { mycomplex128 res; F(res) = ccoshq(F(z)); return res; }; |
| 258 | +mycomplex128 cexp_q (mycomplex128 z) { mycomplex128 res; F(res) = cexpq(F(z)); return res; }; |
| 259 | +mycomplex128 cexpi_q (myfloat128 z) { mycomplex128 res; F(res) = cexpiq(F(z)); return res; }; |
| 260 | +mycomplex128 clog_q (mycomplex128 z) { mycomplex128 res; F(res) = clogq(F(z)); return res; }; |
| 261 | +mycomplex128 clog10_q (mycomplex128 z) { mycomplex128 res; F(res) = clog10q(F(z)); return res; }; |
| 262 | +mycomplex128 cconj_q (mycomplex128 z) { mycomplex128 res; F(res) = conjq(F(z)); return res; }; |
| 263 | +mycomplex128 cpow_q (mycomplex128 z, mycomplex128 w) { mycomplex128 res; F(res) = cpowq(F(z), F(w)); return res; }; |
| 264 | +mycomplex128 cproj_q (mycomplex128 z) { mycomplex128 res; F(res) = cprojq(F(z)); return res; }; |
| 265 | +mycomplex128 csin_q (mycomplex128 z) { mycomplex128 res; F(res) = csinq(F(z)); return res; }; |
| 266 | +mycomplex128 csinh_q (mycomplex128 z) { mycomplex128 res; F(res) = csinhq(F(z)); return res; }; |
| 267 | +mycomplex128 csqrt_q (mycomplex128 z) { mycomplex128 res; F(res) = csqrtq(F(z)); return res; }; |
| 268 | +mycomplex128 ctan_q (mycomplex128 z) { mycomplex128 res; F(res) = ctanq(F(z)); return res; }; |
| 269 | +mycomplex128 ctanh_q (mycomplex128 z) { mycomplex128 res; F(res) = ctanhq(F(z)); return res; }; |
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