588 #define FLOATX80_PARAMS(R)              \  argument
590     .frac_size = R == 64 ? 63 : R,      \
592     .round_mask = R == 64 ? -1 : (1ull << ((-R - 1) & 63)) - 1
843 #define parts_round_to_int_normal(A, R, C, F) \  argument
844     PARTS_GENERIC_64_128(round_to_int_normal, A)(A, R, C, F)
853 #define parts_round_to_int(A, R, C, S, F) \  argument
854     PARTS_GENERIC_64_128(round_to_int, A)(A, R, C, S, F)
863 #define parts_float_to_sint(P, R, Z, MN, MX, S) \  argument
864     PARTS_GENERIC_64_128(float_to_sint, P)(P, R, Z, MN, MX, S)
873 #define parts_float_to_uint(P, R, Z, M, S) \  argument
874     PARTS_GENERIC_64_128(float_to_uint, P)(P, R, Z, M, S)
883 #define parts_float_to_sint_modulo(P, R, M, S) \  argument
884     PARTS_GENERIC_64_128(float_to_sint_modulo, P)(P, R, M, S)
891 #define parts_float_to_sint(P, R, Z, MN, MX, S) \  argument
892     PARTS_GENERIC_64_128(float_to_sint, P)(P, R, Z, MN, MX, S)
969 #define frac_add(R, A, B)  FRAC_GENERIC_64_128_256(add, R)(R, A, B)  argument
982 #define frac_addi(R, A, C)  FRAC_GENERIC_64_128(addi, R)(R, A, C)  argument
1133 #define frac_mulw(R, A, B)  FRAC_GENERIC_64_128(mulw, A)(R, A, B)  argument
1576 #define frac_sub(R, A, B)  FRAC_GENERIC_64_128_256(sub, R)(R, A, B)  argument
1589 #define frac_truncjam(R, A)  FRAC_GENERIC_64_128(truncjam, R)(R, A)  argument