| 1 | /* This was modified to try out compiling with Guile. */ |
| 2 | |
| 3 | |
| 4 | /* scmhob.h is a header file for scheme source compiled with hobbit4d |
| 5 | Copyright (C) 1992, 1993, 1994, 1995 Tanel Tammet |
| 6 | |
| 7 | This program is free software; you can redistribute it and/or modify |
| 8 | it under the terms of the GNU General Public License as published by |
| 9 | the Free Software Foundation; either version 1, or (at your option) |
| 10 | any later version. |
| 11 | |
| 12 | This program is distributed in the hope that it will be useful, |
| 13 | but WITHOUT ANY WARRANTY; without even the implied warranty of |
| 14 | MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the |
| 15 | GNU General Public License for more details. |
| 16 | |
| 17 | You should have received a copy of the GNU General Public License |
| 18 | along with this program; if not, write to the Free Software |
| 19 | Foundation, Inc., 675 Mass Ave, Cambridge, MA 02139, USA. |
| 20 | */ |
| 21 | |
| 22 | |
| 23 | #include <stdio.h> |
| 24 | #include <ctype.h> |
| 25 | #include "_scm.h" |
| 26 | |
| 27 | \f |
| 28 | |
| 29 | #define abrt scm_abort |
| 30 | #define absval scm_abs |
| 31 | #define angle scm_angle |
| 32 | #define append scm_append |
| 33 | #define assoc scm_assoc |
| 34 | #define assq scm_assq |
| 35 | #define assv scm_assv |
| 36 | #define big2dbl scm_big2dbl |
| 37 | #define close_port scm_close_port |
| 38 | #define cons scm_cons |
| 39 | #define cur_input_port scm_current_input_port |
| 40 | #define cur_output_port scm_current_output_port |
| 41 | #define difference scm_difference |
| 42 | #define display scm_display |
| 43 | #define divide scm_divide |
| 44 | #define eof_objectp scm_eof_object_p |
| 45 | #define eqp scm_eq_p |
| 46 | #define equal scm_equal_p |
| 47 | #define eqv scm_eqv_p |
| 48 | #define evenp scm_even_p |
| 49 | #define exactp scm_exact_p |
| 50 | #define greaterp scm_gr_p |
| 51 | #define greqp scm_geq_p |
| 52 | #define imag_part scm_imag_part |
| 53 | #define in2ex scm_inexact_to_exact |
| 54 | #define inexactp scm_inexact_p |
| 55 | #define input_portp scm_input_port_p |
| 56 | #define intp scm_int_p |
| 57 | #define length scm_length |
| 58 | #define leqp scm_leq_p |
| 59 | #define lessp scm_less_p |
| 60 | #define lgcd scm_gcd |
| 61 | #define list_ref scm_list_ref |
| 62 | #define list_tail scm_list_tail |
| 63 | #define listp scm_list_p |
| 64 | #define llcm scm_lcm |
| 65 | #define lmax scm_max |
| 66 | #define lmin scm_min |
| 67 | #define lquotient scm_quotient |
| 68 | #define lread(X) scm_read((X), SCM_UNDEFINED) |
| 69 | #define lremainder scm_remainder |
| 70 | #define lwrite scm_write |
| 71 | #define magnitude scm_magnitude |
| 72 | #define makcclo scm_makcclo |
| 73 | #define makdbl scm_makdbl |
| 74 | #define make_string scm_make_string |
| 75 | #define make_vector scm_make_vector |
| 76 | #define makpolar scm_make_polar |
| 77 | #define makrect scm_make_rectangular |
| 78 | #define member scm_member |
| 79 | #define memq scm_memq |
| 80 | #define memv scm_memv |
| 81 | #define modulo scm_modulo |
| 82 | #define my_time scm_get_internal_run_time |
| 83 | #define negativep scm_negative_p |
| 84 | #define newline scm_newline |
| 85 | #define number2string scm_number_to_string |
| 86 | #define oddp scm_odd_p |
| 87 | #define open_file scm_open_file |
| 88 | #define output_portp scm_output_port_p |
| 89 | #define peek_char scm_peek_char |
| 90 | #define positivep scm_positive_p |
| 91 | #define procedurep scm_procedure_p |
| 92 | #define product scm_product |
| 93 | #define quit scm_quit |
| 94 | #define read_char scm_read_char |
| 95 | #define real_part scm_real_part |
| 96 | #define realp scm_real_p |
| 97 | #define reverse scm_reverse |
| 98 | #define set_inp scm_set_current_input_port |
| 99 | #define set_outp scm_set_current_output_port |
| 100 | #define st_append scm_string_append |
| 101 | #define st_equal scm_string_equal_p |
| 102 | #define st_leqp scm_string_leq_p |
| 103 | #define st_lessp scm_string_less_p |
| 104 | #define st_set scm_string_set_x |
| 105 | #define stci_equal scm_string_ci_equal_p |
| 106 | #define stci_leqp scm_string_ci_leq_p |
| 107 | #define stci_lessp scm_string_ci_less_p |
| 108 | #define string scm_string |
| 109 | #define string2list scm_string_to_list |
| 110 | #define string2number scm_string_to_number |
| 111 | #define string2symbol scm_string_to_symbol |
| 112 | #define string_copy scm_string_copy |
| 113 | #define string_fill scm_string_fill_x |
| 114 | #define substring scm_substring |
| 115 | #define sum scm_sum |
| 116 | #define symbol2string scm_symbol_to_string |
| 117 | #define vector scm_vector |
| 118 | #define vector2list scm_vector_to_list |
| 119 | #define vector_ref scm_vector_ref |
| 120 | #define vector_set scm_vector_set_x |
| 121 | #define write_char scm_write_char |
| 122 | #define zerop scm_zero_p |
| 123 | |
| 124 | \f |
| 125 | |
| 126 | #define STBL_VECTOR_SET(v,k,o) (v[((long)SCM_INUM(k))] = o) |
| 127 | #define STBL_VECTOR_REF(v,k) (v[((long)SCM_INUM(k))]) |
| 128 | #define CHAR_LESSP(x,y) ((SCM_ICHR(x) < SCM_ICHR(y)) ? SCM_BOOL_T : SCM_BOOL_F) |
| 129 | #define CHAR_LEQP(x,y) ((SCM_ICHR(x) <= SCM_ICHR(y)) ? SCM_BOOL_T : SCM_BOOL_F) |
| 130 | #define CHCI_EQ(x,y) ((upcase[SCM_ICHR(x)]==upcase[SCM_ICHR(y)]) ? SCM_BOOL_T : SCM_BOOL_F) |
| 131 | #define CHCI_LESSP(x,y) ((upcase[SCM_ICHR(x)] < upcase[SCM_ICHR(y)]) ? SCM_BOOL_T : SCM_BOOL_F) |
| 132 | #define CHCI_LEQP(x,y) ((upcase[SCM_ICHR(x)] <= upcase[SCM_ICHR(y)]) ? SCM_BOOL_T : SCM_BOOL_F) |
| 133 | #define CHAR_ALPHAP(chr) ((isascii(SCM_ICHR(chr)) && isalpha(SCM_ICHR(chr))) ? SCM_BOOL_T : SCM_BOOL_F) |
| 134 | #define CHAR_SCM_NUMP(chr) ((isascii(SCM_ICHR(chr)) && isdigit(SCM_ICHR(chr))) ? SCM_BOOL_T : SCM_BOOL_F) |
| 135 | #define CHAR_WHITEP(chr) ((isascii(SCM_ICHR(chr)) && isspace(SCM_ICHR(chr))) ? SCM_BOOL_T : SCM_BOOL_F) |
| 136 | #define CHAR_UPPERP(chr) ((isascii(SCM_ICHR(chr)) && isupper(SCM_ICHR(chr))) ? SCM_BOOL_T : SCM_BOOL_F) |
| 137 | #define CHAR_LOWERP(chr) ((isascii(SCM_ICHR(chr)) && islower(SCM_ICHR(chr))) ? SCM_BOOL_T : SCM_BOOL_F) |
| 138 | #define CHAR2INT(chr) SCM_MAKINUM(SCM_ICHR(chr)) |
| 139 | #define INT2CHAR(n) SCM_MAKICHR(SCM_INUM(n)) |
| 140 | #define CHAR_UPCASE(chr) SCM_MAKICHR(upcase[SCM_ICHR(chr)]) |
| 141 | #define CHAR_DOWNCASE(chr) SCM_MAKICHR(downcase[SCM_ICHR(chr)]) |
| 142 | #define ST_SCM_LENGTH(str) SCM_MAKINUM(SCM_LENGTH(str)) |
| 143 | #define ST_REF(str,k) SCM_MAKICHR(SCM_CHARS(str)[SCM_INUM(k)]) |
| 144 | #define VECTOR_SCM_LENGTH(v) SCM_MAKINUM(SCM_LENGTH(v)) |
| 145 | |
| 146 | #ifdef SCM_FLOATS |
| 147 | #include <math.h> |
| 148 | #endif |
| 149 | #ifdef SCM_BIGDIG |
| 150 | #define PRE_TRANSC_FUN(x) (SCM_INUMP(x) ? (double) SCM_INUM(x) : (SCM_REALP(x) ? (double) SCM_REALPART(x) : (double) big2dbl(x))) |
| 151 | #else |
| 152 | #define PRE_TRANSC_FUN(x) (SCM_INUMP(x) ? (double) SCM_INUM(x) : (double) SCM_REALPART(x)) |
| 153 | #endif |
| 154 | |
| 155 | #define SIN_FUN(x) (makdbl( sin( PRE_TRANSC_FUN(x)), 0.0)) |
| 156 | #define COS_FUN(x) (makdbl( cos( PRE_TRANSC_FUN(x)), 0.0)) |
| 157 | #define TAN_FUN(x) (makdbl( tan( PRE_TRANSC_FUN(x)), 0.0)) |
| 158 | #define ASIN_FUN(x) (makdbl( asin( PRE_TRANSC_FUN(x)), 0.0)) |
| 159 | #define ACOS_FUN(x) (makdbl( acos( PRE_TRANSC_FUN(x)), 0.0)) |
| 160 | #define ATAN_FUN(x) (makdbl( atan( PRE_TRANSC_FUN(x)), 0.0)) |
| 161 | #define SINH_FUN(x) (makdbl( sinh( PRE_TRANSC_FUN(x)), 0.0)) |
| 162 | #define COSH_FUN(x) (makdbl( cosh( PRE_TRANSC_FUN(x)), 0.0)) |
| 163 | #define TANH_FUN(x) (makdbl( tanh( PRE_TRANSC_FUN(x)), 0.0)) |
| 164 | #define ASINH_FUN(x) (makdbl( asinh( PRE_TRANSC_FUN(x)), 0.0)) |
| 165 | #define ACOSH_FUN(x) (makdbl( acosh( PRE_TRANSC_FUN(x)), 0.0)) |
| 166 | #define ATANH_FUN(x) (makdbl( atanh( PRE_TRANSC_FUN(x)), 0.0)) |
| 167 | #define SQRT_FUN(x) (makdbl( sqrt( PRE_TRANSC_FUN(x)), 0.0)) |
| 168 | #define EXPT_FUN(x,y) (makdbl( pow(( PRE_TRANSC_FUN(x)), ( PRE_TRANSC_FUN(y))), 0.0)) |
| 169 | #define EXP_FUN(x) (makdbl( exp( PRE_TRANSC_FUN(x)), 0.0)) |
| 170 | #define LOG_FUN(x) (makdbl( log( PRE_TRANSC_FUN(x)), 0.0)) |
| 171 | #define ABS_FUN(x) (makdbl( fabs( PRE_TRANSC_FUN(x)), 0.0)) |
| 172 | #define EX2IN_FUN(x) (makdbl( PRE_TRANSC_FUN(x), 0.0)) |
| 173 | #define SCM_FLOOR_FUN(x) (makdbl( floor( PRE_TRANSC_FUN(x)), 0.0)) |
| 174 | #define CEILING_FUN(x) (makdbl( ceil( PRE_TRANSC_FUN(x)), 0.0)) |
| 175 | #define TRUNCATE_FUN(x) (makdbl( ltrunc( PRE_TRANSC_FUN(x)), 0.0)) |
| 176 | #define ROUND_FUN(x) (makdbl(round( PRE_TRANSC_FUN(x)), 0.0)) |
| 177 | |
| 178 | /* the following defs come from the #ifdef HOBBIT part of scm.h */ |
| 179 | |
| 180 | #define SBOOL(x) ((x) ? SCM_BOOL_T : SCM_BOOL_F) |
| 181 | |
| 182 | #define BOOLEAN_P(x) ((x)==SCM_BOOL_T || (x)==SCM_BOOL_F) |
| 183 | #define CHAR_P SCM_ICHRP |
| 184 | #define SYMBOL_P(x) (SCM_ISYMP(x) || (!(SCM_IMP(x)) && SCM_SYMBOLP(x))) |
| 185 | #define VECTOR_P(x) (!(SCM_IMP(x)) && SCM_VECTORP(x)) |
| 186 | #define PAIR_P(x) (!(SCM_IMP(x)) && SCM_CONSP(x)) |
| 187 | #define NUMBER_P SCM_INUMP |
| 188 | #define INTEGER_P SCM_INUMP |
| 189 | #define STRING_P(x) (!(SCM_IMP(x)) && SCM_STRINGP(x)) |
| 190 | #define NULL_P SCM_NULLP |
| 191 | #define ZERO_P(x) ((x)==SCM_INUM0) |
| 192 | #define POSITIVE_P(x) ((x) > SCM_INUM0) |
| 193 | #define NEGATIVE_P(x) ((x) < SCM_INUM0) |
| 194 | |
| 195 | #define NOT(x) ((x)==SCM_BOOL_F ? SCM_BOOL_T : SCM_BOOL_F) |
| 196 | #define SET_CAR(x,y) (CAR(x) = (SCM)(y)) |
| 197 | #define SET_CDR(x,y) (CDR(x) = (SCM)(y)) |
| 198 | #define VECTOR_SET(v,k,o) (SCM_VELTS(v)[((long)SCM_INUM(k))] = o) |
| 199 | #define VECTOR_REF(v,k) (SCM_VELTS(v)[((long)SCM_INUM(k))]) |
| 200 | #define CL_VECTOR_SET(v,k,o) (SCM_VELTS(v)[k] = o) |
| 201 | #define CL_VECTOR_REF(v,k) (SCM_VELTS(v)[k]) |
| 202 | #define GLOBAL(x) (*(x)) |
| 203 | |
| 204 | #define append2(lst1,lst2) (append(scm_cons2(lst1,lst2,SCM_EOL))) |
| 205 | #define procedure_pred_(x) (SCM_BOOL_T==procedurep(x)) |