don't let impls leak into decls
[m6w6/ext-psi] / src / calc.c
1 #ifdef HAVE_CONFIG_H
2 # include "config.h"
3 #endif
4
5 #include "php.h"
6 #include "php_psi.h"
7 #include "parser.h"
8 #include "calc.h"
9
10 static inline int psi_calc_num_exp_value(num_exp *exp, impl_val *strct, impl_val *res) {
11 impl_val *ref, *tmp = NULL;
12
13 switch (exp->t) {
14 case PSI_T_NUMBER:
15 switch (is_numeric_string(exp->u.numb, strlen(exp->u.numb), (zend_long *) res, (double *) res, 0)) {
16 case IS_LONG:
17 return PSI_T_INT64;
18 case IS_DOUBLE:
19 return PSI_T_DOUBLE;
20 }
21 break;
22
23 case PSI_T_NSNAME:
24 switch (exp->u.cnst->type->type) {
25 case PSI_T_INT:
26 res->i64 = zend_get_constant_str(exp->u.cnst->name, strlen(exp->u.cnst->name))->value.lval;
27 return PSI_T_INT64;
28 case PSI_T_FLOAT:
29 res->dval = zend_get_constant_str(exp->u.cnst->name, strlen(exp->u.cnst->name))->value.dval;
30 return PSI_T_DOUBLE;
31 default:
32 return 0;
33 }
34 break;
35
36 case PSI_T_ENUM:
37 return psi_calc_num_exp(exp->u.enm->num ?: &exp->u.enm->inc, NULL, res);
38 break;
39
40 case PSI_T_NAME:
41 if (strct) {
42 ref = struct_member_ref(exp->u.dvar->arg, strct, &tmp);
43 } else {
44 ref = exp->u.dvar->arg->let;
45 }
46 switch (real_decl_type(exp->u.dvar->arg->type)->type) {
47 case PSI_T_INT8:
48 case PSI_T_UINT8:
49 case PSI_T_INT16:
50 case PSI_T_UINT16:
51 case PSI_T_INT32:
52 case PSI_T_UINT32:
53 case PSI_T_INT64:
54 case PSI_T_UINT64:
55 memcpy(res, deref_impl_val(ref, exp->u.dvar), sizeof(*res));
56 if (tmp) {
57 free(tmp);
58 }
59 return real_decl_type(exp->u.dvar->arg->type)->type;
60
61 case PSI_T_FLOAT:
62 case PSI_T_DOUBLE:
63 memcpy(res, deref_impl_val(ref, exp->u.dvar), sizeof(*res));
64 if (tmp) {
65 free(tmp);
66 }
67 return real_decl_type(exp->u.dvar->arg->type)->type;
68
69 EMPTY_SWITCH_DEFAULT_CASE();
70 }
71 break;
72
73 EMPTY_SWITCH_DEFAULT_CASE();
74 }
75 return 0;
76 }
77
78 int psi_calc_num_exp(num_exp *exp, impl_val *strct, impl_val *res) {
79 impl_val num = {0};
80 int num_type = psi_calc_num_exp_value(exp, strct, &num);
81
82 if (exp->operand) {
83 impl_val tmp = {0};
84 int tmp_type = psi_calc_num_exp(exp->operand, strct, &tmp);
85
86 return exp->calculator(num_type, &num, tmp_type, &tmp, res);
87 }
88
89 memcpy(res, &num, sizeof(*res));
90 return num_type;
91 }
92
93 #define PRIfval "f"
94 #define PRIdval "lf"
95 #define PRIldval "Lf"
96
97 #define PSI_CALC_OP(var) do { \
98 const char *fmt = "calc %" PRI##var ", %" PRI##var ": %" PRI##var "\n"; \
99 res->var = PSI_CALC(v1->var, v2->var); \
100 if (!res->var) fprintf(stderr, fmt, v1->var, v2->var, res->var); \
101 } while (0)
102 #define PSI_CALC_OP2(vres, var1, var2) do { \
103 const char *fmt = "calc %" PRI##var1 ", %" PRI##var2 ": %" PRI##vres "\n"; \
104 res->vres = PSI_CALC(v1->var1, v2->var2); \
105 if (!res->vres) fprintf(stderr, fmt, v1->var1, v2->var2, res->vres); \
106 } while(0)
107
108 #ifdef HAVE_LONG_DOUBLE
109 #define PSI_CALC_NO_LD
110 #define PSI_CALC_OP_LD PSI_CALC_OP(ldval)
111 #define PSI_CALC_OP2_LD2(var1) PSI_CALC_OP2(ldval, var1, ldval)
112 #define PSI_CALC_OP2_LD1(var2) PSI_CALC_OP2(ldval, ldval, var2)
113 #else
114 #define PSI_CALC_NO_LD abort()
115 #define PSI_CALC_OP_LD PSI_CALC_NO_LD
116 #define PSI_CALC_OP2_LD2(var) PSI_CALC_NO_LD
117 #define PSI_CALC_OP2_LD1(var) PSI_CALC_NO_LD
118 #endif
119
120 #define PSI_CALC_FN(op) int psi_calc_##op(int t1, impl_val *v1, int t2, impl_val *v2, impl_val *res) \
121 { \
122 if (t1 == t2) { \
123 switch (t1) { \
124 case PSI_T_FLOAT: PSI_CALC_OP(fval); break; \
125 case PSI_T_DOUBLE: PSI_CALC_OP(dval); break; \
126 case PSI_T_LONG_DOUBLE: PSI_CALC_OP_LD; break; \
127 case PSI_T_INT8: PSI_CALC_OP(i8); break; \
128 case PSI_T_UINT8: PSI_CALC_OP(u8); break; \
129 case PSI_T_INT16: PSI_CALC_OP(i16); break; \
130 case PSI_T_UINT16: PSI_CALC_OP(u16); break; \
131 case PSI_T_INT32: PSI_CALC_OP(i32); break; \
132 case PSI_T_UINT32: PSI_CALC_OP(u32); break; \
133 case PSI_T_INT64: PSI_CALC_OP(i64); break; \
134 case PSI_T_UINT64: PSI_CALC_OP(u64); break; \
135 EMPTY_SWITCH_DEFAULT_CASE(); \
136 } \
137 return t1; \
138 } else if (t1 == PSI_T_DOUBLE) { \
139 switch (t2) { \
140 case PSI_T_LONG_DOUBLE: PSI_CALC_OP2_LD2(dval); return t2; \
141 case PSI_T_FLOAT: PSI_CALC_OP2(dval, dval, fval); break; \
142 case PSI_T_INT8: PSI_CALC_OP2(dval, dval, i8); break; \
143 case PSI_T_UINT8: PSI_CALC_OP2(dval, dval, u8); break; \
144 case PSI_T_INT16: PSI_CALC_OP2(dval, dval, i16); break; \
145 case PSI_T_UINT16: PSI_CALC_OP2(dval, dval, u16); break; \
146 case PSI_T_INT32: PSI_CALC_OP2(dval, dval, i32); break; \
147 case PSI_T_UINT32: PSI_CALC_OP2(dval, dval, u32); break; \
148 case PSI_T_INT64: PSI_CALC_OP2(dval, dval, i64); break; \
149 case PSI_T_UINT64: PSI_CALC_OP2(dval, dval, u64); break; \
150 EMPTY_SWITCH_DEFAULT_CASE(); \
151 } \
152 return t1; \
153 } else if (t2 == PSI_T_DOUBLE) { \
154 switch (t1) { \
155 case PSI_T_LONG_DOUBLE: PSI_CALC_OP2_LD1(dval); return t1; \
156 case PSI_T_FLOAT: PSI_CALC_OP2(dval, fval, dval); break; \
157 case PSI_T_INT8: PSI_CALC_OP2(dval, i8, dval); break; \
158 case PSI_T_UINT8: PSI_CALC_OP2(dval, u8, dval); break; \
159 case PSI_T_INT16: PSI_CALC_OP2(dval, i16, dval); break; \
160 case PSI_T_UINT16: PSI_CALC_OP2(dval, u16, dval); break; \
161 case PSI_T_INT32: PSI_CALC_OP2(dval, i32, dval); break; \
162 case PSI_T_UINT32: PSI_CALC_OP2(dval, u32, dval); break; \
163 case PSI_T_INT64: PSI_CALC_OP2(dval, i64, dval); break; \
164 case PSI_T_UINT64: PSI_CALC_OP2(dval, u64, dval); break; \
165 EMPTY_SWITCH_DEFAULT_CASE(); \
166 } \
167 return t2; \
168 } else if (t1 == PSI_T_LONG_DOUBLE) { \
169 PSI_CALC_NO_LD; \
170 switch (t2) { \
171 case PSI_T_DOUBLE: PSI_CALC_OP2_LD1(dval); break; \
172 case PSI_T_FLOAT: PSI_CALC_OP2_LD1(fval); break; \
173 case PSI_T_INT8: PSI_CALC_OP2_LD1(i8); break; \
174 case PSI_T_UINT8: PSI_CALC_OP2_LD1(u8); break; \
175 case PSI_T_INT16: PSI_CALC_OP2_LD1(i16); break; \
176 case PSI_T_UINT16: PSI_CALC_OP2_LD1(u16); break; \
177 case PSI_T_INT32: PSI_CALC_OP2_LD1(i32); break; \
178 case PSI_T_UINT32: PSI_CALC_OP2_LD1(u32); break; \
179 case PSI_T_INT64: PSI_CALC_OP2_LD1(i64); break; \
180 case PSI_T_UINT64: PSI_CALC_OP2_LD1(u64); break; \
181 EMPTY_SWITCH_DEFAULT_CASE(); \
182 } \
183 return t1; \
184 } else if (t2 == PSI_T_LONG_DOUBLE) { \
185 PSI_CALC_NO_LD; \
186 switch (t1) { \
187 case PSI_T_DOUBLE: PSI_CALC_OP2_LD2(dval); break; \
188 case PSI_T_FLOAT: PSI_CALC_OP2_LD2(fval); break; \
189 case PSI_T_INT8: PSI_CALC_OP2_LD2(i8); break; \
190 case PSI_T_UINT8: PSI_CALC_OP2_LD2(u8); break; \
191 case PSI_T_INT16: PSI_CALC_OP2_LD2(i16); break; \
192 case PSI_T_UINT16: PSI_CALC_OP2_LD2(u16); break; \
193 case PSI_T_INT32: PSI_CALC_OP2_LD2(i32); break; \
194 case PSI_T_UINT32: PSI_CALC_OP2_LD2(u32); break; \
195 case PSI_T_INT64: PSI_CALC_OP2_LD2(i64); break; \
196 case PSI_T_UINT64: PSI_CALC_OP2_LD2(u64); break; \
197 EMPTY_SWITCH_DEFAULT_CASE(); \
198 } \
199 return t2; \
200 } else if (t1 == PSI_T_FLOAT) { \
201 switch (t2) { \
202 case PSI_T_LONG_DOUBLE: PSI_CALC_OP2_LD2(fval); return t2; \
203 case PSI_T_DOUBLE: PSI_CALC_OP2(dval, fval, dval); return t2; \
204 case PSI_T_INT8: PSI_CALC_OP2(fval, fval, i8); break; \
205 case PSI_T_UINT8: PSI_CALC_OP2(fval, fval, u8); break; \
206 case PSI_T_INT16: PSI_CALC_OP2(fval, fval, i16); break; \
207 case PSI_T_UINT16: PSI_CALC_OP2(fval, fval, u16); break; \
208 case PSI_T_INT32: PSI_CALC_OP2(fval, fval, i32); break; \
209 case PSI_T_UINT32: PSI_CALC_OP2(fval, fval, u32); break; \
210 case PSI_T_INT64: PSI_CALC_OP2(fval, fval, i64); break; \
211 case PSI_T_UINT64: PSI_CALC_OP2(fval, fval, u64); break; \
212 EMPTY_SWITCH_DEFAULT_CASE(); \
213 } \
214 return t1; \
215 } else if (t2 == PSI_T_FLOAT) { \
216 switch (t1) { \
217 case PSI_T_LONG_DOUBLE: PSI_CALC_OP2_LD1(fval); return t1; \
218 case PSI_T_DOUBLE: PSI_CALC_OP2(dval, dval, fval); return t1; \
219 case PSI_T_INT8: PSI_CALC_OP2(fval, i8, fval); break; \
220 case PSI_T_UINT8: PSI_CALC_OP2(fval, u8, fval); break; \
221 case PSI_T_INT16: PSI_CALC_OP2(fval, i16, fval); break; \
222 case PSI_T_UINT16: PSI_CALC_OP2(fval, u16, fval); break; \
223 case PSI_T_INT32: PSI_CALC_OP2(fval, i32, fval); break; \
224 case PSI_T_UINT32: PSI_CALC_OP2(fval, u32, fval); break; \
225 case PSI_T_INT64: PSI_CALC_OP2(fval, i64, fval); break; \
226 case PSI_T_UINT64: PSI_CALC_OP2(fval, u64, fval); break; \
227 EMPTY_SWITCH_DEFAULT_CASE(); \
228 } \
229 return t2; \
230 } else { \
231 int64_t sval1 = v1->i64, sval2 = v2->i64; \
232 uint64_t uval1 = v1->u64, uval2 = v2->u64; \
233 switch (t1) { \
234 case PSI_T_INT8: sval1 >>= 8; \
235 case PSI_T_INT16: sval1 >>= 8; \
236 case PSI_T_INT32: sval1 >>= 8; \
237 case PSI_T_INT64: \
238 switch (t2) { \
239 case PSI_T_INT8: sval2 >>= 8; \
240 case PSI_T_INT16: sval2 >>= 8; \
241 case PSI_T_INT32: sval2 >>= 8; \
242 case PSI_T_INT64: \
243 res->i64 = PSI_CALC(sval1 , sval2); \
244 return PSI_T_INT64; \
245 case PSI_T_UINT8: uval2 >>= 8; \
246 case PSI_T_UINT16: uval2 >>= 8; \
247 case PSI_T_UINT32: uval2 >>= 8; \
248 case PSI_T_UINT64: \
249 res->i64 = PSI_CALC(sval1, uval2); \
250 return PSI_T_INT64; \
251 } \
252 break; \
253 case PSI_T_UINT8: uval1 >>= 8; \
254 case PSI_T_UINT16: uval1 >>= 8; \
255 case PSI_T_UINT32: uval1 >>= 8; \
256 case PSI_T_UINT64: \
257 switch (t2) { \
258 case PSI_T_INT8: sval2 >>= 8; \
259 case PSI_T_INT16: sval2 >>= 8; \
260 case PSI_T_INT32: sval2 >>= 8; \
261 case PSI_T_INT64: \
262 res->i64 = PSI_CALC(uval1, sval2); \
263 return PSI_T_INT64; \
264 case PSI_T_UINT8: uval2 >>= 8; \
265 case PSI_T_UINT16: uval2 >>= 8; \
266 case PSI_T_UINT32: uval2 >>= 8; \
267 case PSI_T_UINT64: \
268 res->u64 = PSI_CALC(uval1, uval2); \
269 return PSI_T_UINT64; \
270 } \
271 break; \
272 } \
273 } \
274 ZEND_ASSERT(0); \
275 return 0; \
276 }
277
278 #undef PSI_CALC
279 #define PSI_CALC(var1, var2) (var1) + (var2)
280 PSI_CALC_FN(add)
281 #undef PSI_CALC
282 #define PSI_CALC(var1, var2) (var1) * (var2)
283 PSI_CALC_FN(mul)
284 #undef PSI_CALC
285 #define PSI_CALC(var1, var2) (var1) - (var2)
286 PSI_CALC_FN(sub)
287 #undef PSI_CALC
288 #define PSI_CALC(var1, var2) (var1) / (var2)
289 PSI_CALC_FN(div)