ipc/chromium/src/third_party/libevent/ht-internal.h

Wed, 31 Dec 2014 06:09:35 +0100

author
Michael Schloh von Bennewitz <michael@schloh.com>
date
Wed, 31 Dec 2014 06:09:35 +0100
changeset 0
6474c204b198
permissions
-rw-r--r--

Cloned upstream origin tor-browser at tor-browser-31.3.0esr-4.5-1-build1
revision ID fc1c9ff7c1b2defdbc039f12214767608f46423f for hacking purpose.

michael@0 1 /* Based on work Copyright 2002 Christopher Clark */
michael@0 2 /* Copyright 2005-2012 Nick Mathewson */
michael@0 3 /* Copyright 2009-2012 Niels Provos and Nick Mathewson */
michael@0 4 /* See license at end. */
michael@0 5
michael@0 6 /* Based on ideas by Christopher Clark and interfaces from Niels Provos. */
michael@0 7
michael@0 8 #ifndef _EVENT_HT_H
michael@0 9 #define _EVENT_HT_H
michael@0 10
michael@0 11 #define HT_HEAD(name, type) \
michael@0 12 struct name { \
michael@0 13 /* The hash table itself. */ \
michael@0 14 struct type **hth_table; \
michael@0 15 /* How long is the hash table? */ \
michael@0 16 unsigned hth_table_length; \
michael@0 17 /* How many elements does the table contain? */ \
michael@0 18 unsigned hth_n_entries; \
michael@0 19 /* How many elements will we allow in the table before resizing it? */ \
michael@0 20 unsigned hth_load_limit; \
michael@0 21 /* Position of hth_table_length in the primes table. */ \
michael@0 22 int hth_prime_idx; \
michael@0 23 }
michael@0 24
michael@0 25 #define HT_INITIALIZER() \
michael@0 26 { NULL, 0, 0, 0, -1 }
michael@0 27
michael@0 28 #ifdef HT_CACHE_HASH_VALUES
michael@0 29 #define HT_ENTRY(type) \
michael@0 30 struct { \
michael@0 31 struct type *hte_next; \
michael@0 32 unsigned hte_hash; \
michael@0 33 }
michael@0 34 #else
michael@0 35 #define HT_ENTRY(type) \
michael@0 36 struct { \
michael@0 37 struct type *hte_next; \
michael@0 38 }
michael@0 39 #endif
michael@0 40
michael@0 41 #define HT_EMPTY(head) \
michael@0 42 ((head)->hth_n_entries == 0)
michael@0 43
michael@0 44 /* How many elements in 'head'? */
michael@0 45 #define HT_SIZE(head) \
michael@0 46 ((head)->hth_n_entries)
michael@0 47
michael@0 48 #define HT_FIND(name, head, elm) name##_HT_FIND((head), (elm))
michael@0 49 #define HT_INSERT(name, head, elm) name##_HT_INSERT((head), (elm))
michael@0 50 #define HT_REPLACE(name, head, elm) name##_HT_REPLACE((head), (elm))
michael@0 51 #define HT_REMOVE(name, head, elm) name##_HT_REMOVE((head), (elm))
michael@0 52 #define HT_START(name, head) name##_HT_START(head)
michael@0 53 #define HT_NEXT(name, head, elm) name##_HT_NEXT((head), (elm))
michael@0 54 #define HT_NEXT_RMV(name, head, elm) name##_HT_NEXT_RMV((head), (elm))
michael@0 55 #define HT_CLEAR(name, head) name##_HT_CLEAR(head)
michael@0 56 #define HT_INIT(name, head) name##_HT_INIT(head)
michael@0 57 /* Helper: */
michael@0 58 static inline unsigned
michael@0 59 ht_improve_hash(unsigned h)
michael@0 60 {
michael@0 61 /* Aim to protect against poor hash functions by adding logic here
michael@0 62 * - logic taken from java 1.4 hashtable source */
michael@0 63 h += ~(h << 9);
michael@0 64 h ^= ((h >> 14) | (h << 18)); /* >>> */
michael@0 65 h += (h << 4);
michael@0 66 h ^= ((h >> 10) | (h << 22)); /* >>> */
michael@0 67 return h;
michael@0 68 }
michael@0 69
michael@0 70 #if 0
michael@0 71 /** Basic string hash function, from Java standard String.hashCode(). */
michael@0 72 static inline unsigned
michael@0 73 ht_string_hash(const char *s)
michael@0 74 {
michael@0 75 unsigned h = 0;
michael@0 76 int m = 1;
michael@0 77 while (*s) {
michael@0 78 h += ((signed char)*s++)*m;
michael@0 79 m = (m<<5)-1; /* m *= 31 */
michael@0 80 }
michael@0 81 return h;
michael@0 82 }
michael@0 83 #endif
michael@0 84
michael@0 85 /** Basic string hash function, from Python's str.__hash__() */
michael@0 86 static inline unsigned
michael@0 87 ht_string_hash(const char *s)
michael@0 88 {
michael@0 89 unsigned h;
michael@0 90 const unsigned char *cp = (const unsigned char *)s;
michael@0 91 h = *cp << 7;
michael@0 92 while (*cp) {
michael@0 93 h = (1000003*h) ^ *cp++;
michael@0 94 }
michael@0 95 /* This conversion truncates the length of the string, but that's ok. */
michael@0 96 h ^= (unsigned)(cp-(const unsigned char*)s);
michael@0 97 return h;
michael@0 98 }
michael@0 99
michael@0 100 #ifdef HT_CACHE_HASH_VALUES
michael@0 101 #define _HT_SET_HASH(elm, field, hashfn) \
michael@0 102 do { (elm)->field.hte_hash = hashfn(elm); } while (0)
michael@0 103 #define _HT_SET_HASHVAL(elm, field, val) \
michael@0 104 do { (elm)->field.hte_hash = (val); } while (0)
michael@0 105 #define _HT_ELT_HASH(elm, field, hashfn) \
michael@0 106 ((elm)->field.hte_hash)
michael@0 107 #else
michael@0 108 #define _HT_SET_HASH(elm, field, hashfn) \
michael@0 109 ((void)0)
michael@0 110 #define _HT_ELT_HASH(elm, field, hashfn) \
michael@0 111 (hashfn(elm))
michael@0 112 #define _HT_SET_HASHVAL(elm, field, val) \
michael@0 113 ((void)0)
michael@0 114 #endif
michael@0 115
michael@0 116 /* Helper: alias for the bucket containing 'elm'. */
michael@0 117 #define _HT_BUCKET(head, field, elm, hashfn) \
michael@0 118 ((head)->hth_table[_HT_ELT_HASH(elm,field,hashfn) % head->hth_table_length])
michael@0 119
michael@0 120 #define HT_FOREACH(x, name, head) \
michael@0 121 for ((x) = HT_START(name, head); \
michael@0 122 (x) != NULL; \
michael@0 123 (x) = HT_NEXT(name, head, x))
michael@0 124
michael@0 125 #define HT_PROTOTYPE(name, type, field, hashfn, eqfn) \
michael@0 126 int name##_HT_GROW(struct name *ht, unsigned min_capacity); \
michael@0 127 void name##_HT_CLEAR(struct name *ht); \
michael@0 128 int _##name##_HT_REP_IS_BAD(const struct name *ht); \
michael@0 129 static inline void \
michael@0 130 name##_HT_INIT(struct name *head) { \
michael@0 131 head->hth_table_length = 0; \
michael@0 132 head->hth_table = NULL; \
michael@0 133 head->hth_n_entries = 0; \
michael@0 134 head->hth_load_limit = 0; \
michael@0 135 head->hth_prime_idx = -1; \
michael@0 136 } \
michael@0 137 /* Helper: returns a pointer to the right location in the table \
michael@0 138 * 'head' to find or insert the element 'elm'. */ \
michael@0 139 static inline struct type ** \
michael@0 140 _##name##_HT_FIND_P(struct name *head, struct type *elm) \
michael@0 141 { \
michael@0 142 struct type **p; \
michael@0 143 if (!head->hth_table) \
michael@0 144 return NULL; \
michael@0 145 p = &_HT_BUCKET(head, field, elm, hashfn); \
michael@0 146 while (*p) { \
michael@0 147 if (eqfn(*p, elm)) \
michael@0 148 return p; \
michael@0 149 p = &(*p)->field.hte_next; \
michael@0 150 } \
michael@0 151 return p; \
michael@0 152 } \
michael@0 153 /* Return a pointer to the element in the table 'head' matching 'elm', \
michael@0 154 * or NULL if no such element exists */ \
michael@0 155 static inline struct type * \
michael@0 156 name##_HT_FIND(const struct name *head, struct type *elm) \
michael@0 157 { \
michael@0 158 struct type **p; \
michael@0 159 struct name *h = (struct name *) head; \
michael@0 160 _HT_SET_HASH(elm, field, hashfn); \
michael@0 161 p = _##name##_HT_FIND_P(h, elm); \
michael@0 162 return p ? *p : NULL; \
michael@0 163 } \
michael@0 164 /* Insert the element 'elm' into the table 'head'. Do not call this \
michael@0 165 * function if the table might already contain a matching element. */ \
michael@0 166 static inline void \
michael@0 167 name##_HT_INSERT(struct name *head, struct type *elm) \
michael@0 168 { \
michael@0 169 struct type **p; \
michael@0 170 if (!head->hth_table || head->hth_n_entries >= head->hth_load_limit) \
michael@0 171 name##_HT_GROW(head, head->hth_n_entries+1); \
michael@0 172 ++head->hth_n_entries; \
michael@0 173 _HT_SET_HASH(elm, field, hashfn); \
michael@0 174 p = &_HT_BUCKET(head, field, elm, hashfn); \
michael@0 175 elm->field.hte_next = *p; \
michael@0 176 *p = elm; \
michael@0 177 } \
michael@0 178 /* Insert the element 'elm' into the table 'head'. If there already \
michael@0 179 * a matching element in the table, replace that element and return \
michael@0 180 * it. */ \
michael@0 181 static inline struct type * \
michael@0 182 name##_HT_REPLACE(struct name *head, struct type *elm) \
michael@0 183 { \
michael@0 184 struct type **p, *r; \
michael@0 185 if (!head->hth_table || head->hth_n_entries >= head->hth_load_limit) \
michael@0 186 name##_HT_GROW(head, head->hth_n_entries+1); \
michael@0 187 _HT_SET_HASH(elm, field, hashfn); \
michael@0 188 p = _##name##_HT_FIND_P(head, elm); \
michael@0 189 r = *p; \
michael@0 190 *p = elm; \
michael@0 191 if (r && (r!=elm)) { \
michael@0 192 elm->field.hte_next = r->field.hte_next; \
michael@0 193 r->field.hte_next = NULL; \
michael@0 194 return r; \
michael@0 195 } else { \
michael@0 196 ++head->hth_n_entries; \
michael@0 197 return NULL; \
michael@0 198 } \
michael@0 199 } \
michael@0 200 /* Remove any element matching 'elm' from the table 'head'. If such \
michael@0 201 * an element is found, return it; otherwise return NULL. */ \
michael@0 202 static inline struct type * \
michael@0 203 name##_HT_REMOVE(struct name *head, struct type *elm) \
michael@0 204 { \
michael@0 205 struct type **p, *r; \
michael@0 206 _HT_SET_HASH(elm, field, hashfn); \
michael@0 207 p = _##name##_HT_FIND_P(head,elm); \
michael@0 208 if (!p || !*p) \
michael@0 209 return NULL; \
michael@0 210 r = *p; \
michael@0 211 *p = r->field.hte_next; \
michael@0 212 r->field.hte_next = NULL; \
michael@0 213 --head->hth_n_entries; \
michael@0 214 return r; \
michael@0 215 } \
michael@0 216 /* Invoke the function 'fn' on every element of the table 'head', \
michael@0 217 * using 'data' as its second argument. If the function returns \
michael@0 218 * nonzero, remove the most recently examined element before invoking \
michael@0 219 * the function again. */ \
michael@0 220 static inline void \
michael@0 221 name##_HT_FOREACH_FN(struct name *head, \
michael@0 222 int (*fn)(struct type *, void *), \
michael@0 223 void *data) \
michael@0 224 { \
michael@0 225 unsigned idx; \
michael@0 226 struct type **p, **nextp, *next; \
michael@0 227 if (!head->hth_table) \
michael@0 228 return; \
michael@0 229 for (idx=0; idx < head->hth_table_length; ++idx) { \
michael@0 230 p = &head->hth_table[idx]; \
michael@0 231 while (*p) { \
michael@0 232 nextp = &(*p)->field.hte_next; \
michael@0 233 next = *nextp; \
michael@0 234 if (fn(*p, data)) { \
michael@0 235 --head->hth_n_entries; \
michael@0 236 *p = next; \
michael@0 237 } else { \
michael@0 238 p = nextp; \
michael@0 239 } \
michael@0 240 } \
michael@0 241 } \
michael@0 242 } \
michael@0 243 /* Return a pointer to the first element in the table 'head', under \
michael@0 244 * an arbitrary order. This order is stable under remove operations, \
michael@0 245 * but not under others. If the table is empty, return NULL. */ \
michael@0 246 static inline struct type ** \
michael@0 247 name##_HT_START(struct name *head) \
michael@0 248 { \
michael@0 249 unsigned b = 0; \
michael@0 250 while (b < head->hth_table_length) { \
michael@0 251 if (head->hth_table[b]) \
michael@0 252 return &head->hth_table[b]; \
michael@0 253 ++b; \
michael@0 254 } \
michael@0 255 return NULL; \
michael@0 256 } \
michael@0 257 /* Return the next element in 'head' after 'elm', under the arbitrary \
michael@0 258 * order used by HT_START. If there are no more elements, return \
michael@0 259 * NULL. If 'elm' is to be removed from the table, you must call \
michael@0 260 * this function for the next value before you remove it. \
michael@0 261 */ \
michael@0 262 static inline struct type ** \
michael@0 263 name##_HT_NEXT(struct name *head, struct type **elm) \
michael@0 264 { \
michael@0 265 if ((*elm)->field.hte_next) { \
michael@0 266 return &(*elm)->field.hte_next; \
michael@0 267 } else { \
michael@0 268 unsigned b = (_HT_ELT_HASH(*elm, field, hashfn) % head->hth_table_length)+1; \
michael@0 269 while (b < head->hth_table_length) { \
michael@0 270 if (head->hth_table[b]) \
michael@0 271 return &head->hth_table[b]; \
michael@0 272 ++b; \
michael@0 273 } \
michael@0 274 return NULL; \
michael@0 275 } \
michael@0 276 } \
michael@0 277 static inline struct type ** \
michael@0 278 name##_HT_NEXT_RMV(struct name *head, struct type **elm) \
michael@0 279 { \
michael@0 280 unsigned h = _HT_ELT_HASH(*elm, field, hashfn); \
michael@0 281 *elm = (*elm)->field.hte_next; \
michael@0 282 --head->hth_n_entries; \
michael@0 283 if (*elm) { \
michael@0 284 return elm; \
michael@0 285 } else { \
michael@0 286 unsigned b = (h % head->hth_table_length)+1; \
michael@0 287 while (b < head->hth_table_length) { \
michael@0 288 if (head->hth_table[b]) \
michael@0 289 return &head->hth_table[b]; \
michael@0 290 ++b; \
michael@0 291 } \
michael@0 292 return NULL; \
michael@0 293 } \
michael@0 294 }
michael@0 295
michael@0 296 #define HT_GENERATE(name, type, field, hashfn, eqfn, load, mallocfn, \
michael@0 297 reallocfn, freefn) \
michael@0 298 static unsigned name##_PRIMES[] = { \
michael@0 299 53, 97, 193, 389, \
michael@0 300 769, 1543, 3079, 6151, \
michael@0 301 12289, 24593, 49157, 98317, \
michael@0 302 196613, 393241, 786433, 1572869, \
michael@0 303 3145739, 6291469, 12582917, 25165843, \
michael@0 304 50331653, 100663319, 201326611, 402653189, \
michael@0 305 805306457, 1610612741 \
michael@0 306 }; \
michael@0 307 static unsigned name##_N_PRIMES = \
michael@0 308 (unsigned)(sizeof(name##_PRIMES)/sizeof(name##_PRIMES[0])); \
michael@0 309 /* Expand the internal table of 'head' until it is large enough to \
michael@0 310 * hold 'size' elements. Return 0 on success, -1 on allocation \
michael@0 311 * failure. */ \
michael@0 312 int \
michael@0 313 name##_HT_GROW(struct name *head, unsigned size) \
michael@0 314 { \
michael@0 315 unsigned new_len, new_load_limit; \
michael@0 316 int prime_idx; \
michael@0 317 struct type **new_table; \
michael@0 318 if (head->hth_prime_idx == (int)name##_N_PRIMES - 1) \
michael@0 319 return 0; \
michael@0 320 if (head->hth_load_limit > size) \
michael@0 321 return 0; \
michael@0 322 prime_idx = head->hth_prime_idx; \
michael@0 323 do { \
michael@0 324 new_len = name##_PRIMES[++prime_idx]; \
michael@0 325 new_load_limit = (unsigned)(load*new_len); \
michael@0 326 } while (new_load_limit <= size && \
michael@0 327 prime_idx < (int)name##_N_PRIMES); \
michael@0 328 if ((new_table = mallocfn(new_len*sizeof(struct type*)))) { \
michael@0 329 unsigned b; \
michael@0 330 memset(new_table, 0, new_len*sizeof(struct type*)); \
michael@0 331 for (b = 0; b < head->hth_table_length; ++b) { \
michael@0 332 struct type *elm, *next; \
michael@0 333 unsigned b2; \
michael@0 334 elm = head->hth_table[b]; \
michael@0 335 while (elm) { \
michael@0 336 next = elm->field.hte_next; \
michael@0 337 b2 = _HT_ELT_HASH(elm, field, hashfn) % new_len; \
michael@0 338 elm->field.hte_next = new_table[b2]; \
michael@0 339 new_table[b2] = elm; \
michael@0 340 elm = next; \
michael@0 341 } \
michael@0 342 } \
michael@0 343 if (head->hth_table) \
michael@0 344 freefn(head->hth_table); \
michael@0 345 head->hth_table = new_table; \
michael@0 346 } else { \
michael@0 347 unsigned b, b2; \
michael@0 348 new_table = reallocfn(head->hth_table, new_len*sizeof(struct type*)); \
michael@0 349 if (!new_table) return -1; \
michael@0 350 memset(new_table + head->hth_table_length, 0, \
michael@0 351 (new_len - head->hth_table_length)*sizeof(struct type*)); \
michael@0 352 for (b=0; b < head->hth_table_length; ++b) { \
michael@0 353 struct type *e, **pE; \
michael@0 354 for (pE = &new_table[b], e = *pE; e != NULL; e = *pE) { \
michael@0 355 b2 = _HT_ELT_HASH(e, field, hashfn) % new_len; \
michael@0 356 if (b2 == b) { \
michael@0 357 pE = &e->field.hte_next; \
michael@0 358 } else { \
michael@0 359 *pE = e->field.hte_next; \
michael@0 360 e->field.hte_next = new_table[b2]; \
michael@0 361 new_table[b2] = e; \
michael@0 362 } \
michael@0 363 } \
michael@0 364 } \
michael@0 365 head->hth_table = new_table; \
michael@0 366 } \
michael@0 367 head->hth_table_length = new_len; \
michael@0 368 head->hth_prime_idx = prime_idx; \
michael@0 369 head->hth_load_limit = new_load_limit; \
michael@0 370 return 0; \
michael@0 371 } \
michael@0 372 /* Free all storage held by 'head'. Does not free 'head' itself, or \
michael@0 373 * individual elements. */ \
michael@0 374 void \
michael@0 375 name##_HT_CLEAR(struct name *head) \
michael@0 376 { \
michael@0 377 if (head->hth_table) \
michael@0 378 freefn(head->hth_table); \
michael@0 379 head->hth_table_length = 0; \
michael@0 380 name##_HT_INIT(head); \
michael@0 381 } \
michael@0 382 /* Debugging helper: return false iff the representation of 'head' is \
michael@0 383 * internally consistent. */ \
michael@0 384 int \
michael@0 385 _##name##_HT_REP_IS_BAD(const struct name *head) \
michael@0 386 { \
michael@0 387 unsigned n, i; \
michael@0 388 struct type *elm; \
michael@0 389 if (!head->hth_table_length) { \
michael@0 390 if (!head->hth_table && !head->hth_n_entries && \
michael@0 391 !head->hth_load_limit && head->hth_prime_idx == -1) \
michael@0 392 return 0; \
michael@0 393 else \
michael@0 394 return 1; \
michael@0 395 } \
michael@0 396 if (!head->hth_table || head->hth_prime_idx < 0 || \
michael@0 397 !head->hth_load_limit) \
michael@0 398 return 2; \
michael@0 399 if (head->hth_n_entries > head->hth_load_limit) \
michael@0 400 return 3; \
michael@0 401 if (head->hth_table_length != name##_PRIMES[head->hth_prime_idx]) \
michael@0 402 return 4; \
michael@0 403 if (head->hth_load_limit != (unsigned)(load*head->hth_table_length)) \
michael@0 404 return 5; \
michael@0 405 for (n = i = 0; i < head->hth_table_length; ++i) { \
michael@0 406 for (elm = head->hth_table[i]; elm; elm = elm->field.hte_next) { \
michael@0 407 if (_HT_ELT_HASH(elm, field, hashfn) != hashfn(elm)) \
michael@0 408 return 1000 + i; \
michael@0 409 if ((_HT_ELT_HASH(elm, field, hashfn) % head->hth_table_length) != i) \
michael@0 410 return 10000 + i; \
michael@0 411 ++n; \
michael@0 412 } \
michael@0 413 } \
michael@0 414 if (n != head->hth_n_entries) \
michael@0 415 return 6; \
michael@0 416 return 0; \
michael@0 417 }
michael@0 418
michael@0 419 /** Implements an over-optimized "find and insert if absent" block;
michael@0 420 * not meant for direct usage by typical code, or usage outside the critical
michael@0 421 * path.*/
michael@0 422 #define _HT_FIND_OR_INSERT(name, field, hashfn, head, eltype, elm, var, y, n) \
michael@0 423 { \
michael@0 424 struct name *_##var##_head = head; \
michael@0 425 struct eltype **var; \
michael@0 426 if (!_##var##_head->hth_table || \
michael@0 427 _##var##_head->hth_n_entries >= _##var##_head->hth_load_limit) \
michael@0 428 name##_HT_GROW(_##var##_head, _##var##_head->hth_n_entries+1); \
michael@0 429 _HT_SET_HASH((elm), field, hashfn); \
michael@0 430 var = _##name##_HT_FIND_P(_##var##_head, (elm)); \
michael@0 431 if (*var) { \
michael@0 432 y; \
michael@0 433 } else { \
michael@0 434 n; \
michael@0 435 } \
michael@0 436 }
michael@0 437 #define _HT_FOI_INSERT(field, head, elm, newent, var) \
michael@0 438 { \
michael@0 439 _HT_SET_HASHVAL(newent, field, (elm)->field.hte_hash); \
michael@0 440 newent->field.hte_next = NULL; \
michael@0 441 *var = newent; \
michael@0 442 ++((head)->hth_n_entries); \
michael@0 443 }
michael@0 444
michael@0 445 /*
michael@0 446 * Copyright 2005, Nick Mathewson. Implementation logic is adapted from code
michael@0 447 * by Cristopher Clark, retrofit to allow drop-in memory management, and to
michael@0 448 * use the same interface as Niels Provos's tree.h. This is probably still
michael@0 449 * a derived work, so the original license below still applies.
michael@0 450 *
michael@0 451 * Copyright (c) 2002, Christopher Clark
michael@0 452 * All rights reserved.
michael@0 453 *
michael@0 454 * Redistribution and use in source and binary forms, with or without
michael@0 455 * modification, are permitted provided that the following conditions
michael@0 456 * are met:
michael@0 457 *
michael@0 458 * * Redistributions of source code must retain the above copyright
michael@0 459 * notice, this list of conditions and the following disclaimer.
michael@0 460 *
michael@0 461 * * Redistributions in binary form must reproduce the above copyright
michael@0 462 * notice, this list of conditions and the following disclaimer in the
michael@0 463 * documentation and/or other materials provided with the distribution.
michael@0 464 *
michael@0 465 * * Neither the name of the original author; nor the names of any contributors
michael@0 466 * may be used to endorse or promote products derived from this software
michael@0 467 * without specific prior written permission.
michael@0 468 *
michael@0 469 *
michael@0 470 * THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
michael@0 471 * "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
michael@0 472 * LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
michael@0 473 * A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER
michael@0 474 * OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL,
michael@0 475 * EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO,
michael@0 476 * PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR
michael@0 477 * PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF
michael@0 478 * LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING
michael@0 479 * NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS
michael@0 480 * SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
michael@0 481 */
michael@0 482
michael@0 483 #endif
michael@0 484

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