check_encode.c 11 KB

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  1. /*
  2. ============================================================================
  3. Name : check_encode.c
  4. Author :
  5. Version :
  6. Copyright : Your copyright notice
  7. Description :
  8. ============================================================================
  9. */
  10. #include <stdio.h>
  11. #include <stdlib.h>
  12. #include "opcua.h"
  13. #include "ua_transportLayer.h"
  14. #include "check.h"
  15. /*START_TEST(encodeByte_test)
  16. {
  17. UA_ByteString rawMessage;
  18. UA_Int32 position = 0;
  19. //EncodeByte
  20. UA_Byte *mem = malloc(sizeof(UA_Byte));
  21. rawMessage.data = mem;
  22. UA_Byte testByte = 0x08;
  23. rawMessage.length = 1;
  24. position = 0;
  25. UA_Byte_encodeBinary(&(testByte), &position, &rawMessage);
  26. ck_assert_int_eq(rawMessage.data[0], 0x08);
  27. ck_assert_int_eq(rawMessage.length, 1);
  28. ck_assert_int_eq(position, 1);
  29. free(mem);
  30. }
  31. END_TEST
  32. START_TEST(encodeInt16_test)
  33. {
  34. UA_ByteString rawMessage;
  35. UA_Int32 position = 0;
  36. //EncodeUInt16
  37. UA_Byte *mem = malloc(sizeof(UA_UInt16));
  38. rawMessage.data = mem;
  39. UA_UInt16 testUInt16 = 1;
  40. rawMessage.length = 2;
  41. position = 0;
  42. UA_UInt16_encodeBinary(&testUInt16, &position, &rawMessage);
  43. ck_assert_int_eq(position, 2);
  44. UA_Int32 p = 0;
  45. UA_UInt16 val;
  46. UA_UInt16_decodeBinary(&rawMessage, &p, &val);
  47. ck_assert_int_eq(val,testUInt16);
  48. //ck_assert_int_eq(rawMessage.data[0], 0xAB);
  49. free(mem);
  50. }
  51. END_TEST
  52. START_TEST(encodeUInt16_test)
  53. {
  54. UA_ByteString rawMessage;
  55. UA_Int32 position = 0;
  56. //EncodeUInt16
  57. UA_Byte *mem = (UA_Byte*) malloc(sizeof(UA_UInt16));
  58. rawMessage.data = mem;
  59. UA_UInt16 testUInt16 = 1;
  60. rawMessage.length = 2;
  61. position = 0;
  62. UA_UInt16_encodeBinary(&testUInt16, &position, &rawMessage);
  63. ck_assert_int_eq(position, 2);
  64. UA_Int32 p = 0;
  65. UA_UInt16 val;
  66. UA_UInt16_decodeBinary(&rawMessage, &p, &val);
  67. ck_assert_int_eq(val,testUInt16);
  68. //ck_assert_int_eq(rawMessage.data[0], 0xAB);
  69. free(mem);
  70. }
  71. END_TEST
  72. START_TEST(encodeUInt32_test)
  73. {
  74. UA_ByteString rawMessage;
  75. UA_UInt32 value = 0x0101FF00;
  76. //EncodeUInt16
  77. rawMessage.data = (UA_Byte*) malloc(2 * sizeof(UA_UInt32));
  78. rawMessage.length = 8;
  79. UA_Int32 p = 4;
  80. UA_UInt32_encodeBinary(&value,&p,&rawMessage);
  81. ck_assert_uint_eq(rawMessage.data[4],0x00);
  82. ck_assert_uint_eq(rawMessage.data[5],0xFF);
  83. ck_assert_uint_eq(rawMessage.data[6],0x01);
  84. ck_assert_uint_eq(rawMessage.data[7],0x01);
  85. ck_assert_int_eq(p,8);
  86. free(rawMessage.data);
  87. }
  88. END_TEST
  89. START_TEST(encodeInt32ShallEncodeLittleEndian)
  90. {
  91. // given
  92. UA_Int32 value = 0x01020304;
  93. UA_Byte buf[4];
  94. UA_ByteString dst = {4,buf};
  95. UA_Int32 p = 0;
  96. // when
  97. UA_Int32_encodeBinary(&value,&p,&dst);
  98. // then
  99. ck_assert_int_eq(p,4);
  100. ck_assert_uint_eq(buf[0],0x04);
  101. ck_assert_uint_eq(buf[1],0x03);
  102. ck_assert_uint_eq(buf[2],0x02);
  103. ck_assert_uint_eq(buf[3],0x01);
  104. }
  105. END_TEST
  106. START_TEST(encodeInt32NegativeShallEncodeLittleEndian)
  107. {
  108. // given
  109. UA_Int32 value = -1;
  110. UA_Byte buf[4];
  111. UA_ByteString dst = {4,buf};
  112. UA_Int32 p = 0;
  113. // when
  114. UA_Int32_encodeBinary(&value,&p,&dst);
  115. // then
  116. ck_assert_int_eq(p,4);
  117. ck_assert_uint_eq(buf[0],0xFF);
  118. ck_assert_uint_eq(buf[1],0xFF);
  119. ck_assert_uint_eq(buf[2],0xFF);
  120. ck_assert_uint_eq(buf[3],0xFF);
  121. }
  122. END_TEST
  123. START_TEST(encodeUInt64_test)
  124. {
  125. UA_ByteString rawMessage;
  126. UA_UInt64 value = 0x0101FF00FF00FF00;
  127. //EncodeUInt16
  128. rawMessage.data = (UA_Byte*) malloc(sizeof(UA_UInt64));
  129. rawMessage.length = 8;
  130. UA_Int32 p = 0;
  131. UA_UInt64_encodeBinary(&value, &p,&rawMessage);
  132. ck_assert_uint_eq((UA_Byte)rawMessage.data[0],0x00);
  133. ck_assert_uint_eq((UA_Byte)rawMessage.data[1],0xFF);
  134. ck_assert_uint_eq((UA_Byte)rawMessage.data[2],0x00);
  135. ck_assert_uint_eq((UA_Byte)rawMessage.data[3],0xFF);
  136. ck_assert_uint_eq((UA_Byte)rawMessage.data[4],0x00);
  137. ck_assert_uint_eq((UA_Byte)rawMessage.data[5],0xFF);
  138. ck_assert_uint_eq((UA_Byte)rawMessage.data[6],0x01);
  139. ck_assert_uint_eq((UA_Byte)rawMessage.data[7],0x01);
  140. free(rawMessage.data);
  141. }
  142. END_TEST
  143. START_TEST(encodeInt64_test)
  144. {
  145. UA_ByteString rawMessage;
  146. UA_UInt64 value = 0x0101FF00FF00FF00;
  147. //EncodeUInt16
  148. rawMessage.data = (UA_Byte*) malloc(sizeof(UA_UInt64));
  149. rawMessage.length = 8;
  150. UA_Int32 p = 0;
  151. UA_UInt64_encodeBinary(&value, &p,&rawMessage);
  152. ck_assert_uint_eq(rawMessage.data[0],0x00);
  153. ck_assert_uint_eq(rawMessage.data[1],0xFF);
  154. ck_assert_uint_eq(rawMessage.data[2],0x00);
  155. ck_assert_uint_eq(rawMessage.data[3],0xFF);
  156. ck_assert_uint_eq(rawMessage.data[4],0x00);
  157. ck_assert_uint_eq(rawMessage.data[5],0xFF);
  158. ck_assert_uint_eq(rawMessage.data[6],0x01);
  159. ck_assert_uint_eq(rawMessage.data[7],0x01);
  160. free(rawMessage.data);
  161. }
  162. END_TEST
  163. START_TEST(encodeFloat_test)
  164. {
  165. UA_Float value = -6.5;
  166. UA_Int32 pos = 0;
  167. UA_Byte* buf = (UA_Byte*)malloc(sizeof(UA_Float));
  168. UA_ByteString dst = { sizeof(UA_Float), buf };
  169. UA_Float_encodeBinary(&value,&pos,&dst);
  170. ck_assert_uint_eq(buf[2],0xD0);
  171. ck_assert_uint_eq(buf[3],0xC0);
  172. free(buf);
  173. }
  174. END_TEST
  175. START_TEST(encodeDouble_test)
  176. {
  177. UA_Double value = -6.5;
  178. UA_Int32 pos = 0;
  179. UA_Byte* buf = (char*)malloc(sizeof(UA_Double));
  180. UA_Double_encode(&value,&pos,buf);
  181. ck_assert_uint_eq(buf[6],0xD0);
  182. ck_assert_uint_eq(buf[7],0xC0);
  183. free(buf);
  184. }
  185. END_TEST
  186. START_TEST(encodeUAString_test)
  187. {
  188. UA_Int32 pos = 0;
  189. UA_String string;
  190. UA_Byte mem[] = "ACPLT OPCUA";
  191. string.data = mem;
  192. string.length = sizeof(mem)-1; // w/o trailing \0
  193. UA_Byte *buf = (UA_Byte*) malloc(sizeof(UA_Int32)+string.length);
  194. UA_ByteString dst = {string.length+4, buf};
  195. UA_String_encodeBinary(&string, &pos, &dst);
  196. ck_assert_int_eq(buf[0],11);
  197. ck_assert_int_eq(buf[4],'A');
  198. free(buf);
  199. }
  200. END_TEST
  201. START_TEST(encodeDataValue_test)
  202. {
  203. UA_DataValue dataValue;
  204. UA_Int32 pos = 0, retval;
  205. UA_Byte* buf = (UA_Byte*) malloc(15);
  206. UA_ByteString dst = {15,buf};
  207. UA_DateTime dateTime;
  208. dateTime = 80;
  209. dataValue.serverTimestamp = dateTime;
  210. //--without Variant
  211. dataValue.encodingMask = UA_DATAVALUE_SERVERTIMPSTAMP; //Only the sourcePicoseconds
  212. UA_DataValue_encodeBinary(&dataValue, &pos, &dst);
  213. ck_assert_int_eq(pos, 9);// represents the length
  214. ck_assert_uint_eq(buf[0], 0x08); // encodingMask
  215. ck_assert_uint_eq(buf[1], 80); // 8 Byte serverTimestamp
  216. ck_assert_uint_eq(buf[2], 0);
  217. ck_assert_uint_eq(buf[3], 0);
  218. ck_assert_uint_eq(buf[4], 0);
  219. ck_assert_uint_eq(buf[5], 0);
  220. ck_assert_uint_eq(buf[6], 0);
  221. ck_assert_uint_eq(buf[7], 0);
  222. ck_assert_uint_eq(buf[8], 0);
  223. //TestCase for a DataValue with a Variant!
  224. dataValue.encodingMask = UA_DATAVALUE_VARIANT | UA_DATAVALUE_SERVERTIMPSTAMP; //Variant & SourvePicoseconds
  225. dataValue.value.vt = &UA_[UA_INT32];
  226. dataValue.value.arrayLength = 0;
  227. dataValue.value.encodingMask = UA_INT32_NS0;
  228. UA_Int32 data = 45;
  229. UA_Int32* pdata = &data;
  230. dataValue.value.data = (void**) &pdata;
  231. pos = 0;
  232. retval = UA_DataValue_encodeBinary(&dataValue, &pos, &dst);
  233. ck_assert_int_eq(retval, UA_SUCCESS);
  234. ck_assert_int_eq(pos, 1+(1+4)+8);// represents the length
  235. ck_assert_uint_eq(buf[0], 0x08 | 0x01); // encodingMask
  236. ck_assert_uint_eq(buf[1], 0x06); // Variant's Encoding Mask - INT32
  237. ck_assert_uint_eq(buf[2], 45); // the single value
  238. ck_assert_uint_eq(buf[3], 0);
  239. ck_assert_uint_eq(buf[4], 0);
  240. ck_assert_uint_eq(buf[5], 0);
  241. ck_assert_uint_eq(buf[6], 80); // the server timestamp
  242. ck_assert_uint_eq(buf[7], 0);
  243. free(buf);
  244. }
  245. END_TEST*/
  246. /*
  247. Suite *testSuite_encodeByte(void)
  248. {
  249. Suite *s = suite_create("encodeByte_test");
  250. TCase *tc_core = tcase_create("Core");
  251. tcase_add_test(tc_core, encodeByte_test);
  252. suite_add_tcase(s,tc_core);
  253. return s;
  254. }
  255. Suite*testSuite_encodeInt16(void)
  256. {
  257. Suite *s = suite_create("encodeInt16_test");
  258. TCase *tc_core = tcase_create("Core");
  259. tcase_add_test(tc_core, encodeInt16_test);
  260. suite_add_tcase(s,tc_core);
  261. return s;
  262. }
  263. Suite*testSuite_encodeUInt16(void)
  264. {
  265. Suite *s = suite_create("encodeUInt16_test");
  266. TCase *tc_core = tcase_create("Core");
  267. tcase_add_test(tc_core, encodeUInt16_test);
  268. suite_add_tcase(s,tc_core);
  269. return s;
  270. }
  271. Suite*testSuite_encodeUInt32(void)
  272. {
  273. Suite *s = suite_create("encodeUInt32_test");
  274. TCase *tc_core = tcase_create("Core");
  275. tcase_add_test(tc_core, encodeUInt32_test);
  276. suite_add_tcase(s,tc_core);
  277. return s;
  278. }
  279. Suite*testSuite_encodeInt32(void)
  280. {
  281. Suite *s = suite_create("encodeInt32_test");
  282. TCase *tc_core = tcase_create("Core");
  283. tcase_add_test(tc_core, encodeInt32ShallEncodeLittleEndian);
  284. tcase_add_test(tc_core, encodeInt32NegativeShallEncodeLittleEndian);
  285. suite_add_tcase(s,tc_core);
  286. return s;
  287. }
  288. Suite*testSuite_encodeUInt64(void)
  289. {
  290. Suite *s = suite_create("encodeUInt64_test");
  291. TCase *tc_core = tcase_create("Core");
  292. tcase_add_test(tc_core, encodeUInt64_test);
  293. suite_add_tcase(s,tc_core);
  294. return s;
  295. }
  296. Suite*testSuite_encodeInt64(void)
  297. {
  298. Suite *s = suite_create("encodeInt64_test");
  299. TCase *tc_core = tcase_create("Core");
  300. tcase_add_test(tc_core, encodeInt64_test);
  301. suite_add_tcase(s,tc_core);
  302. return s;
  303. }
  304. Suite *testSuite_encodeFloat(void)
  305. {
  306. Suite *s = suite_create("encodeFloat_test");
  307. TCase *tc_core = tcase_create("Core");
  308. tcase_add_test(tc_core, encodeFloat_test);
  309. suite_add_tcase(s,tc_core);
  310. return s;
  311. }
  312. Suite *testSuite_encodeDouble(void)
  313. {
  314. Suite *s = suite_create("encodeDouble_test");
  315. TCase *tc_core = tcase_create("Core");
  316. tcase_add_test(tc_core, encodeDouble_test);
  317. suite_add_tcase(s,tc_core);
  318. return s;
  319. }
  320. Suite * testSuite_encodeUAString(void)
  321. {
  322. Suite *s = suite_create("encodeUAString_test");
  323. TCase *tc_core = tcase_create("Core");
  324. tcase_add_test(tc_core, encodeUAString_test);
  325. suite_add_tcase(s,tc_core);
  326. return s;
  327. }
  328. Suite* testSuite_encodeDataValue()
  329. {
  330. Suite *s = suite_create("encodeDataValue");
  331. TCase *tc_core = tcase_create("Core");
  332. tcase_add_test(tc_core, encodeDataValue_test);
  333. suite_add_tcase(s,tc_core);
  334. return s;
  335. }
  336. */
  337. int main (void)
  338. {
  339. int number_failed = 0;
  340. /*
  341. Suite *s = testSuite_encodeByte();
  342. SRunner *sr = srunner_create(s);
  343. srunner_run_all(sr,CK_NORMAL);
  344. number_failed += srunner_ntests_failed(sr);
  345. srunner_free(sr);
  346. s = testSuite_encodeInt16();
  347. sr = srunner_create(s);
  348. srunner_run_all(sr,CK_NORMAL);
  349. number_failed += srunner_ntests_failed(sr);
  350. srunner_free(sr);
  351. s = testSuite_encodeUInt16();
  352. sr = srunner_create(s);
  353. srunner_run_all(sr,CK_NORMAL);
  354. number_failed += srunner_ntests_failed(sr);
  355. srunner_free(sr);
  356. s = testSuite_encodeUInt32();
  357. sr = srunner_create(s);
  358. srunner_run_all(sr,CK_NORMAL);
  359. number_failed += srunner_ntests_failed(sr);
  360. srunner_free(sr);
  361. s = testSuite_encodeInt32();
  362. sr = srunner_create(s);
  363. srunner_run_all(sr,CK_NORMAL);
  364. number_failed += srunner_ntests_failed(sr);
  365. srunner_free(sr);
  366. s = testSuite_encodeUInt64();
  367. sr = srunner_create(s);
  368. srunner_run_all(sr,CK_NORMAL);
  369. number_failed += srunner_ntests_failed(sr);
  370. srunner_free(sr);
  371. s = testSuite_encodeInt64();
  372. sr = srunner_create(s);
  373. srunner_run_all(sr,CK_NORMAL);
  374. number_failed += srunner_ntests_failed(sr);
  375. srunner_free(sr);
  376. s = testSuite_encodeFloat();
  377. sr = srunner_create(s);
  378. srunner_run_all(sr,CK_NORMAL);
  379. number_failed += srunner_ntests_failed(sr);
  380. srunner_free(sr);
  381. s = testSuite_encodeDouble();
  382. sr = srunner_create(s);
  383. srunner_run_all(sr,CK_NORMAL);
  384. number_failed += srunner_ntests_failed(sr);
  385. srunner_free(sr);
  386. s = testSuite_encodeUAString();
  387. sr = srunner_create(s);
  388. srunner_run_all(sr,CK_NORMAL);
  389. number_failed += srunner_ntests_failed(sr);
  390. srunner_free(sr);
  391. s = testSuite_encodeDataValue();
  392. sr = srunner_create(s);
  393. srunner_run_all(sr,CK_NORMAL);
  394. number_failed += srunner_ntests_failed(sr);
  395. srunner_free(sr);
  396. */
  397. /* <TESTSUITE_TEMPLATE>
  398. s = <TESTSUITENAME>;
  399. sr = srunner_create(s);
  400. srunner_run_all(sr,CK_NORMAL);
  401. number_failed += srunner_ntests_failed(sr);
  402. srunner_free(sr);
  403. */
  404. return (number_failed == 0) ? EXIT_SUCCESS : EXIT_FAILURE;
  405. }