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/tests/core.fr

https://gitlab.com/BGCX261/zmforth-hg-to-git
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Possible License(s): GPL-3.0
  1. \ From: John Hayes S1I
  2. \ Subject: core.fr
  3. \ Date: Mon, 27 Nov 95 13:10
  4. \ (C) 1995 JOHNS HOPKINS UNIVERSITY / APPLIED PHYSICS LABORATORY
  5. \ MAY BE DISTRIBUTED FREELY AS LONG AS THIS COPYRIGHT NOTICE REMAINS.
  6. \ VERSION 1.2
  7. \ THIS PROGRAM TESTS THE CORE WORDS OF AN ANS FORTH SYSTEM.
  8. \ THE PROGRAM ASSUMES A TWO'S COMPLEMENT IMPLEMENTATION WHERE
  9. \ THE RANGE OF SIGNED NUMBERS IS -2^(N-1) ... 2^(N-1)-1 AND
  10. \ THE RANGE OF UNSIGNED NUMBERS IS 0 ... 2^(N)-1.
  11. \ I HAVEN'T FIGURED OUT HOW TO TEST KEY, QUIT, ABORT, OR ABORT"...
  12. \ I ALSO HAVEN'T THOUGHT OF A WAY TO TEST ENVIRONMENT?...
  13. cr
  14. TESTING CORE WORDS
  15. HEX
  16. \ ------------------------------------------------------------------------
  17. TESTING BASIC ASSUMPTIONS
  18. T{ -> }T \ START WITH CLEAN SLATE
  19. ( TEST IF ANY BITS ARE SET; ANSWER IN BASE 1 )
  20. T{ : BITSSET? IF 0 0 ELSE 0 THEN ; -> }T
  21. T{ 0 BITSSET? -> 0 }T ( ZERO IS ALL BITS CLEAR )
  22. T{ 1 BITSSET? -> 0 0 }T ( OTHER NUMBER HAVE AT LEAST ONE BIT )
  23. T{ -1 BITSSET? -> 0 0 }T
  24. \ ------------------------------------------------------------------------
  25. TESTING BOOLEANS: INVERT AND OR XOR
  26. T{ 0 0 AND -> 0 }T
  27. T{ 0 1 AND -> 0 }T
  28. T{ 1 0 AND -> 0 }T
  29. T{ 1 1 AND -> 1 }T
  30. T{ 0 INVERT 1 AND -> 1 }T
  31. T{ 1 INVERT 1 AND -> 0 }T
  32. 0 CONSTANT 0S
  33. 0 INVERT CONSTANT 1S
  34. T{ 0S INVERT -> 1S }T
  35. T{ 1S INVERT -> 0S }T
  36. T{ 0S 0S AND -> 0S }T
  37. T{ 0S 1S AND -> 0S }T
  38. T{ 1S 0S AND -> 0S }T
  39. T{ 1S 1S AND -> 1S }T
  40. T{ 0S 0S OR -> 0S }T
  41. T{ 0S 1S OR -> 1S }T
  42. T{ 1S 0S OR -> 1S }T
  43. T{ 1S 1S OR -> 1S }T
  44. T{ 0S 0S XOR -> 0S }T
  45. T{ 0S 1S XOR -> 1S }T
  46. T{ 1S 0S XOR -> 1S }T
  47. T{ 1S 1S XOR -> 0S }T
  48. \ ------------------------------------------------------------------------
  49. TESTING 2* 2/ LSHIFT RSHIFT
  50. ( WE TRUST 1S, INVERT, AND BITSSET?; WE WILL CONFIRM RSHIFT LATER )
  51. 1S 1 RSHIFT INVERT CONSTANT MSB
  52. T{ MSB BITSSET? -> 0 0 }T
  53. T{ 0S 2* -> 0S }T
  54. T{ 1 2* -> 2 }T
  55. T{ 4000 2* -> 8000 }T
  56. T{ 1S 2* 1 XOR -> 1S }T
  57. T{ MSB 2* -> 0S }T
  58. T{ 0S 2/ -> 0S }T
  59. T{ 1 2/ -> 0 }T
  60. T{ 4000 2/ -> 2000 }T
  61. T{ 1S 2/ -> 1S }T \ MSB PROPOGATED
  62. T{ 1S 1 XOR 2/ -> 1S }T
  63. T{ MSB 2/ MSB AND -> MSB }T
  64. T{ 1 0 LSHIFT -> 1 }T
  65. T{ 1 1 LSHIFT -> 2 }T
  66. T{ 1 2 LSHIFT -> 4 }T
  67. T{ 1 F LSHIFT -> 8000 }T \ BIGGEST GUARANTEED SHIFT
  68. T{ 1S 1 LSHIFT 1 XOR -> 1S }T
  69. T{ MSB 1 LSHIFT -> 0 }T
  70. T{ 1 0 RSHIFT -> 1 }T
  71. T{ 1 1 RSHIFT -> 0 }T
  72. T{ 2 1 RSHIFT -> 1 }T
  73. T{ 4 2 RSHIFT -> 1 }T
  74. T{ 8000 F RSHIFT -> 1 }T \ BIGGEST
  75. T{ MSB 1 RSHIFT MSB AND -> 0 }T \ RSHIFT ZERO FILLS MSBS
  76. T{ MSB 1 RSHIFT 2* -> MSB }T
  77. \ ------------------------------------------------------------------------
  78. TESTING COMPARISONS: 0= = 0< < > U< MIN MAX
  79. 0 INVERT CONSTANT MAX-UINT
  80. 0 INVERT 1 RSHIFT CONSTANT MAX-INT
  81. 0 INVERT 1 RSHIFT INVERT CONSTANT MIN-INT
  82. 0 INVERT 1 RSHIFT CONSTANT MID-UINT
  83. 0 INVERT 1 RSHIFT INVERT CONSTANT MID-UINT+1
  84. 0S CONSTANT <FALSE>
  85. 1S CONSTANT <TRUE>
  86. T{ 0 0= -> <TRUE> }T
  87. T{ 1 0= -> <FALSE> }T
  88. T{ 2 0= -> <FALSE> }T
  89. T{ -1 0= -> <FALSE> }T
  90. T{ MAX-UINT 0= -> <FALSE> }T
  91. T{ MIN-INT 0= -> <FALSE> }T
  92. T{ MAX-INT 0= -> <FALSE> }T
  93. T{ 0 0 = -> <TRUE> }T
  94. T{ 1 1 = -> <TRUE> }T
  95. T{ -1 -1 = -> <TRUE> }T
  96. T{ 1 0 = -> <FALSE> }T
  97. T{ -1 0 = -> <FALSE> }T
  98. T{ 0 1 = -> <FALSE> }T
  99. T{ 0 -1 = -> <FALSE> }T
  100. T{ 0 0< -> <FALSE> }T
  101. T{ -1 0< -> <TRUE> }T
  102. T{ MIN-INT 0< -> <TRUE> }T
  103. T{ 1 0< -> <FALSE> }T
  104. T{ MAX-INT 0< -> <FALSE> }T
  105. T{ 0 1 < -> <TRUE> }T
  106. T{ 1 2 < -> <TRUE> }T
  107. T{ -1 0 < -> <TRUE> }T
  108. T{ -1 1 < -> <TRUE> }T
  109. T{ MIN-INT 0 < -> <TRUE> }T
  110. T{ MIN-INT MAX-INT < -> <TRUE> }T
  111. T{ 0 MAX-INT < -> <TRUE> }T
  112. T{ 0 0 < -> <FALSE> }T
  113. T{ 1 1 < -> <FALSE> }T
  114. T{ 1 0 < -> <FALSE> }T
  115. T{ 2 1 < -> <FALSE> }T
  116. T{ 0 -1 < -> <FALSE> }T
  117. T{ 1 -1 < -> <FALSE> }T
  118. T{ 0 MIN-INT < -> <FALSE> }T
  119. T{ MAX-INT MIN-INT < -> <FALSE> }T
  120. T{ MAX-INT 0 < -> <FALSE> }T
  121. T{ 0 1 > -> <FALSE> }T
  122. T{ 1 2 > -> <FALSE> }T
  123. T{ -1 0 > -> <FALSE> }T
  124. T{ -1 1 > -> <FALSE> }T
  125. T{ MIN-INT 0 > -> <FALSE> }T
  126. T{ MIN-INT MAX-INT > -> <FALSE> }T
  127. T{ 0 MAX-INT > -> <FALSE> }T
  128. T{ 0 0 > -> <FALSE> }T
  129. T{ 1 1 > -> <FALSE> }T
  130. T{ 1 0 > -> <TRUE> }T
  131. T{ 2 1 > -> <TRUE> }T
  132. T{ 0 -1 > -> <TRUE> }T
  133. T{ 1 -1 > -> <TRUE> }T
  134. T{ 0 MIN-INT > -> <TRUE> }T
  135. T{ MAX-INT MIN-INT > -> <TRUE> }T
  136. T{ MAX-INT 0 > -> <TRUE> }T
  137. T{ 0 1 U< -> <TRUE> }T
  138. T{ 1 2 U< -> <TRUE> }T
  139. T{ 0 MID-UINT U< -> <TRUE> }T
  140. T{ 0 MAX-UINT U< -> <TRUE> }T
  141. T{ MID-UINT MAX-UINT U< -> <TRUE> }T
  142. T{ 0 0 U< -> <FALSE> }T
  143. T{ 1 1 U< -> <FALSE> }T
  144. T{ 1 0 U< -> <FALSE> }T
  145. T{ 2 1 U< -> <FALSE> }T
  146. T{ MID-UINT 0 U< -> <FALSE> }T
  147. T{ MAX-UINT 0 U< -> <FALSE> }T
  148. T{ MAX-UINT MID-UINT U< -> <FALSE> }T
  149. T{ 0 1 MIN -> 0 }T
  150. T{ 1 2 MIN -> 1 }T
  151. T{ -1 0 MIN -> -1 }T
  152. T{ -1 1 MIN -> -1 }T
  153. T{ MIN-INT 0 MIN -> MIN-INT }T
  154. T{ MIN-INT MAX-INT MIN -> MIN-INT }T
  155. T{ 0 MAX-INT MIN -> 0 }T
  156. T{ 0 0 MIN -> 0 }T
  157. T{ 1 1 MIN -> 1 }T
  158. T{ 1 0 MIN -> 0 }T
  159. T{ 2 1 MIN -> 1 }T
  160. T{ 0 -1 MIN -> -1 }T
  161. T{ 1 -1 MIN -> -1 }T
  162. T{ 0 MIN-INT MIN -> MIN-INT }T
  163. T{ MAX-INT MIN-INT MIN -> MIN-INT }T
  164. T{ MAX-INT 0 MIN -> 0 }T
  165. T{ 0 1 MAX -> 1 }T
  166. T{ 1 2 MAX -> 2 }T
  167. T{ -1 0 MAX -> 0 }T
  168. T{ -1 1 MAX -> 1 }T
  169. T{ MIN-INT 0 MAX -> 0 }T
  170. T{ MIN-INT MAX-INT MAX -> MAX-INT }T
  171. T{ 0 MAX-INT MAX -> MAX-INT }T
  172. T{ 0 0 MAX -> 0 }T
  173. T{ 1 1 MAX -> 1 }T
  174. T{ 1 0 MAX -> 1 }T
  175. T{ 2 1 MAX -> 2 }T
  176. T{ 0 -1 MAX -> 0 }T
  177. T{ 1 -1 MAX -> 1 }T
  178. T{ 0 MIN-INT MAX -> 0 }T
  179. T{ MAX-INT MIN-INT MAX -> MAX-INT }T
  180. T{ MAX-INT 0 MAX -> MAX-INT }T
  181. \ ------------------------------------------------------------------------
  182. TESTING STACK OPS: 2DROP 2DUP 2OVER 2SWAP ?DUP DEPTH DROP DUP OVER ROT SWAP
  183. T{ 1 2 2DROP -> }T
  184. T{ 1 2 2DUP -> 1 2 1 2 }T
  185. T{ 1 2 3 4 2OVER -> 1 2 3 4 1 2 }T
  186. T{ 1 2 3 4 2SWAP -> 3 4 1 2 }T
  187. T{ 0 ?DUP -> 0 }T
  188. T{ 1 ?DUP -> 1 1 }T
  189. T{ -1 ?DUP -> -1 -1 }T
  190. T{ DEPTH -> 0 }T
  191. T{ 0 DEPTH -> 0 1 }T
  192. T{ 0 1 DEPTH -> 0 1 2 }T
  193. T{ 0 DROP -> }T
  194. T{ 1 2 DROP -> 1 }T
  195. T{ 1 DUP -> 1 1 }T
  196. T{ 1 2 OVER -> 1 2 1 }T
  197. T{ 1 2 3 ROT -> 2 3 1 }T
  198. T{ 1 2 SWAP -> 2 1 }T
  199. \ ------------------------------------------------------------------------
  200. TESTING >R R> R@
  201. T{ : GR1 >R R> ; -> }T
  202. T{ : GR2 >R R@ R> DROP ; -> }T
  203. T{ 123 GR1 -> 123 }T
  204. T{ 123 GR2 -> 123 }T
  205. T{ 1S GR1 -> 1S }T ( RETURN STACK HOLDS CELLS )
  206. \ ------------------------------------------------------------------------
  207. TESTING ADD/SUBTRACT: + - 1+ 1- ABS NEGATE
  208. T{ 0 5 + -> 5 }T
  209. T{ 5 0 + -> 5 }T
  210. T{ 0 -5 + -> -5 }T
  211. T{ -5 0 + -> -5 }T
  212. T{ 1 2 + -> 3 }T
  213. T{ 1 -2 + -> -1 }T
  214. T{ -1 2 + -> 1 }T
  215. T{ -1 -2 + -> -3 }T
  216. T{ -1 1 + -> 0 }T
  217. T{ MID-UINT 1 + -> MID-UINT+1 }T
  218. T{ 0 5 - -> -5 }T
  219. T{ 5 0 - -> 5 }T
  220. T{ 0 -5 - -> 5 }T
  221. T{ -5 0 - -> -5 }T
  222. T{ 1 2 - -> -1 }T
  223. T{ 1 -2 - -> 3 }T
  224. T{ -1 2 - -> -3 }T
  225. T{ -1 -2 - -> 1 }T
  226. T{ 0 1 - -> -1 }T
  227. T{ MID-UINT+1 1 - -> MID-UINT }T
  228. T{ 0 1+ -> 1 }T
  229. T{ -1 1+ -> 0 }T
  230. T{ 1 1+ -> 2 }T
  231. T{ MID-UINT 1+ -> MID-UINT+1 }T
  232. T{ 2 1- -> 1 }T
  233. T{ 1 1- -> 0 }T
  234. T{ 0 1- -> -1 }T
  235. T{ MID-UINT+1 1- -> MID-UINT }T
  236. T{ 0 NEGATE -> 0 }T
  237. T{ 1 NEGATE -> -1 }T
  238. T{ -1 NEGATE -> 1 }T
  239. T{ 2 NEGATE -> -2 }T
  240. T{ -2 NEGATE -> 2 }T
  241. T{ 0 ABS -> 0 }T
  242. T{ 1 ABS -> 1 }T
  243. T{ -1 ABS -> 1 }T
  244. T{ MIN-INT ABS -> MID-UINT+1 }T
  245. \ ------------------------------------------------------------------------
  246. TESTING MULTIPLY: S>D * M* UM*
  247. T{ 0 S>D -> 0 0 }T
  248. T{ 1 S>D -> 1 0 }T
  249. T{ 2 S>D -> 2 0 }T
  250. T{ -1 S>D -> -1 -1 }T
  251. T{ -2 S>D -> -2 -1 }T
  252. T{ MIN-INT S>D -> MIN-INT -1 }T
  253. T{ MAX-INT S>D -> MAX-INT 0 }T
  254. T{ 0 0 M* -> 0 S>D }T
  255. T{ 0 1 M* -> 0 S>D }T
  256. T{ 1 0 M* -> 0 S>D }T
  257. T{ 1 2 M* -> 2 S>D }T
  258. T{ 2 1 M* -> 2 S>D }T
  259. T{ 3 3 M* -> 9 S>D }T
  260. T{ -3 3 M* -> -9 S>D }T
  261. T{ 3 -3 M* -> -9 S>D }T
  262. T{ -3 -3 M* -> 9 S>D }T
  263. T{ 0 MIN-INT M* -> 0 S>D }T
  264. T{ 1 MIN-INT M* -> MIN-INT S>D }T
  265. T{ 2 MIN-INT M* -> 0 1S }T
  266. T{ 0 MAX-INT M* -> 0 S>D }T
  267. T{ 1 MAX-INT M* -> MAX-INT S>D }T
  268. T{ 2 MAX-INT M* -> MAX-INT 1 LSHIFT 0 }T
  269. T{ MIN-INT MIN-INT M* -> 0 MSB 1 RSHIFT }T
  270. T{ MAX-INT MIN-INT M* -> MSB MSB 2/ }T
  271. T{ MAX-INT MAX-INT M* -> 1 MSB 2/ INVERT }T
  272. T{ 0 0 * -> 0 }T \ TEST IDENTITIES
  273. T{ 0 1 * -> 0 }T
  274. T{ 1 0 * -> 0 }T
  275. T{ 1 2 * -> 2 }T
  276. T{ 2 1 * -> 2 }T
  277. T{ 3 3 * -> 9 }T
  278. T{ -3 3 * -> -9 }T
  279. T{ 3 -3 * -> -9 }T
  280. T{ -3 -3 * -> 9 }T
  281. T{ MID-UINT+1 1 RSHIFT 2 * -> MID-UINT+1 }T
  282. T{ MID-UINT+1 2 RSHIFT 4 * -> MID-UINT+1 }T
  283. T{ MID-UINT+1 1 RSHIFT MID-UINT+1 OR 2 * -> MID-UINT+1 }T
  284. T{ 0 0 UM* -> 0 0 }T
  285. T{ 0 1 UM* -> 0 0 }T
  286. T{ 1 0 UM* -> 0 0 }T
  287. T{ 1 2 UM* -> 2 0 }T
  288. T{ 2 1 UM* -> 2 0 }T
  289. T{ 3 3 UM* -> 9 0 }T
  290. T{ MID-UINT+1 1 RSHIFT 2 UM* -> MID-UINT+1 0 }T
  291. T{ MID-UINT+1 2 UM* -> 0 1 }T
  292. T{ MID-UINT+1 4 UM* -> 0 2 }T
  293. T{ 1S 2 UM* -> 1S 1 LSHIFT 1 }T
  294. T{ MAX-UINT MAX-UINT UM* -> 1 1 INVERT }T
  295. \ ------------------------------------------------------------------------
  296. TESTING DIVIDE: FM/MOD SM/REM UM/MOD */ */MOD / /MOD MOD
  297. T{ 0 S>D 1 FM/MOD -> 0 0 }T
  298. T{ 1 S>D 1 FM/MOD -> 0 1 }T
  299. T{ 2 S>D 1 FM/MOD -> 0 2 }T
  300. T{ -1 S>D 1 FM/MOD -> 0 -1 }T
  301. T{ -2 S>D 1 FM/MOD -> 0 -2 }T
  302. T{ 0 S>D -1 FM/MOD -> 0 0 }T
  303. T{ 1 S>D -1 FM/MOD -> 0 -1 }T
  304. T{ 2 S>D -1 FM/MOD -> 0 -2 }T
  305. T{ -1 S>D -1 FM/MOD -> 0 1 }T
  306. T{ -2 S>D -1 FM/MOD -> 0 2 }T
  307. T{ 2 S>D 2 FM/MOD -> 0 1 }T
  308. T{ -1 S>D -1 FM/MOD -> 0 1 }T
  309. T{ -2 S>D -2 FM/MOD -> 0 1 }T
  310. T{ 7 S>D 3 FM/MOD -> 1 2 }T
  311. T{ 7 S>D -3 FM/MOD -> -2 -3 }T
  312. T{ -7 S>D 3 FM/MOD -> 2 -3 }T
  313. T{ -7 S>D -3 FM/MOD -> -1 2 }T
  314. T{ MAX-INT S>D 1 FM/MOD -> 0 MAX-INT }T
  315. T{ MIN-INT S>D 1 FM/MOD -> 0 MIN-INT }T
  316. T{ MAX-INT S>D MAX-INT FM/MOD -> 0 1 }T
  317. T{ MIN-INT S>D MIN-INT FM/MOD -> 0 1 }T
  318. T{ 1S 1 4 FM/MOD -> 3 MAX-INT }T
  319. T{ 1 MIN-INT M* 1 FM/MOD -> 0 MIN-INT }T
  320. T{ 1 MIN-INT M* MIN-INT FM/MOD -> 0 1 }T
  321. T{ 2 MIN-INT M* 2 FM/MOD -> 0 MIN-INT }T
  322. T{ 2 MIN-INT M* MIN-INT FM/MOD -> 0 2 }T
  323. T{ 1 MAX-INT M* 1 FM/MOD -> 0 MAX-INT }T
  324. T{ 1 MAX-INT M* MAX-INT FM/MOD -> 0 1 }T
  325. T{ 2 MAX-INT M* 2 FM/MOD -> 0 MAX-INT }T
  326. T{ 2 MAX-INT M* MAX-INT FM/MOD -> 0 2 }T
  327. T{ MIN-INT MIN-INT M* MIN-INT FM/MOD -> 0 MIN-INT }T
  328. T{ MIN-INT MAX-INT M* MIN-INT FM/MOD -> 0 MAX-INT }T
  329. T{ MIN-INT MAX-INT M* MAX-INT FM/MOD -> 0 MIN-INT }T
  330. T{ MAX-INT MAX-INT M* MAX-INT FM/MOD -> 0 MAX-INT }T
  331. T{ 0 S>D 1 SM/REM -> 0 0 }T
  332. T{ 1 S>D 1 SM/REM -> 0 1 }T
  333. T{ 2 S>D 1 SM/REM -> 0 2 }T
  334. T{ -1 S>D 1 SM/REM -> 0 -1 }T
  335. T{ -2 S>D 1 SM/REM -> 0 -2 }T
  336. T{ 0 S>D -1 SM/REM -> 0 0 }T
  337. T{ 1 S>D -1 SM/REM -> 0 -1 }T
  338. T{ 2 S>D -1 SM/REM -> 0 -2 }T
  339. T{ -1 S>D -1 SM/REM -> 0 1 }T
  340. T{ -2 S>D -1 SM/REM -> 0 2 }T
  341. T{ 2 S>D 2 SM/REM -> 0 1 }T
  342. T{ -1 S>D -1 SM/REM -> 0 1 }T
  343. T{ -2 S>D -2 SM/REM -> 0 1 }T
  344. T{ 7 S>D 3 SM/REM -> 1 2 }T
  345. T{ 7 S>D -3 SM/REM -> 1 -2 }T
  346. T{ -7 S>D 3 SM/REM -> -1 -2 }T
  347. T{ -7 S>D -3 SM/REM -> -1 2 }T
  348. T{ MAX-INT S>D 1 SM/REM -> 0 MAX-INT }T
  349. T{ MIN-INT S>D 1 SM/REM -> 0 MIN-INT }T
  350. T{ MAX-INT S>D MAX-INT SM/REM -> 0 1 }T
  351. T{ MIN-INT S>D MIN-INT SM/REM -> 0 1 }T
  352. T{ 1S 1 4 SM/REM -> 3 MAX-INT }T
  353. T{ 2 MIN-INT M* 2 SM/REM -> 0 MIN-INT }T
  354. T{ 2 MIN-INT M* MIN-INT SM/REM -> 0 2 }T
  355. T{ 2 MAX-INT M* 2 SM/REM -> 0 MAX-INT }T
  356. T{ 2 MAX-INT M* MAX-INT SM/REM -> 0 2 }T
  357. T{ MIN-INT MIN-INT M* MIN-INT SM/REM -> 0 MIN-INT }T
  358. T{ MIN-INT MAX-INT M* MIN-INT SM/REM -> 0 MAX-INT }T
  359. T{ MIN-INT MAX-INT M* MAX-INT SM/REM -> 0 MIN-INT }T
  360. T{ MAX-INT MAX-INT M* MAX-INT SM/REM -> 0 MAX-INT }T
  361. T{ 0 0 1 UM/MOD -> 0 0 }T
  362. T{ 1 0 1 UM/MOD -> 0 1 }T
  363. T{ 1 0 2 UM/MOD -> 1 0 }T
  364. T{ 3 0 2 UM/MOD -> 1 1 }T
  365. T{ MAX-UINT 2 UM* 2 UM/MOD -> 0 MAX-UINT }T
  366. T{ MAX-UINT 2 UM* MAX-UINT UM/MOD -> 0 2 }T
  367. T{ MAX-UINT MAX-UINT UM* MAX-UINT UM/MOD -> 0 MAX-UINT }T
  368. : IFFLOORED
  369. [ -3 2 / -2 = INVERT ] LITERAL IF POSTPONE \ THEN ;
  370. : IFSYM
  371. [ -3 2 / -1 = INVERT ] LITERAL IF POSTPONE \ THEN ;
  372. \ THE SYSTEM MIGHT DO EITHER FLOORED OR SYMMETRIC DIVISION.
  373. \ SINCE WE HAVE ALREADY TESTED M*, FM/MOD, AND SM/REM WE CAN USE THEM IN TEST.
  374. IFFLOORED : T/MOD >R S>D R> FM/MOD ;
  375. IFFLOORED : T/ T/MOD SWAP DROP ;
  376. IFFLOORED : TMOD T/MOD DROP ;
  377. IFFLOORED : T*/MOD >R M* R> FM/MOD ;
  378. IFFLOORED : T*/ T*/MOD SWAP DROP ;
  379. IFSYM : T/MOD >R S>D R> SM/REM ;
  380. IFSYM : T/ T/MOD SWAP DROP ;
  381. IFSYM : TMOD T/MOD DROP ;
  382. IFSYM : T*/MOD >R M* R> SM/REM ;
  383. IFSYM : T*/ T*/MOD SWAP DROP ;
  384. T{ 0 1 /MOD -> 0 1 T/MOD }T
  385. T{ 1 1 /MOD -> 1 1 T/MOD }T
  386. T{ 2 1 /MOD -> 2 1 T/MOD }T
  387. T{ -1 1 /MOD -> -1 1 T/MOD }T
  388. T{ -2 1 /MOD -> -2 1 T/MOD }T
  389. T{ 0 -1 /MOD -> 0 -1 T/MOD }T
  390. T{ 1 -1 /MOD -> 1 -1 T/MOD }T
  391. T{ 2 -1 /MOD -> 2 -1 T/MOD }T
  392. T{ -1 -1 /MOD -> -1 -1 T/MOD }T
  393. T{ -2 -1 /MOD -> -2 -1 T/MOD }T
  394. T{ 2 2 /MOD -> 2 2 T/MOD }T
  395. T{ -1 -1 /MOD -> -1 -1 T/MOD }T
  396. T{ -2 -2 /MOD -> -2 -2 T/MOD }T
  397. T{ 7 3 /MOD -> 7 3 T/MOD }T
  398. T{ 7 -3 /MOD -> 7 -3 T/MOD }T
  399. T{ -7 3 /MOD -> -7 3 T/MOD }T
  400. T{ -7 -3 /MOD -> -7 -3 T/MOD }T
  401. T{ MAX-INT 1 /MOD -> MAX-INT 1 T/MOD }T
  402. T{ MIN-INT 1 /MOD -> MIN-INT 1 T/MOD }T
  403. T{ MAX-INT MAX-INT /MOD -> MAX-INT MAX-INT T/MOD }T
  404. T{ MIN-INT MIN-INT /MOD -> MIN-INT MIN-INT T/MOD }T
  405. T{ 0 1 / -> 0 1 T/ }T
  406. T{ 1 1 / -> 1 1 T/ }T
  407. T{ 2 1 / -> 2 1 T/ }T
  408. T{ -1 1 / -> -1 1 T/ }T
  409. T{ -2 1 / -> -2 1 T/ }T
  410. T{ 0 -1 / -> 0 -1 T/ }T
  411. T{ 1 -1 / -> 1 -1 T/ }T
  412. T{ 2 -1 / -> 2 -1 T/ }T
  413. T{ -1 -1 / -> -1 -1 T/ }T
  414. T{ -2 -1 / -> -2 -1 T/ }T
  415. T{ 2 2 / -> 2 2 T/ }T
  416. T{ -1 -1 / -> -1 -1 T/ }T
  417. T{ -2 -2 / -> -2 -2 T/ }T
  418. T{ 7 3 / -> 7 3 T/ }T
  419. T{ 7 -3 / -> 7 -3 T/ }T
  420. T{ -7 3 / -> -7 3 T/ }T
  421. T{ -7 -3 / -> -7 -3 T/ }T
  422. T{ MAX-INT 1 / -> MAX-INT 1 T/ }T
  423. T{ MIN-INT 1 / -> MIN-INT 1 T/ }T
  424. T{ MAX-INT MAX-INT / -> MAX-INT MAX-INT T/ }T
  425. T{ MIN-INT MIN-INT / -> MIN-INT MIN-INT T/ }T
  426. T{ 0 1 MOD -> 0 1 TMOD }T
  427. T{ 1 1 MOD -> 1 1 TMOD }T
  428. T{ 2 1 MOD -> 2 1 TMOD }T
  429. T{ -1 1 MOD -> -1 1 TMOD }T
  430. T{ -2 1 MOD -> -2 1 TMOD }T
  431. T{ 0 -1 MOD -> 0 -1 TMOD }T
  432. T{ 1 -1 MOD -> 1 -1 TMOD }T
  433. T{ 2 -1 MOD -> 2 -1 TMOD }T
  434. T{ -1 -1 MOD -> -1 -1 TMOD }T
  435. T{ -2 -1 MOD -> -2 -1 TMOD }T
  436. T{ 2 2 MOD -> 2 2 TMOD }T
  437. T{ -1 -1 MOD -> -1 -1 TMOD }T
  438. T{ -2 -2 MOD -> -2 -2 TMOD }T
  439. T{ 7 3 MOD -> 7 3 TMOD }T
  440. T{ 7 -3 MOD -> 7 -3 TMOD }T
  441. T{ -7 3 MOD -> -7 3 TMOD }T
  442. T{ -7 -3 MOD -> -7 -3 TMOD }T
  443. T{ MAX-INT 1 MOD -> MAX-INT 1 TMOD }T
  444. T{ MIN-INT 1 MOD -> MIN-INT 1 TMOD }T
  445. T{ MAX-INT MAX-INT MOD -> MAX-INT MAX-INT TMOD }T
  446. T{ MIN-INT MIN-INT MOD -> MIN-INT MIN-INT TMOD }T
  447. T{ 0 2 1 */ -> 0 2 1 T*/ }T
  448. T{ 1 2 1 */ -> 1 2 1 T*/ }T
  449. T{ 2 2 1 */ -> 2 2 1 T*/ }T
  450. T{ -1 2 1 */ -> -1 2 1 T*/ }T
  451. T{ -2 2 1 */ -> -2 2 1 T*/ }T
  452. T{ 0 2 -1 */ -> 0 2 -1 T*/ }T
  453. T{ 1 2 -1 */ -> 1 2 -1 T*/ }T
  454. T{ 2 2 -1 */ -> 2 2 -1 T*/ }T
  455. T{ -1 2 -1 */ -> -1 2 -1 T*/ }T
  456. T{ -2 2 -1 */ -> -2 2 -1 T*/ }T
  457. T{ 2 2 2 */ -> 2 2 2 T*/ }T
  458. T{ -1 2 -1 */ -> -1 2 -1 T*/ }T
  459. T{ -2 2 -2 */ -> -2 2 -2 T*/ }T
  460. T{ 7 2 3 */ -> 7 2 3 T*/ }T
  461. T{ 7 2 -3 */ -> 7 2 -3 T*/ }T
  462. T{ -7 2 3 */ -> -7 2 3 T*/ }T
  463. T{ -7 2 -3 */ -> -7 2 -3 T*/ }T
  464. T{ MAX-INT 2 MAX-INT */ -> MAX-INT 2 MAX-INT T*/ }T
  465. T{ MIN-INT 2 MIN-INT */ -> MIN-INT 2 MIN-INT T*/ }T
  466. T{ 0 2 1 */MOD -> 0 2 1 T*/MOD }T
  467. T{ 1 2 1 */MOD -> 1 2 1 T*/MOD }T
  468. T{ 2 2 1 */MOD -> 2 2 1 T*/MOD }T
  469. T{ -1 2 1 */MOD -> -1 2 1 T*/MOD }T
  470. T{ -2 2 1 */MOD -> -2 2 1 T*/MOD }T
  471. T{ 0 2 -1 */MOD -> 0 2 -1 T*/MOD }T
  472. T{ 1 2 -1 */MOD -> 1 2 -1 T*/MOD }T
  473. T{ 2 2 -1 */MOD -> 2 2 -1 T*/MOD }T
  474. T{ -1 2 -1 */MOD -> -1 2 -1 T*/MOD }T
  475. T{ -2 2 -1 */MOD -> -2 2 -1 T*/MOD }T
  476. T{ 2 2 2 */MOD -> 2 2 2 T*/MOD }T
  477. T{ -1 2 -1 */MOD -> -1 2 -1 T*/MOD }T
  478. T{ -2 2 -2 */MOD -> -2 2 -2 T*/MOD }T
  479. T{ 7 2 3 */MOD -> 7 2 3 T*/MOD }T
  480. T{ 7 2 -3 */MOD -> 7 2 -3 T*/MOD }T
  481. T{ -7 2 3 */MOD -> -7 2 3 T*/MOD }T
  482. T{ -7 2 -3 */MOD -> -7 2 -3 T*/MOD }T
  483. T{ MAX-INT 2 MAX-INT */MOD -> MAX-INT 2 MAX-INT T*/MOD }T
  484. T{ MIN-INT 2 MIN-INT */MOD -> MIN-INT 2 MIN-INT T*/MOD }T
  485. \ ------------------------------------------------------------------------
  486. TESTING HERE , @ ! CELL+ CELLS C, C@ C! CHARS 2@ 2! ALIGN ALIGNED +! ALLOT
  487. HERE 1 ALLOT
  488. HERE
  489. CONSTANT 2NDA
  490. CONSTANT 1STA
  491. T{ 1STA 2NDA U< -> <TRUE> }T \ HERE MUST GROW WITH ALLOT
  492. T{ 1STA 1+ -> 2NDA }T \ ... BY ONE ADDRESS UNIT
  493. ( MISSING TEST: NEGATIVE ALLOT )
  494. HERE 1 ,
  495. HERE 2 ,
  496. CONSTANT 2ND
  497. CONSTANT 1ST
  498. T{ 1ST 2ND U< -> <TRUE> }T \ HERE MUST GROW WITH ALLOT
  499. T{ 1ST CELL+ -> 2ND }T \ ... BY ONE CELL
  500. T{ 1ST 1 CELLS + -> 2ND }T
  501. T{ 1ST @ 2ND @ -> 1 2 }T
  502. T{ 5 1ST ! -> }T
  503. T{ 1ST @ 2ND @ -> 5 2 }T
  504. T{ 6 2ND ! -> }T
  505. T{ 1ST @ 2ND @ -> 5 6 }T
  506. T{ 1ST 2@ -> 6 5 }T
  507. T{ 2 1 1ST 2! -> }T
  508. T{ 1ST 2@ -> 2 1 }T
  509. T{ 1S 1ST ! 1ST @ -> 1S }T \ CAN STORE CELL-WIDE VALUE
  510. HERE 1 C,
  511. HERE 2 C,
  512. CONSTANT 2NDC
  513. CONSTANT 1STC
  514. T{ 1STC 2NDC U< -> <TRUE> }T \ HERE MUST GROW WITH ALLOT
  515. T{ 1STC CHAR+ -> 2NDC }T \ ... BY ONE CHAR
  516. T{ 1STC 1 CHARS + -> 2NDC }T
  517. T{ 1STC C@ 2NDC C@ -> 1 2 }T
  518. T{ 3 1STC C! -> }T
  519. T{ 1STC C@ 2NDC C@ -> 3 2 }T
  520. T{ 4 2NDC C! -> }T
  521. T{ 1STC C@ 2NDC C@ -> 3 4 }T
  522. ALIGN 1 ALLOT HERE ALIGN HERE 3 CELLS ALLOT
  523. CONSTANT A-ADDR CONSTANT UA-ADDR
  524. T{ UA-ADDR ALIGNED -> A-ADDR }T
  525. T{ 1 A-ADDR C! A-ADDR C@ -> 1 }T
  526. T{ 1234 A-ADDR ! A-ADDR @ -> 1234 }T
  527. T{ 123 456 A-ADDR 2! A-ADDR 2@ -> 123 456 }T
  528. T{ 2 A-ADDR CHAR+ C! A-ADDR CHAR+ C@ -> 2 }T
  529. T{ 3 A-ADDR CELL+ C! A-ADDR CELL+ C@ -> 3 }T
  530. T{ 1234 A-ADDR CELL+ ! A-ADDR CELL+ @ -> 1234 }T
  531. T{ 123 456 A-ADDR CELL+ 2! A-ADDR CELL+ 2@ -> 123 456 }T
  532. : BITS ( X -- U )
  533. 0 SWAP BEGIN DUP WHILE DUP MSB AND IF >R 1+ R> THEN 2* REPEAT DROP ;
  534. ( CHARACTERS >= 1 AU, <= SIZE OF CELL, >= 8 BITS )
  535. T{ 1 CHARS 1 < -> <FALSE> }T
  536. T{ 1 CHARS 1 CELLS > -> <FALSE> }T
  537. ( TBD: HOW TO FIND NUMBER OF BITS? )
  538. ( CELLS >= 1 AU, INTEGRAL MULTIPLE OF CHAR SIZE, >= 16 BITS )
  539. T{ 1 CELLS 1 < -> <FALSE> }T
  540. T{ 1 CELLS 1 CHARS MOD -> 0 }T
  541. T{ 1S BITS 10 < -> <FALSE> }T
  542. T{ 0 1ST ! -> }T
  543. T{ 1 1ST +! -> }T
  544. T{ 1ST @ -> 1 }T
  545. T{ -1 1ST +! 1ST @ -> 0 }T
  546. \ ------------------------------------------------------------------------
  547. TESTING CHAR [CHAR] [ ] BL S"
  548. T{ BL -> 20 }T
  549. T{ CHAR X -> 58 }T
  550. T{ CHAR HELLO -> 48 }T
  551. T{ : GC1 [CHAR] X ; -> }T
  552. T{ : GC2 [CHAR] HELLO ; -> }T
  553. T{ GC1 -> 58 }T
  554. T{ GC2 -> 48 }T
  555. T{ : GC3 [ GC1 ] LITERAL ; -> }T
  556. T{ GC3 -> 58 }T
  557. T{ : GC4 S" XY" ; -> }T
  558. T{ GC4 SWAP DROP -> 2 }T
  559. T{ GC4 DROP DUP C@ SWAP CHAR+ C@ -> 58 59 }T
  560. \ ------------------------------------------------------------------------
  561. TESTING ' ['] FIND EXECUTE IMMEDIATE COUNT LITERAL POSTPONE STATE
  562. T{ : GT1 123 ; -> }T
  563. T{ ' GT1 EXECUTE -> 123 }T
  564. T{ : GT2 ['] GT1 ; IMMEDIATE -> }T
  565. T{ GT2 EXECUTE -> 123 }T
  566. HERE 3 C, CHAR G C, CHAR T C, CHAR 1 C, CONSTANT GT1STRING
  567. HERE 3 C, CHAR G C, CHAR T C, CHAR 2 C, CONSTANT GT2STRING
  568. T{ GT1STRING FIND -> ' GT1 -1 }T
  569. T{ GT2STRING FIND -> ' GT2 1 }T
  570. ( HOW TO SEARCH FOR NON-EXISTENT WORD? )
  571. T{ : GT3 GT2 LITERAL ; -> }T
  572. T{ GT3 -> ' GT1 }T
  573. T{ GT1STRING COUNT -> GT1STRING CHAR+ 3 }T
  574. T{ : GT4 POSTPONE GT1 ; IMMEDIATE -> }T
  575. T{ : GT5 GT4 ; -> }T
  576. T{ GT5 -> 123 }T
  577. T{ : GT6 345 ; IMMEDIATE -> }T
  578. T{ : GT7 POSTPONE GT6 ; -> }T
  579. T{ GT7 -> 345 }T
  580. T{ : GT8 STATE @ ; IMMEDIATE -> }T
  581. T{ GT8 -> 0 }T
  582. T{ : GT9 GT8 LITERAL ; -> }T
  583. T{ GT9 0= -> <FALSE> }T
  584. \ ------------------------------------------------------------------------
  585. TESTING IF ELSE THEN BEGIN WHILE REPEAT UNTIL RECURSE
  586. T{ : GI1 IF 123 THEN ; -> }T
  587. T{ : GI2 IF 123 ELSE 234 THEN ; -> }T
  588. T{ 0 GI1 -> }T
  589. T{ 1 GI1 -> 123 }T
  590. T{ -1 GI1 -> 123 }T
  591. T{ 0 GI2 -> 234 }T
  592. T{ 1 GI2 -> 123 }T
  593. T{ -1 GI1 -> 123 }T
  594. T{ : GI3 BEGIN DUP 5 < WHILE DUP 1+ REPEAT ; -> }T
  595. T{ 0 GI3 -> 0 1 2 3 4 5 }T
  596. T{ 4 GI3 -> 4 5 }T
  597. T{ 5 GI3 -> 5 }T
  598. T{ 6 GI3 -> 6 }T
  599. T{ : GI4 BEGIN DUP 1+ DUP 5 > UNTIL ; -> }T
  600. T{ 3 GI4 -> 3 4 5 6 }T
  601. T{ 5 GI4 -> 5 6 }T
  602. T{ 6 GI4 -> 6 7 }T
  603. T{ : GI5 BEGIN DUP 2 > WHILE DUP 5 < WHILE DUP 1+ REPEAT 123 ELSE 345 THEN ; -> }T
  604. T{ 1 GI5 -> 1 345 }T
  605. T{ 2 GI5 -> 2 345 }T
  606. T{ 3 GI5 -> 3 4 5 123 }T
  607. T{ 4 GI5 -> 4 5 123 }T
  608. T{ 5 GI5 -> 5 123 }T
  609. T{ : GI6 ( N -- 0,1,..N ) DUP IF DUP >R 1- RECURSE R> THEN ; -> }T
  610. T{ 0 GI6 -> 0 }T
  611. T{ 1 GI6 -> 0 1 }T
  612. T{ 2 GI6 -> 0 1 2 }T
  613. T{ 3 GI6 -> 0 1 2 3 }T
  614. T{ 4 GI6 -> 0 1 2 3 4 }T
  615. \ ------------------------------------------------------------------------
  616. TESTING DO LOOP +LOOP I J UNLOOP LEAVE EXIT
  617. T{ : GD1 DO I LOOP ; -> }T
  618. T{ 4 1 GD1 -> 1 2 3 }T
  619. T{ 2 -1 GD1 -> -1 0 1 }T
  620. T{ MID-UINT+1 MID-UINT GD1 -> MID-UINT }T
  621. T{ : GD2 DO I -1 +LOOP ; -> }T
  622. T{ 1 4 GD2 -> 4 3 2 1 }T
  623. T{ -1 2 GD2 -> 2 1 0 -1 }T
  624. T{ MID-UINT MID-UINT+1 GD2 -> MID-UINT+1 MID-UINT }T
  625. T{ : GD3 DO 1 0 DO J LOOP LOOP ; -> }T
  626. T{ 4 1 GD3 -> 1 2 3 }T
  627. T{ 2 -1 GD3 -> -1 0 1 }T
  628. T{ MID-UINT+1 MID-UINT GD3 -> MID-UINT }T
  629. T{ : GD4 DO 1 0 DO J LOOP -1 +LOOP ; -> }T
  630. T{ 1 4 GD4 -> 4 3 2 1 }T
  631. T{ -1 2 GD4 -> 2 1 0 -1 }T
  632. T{ MID-UINT MID-UINT+1 GD4 -> MID-UINT+1 MID-UINT }T
  633. T{ : GD5 123 SWAP 0 DO I 4 > IF DROP 234 LEAVE THEN LOOP ; -> }T
  634. T{ 1 GD5 -> 123 }T
  635. T{ 5 GD5 -> 123 }T
  636. T{ 6 GD5 -> 234 }T
  637. T{ : GD6 ( PAT: T{0 0}T,T{0 0}TT{1 0}TT{1 1}T,T{0 0}TT{1 0}TT{1 1}TT{2 0}TT{2 1}TT{2 2}T )
  638. 0 SWAP 0 DO
  639. I 1+ 0 DO I J + 3 = IF I UNLOOP I UNLOOP EXIT THEN 1+ LOOP
  640. LOOP ; -> }T
  641. T{ 1 GD6 -> 1 }T
  642. T{ 2 GD6 -> 3 }T
  643. T{ 3 GD6 -> 4 1 2 }T
  644. \ ------------------------------------------------------------------------
  645. TESTING DEFINING WORDS: : ; CONSTANT VARIABLE CREATE DOES> >BODY
  646. T{ 123 CONSTANT X123 -> }T
  647. T{ X123 -> 123 }T
  648. T{ : EQU CONSTANT ; -> }T
  649. T{ X123 EQU Y123 -> }T
  650. T{ Y123 -> 123 }T
  651. T{ VARIABLE V1 -> }T
  652. T{ 123 V1 ! -> }T
  653. T{ V1 @ -> 123 }T
  654. T{ : NOP : POSTPONE ; ; -> }T
  655. T{ NOP NOP1 NOP NOP2 -> }T
  656. T{ NOP1 -> }T
  657. T{ NOP2 -> }T
  658. T{ : DOES1 DOES> @ 1 + ; -> }T
  659. T{ : DOES2 DOES> @ 2 + ; -> }T
  660. T{ CREATE CR1 -> }T
  661. T{ CR1 -> HERE }T
  662. T{ ' CR1 >BODY -> HERE }T
  663. T{ 1 , -> }T
  664. T{ CR1 @ -> 1 }T
  665. T{ DOES1 -> }T
  666. T{ CR1 -> 2 }T
  667. T{ DOES2 -> }T
  668. T{ CR1 -> 3 }T
  669. T{ : WEIRD: CREATE DOES> 1 + DOES> 2 + ; -> }T
  670. T{ WEIRD: W1 -> }T
  671. T{ ' W1 >BODY -> HERE }T
  672. T{ W1 -> HERE 1 + }T
  673. T{ W1 -> HERE 2 + }T
  674. \ ------------------------------------------------------------------------
  675. TESTING EVALUATE
  676. : GE1 S" 123" ; IMMEDIATE
  677. : GE2 S" 123 1+" ; IMMEDIATE
  678. : GE3 S" : GE4 345 ;" ;
  679. : GE5 EVALUATE ; IMMEDIATE
  680. T{ GE1 EVALUATE -> 123 }T ( TEST EVALUATE IN INTERP. STATE )
  681. T{ GE2 EVALUATE -> 124 }T
  682. T{ GE3 EVALUATE -> }T
  683. T{ GE4 -> 345 }T
  684. T{ : GE6 GE1 GE5 ; -> }T ( TEST EVALUATE IN COMPILE STATE )
  685. T{ GE6 -> 123 }T
  686. T{ : GE7 GE2 GE5 ; -> }T
  687. T{ GE7 -> 124 }T
  688. \ ------------------------------------------------------------------------
  689. TESTING SOURCE >IN WORD
  690. : GS1 S" SOURCE" 2DUP EVALUATE
  691. >R SWAP >R = R> R> = ;
  692. T{ GS1 -> <TRUE> <TRUE> }T
  693. VARIABLE SCANS
  694. : RESCAN? -1 SCANS +! SCANS @ IF 0 >IN ! THEN ;
  695. T{ 2 SCANS !
  696. 345 RESCAN?
  697. -> 345 345 }T
  698. : GS2 5 SCANS ! S" 123 RESCAN?" EVALUATE ;
  699. T{ GS2 -> 123 123 123 123 123 }T
  700. : GS3 WORD COUNT SWAP C@ ;
  701. T{ BL GS3 HELLO -> 5 CHAR H }T
  702. T{ CHAR " GS3 GOODBYE" -> 7 CHAR G }T
  703. T{ BL GS3
  704. DROP -> 0 }T \ BLANK LINE RETURN ZERO-LENGTH STRING
  705. : GS4 SOURCE >IN ! DROP ;
  706. T{ GS4 123 456
  707. -> }T
  708. \ ------------------------------------------------------------------------
  709. TESTING <# # #S #> HOLD SIGN BASE >NUMBER HEX DECIMAL
  710. : S= \ ( ADDR1 C1 ADDR2 C2 -- T/F ) COMPARE TWO STRINGS.
  711. >R SWAP R@ = IF \ MAKE SURE STRINGS HAVE SAME LENGTH
  712. R> ?DUP IF \ IF NON-EMPTY STRINGS
  713. 0 DO
  714. OVER C@ OVER C@ - IF 2DROP <FALSE> UNLOOP EXIT THEN
  715. SWAP CHAR+ SWAP CHAR+
  716. LOOP
  717. THEN
  718. 2DROP <TRUE> \ IF WE GET HERE, STRINGS MATCH
  719. ELSE
  720. R> DROP 2DROP <FALSE> \ LENGTHS MISMATCH
  721. THEN ;
  722. : GP1 <# 41 HOLD 42 HOLD 0 0 #> S" BA" S= ;
  723. T{ GP1 -> <TRUE> }T
  724. : GP2 <# -1 SIGN 0 SIGN -1 SIGN 0 0 #> S" --" S= ;
  725. T{ GP2 -> <TRUE> }T
  726. : GP3 <# 1 0 # # #> S" 01" S= ;
  727. T{ GP3 -> <TRUE> }T
  728. : GP4 <# 1 0 #S #> S" 1" S= ;
  729. T{ GP4 -> <TRUE> }T
  730. 24 CONSTANT MAX-BASE \ BASE 2 .. 36
  731. : COUNT-BITS
  732. 0 0 INVERT BEGIN DUP WHILE >R 1+ R> 2* REPEAT DROP ;
  733. COUNT-BITS 2* CONSTANT #BITS-UD \ NUMBER OF BITS IN UD
  734. : GP5
  735. BASE @ <TRUE>
  736. MAX-BASE 1+ 2 DO \ FOR EACH POSSIBLE BASE
  737. I BASE ! \ TBD: ASSUMES BASE WORKS
  738. I 0 <# #S #> S" 10" S= AND
  739. LOOP
  740. SWAP BASE ! ;
  741. T{ GP5 -> <TRUE> }T
  742. : GP6
  743. BASE @ >R 2 BASE !
  744. MAX-UINT MAX-UINT <# #S #> \ MAXIMUM UD TO BINARY
  745. R> BASE ! \ S: C-ADDR U
  746. DUP #BITS-UD = SWAP
  747. 0 DO \ S: C-ADDR FLAG
  748. OVER C@ [CHAR] 1 = AND \ ALL ONES
  749. >R CHAR+ R>
  750. LOOP SWAP DROP ;
  751. T{ GP6 -> <TRUE> }T
  752. : GP7
  753. BASE @ >R MAX-BASE BASE !
  754. <TRUE>
  755. A 0 DO
  756. I 0 <# #S #>
  757. 1 = SWAP C@ I 30 + = AND AND
  758. LOOP
  759. MAX-BASE A DO
  760. I 0 <# #S #>
  761. 1 = SWAP C@ 41 I A - + = AND AND
  762. LOOP
  763. R> BASE ! ;
  764. T{ GP7 -> <TRUE> }T
  765. \ >NUMBER TESTS
  766. CREATE GN-BUF 0 C,
  767. : GN-STRING GN-BUF 1 ;
  768. : GN-CONSUMED GN-BUF CHAR+ 0 ;
  769. : GN' [CHAR] ' WORD CHAR+ C@ GN-BUF C! GN-STRING ;
  770. T{ 0 0 GN' 0' >NUMBER -> 0 0 GN-CONSUMED }T
  771. T{ 0 0 GN' 1' >NUMBER -> 1 0 GN-CONSUMED }T
  772. T{ 1 0 GN' 1' >NUMBER -> BASE @ 1+ 0 GN-CONSUMED }T
  773. T{ 0 0 GN' -' >NUMBER -> 0 0 GN-STRING }T \ SHOULD FAIL TO CONVERT THESE
  774. T{ 0 0 GN' +' >NUMBER -> 0 0 GN-STRING }T
  775. T{ 0 0 GN' .' >NUMBER -> 0 0 GN-STRING }T
  776. : >NUMBER-BASED
  777. BASE @ >R BASE ! >NUMBER R> BASE ! ;
  778. T{ 0 0 GN' 2' 10 >NUMBER-BASED -> 2 0 GN-CONSUMED }T
  779. T{ 0 0 GN' 2' 2 >NUMBER-BASED -> 0 0 GN-STRING }T
  780. T{ 0 0 GN' F' 10 >NUMBER-BASED -> F 0 GN-CONSUMED }T
  781. T{ 0 0 GN' G' 10 >NUMBER-BASED -> 0 0 GN-STRING }T
  782. T{ 0 0 GN' G' MAX-BASE >NUMBER-BASED -> 10 0 GN-CONSUMED }T
  783. T{ 0 0 GN' Z' MAX-BASE >NUMBER-BASED -> 23 0 GN-CONSUMED }T
  784. : GN1 \ ( UD BASE -- UD' LEN ) UD SHOULD EQUAL UD' AND LEN SHOULD BE ZERO.
  785. BASE @ >R BASE !
  786. <# #S #>
  787. 0 0 2SWAP >NUMBER SWAP DROP \ RETURN LENGTH ONLY
  788. R> BASE ! ;
  789. T{ 0 0 2 GN1 -> 0 0 0 }T
  790. T{ MAX-UINT 0 2 GN1 -> MAX-UINT 0 0 }T
  791. T{ MAX-UINT DUP 2 GN1 -> MAX-UINT DUP 0 }T
  792. T{ 0 0 MAX-BASE GN1 -> 0 0 0 }T
  793. T{ MAX-UINT 0 MAX-BASE GN1 -> MAX-UINT 0 0 }T
  794. T{ MAX-UINT DUP MAX-BASE GN1 -> MAX-UINT DUP 0 }T
  795. : GN2 \ ( -- 16 10 )
  796. BASE @ >R HEX BASE @ DECIMAL BASE @ R> BASE ! ;
  797. T{ GN2 -> 10 A }T
  798. \ ------------------------------------------------------------------------
  799. TESTING FILL MOVE
  800. CREATE FBUF 00 C, 00 C, 00 C,
  801. CREATE SBUF 12 C, 34 C, 56 C,
  802. : SEEBUF FBUF C@ FBUF CHAR+ C@ FBUF CHAR+ CHAR+ C@ ;
  803. T{ FBUF 0 20 FILL -> }T
  804. T{ SEEBUF -> 00 00 00 }T
  805. T{ FBUF 1 20 FILL -> }T
  806. T{ SEEBUF -> 20 00 00 }T
  807. T{ FBUF 3 20 FILL -> }T
  808. T{ SEEBUF -> 20 20 20 }T
  809. T{ FBUF FBUF 3 CHARS MOVE -> }T \ BIZARRE SPECIAL CASE
  810. T{ SEEBUF -> 20 20 20 }T
  811. T{ SBUF FBUF 0 CHARS MOVE -> }T
  812. T{ SEEBUF -> 20 20 20 }T
  813. T{ SBUF FBUF 1 CHARS MOVE -> }T
  814. T{ SEEBUF -> 12 20 20 }T
  815. T{ SBUF FBUF 3 CHARS MOVE -> }T
  816. T{ SEEBUF -> 12 34 56 }T
  817. T{ FBUF FBUF CHAR+ 2 CHARS MOVE -> }T
  818. T{ SEEBUF -> 12 12 34 }T
  819. T{ FBUF CHAR+ FBUF 2 CHARS MOVE -> }T
  820. T{ SEEBUF -> 12 34 34 }T
  821. \ ------------------------------------------------------------------------
  822. TESTING OUTPUT: . ." CR EMIT SPACE SPACES TYPE U.
  823. : OUTPUT-TEST
  824. ." YOU SHOULD SEE THE STANDARD GRAPHIC CHARACTERS:" CR
  825. 41 BL DO I EMIT LOOP CR
  826. 61 41 DO I EMIT LOOP CR
  827. 7F 61 DO I EMIT LOOP CR
  828. ." YOU SHOULD SEE 0-9 SEPARATED BY A SPACE:" CR
  829. 9 1+ 0 DO I . LOOP CR
  830. ." YOU SHOULD SEE 0-9 (WITH NO SPACES):" CR
  831. [CHAR] 9 1+ [CHAR] 0 DO I 0 SPACES EMIT LOOP CR
  832. ." YOU SHOULD SEE A-G SEPARATED BY A SPACE:" CR
  833. [CHAR] G 1+ [CHAR] A DO I EMIT SPACE LOOP CR
  834. ." YOU SHOULD SEE 0-5 SEPARATED BY TWO SPACES:" CR
  835. 5 1+ 0 DO I [CHAR] 0 + EMIT 2 SPACES LOOP CR
  836. ." YOU SHOULD SEE TWO SEPARATE LINES:" CR
  837. S" LINE 1" TYPE CR S" LINE 2" TYPE CR
  838. ." YOU SHOULD SEE THE NUMBER RANGES OF SIGNED AND UNSIGNED NUMBERS:" CR
  839. ." SIGNED: " MIN-INT . MAX-INT . CR
  840. ." UNSIGNED: " 0 U. MAX-UINT U. CR
  841. ;
  842. T{ OUTPUT-TEST -> }T
  843. \ ------------------------------------------------------------------------
  844. TESTING INPUT: ACCEPT
  845. CREATE ABUF 80 CHARS ALLOT
  846. : ACCEPT-TEST
  847. CR ." PLEASE TYPE UP TO 80 CHARACTERS:" CR
  848. ABUF 80 ACCEPT
  849. CR ." RECEIVED: " [CHAR] " EMIT
  850. ABUF SWAP TYPE [CHAR] " EMIT CR
  851. ;
  852. T{ ACCEPT-TEST -> }T
  853. \ ------------------------------------------------------------------------
  854. TESTING DICTIONARY SEARCH RULES
  855. T{ : GDX 123 ; : GDX GDX 234 ; -> }T
  856. T{ GDX -> 123 234 }T
  857. cr .( End of Core word set tests) cr