Pikalang, 868068 Bytes
Das war einfach zu gut, um es zu überspringen. ( Danke, mbomb007. )
Es ist im Grunde eine suboptimale Nachschlagetabelle. Ich codiere zuerst jeden Typ als
((first_char + second_char * 2 + third_char * 3) mod 256) - 0x3c
Dies führt zu eindeutigen Darstellungen für jeden Typ. Der leere Typ (wenn das verteidigende Pokemon nur einen einzigen Typ hat) wird als codiert 0x00.
Danach benutze ich nur ein Durcheinander von if-else Äquivalenten, um alle ~ 5800-Kombinationen zu überprüfen.
Code
Stack Exchange hat mir nicht erlaubt, den Code als Ganzes zu veröffentlichen.
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mxfEyPvoO7d9DoGNOzsb/916mFHWTVbIJRCjm9HNpwLtwkCorgWQpl42t2a92FWZc//21jN0GbpI+7jx7aC6MJAQ5gJIUy/oekJ210tntp/P+nrnL04IgZ/96zvz3zHT2BF25Ogn7sRHoQFPGR9CdQnZDcE0TnVhIFRX/saOHSUGEtf4W3yWLw+iX55rwHIlQJp6ERJV70ZIcWtUV8IXqbMLgWAaf+gyABoAwy8aH0J1CdkNWVAvkCwkqp4QLATauKnSVBl+s/gQXUL6W2PVw0BsPOdvTBgIpvGHLsOj4TH8ovEhm13Wy66HgYxtXMjuenGu9gM51zNGGiPDLxAfksmc9RD21bsRUtwa1eX29kH2nqlRMDoKHofZ9xhg7nwIEwPJ3xvMKNdDiltzlNMg+Wd6rmcai05jX55t9pXEPC9Ul5DrIZjW7HS3625I0xM6FgJt3MRn4uu6aELyIFTX3RAbn9b4PlfCFzHDCoFAGzdkbgqZxzFgdkEI1yVkN6S9HgZi49MaF5IOMUZuipEXn23fo4e5QJlMj+sqF6bTsUcsRIgQSL0nIQZPg2fXRROyu16cS4iQwZD296j46Fj1vucygjZF0C+Pmrp+g96DOJeQ3ZDixttHab3Y1RRyCcSk2ZQ0j7P1rdkeGanMsZD2ehjI2MYxEOt5sHc2bow0RobfLD5k2NODmbuN23gNpP1MMUdHdWEgD10GSgNl6+JjIFSXkBRXMeTu1opH2X50V0LyT2MJxDxoHuRdzjII1YWB6ELUw0DGNk51YeYgZDdkb722zPqL4k/8rvVx9ZhpxAh7Y//71/LflwWfwPQipAOCaTyEiYGEMJsgTb0I2Qt5i4rnvdnyiYMM2Cb8JzDjEBJVb59rTqeZrqZ3jeoS8pLLxGfiA2w65rIIEZK71pizorqaIE29CLkDYtgz7AFWG3o7NkKormIIprXNLudQPwfGJzDjKIM8dJn4THyATcdclrsh1suuR3U5hxTIeldxa0IW1jP7mf0AG4y5jbqsV33OczrNdDU9pmMhe+uZ6RIy3XFmEfuIuctUFwaCeovcNdThUF2B9TBHFzi7oHqGqYQw9frZZl9YzONDdQm5HoJpzU53u+6GND2hYyHQxk180YnvOMyNG7V+072cuyFU19jNcA66rq2HGaWQEIjhcVN4PI4Bsws+OUIqIGMbFzIS0tRLGYTqOkNMgZtS4OrDvH6jmp4rXYh6+1xzOmXVi3NhIOtdmNaEhEBMi6ZF3qbffVna68W5hKS4MBCqK/BtCSQL2XCrDI/R4fHLs6XuW8RjJkQIrd4+F6bTsUfsE9oMobrOEINidFA8DjPi3cRcAqprLKS9HtXlHAZBxi6XkMcQU6ApELDa0NvR91A66N2NOwe2K/BAAskVR9flMgoaBQGbjrksQrAQqgsDudyF6VTIBRB7YfZyBcTYZ+wDrDb0dgjRBalHdTmHUJevtpCrnoH8ZPnwJxGh8pgpdIRTwvn71/xTBgEZ23icS4guXRFPIGayQuIhb/DgPyW1PnGQc5/QKyFNvXS7hOyGjG0cw0z4InV2Qu5wGTeNm62LfzdkbONxriZIUy9lkM0uzByECHkNYiw1ls7Y9OshmMZ1sSFjGxci5IZ6Y2fHhzx0GUYNo62LH/iMouthIGMbF5IHobrGXlqqayzkXM9EaiINX2gh8a69b+CgxjGQsY1jmJ74NMjeeibNhKR5nJkXo79xPoTFXFAPM9nA2QmZ21oIZFY9M11Cpnv9bDdeWB8SISWuvW+zjfc3vs+V8EXMsEIg0MYNmdEh8zjMqvfQy7kbQnWN3QznoOvaephRCgmBGB43hcfjGOa+eBjI2MbjXGMhmMadA8KFmYMQLITqOkOMoJsi6OrDxGyUr69vDQ7ixgqBQ6guIUJCIYZbw+3IxV8Bubs1zChDmBgI1YWBUF0YyOWu9rcMc5JCXnIZUKMD6pdny9k36rXwhdwNobqE7Ia018NA2usJiXedIebV6Lx6HCZmo4QIwbkwcxAiBO6y3rSFg0LMpmbTGZve9+iNHbQQIfmQy13t79Gck5zkMpGaSFsXf+wLiYHo6nC13yTMoOvmgJnsAkhTL1dAzJJmyRmbfj1kbONlTIxLiJAsJmYsQoR8Wi8r9D78SWzePWYKGGHZ3xvef8GwKyxEiJA+SAhTiBAhLa5nIW+gvwcYYl3IKb0I6YDY+O7GnQMMQnVhIJEuY6QxErCjQoRMgmB62ezCzEFIKFNIiusMMXgaPHFLKYTrGgtpr0d1tdfTxWkNA4l0mSXNkoAdHQuxngd7bePOAQbR1eHCQDa7zvUMlAZKwJ3AQHSNrIeB2Pjuxp0D2yVkN+RczwQ5IEH6CsJcGEj+ogSSMyHWu+lgQ5hjz2dv4wa2AYENs3t8CNUlZDekvR4GYuPTGheSDjFGGiOj/ruLECG0ekKE7IQ09VIGobrOEFPg5BSYsaPXQ8Y2HucaC8E07hwQLswchGAhVNcZYgQdEEHHPo+6EPWorvZ6VBdmDhhIiIvKFJLiOkNMnwPSZ/iOXg9prxfnwkBcFCITM5axjTsHGCTSZfo0ffJWVogQIZB6N0Ic5W4I1SUklHmGGDcHxE3o7nHuKsY1FmLjuxt3DkKQLswcMBCq6wwxWg6IlmlLOQjSXk/I7npUF2YOYxt3DlGuEObZZb40XwJ2VIgQXRH1boQUtyaEA8H0QnWdIUZGIyNuKYWAILrYEEzjzoHtwkBCmEJgrnM9enp9WCMkuB4z3TLC6r8AfHP1P77X8wfp3fV0setRXc5BVyeE6hIiZBXkzf+UjUiyTxzk9dt09/YuqIe5cPmjdA423gShuoSkuIS85DJpmjShC51xgea6nMOyephRCsFCQlxUppAQiInURArdYMyNCXF5XDe5MJ0K2Q3BNJ7JXODCtCbkJZfB0+AJXeiMC1T1whS3xqonRMgwpi4hz9QzkZpIIxaV84TJhDU+djFtfDeE6sJAqK6xkL31jJsJcfM4sxX7sX7jMJc3k4lxNUGaekHXw0DGNp7ObF+UvfWMeAkR7/Wzbd9b3024a84cMJ2OPWIhQoRA6j0JMXhGB8/jMCM2GHMJdCHq7XPN6ZRVL86Fgax3YVoTEgIxLZoW01YbepU2QqguDMSNFQKHUF1ChIRCDLebwu1xDNfvwt27h9l1XYh6VFd7PaoLMwcMJMRFZQpJcZ0hps9N6XP1YWI26noI9CoJAUGoLiEpLiFYyGYXZg5CXnKZdaOz7pdnO2jxMy7aXJdzgM2hvfH2erqEjD4pQ2t0aD0Oc8VG3b2jmDuRyRx7XDYuRIgucj0h34SYSE2k0A3G3Biqaz0E05qrJ0RIGGSzyzk0ugyoBlToQmdcoLku6hyozLGQ9np8CNXVBGnq5QqISdOkCd1gzI3RFQphMTFjEYKF6KpkCtkNOdfbl3xfDJPBofeY6eIR+peH767+x/f2P9SHafQ71FcvzoWB6JrAxLjaH6L2ekKudr35H78R+fWJg8xbrgTI2CeU6sJAqC4hWMjlrrGvlRAs5BWmYdQw2noP2t9mzKCpLgxkvau4NSFR9aguzByEvOQykZpIWxffN3A3hOoSgoVQXT4mBZCmXsogrzANrYbW1ntwN2R9PUe5u3GqCwOhuoQIEVICMaWaUmdsupDBEEzjVJcQLORyF6bTsa+CjRtGY8LocWaYxRl7YwY1zmIuqIeZrJDdkPX1MKOsm+zsek9CTHIJSe71s537kAjZXS/OJUTIYEj7e1R8dKx633MZQaMj6HGY1AX7lqv9rma8DRtdQlJcGAjVFfi2BJKFbLhVhkfD45B7sB4y9pENYWIgVBcGQnVhIJe72t8yzEkKecllQN0UUI9joK7GoLvTXi/OhYG4KEQmZixjG3cOMEiky/S5KX2uPsxBNxBzs4RgIVSXkBSXECxkswszByEvucy60Vn3y7Pl7Bv1WrS/kJhBU10YCNU1FmI9D7ar8S6XoTU6tB6H6Q0cDME07hzYLgyE6hoLKW68uLV0yEOX2dRs2rr4d0N8VQdBqC4MhOoqhtja3LUOcT1kGkYNo6334G5Iez1ds5hjITZuPQqZD3noMl+aL1sXP/D1QtcrY+pKgVBdGMhml3OAzUHIY8j9yfe5JPnTrwoOvcdMF43Qvzxcdic+Cs17soUIEVLvGgux8WmN8yFU17OQN/+rODvYfnmuLv0VkKZehAh5EXJ3a8WjnF0vzoWBRLoMmYbMIfdAiJBJkLt7sV7ObnS7hKS4zhDDqGF05OIL4brGQmw8th7m6KiuBZCmXga7zJxmziH3YCzEeqUHi4FY76aDpbowEKoLA9nsOtczfZo+u/abD9E1st5EiGdq40KGQs71TJrRSfM4zLEbvLFxqgsDyV8UzCjXQwJPo66DMtfYA9nbuCEuOsQ9e9Q+OFwI1SVkN6S48fZRWi92NYVcAjFpNiXN42w3Ltj6xYfeHSGDIZjGL3dhOh17xD6hzRCq6wwxKBoUvQf+sQNYFIxLyG5Iez0MpL2ekHjXGWJe3ZRXj2NwR4UIEUKtdyPEUe6GUF1CQplniHFzU9y8+GwxC3Y9BHOzdCHqUV2YObQ33l5Pl5DRJ2VoNbR6Dxr/aMMMmurCQKiusRDrebBdjXe5DK2G1tbFx0CorrGQsY1jINYrPVgMZGzjca4zxERqIh25+IMg7fWEYCHWy66HgWAaD3GFMM8uw6hhdMg9ECJEFx2S8EVWPQykqXFML1TXGWKMNEaOXHwhIIguIdYT0uASAnOd690Xen/4n8Py7jHT3xyhf29Ytfof3/OPyvsgVNdYyNjGdZW7xkLa6wlZDnnzP2ojwukTB+l9fgXS1EsmZGzjGMjYxqmu9npC8iAPXYZHw2PaQmMgVNdYSFPjTb0IKYdsdmHmIOQxxLhp3Mze4LmPbJzrbkh7PSFYCKZxqmsBpKmXMshDl5nTzJm20BjIZld+PcxJChESA6G6hAj5tJ4h05AJXVQ+JJO598FZUQ8z2bGQsY1TXZg52Hhp4+d65saE3Hic2Yr9aN/wdCYGcrlrwRcxwxp7q9obxwx62Bxm1TOIJQSx18+2b2/5kBDmWEh7PQxkbOMYiPU82DsbN0ZGx8jjMCM2GHMJqK6xkPZ6VJdzGAQZu1xCHkNMgabA0tUWAoJsdmHmIEQI3GW9aQsHhZhNN2XT4xi8jeOefyG762EgmMadgxCkCzMHDITqOkOMlpui5erDXLFRYx+NTObY47JxIUJ0kesJ+SbERGoiLV3tQRBM486B7cJAqK6xkOLGi1tLhzx0mU2js+mXZ+vigyBU11jI2MYxEOuVHiwGMrbxONcZYiKNTqTHYXrFx11x601bOCFC+hvHtKZrocukadJMW2gMhOoSgoVQXXdD2usJKag39qyehBgeDY/ZG7wRQnVhIFSXECExEKoLA9nswsxhLORc7/pY+8PPD020x0y/OUL/ZvC2ZP/fvzbsvguZVk+IrmGu9ivdXk/XXteb/+0akVCfOMhBr+yVkPYXtemshETV40Mud3nEuyG6rmOaJc2SNYs/FtJebwSkqRchUfWoLufQ6DJzmjlrNl3IboiNT2tcyO56IyCYXnRdxzSMGkZrFr8YkvBFVj0hQoQIuesHXS9BDJ4Gz9LV9u7fALm7teJRhkDGNr7Phel07K5RXVCIqTIhVR5n1neTMRfDOcQ27uxs/HfrYUZZN1khl0CMbgnR7fWzxSyYkO2u9noYiI1Pa/xGSPuZYo6O6sJAHroMlNGB8jjM7E3HXJb2Z9RB727cObBdgQcSSK44ui6XUdAo2Lr47S/k2EELEZIPudzV/h7NOclJLhPppkR6HMPG1cDs6FhIez0hu+tRXZg5jG3cOUS5Qphnl/lyU75cfZh970HGBdroWg/BtObqCRESBtnscg6NLgOqAbV18fNfyLGj5EOoLgyE6iqG2NrctQ5xPWQaRqPD6Jdny1k/zLUYC2mvJwQLsV52PQwE03iIK4R5dhlGo8PocZiD3gMMZLPLetMWToiQ/sYxrela6DJpmjRrNn0spL2erlBIez0MxHq/rIfZjUiXQdGgWLPpYyFjG49zCRECdzkH5xDtOkOWpNxfRb/hAfeY6bOtOMfP5rhw9T++t/3+CREChujqcAkZBGlqramXeyFv/tdpROh84iADtikB0tRLGUTXbsjdrWFGWTeH4sliWsNAHroMgAbAmk0XIkTXrtba6wkZCWnq5QqICdIEWbraQrguDITqGgux3k0Hmz8Hxicw47jBZVo0LdZs+lhIez0+hOpq34yxg6a6iueAaW3vmRoZjYxpG8yH6ELU40OorvWQsbs2bA6YuS+AtM/uXM8omBAFjzNr38eNbwfVhYFQXQsgTb1sbs16sasy5/7trWfoSghdr59t9h0sg1BdQlJcxZC7WyseZfvRXQnJP40lEPNgdB48DhOzURG3UUgehOrCQC53YToVcgHEXpi9XAEx9hn7Zmz69ZCxjesqd7XfJMyg6+aAmewCSFMvV0DMkpuy5HEMmF0QIgQM0YWodyOkuDUhHAimF6rrDDEyboqMqw/z+o26e4MxN0YXol46cyykvR4fQnU1QZp6uQJi0jRpztj06yHt9XTNYo6F2Lj1KGQ+5KHLfBmdL788W+q+eSGFgCG6dkMSvsiqh4E0NY7pheo6Q4yR0THyOExfCa+4EDyE6rob0l5PSEG9sWf1JMTwaHgsXe1BkPZ6ukIh7fUwEOv9sh5mNyJdBkWDYs2mC8FCQlwhTIzrbkh7vTiXkAsgTb38Rr2X8+nTueyTYDg0mh4zfbYV5/jZHBeu/sf3Btx3IXkQXaEQXbqECJkEebbem/+hG5GCnzjIQdt7JaSpF12jD+5uyNjGQ5iYsWAgVJeQxxBDq6G1dLWFgCC6boc09VIGobowkBCmkN2Qcz3TrGk2bYOF6Op0YeYgRIguXGtCHkNMs6bZ0tUeBBnbuBAh+RBduoR8C3L+omnWNMvb0XSILiFCIurxISwmdSwY11jI+nrnLxpVE6LqcWaJG8eqF+fCQEKYCyBNvaDrCdldL53Zfj7r652/aABMCICvn+2gK8mHUF0YiC5EPQxkbONUF2YOQnZD9tYzr0bn1eMws2/M2NvPh+hC1KO6nEOoy1dbiKnSVPnwMH03t0PGNl7GxLiECMliYsYiRMin9Qy8mwLvcQyDdk9IHkQXG4Jp3DmwXRhICFMIzHWuZ3LdlFxXH+bdi9NXT1cbhMXEjEUIFqKrkilkN+Rcz9Rr6g1faAykvV4ZU1cKhOrCQDa7nANsDkIeQ0y90an3y7Od+/QIyYPoEmI9IQ0uITDXuZ6BNzrwHod59+J4k7kuDITqEiIkBkJ1YSCbXZg5jIWc6xlpjbRpGyxkdz0+hOoSIgTucg7OIdp1hphwTbilqy0EBAlxhTAxrrsh7fXiXEIugDT18hv1zKffLPvapz5G6hx/d44L9//jewMuvRAhQnTpEjK6cSHLIW/+BQERbJ84yIBtSoA09SJEiNHizh/aD8S5C1npMn2aPms2XYiQSZCmXoSUQ6guISEQo6pRtXS1hXBdYyFjGxeyu16cawGkqZcyyEOXsdRYWrPpYyHWKz1YIULqXBgI1TUWcq5nNjWbpm0wH6JrZD0hu+vxIR6IEAZkbz2DZ0LwPM6sfR83XnyqCwPJXxTMKANnlwlprxfnaj+QvfWMcwlx7vWzHXRh+RCqS8huiI1PaxwDaa8nZHe9JyFG0OgIehwmZqO+BYHeDiGDIZjGnQPb1QRp6kXIHRATpAlyxqZfDxnbeJxLiJAYyGZXez0h6RAz7KYMexwDZheECBHCg2Aadw5CslxCUlxniLF0UyxdfZjXb9TdG4y5MboQ9aguzByECNElZCTEIGuQnbHp10Pa68W5MBCqCwOhusZCbHxa43zIQ5dBNjrIfnm21H3zQgoRIsR60w5WSB6E6jpDzLDRGfY4TF9fr/h4yNjGhQgRQq8n5JsQU6optXS1B0Ha6wkRIoReDwPBNK5rocuoalSt2XQhQnRlQ9rrCdld70pIUy9XQIybxs3S1RYCgugSImSGCwOhuoTshpzr/Xvd4xf9/w/v9d85//kf/wsHs6nq5j4NAA==
Beispiel
Anscheinend ist der offizielle Pikalang-Interpreter noch nicht fertig, aber da es sich um eine triviale Brainfuck-Substitution handelt, habe ich sie mit einem Brainfuck-Interpreter getestet.
$ base64 -d supereff.pokeball.gz.b64 > supereff.pokeball.gz
$ gunzip supereff.pokeball.gz
$ pikalang supereff.pokeball
Normal
Rock/Dragon
0.5x
Die Eingabe ist durch Zeilenumbrüche getrennt und erfordert einen zusätzlichen Zeilenumbruch.
Das Programm verwendet den Speicherplatz -1. Wenn Ihr Interpreter nicht zulässt, dass die linke Seite des Bandes verlassen wird, stellen Sie dem Code ein pipioder ein >(für Pikalang bzw. Brainfuck) voran.
Brainfuck, 193708
Hier ist das gleiche Programm in Brainfuck (auch gzipped + base64'd).
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
Das Programm besteht aus vier Teilen:
- Die Eingabe. Lesen der Typen und Berechnen ihrer Bezeichner.
- Die Textgenerierung. Generieren von Zeichenfolgen für jede der möglichen Ausgaben.
- Die Nachschlagetabelle. Dieser Teil wurde computergeneriert (siehe unten). Bewegt den Zeiger auf das richtige Ergebnis.
- Die Ausgabe. Einfach das Ergebnis ausdrucken.
Hauptprogrammstruktur
,>,[-<++>],[-<+++>] read first type id
++++++[-<---------->] subtract 3c
+[,----------] skip until newline
>,>,[-<++>],[-<+++>] read second type id
++++++[-<---------->] subtract 3c
>- set @LOOPFLAG@ to get into loop
[
>-< set @CHARFLAG@
<,---------- get character; newline is 00 slash is 25
[ was not newline
------------------------------------- slash is now 00
[ was not slash
>>+<< reset @CHARFLAG@
[-] clear character
]
]
>>[ was newline or slash (@CHARFLAG@ set)
<+>+ reset @LOOPFLAG@ and @CHARFLAG@
]<
]
,>,[-<++>],[-<+++>] read third type id
<[->+>+<<]>[-<+>] copy third to @CHARFLAG@
>[ if @CHARFLAG@ is set
[-] clear @CHARFLAG@
<++++++[-<---------->]> subtract 3c from third
]<
++++++++[- do 8 times
>++++++ put a 0 here
>+++++++++++++++ put an x here
>>++++++ put a 0 here
>++++++ put a 0 here
>++++++ put a 0 here
>+++++++ put a 8 here
>+++++++++++++++ put an x here
>>++++++ put a 0 here
>++++++ put a 0 here
>+++++++ put a 8 here
>+++++++++++++++ put an x here
>>++++++ put a 0 here
>+++++++++++++++ put an x here
>>++++++ put a 0 here
>+++++++++++++++ put an x here
>>++++++ put a 0 here
>+++++++++++++++ put an x here
<<<<<<<<<<<<<<<<<<<<<< go back
]
>>>>>-- change 0 to dot
>++ change 0 to 2
>--- change 8 to 5
>>>>-- change 0 to dot
>--- change 8 to 5
>>>+ change 0 to 1
>>>++ change 0 to 2
>>>++++ change 0 to 4
<<<<<<<<<<<<<<<<<<<<<< go back
(lookup table here)
>[.>] print result
Hier ist das Skript, das die Nachschlagetabelle generiert:
typemap = [[int(value, 16), name] for value, name in [
["00", "(Nothing)"],
["02", "Ice"],
["07", "Fairy"],
["0f", "Dragon"],
["10", "Electric"],
["11", "Fighting"],
["12", "Grass"],
["1d", "Rock"],
["20", "Dark"],
["25", "Bug"],
["28", "Ghost"],
["2d", "Poison"],
["2e", "Steel"],
["32", "Fire"],
["39", "Water"],
["3c", "Ground"],
["46", "Normal"],
["4d", "Flying"],
["65", "Psychic"]
]]
multipliers = {
0: 5,
0.25: 8,
0.5: 14,
1: 19,
2: 22,
4: 25
}
types = [
"Normal", "Fighting", "Flying", "Poison", "Ground", "Rock", "Bug", "Ghost", "Steel",
"Fire", "Water", "Grass", "Electric", "Psychic", "Ice", "Dragon", "Dark", "Fairy"
]
results = [
[2, 2, 2, 2, 2, 1, 2, 0, 1, 2, 2, 2, 2, 2, 2, 2, 2, 2],
[4, 2, 1, 1, 2, 4, 1, 0, 4, 2, 2, 2, 2, 1, 4, 2, 4, 1],
[2, 4, 2, 2, 2, 1, 4, 2, 1, 2, 2, 4, 1, 2, 2, 2, 2, 2],
[2, 2, 2, 1, 1, 1, 2, 1, 0, 2, 2, 4, 2, 2, 2, 2, 2, 4],
[2, 2, 0, 4, 2, 4, 1, 2, 4, 4, 2, 1, 4, 2, 2, 2, 2, 2],
[2, 1, 4, 2, 1, 2, 4, 2, 1, 4, 2, 2, 2, 2, 4, 2, 2, 2],
[2, 1, 1, 1, 2, 2, 2, 1, 1, 1, 2, 4, 2, 4, 2, 2, 4, 1],
[0, 2, 2, 2, 2, 2, 2, 4, 2, 2, 2, 2, 2, 4, 2, 2, 1, 2],
[2, 2, 2, 2, 2, 4, 2, 2, 1, 1, 1, 2, 1, 2, 4, 2, 2, 4],
[2, 2, 2, 2, 2, 1, 4, 2, 4, 1, 1, 4, 2, 2, 4, 1, 2, 2],
[2, 2, 2, 2, 4, 4, 2, 2, 2, 4, 1, 1, 2, 2, 2, 1, 2, 2],
[2, 2, 1, 1, 4, 4, 1, 2, 1, 1, 4, 1, 2, 2, 2, 1, 2, 2],
[2, 2, 4, 2, 0, 2, 2, 2, 2, 2, 4, 1, 1, 2, 2, 1, 2, 2],
[2, 4, 2, 4, 2, 2, 2, 2, 1, 2, 2, 2, 2, 1, 2, 2, 0, 2],
[2, 2, 4, 2, 4, 2, 2, 2, 1, 1, 1, 4, 2, 2, 1, 4, 2, 2],
[2, 2, 2, 2, 2, 2, 2, 2, 1, 2, 2, 2, 2, 2, 2, 4, 2, 0],
[2, 1, 2, 2, 2, 2, 2, 4, 2, 2, 2, 2, 2, 4, 2, 2, 1, 1],
[2, 4, 2, 1, 2, 2, 2, 2, 1, 1, 2, 2, 2, 2, 2, 4, 4, 2]
]
def getMultiplier(first, second, third):
id1 = types.index(first)
id2 = types.index(second)
if third in types:
id3 = types.index(third)
return results[id1][id2] * results[id1][id3] / 4;
else:
return results[id1][id2] / 2
def genFirstType(second, third, remain, removed):
mul = getMultiplier(remain[0][1], second, third)
if len(remain) == 1:
result = "[ first is not " + removed[1] + "\n"
result += "thus first must be " + remain[0][1] + "\n"
result += ">" * (multipliers[mul] - 1) + "[-]-> " + str(mul).replace(".", "").rstrip("0") + "x multiplier\n"
result += "]\n"
return result
elif not removed:
result = "<<" + "-" * remain[0][0] + " " + remain[0][1] + " is now 00\n"
result += genFirstType(second, third, remain[1:], remain[0])
result += "<+[ first is " + remain[0][1] + "\n"
result += ">" * multipliers[mul] + "[-] " + str(mul).replace(".", "").rstrip("0") + "x multiplier\n"
result += "]->\n"
return result
else:
result = "[ first is not " + removed[1] + "\n"
result += "-" * (remain[0][0] - removed[0]) + " " + remain[0][1] + " is now 00\n"
result += genFirstType(second, third, remain[1:], remain[0])
result += "<+[ first is " + remain[0][1] + "\n"
result += ">" * multipliers[mul] + "[-] " + str(mul).replace(".", "").rstrip("0") + "x multiplier\n"
result += "]->\n"
result += "]\n"
return result
def genSecondType(third, remain, removed):
if len(remain) == 1:
result = "[ second is not " + removed[1] + "\n"
result += "thus second must be " + remain[0][1] + "\n"
result += genFirstType(remain[0][1], third, typemap[1:], False)
result += "]\n"
return result
elif not removed:
result = "<<" + "-" * remain[0][0] + " " + remain[0][1] + " is now 00\n"
result += genSecondType(third, remain[1:], remain[0])
result += "<+[-> second is " + remain[0][1] + "\n"
result += genFirstType(remain[0][1], third, typemap[1:], False)
result += "<+]->\n"
return result
else:
result = "[ second is not " + removed[1] + "\n"
result += "-" * (remain[0][0] - removed[0]) + " " + remain[0][1] + " is now 00\n"
result += genSecondType(third, remain[1:], remain[0])
result += "<+[-> second is " + remain[0][1] + "\n"
result += genFirstType(remain[0][1], third, typemap[1:], False)
result += "<+]->\n"
result += "]\n"
return result
def genThirdType(remain, removed):
if len(remain) == 1:
result = "[ third is not " + removed[1] + "\n"
result += "thus third must be " + remain[0][1] + "\n"
result += genSecondType(remain[0][1], [item for item in typemap[1:] if item[1] != remain[0][1]], False)
result += "]\n"
return result
elif not removed:
result = "-" * remain[0][0] + " " + remain[0][1] + " is now 00\n"
result += genThirdType(remain[1:], remain[0])
result += "<+[-> third is " + remain[0][1] + "\n"
result += genSecondType(remain[0][1], [item for item in typemap[1:] if item[1] != remain[0][1]], False)
result += "<+]->\n"
return result
else:
result = "[ third is not " + removed[1] + "\n"
result += "-" * (remain[0][0] - removed[0]) + " " + remain[0][1] + " is now 00\n"
result += genThirdType(remain[1:], remain[0])
result += "<+[-> third is " + remain[0][1] + "\n"
result += genSecondType(remain[0][1], [item for item in typemap[1:] if item[1] != remain[0][1]], False)
result += "<+]->\n"
result += "]\n"
return result
def genLookup():
return genThirdType(typemap, False)
def compact(code):
import re
return re.sub(r"[^+\-<>\[\],.]", "", code)
def golfStep(code):
return code.replace("><", "").replace("<>", "").replace("+-", "").replace("-+", "")
def golf(code):
previous = golfStep(code)
while previous != code:
previous, code = code, golfStep(code)
return code
if __name__ == "__main__":
import sys
result = genLookup()
if "-g" in sys.argv:
print(golf(compact(result)))
elif "-c" in sys.argv:
print(compact(result))
else:
print(result)
Übrigens dauert diese Antwort 29817 Bytes. :)
