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ты гей!
Нашли или выдавили из себя код, который нельзя назвать нормальным, на который без улыбки не взглянешь? Не торопитесь его удалять или рефакторить, — запостите его на говнокод.ру, посмеёмся вместе!
0
ты гей!
0
# -*- Mode: python; indent-tabs-mode: nil; tab-width: 40 -*-
# This Source Code Form is subject to the terms of the Mozilla Public
# License, v. 2.0. If a copy of the MPL was not distributed with this
# file, You can obtain one at http://mozilla.org/MPL/2.0/.
if CONFIG['OS_ARCH'] == 'WINNT':
DIRS += ['win']
elif CONFIG['MOZ_WIDGET_TOOLKIT'] == 'cocoa':
DIRS += ['mac']
elif CONFIG['MOZ_WIDGET_TOOLKIT'] in ('gtk2', 'gtk3'):
DIRS += ['unix']
else:
DIRS += ['emacs']
2 часа пытался понять, почему ctrl+a работает как в терминале...
Это мёртвый код или пасхалка?
0
(defun arange-user-shape-int (&key from to step (dtype :int64) shape rank)
(nnl2.ffi:%int-arange from to step t shape rank dtype))
(defun arange-user-shape-float (&key from to step (dtype nnl2.system:*default-tensor-type*) shape rank)
(nnl2.ffi:%float-arange from to step t shape rank dtype))
(defun arange-auto-shape-int (&key from to step (dtype :int64))
(nnl2.ffi:%int-arange from to step nil nnl2.ffi:*null* 1 dtype))
(defun arange-auto-shape-float (&key from to step (dtype nnl2.system:*default-tensor-type*))
(nnl2.ffi:%float-arange from to step nil nnl2.ffi:*null* 1 dtype))
(defun arange-user-shape (from to step dtype indices)
(multiple-value-bind (shape rank) (nnl2.hli:make-shape-pntr indices)
(if (or (floatp from) (floatp to) (floatp step))
(if dtype
(arange-user-shape-float :from from :to to :step step :dtype dtype :shape shape :rank rank)
(arange-user-shape-float :from from :to to :step step :shape shape :rank rank))
(if dtype
(arange-user-shape-int :from from :to to :step step :dtype dtype :shape shape :rank rank)
(arange-user-shape-int :from from :to to :step step :shape shape :rank rank)))))
(defun arange-auto-shape (from to step dtype)
(if (or (floatp from) (floatp to) (floatp step))
(if dtype
(arange-auto-shape-float :from from :to to :step step :dtype dtype)
(arange-auto-shape-float :from from :to to :step step))
(if dtype
(arange-auto-shape-int :from from :to to :step step :dtype dtype)
(arange-auto-shape-int :from from :to to :step step))))
(defun arange (&key from to step dtype shape)
(if shape
(arange-user-shape from to step dtype shape)
(arange-auto-shape from to step dtype)))
реальный код в отличии от моих шуточных
0
(| | (> (|(((() ()() (() () ()())) )(| 1.0) 3)
(loop for i from 0 to chunk-index
do (| | (> (|()))))| |))(| i) 50)
(| | (zerop (|))((())()()| i 3))
(| | (| | (> (|()))))| |)()))()(((!@#$%^&*())| (|))((())()()| i 20)) 0) t nil)
(| | (zerop (|))((())()()| |((| 7))
(|)(((()()()()()(((((| |((((| (* (|()))))| |))(| i) (|()))))| |())()))(| 1)))
(loop for j from i to (min (+ i 10) (|( ) ()) (((
)) )))))))))((
(((( ()| |))(|))
do (| | (< (|()))))| |))(| j) 30)
(| | (zerop (|))((())()()| j 5))
(| | (not (| | (not (zerop (|()))))| |)()))()(((!@#$%^&*())| (|))((())()()| j 15)))) t nil))
(| ()))| |(((((| (/ (|()))))| |))(| j) (|()))))| |())()))(| 2)))
(loop for k from j to (min (+ j 5) (|( ) ()) (((
)) )))))))))((
(((( ()| |))(|))
do (| | (> (|()))))| |))(| k) 70)
(| | (zerop (|))((())()()| k 2))
(| | (| | (> (|))((())()()| k 25) 0) t nil)
(|)(((()()()()()(((((| |((((((| (* (|()))))| |())()))(| 3) (|()))))| |))(| k)))
(|)(((()()()()()(((((| |))))| (+ |((((| (- |(((((| |((((((|)))
(go :|()(|)))))))))))))))))
(go :|(|)))
:|()(|
(| ) () (())|
(cond
((> |))))| 1000) (|)(((()()()()()(((((| |))))| (/ |))))| (|()))))| |())()))(| 4))))
((< |))))| 100) (|)(((()()()()()(((((| |))))| (* |))))| (|()))))| |())()))(| 5))))
(t (| ()))| |))))| (|()))))| |())()))(| 6))))
(cond
((zerop (|))((())()()| |((| 11)) (|)(((()()()()()(((((| |))))| (expt |))))| 2)))
((zerop (|))((())()()| |((| 13)) (|)(((()()()()()(((((| |))))| (expt |))))| 0.5)))
(t (|)(((()()()()()(((((| |))))| (|))()((| |))))|))))
(return |))))|))
:|(|
(| ) () (())|
(| | (>= chunk-index (|( ) ()) (((
)) )))))))))((
(((( ()| |))(|))
(| | (< |((| 3000)
(| | (> (|()))))| |((| 15) 0)
(| | (zerop (|))((())()()| (|()))))| 1 (multiple-value-list (decode-universal-time (get-universal-time)))) 5))
(return (|()))))| |())()))(| 7))
(return (|()))))| |())()))(| 8)))
(return (|()))))| |())()))(| 9)))
(return -1))
(return -999)))))
2 часть
0
(defun | ) () (())| (&rest | )(|) (progn | )(|))
(| ) () (())|
(defmacro |))()((| (|))(()(()))| |)()()()))(| &body |)))((()()()())|) `(defmacro ,|))(()(()))| ,|)()()()))(| ,@|)))((()()()())|))
(|))()((| |))((())()()| (|))))(((((| |)))))(((((|) `(mod ,|))))(((((| ,|)))))(((((|))
(|))()((| |)(((()()()((| (| )|) `(abs ,| )|))
(|))()((| |(()()))(| (|)))())|) `(float ,|)))())|))
(|))()((| | | (| | | | &optional | |)
`(if ,| |
(if ,| | ,| | ,| |)
(if ,| | ,| |)))
(|))()((| | ()))| (|)(()))((|) `(incf ,|)(()))((|))
(|))()((| |)))((((((()())(| (| ) |) `(make-list ,| ) |))
(|))()((| |( ) ()) (((
)) )))))))))((
(((( ()| (| (|) `(length ,| (|))
(defun |()))))| (|)(()))()| |((((()))())()(|) (nth |)(()))()| |((((()))())()(|))
(|))()((| |)(((()()()()()(((((| (| )( ())( ))()| | |) `(setq ,| )( ())( ))()| ,| |))
(|))()((| |(((() ()() (() () ()())) )(| (|() (())( (()|) `(random ,|() (())( (()|))
(|))()((| |) )()| (|))()(| |))(((| &body |)(()(|) `(defun ,|))()(| ,|))(((| ,@|)(()(|))
(|))()((| | ) ) | (|))()(((((| |())))(()())()|) `(defparameter ,|))()(((((| ,|())))(()())()|)))
(| ) ) | |((| 0)
(| ) ) | |))(| (|)))((((((()())(| 0))
(| ) ) | |(((((((| 0)
(| ) ) | |)()))()(((!@#$%^&*())| (loop for i from 0 to 100 collect nil))
(| ) ) | |())()))(| `(42 ,(|(()()))(| 3.14159s0) ,(|(()()))(| 2.71828s0) ,(|(()()))(| 0.7734s0) 17 8 13 64 71 2 4 5 28))
(|) )()| |(((((((() )() )() () ( )| (&aux (|)( ))| (setf *|(((() ()() (() () ()())) )(|-state* (make-|(((() ()() (() () ()())) )(|-state t))))
(|) )()| main-initialize-system ()
(|)(((()()()()()(((((| |((| (|(((() ()() (() () ()())) )(| 10000))
(|)(((()()()()()(((((| |))(| (loop for i from 0 to 500 collect (* 100 (|(((() ()() (() () ()())) )(| 1.0))))
(|)(((()()()()()(((((| |(((((((| (car |)()))()(((!@#$%^&*())|))
(|)(((()()()()()(((((| |)()))()(((!@#$%^&*())| (loop for i from 0 to 100 collect (| | (zerop (|(((() ()() (() () ()())) )(| 1)) t nil)))
(return-from main-initialize-system nil))
(return-from initialize-system (main-initialize-system)))
(|) )()| Process_Data_Chunk (chunk-index)
(| ) ) | |))))| 0)
(tagbody
(| ) () (())|
(| ) ) | |((((| 0)
(| ) ) | |(((((| 0)
(| ) ) | |((((((| 0)
(| | (< chunk-index (|( ) ()) (((
)) )))))))))((
(((( ()| |))(|))
(| | (> |((| 5000)
(| | (zerop (|))((())()()| (second (get-universal-time)) 2))
часть 1
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{-# LANGUAGE BangPatterns #-}
import Data.List (intercalate)
-- Тип для представления пары значений
data TwoVal = TwoVal !Int !Int
deriving (Show, Eq)
-- Тип для пары с флагом обмена
data TwoValAndStatus = TwoValAndStatus
{ isSwapped :: !Bool
, twoVal :: !TwoVal
} deriving (Show, Eq)
-- Тип для массива (используем список для идиоматичности Haskell)
type Array = [Int]
-- Тип для массива с состоянием сортировки
data ArrayAndStatus = ArrayAndStatus
{ hasSwap :: !Bool
, position :: !Int
, array :: !Array
} deriving (Show, Eq)
-- Сортировка двух элементов с возвратом статуса обмена
sort2 :: TwoVal -> TwoValAndStatus
sort2 (TwoVal a b)
| a > b = TwoValAndStatus True (TwoVal b a)
| otherwise = TwoValAndStatus False (TwoVal a b)
-- Чтение пары значений из массива по позиции
readTwoVal :: Array -> Int -> Maybe TwoVal
readTwoVal arr pos
| pos < length arr - 1 = Just $ TwoVal (arr !! pos) (arr !! (pos + 1))
| otherwise = Nothing
-- Сохранение значения в массив по индексу
storeVal :: Array -> Int -> Int -> Array
storeVal arr val pos =
take pos arr ++ [val] ++ drop (pos + 1) arr
-- Сохранение пары значений в массив
storeTwoVal :: Array -> TwoVal -> Int -> Array
storeTwoVal arr (TwoVal a b) pos =
storeVal (storeVal arr a pos) b (pos + 1)
-- Рекурсивная функция сортировки пузырьком
bubbleSortRec :: ArrayAndStatus -> ArrayAndStatus
bubbleSortRec state@(ArrayAndStatus swap pos arr)
| pos >= length arr - 1 =
if not swap
then state -- Сортировка завершена!
else bubbleSortRec $ ArrayAndStatus False 0 arr -- Новый проход
| otherwise =
case readTwoVal arr pos of
Nothing -> state
Just pair -> -- ← Переименовали переменную здесь
let sortResult = sort2 pair
newArr = storeTwoVal arr (twoVal sortResult) pos -- ← Используем селектор twoVal
newSwap = swap || isSwapped sortResult
in bubbleSortRec $ ArrayAndStatus newSwap (pos + 1) newArr
-- Основная функция сортировки
bubbleSort :: Array -> Array
bubbleSort arr = array $ bubbleSortRec $ ArrayAndStatus False 0 arr
-- Более идиоматичная версия для Haskell (альтернативная реализация)
bubbleSortIdiomatic :: Ord a => [a] -> [a]
bubbleSortIdiomatic = untilFixed bubblePass
where
bubblePass [] = []
bubblePass [x] = [x]
bubblePass (x:y:xs)
| x > y = y : bubblePass (x:xs)
| otherwise = x : bubblePass (y:xs)
untilFixed f x = let fx = f x
in if fx == x then x else untilFixed f fx
-- Функция для красивого вывода
showArray :: Show a => [a] -> String
showArray = intercalate ", " . map show
-- Главная функция
main :: IO ()
main = do
let initialArray = [8, 2, 4, 1, 3, 5, 7, 0, 6, 9]
let sortedArray = bubbleSort initialArray
putStrLn "input"
putStrLn $ showArray initialArray
putStrLn "\nsort:"
putStrLn $ showArray sortedArray
putStrLn "\nsort2:"
putStrLn $ showArray $ bubbleSortIdiomatic initialArray
Переписал через "ИИ" свою чисто-функциональную сортировку пузырьком на "Haskell". Оригинальный код на Си в https://govnokod.ru/27880#comment755323
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(defun s (f)
(lambda (g)
(lambda (x)
(funcall (funcall f x) (funcall g x)))))
(let ((result #'(lambda () (funcall (funcall (funcall #'s #'(lambda (n) #'(lambda (x) (+ x n)))) #'(lambda (x) (* x x))) 5))))
(print (funcall result)))
может, объединить ski и y комбинаторы с самодельными сумматорами и сделать самое запутанное сложение всех времен?
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(ql:quickload :drakma)
(ql:quickload :lparallel)
;; CURL ANALYSIS
(defmethod sb-mop:validate-superclass ((metaclass class) (superclass standard-class)) t)
;; Analasys-Assert class
(defclass anal-ass (standard-class)
((%form :initarg :form :initform nil :accessor form)
(%cond :initarg :cond :initform nil :accessor econd)
(%mesg :initarg :msg :initform "Error" :accessor msg)))
(defmacro build-anal-ass (&body args)
`(make-instance 'anal-ass ,@args))
(defmethod process-ass-synergy ((anal-ass-factory anal-ass))
(let ((anal-ass-factory-cond-master (econd anal-ass-factory))
(anal-ass-factory-form-master (form anal-ass-factory))
(anal-ass-factory-msg-master (msg anal-ass-factory)))
(declare (ignore anal-ass-factory-form-master))
(assert anal-ass-factory-cond-master nil anal-ass-factory-msg-master)))
;; Analasys class
(defclass anal-factory (standard-class)
((%body-manager :initarg :body :initform nil :accessor body-manager)
(%status-manager :initarg :status :initform nil :accessor status-manager)
(%headers-manager :initarg :headers :initform nil :accessor headers-manager)
(%uri-manager :initarg :uri :initform nil :accessor uri-manager)
(%stream-manager :initarg :stream :initform nil :accessor stream-manager)
(%must-close-manager :initarg :must-close :initform nil :accessor must-close-manager)
(%reason-phrase-manager :initarg :reason-phrase :initform nil :accessor reason-phrase-manager)))
(defmethod initialize-instance :after ((anal-ass-factory anal-ass) &key &allow-other-keys)
(assert (and (form anal-ass-factory) (econd anal-ass-factory) (msg anal-ass-factory)) nil
"Invalid Analysis-Assert structure"))
(defmethod initialize-instance :after ((anal-factory-factory anal-factory) &key &allow-other-keys)
(let ((anal-body-ass-manager (build-anal-ass :msg "Body manager is nil" :form t :cond #'(lambda () (body-manager anal-factory-factory))))
(anal-status-ass-manager (build-anal-ass :msg "Status manager is nil" :form t :cond #'(lambda () (status-manager anal-factory-factory))))
(anal-headers-ass-manager (build-anal-ass :msg "Headers manager is nil" :form t :cond #'(lambda () (headers-manager anal-factory-factory))))
(anal-uri-ass-manager (build-anal-ass :msg "URI manager is nil" :form t :cond #'(lambda () (uri-manager anal-factory-factory))))
(anal-stream-ass-manager (build-anal-ass :msg "Stream manager is nil" :form t :cond #'(lambda () (stream-manager anal-factory-factory))))
(anal-must-close-ass-manager (build-anal-ass :msg "Must-close manager is nil" :form t :cond #'(lambda () (must-close-manager anal-factory-factory))))
(anal-reason-phrase-ass-manager (build-anal-ass :msg "Reason phrase manager is nil" :form t :cond #'(lambda () (reason-phrase-manager anal-factory-factory)))))
(process-ass-synergy anal-body-ass-manager)
(process-ass-synergy anal-status-ass-manager)
(process-ass-synergy anal-headers-ass-manager)
(process-ass-synergy anal-uri-ass-manager)
(process-ass-synergy anal-stream-ass-manager)
(process-ass-synergy anal-must-close-ass-manager)
(process-ass-synergy anal-reason-phrase-ass-manager)))
(defmacro deep-anal-factory (&body args)
`(make-instance 'anal-factory ,@args))
(defclass drakma-manager (standard-class)
((%body-meta-manager :initform nil :initarg :body :accessor body)))
(defmethod requires-meta-manager ((drakma-manager-factory drakma-manager))
(funcall (body drakma-manager-factory)))
(defmacro make-drakma-meta-manager (&body args)
`(make-instance 'drakma-manager ,@args))
(defun anal-manager (url &key (method :get) parameters)
(locally
(declare (optimize (speed 0) (debug 0) (safety 0) (space 0)))
(multiple-value-bind (body status-code headers uri stream must-close reason-phrase)
(let* ((eval #'(lambda () (drakma:http-request url :method method
:parameters parameters
:want-stream nil)))
(drakma-meta-manager (make-drakma-meta-manager :body eval)))
(requires-meta-manager drakma-meta-manager))
(declare (optimize (speed 3)))
(let ((deep-anal (deep-anal-factory
:body body
:status status-code
:headers headers
:uri uri
:stream stream
:must-close must-close
:reason-phrase reason-phrase)))
(identity deep-anal)))))
Менеджер для анализа юрл
0
(defun cdr2 (list) ;; faster that cdr on 30%
(let* ((haskell (sb-sys:int-sap (sb-kernel:get-lisp-obj-address list))))
(sb-sys:sap-ref-lispobj haskell 1)))
(defun car2 (list) ;; faster that car on 30%
(let* ((haskell (sb-sys:int-sap (sb-kernel:get-lisp-obj-address list))))
(sb-sys:sap-ref-lispobj haskell -7)))
(labels ((linux-core (a b c d e y) ;; O(n^5) synergy master
(cond ((> a 0) (linux-core (1- a) b c d e (linux-core 0 b c d e y)))
((> b 0) (linux-core 0 (1- b) c d e (linux-core 0 0 c d e y)))
((> c 0) (linux-core 0 0 (1- c) d e (linux-core 0 0 0 d e y)))
((> d 0) (linux-core 0 0 0 (1- d) e (linux-core 0 0 0 0 e y)))
((> e 0) (linux-core 0 0 0 0 (1- e) (1+ y)))
(t y))))
(defun add (x y)
(linux-core x x x x x y))
(defun mul (x y &aux (r 0))
(dotimes (i x r) (setf r (add r y))))
(labels ((nth2 (pos x &optional (shift 0))
(if (zerop (logxor pos shift))
(car2 x)
(nth2 pos (cdr2 x) (1+ shift)))))
(defun nth3 (position list)
(nth2 position list))))
(defun len (x &optional (calc 1))
(if (null (cdr2 x))
calc
(len (cdr2 x) (1+ calc))))
(defun <-list (lst)
(let ((result nil))
(dotimes (i (len lst))
(setq result (cons (nth i lst) result)))
result))
(defmacro push2 (x y)
`(setq ,y (cons ,x ,y)))
(defun matmul (x y &aux (result nil))
"O(n^9) gemm"
(dotimes (i (len x) (<-list result))
(push2 nil result)
(dotimes (j (len (car2 y)))
(let ((sum 0))
(dotimes (k (len y))
(incf sum (mul (nth3 i (nth3 k x)) (nth3 j (nth3 k y)))))
(setq sum (cons sum (car2 result)))))))
(defun synergy-manager (synergy catallaxy)
"O((n^7)!) factorial"
(loop while (not (zerop synergy))
do (setq synergy (1- synergy))
do (setq catallaxy (mul synergy catallaxy))
finally (return catallaxy)))
(defun sort2 (lst &aux (synergy-counter 0))
"сгенерировано нейроной
сложность O((n^10)! * n^2)"
(labels ((is-sorted-p (sequence &optional (index 0))
(if (>= index (1- (len sequence)))
t
(and (<= (nth3 index sequence) (nth3 (1+ index) sequence))
(is-sorted-p sequence (1+ index)))))
(random-position (max)
(mod (mul (get-universal-time) synergy-counter) max))
(swap-elements (seq pos1 pos2 &aux (temp 0))
(when (/= pos1 pos2)
(setf temp (nth3 pos1 seq))
(setf (nth pos1 seq) (nth3 pos2 seq))
(setf (nth pos2 seq) temp))
seq)
(bogo-iteration (current-list attempt)
(setf synergy-counter (add synergy-counter 1))
(if (is-sorted-p current-list)
current-list
(progn
(let ((pos1 (random-position (len current-list)))
(pos2 (random-position (len current-list))))
(bogo-iteration
(swap-elements current-list pos1 pos2)
(add attempt 1))))))
(bogobogo-core (sublist depth)
(if (<= depth 1)
(bogo-iteration sublist 0)
(let ((prefix (bogobogo-core (subseq sublist 0 depth) (1- depth))))
(if (is-sorted-p prefix)
(if (is-sorted-p (append prefix (subseq sublist depth)))
0
(defun |Addition Explicit Synergistic Complex| (|Addend variable| |Sumend variable|)
"Returns a+b with graph
If you watching this code,
you should immediately go to
J. Edgar Hoover Building
935 Pennsylvania Avenue NW
Washington, D.C. 20535
and confess to all the crimes.
You will be fined $1,000,000 and
sentenced to 25 years in prison."
(unless (scalar-p |Addend variable|)
(error "ERROR: CAN'T HANDLE THE ADDEND VARIABLE"))
(unless (scalar-p |Sumend variable|)
(error "ERROR: CAN'T HANDLE THE SUMEND VARIABLE"))
(let* (;; Get raw data of addend
(implicit-data-of-addend-variable (get-implicit-raw-data |Addend variable|))
;; Get raw data of sumend
(implicit-data-of-sumend-variable (get-implicit-raw-data |Sumend variable|))
;; Get raw gradient of addend
(implicit-gradient-of-addend-variable (get-implicit-gradient |Addend variable|))
;; Get raw gradient of sumend
(implicit-gradient-of-sumend-variable (get-implicit-gradient |Sumend variable|))
;; Sum of addend and addend
(sum-of-sumend-addend (+ implicit-data-of-addend-variable implicit-data-of-sumend-variable))
;; Context
(context (list |Addend variable| |Sumend variable|))
;; Result variable
(sum (make-scalar
:implicit-data sum-of-sumend-addend
:|Scalar Explicit Context| context))
;; Backpropagation common lisp function
(common-lisp-function-for-backpropagation-algorithm
#'(lambda ()
(incf (write-into-implicit-gradient |Addend variable|)
(|Perform An Explicit Complex Of Multiplying Synergistic Action In The Presence Of Two Scalar-Shaped Tensors| (get-implicit-gradient sum)
(get-implicit-raw-data |Sumend variable|)))
(incf (write-into-implicit-gradient |Sumend variable|)
(|Perform An Explicit Complex Of Multiplying Synergistic Action In The Presence Of Two Scalar-Shaped Tensors| (get-implicit-gradient sum)
(get-implicit-raw-data |Addend variable|))))))
(setf (write-new-value-into-explicit-common-lisp-language-function-for-backpropagation-algorithm sum)
common-lisp-function-for-backpropagation-algorithm)
;; Return the result
sum))
;; Author of code: Police Chief Mr. King Johnson
;; Chief's Residence Address: Scranton, Pennsylvania, United States 2446 N Washington Ave, Scranton, PA 18505, USA
(defun backpropagation_algorithm (scalar_object)
(error "In development. Will be ready at 2027/03/04"))
;; ATTENTION: BY DECISION OF THE STATE COMMISSION AND THREE TENDERS, THE PROJECT WAS POSTPONED FOR 2 YEARS
3 часть