X-Git-Url: http://repo.macrolet.net/gitweb/?a=blobdiff_plain;f=tests%2Farray.pure.lisp;h=5068878805396a363a38e8682d92db0e899a1735;hb=2253ebaef8a0a1527d2282a1c10f48c62e0d4a83;hp=2a8fac0ff109a02862d589c0dc4541329f45ff3e;hpb=c03cebe05df9c538f85d30aa5f22c5ca1f3a8283;p=sbcl.git diff --git a/tests/array.pure.lisp b/tests/array.pure.lisp index 2a8fac0..5068878 100644 --- a/tests/array.pure.lisp +++ b/tests/array.pure.lisp @@ -96,3 +96,116 @@ (assert (array-in-bounds-p a 7)) (assert (not (array-in-bounds-p a 11))) (assert (not (array-in-bounds-p a (1+ most-positive-fixnum))))) + +;;; arrays of bits should work: +(let ((a (make-array '(10 10) :element-type 'bit :adjustable t))) + (setf (bit a 0 0) 1) + (assert (= (bit a 0 0) 1))) +(let ((a (make-array '(10 10) :element-type 'bit))) + (setf (sbit a 0 0) 1) + (assert (= (sbit a 0 0) 1))) + +(let ((x (copy-seq #*0011)) + (y (copy-seq #*0101))) + (assert (equalp (bit-and x y nil) #*0001))) + +;;; arrays of NIL should work, FSVO "work". +(let ((a (make-array '(10 10) :element-type 'nil))) + (assert (= (array-total-size a) 100)) + (assert (equal (array-dimensions a) '(10 10))) + (assert (eq (array-element-type a) 'nil))) + +(assert (eq (upgraded-array-element-type 'nil) 'nil)) + +(multiple-value-bind (fun warn fail) + (compile nil '(lambda () (aref (make-array 0) 0))) + #+nil (assert fail) ; doesn't work, (maybe because ASSERTED-TYPE is NIL?) + (assert (raises-error? (funcall fun) type-error))) + +(multiple-value-bind (fun warn fail) + (compile nil '(lambda () (aref (make-array 1) 1))) + (assert fail) + (assert (raises-error? (funcall fun) type-error))) + +(multiple-value-bind (fun warn fail) + (compile nil '(lambda () (make-array 5 :element-type 'undefined-type))) + (assert warn)) + +(flet ((opaque-identity (x) x)) + (declare (notinline opaque-identity)) + ;; we used to have leakage from cross-compilation hosts of the INDEX + ;; type, which prevented us from actually using all the large array + ;; dimensions that we promised. Let's make sure that we can create + ;; an array with more than 2^24 elements, since that was a symptom + ;; from the CLISP and OpenMCL hosts. + (let ((big-array (opaque-identity + (make-array (expt 2 26) :element-type 'bit)))) + (assert (= (length big-array) (expt 2 26))))) + +;;; Bug reported by Kalle Olavi Niemitalo for CMUCL through Debian BTS +(let ((array (make-array nil :initial-contents nil))) + (assert (eql (aref array) nil))) + +(let ((f (compile nil '(lambda () + (let ((a (make-array '(4) + :element-type 'base-char + :initial-element #\z))) + (setf (aref a 0) #\a) + (setf (aref a 1) #\b) + (setf (aref a 2) #\c) + a))))) + (assert (= (length (funcall f)) 4))) + +(let ((x (make-array nil :initial-element 'foo))) + (adjust-array x nil) + (assert (eql (aref x) 'foo))) + +;;; BUG 315: "no bounds check for access to displaced array" +;;; reported by Bruno Haible sbcl-devel "various SBCL bugs" from CLISP +;;; test suite. +(multiple-value-bind (val err) + (ignore-errors + (locally (declare (optimize (safety 3) (speed 0))) + (let* ((x (make-array 10 :fill-pointer 4 :element-type 'character + :initial-element #\space :adjustable t)) + (y (make-array 10 :fill-pointer 4 :element-type 'character + :displaced-to x))) + (adjust-array x '(5)) + (char y 5)))) + (assert (and (not val) (typep err 'sb-kernel:displaced-to-array-too-small-error)))) + +;;; MISC.527: bit-vector bitwise operations used LENGTH to get a size +;;; of a vector +(flet ((bit-vector-equal (v1 v2) + (and (bit-vector-p v1) (bit-vector-p v2) + (equal (array-dimension v1 0) (array-dimension v2 0)) + (loop for i below (array-dimension v1 0) + always (eql (aref v1 i) (aref v2 i)))))) + (let* ((length 1024) + (v1 (make-array length :element-type 'bit :fill-pointer 0)) + (v2 (make-array length :element-type 'bit :fill-pointer 1))) + (loop for i from 0 below length + for x1 in '#1=(0 0 1 1 . #1#) + and x2 in '#2=(0 1 0 1 . #2#) + do (setf (aref v1 i) x1) + do (setf (aref v2 i) x2)) + (loop for (bf lf) in '((bit-and logand) + (bit-andc1 logandc1) + (bit-andc2 logandc2) + (bit-eqv logeqv) + (bit-ior logior) + (bit-nand lognand) + (bit-nor lognor) + (bit-orc1 logorc1) + (bit-orc2 logorc2) + (bit-xor logxor) + ((lambda (x y) (bit-not x)) #.(lambda (x y) (lognot x)))) + for fun = (compile nil `(lambda (v) + (declare (type (array bit (*)) v)) + (declare (optimize (speed 3) (safety 0))) + (,bf v ,v2))) + for r1 = (funcall fun v1) + and r2 = (coerce (loop for i below length + collect (logand 1 (funcall lf (aref v1 i) (aref v2 i)))) + 'bit-vector) + do (assert (bit-vector-equal r1 r2)))))