Mercurial > hg > xemacs-beta
view tests/automated/hash-table-tests.el @ 5318:203dcac81dae
Provide some milquetoast compatibility in our errors, type-error, program-error
2010-12-30 Aidan Kehoe <kehoea@parhasard.net>
* cl.el:
Provde the Common Lisp program-error, type-error as error
symbols. This doesn't nearly go far enough for anyone using the
Common Lisp errors.
author | Aidan Kehoe <kehoea@parhasard.net> |
---|---|
date | Thu, 30 Dec 2010 00:15:37 +0000 |
parents | 71ee43b8a74d |
children | 308d34e9f07d |
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;; Copyright (C) 1998 Free Software Foundation, Inc. ;; Author: Martin Buchholz <martin@xemacs.org> ;; Maintainer: Martin Buchholz <martin@xemacs.org> ;; Created: 1998 ;; Keywords: tests, database ;; This file is part of XEmacs. ;; XEmacs is free software; you can redistribute it and/or modify it ;; under the terms of the GNU General Public License as published by ;; the Free Software Foundation; either version 2, or (at your option) ;; any later version. ;; XEmacs is distributed in the hope that it will be useful, but ;; WITHOUT ANY WARRANTY; without even the implied warranty of ;; MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the GNU ;; General Public License for more details. ;; You should have received a copy of the GNU General Public License ;; along with XEmacs; see the file COPYING. If not, write to the Free ;; Software Foundation, Inc., 59 Temple Place - Suite 330, Boston, MA ;; 02111-1307, USA. ;;; Synched up with: Not in FSF. ;;; Commentary: ;;; Test hash tables implementation ;;; See test-harness.el (condition-case err (require 'test-harness) (file-error (when (and (boundp 'load-file-name) (stringp load-file-name)) (push (file-name-directory load-file-name) load-path) (require 'test-harness)))) ;; Test all combinations of make-hash-table keywords (dolist (test '(eq eql equal equalp)) (dolist (size '(0 1 100)) (dolist (rehash-size '(1.1 9.9)) (dolist (rehash-threshold '(0.2 .9)) (dolist (weakness '(nil key value key-or-value key-and-value)) (dolist (data '(() (1 2) (1 2 3 4))) (let ((ht (make-hash-table :test test :size size :rehash-size rehash-size :rehash-threshold rehash-threshold :weakness weakness))) (Assert (equal ht (car (let ((print-readably t)) (read-from-string (prin1-to-string ht)))))) (Assert (eq test (hash-table-test ht))) (Assert (<= size (hash-table-size ht))) (Assert (eql rehash-size (hash-table-rehash-size ht))) (Assert (eql rehash-threshold (hash-table-rehash-threshold ht))) (Assert (eq weakness (hash-table-weakness ht)))))))))) (loop for (fun weakness) in '((make-hashtable nil) (make-weak-hashtable key-and-value) (make-key-weak-hashtable key) (make-value-weak-hashtable value)) do (Assert (eq weakness (hash-table-weakness (funcall fun 10))))) (loop for (type weakness) in '((non-weak nil) (weak key-and-value) (key-weak key) (value-weak value)) do (Assert (equal (make-hash-table :type type) (make-hash-table :weakness weakness)))) (Assert (not (equal (make-hash-table :weakness nil) (make-hash-table :weakness t)))) (let ((ht (make-hash-table :size 20 :rehash-threshold .75 :test 'eq)) (size 80)) (Assert (hashtablep ht)) (Assert (hash-table-p ht)) (Assert (eq 'eq (hash-table-test ht))) (Assert (eq 'non-weak (hash-table-type ht))) (Assert (eq 'non-weak (hashtable-type ht))) (Assert (eq 'nil (hash-table-weakness ht))) (dotimes (j size) (puthash j (- j) ht) (Assert (eq (gethash j ht) (- j))) (Assert (= (hash-table-count ht) (1+ j))) (Assert (= (hashtable-fullness ht) (hash-table-count ht))) (puthash j j ht) (Assert (eq (gethash j ht 'foo) j)) (Assert (= (hash-table-count ht) (1+ j))) (setf (gethash j ht) (- j)) (Assert (eq (gethash j ht) (- j))) (Assert (= (hash-table-count ht) (1+ j)))) (clrhash ht) (Assert (= 0 (hash-table-count ht))) (dotimes (j size) (puthash j (- j) ht) (Assert (eq (gethash j ht) (- j))) (Assert (= (hash-table-count ht) (1+ j)))) (let ((k-sum 0) (v-sum 0)) (maphash #'(lambda (k v) (incf k-sum k) (incf v-sum v)) ht) (Assert (= k-sum (/ (* size (- size 1)) 2))) (Assert (= v-sum (- k-sum)))) (let ((count size)) (dotimes (j size) (remhash j ht) (Assert (eq (gethash j ht) nil)) (Assert (eq (gethash j ht 'foo) 'foo)) (Assert (= (hash-table-count ht) (decf count)))))) (let ((ht (make-hash-table :size 30 :rehash-threshold .25 :test 'equal)) (size 70)) (Assert (hashtablep ht)) (Assert (hash-table-p ht)) (Assert (>= (hash-table-size ht) (/ 30 .25))) (Assert (eql .25 (hash-table-rehash-threshold ht))) (Assert (eq 'equal (hash-table-test ht))) (Assert (eq (hash-table-test ht) (hashtable-test-function ht))) (Assert (eq 'non-weak (hash-table-type ht))) (dotimes (j size) (puthash (int-to-string j) (- j) ht) (Assert (eq (gethash (int-to-string j) ht) (- j))) (Assert (= (hash-table-count ht) (1+ j))) (puthash (int-to-string j) j ht) (Assert (eq (gethash (int-to-string j) ht 'foo) j)) (Assert (= (hash-table-count ht) (1+ j)))) (clrhash ht) (Assert (= 0 (hash-table-count ht))) (Assert (equal ht (copy-hash-table ht))) (dotimes (j size) (setf (gethash (int-to-string j) ht) (- j)) (Assert (eq (gethash (int-to-string j) ht) (- j))) (Assert (= (hash-table-count ht) (1+ j)))) (let ((count size)) (dotimes (j size) (remhash (int-to-string j) ht) (Assert (eq (gethash (int-to-string j) ht) nil)) (Assert (eq (gethash (int-to-string j) ht 'foo) 'foo)) (Assert (= (hash-table-count ht) (decf count)))))) (let ((iterations 5) (one 1.0) (two 2.0)) (flet ((check-copy (ht) (let ((copy-of-ht (copy-hash-table ht))) (Assert (equal ht copy-of-ht)) (Assert (not (eq ht copy-of-ht))) (Assert (eq (hash-table-count ht) (hash-table-count copy-of-ht))) (Assert (eq (hash-table-type ht) (hash-table-type copy-of-ht))) (Assert (eq (hash-table-size ht) (hash-table-size copy-of-ht))) (Assert (eql (hash-table-rehash-size ht) (hash-table-rehash-size copy-of-ht))) (Assert (eql (hash-table-rehash-threshold ht) (hash-table-rehash-threshold copy-of-ht)))))) (let ((ht (make-hash-table :size 100 :rehash-threshold .6 :test 'eq))) (dotimes (j iterations) (puthash (+ one 0.0) t ht) (puthash (+ two 0.0) t ht) (puthash (cons 1 2) t ht) (puthash (cons 3 4) t ht)) (Assert (eq (hashtable-test-function ht) 'eq)) (Assert (eq (hash-table-test ht) 'eq)) (Assert (= (* iterations 4) (hash-table-count ht))) (Assert (eq nil (gethash 1.0 ht))) (Assert (eq nil (gethash '(1 . 2) ht))) (check-copy ht) ) (let ((ht (make-hash-table :size 100 :rehash-threshold .6 :test 'eql))) (dotimes (j iterations) (puthash (+ one 0.0) t ht) (puthash (+ two 0.0) t ht) (puthash (cons 1 2) t ht) (puthash (cons 3 4) t ht)) (Assert (eq (hashtable-test-function ht) 'eql)) (Assert (eq (hash-table-test ht) 'eql)) (Assert (= (+ 2 (* 2 iterations)) (hash-table-count ht))) (Assert (eq t (gethash 1.0 ht))) (Assert (eq nil (gethash '(1 . 2) ht))) (check-copy ht) ) (let ((ht (make-hash-table :size 100 :rehash-threshold .6 :test 'equal))) (dotimes (j iterations) (puthash (+ one 0.0) t ht) (puthash (+ two 0.0) t ht) (puthash (cons 1 2) t ht) (puthash (cons 3 4) t ht)) (Assert (eq (hashtable-test-function ht) 'equal)) (Assert (eq (hash-table-test ht) 'equal)) (Assert (= 4 (hash-table-count ht))) (Assert (eq t (gethash 1.0 ht))) (Assert (eq t (gethash '(1 . 2) ht))) (check-copy ht) ) (let ((ht (make-hash-table :size 100 :rehash-threshold .6 :test 'equalp))) (dotimes (j iterations) (puthash (+ one 0.0) t ht) (puthash 1 t ht) (puthash (+ two 0.0) t ht) (puthash 2 t ht) (puthash (cons 1.0 2.0) (gensym) ht) ;; Override the previous entry. (puthash (cons 1 2) t ht) (puthash (cons 3.0 4.0) (gensym) ht) (puthash (cons 3 4) t ht)) (Assert (eq (hashtable-test-function ht) 'equalp)) (Assert (eq (hash-table-test ht) 'equalp)) (Assert (= 4 (hash-table-count ht))) (Assert (eq t (gethash 1.0 ht))) (Assert (eq t (gethash '(1 . 2) ht))) (check-copy ht) ) )) ;; Test that weak hash-tables are properly handled (loop for (weakness expected-count expected-k-sum expected-v-sum) in '((nil 6 38 25) (t 3 6 9) (key 4 38 9) (value 4 6 25)) do (let* ((ht (make-hash-table :weakness weakness)) (my-obj (cons ht ht))) (garbage-collect) (puthash my-obj 1 ht) (puthash 2 my-obj ht) (puthash 4 8 ht) (puthash (cons ht ht) 16 ht) (puthash 32 (cons ht ht) ht) (puthash (cons ht ht) (cons ht ht) ht) (let ((k-sum 0) (v-sum 0)) (maphash #'(lambda (k v) (when (integerp k) (incf k-sum k)) (when (integerp v) (incf v-sum v))) ht) (Assert (eq 38 k-sum)) (Assert (eq 25 v-sum))) (Assert (eq 6 (hash-table-count ht))) (garbage-collect) (Assert (eq expected-count (hash-table-count ht))) (let ((k-sum 0) (v-sum 0)) (maphash #'(lambda (k v) (when (integerp k) (incf k-sum k)) (when (integerp v) (incf v-sum v))) ht) (Assert (eq expected-k-sum k-sum)) (Assert (eq expected-v-sum v-sum))))) ;;; Test the ability to puthash and remhash the current elt of a maphash (let ((ht (make-hash-table :test 'eql))) (dotimes (j 100) (setf (gethash j ht) (- j))) (maphash #'(lambda (k v) (if (oddp k) (remhash k ht) (puthash k (- v) ht))) ht) (let ((k-sum 0) (v-sum 0)) (maphash #'(lambda (k v) (incf k-sum k) (incf v-sum v)) ht) (Assert (= (* 50 49) k-sum)) (Assert (= v-sum k-sum)))) ;;; Test reading and printing of hash-table objects (let ((h1 #s(hashtable :weakness t :rehash-size 3.0 :rehash-threshold .2 :test eq :data (1 2 3 4))) (h2 #s(hash-table :weakness t :rehash-size 3.0 :rehash-threshold .2 :test eq :data (1 2 3 4))) (h3 (make-hash-table :weakness t :rehash-size 3.0 :rehash-threshold .2 :test 'eq))) (Assert (equal h1 h2)) (Assert (not (equal h1 h3))) (puthash 1 2 h3) (puthash 3 4 h3) (Assert (equal h1 h3))) ;;; Testing equality of hash tables (Assert (equal (make-hash-table :test 'eql :size 300 :rehash-threshold .9 :rehash-size 3.0) (make-hash-table :test 'eql))) (Assert (not (equal (make-hash-table :test 'eq) (make-hash-table :test 'equal)))) (let ((h1 (make-hash-table)) (h2 (make-hash-table))) (Assert (equal h1 h2)) (Assert (not (eq h1 h2))) (puthash 1 2 h1) (Assert (not (equal h1 h2))) (puthash 1 2 h2) (Assert (equal h1 h2)) (puthash 1 3 h2) (Assert (not (equal h1 h2))) (clrhash h1) (Assert (not (equal h1 h2))) (clrhash h2) (Assert (equal h1 h2)) ) ;;; Test sxhash (Assert (= (sxhash "foo") (sxhash "foo"))) (Assert (= (sxhash '(1 2 3)) (sxhash '(1 2 3)))) (Assert (/= (sxhash '(1 2 3)) (sxhash '(3 2 1)))) ;; Test #'define-hash-table-test. (defstruct hash-table-test-structure number-identifier padding-zero padding-one padding-two) (macrolet ((good-hash () 65599) (hash-modulo-figure () (if (featurep 'bignum) (1+ (* most-positive-fixnum 2)) most-positive-fixnum)) (hash-table-test-structure-first-hash-figure () (rem* (* 65599 (eq-hash 'hash-table-test-structure)) (if (featurep 'bignum) (1+ (* most-positive-fixnum 2)) most-positive-fixnum)))) (let ((hash-table-test (gensym)) (no-entry-found (gensym)) (two 2.0) (equal-function #'(lambda (object-one object-two) (or (equal object-one object-two) (and (hash-table-test-structure-p object-one) (hash-table-test-structure-p object-two) (= (hash-table-test-structure-number-identifier object-one) (hash-table-test-structure-number-identifier object-two)))))) (hash-function #'(lambda (object) (if (hash-table-test-structure-p object) (rem* (+ (hash-table-test-structure-first-hash-figure) (equalp-hash (hash-table-test-structure-number-identifier object))) (hash-modulo-figure)) (equal-hash object)))) hash-table-test-hash equal-hash) (Check-Error wrong-type-argument (define-hash-table-test "hi there everyone" equal-function hash-function)) (Check-Error wrong-number-of-arguments (define-hash-table-test (gensym) hash-function hash-function)) (Check-Error wrong-number-of-arguments (define-hash-table-test (gensym) equal-function equal-function)) (define-hash-table-test hash-table-test equal-function hash-function) (Assert (valid-hash-table-test-p hash-table-test)) (setq equal-hash (make-hash-table :test #'equal) hash-table-test-hash (make-hash-table :test hash-table-test)) (Assert (hash-table-p equal-hash)) (Assert (hash-table-p hash-table-test-hash)) (Assert (eq hash-table-test (hash-table-test hash-table-test-hash))) (loop for ii from 200 below 300 with structure = nil do (setf structure (make-hash-table-test-structure :number-identifier (if (oddp ii) (float (% ii 10)) (% ii 10)) :padding-zero (random) :padding-one (random) :padding-two (random)) (gethash structure hash-table-test-hash) t (gethash structure equal-hash) t)) (Assert (= (hash-table-count hash-table-test-hash) 10)) (Assert (= (hash-table-count equal-hash) 100)) (Assert (eq t (gethash (make-hash-table-test-structure :number-identifier 1 :padding-zero (random) :padding-one (random) :padding-two (random)) hash-table-test-hash))) (Assert (eq t (gethash (make-hash-table-test-structure :number-identifier 2.0 :padding-zero (random) :padding-one (random) :padding-two (random)) hash-table-test-hash))) (Assert (eq no-entry-found (gethash (make-hash-table-test-structure :number-identifier (+ two 0.0) :padding-zero (random) :padding-one (random) :padding-two (random)) equal-hash no-entry-found)))))