1 // Copyright 2007, Google Inc.
2 // All rights reserved.
3 //
4 // Redistribution and use in source and binary forms, with or without
5 // modification, are permitted provided that the following conditions are
6 // met:
7 //
8 // * Redistributions of source code must retain the above copyright
9 // notice, this list of conditions and the following disclaimer.
10 // * Redistributions in binary form must reproduce the above
11 // copyright notice, this list of conditions and the following disclaimer
12 // in the documentation and/or other materials provided with the
13 // distribution.
14 // * Neither the name of Google Inc. nor the names of its
15 // contributors may be used to endorse or promote products derived from
16 // this software without specific prior written permission.
17 //
18 // THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
19 // "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
20 // LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
21 // A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
22 // OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
23 // SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
24 // LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
25 // DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
26 // THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
27 // (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
28 // OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
29
30 #include <errno.h>
31 #include <unicode/ucnv.h>
32
33 #include "googleurl/src/url_canon.h"
34 #include "googleurl/src/url_canon_icu.h"
35 #include "googleurl/src/url_canon_internal.h"
36 #include "googleurl/src/url_canon_stdstring.h"
37 #include "googleurl/src/url_parse.h"
38 #include "googleurl/src/url_test_utils.h"
39 #include "testing/gtest/include/gtest/gtest.h"
40
41 // Some implementations of base/basictypes.h may define ARRAYSIZE.
42 // If it's not defined, we define it to the ARRAYSIZE_UNSAFE macro
43 // which is in our version of basictypes.h.
44 #ifndef ARRAYSIZE
45 #define ARRAYSIZE ARRAYSIZE_UNSAFE
46 #endif
47
48 using url_test_utils::WStringToUTF16;
49 using url_test_utils::ConvertUTF8ToUTF16;
50 using url_test_utils::ConvertUTF16ToUTF8;
51 using url_canon::CanonHostInfo;
52
53 namespace {
54
55 struct ComponentCase {
56 const char* input;
57 const char* expected;
58 url_parse::Component expected_component;
59 bool expected_success;
60 };
61
62 // ComponentCase but with dual 8-bit/16-bit input. Generally, the unit tests
63 // treat each input as optional, and will only try processing if non-NULL.
64 // The output is always 8-bit.
65 struct DualComponentCase {
66 const char* input8;
67 const wchar_t* input16;
68 const char* expected;
69 url_parse::Component expected_component;
70 bool expected_success;
71 };
72
73 // Test cases for CanonicalizeIPAddress(). The inputs are identical to
74 // DualComponentCase, but the output has extra CanonHostInfo fields.
75 struct IPAddressCase {
76 const char* input8;
77 const wchar_t* input16;
78 const char* expected;
79 url_parse::Component expected_component;
80
81 // CanonHostInfo fields, for verbose output.
82 CanonHostInfo::Family expected_family;
83 int expected_num_ipv4_components;
84 };
85
86 struct ReplaceCase {
87 const char* base;
88 const char* scheme;
89 const char* username;
90 const char* password;
91 const char* host;
92 const char* port;
93 const char* path;
94 const char* query;
95 const char* ref;
96 const char* expected;
97 };
98
99 // Wrapper around a UConverter object that managers creation and destruction.
100 class UConvScoper {
101 public:
UConvScoper(const char * charset_name)102 explicit UConvScoper(const char* charset_name) {
103 UErrorCode err = U_ZERO_ERROR;
104 converter_ = ucnv_open(charset_name, &err);
105 }
106
~UConvScoper()107 ~UConvScoper() {
108 if (converter_)
109 ucnv_close(converter_);
110 }
111
112 // Returns the converter object, may be NULL.
converter() const113 UConverter* converter() const { return converter_; }
114
115 private:
116 UConverter* converter_;
117 };
118
119 // Magic string used in the replacements code that tells SetupReplComp to
120 // call the clear function.
121 const char kDeleteComp[] = "|";
122
123 // Sets up a replacement for a single component. This is given pointers to
124 // the set and clear function for the component being replaced, and will
125 // either set the component (if it exists) or clear it (if the replacement
126 // string matches kDeleteComp).
127 //
128 // This template is currently used only for the 8-bit case, and the strlen
129 // causes it to fail in other cases. It is left a template in case we have
130 // tests for wide replacements.
131 template<typename CHAR>
SetupReplComp(void (url_canon::Replacements<CHAR>::* set)(const CHAR *,const url_parse::Component &),void (url_canon::Replacements<CHAR>::* clear)(),url_canon::Replacements<CHAR> * rep,const CHAR * str)132 void SetupReplComp(
133 void (url_canon::Replacements<CHAR>::*set)(const CHAR*,
134 const url_parse::Component&),
135 void (url_canon::Replacements<CHAR>::*clear)(),
136 url_canon::Replacements<CHAR>* rep,
137 const CHAR* str) {
138 if (str && str[0] == kDeleteComp[0]) {
139 (rep->*clear)();
140 } else if (str) {
141 (rep->*set)(str, url_parse::Component(0, static_cast<int>(strlen(str))));
142 }
143 }
144
145 } // namespace
146
TEST(URLCanonTest,DoAppendUTF8)147 TEST(URLCanonTest, DoAppendUTF8) {
148 struct UTF8Case {
149 unsigned input;
150 const char* output;
151 } utf_cases[] = {
152 // Valid code points.
153 {0x24, "\x24"},
154 {0xA2, "\xC2\xA2"},
155 {0x20AC, "\xE2\x82\xAC"},
156 {0x24B62, "\xF0\xA4\xAD\xA2"},
157 {0x10FFFF, "\xF4\x8F\xBF\xBF"},
158 };
159 std::string out_str;
160 for (size_t i = 0; i < ARRAYSIZE(utf_cases); i++) {
161 out_str.clear();
162 url_canon::StdStringCanonOutput output(&out_str);
163 url_canon::AppendUTF8Value(utf_cases[i].input, &output);
164 output.Complete();
165 EXPECT_EQ(utf_cases[i].output, out_str);
166 }
167 }
168
169 // TODO(mattm): Can't run this in debug mode for now, since the DCHECK will
170 // cause the Chromium stacktrace dialog to appear and hang the test.
171 // See http://crbug.com/49580.
172 #if defined(GTEST_HAS_DEATH_TEST) && defined(NDEBUG)
TEST(URLCanonTest,DoAppendUTF8Invalid)173 TEST(URLCanonTest, DoAppendUTF8Invalid) {
174 std::string out_str;
175 url_canon::StdStringCanonOutput output(&out_str);
176 // Invalid code point (too large).
177 ASSERT_DEBUG_DEATH({
178 url_canon::AppendUTF8Value(0x110000, &output);
179 output.Complete();
180 EXPECT_EQ("", out_str);
181 }, "");
182 }
183 #endif
184
TEST(URLCanonTest,UTF)185 TEST(URLCanonTest, UTF) {
186 // Low-level test that we handle reading, canonicalization, and writing
187 // UTF-8/UTF-16 strings properly.
188 struct UTFCase {
189 const char* input8;
190 const wchar_t* input16;
191 bool expected_success;
192 const char* output;
193 } utf_cases[] = {
194 // Valid canonical input should get passed through & escaped.
195 {"\xe4\xbd\xa0\xe5\xa5\xbd", L"\x4f60\x597d", true, "%E4%BD%A0%E5%A5%BD"},
196 // Test a characer that takes > 16 bits (U+10300 = old italic letter A)
197 {"\xF0\x90\x8C\x80", L"\xd800\xdf00", true, "%F0%90%8C%80"},
198 // Non-shortest-form UTF-8 are invalid. The bad char should be replaced
199 // with the invalid character (EF BF DB in UTF-8).
200 {"\xf0\x84\xbd\xa0\xe5\xa5\xbd", NULL, false, "%EF%BF%BD%E5%A5%BD"},
201 // Invalid UTF-8 sequences should be marked as invalid (the first
202 // sequence is truncated).
203 {"\xe4\xa0\xe5\xa5\xbd", L"\xd800\x597d", false, "%EF%BF%BD%E5%A5%BD"},
204 // Character going off the end.
205 {"\xe4\xbd\xa0\xe5\xa5", L"\x4f60\xd800", false, "%E4%BD%A0%EF%BF%BD"},
206 // ...same with low surrogates with no high surrogate.
207 {"\xed\xb0\x80", L"\xdc00", false, "%EF%BF%BD"},
208 // Test a UTF-8 encoded surrogate value is marked as invalid.
209 // ED A0 80 = U+D800
210 {"\xed\xa0\x80", NULL, false, "%EF%BF%BD"},
211 };
212
213 std::string out_str;
214 for (size_t i = 0; i < ARRAYSIZE(utf_cases); i++) {
215 if (utf_cases[i].input8) {
216 out_str.clear();
217 url_canon::StdStringCanonOutput output(&out_str);
218
219 int input_len = static_cast<int>(strlen(utf_cases[i].input8));
220 bool success = true;
221 for (int ch = 0; ch < input_len; ch++) {
222 success &= AppendUTF8EscapedChar(utf_cases[i].input8, &ch, input_len,
223 &output);
224 }
225 output.Complete();
226 EXPECT_EQ(utf_cases[i].expected_success, success);
227 EXPECT_EQ(std::string(utf_cases[i].output), out_str);
228 }
229 if (utf_cases[i].input16) {
230 out_str.clear();
231 url_canon::StdStringCanonOutput output(&out_str);
232
233 string16 input_str(WStringToUTF16(utf_cases[i].input16));
234 int input_len = static_cast<int>(input_str.length());
235 bool success = true;
236 for (int ch = 0; ch < input_len; ch++) {
237 success &= AppendUTF8EscapedChar(input_str.c_str(), &ch, input_len,
238 &output);
239 }
240 output.Complete();
241 EXPECT_EQ(utf_cases[i].expected_success, success);
242 EXPECT_EQ(std::string(utf_cases[i].output), out_str);
243 }
244
245 if (utf_cases[i].input8 && utf_cases[i].input16 &&
246 utf_cases[i].expected_success) {
247 // Check that the UTF-8 and UTF-16 inputs are equivalent.
248
249 // UTF-16 -> UTF-8
250 std::string input8_str(utf_cases[i].input8);
251 string16 input16_str(WStringToUTF16(utf_cases[i].input16));
252 EXPECT_EQ(input8_str, ConvertUTF16ToUTF8(input16_str));
253
254 // UTF-8 -> UTF-16
255 EXPECT_EQ(input16_str, ConvertUTF8ToUTF16(input8_str));
256 }
257 }
258 }
259
TEST(URLCanonTest,ICUCharsetConverter)260 TEST(URLCanonTest, ICUCharsetConverter) {
261 struct ICUCase {
262 const wchar_t* input;
263 const char* encoding;
264 const char* expected;
265 } icu_cases[] = {
266 // UTF-8.
267 {L"Hello, world", "utf-8", "Hello, world"},
268 {L"\x4f60\x597d", "utf-8", "\xe4\xbd\xa0\xe5\xa5\xbd"},
269 // Non-BMP UTF-8.
270 {L"!\xd800\xdf00!", "utf-8", "!\xf0\x90\x8c\x80!"},
271 // Big5
272 {L"\x4f60\x597d", "big5", "\xa7\x41\xa6\x6e"},
273 // Unrepresentable character in the destination set.
274 {L"hello\x4f60\x06de\x597dworld", "big5", "hello\xa7\x41%26%231758%3B\xa6\x6eworld"},
275 };
276
277 for (size_t i = 0; i < ARRAYSIZE(icu_cases); i++) {
278 UConvScoper conv(icu_cases[i].encoding);
279 ASSERT_TRUE(conv.converter() != NULL);
280 url_canon::ICUCharsetConverter converter(conv.converter());
281
282 std::string str;
283 url_canon::StdStringCanonOutput output(&str);
284
285 string16 input_str(WStringToUTF16(icu_cases[i].input));
286 int input_len = static_cast<int>(input_str.length());
287 converter.ConvertFromUTF16(input_str.c_str(), input_len, &output);
288 output.Complete();
289
290 EXPECT_STREQ(icu_cases[i].expected, str.c_str());
291 }
292
293 // Test string sizes around the resize boundary for the output to make sure
294 // the converter resizes as needed.
295 const int static_size = 16;
296 UConvScoper conv("utf-8");
297 ASSERT_TRUE(conv.converter());
298 url_canon::ICUCharsetConverter converter(conv.converter());
299 for (int i = static_size - 2; i <= static_size + 2; i++) {
300 // Make a string with the appropriate length.
301 string16 input;
302 for (int ch = 0; ch < i; ch++)
303 input.push_back('a');
304
305 url_canon::RawCanonOutput<static_size> output;
306 converter.ConvertFromUTF16(input.c_str(), static_cast<int>(input.length()),
307 &output);
308 EXPECT_EQ(input.length(), static_cast<size_t>(output.length()));
309 }
310 }
311
TEST(URLCanonTest,Scheme)312 TEST(URLCanonTest, Scheme) {
313 // Here, we're mostly testing that unusual characters are handled properly.
314 // The canonicalizer doesn't do any parsing or whitespace detection. It will
315 // also do its best on error, and will escape funny sequences (these won't be
316 // valid schemes and it will return error).
317 //
318 // Note that the canonicalizer will append a colon to the output to separate
319 // out the rest of the URL, which is not present in the input. We check,
320 // however, that the output range includes everything but the colon.
321 ComponentCase scheme_cases[] = {
322 {"http", "http:", url_parse::Component(0, 4), true},
323 {"HTTP", "http:", url_parse::Component(0, 4), true},
324 {" HTTP ", "%20http%20:", url_parse::Component(0, 10), false},
325 {"htt: ", "htt%3A%20:", url_parse::Component(0, 9), false},
326 {"\xe4\xbd\xa0\xe5\xa5\xbdhttp", "%E4%BD%A0%E5%A5%BDhttp:", url_parse::Component(0, 22), false},
327 // Don't re-escape something already escaped. Note that it will
328 // "canonicalize" the 'A' to 'a', but that's OK.
329 {"ht%3Atp", "ht%3atp:", url_parse::Component(0, 7), false},
330 };
331
332 std::string out_str;
333
334 for (size_t i = 0; i < arraysize(scheme_cases); i++) {
335 int url_len = static_cast<int>(strlen(scheme_cases[i].input));
336 url_parse::Component in_comp(0, url_len);
337 url_parse::Component out_comp;
338
339 out_str.clear();
340 url_canon::StdStringCanonOutput output1(&out_str);
341 bool success = url_canon::CanonicalizeScheme(scheme_cases[i].input,
342 in_comp, &output1, &out_comp);
343 output1.Complete();
344
345 EXPECT_EQ(scheme_cases[i].expected_success, success);
346 EXPECT_EQ(std::string(scheme_cases[i].expected), out_str);
347 EXPECT_EQ(scheme_cases[i].expected_component.begin, out_comp.begin);
348 EXPECT_EQ(scheme_cases[i].expected_component.len, out_comp.len);
349
350 // Now try the wide version
351 out_str.clear();
352 url_canon::StdStringCanonOutput output2(&out_str);
353
354 string16 wide_input(ConvertUTF8ToUTF16(scheme_cases[i].input));
355 in_comp.len = static_cast<int>(wide_input.length());
356 success = url_canon::CanonicalizeScheme(wide_input.c_str(), in_comp,
357 &output2, &out_comp);
358 output2.Complete();
359
360 EXPECT_EQ(scheme_cases[i].expected_success, success);
361 EXPECT_EQ(std::string(scheme_cases[i].expected), out_str);
362 EXPECT_EQ(scheme_cases[i].expected_component.begin, out_comp.begin);
363 EXPECT_EQ(scheme_cases[i].expected_component.len, out_comp.len);
364 }
365
366 // Test the case where the scheme is declared nonexistant, it should be
367 // converted into an empty scheme.
368 url_parse::Component out_comp;
369 out_str.clear();
370 url_canon::StdStringCanonOutput output(&out_str);
371
372 EXPECT_TRUE(url_canon::CanonicalizeScheme("", url_parse::Component(0, -1),
373 &output, &out_comp));
374 output.Complete();
375
376 EXPECT_EQ(std::string(":"), out_str);
377 EXPECT_EQ(0, out_comp.begin);
378 EXPECT_EQ(0, out_comp.len);
379 }
380
TEST(URLCanonTest,Host)381 TEST(URLCanonTest, Host) {
382 IPAddressCase host_cases[] = {
383 // Basic canonicalization, uppercase should be converted to lowercase.
384 {"GoOgLe.CoM", L"GoOgLe.CoM", "google.com", url_parse::Component(0, 10), CanonHostInfo::NEUTRAL, -1},
385 // Spaces and some other characters should be escaped.
386 {"Goo%20 goo%7C|.com", L"Goo%20 goo%7C|.com", "goo%20%20goo%7C%7C.com", url_parse::Component(0, 22), CanonHostInfo::NEUTRAL, -1},
387 // Exciting different types of spaces!
388 {NULL, L"GOO\x00a0\x3000goo.com", "goo%20%20goo.com", url_parse::Component(0, 16), CanonHostInfo::NEUTRAL, -1},
389 // Other types of space (no-break, zero-width, zero-width-no-break) are
390 // name-prepped away to nothing.
391 {NULL, L"GOO\x200b\x2060\xfeffgoo.com", "googoo.com", url_parse::Component(0, 10), CanonHostInfo::NEUTRAL, -1},
392 // Ideographic full stop (full-width period for Chinese, etc.) should be
393 // treated as a dot.
394 {NULL, L"www.foo\x3002"L"bar.com", "www.foo.bar.com", url_parse::Component(0, 15), CanonHostInfo::NEUTRAL, -1},
395 // Invalid unicode characters should fail...
396 // ...In wide input, ICU will barf and we'll end up with the input as
397 // escaped UTF-8 (the invalid character should be replaced with the
398 // replacement character).
399 {"\xef\xb7\x90zyx.com", L"\xfdd0zyx.com", "%EF%BF%BDzyx.com", url_parse::Component(0, 16), CanonHostInfo::BROKEN, -1},
400 // ...This is the same as previous but with with escaped.
401 {"%ef%b7%90zyx.com", L"%ef%b7%90zyx.com", "%EF%BF%BDzyx.com", url_parse::Component(0, 16), CanonHostInfo::BROKEN, -1},
402 // Test name prepping, fullwidth input should be converted to ASCII and NOT
403 // IDN-ized. This is "Go" in fullwidth UTF-8/UTF-16.
404 {"\xef\xbc\xa7\xef\xbd\x8f.com", L"\xff27\xff4f.com", "go.com", url_parse::Component(0, 6), CanonHostInfo::NEUTRAL, -1},
405 // Test that fullwidth escaped values are properly name-prepped,
406 // then converted or rejected.
407 // ...%41 in fullwidth = 'A' (also as escaped UTF-8 input)
408 {"\xef\xbc\x85\xef\xbc\x94\xef\xbc\x91.com", L"\xff05\xff14\xff11.com", "a.com", url_parse::Component(0, 5), CanonHostInfo::NEUTRAL, -1},
409 {"%ef%bc%85%ef%bc%94%ef%bc%91.com", L"%ef%bc%85%ef%bc%94%ef%bc%91.com", "a.com", url_parse::Component(0, 5), CanonHostInfo::NEUTRAL, -1},
410 // ...%00 in fullwidth should fail (also as escaped UTF-8 input)
411 {"\xef\xbc\x85\xef\xbc\x90\xef\xbc\x90.com", L"\xff05\xff10\xff10.com", "%00.com", url_parse::Component(0, 7), CanonHostInfo::BROKEN, -1},
412 {"%ef%bc%85%ef%bc%90%ef%bc%90.com", L"%ef%bc%85%ef%bc%90%ef%bc%90.com", "%00.com", url_parse::Component(0, 7), CanonHostInfo::BROKEN, -1},
413 // Basic IDN support, UTF-8 and UTF-16 input should be converted to IDN
414 {"\xe4\xbd\xa0\xe5\xa5\xbd\xe4\xbd\xa0\xe5\xa5\xbd", L"\x4f60\x597d\x4f60\x597d", "xn--6qqa088eba", url_parse::Component(0, 14), CanonHostInfo::NEUTRAL, -1},
415 // Mixed UTF-8 and escaped UTF-8 (narrow case) and UTF-16 and escaped
416 // UTF-8 (wide case). The output should be equivalent to the true wide
417 // character input above).
418 {"%E4%BD%A0%E5%A5%BD\xe4\xbd\xa0\xe5\xa5\xbd", L"%E4%BD%A0%E5%A5%BD\x4f60\x597d", "xn--6qqa088eba", url_parse::Component(0, 14), CanonHostInfo::NEUTRAL, -1},
419 // Invalid escaped characters should fail and the percents should be
420 // escaped.
421 {"%zz%66%a", L"%zz%66%a", "%25zzf%25a", url_parse::Component(0, 10), CanonHostInfo::BROKEN, -1},
422 // If we get an invalid character that has been escaped.
423 {"%25", L"%25", "%25", url_parse::Component(0, 3), CanonHostInfo::BROKEN, -1},
424 {"hello%00", L"hello%00", "hello%00", url_parse::Component(0, 8), CanonHostInfo::BROKEN, -1},
425 // Escaped numbers should be treated like IP addresses if they are.
426 {"%30%78%63%30%2e%30%32%35%30.01", L"%30%78%63%30%2e%30%32%35%30.01", "192.168.0.1", url_parse::Component(0, 11), CanonHostInfo::IPV4, 3},
427 {"%30%78%63%30%2e%30%32%35%30.01%2e", L"%30%78%63%30%2e%30%32%35%30.01%2e", "192.168.0.1", url_parse::Component(0, 11), CanonHostInfo::IPV4, 3},
428 // Invalid escaping should trigger the regular host error handling.
429 {"%3g%78%63%30%2e%30%32%35%30%2E.01", L"%3g%78%63%30%2e%30%32%35%30%2E.01", "%253gxc0.0250..01", url_parse::Component(0, 17), CanonHostInfo::BROKEN, -1},
430 // Something that isn't exactly an IP should get treated as a host and
431 // spaces escaped.
432 {"192.168.0.1 hello", L"192.168.0.1 hello", "192.168.0.1%20hello", url_parse::Component(0, 19), CanonHostInfo::NEUTRAL, -1},
433 // Fullwidth and escaped UTF-8 fullwidth should still be treated as IP.
434 // These are "0Xc0.0250.01" in fullwidth.
435 {"\xef\xbc\x90%Ef%bc\xb8%ef%Bd%83\xef\xbc\x90%EF%BC%8E\xef\xbc\x90\xef\xbc\x92\xef\xbc\x95\xef\xbc\x90\xef\xbc%8E\xef\xbc\x90\xef\xbc\x91", L"\xff10\xff38\xff43\xff10\xff0e\xff10\xff12\xff15\xff10\xff0e\xff10\xff11", "192.168.0.1", url_parse::Component(0, 11), CanonHostInfo::IPV4, 3},
436 // Broken IP addresses get marked as such.
437 {"192.168.0.257", L"192.168.0.257", "192.168.0.257", url_parse::Component(0, 13), CanonHostInfo::BROKEN, -1},
438 {"[google.com]", L"[google.com]", "[google.com]", url_parse::Component(0, 12), CanonHostInfo::BROKEN, -1},
439 // Cyrillic letter followed buy ( should return punicode for ( escaped before punicode string was created. I.e.
440 // if ( is escaped after punicode is created we would get xn--%28-8tb (incorrect).
441 {"\xd1\x82(", L"\x0442(", "xn--%28-7ed", url_parse::Component(0, 11), CanonHostInfo::NEUTRAL, -1},
442 };
443
444 // CanonicalizeHost() non-verbose.
445 std::string out_str;
446 for (size_t i = 0; i < arraysize(host_cases); i++) {
447 // Narrow version.
448 if (host_cases[i].input8) {
449 int host_len = static_cast<int>(strlen(host_cases[i].input8));
450 url_parse::Component in_comp(0, host_len);
451 url_parse::Component out_comp;
452
453 out_str.clear();
454 url_canon::StdStringCanonOutput output(&out_str);
455
456 bool success = url_canon::CanonicalizeHost(host_cases[i].input8, in_comp,
457 &output, &out_comp);
458 output.Complete();
459
460 EXPECT_EQ(host_cases[i].expected_family != CanonHostInfo::BROKEN,
461 success);
462 EXPECT_EQ(std::string(host_cases[i].expected), out_str);
463 EXPECT_EQ(host_cases[i].expected_component.begin, out_comp.begin);
464 EXPECT_EQ(host_cases[i].expected_component.len, out_comp.len);
465 }
466
467 // Wide version.
468 if (host_cases[i].input16) {
469 string16 input16(WStringToUTF16(host_cases[i].input16));
470 int host_len = static_cast<int>(input16.length());
471 url_parse::Component in_comp(0, host_len);
472 url_parse::Component out_comp;
473
474 out_str.clear();
475 url_canon::StdStringCanonOutput output(&out_str);
476
477 bool success = url_canon::CanonicalizeHost(input16.c_str(), in_comp,
478 &output, &out_comp);
479 output.Complete();
480
481 EXPECT_EQ(host_cases[i].expected_family != CanonHostInfo::BROKEN,
482 success);
483 EXPECT_EQ(std::string(host_cases[i].expected), out_str);
484 EXPECT_EQ(host_cases[i].expected_component.begin, out_comp.begin);
485 EXPECT_EQ(host_cases[i].expected_component.len, out_comp.len);
486 }
487 }
488
489 // CanonicalizeHostVerbose()
490 for (size_t i = 0; i < arraysize(host_cases); i++) {
491 // Narrow version.
492 if (host_cases[i].input8) {
493 int host_len = static_cast<int>(strlen(host_cases[i].input8));
494 url_parse::Component in_comp(0, host_len);
495
496 out_str.clear();
497 url_canon::StdStringCanonOutput output(&out_str);
498 CanonHostInfo host_info;
499
500 url_canon::CanonicalizeHostVerbose(host_cases[i].input8, in_comp,
501 &output, &host_info);
502 output.Complete();
503
504 EXPECT_EQ(host_cases[i].expected_family, host_info.family);
505 EXPECT_EQ(std::string(host_cases[i].expected), out_str);
506 EXPECT_EQ(host_cases[i].expected_component.begin,
507 host_info.out_host.begin);
508 EXPECT_EQ(host_cases[i].expected_component.len, host_info.out_host.len);
509 if (host_cases[i].expected_family == CanonHostInfo::IPV4) {
510 EXPECT_EQ(host_cases[i].expected_num_ipv4_components,
511 host_info.num_ipv4_components);
512 }
513 }
514
515 // Wide version.
516 if (host_cases[i].input16) {
517 string16 input16(WStringToUTF16(host_cases[i].input16));
518 int host_len = static_cast<int>(input16.length());
519 url_parse::Component in_comp(0, host_len);
520
521 out_str.clear();
522 url_canon::StdStringCanonOutput output(&out_str);
523 CanonHostInfo host_info;
524
525 url_canon::CanonicalizeHostVerbose(input16.c_str(), in_comp,
526 &output, &host_info);
527 output.Complete();
528
529 EXPECT_EQ(host_cases[i].expected_family, host_info.family);
530 EXPECT_EQ(std::string(host_cases[i].expected), out_str);
531 EXPECT_EQ(host_cases[i].expected_component.begin,
532 host_info.out_host.begin);
533 EXPECT_EQ(host_cases[i].expected_component.len, host_info.out_host.len);
534 if (host_cases[i].expected_family == CanonHostInfo::IPV4) {
535 EXPECT_EQ(host_cases[i].expected_num_ipv4_components,
536 host_info.num_ipv4_components);
537 }
538 }
539 }
540 }
541
TEST(URLCanonTest,IPv4)542 TEST(URLCanonTest, IPv4) {
543 IPAddressCase cases[] = {
544 // Empty is not an IP address.
545 {"", L"", "", url_parse::Component(), CanonHostInfo::NEUTRAL, -1},
546 {".", L".", "", url_parse::Component(), CanonHostInfo::NEUTRAL, -1},
547 // Regular IP addresses in different bases.
548 {"192.168.0.1", L"192.168.0.1", "192.168.0.1", url_parse::Component(0, 11), CanonHostInfo::IPV4, 4},
549 {"0300.0250.00.01", L"0300.0250.00.01", "192.168.0.1", url_parse::Component(0, 11), CanonHostInfo::IPV4, 4},
550 {"0xC0.0Xa8.0x0.0x1", L"0xC0.0Xa8.0x0.0x1", "192.168.0.1", url_parse::Component(0, 11), CanonHostInfo::IPV4, 4},
551 // Non-IP addresses due to invalid characters.
552 {"192.168.9.com", L"192.168.9.com", "", url_parse::Component(), CanonHostInfo::NEUTRAL, -1},
553 // Invalid characters for the base should be rejected.
554 {"19a.168.0.1", L"19a.168.0.1", "", url_parse::Component(), CanonHostInfo::NEUTRAL, -1},
555 {"0308.0250.00.01", L"0308.0250.00.01", "", url_parse::Component(), CanonHostInfo::NEUTRAL, -1},
556 {"0xCG.0xA8.0x0.0x1", L"0xCG.0xA8.0x0.0x1", "", url_parse::Component(), CanonHostInfo::NEUTRAL, -1},
557 // If there are not enough components, the last one should fill them out.
558 {"192", L"192", "0.0.0.192", url_parse::Component(0, 9), CanonHostInfo::IPV4, 1},
559 {"0xC0a80001", L"0xC0a80001", "192.168.0.1", url_parse::Component(0, 11), CanonHostInfo::IPV4, 1},
560 {"030052000001", L"030052000001", "192.168.0.1", url_parse::Component(0, 11), CanonHostInfo::IPV4, 1},
561 {"000030052000001", L"000030052000001", "192.168.0.1", url_parse::Component(0, 11), CanonHostInfo::IPV4, 1},
562 {"192.168", L"192.168", "192.0.0.168", url_parse::Component(0, 11), CanonHostInfo::IPV4, 2},
563 {"192.0x00A80001", L"192.0x000A80001", "192.168.0.1", url_parse::Component(0, 11), CanonHostInfo::IPV4, 2},
564 {"0xc0.052000001", L"0xc0.052000001", "192.168.0.1", url_parse::Component(0, 11), CanonHostInfo::IPV4, 2},
565 {"192.168.1", L"192.168.1", "192.168.0.1", url_parse::Component(0, 11), CanonHostInfo::IPV4, 3},
566 // Too many components means not an IP address.
567 {"192.168.0.0.1", L"192.168.0.0.1", "", url_parse::Component(), CanonHostInfo::NEUTRAL, -1},
568 // We allow a single trailing dot.
569 {"192.168.0.1.", L"192.168.0.1.", "192.168.0.1", url_parse::Component(0, 11), CanonHostInfo::IPV4, 4},
570 {"192.168.0.1. hello", L"192.168.0.1. hello", "", url_parse::Component(), CanonHostInfo::NEUTRAL, -1},
571 {"192.168.0.1..", L"192.168.0.1..", "", url_parse::Component(), CanonHostInfo::NEUTRAL, -1},
572 // Two dots in a row means not an IP address.
573 {"192.168..1", L"192.168..1", "", url_parse::Component(), CanonHostInfo::NEUTRAL, -1},
574 // Any numerical overflow should be marked as BROKEN.
575 {"0x100.0", L"0x100.0", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
576 {"0x100.0.0", L"0x100.0.0", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
577 {"0x100.0.0.0", L"0x100.0.0.0", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
578 {"0.0x100.0.0", L"0.0x100.0.0", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
579 {"0.0.0x100.0", L"0.0.0x100.0", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
580 {"0.0.0.0x100", L"0.0.0.0x100", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
581 {"0.0.0x10000", L"0.0.0x10000", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
582 {"0.0x1000000", L"0.0x1000000", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
583 {"0x100000000", L"0x100000000", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
584 // Repeat the previous tests, minus 1, to verify boundaries.
585 {"0xFF.0", L"0xFF.0", "255.0.0.0", url_parse::Component(0, 9), CanonHostInfo::IPV4, 2},
586 {"0xFF.0.0", L"0xFF.0.0", "255.0.0.0", url_parse::Component(0, 9), CanonHostInfo::IPV4, 3},
587 {"0xFF.0.0.0", L"0xFF.0.0.0", "255.0.0.0", url_parse::Component(0, 9), CanonHostInfo::IPV4, 4},
588 {"0.0xFF.0.0", L"0.0xFF.0.0", "0.255.0.0", url_parse::Component(0, 9), CanonHostInfo::IPV4, 4},
589 {"0.0.0xFF.0", L"0.0.0xFF.0", "0.0.255.0", url_parse::Component(0, 9), CanonHostInfo::IPV4, 4},
590 {"0.0.0.0xFF", L"0.0.0.0xFF", "0.0.0.255", url_parse::Component(0, 9), CanonHostInfo::IPV4, 4},
591 {"0.0.0xFFFF", L"0.0.0xFFFF", "0.0.255.255", url_parse::Component(0, 11), CanonHostInfo::IPV4, 3},
592 {"0.0xFFFFFF", L"0.0xFFFFFF", "0.255.255.255", url_parse::Component(0, 13), CanonHostInfo::IPV4, 2},
593 {"0xFFFFFFFF", L"0xFFFFFFFF", "255.255.255.255", url_parse::Component(0, 15), CanonHostInfo::IPV4, 1},
594 // Old trunctations tests. They're all "BROKEN" now.
595 {"276.256.0xf1a2.077777", L"276.256.0xf1a2.077777", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
596 {"192.168.0.257", L"192.168.0.257", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
597 {"192.168.0xa20001", L"192.168.0xa20001", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
598 {"192.015052000001", L"192.015052000001", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
599 {"0X12C0a80001", L"0X12C0a80001", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
600 {"276.1.2", L"276.1.2", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
601 // Spaces should be rejected.
602 {"192.168.0.1 hello", L"192.168.0.1 hello", "", url_parse::Component(), CanonHostInfo::NEUTRAL, -1},
603 // Very large numbers.
604 {"0000000000000300.0x00000000000000fF.00000000000000001", L"0000000000000300.0x00000000000000fF.00000000000000001", "192.255.0.1", url_parse::Component(0, 11), CanonHostInfo::IPV4, 3},
605 {"0000000000000300.0xffffffffFFFFFFFF.3022415481470977", L"0000000000000300.0xffffffffFFFFFFFF.3022415481470977", "", url_parse::Component(0, 11), CanonHostInfo::BROKEN, -1},
606 // A number has no length limit, but long numbers can still overflow.
607 {"00000000000000000001", L"00000000000000000001", "0.0.0.1", url_parse::Component(0, 7), CanonHostInfo::IPV4, 1},
608 {"0000000000000000100000000000000001", L"0000000000000000100000000000000001", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
609 // If a long component is non-numeric, it's a hostname, *not* a broken IP.
610 {"0.0.0.000000000000000000z", L"0.0.0.000000000000000000z", "", url_parse::Component(), CanonHostInfo::NEUTRAL, -1},
611 {"0.0.0.100000000000000000z", L"0.0.0.100000000000000000z", "", url_parse::Component(), CanonHostInfo::NEUTRAL, -1},
612 // Truncation of all zeros should still result in 0.
613 {"0.00.0x.0x0", L"0.00.0x.0x0", "0.0.0.0", url_parse::Component(0, 7), CanonHostInfo::IPV4, 4},
614 };
615
616 for (size_t i = 0; i < arraysize(cases); i++) {
617 // 8-bit version.
618 url_parse::Component component(0,
619 static_cast<int>(strlen(cases[i].input8)));
620
621 std::string out_str1;
622 url_canon::StdStringCanonOutput output1(&out_str1);
623 url_canon::CanonHostInfo host_info;
624 url_canon::CanonicalizeIPAddress(cases[i].input8, component, &output1,
625 &host_info);
626 output1.Complete();
627
628 EXPECT_EQ(cases[i].expected_family, host_info.family);
629 if (host_info.family == CanonHostInfo::IPV4) {
630 EXPECT_STREQ(cases[i].expected, out_str1.c_str());
631 EXPECT_EQ(cases[i].expected_component.begin, host_info.out_host.begin);
632 EXPECT_EQ(cases[i].expected_component.len, host_info.out_host.len);
633 EXPECT_EQ(cases[i].expected_num_ipv4_components,
634 host_info.num_ipv4_components);
635 }
636
637 // 16-bit version.
638 string16 input16(WStringToUTF16(cases[i].input16));
639 component = url_parse::Component(0, static_cast<int>(input16.length()));
640
641 std::string out_str2;
642 url_canon::StdStringCanonOutput output2(&out_str2);
643 url_canon::CanonicalizeIPAddress(input16.c_str(), component, &output2,
644 &host_info);
645 output2.Complete();
646
647 EXPECT_EQ(cases[i].expected_family, host_info.family);
648 if (host_info.family == CanonHostInfo::IPV4) {
649 EXPECT_STREQ(cases[i].expected, out_str2.c_str());
650 EXPECT_EQ(cases[i].expected_component.begin, host_info.out_host.begin);
651 EXPECT_EQ(cases[i].expected_component.len, host_info.out_host.len);
652 EXPECT_EQ(cases[i].expected_num_ipv4_components,
653 host_info.num_ipv4_components);
654 }
655 }
656 }
657
TEST(URLCanonTest,IPv6)658 TEST(URLCanonTest, IPv6) {
659 IPAddressCase cases[] = {
660 // Empty is not an IP address.
661 {"", L"", "", url_parse::Component(), CanonHostInfo::NEUTRAL, -1},
662 // Non-IPs with [:] characters are marked BROKEN.
663 {":", L":", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
664 {"[", L"[", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
665 {"[:", L"[:", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
666 {"]", L"]", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
667 {":]", L":]", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
668 {"[]", L"[]", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
669 {"[:]", L"[:]", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
670 // Regular IP address is invalid without bounding '[' and ']'.
671 {"2001:db8::1", L"2001:db8::1", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
672 {"[2001:db8::1", L"[2001:db8::1", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
673 {"2001:db8::1]", L"2001:db8::1]", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
674 // Regular IP addresses.
675 {"[::]", L"[::]", "[::]", url_parse::Component(0,4), CanonHostInfo::IPV6, -1},
676 {"[::1]", L"[::1]", "[::1]", url_parse::Component(0,5), CanonHostInfo::IPV6, -1},
677 {"[1::]", L"[1::]", "[1::]", url_parse::Component(0,5), CanonHostInfo::IPV6, -1},
678 {"[::192.168.0.1]", L"[::192.168.0.1]", "[::c0a8:1]", url_parse::Component(0,10), CanonHostInfo::IPV6, -1},
679 {"[::ffff:192.168.0.1]", L"[::ffff:192.168.0.1]", "[::ffff:c0a8:1]", url_parse::Component(0,15), CanonHostInfo::IPV6, -1},
680
681 // Leading zeros should be stripped.
682 {"[000:01:02:003:004:5:6:007]", L"[000:01:02:003:004:5:6:007]", "[0:1:2:3:4:5:6:7]", url_parse::Component(0,17), CanonHostInfo::IPV6, -1},
683
684 // Upper case letters should be lowercased.
685 {"[A:b:c:DE:fF:0:1:aC]", L"[A:b:c:DE:fF:0:1:aC]", "[a:b:c:de:ff:0:1:ac]", url_parse::Component(0,20), CanonHostInfo::IPV6, -1},
686
687 // The same address can be written with different contractions, but should
688 // get canonicalized to the same thing.
689 {"[1:0:0:2::3:0]", L"[1:0:0:2::3:0]", "[1::2:0:0:3:0]", url_parse::Component(0,14), CanonHostInfo::IPV6, -1},
690 {"[1::2:0:0:3:0]", L"[1::2:0:0:3:0]", "[1::2:0:0:3:0]", url_parse::Component(0,14), CanonHostInfo::IPV6, -1},
691
692 // IPv4 addresses
693 // Only mapped and compat addresses can have IPv4 syntax embedded.
694 {"[::eeee:192.168.0.1]", L"[::eeee:192.168.0.1]", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
695 {"[2001::192.168.0.1]", L"[2001::192.168.0.1]", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
696 {"[1:2:192.168.0.1:5:6]", L"[1:2:192.168.0.1:5:6]", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
697
698 // IPv4 with last component missing.
699 {"[::ffff:192.1.2]", L"[::ffff:192.1.2]", "[::ffff:c001:2]", url_parse::Component(0,15), CanonHostInfo::IPV6, -1},
700
701 // IPv4 using hex.
702 // TODO(eroman): Should this format be disallowed?
703 {"[::ffff:0xC0.0Xa8.0x0.0x1]", L"[::ffff:0xC0.0Xa8.0x0.0x1]", "[::ffff:c0a8:1]", url_parse::Component(0,15), CanonHostInfo::IPV6, -1},
704
705 // There may be zeros surrounding the "::" contraction.
706 {"[0:0::0:0:8]", L"[0:0::0:0:8]", "[::8]", url_parse::Component(0,5), CanonHostInfo::IPV6, -1},
707
708 {"[2001:db8::1]", L"[2001:db8::1]", "[2001:db8::1]", url_parse::Component(0,13), CanonHostInfo::IPV6, -1},
709
710 // Can only have one "::" contraction in an IPv6 string literal.
711 {"[2001::db8::1]", L"[2001::db8::1]", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
712 // No more than 2 consecutive ':'s.
713 {"[2001:db8:::1]", L"[2001:db8:::1]", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
714 {"[:::]", L"[:::]", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
715 // Non-IP addresses due to invalid characters.
716 {"[2001::.com]", L"[2001::.com]", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
717 // If there are not enough components, the last one should fill them out.
718 // ... omitted at this time ...
719 // Too many components means not an IP address. Similarly with too few if using IPv4 compat or mapped addresses.
720 {"[::192.168.0.0.1]", L"[::192.168.0.0.1]", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
721 {"[::ffff:192.168.0.0.1]", L"[::ffff:192.168.0.0.1]", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
722 {"[1:2:3:4:5:6:7:8:9]", L"[1:2:3:4:5:6:7:8:9]", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
723 // Too many bits (even though 8 comonents, the last one holds 32 bits).
724 {"[0:0:0:0:0:0:0:192.168.0.1]", L"[0:0:0:0:0:0:0:192.168.0.1]", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
725
726 // Too many bits specified -- the contraction would have to be zero-length
727 // to not exceed 128 bits.
728 {"[1:2:3:4:5:6::192.168.0.1]", L"[1:2:3:4:5:6::192.168.0.1]", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
729
730 // The contraction is for 16 bits of zero.
731 {"[1:2:3:4:5:6::8]", L"[1:2:3:4:5:6::8]", "[1:2:3:4:5:6:0:8]", url_parse::Component(0,17), CanonHostInfo::IPV6, -1},
732
733 // Cannot have a trailing colon.
734 {"[1:2:3:4:5:6:7:8:]", L"[1:2:3:4:5:6:7:8:]", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
735 {"[1:2:3:4:5:6:192.168.0.1:]", L"[1:2:3:4:5:6:192.168.0.1:]", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
736
737 // Cannot have negative numbers.
738 {"[-1:2:3:4:5:6:7:8]", L"[-1:2:3:4:5:6:7:8]", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
739
740 // Scope ID -- the URL may contain an optional ["%" <scope_id>] section.
741 // The scope_id should be included in the canonicalized URL, and is an
742 // unsigned decimal number.
743
744 // Invalid because no ID was given after the percent.
745
746 // Don't allow scope-id
747 {"[1::%1]", L"[1::%1]", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
748 {"[1::%eth0]", L"[1::%eth0]", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
749 {"[1::%]", L"[1::%]", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
750 {"[%]", L"[%]", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
751 {"[::%:]", L"[::%:]", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
752
753 // Don't allow leading or trailing colons.
754 {"[:0:0::0:0:8]", L"[:0:0::0:0:8]", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
755 {"[0:0::0:0:8:]", L"[0:0::0:0:8:]", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
756 {"[:0:0::0:0:8:]", L"[:0:0::0:0:8:]", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
757
758 // We allow a single trailing dot.
759 // ... omitted at this time ...
760 // Two dots in a row means not an IP address.
761 {"[::192.168..1]", L"[::192.168..1]", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
762 // Any non-first components get truncated to one byte.
763 // ... omitted at this time ...
764 // Spaces should be rejected.
765 {"[::1 hello]", L"[::1 hello]", "", url_parse::Component(), CanonHostInfo::BROKEN, -1},
766 };
767
768 for (size_t i = 0; i < arraysize(cases); i++) {
769 // 8-bit version.
770 url_parse::Component component(0,
771 static_cast<int>(strlen(cases[i].input8)));
772
773 std::string out_str1;
774 url_canon::StdStringCanonOutput output1(&out_str1);
775 url_canon::CanonHostInfo host_info;
776 url_canon::CanonicalizeIPAddress(cases[i].input8, component, &output1,
777 &host_info);
778 output1.Complete();
779
780 EXPECT_EQ(cases[i].expected_family, host_info.family);
781 if (host_info.family == CanonHostInfo::IPV6) {
782 EXPECT_STREQ(cases[i].expected, out_str1.c_str());
783 EXPECT_EQ(cases[i].expected_component.begin,
784 host_info.out_host.begin);
785 EXPECT_EQ(cases[i].expected_component.len, host_info.out_host.len);
786 }
787
788 // 16-bit version.
789 string16 input16(WStringToUTF16(cases[i].input16));
790 component = url_parse::Component(0, static_cast<int>(input16.length()));
791
792 std::string out_str2;
793 url_canon::StdStringCanonOutput output2(&out_str2);
794 url_canon::CanonicalizeIPAddress(input16.c_str(), component, &output2,
795 &host_info);
796 output2.Complete();
797
798 EXPECT_EQ(cases[i].expected_family, host_info.family);
799 if (host_info.family == CanonHostInfo::IPV6) {
800 EXPECT_STREQ(cases[i].expected, out_str2.c_str());
801 EXPECT_EQ(cases[i].expected_component.begin, host_info.out_host.begin);
802 EXPECT_EQ(cases[i].expected_component.len, host_info.out_host.len);
803 }
804 }
805 }
806
TEST(URLCanonTest,IPEmpty)807 TEST(URLCanonTest, IPEmpty) {
808 std::string out_str1;
809 url_canon::StdStringCanonOutput output1(&out_str1);
810 url_canon::CanonHostInfo host_info;
811
812 // This tests tests.
813 const char spec[] = "192.168.0.1";
814 url_canon::CanonicalizeIPAddress(spec, url_parse::Component(),
815 &output1, &host_info);
816 EXPECT_FALSE(host_info.IsIPAddress());
817
818 url_canon::CanonicalizeIPAddress(spec, url_parse::Component(0, 0),
819 &output1, &host_info);
820 EXPECT_FALSE(host_info.IsIPAddress());
821 }
822
TEST(URLCanonTest,UserInfo)823 TEST(URLCanonTest, UserInfo) {
824 // Note that the canonicalizer should escape and treat empty components as
825 // not being there.
826
827 // We actually parse a full input URL so we can get the initial components.
828 struct UserComponentCase {
829 const char* input;
830 const char* expected;
831 url_parse::Component expected_username;
832 url_parse::Component expected_password;
833 bool expected_success;
834 } user_info_cases[] = {
835 {"http://user:pass@host.com/", "user:pass@", url_parse::Component(0, 4), url_parse::Component(5, 4), true},
836 {"http://@host.com/", "", url_parse::Component(0, -1), url_parse::Component(0, -1), true},
837 {"http://:@host.com/", "", url_parse::Component(0, -1), url_parse::Component(0, -1), true},
838 {"http://foo:@host.com/", "foo@", url_parse::Component(0, 3), url_parse::Component(0, -1), true},
839 {"http://:foo@host.com/", ":foo@", url_parse::Component(0, 0), url_parse::Component(1, 3), true},
840 {"http://^ :$\t@host.com/", "%5E%20:$%09@", url_parse::Component(0, 6), url_parse::Component(7, 4), true},
841 {"http://user:pass@/", "user:pass@", url_parse::Component(0, 4), url_parse::Component(5, 4), true},
842 {"http://%2540:bar@domain.com/", "%2540:bar@", url_parse::Component(0, 5), url_parse::Component(6, 3), true },
843
844 // IE7 compatability: old versions allowed backslashes in usernames, but
845 // IE7 does not. We disallow it as well.
846 {"ftp://me\\mydomain:pass@foo.com/", "", url_parse::Component(0, -1), url_parse::Component(0, -1), true},
847 };
848
849 for (size_t i = 0; i < ARRAYSIZE(user_info_cases); i++) {
850 int url_len = static_cast<int>(strlen(user_info_cases[i].input));
851 url_parse::Parsed parsed;
852 url_parse::ParseStandardURL(user_info_cases[i].input, url_len, &parsed);
853 url_parse::Component out_user, out_pass;
854 std::string out_str;
855 url_canon::StdStringCanonOutput output1(&out_str);
856
857 bool success = url_canon::CanonicalizeUserInfo(user_info_cases[i].input,
858 parsed.username,
859 user_info_cases[i].input,
860 parsed.password,
861 &output1, &out_user,
862 &out_pass);
863 output1.Complete();
864
865 EXPECT_EQ(user_info_cases[i].expected_success, success);
866 EXPECT_EQ(std::string(user_info_cases[i].expected), out_str);
867 EXPECT_EQ(user_info_cases[i].expected_username.begin, out_user.begin);
868 EXPECT_EQ(user_info_cases[i].expected_username.len, out_user.len);
869 EXPECT_EQ(user_info_cases[i].expected_password.begin, out_pass.begin);
870 EXPECT_EQ(user_info_cases[i].expected_password.len, out_pass.len);
871
872 // Now try the wide version
873 out_str.clear();
874 url_canon::StdStringCanonOutput output2(&out_str);
875 string16 wide_input(ConvertUTF8ToUTF16(user_info_cases[i].input));
876 success = url_canon::CanonicalizeUserInfo(wide_input.c_str(),
877 parsed.username,
878 wide_input.c_str(),
879 parsed.password,
880 &output2, &out_user, &out_pass);
881 output2.Complete();
882
883 EXPECT_EQ(user_info_cases[i].expected_success, success);
884 EXPECT_EQ(std::string(user_info_cases[i].expected), out_str);
885 EXPECT_EQ(user_info_cases[i].expected_username.begin, out_user.begin);
886 EXPECT_EQ(user_info_cases[i].expected_username.len, out_user.len);
887 EXPECT_EQ(user_info_cases[i].expected_password.begin, out_pass.begin);
888 EXPECT_EQ(user_info_cases[i].expected_password.len, out_pass.len);
889 }
890 }
891
TEST(URLCanonTest,Port)892 TEST(URLCanonTest, Port) {
893 // We only need to test that the number gets properly put into the output
894 // buffer. The parser unit tests will test scanning the number correctly.
895 //
896 // Note that the CanonicalizePort will always prepend a colon to the output
897 // to separate it from the colon that it assumes preceeds it.
898 struct PortCase {
899 const char* input;
900 int default_port;
901 const char* expected;
902 url_parse::Component expected_component;
903 bool expected_success;
904 } port_cases[] = {
905 // Invalid input should be copied w/ failure.
906 {"as df", 80, ":as%20df", url_parse::Component(1, 7), false},
907 {"-2", 80, ":-2", url_parse::Component(1, 2), false},
908 // Default port should be omitted.
909 {"80", 80, "", url_parse::Component(0, -1), true},
910 {"8080", 80, ":8080", url_parse::Component(1, 4), true},
911 // PORT_UNSPECIFIED should mean always keep the port.
912 {"80", url_parse::PORT_UNSPECIFIED, ":80", url_parse::Component(1, 2), true},
913 };
914
915 for (size_t i = 0; i < ARRAYSIZE(port_cases); i++) {
916 int url_len = static_cast<int>(strlen(port_cases[i].input));
917 url_parse::Component in_comp(0, url_len);
918 url_parse::Component out_comp;
919 std::string out_str;
920 url_canon::StdStringCanonOutput output1(&out_str);
921 bool success = url_canon::CanonicalizePort(port_cases[i].input, in_comp,
922 port_cases[i].default_port,
923 &output1, &out_comp);
924 output1.Complete();
925
926 EXPECT_EQ(port_cases[i].expected_success, success);
927 EXPECT_EQ(std::string(port_cases[i].expected), out_str);
928 EXPECT_EQ(port_cases[i].expected_component.begin, out_comp.begin);
929 EXPECT_EQ(port_cases[i].expected_component.len, out_comp.len);
930
931 // Now try the wide version
932 out_str.clear();
933 url_canon::StdStringCanonOutput output2(&out_str);
934 string16 wide_input(ConvertUTF8ToUTF16(port_cases[i].input));
935 success = url_canon::CanonicalizePort(wide_input.c_str(), in_comp,
936 port_cases[i].default_port,
937 &output2, &out_comp);
938 output2.Complete();
939
940 EXPECT_EQ(port_cases[i].expected_success, success);
941 EXPECT_EQ(std::string(port_cases[i].expected), out_str);
942 EXPECT_EQ(port_cases[i].expected_component.begin, out_comp.begin);
943 EXPECT_EQ(port_cases[i].expected_component.len, out_comp.len);
944 }
945 }
946
TEST(URLCanonTest,Path)947 TEST(URLCanonTest, Path) {
948 DualComponentCase path_cases[] = {
949 // ----- path collapsing tests -----
950 {"/././foo", L"/././foo", "/foo", url_parse::Component(0, 4), true},
951 {"/./.foo", L"/./.foo", "/.foo", url_parse::Component(0, 5), true},
952 {"/foo/.", L"/foo/.", "/foo/", url_parse::Component(0, 5), true},
953 {"/foo/./", L"/foo/./", "/foo/", url_parse::Component(0, 5), true},
954 // double dots followed by a slash or the end of the string count
955 {"/foo/bar/..", L"/foo/bar/..", "/foo/", url_parse::Component(0, 5), true},
956 {"/foo/bar/../", L"/foo/bar/../", "/foo/", url_parse::Component(0, 5), true},
957 // don't count double dots when they aren't followed by a slash
958 {"/foo/..bar", L"/foo/..bar", "/foo/..bar", url_parse::Component(0, 10), true},
959 // some in the middle
960 {"/foo/bar/../ton", L"/foo/bar/../ton", "/foo/ton", url_parse::Component(0, 8), true},
961 {"/foo/bar/../ton/../../a", L"/foo/bar/../ton/../../a", "/a", url_parse::Component(0, 2), true},
962 // we should not be able to go above the root
963 {"/foo/../../..", L"/foo/../../..", "/", url_parse::Component(0, 1), true},
964 {"/foo/../../../ton", L"/foo/../../../ton", "/ton", url_parse::Component(0, 4), true},
965 // escaped dots should be unescaped and treated the same as dots
966 {"/foo/%2e", L"/foo/%2e", "/foo/", url_parse::Component(0, 5), true},
967 {"/foo/%2e%2", L"/foo/%2e%2", "/foo/.%2", url_parse::Component(0, 8), true},
968 {"/foo/%2e./%2e%2e/.%2e/%2e.bar", L"/foo/%2e./%2e%2e/.%2e/%2e.bar", "/..bar", url_parse::Component(0, 6), true},
969 // Multiple slashes in a row should be preserved and treated like empty
970 // directory names.
971 {"////../..", L"////../..", "//", url_parse::Component(0, 2), true},
972
973 // ----- escaping tests -----
974 {"/foo", L"/foo", "/foo", url_parse::Component(0, 4), true},
975 // Valid escape sequence
976 {"/%20foo", L"/%20foo", "/%20foo", url_parse::Component(0, 7), true},
977 // Invalid escape sequence we should pass through unchanged.
978 {"/foo%", L"/foo%", "/foo%", url_parse::Component(0, 5), true},
979 {"/foo%2", L"/foo%2", "/foo%2", url_parse::Component(0, 6), true},
980 // Invalid escape sequence: bad characters should be treated the same as
981 // the sourrounding text, not as escaped (in this case, UTF-8).
982 {"/foo%2zbar", L"/foo%2zbar", "/foo%2zbar", url_parse::Component(0, 10), true},
983 {"/foo%2\xc2\xa9zbar", NULL, "/foo%2%C2%A9zbar", url_parse::Component(0, 16), true},
984 {NULL, L"/foo%2\xc2\xa9zbar", "/foo%2%C3%82%C2%A9zbar", url_parse::Component(0, 22), true},
985 // Regular characters that are escaped should be unescaped
986 {"/foo%41%7a", L"/foo%41%7a", "/fooAz", url_parse::Component(0, 6), true},
987 // Funny characters that are unescaped should be escaped
988 {"/foo\x09\x91%91", NULL, "/foo%09%91%91", url_parse::Component(0, 13), true},
989 {NULL, L"/foo\x09\x91%91", "/foo%09%C2%91%91", url_parse::Component(0, 16), true},
990 // Invalid characters that are escaped should cause a failure.
991 {"/foo%00%51", L"/foo%00%51", "/foo%00Q", url_parse::Component(0, 8), false},
992 // Some characters should be passed through unchanged regardless of esc.
993 {"/(%28:%3A%29)", L"/(%28:%3A%29)", "/(%28:%3A%29)", url_parse::Component(0, 13), true},
994 // Characters that are properly escaped should not have the case changed
995 // of hex letters.
996 {"/%3A%3a%3C%3c", L"/%3A%3a%3C%3c", "/%3A%3a%3C%3c", url_parse::Component(0, 13), true},
997 // Funny characters that are unescaped should be escaped
998 {"/foo\tbar", L"/foo\tbar", "/foo%09bar", url_parse::Component(0, 10), true},
999 // Backslashes should get converted to forward slashes
1000 {"\\foo\\bar", L"\\foo\\bar", "/foo/bar", url_parse::Component(0, 8), true},
1001 // Hashes found in paths (possibly only when the caller explicitly sets
1002 // the path on an already-parsed URL) should be escaped.
1003 {"/foo#bar", L"/foo#bar", "/foo%23bar", url_parse::Component(0, 10), true},
1004 // %7f should be allowed and %3D should not be unescaped (these were wrong
1005 // in a previous version).
1006 {"/%7Ffp3%3Eju%3Dduvgw%3Dd", L"/%7Ffp3%3Eju%3Dduvgw%3Dd", "/%7Ffp3%3Eju%3Dduvgw%3Dd", url_parse::Component(0, 24), true},
1007 // @ should be passed through unchanged (escaped or unescaped).
1008 {"/@asdf%40", L"/@asdf%40", "/@asdf%40", url_parse::Component(0, 9), true},
1009
1010 // ----- encoding tests -----
1011 // Basic conversions
1012 {"/\xe4\xbd\xa0\xe5\xa5\xbd\xe4\xbd\xa0\xe5\xa5\xbd", L"/\x4f60\x597d\x4f60\x597d", "/%E4%BD%A0%E5%A5%BD%E4%BD%A0%E5%A5%BD", url_parse::Component(0, 37), true},
1013 // Invalid unicode characters should fail. We only do validation on
1014 // UTF-16 input, so this doesn't happen on 8-bit.
1015 {"/\xef\xb7\x90zyx", NULL, "/%EF%B7%90zyx", url_parse::Component(0, 13), true},
1016 {NULL, L"/\xfdd0zyx", "/%EF%BF%BDzyx", url_parse::Component(0, 13), false},
1017 };
1018
1019 for (size_t i = 0; i < arraysize(path_cases); i++) {
1020 if (path_cases[i].input8) {
1021 int len = static_cast<int>(strlen(path_cases[i].input8));
1022 url_parse::Component in_comp(0, len);
1023 url_parse::Component out_comp;
1024 std::string out_str;
1025 url_canon::StdStringCanonOutput output(&out_str);
1026 bool success = url_canon::CanonicalizePath(path_cases[i].input8, in_comp,
1027 &output, &out_comp);
1028 output.Complete();
1029
1030 EXPECT_EQ(path_cases[i].expected_success, success);
1031 EXPECT_EQ(path_cases[i].expected_component.begin, out_comp.begin);
1032 EXPECT_EQ(path_cases[i].expected_component.len, out_comp.len);
1033 EXPECT_EQ(path_cases[i].expected, out_str);
1034 }
1035
1036 if (path_cases[i].input16) {
1037 string16 input16(WStringToUTF16(path_cases[i].input16));
1038 int len = static_cast<int>(input16.length());
1039 url_parse::Component in_comp(0, len);
1040 url_parse::Component out_comp;
1041 std::string out_str;
1042 url_canon::StdStringCanonOutput output(&out_str);
1043
1044 bool success = url_canon::CanonicalizePath(input16.c_str(), in_comp,
1045 &output, &out_comp);
1046 output.Complete();
1047
1048 EXPECT_EQ(path_cases[i].expected_success, success);
1049 EXPECT_EQ(path_cases[i].expected_component.begin, out_comp.begin);
1050 EXPECT_EQ(path_cases[i].expected_component.len, out_comp.len);
1051 EXPECT_EQ(path_cases[i].expected, out_str);
1052 }
1053 }
1054
1055 // Manual test: embedded NULLs should be escaped and the URL should be marked
1056 // as invalid.
1057 const char path_with_null[] = "/ab\0c";
1058 url_parse::Component in_comp(0, 5);
1059 url_parse::Component out_comp;
1060
1061 std::string out_str;
1062 url_canon::StdStringCanonOutput output(&out_str);
1063 bool success = url_canon::CanonicalizePath(path_with_null, in_comp,
1064 &output, &out_comp);
1065 output.Complete();
1066 EXPECT_FALSE(success);
1067 EXPECT_EQ("/ab%00c", out_str);
1068 }
1069
TEST(URLCanonTest,Query)1070 TEST(URLCanonTest, Query) {
1071 struct QueryCase {
1072 const char* input8;
1073 const wchar_t* input16;
1074 const char* encoding;
1075 const char* expected;
1076 } query_cases[] = {
1077 // Regular ASCII case in some different encodings.
1078 {"foo=bar", L"foo=bar", NULL, "?foo=bar"},
1079 {"foo=bar", L"foo=bar", "utf-8", "?foo=bar"},
1080 {"foo=bar", L"foo=bar", "shift_jis", "?foo=bar"},
1081 {"foo=bar", L"foo=bar", "gb2312", "?foo=bar"},
1082 // Allow question marks in the query without escaping
1083 {"as?df", L"as?df", NULL, "?as?df"},
1084 // Always escape '#' since it would mark the ref.
1085 {"as#df", L"as#df", NULL, "?as%23df"},
1086 // Escape some questionable 8-bit characters, but never unescape.
1087 {"\x02hello\x7f bye", L"\x02hello\x7f bye", NULL, "?%02hello%7F%20bye"},
1088 {"%40%41123", L"%40%41123", NULL, "?%40%41123"},
1089 // Chinese input/output
1090 {"q=\xe4\xbd\xa0\xe5\xa5\xbd", L"q=\x4f60\x597d", NULL, "?q=%E4%BD%A0%E5%A5%BD"},
1091 {"q=\xe4\xbd\xa0\xe5\xa5\xbd", L"q=\x4f60\x597d", "gb2312", "?q=%C4%E3%BA%C3"},
1092 {"q=\xe4\xbd\xa0\xe5\xa5\xbd", L"q=\x4f60\x597d", "big5", "?q=%A7A%A6n"},
1093 // Unencodable character in the destination character set should be
1094 // escaped. The escape sequence unescapes to be the entity name:
1095 // "?q=你"
1096 {"q=Chinese\xef\xbc\xa7", L"q=Chinese\xff27", "iso-8859-1", "?q=Chinese%26%2365319%3B"},
1097 // Invalid UTF-8/16 input should be replaced with invalid characters.
1098 {"q=\xed\xed", L"q=\xd800\xd800", NULL, "?q=%EF%BF%BD%EF%BF%BD"},
1099 // Don't allow < or > because sometimes they are used for XSS if the
1100 // URL is echoed in content. Firefox does this, IE doesn't.
1101 {"q=<asdf>", L"q=<asdf>", NULL, "?q=%3Casdf%3E"},
1102 // Escape double quotemarks in the query.
1103 {"q=\"asdf\"", L"q=\"asdf\"", NULL, "?q=%22asdf%22"},
1104 };
1105
1106 for (size_t i = 0; i < ARRAYSIZE(query_cases); i++) {
1107 url_parse::Component out_comp;
1108
1109 UConvScoper conv(query_cases[i].encoding);
1110 ASSERT_TRUE(!query_cases[i].encoding || conv.converter());
1111 url_canon::ICUCharsetConverter converter(conv.converter());
1112
1113 // Map NULL to a NULL converter pointer.
1114 url_canon::ICUCharsetConverter* conv_pointer = &converter;
1115 if (!query_cases[i].encoding)
1116 conv_pointer = NULL;
1117
1118 if (query_cases[i].input8) {
1119 int len = static_cast<int>(strlen(query_cases[i].input8));
1120 url_parse::Component in_comp(0, len);
1121 std::string out_str;
1122
1123 url_canon::StdStringCanonOutput output(&out_str);
1124 url_canon::CanonicalizeQuery(query_cases[i].input8, in_comp,
1125 conv_pointer, &output, &out_comp);
1126 output.Complete();
1127
1128 EXPECT_EQ(query_cases[i].expected, out_str);
1129 }
1130
1131 if (query_cases[i].input16) {
1132 string16 input16(WStringToUTF16(query_cases[i].input16));
1133 int len = static_cast<int>(input16.length());
1134 url_parse::Component in_comp(0, len);
1135 std::string out_str;
1136
1137 url_canon::StdStringCanonOutput output(&out_str);
1138 url_canon::CanonicalizeQuery(input16.c_str(), in_comp,
1139 conv_pointer, &output, &out_comp);
1140 output.Complete();
1141
1142 EXPECT_EQ(query_cases[i].expected, out_str);
1143 }
1144 }
1145
1146 // Extra test for input with embedded NULL;
1147 std::string out_str;
1148 url_canon::StdStringCanonOutput output(&out_str);
1149 url_parse::Component out_comp;
1150 url_canon::CanonicalizeQuery("a \x00z\x01", url_parse::Component(0, 5), NULL,
1151 &output, &out_comp);
1152 output.Complete();
1153 EXPECT_EQ("?a%20%00z%01", out_str);
1154 }
1155
TEST(URLCanonTest,Ref)1156 TEST(URLCanonTest, Ref) {
1157 // Refs are trivial, it just checks the encoding.
1158 DualComponentCase ref_cases[] = {
1159 // Regular one, we shouldn't escape spaces, et al.
1160 {"hello, world", L"hello, world", "#hello, world", url_parse::Component(1, 12), true},
1161 // UTF-8/wide input should be preserved
1162 {"\xc2\xa9", L"\xa9", "#\xc2\xa9", url_parse::Component(1, 2), true},
1163 // Test a characer that takes > 16 bits (U+10300 = old italic letter A)
1164 {"\xF0\x90\x8C\x80ss", L"\xd800\xdf00ss", "#\xF0\x90\x8C\x80ss", url_parse::Component(1, 6), true},
1165 // Escaping should be preserved unchanged, even invalid ones
1166 {"%41%a", L"%41%a", "#%41%a", url_parse::Component(1, 5), true},
1167 // Invalid UTF-8/16 input should be flagged and the input made valid
1168 {"\xc2", NULL, "#\xef\xbf\xbd", url_parse::Component(1, 3), true},
1169 {NULL, L"\xd800\x597d", "#\xef\xbf\xbd\xe5\xa5\xbd", url_parse::Component(1, 6), true},
1170 // Test a Unicode invalid character.
1171 {"a\xef\xb7\x90", L"a\xfdd0", "#a\xef\xbf\xbd", url_parse::Component(1, 4), true},
1172 // Refs can have # signs and we should preserve them.
1173 {"asdf#qwer", L"asdf#qwer", "#asdf#qwer", url_parse::Component(1, 9), true},
1174 {"#asdf", L"#asdf", "##asdf", url_parse::Component(1, 5), true},
1175 };
1176
1177 for (size_t i = 0; i < arraysize(ref_cases); i++) {
1178 // 8-bit input
1179 if (ref_cases[i].input8) {
1180 int len = static_cast<int>(strlen(ref_cases[i].input8));
1181 url_parse::Component in_comp(0, len);
1182 url_parse::Component out_comp;
1183
1184 std::string out_str;
1185 url_canon::StdStringCanonOutput output(&out_str);
1186 url_canon::CanonicalizeRef(ref_cases[i].input8, in_comp,
1187 &output, &out_comp);
1188 output.Complete();
1189
1190 EXPECT_EQ(ref_cases[i].expected_component.begin, out_comp.begin);
1191 EXPECT_EQ(ref_cases[i].expected_component.len, out_comp.len);
1192 EXPECT_EQ(ref_cases[i].expected, out_str);
1193 }
1194
1195 // 16-bit input
1196 if (ref_cases[i].input16) {
1197 string16 input16(WStringToUTF16(ref_cases[i].input16));
1198 int len = static_cast<int>(input16.length());
1199 url_parse::Component in_comp(0, len);
1200 url_parse::Component out_comp;
1201
1202 std::string out_str;
1203 url_canon::StdStringCanonOutput output(&out_str);
1204 url_canon::CanonicalizeRef(input16.c_str(), in_comp, &output, &out_comp);
1205 output.Complete();
1206
1207 EXPECT_EQ(ref_cases[i].expected_component.begin, out_comp.begin);
1208 EXPECT_EQ(ref_cases[i].expected_component.len, out_comp.len);
1209 EXPECT_EQ(ref_cases[i].expected, out_str);
1210 }
1211 }
1212
1213 // Try one with an embedded NULL. It should be stripped.
1214 const char null_input[5] = "ab\x00z";
1215 url_parse::Component null_input_component(0, 4);
1216 url_parse::Component out_comp;
1217
1218 std::string out_str;
1219 url_canon::StdStringCanonOutput output(&out_str);
1220 url_canon::CanonicalizeRef(null_input, null_input_component,
1221 &output, &out_comp);
1222 output.Complete();
1223
1224 EXPECT_EQ(1, out_comp.begin);
1225 EXPECT_EQ(3, out_comp.len);
1226 EXPECT_EQ("#abz", out_str);
1227 }
1228
TEST(URLCanonTest,CanonicalizeStandardURL)1229 TEST(URLCanonTest, CanonicalizeStandardURL) {
1230 // The individual component canonicalize tests should have caught the cases
1231 // for each of those components. Here, we just need to test that the various
1232 // parts are included or excluded properly, and have the correct separators.
1233 struct URLCase {
1234 const char* input;
1235 const char* expected;
1236 bool expected_success;
1237 } cases[] = {
1238 {"http://www.google.com/foo?bar=baz#", "http://www.google.com/foo?bar=baz#", true},
1239 {"http://[www.google.com]/", "http://[www.google.com]/", false},
1240 {"ht\ttp:@www.google.com:80/;p?#", "ht%09tp://www.google.com:80/;p?#", false},
1241 {"http:////////user:@google.com:99?foo", "http://user@google.com:99/?foo", true},
1242 {"www.google.com", ":www.google.com/", true},
1243 {"http://192.0x00A80001", "http://192.168.0.1/", true},
1244 {"http://www/foo%2Ehtml", "http://www/foo.html", true},
1245 {"http://user:pass@/", "http://user:pass@/", false},
1246 {"http://%25DOMAIN:foobar@foodomain.com/", "http://%25DOMAIN:foobar@foodomain.com/", true},
1247
1248 // Backslashes should get converted to forward slashes.
1249 {"http:\\\\www.google.com\\foo", "http://www.google.com/foo", true},
1250
1251 // Busted refs shouldn't make the whole thing fail.
1252 {"http://www.google.com/asdf#\xc2", "http://www.google.com/asdf#\xef\xbf\xbd", true},
1253
1254 // Basic port tests.
1255 {"http://foo:80/", "http://foo/", true},
1256 {"http://foo:81/", "http://foo:81/", true},
1257 {"httpa://foo:80/", "httpa://foo:80/", true},
1258 {"http://foo:-80/", "http://foo:-80/", false},
1259
1260 {"https://foo:443/", "https://foo/", true},
1261 {"https://foo:80/", "https://foo:80/", true},
1262 {"ftp://foo:21/", "ftp://foo/", true},
1263 {"ftp://foo:80/", "ftp://foo:80/", true},
1264 {"gopher://foo:70/", "gopher://foo/", true},
1265 {"gopher://foo:443/", "gopher://foo:443/", true},
1266 {"ws://foo:80/", "ws://foo/", true},
1267 {"ws://foo:81/", "ws://foo:81/", true},
1268 {"ws://foo:443/", "ws://foo:443/", true},
1269 {"ws://foo:815/", "ws://foo:815/", true},
1270 {"wss://foo:80/", "wss://foo:80/", true},
1271 {"wss://foo:81/", "wss://foo:81/", true},
1272 {"wss://foo:443/", "wss://foo/", true},
1273 {"wss://foo:815/", "wss://foo:815/", true},
1274 };
1275
1276 for (size_t i = 0; i < ARRAYSIZE(cases); i++) {
1277 int url_len = static_cast<int>(strlen(cases[i].input));
1278 url_parse::Parsed parsed;
1279 url_parse::ParseStandardURL(cases[i].input, url_len, &parsed);
1280
1281 url_parse::Parsed out_parsed;
1282 std::string out_str;
1283 url_canon::StdStringCanonOutput output(&out_str);
1284 bool success = url_canon::CanonicalizeStandardURL(
1285 cases[i].input, url_len, parsed, NULL, &output, &out_parsed);
1286 output.Complete();
1287
1288 EXPECT_EQ(cases[i].expected_success, success);
1289 EXPECT_EQ(cases[i].expected, out_str);
1290 }
1291 }
1292
1293 // The codepath here is the same as for regular canonicalization, so we just
1294 // need to test that things are replaced or not correctly.
TEST(URLCanonTest,ReplaceStandardURL)1295 TEST(URLCanonTest, ReplaceStandardURL) {
1296 ReplaceCase replace_cases[] = {
1297 // Common case of truncating the path.
1298 {"http://www.google.com/foo?bar=baz#ref", NULL, NULL, NULL, NULL, NULL, "/", kDeleteComp, kDeleteComp, "http://www.google.com/"},
1299 // Replace everything
1300 {"http://a:b@google.com:22/foo;bar?baz@cat", "https", "me", "pw", "host.com", "99", "/path", "query", "ref", "https://me:pw@host.com:99/path?query#ref"},
1301 // Replace nothing
1302 {"http://a:b@google.com:22/foo?baz@cat", NULL, NULL, NULL, NULL, NULL, NULL, NULL, NULL, "http://a:b@google.com:22/foo?baz@cat"},
1303 };
1304
1305 for (size_t i = 0; i < arraysize(replace_cases); i++) {
1306 const ReplaceCase& cur = replace_cases[i];
1307 int base_len = static_cast<int>(strlen(cur.base));
1308 url_parse::Parsed parsed;
1309 url_parse::ParseStandardURL(cur.base, base_len, &parsed);
1310
1311 url_canon::Replacements<char> r;
1312 typedef url_canon::Replacements<char> R; // Clean up syntax.
1313
1314 // Note that for the scheme we pass in a different clear function since
1315 // there is no function to clear the scheme.
1316 SetupReplComp(&R::SetScheme, &R::ClearRef, &r, cur.scheme);
1317 SetupReplComp(&R::SetUsername, &R::ClearUsername, &r, cur.username);
1318 SetupReplComp(&R::SetPassword, &R::ClearPassword, &r, cur.password);
1319 SetupReplComp(&R::SetHost, &R::ClearHost, &r, cur.host);
1320 SetupReplComp(&R::SetPort, &R::ClearPort, &r, cur.port);
1321 SetupReplComp(&R::SetPath, &R::ClearPath, &r, cur.path);
1322 SetupReplComp(&R::SetQuery, &R::ClearQuery, &r, cur.query);
1323 SetupReplComp(&R::SetRef, &R::ClearRef, &r, cur.ref);
1324
1325 std::string out_str;
1326 url_canon::StdStringCanonOutput output(&out_str);
1327 url_parse::Parsed out_parsed;
1328 url_canon::ReplaceStandardURL(replace_cases[i].base, parsed,
1329 r, NULL, &output, &out_parsed);
1330 output.Complete();
1331
1332 EXPECT_EQ(replace_cases[i].expected, out_str);
1333 }
1334
1335 // The path pointer should be ignored if the address is invalid.
1336 {
1337 const char src[] = "http://www.google.com/here_is_the_path";
1338 int src_len = static_cast<int>(strlen(src));
1339
1340 url_parse::Parsed parsed;
1341 url_parse::ParseStandardURL(src, src_len, &parsed);
1342
1343 // Replace the path to 0 length string. By using 1 as the string address,
1344 // the test should get an access violation if it tries to dereference it.
1345 url_canon::Replacements<char> r;
1346 r.SetPath(reinterpret_cast<char*>(0x00000001), url_parse::Component(0, 0));
1347 std::string out_str1;
1348 url_canon::StdStringCanonOutput output1(&out_str1);
1349 url_parse::Parsed new_parsed;
1350 url_canon::ReplaceStandardURL(src, parsed, r, NULL, &output1, &new_parsed);
1351 output1.Complete();
1352 EXPECT_STREQ("http://www.google.com/", out_str1.c_str());
1353
1354 // Same with an "invalid" path.
1355 r.SetPath(reinterpret_cast<char*>(0x00000001), url_parse::Component());
1356 std::string out_str2;
1357 url_canon::StdStringCanonOutput output2(&out_str2);
1358 url_canon::ReplaceStandardURL(src, parsed, r, NULL, &output2, &new_parsed);
1359 output2.Complete();
1360 EXPECT_STREQ("http://www.google.com/", out_str2.c_str());
1361 }
1362 }
1363
TEST(URLCanonTest,ReplaceFileURL)1364 TEST(URLCanonTest, ReplaceFileURL) {
1365 ReplaceCase replace_cases[] = {
1366 // Replace everything
1367 {"file:///C:/gaba?query#ref", NULL, NULL, NULL, "filer", NULL, "/foo", "b", "c", "file://filer/foo?b#c"},
1368 // Replace nothing
1369 {"file:///C:/gaba?query#ref", NULL, NULL, NULL, NULL, NULL, NULL, NULL, NULL, "file:///C:/gaba?query#ref"},
1370 // Clear non-path components (common)
1371 {"file:///C:/gaba?query#ref", NULL, NULL, NULL, NULL, NULL, NULL, kDeleteComp, kDeleteComp, "file:///C:/gaba"},
1372 // Replace path with something that doesn't begin with a slash and make
1373 // sure it get added properly.
1374 {"file:///C:/gaba", NULL, NULL, NULL, NULL, NULL, "interesting/", NULL, NULL, "file:///interesting/"},
1375 {"file:///home/gaba?query#ref", NULL, NULL, NULL, "filer", NULL, "/foo", "b", "c", "file://filer/foo?b#c"},
1376 {"file:///home/gaba?query#ref", NULL, NULL, NULL, NULL, NULL, NULL, NULL, NULL, "file:///home/gaba?query#ref"},
1377 {"file:///home/gaba?query#ref", NULL, NULL, NULL, NULL, NULL, NULL, kDeleteComp, kDeleteComp, "file:///home/gaba"},
1378 {"file:///home/gaba", NULL, NULL, NULL, NULL, NULL, "interesting/", NULL, NULL, "file:///interesting/"},
1379 };
1380
1381 for (size_t i = 0; i < arraysize(replace_cases); i++) {
1382 const ReplaceCase& cur = replace_cases[i];
1383 int base_len = static_cast<int>(strlen(cur.base));
1384 url_parse::Parsed parsed;
1385 url_parse::ParseFileURL(cur.base, base_len, &parsed);
1386
1387 url_canon::Replacements<char> r;
1388 typedef url_canon::Replacements<char> R; // Clean up syntax.
1389 SetupReplComp(&R::SetScheme, &R::ClearRef, &r, cur.scheme);
1390 SetupReplComp(&R::SetUsername, &R::ClearUsername, &r, cur.username);
1391 SetupReplComp(&R::SetPassword, &R::ClearPassword, &r, cur.password);
1392 SetupReplComp(&R::SetHost, &R::ClearHost, &r, cur.host);
1393 SetupReplComp(&R::SetPort, &R::ClearPort, &r, cur.port);
1394 SetupReplComp(&R::SetPath, &R::ClearPath, &r, cur.path);
1395 SetupReplComp(&R::SetQuery, &R::ClearQuery, &r, cur.query);
1396 SetupReplComp(&R::SetRef, &R::ClearRef, &r, cur.ref);
1397
1398 std::string out_str;
1399 url_canon::StdStringCanonOutput output(&out_str);
1400 url_parse::Parsed out_parsed;
1401 url_canon::ReplaceFileURL(cur.base, parsed,
1402 r, NULL, &output, &out_parsed);
1403 output.Complete();
1404
1405 EXPECT_EQ(replace_cases[i].expected, out_str);
1406 }
1407 }
1408
TEST(URLCanonTest,ReplacePathURL)1409 TEST(URLCanonTest, ReplacePathURL) {
1410 ReplaceCase replace_cases[] = {
1411 // Replace everything
1412 {"data:foo", "javascript", NULL, NULL, NULL, NULL, "alert('foo?');", NULL, NULL, "javascript:alert('foo?');"},
1413 // Replace nothing
1414 {"data:foo", NULL, NULL, NULL, NULL, NULL, NULL, NULL, NULL, "data:foo"},
1415 // Replace one or the other
1416 {"data:foo", "javascript", NULL, NULL, NULL, NULL, NULL, NULL, NULL, "javascript:foo"},
1417 {"data:foo", NULL, NULL, NULL, NULL, NULL, "bar", NULL, NULL, "data:bar"},
1418 {"data:foo", NULL, NULL, NULL, NULL, NULL, kDeleteComp, NULL, NULL, "data:"},
1419 };
1420
1421 for (size_t i = 0; i < arraysize(replace_cases); i++) {
1422 const ReplaceCase& cur = replace_cases[i];
1423 int base_len = static_cast<int>(strlen(cur.base));
1424 url_parse::Parsed parsed;
1425 url_parse::ParsePathURL(cur.base, base_len, &parsed);
1426
1427 url_canon::Replacements<char> r;
1428 typedef url_canon::Replacements<char> R; // Clean up syntax.
1429 SetupReplComp(&R::SetScheme, &R::ClearRef, &r, cur.scheme);
1430 SetupReplComp(&R::SetUsername, &R::ClearUsername, &r, cur.username);
1431 SetupReplComp(&R::SetPassword, &R::ClearPassword, &r, cur.password);
1432 SetupReplComp(&R::SetHost, &R::ClearHost, &r, cur.host);
1433 SetupReplComp(&R::SetPort, &R::ClearPort, &r, cur.port);
1434 SetupReplComp(&R::SetPath, &R::ClearPath, &r, cur.path);
1435 SetupReplComp(&R::SetQuery, &R::ClearQuery, &r, cur.query);
1436 SetupReplComp(&R::SetRef, &R::ClearRef, &r, cur.ref);
1437
1438 std::string out_str;
1439 url_canon::StdStringCanonOutput output(&out_str);
1440 url_parse::Parsed out_parsed;
1441 url_canon::ReplacePathURL(cur.base, parsed,
1442 r, &output, &out_parsed);
1443 output.Complete();
1444
1445 EXPECT_EQ(replace_cases[i].expected, out_str);
1446 }
1447 }
1448
TEST(URLCanonTest,ReplaceMailtoURL)1449 TEST(URLCanonTest, ReplaceMailtoURL) {
1450 ReplaceCase replace_cases[] = {
1451 // Replace everything
1452 {"mailto:jon@foo.com?body=sup", "mailto", NULL, NULL, NULL, NULL, "addr1", "to=tony", NULL, "mailto:addr1?to=tony"},
1453 // Replace nothing
1454 {"mailto:jon@foo.com?body=sup", NULL, NULL, NULL, NULL, NULL, NULL, NULL, NULL, "mailto:jon@foo.com?body=sup"},
1455 // Replace the path
1456 {"mailto:jon@foo.com?body=sup", NULL, NULL, NULL, NULL, NULL, "jason", NULL, NULL, "mailto:jason?body=sup"},
1457 // Replace the query
1458 {"mailto:jon@foo.com?body=sup", NULL, NULL, NULL, NULL, NULL, NULL, "custom=1", NULL, "mailto:jon@foo.com?custom=1"},
1459 // Replace the path and query
1460 {"mailto:jon@foo.com?body=sup", NULL, NULL, NULL, NULL, NULL, "jason", "custom=1", NULL, "mailto:jason?custom=1"},
1461 // Set the query to empty (should leave trailing question mark)
1462 {"mailto:jon@foo.com?body=sup", NULL, NULL, NULL, NULL, NULL, NULL, "", NULL, "mailto:jon@foo.com?"},
1463 // Clear the query
1464 {"mailto:jon@foo.com?body=sup", NULL, NULL, NULL, NULL, NULL, NULL, "|", NULL, "mailto:jon@foo.com"},
1465 // Clear the path
1466 {"mailto:jon@foo.com?body=sup", NULL, NULL, NULL, NULL, NULL, "|", NULL, NULL, "mailto:?body=sup"},
1467 // Clear the path + query
1468 {"mailto:", NULL, NULL, NULL, NULL, NULL, "|", "|", NULL, "mailto:"},
1469 // Setting the ref should have no effect
1470 {"mailto:addr1", NULL, NULL, NULL, NULL, NULL, NULL, NULL, "BLAH", "mailto:addr1"},
1471 };
1472
1473 for (size_t i = 0; i < arraysize(replace_cases); i++) {
1474 const ReplaceCase& cur = replace_cases[i];
1475 int base_len = static_cast<int>(strlen(cur.base));
1476 url_parse::Parsed parsed;
1477 url_parse::ParseMailtoURL(cur.base, base_len, &parsed);
1478
1479 url_canon::Replacements<char> r;
1480 typedef url_canon::Replacements<char> R;
1481 SetupReplComp(&R::SetScheme, &R::ClearRef, &r, cur.scheme);
1482 SetupReplComp(&R::SetUsername, &R::ClearUsername, &r, cur.username);
1483 SetupReplComp(&R::SetPassword, &R::ClearPassword, &r, cur.password);
1484 SetupReplComp(&R::SetHost, &R::ClearHost, &r, cur.host);
1485 SetupReplComp(&R::SetPort, &R::ClearPort, &r, cur.port);
1486 SetupReplComp(&R::SetPath, &R::ClearPath, &r, cur.path);
1487 SetupReplComp(&R::SetQuery, &R::ClearQuery, &r, cur.query);
1488 SetupReplComp(&R::SetRef, &R::ClearRef, &r, cur.ref);
1489
1490 std::string out_str;
1491 url_canon::StdStringCanonOutput output(&out_str);
1492 url_parse::Parsed out_parsed;
1493 url_canon::ReplaceMailtoURL(cur.base, parsed,
1494 r, &output, &out_parsed);
1495 output.Complete();
1496
1497 EXPECT_EQ(replace_cases[i].expected, out_str);
1498 }
1499 }
1500
TEST(URLCanonTest,CanonicalizeFileURL)1501 TEST(URLCanonTest, CanonicalizeFileURL) {
1502 struct URLCase {
1503 const char* input;
1504 const char* expected;
1505 bool expected_success;
1506 url_parse::Component expected_host;
1507 url_parse::Component expected_path;
1508 } cases[] = {
1509 #ifdef _WIN32
1510 // Windows-style paths
1511 {"file:c:\\foo\\bar.html", "file:///C:/foo/bar.html", true, url_parse::Component(), url_parse::Component(7, 16)},
1512 {" File:c|////foo\\bar.html", "file:///C:////foo/bar.html", true, url_parse::Component(), url_parse::Component(7, 19)},
1513 {"file:", "file:///", true, url_parse::Component(), url_parse::Component(7, 1)},
1514 {"file:UNChost/path", "file://unchost/path", true, url_parse::Component(7, 7), url_parse::Component(14, 5)},
1515 // CanonicalizeFileURL supports absolute Windows style paths for IE
1516 // compatability. Note that the caller must decide that this is a file
1517 // URL itself so it can call the file canonicalizer. This is usually
1518 // done automatically as part of relative URL resolving.
1519 {"c:\\foo\\bar", "file:///C:/foo/bar", true, url_parse::Component(), url_parse::Component(7, 11)},
1520 {"C|/foo/bar", "file:///C:/foo/bar", true, url_parse::Component(), url_parse::Component(7, 11)},
1521 {"/C|\\foo\\bar", "file:///C:/foo/bar", true, url_parse::Component(), url_parse::Component(7, 11)},
1522 {"//C|/foo/bar", "file:///C:/foo/bar", true, url_parse::Component(), url_parse::Component(7, 11)},
1523 {"//server/file", "file://server/file", true, url_parse::Component(7, 6), url_parse::Component(13, 5)},
1524 {"\\\\server\\file", "file://server/file", true, url_parse::Component(7, 6), url_parse::Component(13, 5)},
1525 {"/\\server/file", "file://server/file", true, url_parse::Component(7, 6), url_parse::Component(13, 5)},
1526 // We should preserve the number of slashes after the colon for IE
1527 // compatability, except when there is none, in which case we should
1528 // add one.
1529 {"file:c:foo/bar.html", "file:///C:/foo/bar.html", true, url_parse::Component(), url_parse::Component(7, 16)},
1530 {"file:/\\/\\C:\\\\//foo\\bar.html", "file:///C:////foo/bar.html", true, url_parse::Component(), url_parse::Component(7, 19)},
1531 // Three slashes should be non-UNC, even if there is no drive spec (IE
1532 // does this, which makes the resulting request invalid).
1533 {"file:///foo/bar.txt", "file:///foo/bar.txt", true, url_parse::Component(), url_parse::Component(7, 12)},
1534 // TODO(brettw) we should probably fail for invalid host names, which
1535 // would change the expected result on this test. We also currently allow
1536 // colon even though it's probably invalid, because its currently the
1537 // "natural" result of the way the canonicalizer is written. There doesn't
1538 // seem to be a strong argument for why allowing it here would be bad, so
1539 // we just tolerate it and the load will fail later.
1540 {"FILE:/\\/\\7:\\\\//foo\\bar.html", "file://7:////foo/bar.html", false, url_parse::Component(7, 2), url_parse::Component(9, 16)},
1541 {"file:filer/home\\me", "file://filer/home/me", true, url_parse::Component(7, 5), url_parse::Component(12, 8)},
1542 // Make sure relative paths can't go above the "C:"
1543 {"file:///C:/foo/../../../bar.html", "file:///C:/bar.html", true, url_parse::Component(), url_parse::Component(7, 12)},
1544 // Busted refs shouldn't make the whole thing fail.
1545 {"file:///C:/asdf#\xc2", "file:///C:/asdf#\xef\xbf\xbd", true, url_parse::Component(), url_parse::Component(7, 8)},
1546 #else
1547 // Unix-style paths
1548 {"file:///home/me", "file:///home/me", true, url_parse::Component(), url_parse::Component(7, 8)},
1549 // Windowsy ones should get still treated as Unix-style.
1550 {"file:c:\\foo\\bar.html", "file:///c:/foo/bar.html", true, url_parse::Component(), url_parse::Component(7, 16)},
1551 {"file:c|//foo\\bar.html", "file:///c%7C//foo/bar.html", true, url_parse::Component(), url_parse::Component(7, 19)},
1552 // file: tests from WebKit (LayoutTests/fast/loader/url-parse-1.html)
1553 {"//", "file:///", true, url_parse::Component(), url_parse::Component(7, 1)},
1554 {"///", "file:///", true, url_parse::Component(), url_parse::Component(7, 1)},
1555 {"///test", "file:///test", true, url_parse::Component(), url_parse::Component(7, 5)},
1556 {"file://test", "file://test/", true, url_parse::Component(7, 4), url_parse::Component(11, 1)},
1557 {"file://localhost", "file://localhost/", true, url_parse::Component(7, 9), url_parse::Component(16, 1)},
1558 {"file://localhost/", "file://localhost/", true, url_parse::Component(7, 9), url_parse::Component(16, 1)},
1559 {"file://localhost/test", "file://localhost/test", true, url_parse::Component(7, 9), url_parse::Component(16, 5)},
1560 #endif // _WIN32
1561 };
1562
1563 for (size_t i = 0; i < ARRAYSIZE(cases); i++) {
1564 int url_len = static_cast<int>(strlen(cases[i].input));
1565 url_parse::Parsed parsed;
1566 url_parse::ParseFileURL(cases[i].input, url_len, &parsed);
1567
1568 url_parse::Parsed out_parsed;
1569 std::string out_str;
1570 url_canon::StdStringCanonOutput output(&out_str);
1571 bool success = url_canon::CanonicalizeFileURL(cases[i].input, url_len,
1572 parsed, NULL, &output,
1573 &out_parsed);
1574 output.Complete();
1575
1576 EXPECT_EQ(cases[i].expected_success, success);
1577 EXPECT_EQ(cases[i].expected, out_str);
1578
1579 // Make sure the spec was properly identified, the file canonicalizer has
1580 // different code for writing the spec.
1581 EXPECT_EQ(0, out_parsed.scheme.begin);
1582 EXPECT_EQ(4, out_parsed.scheme.len);
1583
1584 EXPECT_EQ(cases[i].expected_host.begin, out_parsed.host.begin);
1585 EXPECT_EQ(cases[i].expected_host.len, out_parsed.host.len);
1586
1587 EXPECT_EQ(cases[i].expected_path.begin, out_parsed.path.begin);
1588 EXPECT_EQ(cases[i].expected_path.len, out_parsed.path.len);
1589 }
1590 }
1591
TEST(URLCanonTest,CanonicalizePathURL)1592 TEST(URLCanonTest, CanonicalizePathURL) {
1593 // Path URLs should get canonicalized schemes but nothing else.
1594 struct PathCase {
1595 const char* input;
1596 const char* expected;
1597 } path_cases[] = {
1598 {"javascript:", "javascript:"},
1599 {"JavaScript:Foo", "javascript:Foo"},
1600 {":\":This /is interesting;?#", ":\":This /is interesting;?#"},
1601 };
1602
1603 for (size_t i = 0; i < ARRAYSIZE(path_cases); i++) {
1604 int url_len = static_cast<int>(strlen(path_cases[i].input));
1605 url_parse::Parsed parsed;
1606 url_parse::ParsePathURL(path_cases[i].input, url_len, &parsed);
1607
1608 url_parse::Parsed out_parsed;
1609 std::string out_str;
1610 url_canon::StdStringCanonOutput output(&out_str);
1611 bool success = url_canon::CanonicalizePathURL(path_cases[i].input, url_len,
1612 parsed, &output,
1613 &out_parsed);
1614 output.Complete();
1615
1616 EXPECT_TRUE(success);
1617 EXPECT_EQ(path_cases[i].expected, out_str);
1618
1619 EXPECT_EQ(0, out_parsed.host.begin);
1620 EXPECT_EQ(-1, out_parsed.host.len);
1621
1622 // When we end with a colon at the end, there should be no path.
1623 if (path_cases[i].input[url_len - 1] == ':') {
1624 EXPECT_EQ(0, out_parsed.path.begin);
1625 EXPECT_EQ(-1, out_parsed.path.len);
1626 }
1627 }
1628 }
1629
TEST(URLCanonTest,CanonicalizeMailtoURL)1630 TEST(URLCanonTest, CanonicalizeMailtoURL) {
1631 struct URLCase {
1632 const char* input;
1633 const char* expected;
1634 bool expected_success;
1635 url_parse::Component expected_path;
1636 url_parse::Component expected_query;
1637 } cases[] = {
1638 {"mailto:addr1", "mailto:addr1", true, url_parse::Component(7, 5), url_parse::Component()},
1639 {"mailto:addr1@foo.com", "mailto:addr1@foo.com", true, url_parse::Component(7, 13), url_parse::Component()},
1640 // Trailing whitespace is stripped.
1641 {"MaIlTo:addr1 \t ", "mailto:addr1", true, url_parse::Component(7, 5), url_parse::Component()},
1642 {"MaIlTo:addr1?to=jon", "mailto:addr1?to=jon", true, url_parse::Component(7, 5), url_parse::Component(13,6)},
1643 {"mailto:addr1,addr2", "mailto:addr1,addr2", true, url_parse::Component(7, 11), url_parse::Component()},
1644 {"mailto:addr1, addr2", "mailto:addr1, addr2", true, url_parse::Component(7, 12), url_parse::Component()},
1645 {"mailto:addr1%2caddr2", "mailto:addr1%2caddr2", true, url_parse::Component(7, 13), url_parse::Component()},
1646 {"mailto:\xF0\x90\x8C\x80", "mailto:%F0%90%8C%80", true, url_parse::Component(7, 12), url_parse::Component()},
1647 // Null character should be escaped to %00
1648 {"mailto:addr1\0addr2?foo", "mailto:addr1%00addr2?foo", true, url_parse::Component(7, 13), url_parse::Component(21, 3)},
1649 // Invalid -- UTF-8 encoded surrogate value.
1650 {"mailto:\xed\xa0\x80", "mailto:%EF%BF%BD", false, url_parse::Component(7, 9), url_parse::Component()},
1651 {"mailto:addr1?", "mailto:addr1?", true, url_parse::Component(7, 5), url_parse::Component(13, 0)},
1652 };
1653
1654 // Define outside of loop to catch bugs where components aren't reset
1655 url_parse::Parsed parsed;
1656 url_parse::Parsed out_parsed;
1657
1658 for (size_t i = 0; i < ARRAYSIZE(cases); i++) {
1659 int url_len = static_cast<int>(strlen(cases[i].input));
1660 if (i == 8) {
1661 // The 9th test case purposely has a '\0' in it -- don't count it
1662 // as the string terminator.
1663 url_len = 22;
1664 }
1665 url_parse::ParseMailtoURL(cases[i].input, url_len, &parsed);
1666
1667 std::string out_str;
1668 url_canon::StdStringCanonOutput output(&out_str);
1669 bool success = url_canon::CanonicalizeMailtoURL(cases[i].input, url_len,
1670 parsed, &output,
1671 &out_parsed);
1672 output.Complete();
1673
1674 EXPECT_EQ(cases[i].expected_success, success);
1675 EXPECT_EQ(cases[i].expected, out_str);
1676
1677 // Make sure the spec was properly identified
1678 EXPECT_EQ(0, out_parsed.scheme.begin);
1679 EXPECT_EQ(6, out_parsed.scheme.len);
1680
1681 EXPECT_EQ(cases[i].expected_path.begin, out_parsed.path.begin);
1682 EXPECT_EQ(cases[i].expected_path.len, out_parsed.path.len);
1683
1684 EXPECT_EQ(cases[i].expected_query.begin, out_parsed.query.begin);
1685 EXPECT_EQ(cases[i].expected_query.len, out_parsed.query.len);
1686 }
1687 }
1688
1689 #ifndef WIN32
1690
TEST(URLCanonTest,_itoa_s)1691 TEST(URLCanonTest, _itoa_s) {
1692 // We fill the buffer with 0xff to ensure that it's getting properly
1693 // null-terminated. We also allocate one byte more than what we tell
1694 // _itoa_s about, and ensure that the extra byte is untouched.
1695 char buf[6];
1696 memset(buf, 0xff, sizeof(buf));
1697 EXPECT_EQ(0, url_canon::_itoa_s(12, buf, sizeof(buf) - 1, 10));
1698 EXPECT_STREQ("12", buf);
1699 EXPECT_EQ('\xFF', buf[3]);
1700
1701 // Test the edge cases - exactly the buffer size and one over
1702 memset(buf, 0xff, sizeof(buf));
1703 EXPECT_EQ(0, url_canon::_itoa_s(1234, buf, sizeof(buf) - 1, 10));
1704 EXPECT_STREQ("1234", buf);
1705 EXPECT_EQ('\xFF', buf[5]);
1706
1707 memset(buf, 0xff, sizeof(buf));
1708 EXPECT_EQ(EINVAL, url_canon::_itoa_s(12345, buf, sizeof(buf) - 1, 10));
1709 EXPECT_EQ('\xFF', buf[5]); // should never write to this location
1710
1711 // Test the template overload (note that this will see the full buffer)
1712 memset(buf, 0xff, sizeof(buf));
1713 EXPECT_EQ(0, url_canon::_itoa_s(12, buf, 10));
1714 EXPECT_STREQ("12", buf);
1715 EXPECT_EQ('\xFF', buf[3]);
1716
1717 memset(buf, 0xff, sizeof(buf));
1718 EXPECT_EQ(0, url_canon::_itoa_s(12345, buf, 10));
1719 EXPECT_STREQ("12345", buf);
1720
1721 EXPECT_EQ(EINVAL, url_canon::_itoa_s(123456, buf, 10));
1722
1723 // Test that radix 16 is supported.
1724 memset(buf, 0xff, sizeof(buf));
1725 EXPECT_EQ(0, url_canon::_itoa_s(1234, buf, sizeof(buf) - 1, 16));
1726 EXPECT_STREQ("4d2", buf);
1727 EXPECT_EQ('\xFF', buf[5]);
1728 }
1729
TEST(URLCanonTest,_itow_s)1730 TEST(URLCanonTest, _itow_s) {
1731 // We fill the buffer with 0xff to ensure that it's getting properly
1732 // null-terminated. We also allocate one byte more than what we tell
1733 // _itoa_s about, and ensure that the extra byte is untouched.
1734 char16 buf[6];
1735 const char fill_mem = 0xff;
1736 const char16 fill_char = 0xffff;
1737 memset(buf, fill_mem, sizeof(buf));
1738 EXPECT_EQ(0, url_canon::_itow_s(12, buf, sizeof(buf) / 2 - 1, 10));
1739 EXPECT_EQ(WStringToUTF16(L"12"), string16(buf));
1740 EXPECT_EQ(fill_char, buf[3]);
1741
1742 // Test the edge cases - exactly the buffer size and one over
1743 EXPECT_EQ(0, url_canon::_itow_s(1234, buf, sizeof(buf) / 2 - 1, 10));
1744 EXPECT_EQ(WStringToUTF16(L"1234"), string16(buf));
1745 EXPECT_EQ(fill_char, buf[5]);
1746
1747 memset(buf, fill_mem, sizeof(buf));
1748 EXPECT_EQ(EINVAL, url_canon::_itow_s(12345, buf, sizeof(buf) / 2 - 1, 10));
1749 EXPECT_EQ(fill_char, buf[5]); // should never write to this location
1750
1751 // Test the template overload (note that this will see the full buffer)
1752 memset(buf, fill_mem, sizeof(buf));
1753 EXPECT_EQ(0, url_canon::_itow_s(12, buf, 10));
1754 EXPECT_EQ(WStringToUTF16(L"12"), string16(buf));
1755 EXPECT_EQ(fill_char, buf[3]);
1756
1757 memset(buf, fill_mem, sizeof(buf));
1758 EXPECT_EQ(0, url_canon::_itow_s(12345, buf, 10));
1759 EXPECT_EQ(WStringToUTF16(L"12345"), string16(buf));
1760
1761 EXPECT_EQ(EINVAL, url_canon::_itow_s(123456, buf, 10));
1762 }
1763
1764 #endif // !WIN32
1765
1766 // Returns true if the given two structures are the same.
ParsedIsEqual(const url_parse::Parsed & a,const url_parse::Parsed & b)1767 static bool ParsedIsEqual(const url_parse::Parsed& a,
1768 const url_parse::Parsed& b) {
1769 return a.scheme.begin == b.scheme.begin && a.scheme.len == b.scheme.len &&
1770 a.username.begin == b.username.begin && a.username.len == b.username.len &&
1771 a.password.begin == b.password.begin && a.password.len == b.password.len &&
1772 a.host.begin == b.host.begin && a.host.len == b.host.len &&
1773 a.port.begin == b.port.begin && a.port.len == b.port.len &&
1774 a.path.begin == b.path.begin && a.path.len == b.path.len &&
1775 a.query.begin == b.query.begin && a.query.len == b.query.len &&
1776 a.ref.begin == b.ref.begin && a.ref.len == b.ref.len;
1777 }
1778
TEST(URLCanonTest,ResolveRelativeURL)1779 TEST(URLCanonTest, ResolveRelativeURL) {
1780 struct RelativeCase {
1781 const char* base; // Input base URL: MUST BE CANONICAL
1782 bool is_base_hier; // Is the base URL hierarchical
1783 bool is_base_file; // Tells us if the base is a file URL.
1784 const char* test; // Input URL to test against.
1785 bool succeed_relative; // Whether we expect IsRelativeURL to succeed
1786 bool is_rel; // Whether we expect |test| to be relative or not.
1787 bool succeed_resolve; // Whether we expect ResolveRelativeURL to succeed.
1788 const char* resolved; // What we expect in the result when resolving.
1789 } rel_cases[] = {
1790 // Basic absolute input.
1791 {"http://host/a", true, false, "http://another/", true, false, false, NULL},
1792 {"http://host/a", true, false, "http:////another/", true, false, false, NULL},
1793 // Empty relative URLs should only remove the ref part of the URL,
1794 // leaving the rest unchanged.
1795 {"http://foo/bar", true, false, "", true, true, true, "http://foo/bar"},
1796 {"http://foo/bar#ref", true, false, "", true, true, true, "http://foo/bar"},
1797 {"http://foo/bar#", true, false, "", true, true, true, "http://foo/bar"},
1798 // Spaces at the ends of the relative path should be ignored.
1799 {"http://foo/bar", true, false, " another ", true, true, true, "http://foo/another"},
1800 {"http://foo/bar", true, false, " . ", true, true, true, "http://foo/"},
1801 {"http://foo/bar", true, false, " \t ", true, true, true, "http://foo/bar"},
1802 // Matching schemes without two slashes are treated as relative.
1803 {"http://host/a", true, false, "http:path", true, true, true, "http://host/path"},
1804 {"http://host/a/", true, false, "http:path", true, true, true, "http://host/a/path"},
1805 {"http://host/a", true, false, "http:/path", true, true, true, "http://host/path"},
1806 {"http://host/a", true, false, "HTTP:/path", true, true, true, "http://host/path"},
1807 // Nonmatching schemes are absolute.
1808 {"http://host/a", true, false, "https:host2", true, false, false, NULL},
1809 {"http://host/a", true, false, "htto:/host2", true, false, false, NULL},
1810 // Absolute path input
1811 {"http://host/a", true, false, "/b/c/d", true, true, true, "http://host/b/c/d"},
1812 {"http://host/a", true, false, "\\b\\c\\d", true, true, true, "http://host/b/c/d"},
1813 {"http://host/a", true, false, "/b/../c", true, true, true, "http://host/c"},
1814 {"http://host/a?b#c", true, false, "/b/../c", true, true, true, "http://host/c"},
1815 {"http://host/a", true, false, "\\b/../c?x#y", true, true, true, "http://host/c?x#y"},
1816 {"http://host/a?b#c", true, false, "/b/../c?x#y", true, true, true, "http://host/c?x#y"},
1817 // Relative path input
1818 {"http://host/a", true, false, "b", true, true, true, "http://host/b"},
1819 {"http://host/a", true, false, "bc/de", true, true, true, "http://host/bc/de"},
1820 {"http://host/a/", true, false, "bc/de?query#ref", true, true, true, "http://host/a/bc/de?query#ref"},
1821 {"http://host/a/", true, false, ".", true, true, true, "http://host/a/"},
1822 {"http://host/a/", true, false, "..", true, true, true, "http://host/"},
1823 {"http://host/a/", true, false, "./..", true, true, true, "http://host/"},
1824 {"http://host/a/", true, false, "../.", true, true, true, "http://host/"},
1825 {"http://host/a/", true, false, "././.", true, true, true, "http://host/a/"},
1826 {"http://host/a?query#ref", true, false, "../../../foo", true, true, true, "http://host/foo"},
1827 // Query input
1828 {"http://host/a", true, false, "?foo=bar", true, true, true, "http://host/a?foo=bar"},
1829 {"http://host/a?x=y#z", true, false, "?", true, true, true, "http://host/a?"},
1830 {"http://host/a?x=y#z", true, false, "?foo=bar#com", true, true, true, "http://host/a?foo=bar#com"},
1831 // Ref input
1832 {"http://host/a", true, false, "#ref", true, true, true, "http://host/a#ref"},
1833 {"http://host/a#b", true, false, "#", true, true, true, "http://host/a#"},
1834 {"http://host/a?foo=bar#hello", true, false, "#bye", true, true, true, "http://host/a?foo=bar#bye"},
1835 // Non-hierarchical base: no relative handling. Relative input should
1836 // error, and if a scheme is present, it should be treated as absolute.
1837 {"data:foobar", false, false, "baz.html", false, false, false, NULL},
1838 {"data:foobar", false, false, "data:baz", true, false, false, NULL},
1839 {"data:foobar", false, false, "data:/base", true, false, false, NULL},
1840 // Non-hierarchical base: absolute input should succeed.
1841 {"data:foobar", false, false, "http://host/", true, false, false, NULL},
1842 {"data:foobar", false, false, "http:host", true, false, false, NULL},
1843 // Invalid schemes should be treated as relative.
1844 {"http://foo/bar", true, false, "./asd:fgh", true, true, true, "http://foo/asd:fgh"},
1845 {"http://foo/bar", true, false, ":foo", true, true, true, "http://foo/:foo"},
1846 {"http://foo/bar", true, false, " hello world", true, true, true, "http://foo/hello%20world"},
1847 {"data:asdf", false, false, ":foo", false, false, false, NULL},
1848 // We should treat semicolons like any other character in URL resolving
1849 {"http://host/a", true, false, ";foo", true, true, true, "http://host/;foo"},
1850 {"http://host/a;", true, false, ";foo", true, true, true, "http://host/;foo"},
1851 {"http://host/a", true, false, ";/../bar", true, true, true, "http://host/bar"},
1852 // Relative URLs can also be written as "//foo/bar" which is relative to
1853 // the scheme. In this case, it would take the old scheme, so for http
1854 // the example would resolve to "http://foo/bar".
1855 {"http://host/a", true, false, "//another", true, true, true, "http://another/"},
1856 {"http://host/a", true, false, "//another/path?query#ref", true, true, true, "http://another/path?query#ref"},
1857 {"http://host/a", true, false, "///another/path", true, true, true, "http://another/path"},
1858 {"http://host/a", true, false, "//Another\\path", true, true, true, "http://another/path"},
1859 {"http://host/a", true, false, "//", true, true, false, "http:"},
1860 // IE will also allow one or the other to be a backslash to get the same
1861 // behavior.
1862 {"http://host/a", true, false, "\\/another/path", true, true, true, "http://another/path"},
1863 {"http://host/a", true, false, "/\\Another\\path", true, true, true, "http://another/path"},
1864 #ifdef WIN32
1865 // Resolving against Windows file base URLs.
1866 {"file:///C:/foo", true, true, "http://host/", true, false, false, NULL},
1867 {"file:///C:/foo", true, true, "bar", true, true, true, "file:///C:/bar"},
1868 {"file:///C:/foo", true, true, "../../../bar.html", true, true, true, "file:///C:/bar.html"},
1869 {"file:///C:/foo", true, true, "/../bar.html", true, true, true, "file:///C:/bar.html"},
1870 // But two backslashes on Windows should be UNC so should be treated
1871 // as absolute.
1872 {"http://host/a", true, false, "\\\\another\\path", true, false, false, NULL},
1873 // IE doesn't support drive specs starting with two slashes. It fails
1874 // immediately and doesn't even try to load. We fix it up to either
1875 // an absolute path or UNC depending on what it looks like.
1876 {"file:///C:/something", true, true, "//c:/foo", true, true, true, "file:///C:/foo"},
1877 {"file:///C:/something", true, true, "//localhost/c:/foo", true, true, true, "file:///C:/foo"},
1878 // Windows drive specs should be allowed and treated as absolute.
1879 {"file:///C:/foo", true, true, "c:", true, false, false, NULL},
1880 {"file:///C:/foo", true, true, "c:/foo", true, false, false, NULL},
1881 {"http://host/a", true, false, "c:\\foo", true, false, false, NULL},
1882 // Relative paths with drive letters should be allowed when the base is
1883 // also a file.
1884 {"file:///C:/foo", true, true, "/z:/bar", true, true, true, "file:///Z:/bar"},
1885 // Treat absolute paths as being off of the drive.
1886 {"file:///C:/foo", true, true, "/bar", true, true, true, "file:///C:/bar"},
1887 {"file://localhost/C:/foo", true, true, "/bar", true, true, true, "file://localhost/C:/bar"},
1888 {"file:///C:/foo/com/", true, true, "/bar", true, true, true, "file:///C:/bar"},
1889 // On Windows, two slashes without a drive letter when the base is a file
1890 // means that the path is UNC.
1891 {"file:///C:/something", true, true, "//somehost/path", true, true, true, "file://somehost/path"},
1892 {"file:///C:/something", true, true, "/\\//somehost/path", true, true, true, "file://somehost/path"},
1893 #else
1894 // On Unix we fall back to relative behavior since there's nothing else
1895 // reasonable to do.
1896 {"http://host/a", true, false, "\\\\Another\\path", true, true, true, "http://another/path"},
1897 #endif
1898 // Even on Windows, we don't allow relative drive specs when the base
1899 // is not file.
1900 {"http://host/a", true, false, "/c:\\foo", true, true, true, "http://host/c:/foo"},
1901 {"http://host/a", true, false, "//c:\\foo", true, true, true, "http://c/foo"},
1902 };
1903
1904 for (size_t i = 0; i < ARRAYSIZE(rel_cases); i++) {
1905 const RelativeCase& cur_case = rel_cases[i];
1906
1907 url_parse::Parsed parsed;
1908 int base_len = static_cast<int>(strlen(cur_case.base));
1909 if (cur_case.is_base_file)
1910 url_parse::ParseFileURL(cur_case.base, base_len, &parsed);
1911 else if (cur_case.is_base_hier)
1912 url_parse::ParseStandardURL(cur_case.base, base_len, &parsed);
1913 else
1914 url_parse::ParsePathURL(cur_case.base, base_len, &parsed);
1915
1916 // First see if it is relative.
1917 int test_len = static_cast<int>(strlen(cur_case.test));
1918 bool is_relative;
1919 url_parse::Component relative_component;
1920 bool succeed_is_rel = url_canon::IsRelativeURL(
1921 cur_case.base, parsed, cur_case.test, test_len, cur_case.is_base_hier,
1922 &is_relative, &relative_component);
1923
1924 EXPECT_EQ(cur_case.succeed_relative, succeed_is_rel) <<
1925 "succeed is rel failure on " << cur_case.test;
1926 EXPECT_EQ(cur_case.is_rel, is_relative) <<
1927 "is rel failure on " << cur_case.test;
1928 // Now resolve it.
1929 if (succeed_is_rel && is_relative && cur_case.is_rel) {
1930 std::string resolved;
1931 url_canon::StdStringCanonOutput output(&resolved);
1932 url_parse::Parsed resolved_parsed;
1933
1934 bool succeed_resolve = url_canon::ResolveRelativeURL(
1935 cur_case.base, parsed, cur_case.is_base_file,
1936 cur_case.test, relative_component, NULL, &output, &resolved_parsed);
1937 output.Complete();
1938
1939 EXPECT_EQ(cur_case.succeed_resolve, succeed_resolve);
1940 EXPECT_EQ(cur_case.resolved, resolved) << " on " << cur_case.test;
1941
1942 // Verify that the output parsed structure is the same as parsing a
1943 // the URL freshly.
1944 url_parse::Parsed ref_parsed;
1945 int resolved_len = static_cast<int>(resolved.size());
1946 if (cur_case.is_base_file)
1947 url_parse::ParseFileURL(resolved.c_str(), resolved_len, &ref_parsed);
1948 else if (cur_case.is_base_hier)
1949 url_parse::ParseStandardURL(resolved.c_str(), resolved_len, &ref_parsed);
1950 else
1951 url_parse::ParsePathURL(resolved.c_str(), resolved_len, &ref_parsed);
1952 EXPECT_TRUE(ParsedIsEqual(ref_parsed, resolved_parsed));
1953 }
1954 }
1955 }
1956
1957 // It used to be when we did a replacement with a long buffer of UTF-16
1958 // characters, we would get invalid data in the URL. This is because the buffer
1959 // it used to hold the UTF-8 data was resized, while some pointers were still
1960 // kept to the old buffer that was removed.
TEST(URLCanonTest,ReplacementOverflow)1961 TEST(URLCanonTest, ReplacementOverflow) {
1962 const char src[] = "file:///C:/foo/bar";
1963 int src_len = static_cast<int>(strlen(src));
1964 url_parse::Parsed parsed;
1965 url_parse::ParseFileURL(src, src_len, &parsed);
1966
1967 // Override two components, the path with something short, and the query with
1968 // sonething long enough to trigger the bug.
1969 url_canon::Replacements<char16> repl;
1970 string16 new_query;
1971 for (int i = 0; i < 4800; i++)
1972 new_query.push_back('a');
1973
1974 string16 new_path(WStringToUTF16(L"/foo"));
1975 repl.SetPath(new_path.c_str(), url_parse::Component(0, 4));
1976 repl.SetQuery(new_query.c_str(),
1977 url_parse::Component(0, static_cast<int>(new_query.length())));
1978
1979 // Call ReplaceComponents on the string. It doesn't matter if we call it for
1980 // standard URLs, file URLs, etc, since they will go to the same replacement
1981 // function that was buggy.
1982 url_parse::Parsed repl_parsed;
1983 std::string repl_str;
1984 url_canon::StdStringCanonOutput repl_output(&repl_str);
1985 url_canon::ReplaceFileURL(src, parsed, repl, NULL, &repl_output, &repl_parsed);
1986 repl_output.Complete();
1987
1988 // Generate the expected string and check.
1989 std::string expected("file:///foo?");
1990 for (size_t i = 0; i < new_query.length(); i++)
1991 expected.push_back('a');
1992 EXPECT_TRUE(expected == repl_str);
1993 }
1994