Index: net/der/parse_values_unittest.cc |
diff --git a/net/der/parse_values_unittest.cc b/net/der/parse_values_unittest.cc |
index 8233042418db3e545c275673b59f170e6446ae4a..35e59e67476b64439ff6da91dc2eef2402c5acb4 100644 |
--- a/net/der/parse_values_unittest.cc |
+++ b/net/der/parse_values_unittest.cc |
@@ -38,117 +38,389 @@ TEST(ParseValuesTest, ParseBool) { |
TEST(ParseValuesTest, ParseTimes) { |
GeneralizedTime out; |
- EXPECT_TRUE(ParseUTCTime(Input("140218161200Z"), &out)); |
+ const uint8_t valid_utc_time[] = { |
+ '1', '4', '0', '2', '1', '8', '1', '6', '1', '2', '0', '0', 'Z'}; |
+ EXPECT_TRUE(ParseUTCTime(Input(valid_utc_time), &out)); |
// DER-encoded UTCTime must end with 'Z'. |
- EXPECT_FALSE(ParseUTCTime(Input("140218161200X"), &out)); |
+ const uint8_t utc_time_missing_z[] = { |
+ '1', '4', '0', '2', '1', '8', '1', '6', '1', '2', '0', '0', 'X'}; |
+ EXPECT_FALSE(ParseUTCTime(Input(utc_time_missing_z), &out)); |
// Check that a negative number (-4 in this case) doesn't get parsed as |
// a 2-digit number. |
- EXPECT_FALSE(ParseUTCTime(Input("-40218161200Z"), &out)); |
+ const uint8_t utc_time_negative_number[] = { |
+ '-', '4', '0', '2', '1', '8', '1', '6', '1', '2', '0', '0', 'Z'}; |
+ EXPECT_FALSE(ParseUTCTime(Input(utc_time_negative_number), &out)); |
// Check that numbers with a leading 0 don't get parsed in octal by making |
// the second digit an invalid octal digit (e.g. 09). |
- EXPECT_TRUE(ParseUTCTime(Input("090218161200Z"), &out)); |
+ const uint8_t utc_time_test_octal[] = { |
+ '0', '9', '0', '2', '1', '8', '1', '6', '1', '2', '0', '0', 'Z'}; |
+ EXPECT_TRUE(ParseUTCTime(Input(utc_time_test_octal), &out)); |
// Check that the length is validated. |
- EXPECT_FALSE(ParseUTCTime(Input("140218161200"), &out)); |
- EXPECT_FALSE(ParseUTCTime(Input("140218161200Z0"), &out)); |
- EXPECT_FALSE(ParseUTCTimeRelaxed(Input("140218161200"), &out)); |
- EXPECT_FALSE(ParseUTCTimeRelaxed(Input("140218161200Z0"), &out)); |
+ const uint8_t utc_time_too_short[] = { |
+ '1', '4', '0', '2', '1', '8', '1', '6', '1', '2', '0', '0'}; |
+ const uint8_t utc_time_too_long[] = { |
+ '1', '4', '0', '2', '1', '8', '1', '6', '1', '2', '0', '0', 'Z', '0'}; |
+ EXPECT_FALSE(ParseUTCTime(Input(utc_time_too_short), &out)); |
+ EXPECT_FALSE(ParseUTCTime(Input(utc_time_too_long), &out)); |
+ EXPECT_FALSE(ParseUTCTimeRelaxed(Input(utc_time_too_short), &out)); |
+ EXPECT_FALSE(ParseUTCTimeRelaxed(Input(utc_time_too_long), &out)); |
// Check strictness of UTCTime parsers. |
- EXPECT_FALSE(ParseUTCTime(Input("1402181612Z"), &out)); |
- EXPECT_TRUE(ParseUTCTimeRelaxed(Input("1402181612Z"), &out)); |
+ const uint8_t utc_time_relaxed[] = { |
+ '1', '4', '0', '2', '1', '8', '1', '6', '1', '2', 'Z'}; |
+ EXPECT_FALSE(ParseUTCTime(Input(utc_time_relaxed), &out)); |
+ EXPECT_TRUE(ParseUTCTimeRelaxed(Input(utc_time_relaxed), &out)); |
// Check that the time ends in Z. |
- EXPECT_FALSE(ParseUTCTimeRelaxed(Input("1402181612Z0"), &out)); |
+ const uint8_t utc_time_relaxed_too_long[] = { |
+ '1', '4', '0', '2', '1', '8', '1', '6', '1', '2', 'Z', '0'}; |
+ EXPECT_FALSE(ParseUTCTimeRelaxed(Input(utc_time_relaxed_too_long), &out)); |
// Check format of GeneralizedTime. |
// Leap seconds are allowed. |
- EXPECT_TRUE(ParseGeneralizedTime(Input("20140218161260Z"), &out)); |
+ const uint8_t generalized_time_with_leap_second[] = {'2', |
+ '0', |
+ '1', |
+ '4', |
+ '0', |
+ '2', |
+ '1', |
+ '8', |
+ '1', |
+ '6', |
+ '1', |
+ '2', |
+ '6', |
+ '0', |
+ 'Z'}; |
nharper
2015/05/26 22:11:49
I don't particularly like how these look. I tried
Ryan Sleevi
2015/06/03 23:09:11
As soon as the new clang rolls in to Chromium, thi
|
+ EXPECT_TRUE( |
+ ParseGeneralizedTime(Input(generalized_time_with_leap_second), &out)); |
// But nothing larger than a leap second. |
- EXPECT_FALSE(ParseGeneralizedTime(Input("20140218161261Z"), &out)); |
+ const uint8_t generalized_time_second_too_big[] = {'2', |
+ '0', |
+ '1', |
+ '4', |
+ '0', |
+ '2', |
+ '1', |
+ '8', |
+ '1', |
+ '6', |
+ '1', |
+ '2', |
+ '6', |
+ '1', |
+ 'Z'}; |
+ EXPECT_FALSE( |
+ ParseGeneralizedTime(Input(generalized_time_second_too_big), &out)); |
// Minutes only go up to 59. |
- EXPECT_FALSE(ParseGeneralizedTime(Input("20140218166000Z"), &out)); |
+ const uint8_t generalized_time_minute_too_big[] = {'2', |
+ '0', |
+ '1', |
+ '4', |
+ '0', |
+ '2', |
+ '1', |
+ '8', |
+ '1', |
+ '6', |
+ '6', |
+ '0', |
+ '0', |
+ '0', |
+ 'Z'}; |
+ EXPECT_FALSE( |
+ ParseGeneralizedTime(Input(generalized_time_minute_too_big), &out)); |
// Hours only go up to 23. |
- EXPECT_FALSE(ParseGeneralizedTime(Input("20140218240000Z"), &out)); |
+ const uint8_t generalized_time_hour_too_big[] = {'2', |
+ '0', |
+ '1', |
+ '4', |
+ '0', |
+ '2', |
+ '1', |
+ '8', |
+ '2', |
+ '4', |
+ '0', |
+ '0', |
+ '0', |
+ '0', |
+ 'Z'}; |
+ EXPECT_FALSE( |
+ ParseGeneralizedTime(Input(generalized_time_hour_too_big), &out)); |
+ |
// The 0th day of a month is invalid. |
- EXPECT_FALSE(ParseGeneralizedTime(Input("20140200161200Z"), &out)); |
+ const uint8_t generalized_time_zeroth_day[] = {'2', |
+ '0', |
+ '1', |
+ '4', |
+ '0', |
+ '2', |
+ '0', |
+ '0', |
+ '1', |
+ '6', |
+ '1', |
+ '2', |
+ '0', |
+ '0', |
+ 'Z'}; |
+ EXPECT_FALSE(ParseGeneralizedTime(Input(generalized_time_zeroth_day), &out)); |
// The 0th month is invalid. |
- EXPECT_FALSE(ParseGeneralizedTime(Input("20140018161200Z"), &out)); |
+ const uint8_t generalized_time_zeroth_month[] = {'2', |
+ '0', |
+ '1', |
+ '4', |
+ '0', |
+ '0', |
+ '1', |
+ '8', |
+ '1', |
+ '6', |
+ '1', |
+ '2', |
+ '0', |
+ '0', |
+ 'Z'}; |
+ EXPECT_FALSE( |
+ ParseGeneralizedTime(Input(generalized_time_zeroth_month), &out)); |
// Months greater than 12 are invalid. |
- EXPECT_FALSE(ParseGeneralizedTime(Input("20141318161200Z"), &out)); |
+ const uint8_t generalized_time_13th_month[] = {'2', |
+ '0', |
+ '1', |
+ '4', |
+ '1', |
+ '3', |
+ '1', |
+ '8', |
+ '1', |
+ '6', |
+ '1', |
+ '2', |
+ '0', |
+ '0', |
+ 'Z'}; |
+ EXPECT_FALSE(ParseGeneralizedTime(Input(generalized_time_13th_month), &out)); |
// Some months have 31 days. |
- EXPECT_TRUE(ParseGeneralizedTime(Input("20140131000000Z"), &out)); |
+ const uint8_t generalized_time_january_thirty_first[] = {'2', |
+ '0', |
+ '1', |
+ '4', |
+ '0', |
+ '1', |
+ '3', |
+ '1', |
+ '0', |
+ '0', |
+ '0', |
+ '0', |
+ '0', |
+ '0', |
+ 'Z'}; |
+ EXPECT_TRUE( |
+ ParseGeneralizedTime(Input(generalized_time_january_thirty_first), &out)); |
// September has only 30 days. |
- EXPECT_FALSE(ParseGeneralizedTime(Input("20140931000000Z"), &out)); |
+ const uint8_t generalized_time_september_31st[] = {'2', |
+ '0', |
+ '1', |
+ '4', |
+ '0', |
+ '9', |
+ '3', |
+ '1', |
+ '0', |
+ '0', |
+ '0', |
+ '0', |
+ '0', |
+ '0', |
+ 'Z'}; |
+ EXPECT_FALSE( |
+ ParseGeneralizedTime(Input(generalized_time_september_31st), &out)); |
// February has only 28 days... |
- EXPECT_FALSE(ParseGeneralizedTime(Input("20140229000000Z"), &out)); |
+ const uint8_t generalized_time_february_29th_non_leap_year[] = {'2', |
+ '0', |
+ '1', |
+ '4', |
+ '0', |
+ '2', |
+ '2', |
+ '9', |
+ '0', |
+ '0', |
+ '0', |
+ '0', |
+ '0', |
+ '0', |
+ 'Z'}; |
+ EXPECT_FALSE(ParseGeneralizedTime( |
+ Input(generalized_time_february_29th_non_leap_year), &out)); |
// ... unless it's a leap year. |
- EXPECT_TRUE(ParseGeneralizedTime(Input("20160229000000Z"), &out)); |
+ const uint8_t generalized_time_february_29th_leap_year[] = {'2', |
+ '0', |
+ '1', |
+ '6', |
+ '0', |
+ '2', |
+ '2', |
+ '9', |
+ '0', |
+ '0', |
+ '0', |
+ '0', |
+ '0', |
+ '0', |
+ 'Z'}; |
+ EXPECT_TRUE(ParseGeneralizedTime( |
+ Input(generalized_time_february_29th_leap_year), &out)); |
// There aren't any leap days in years divisible by 100... |
- EXPECT_FALSE(ParseGeneralizedTime(Input("21000229000000Z"), &out)); |
+ const uint8_t generalized_time_leap_day_100th_year[] = {'2', |
+ '1', |
+ '0', |
+ '0', |
+ '0', |
+ '2', |
+ '2', |
+ '9', |
+ '0', |
+ '0', |
+ '0', |
+ '0', |
+ '0', |
+ '0', |
+ 'Z'}; |
+ EXPECT_FALSE( |
+ ParseGeneralizedTime(Input(generalized_time_leap_day_100th_year), &out)); |
// ...unless it's also divisible by 400. |
- EXPECT_TRUE(ParseGeneralizedTime(Input("20000229000000Z"), &out)); |
+ const uint8_t generalized_time_leap_day_400th_year[] = {'2', |
+ '0', |
+ '0', |
+ '0', |
+ '0', |
+ '2', |
+ '2', |
+ '9', |
+ '0', |
+ '0', |
+ '0', |
+ '0', |
+ '0', |
+ '0', |
+ 'Z'}; |
+ EXPECT_TRUE( |
+ ParseGeneralizedTime(Input(generalized_time_leap_day_400th_year), &out)); |
// Check more perverse invalid inputs. |
- const uint8_t trailing_null_bytes[] = {'2', |
- '0', |
- '0', |
- '0', |
- '1', |
- '2', |
- '3', |
- '1', |
- '0', |
- '1', |
- '0', |
- '2', |
- '0', |
- '3', |
- 'Z', |
- '\0'}; |
- Input trailing_null(trailing_null_bytes, sizeof(trailing_null_bytes)); |
- EXPECT_FALSE(ParseGeneralizedTime(trailing_null, &out)); |
- const uint8_t embedded_null_bytes[] = {'2', |
- '0', |
- '0', |
- '\0', |
- '1', |
- '2', |
- '3', |
- '1', |
- '0', |
- '1', |
- '0', |
- '2', |
- '0', |
- '3', |
- 'Z'}; |
- Input embedded_null(embedded_null_bytes, sizeof(embedded_null_bytes)); |
- EXPECT_FALSE(ParseGeneralizedTime(embedded_null, &out)); |
+ // Check that trailing null bytes are not ignored. |
+ const uint8_t trailing_null[] = {'2', |
+ '0', |
+ '0', |
+ '0', |
+ '1', |
+ '2', |
+ '3', |
+ '1', |
+ '0', |
+ '1', |
+ '0', |
+ '2', |
+ '0', |
+ '3', |
+ 'Z', |
+ '\0'}; |
+ EXPECT_FALSE(ParseGeneralizedTime(Input(trailing_null), &out)); |
+ |
+ // Check what happens when a null byte is in the middle of the input. |
+ const uint8_t embedded_null[] = {'2', |
+ '0', |
+ '0', |
+ '\0', |
+ '1', |
+ '2', |
+ '3', |
+ '1', |
+ '0', |
+ '1', |
+ '0', |
+ '2', |
+ '0', |
+ '3', |
+ 'Z'}; |
+ EXPECT_FALSE(ParseGeneralizedTime(Input(embedded_null), &out)); |
// The year can't be in hex. |
- EXPECT_FALSE(ParseGeneralizedTime(Input("0x201231000000Z"), &out)); |
+ const uint8_t generalized_time_year_in_hex[] = {'0', |
+ 'x', |
+ '2', |
+ '0', |
+ '1', |
+ '2', |
+ '3', |
+ '1', |
+ '0', |
+ '0', |
+ '0', |
+ '0', |
+ '0', |
+ '0', |
+ 'Z'}; |
+ EXPECT_FALSE(ParseGeneralizedTime(Input(generalized_time_year_in_hex), &out)); |
// The last byte must be 'Z'. |
- EXPECT_FALSE(ParseGeneralizedTime(Input("20001231000000X"), &out)); |
+ const uint8_t generalized_time_missing_z[] = {'2', |
+ '0', |
+ '0', |
+ '0', |
+ '1', |
+ '2', |
+ '3', |
+ '1', |
+ '0', |
+ '0', |
+ '0', |
+ '0', |
+ '0', |
+ '0', |
+ 'X'}; |
+ EXPECT_FALSE(ParseGeneralizedTime(Input(generalized_time_missing_z), &out)); |
// Check that the length is validated. |
- EXPECT_FALSE(ParseGeneralizedTime(Input("20140218161200"), &out)); |
- EXPECT_FALSE(ParseGeneralizedTime(Input("20140218161200Z0"), &out)); |
+ const uint8_t generalized_time_too_short[] = { |
+ '2', '0', '1', '4', '0', '2', '1', '8', '1', '6', '1', '2', '0', '0'}; |
+ const uint8_t generalized_time_too_long[] = {'2', |
+ '0', |
+ '1', |
+ '4', |
+ '0', |
+ '2', |
+ '1', |
+ '8', |
+ '1', |
+ '6', |
+ '1', |
+ '2', |
+ '0', |
+ '0', |
+ 'Z', |
+ '0'}; |
+ EXPECT_FALSE(ParseGeneralizedTime(Input(generalized_time_too_short), &out)); |
+ EXPECT_FALSE(ParseGeneralizedTime(Input(generalized_time_too_long), &out)); |
} |
TEST(ParseValuesTest, TimesCompare) { |
@@ -156,9 +428,42 @@ TEST(ParseValuesTest, TimesCompare) { |
GeneralizedTime time2; |
GeneralizedTime time3; |
- ASSERT_TRUE(ParseGeneralizedTime(Input("20140218161200Z"), &time1)); |
- ASSERT_TRUE(ParseUTCTime(Input("150218161200Z"), &time2)); |
- ASSERT_TRUE(ParseGeneralizedTime(Input("20160218161200Z"), &time3)); |
+ const uint8_t time1_bytes[] = {'2', |
+ '0', |
+ '1', |
+ '4', |
+ '0', |
+ '2', |
+ '1', |
+ '8', |
+ '1', |
+ '6', |
+ '1', |
+ '2', |
+ '0', |
+ '0', |
+ 'Z'}; |
+ const uint8_t time2_bytes[] = { |
+ '1', '5', '0', '2', '1', '8', '1', '6', '1', '2', '0', '0', 'Z'}; |
+ const uint8_t time3_bytes[] = {'2', |
+ '0', |
+ '1', |
+ '6', |
+ '0', |
+ '2', |
+ '1', |
+ '8', |
+ '1', |
+ '6', |
+ '1', |
+ '2', |
+ '0', |
+ '0', |
+ 'Z'}; |
+ |
+ ASSERT_TRUE(ParseGeneralizedTime(Input(time1_bytes), &time1)); |
+ ASSERT_TRUE(ParseUTCTime(Input(time2_bytes), &time2)); |
+ ASSERT_TRUE(ParseGeneralizedTime(Input(time3_bytes), &time3)); |
EXPECT_TRUE(time1 < time2); |
EXPECT_TRUE(time2 < time3); |
EXPECT_TRUE(time1 < time3); |