| /external/webkit/JavaScriptCore/tests/mozilla/ecma/Date/ |
| 15.9.1.1-1.js | 30 approximately +/-285,616 years from 1 jan 1970
35 1 jan 1970 UTC (+/-273972.6027397 years)
72 // every one hundred years contains:
73 // 24 years with 366 days
75 // every four hundred years contains:
76 // 97 years with 366 days
77 // 303 years with 365 days
|
| 15.9.1.1-2.js | 30 approximately +/-285,616 years from 1 jan 1970
35 1 jan 1970 UTC (+/-273972.6027397 years)
65 // every one hundred years contains:
66 // 24 years with 366 days
68 // every four hundred years contains:
69 // 97 years with 366 days
70 // 303 years with 365 days
|
| /external/stlport/test/unit/ |
| alg_test.cpp | 94 vector<int> years; local
95 years.push_back(1962);
96 years.push_back(1992);
97 years.push_back(2001);
98 years.push_back(1999);
99 sort(years.begin(), years.end());
100 CPPUNIT_ASSERT(years[0]==1962);
101 CPPUNIT_ASSERT(years[1]==1992);
102 CPPUNIT_ASSERT(years[2]==1999)
106 deque<int> years; local
[all...] |
| find_test.cpp | 66 int years[] = { 1942, 1952, 1962, 1972, 1982, 1992 }; local
68 const unsigned yearCount = sizeof(years) / sizeof(years[0]);
69 int* location = find((int*)years, (int*)years + yearCount, 1972);
71 CPPUNIT_ASSERT((location - years)==3);
|
| /ndk/tests/device/test-gnustl-full/unit/ |
| alg_test.cpp | 94 vector<int> years; local
95 years.push_back(1962);
96 years.push_back(1992);
97 years.push_back(2001);
98 years.push_back(1999);
99 sort(years.begin(), years.end());
100 CPPUNIT_ASSERT(years[0]==1962);
101 CPPUNIT_ASSERT(years[1]==1992);
102 CPPUNIT_ASSERT(years[2]==1999)
106 deque<int> years; local
[all...] |
| find_test.cpp | 66 int years[] = { 1942, 1952, 1962, 1972, 1982, 1992 }; local
68 const unsigned yearCount = sizeof(years) / sizeof(years[0]);
69 int* location = find((int*)years, (int*)years + yearCount, 1972);
71 CPPUNIT_ASSERT((location - years)==3);
|
| /ndk/tests/device/test-stlport/unit/ |
| alg_test.cpp | 94 vector<int> years; local
95 years.push_back(1962);
96 years.push_back(1992);
97 years.push_back(2001);
98 years.push_back(1999);
99 sort(years.begin(), years.end());
100 CPPUNIT_ASSERT(years[0]==1962);
101 CPPUNIT_ASSERT(years[1]==1992);
102 CPPUNIT_ASSERT(years[2]==1999)
106 deque<int> years; local
[all...] |
| find_test.cpp | 66 int years[] = { 1942, 1952, 1962, 1972, 1982, 1992 }; local
68 const unsigned yearCount = sizeof(years) / sizeof(years[0]);
69 int* location = find((int*)years, (int*)years + yearCount, 1972);
71 CPPUNIT_ASSERT((location - years)==3);
|
| /external/libpng/ |
| Y2KINFO | 14 that will hold years up to 65535. The other two hold the date in text
15 format, and will hold years up to 9999.
39 libpng are not passing 4-digit years into the png_convert_to_rfc_1123()
43 stated that it works with 4-digit years, and the APIs have been
47 integer to hold the year, and can hold years as large as 65535.
|
| /bionic/libc/tzcode/ |
| asctime.c | 30 ** All years associated with 32-bit time_t values are exactly four digits long;
31 ** some years associated with 64-bit time_t values are not.
32 ** Vintage programs are coded for years that are always four digits long
34 ** For years that are less than four digits, we pad the output with
37 ** we call a strftime variant that produces fewer characters for some years.
47 ** For years that are more than four digits we put extra spaces before the year
|
| /external/chromium/third_party/icu/source/i18n/ |
| buddhcal.h | 32 * that numbers years since the birth of the Buddha. This is the civil calendar
37 * except for the year and era. Years are numbered since the birth of the
219 * with 2-digit years are considered to fall within.
225 * 2-digit years are considered to fall within.
230 * Initializes the 100-year window that dates with 2-digit years
231 * are considered to fall within so that its start date is 80 years
|
| taiwncal.h | 33 * that numbers years since 1912
36 * except for the year and era. Years are numbered since 1912 AD (Gregorian),
201 * with 2-digit years are considered to fall within.
207 * 2-digit years are considered to fall within.
212 * Initializes the 100-year window that dates with 2-digit years
213 * are considered to fall within so that its start date is 80 years
|
| indiancal.h | 26 * that numbers years since the begining of SAKA ERA. This is the civil calendar
52 * In leap years, Chaitra has 31 days and starts on March 21 instead.
53 * The leap years of Gregorian calendar and Indian National Calendar are in synchornization.
56 * The Years
57 * Years are counted in the Saka Era, which starts its year 0 in 78AD (by gregorian calendar).
348 * with 2-digit years are considered to fall within.
354 * 2-digit years are considered to fall within.
359 * Initializes the 100-year window that dates with 2-digit years
360 * are considered to fall within so that its start date is 80 years
|
| hebrwcal.h | 40 * inserted in 7 out of every 19 years. To make matters even more
47 * months of Shevat and Adar in leap years. Since the leap month does
115 * (present in leap years only). In non-leap years, the calendar
420 * with 2-digit years are considered to fall within.
426 * 2-digit years are considered to fall within.
431 * Initializes the 100-year window that dates with 2-digit years
432 * are considered to fall within so that its start date is 80 years
|
| /external/chromium/third_party/icu/source/tools/tzcode/ |
| asctime.c | 30 ** All years associated with 32-bit time_t values are exactly four digits long;
31 ** some years associated with 64-bit time_t values are not.
32 ** Vintage programs are coded for years that are always four digits long
34 ** For years that are less than four digits, we pad the output with
37 ** we call a strftime variant that produces fewer characters for some years.
47 ** For years that are more than four digits we put extra spaces before the year
|
| /external/icu4c/i18n/ |
| buddhcal.h | 32 * that numbers years since the birth of the Buddha. This is the civil calendar
37 * except for the year and era. Years are numbered since the birth of the
219 * with 2-digit years are considered to fall within.
225 * 2-digit years are considered to fall within.
230 * Initializes the 100-year window that dates with 2-digit years
231 * are considered to fall within so that its start date is 80 years
|
| taiwncal.h | 33 * that numbers years since 1912
36 * except for the year and era. Years are numbered since 1912 AD (Gregorian),
201 * with 2-digit years are considered to fall within.
207 * 2-digit years are considered to fall within.
212 * Initializes the 100-year window that dates with 2-digit years
213 * are considered to fall within so that its start date is 80 years
|
| indiancal.h | 26 * that numbers years since the begining of SAKA ERA. This is the civil calendar
52 * In leap years, Chaitra has 31 days and starts on March 21 instead.
53 * The leap years of Gregorian calendar and Indian National Calendar are in synchornization.
56 * The Years
57 * Years are counted in the Saka Era, which starts its year 0 in 78AD (by gregorian calendar).
348 * with 2-digit years are considered to fall within.
354 * 2-digit years are considered to fall within.
359 * Initializes the 100-year window that dates with 2-digit years
360 * are considered to fall within so that its start date is 80 years
|
| /external/icu4c/tools/tzcode/ |
| asctime.c | 30 ** All years associated with 32-bit time_t values are exactly four digits long;
31 ** some years associated with 64-bit time_t values are not.
32 ** Vintage programs are coded for years that are always four digits long
34 ** For years that are less than four digits, we pad the output with
37 ** we call a strftime variant that produces fewer characters for some years.
47 ** For years that are more than four digits we put extra spaces before the year
|
| /libcore/luni/src/main/java/javax/xml/datatype/ |
| Duration.java | 34 * which consists of six fields (years, months, days, hours,
158 boolean yearSet = isSet(DatatypeConstants.YEARS);
218 * <p>Get the years value of this <code>Duration</code> as an <code>int</code> or <code>0</code> if not present.</p>
221 * {@link #getField(DatatypeConstants.Field field) getField(DatatypeConstants.YEARS)}.</p>
224 * with years that go beyond the range of an <code>int</code>.
225 * Use {@link #getField(DatatypeConstants.Field field) getField(DatatypeConstants.YEARS)} to avoid possible loss of precision.</p>
227 * @return If the years field is present, return its value as an <code>int</code>, else return <code>0</code>.
230 return getFieldValueAsInt(DatatypeConstants.YEARS);
383 * In case of YEARS, MONTHS, DAYS, HOURS, and MINUTES, the returned
388 * one of the six Field constants (YEARS,MONTHS,DAYS,HOURS
896 BigInteger years = (BigInteger) getField(DatatypeConstants.YEARS); local
[all...] |
| /external/chromium/third_party/icu/source/test/cintltst/ |
| cdtdptst.h | 26 * Test the parsing of 2-digit years.
|
| /external/icu4c/test/cintltst/ |
| cdtdptst.h | 26 * Test the parsing of 2-digit years.
|
| /external/libgsm/ |
| NOTICE | 20 Since the original terms of 15 years ago maybe do not make our
|
| /external/bluetooth/glib/tests/ |
| date-test.c | 165 g_print(" (Break in sequence of requested years to check)\n");
398 /******* Years ********/
403 TEST("Adding years gives a larger value",
408 TEST("Forward years then backward years returns us to current month",
417 TEST("Forward years then backward years returns us to current year",
428 TEST("Forward years then backward years returns us to current day",
449 /* We can only run sequence tests between sequential years */
[all...] |
| testgdate.c | 172 g_print(" (Break in sequence of requested years to check)\n");
405 /******* Years ********/
410 TEST("Adding years gives a larger value",
415 TEST("Forward years then backward years returns us to current month",
424 TEST("Forward years then backward years returns us to current year",
435 TEST("Forward years then backward years returns us to current day",
456 /* We can only run sequence tests between sequential years */
[all...] |
