static int
mymain(void)
{
struct metadataTest test;
int ret = EXIT_SUCCESS;
if (!(test.conn = virConnectOpen("test:///default")))
return EXIT_FAILURE;
if (!(test.dom = virDomainLookupByName(test.conn, "test"))) {
virConnectClose(test.conn);
return EXIT_FAILURE;
}
virtTestQuiesceLibvirtErrors(false);
if (virtTestRun("Assign metadata ", testAssignMetadata, &test) < 0)
ret = EXIT_FAILURE;
if (virtTestRun("Rewrite Metadata ", testRewriteMetadata, &test) < 0)
ret = EXIT_FAILURE;
if (virtTestRun("Erase metadata ", testEraseMetadata, &test) < 0)
ret = EXIT_FAILURE;
virDomainFree(test.dom);
virConnectClose(test.conn);
return ret;
}
static int
mymain(void)
{
struct metadataTest test;
int ret = EXIT_SUCCESS;
if (!(test.conn = virConnectOpen("test:///default")))
return EXIT_FAILURE;
if (!(test.dom = virDomainLookupByName(test.conn, "test"))) {
virConnectClose(test.conn);
return EXIT_FAILURE;
}
virtTestQuiesceLibvirtErrors(false);
if (virtTestRun("Assign metadata ", testAssignMetadata, &test) < 0)
ret = EXIT_FAILURE;
if (virtTestRun("Rewrite Metadata ", testRewriteMetadata, &test) < 0)
ret = EXIT_FAILURE;
if (virtTestRun("Erase metadata ", testEraseMetadata, &test) < 0)
ret = EXIT_FAILURE;
TEST_TITLE("1", "qwert");
TEST_TITLE("2", NULL);
TEST_TITLE("3", "blah");
TEST_TITLE_FAIL("4", "qwe\nrt");
TEST_TITLE("5", "");
TEST_TITLE_FAIL("6", "qwert\n");
TEST_TITLE_FAIL("7", "\n");
TEST_DESCR("1", "qwert\nqwert");
TEST_DESCR("2", NULL);
TEST_DESCR("3", "qwert");
TEST_DESCR("4", "\n");
TEST_DESCR("5", "");
virDomainFree(test.dom);
virConnectClose(test.conn);
return ret;
}
static int
mymain(void)
{
int ret = 0;
/* Some of our tests deliberately test failure cases, so
* register a handler to stop error messages cluttering
* up display
*/
virtTestQuiesceLibvirtErrors(false);
#define DO_TEST_PARSE_AND_FORMAT(addrstr, family, pass) \
do { \
virSocketAddr addr; \
struct testParseData data = { &addr, addrstr, family, pass }; \
memset(&addr, 0, sizeof(addr)); \
if (virtTestRun("Test parse " addrstr " family " #family, \
testParseHelper, &data) < 0) \
ret = -1; \
struct testFormatData data2 = { &addr, addrstr, pass }; \
if (virtTestRun("Test format " addrstr " family " #family, \
testFormatHelper, &data2) < 0) \
ret = -1; \
} while (0)
#define DO_TEST_PARSE_AND_CHECK_FORMAT(addrstr, addrformated, family, pass) \
do { \
virSocketAddr addr; \
struct testParseData data = { &addr, addrstr, family, true}; \
memset(&addr, 0, sizeof(addr)); \
if (virtTestRun("Test parse " addrstr " family " #family, \
testParseHelper, &data) < 0) \
ret = -1; \
struct testFormatData data2 = { &addr, addrformated, pass }; \
if (virtTestRun("Test format " addrstr " family " #family, \
testFormatHelper, &data2) < 0) \
ret = -1; \
} while (0)
#define DO_TEST_RANGE(saddr, eaddr, size, pass) \
do { \
struct testRangeData data = { saddr, eaddr, size, pass }; \
if (virtTestRun("Test range " saddr " -> " eaddr " size " #size, \
testRangeHelper, &data) < 0) \
ret = -1; \
} while (0)
#define DO_TEST_NETMASK(addr1, addr2, netmask, pass) \
do { \
struct testNetmaskData data = { addr1, addr2, netmask, pass }; \
if (virtTestRun("Test netmask " addr1 " + " addr2 " in " netmask, \
testNetmaskHelper, &data) < 0) \
ret = -1; \
} while (0)
#define DO_TEST_MASK_NETWORK(addr1, prefix, network) \
do { \
struct testMaskNetworkData data = { addr1, prefix, network }; \
if (virtTestRun("Test mask network " addr1 " / " #prefix " == " network, \
testMaskNetworkHelper, &data) < 0) \
ret = -1; \
} while (0)
#define DO_TEST_WILDCARD(addr, pass) \
do { \
struct testWildcardData data = { addr, pass}; \
if (virtTestRun("Test wildcard " addr, \
testWildcardHelper, &data) < 0) \
ret = -1; \
} while (0)
#define DO_TEST_NUMERIC_FAMILY(addr, pass) \
do { \
struct testNumericData data = { addr, pass }; \
if (virtTestRun("Test Numeric Family" addr, \
testNumericHelper, &data) < 0) \
ret = -1; \
} while (0)
#define DO_TEST_LOCALHOST(addr, pass) \
do { \
struct testIsLocalhostData data = { addr, pass }; \
if (virtTestRun("Test localhost " addr, \
testIsLocalhostHelper, &data) < 0) \
ret = -1; \
} while (0)
DO_TEST_PARSE_AND_FORMAT("127.0.0.1", AF_UNSPEC, true);
DO_TEST_PARSE_AND_FORMAT("127.0.0.1", AF_INET, true);
DO_TEST_PARSE_AND_FORMAT("127.0.0.1", AF_INET6, false);
DO_TEST_PARSE_AND_FORMAT("127.0.0.1", AF_UNIX, false);
DO_TEST_PARSE_AND_FORMAT("127.0.0.256", AF_UNSPEC, false);
DO_TEST_PARSE_AND_CHECK_FORMAT("127.0.0.2", "127.0.0.2", AF_INET, true);
DO_TEST_PARSE_AND_CHECK_FORMAT("127.0.0.2", "127.0.0.3", AF_INET, false);
DO_TEST_PARSE_AND_CHECK_FORMAT("0", "0.0.0.0", AF_INET, true);
DO_TEST_PARSE_AND_CHECK_FORMAT("127", "0.0.0.127", AF_INET, true);
DO_TEST_PARSE_AND_CHECK_FORMAT("127", "127.0.0.0", AF_INET, false);
DO_TEST_PARSE_AND_CHECK_FORMAT("127.2", "127.0.0.2", AF_INET, true);
DO_TEST_PARSE_AND_CHECK_FORMAT("127.2", "127.2.0.0", AF_INET, false);
DO_TEST_PARSE_AND_CHECK_FORMAT("1.2.3", "1.2.0.3", AF_INET, true);
DO_TEST_PARSE_AND_CHECK_FORMAT("1.2.3", "1.2.3.0", AF_INET, false);
DO_TEST_PARSE_AND_FORMAT("::1", AF_UNSPEC, true);
DO_TEST_PARSE_AND_FORMAT("::1", AF_INET, false);
DO_TEST_PARSE_AND_FORMAT("::1", AF_INET6, true);
DO_TEST_PARSE_AND_FORMAT("::1", AF_UNIX, false);
DO_TEST_PARSE_AND_FORMAT("::ffff", AF_UNSPEC, true);
DO_TEST_RANGE("192.168.122.1", "192.168.122.1", 1, true);
DO_TEST_RANGE("192.168.122.1", "192.168.122.20", 20, true);
DO_TEST_RANGE("192.168.122.0", "192.168.122.255", 256, true);
DO_TEST_RANGE("192.168.122.20", "192.168.122.1", -1, false);
DO_TEST_RANGE("10.0.0.1", "192.168.122.20", -1, false);
DO_TEST_RANGE("192.168.122.20", "10.0.0.1", -1, false);
DO_TEST_RANGE("2000::1", "2000::1", 1, true);
DO_TEST_RANGE("2000::1", "2000::2", 2, true);
DO_TEST_RANGE("2000::2", "2000::1", -1, false);
DO_TEST_RANGE("2000::1", "9001::1", -1, false);
DO_TEST_NETMASK("192.168.122.1", "192.168.122.2",
"255.255.255.0", true);
DO_TEST_NETMASK("192.168.122.1", "192.168.122.4",
"255.255.255.248", true);
DO_TEST_NETMASK("192.168.122.1", "192.168.123.2",
"255.255.255.0", false);
DO_TEST_NETMASK("192.168.122.1", "192.168.123.2",
"255.255.0.0", true);
DO_TEST_NETMASK("2000::1:1", "2000::1:1",
"ffff:ffff:ffff:ffff:ffff:ffff:ffff:0", true);
DO_TEST_NETMASK("2000::1:1", "2000::2:1",
"ffff:ffff:ffff:ffff:ffff:ffff:ffff:0", false);
DO_TEST_NETMASK("2000::1:1", "2000::2:1",
"ffff:ffff:ffff:ffff:ffff:ffff:fff8:0", true);
DO_TEST_NETMASK("2000::1:1", "9000::1:1",
"ffff:ffff:ffff:ffff:ffff:ffff:ffff:0", false);
DO_TEST_MASK_NETWORK("2001:db8:ca2:2::1", 64, "2001:db8:ca2:2::");
DO_TEST_WILDCARD("0.0.0.0", true);
DO_TEST_WILDCARD("::", true);
DO_TEST_WILDCARD("0", true);
DO_TEST_WILDCARD("0.0", true);
DO_TEST_WILDCARD("0.0.0", true);
DO_TEST_WILDCARD("1", false);
DO_TEST_WILDCARD("0.1", false);
DO_TEST_NUMERIC_FAMILY("0.0.0.0", AF_INET);
DO_TEST_NUMERIC_FAMILY("::", AF_INET6);
DO_TEST_NUMERIC_FAMILY("1", AF_INET);
DO_TEST_NUMERIC_FAMILY("::ffff", AF_INET6);
DO_TEST_NUMERIC_FAMILY("examplehost", -1);
DO_TEST_LOCALHOST("127.0.0.1", true);
DO_TEST_LOCALHOST("2130706433", true);
DO_TEST_LOCALHOST("0177.0.0.01", true);
DO_TEST_LOCALHOST("::1", true);
DO_TEST_LOCALHOST("0::1", true);
DO_TEST_LOCALHOST("0:0:0::1", true);
DO_TEST_LOCALHOST("[00:0::1]", false);
DO_TEST_LOCALHOST("[::1]", false);
DO_TEST_LOCALHOST("128.0.0.1", false);
DO_TEST_LOCALHOST("0.0.0.1", false);
DO_TEST_LOCALHOST("hello", false);
DO_TEST_LOCALHOST("fe80::1:1", false);
return ret == 0 ? EXIT_SUCCESS : EXIT_FAILURE;
}
static int
mymain(void)
{
int ret = 0;
virCommandPtr cmd;
struct utsname ut;
/* Skip test if xend is not running. Calling xend on a non-xen
kernel causes some versions of xend to issue a crash report, so
we first probe uname results. */
uname(&ut);
if (strstr(ut.release, "xen") == NULL)
return EXIT_AM_SKIP;
cmd = virCommandNewArgList("/usr/sbin/xend", "status", NULL);
if (virCommandRun(cmd, NULL) < 0) {
virCommandFree(cmd);
return EXIT_AM_SKIP;
}
virCommandFree(cmd);
/* Some of our tests deliberately test failure cases, so
* register a handler to stop error messages cluttering
* up display
*/
virtTestQuiesceLibvirtErrors(false);
#define DO_TEST(dev, num) \
do { \
struct testInfo info = { dev, num }; \
if (virtTestRun("Device " dev " -> " # num, \
testDeviceHelper, &info) < 0) \
ret = -1; \
} while (0)
/********************************
* Xen paravirt disks
********************************/
DO_TEST("xvd", -1);
/* first valid disk */
DO_TEST("xvda", 51712);
DO_TEST("xvda1", 51713);
DO_TEST("xvda15", 51727);
/* Last non-extended disk */
DO_TEST("xvdp", 51952);
DO_TEST("xvdp1", 51953);
DO_TEST("xvdp15", 51967);
/* First extended disk */
DO_TEST("xvdq", 268439552);
DO_TEST("xvdq1", 268439553);
DO_TEST("xvdq15", 268439567);
/* Last extended disk */
DO_TEST("xvdiz", 268501760);
DO_TEST("xvdiz1", 268501761);
DO_TEST("xvdiz15", 268501775);
/* Disk letter too large */
DO_TEST("xvdja", -1);
/* missing disk letter */
DO_TEST("xvd1", -1);
/* partition too large */
DO_TEST("xvda16", -1);
/* partition too small */
DO_TEST("xvda0", -1);
/* leading zeros */
DO_TEST("xvda01", -1);
/* leading + */
DO_TEST("xvda+1", -1);
/* leading - */
DO_TEST("xvda-1", -1);
/********************************
* IDE disks
********************************/
DO_TEST("hd", -1);
/* first numbered disk */
DO_TEST("hda", 768);
DO_TEST("hda1", 769);
DO_TEST("hda63", 831);
/* second numbered disk */
DO_TEST("hdb", 832);
DO_TEST("hdb1", 833);
DO_TEST("hdb63", 895);
/* third numbered disk */
DO_TEST("hdc", 5632);
DO_TEST("hdc1", 5633);
DO_TEST("hdc63", 5695);
/* fourth numbered disk */
DO_TEST("hdd", 5696);
DO_TEST("hdd1", 5697);
DO_TEST("hdd63", 5759);
/* last valid disk */
DO_TEST("hdt", 23360);
DO_TEST("hdt1", 23361);
DO_TEST("hdt63", 23423);
/* Disk letter to large */
DO_TEST("hdu", -1);
/* missing disk letter */
DO_TEST("hd1", -1);
/* partition too large */
DO_TEST("hda64", -1);
/* partition too small */
DO_TEST("hda0", -1);
/********************************
* SCSI disks
********************************/
DO_TEST("sd", -1);
/* first valid disk */
DO_TEST("sda", 2048);
DO_TEST("sda1", 2049);
DO_TEST("sda15", 2063);
/* last valid disk of first SCSI major number */
DO_TEST("sdp", 2288);
DO_TEST("sdp1", 2289);
DO_TEST("sdp15", 2303);
/* first valid disk of second SCSI major number */
DO_TEST("sdq", 16640);
DO_TEST("sdq1", 16641);
DO_TEST("sdq15", 16655);
/* last valid single letter disk */
DO_TEST("sdz", 16784);
DO_TEST("sdz1", 16785);
DO_TEST("sdz15", 16799);
/* first valid dual letter disk */
DO_TEST("sdaa", 16800);
DO_TEST("sdaa1", 16801);
DO_TEST("sdaa15", 16815);
/* second valid dual letter disk */
DO_TEST("sdab", 16816);
DO_TEST("sdab1", 16817);
DO_TEST("sdab15", 16831);
/* first letter of second sequence of dual letter disk */
DO_TEST("sdba", 17216);
DO_TEST("sdba1", 17217);
DO_TEST("sdba15", 17231);
/* last valid dual letter disk */
DO_TEST("sdiv", 34800);
DO_TEST("sdiv1", 34801);
DO_TEST("sdiv15", 34815);
/* Disk letter too large */
DO_TEST("sdix", -1);
/* missing disk letter */
DO_TEST("sd1", -1);
/* partition too large */
DO_TEST("sda16", -1);
/* partition too small */
DO_TEST("sda0", -1);
/* Path stripping */
DO_TEST("/dev", -1);
DO_TEST("/dev/", -1);
DO_TEST("/dev/xvd", -1);
DO_TEST("/dev/xvda", 51712);
DO_TEST("/dev/xvda1", 51713);
DO_TEST("/dev/xvda15", 51727);
return ret == 0 ? EXIT_SUCCESS : EXIT_FAILURE;
}