//////////
// #01 - Process the sample bxml file (in Bxml_test1.h as cgc_Test_Bxml_1_1)
//////
bool iivvmt_testBxml_1(u64 lnHandleLog, SBxml** bxml)
{
u64 lnErrorOffset, lnErrorCode, lnSha1As64Bit;
u32 lnSha1As32Bit;
u8 sha20Bytes[20];
// Tell which test we're running
vvm_resourcePrintf(IDS_VVM_TEST_BXML_1);
// Make sure the SHA-1 value matches our expectation
vvm_sha1ComputeSha1((s8*)cgc_Test_Bxml_1_1, sizeof(cgc_Test_Bxml_1_1), sha20Bytes);
lnSha1As64Bit = vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As32Bit = vvm_sha1Compute32BitFromSha1(sha20Bytes);
if (lnSha1As64Bit != cgn_Test_Bxml_1_1Sha1As64Bit || lnSha1As32Bit != cgn_Test_Bxml_1_1Sha1As32Bit)
{
// The file does not match the expected SHA-1 value
vvm_resourcePrintf(IDS_VVM_TEST_BXML_INVALID_FILE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// Try to load bxml file
lnErrorOffset = 0;
lnErrorCode = 0;
*bxml = vvm_bxmlLoadFromBuffer((s8*)cgc_Test_Bxml_1_1, sizeof(cgc_Test_Bxml_1_1) - 1, &lnErrorOffset, &lnErrorCode);
if (*bxml && lnErrorOffset == 0 && lnErrorCode == 0)
{
// Grab the SHA-1 value from the converted file
lnSha1As64Bit = vvm_bxmlNodeSha1(*bxml, sha20Bytes);
lnSha1As32Bit = vvm_sha1Compute32BitFromSha1(sha20Bytes);
if (lnSha1As64Bit != cgnTestBxmlDotHNodeSha1As64Bit || lnSha1As32Bit != cgnTestBxmlDotHNodeSha1As32Bit)
{
// The file does not match the expected SHA-1 value
vvm_resourcePrintf(IDS_VVM_TEST_BXML_INVALID_FILE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// If we get here, we're good
} else {
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_BXML_UNABLE_TO_LOAD);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// If we get here, we're good
vvm_resourcePrintf(IDS_VVM_TEST_PASS);
return(true);
}
//////////
// #03 - Create a bxml duplicate copy of our input.bxml, then delete it
//////
// For debugging:
// vvm_bxmlSave(bxml, "c:\\temp\\bxml.bxml", 18, true, true, &lnSha1As64Bit);
// vvm_bxmlSave(bxmlCopy, "c:\\temp\\bxmlCopy.bxml", 18, true, true, &lnSha1As64Bit);
bool iivvmt_testBxml_3(u64 lnHandleLog, SBxml* bxml)
{
u64 lnSha1As64Bit;
u32 lnSha1As32Bit;
bool llResult;
SBxml* bxmlCopy;
u8 sha20Bytes[20];
// Tell which test we're running
vvm_resourcePrintf(IDS_VVM_TEST_BXML_3);
// Copy the node
bxmlCopy = vvm_bxmlNodeCopy(bxml, true, true, &llResult);
if (!bxmlCopy || !llResult)
{
// Unable to copy the node
vvm_resourcePrintf(IDS_VVM_TEST_BXML_COPY_FAILED);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// Make sure it copied correctly
lnSha1As64Bit = vvm_bxmlNodeSha1(bxmlCopy, sha20Bytes);
lnSha1As32Bit = vvm_sha1Compute32BitFromSha1(sha20Bytes);
if (lnSha1As64Bit != cgnTestBxmlDotHNodeSha1As64Bit || lnSha1As32Bit != cgnTestBxmlDotHNodeSha1As32Bit)
{
// The file does not match the expected SHA-1 value
vvm_resourcePrintf(IDS_VVM_TEST_BXML_RELOAD_DOES_NOT_MATCH);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// If we get here, we're good, the re-loaded file matched the form with which it was
// saved, and the SHA-1 validation upon reload indicated they were identical.
// In short, it's time to do a little dance! Woo hoo! :-)
// Delete the duplicate node
vvm_bxmlNodeDelete(bxmlCopy, true);
bxmlCopy = NULL;
// If we get here, we're good
vvm_resourcePrintf(IDS_VVM_TEST_PASS);
return(true);
}
//////////
// #08 - Move sibling nodes (delete, insert before, and insert after)
//////
bool iivvmt_testBxml_8(u64 lnHandleLog, SBxml* bxml)
{
u64 lnSha1As64Bit;
u32 lnSha1As32Bit;
SBxml* bxmlReference1;
SBxml* bxmlReference2;
SDatum wildcardSearch1;
SDatum wildcardSearch2;
u8 sha20Bytes[_SHA1_NUMBER_SIZE];
//////////
// Tell which test we're running
//////
printf("\tMove sibling nodes...");
//////////
// Grab items for subsequent delete and insert
//////
// Grandchild1
wildcardSearch1.data._cs8 = cgcTestBxml8FindChildNode1;
wildcardSearch1.length = sizeof(cgcTestBxml8FindChildNode1) - 1;
vvm_bxmlFindFirst(bxml, &bxmlReference1, NULL, &wildcardSearch1, true, false, NULL);
if (!bxmlReference1)
{
// Failure, node wasn't found
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// Grandchild2
wildcardSearch2.data._cs8 = cgcTestBxml8FindChildNode2;
wildcardSearch2.length = sizeof(cgcTestBxml8FindChildNode2) - 1;
vvm_bxmlFindFirst(bxml, &bxmlReference2, NULL, &wildcardSearch2, true, false, NULL);
if (!bxmlReference1)
{
// Failure, node wasn't found
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
//////////
// Make grandchild2 an orphan
//////
vvm_bxmlNodeDelete(bxmlReference2, false);
vvm_bxmlSave(bxml, "c:\\temp\\bxml_8delete.bxml", -1, true, true, NULL);
//////////
// Compute the SHA-1
//////
lnSha1As64Bit = vvm_bxmlNodeSha1(bxml, sha20Bytes);
lnSha1As32Bit = vvm_sha1Compute32BitFromSha1(sha20Bytes);
if (lnSha1As64Bit != cgnTestBxml81_Sha1As64Bit || lnSha1As32Bit != cgnTestBxml81_Sha1As32Bit)
{
// The file does not match the expected SHA-1 value
vvm_resourcePrintf(IDS_VVM_TEST_BXML_RELOAD_DOES_NOT_MATCH);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
//////////
// Insert grandchild2 before grandchild1
//////
// TODO: Working here. I think the insert child is not updating the prev links properly, such as on grandchild1->prev pointing back to prependNode6
vvm_bxmlNodeInsert(bxmlReference2, bxmlReference1, false);
vvm_bxmlSave(bxml, "c:\\temp\\bxml_8insertbefore.bxml", -1, true, true, NULL);
// Note, at this point we leave them installed in the original bxml file, where they are
//////////
// Compute the SHA-1
//////
lnSha1As64Bit = vvm_bxmlNodeSha1(bxml, sha20Bytes);
lnSha1As32Bit = vvm_sha1Compute32BitFromSha1(sha20Bytes);
if (lnSha1As64Bit != cgnTestBxml82_Sha1As64Bit || lnSha1As32Bit != cgnTestBxml82_Sha1As32Bit)
{
// The file does not match the expected SHA-1 value
vvm_resourcePrintf(IDS_VVM_TEST_BXML_RELOAD_DOES_NOT_MATCH);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// If we get here, we're good
vvm_resourcePrintf(IDS_VVM_TEST_PASS);
return(true);
// If we get here, we're good
vvm_resourcePrintf(IDS_VVM_TEST_PASS);
return(true);
}
//////////
// #07 - Append attributes (append and prepend)
//////
bool iivvmt_testBxml_7(u64 lnHandleLog, SBxml* bxml)
{
u64 lnSha1As64Bit;
u32 lnSha1As32Bit;
SBxmla* bxmlaAppend;
SBxmla* bxmlaPrepend;
SBxmla* bxmlaReference;
SDatum wildcardSearch;
u8 sha20Bytes[_SHA1_NUMBER_SIZE];
//////////
// Tell which test we're running
//////
printf("\tAppend attributes...");
//////////
// Create the prepend node to add
//////
bxmlaPrepend = vvm_bxmlaCreate((s8*)cgcTestBxml7PrependAttributeName, sizeof(cgcTestBxml7PrependAttributeName) - 1, NULL, 0, 7);
if (!bxmlaPrepend)
{
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
//////////
// Create the append node to add
//////
bxmlaAppend = vvm_bxmlaCreate((s8*)cgcTestBxml7AppendAttributeName, sizeof(cgcTestBxml7AppendAttributeName) - 1, NULL, 0, 7);
if (!bxmlaAppend)
{
// Failure
vvm_bxmlaDelete(bxmlaPrepend, true);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
//////////
// Prepend and append the items appropriately
//////
wildcardSearch.data._cs8 = cgcTestBxml7FindChildAttribute;
wildcardSearch.length = sizeof(cgcTestBxml7FindChildAttribute) - 1;
vvm_bxmlFindFirst(bxml, NULL, &bxmlaReference, &wildcardSearch, true, true, NULL);
if (!bxmlaReference)
{
// Failure, node wasn't found
vvm_bxmlaDelete(bxmlaPrepend, true);
vvm_bxmlaDelete(bxmlaAppend, true);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// Insert one before and after that node
vvm_bxmlaInsertExisting(bxmlaReference->_parent, bxmlaReference, bxmlaPrepend, false);
// vvm_bxmlSave(bxml, "c:\\temp\\bxml_aprepend.bxml", -1, true, true, NULL);
vvm_bxmlaInsertExisting(bxmlaReference->_parent, bxmlaReference, bxmlaAppend, true);
// vvm_bxmlSave(bxml, "c:\\temp\\bxml_aappend.bxml", -1, true, true, NULL);
// Note, at this point we leave them installed in the original bxml file, where they are
//////////
// Compute the SHA-1
//////
lnSha1As64Bit = vvm_bxmlNodeSha1(bxml, sha20Bytes);
lnSha1As32Bit = vvm_sha1Compute32BitFromSha1(sha20Bytes);
if (lnSha1As64Bit != cgnTestBxml71_Sha1As64Bit || lnSha1As32Bit != cgnTestBxml71_Sha1As32Bit)
{
// The file does not match the expected SHA-1 value
vvm_resourcePrintf(IDS_VVM_TEST_BXML_RELOAD_DOES_NOT_MATCH);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// If we get here, we're good
vvm_resourcePrintf(IDS_VVM_TEST_PASS);
return(true);
}
//////////
// #04 - Search for nodes, attributes, and data
//////
bool iivvmt_testBxml_4(u64 lnHandleLog, SBxml* bxml)
{
u64 lnSha1As64Bit;
u32 lnSha1As32Bit, lnCount, lnCountAttributes, lnDataCount;
void* x;
u8 sha20Bytes[_SHA1_NUMBER_SIZE];
u8 context[_SHA1_CONTEXT_SIZE];
SBxml* bxmlReference;
SDatum wildcardSearch;
SDatum wildcardSearchAttributes;
SDatum wildcardSearchData;
SStartEnd bxmlFinds;
SStartEnd bxmlaFinds;
SStartEnd bxmlDataFinds;
//////////
// Tell which test we're running
//////
printf("\tSearch nodes, attributes, data...");
//////////
// Initialize
//////
wildcardSearch.data._cs8 = cgcTestBxml4FindChildNode;
wildcardSearch.length = sizeof(cgcTestBxml4FindChildNode) - 1;
wildcardSearchAttributes.data._cs8 = cgcTestBxml4FindAttributes;
wildcardSearchAttributes.length = sizeof(cgcTestBxml4FindAttributes) - 1;
wildcardSearchData.data._cs8 = cgcTestBxml4FindData;
wildcardSearchData.length = sizeof(cgcTestBxml4FindData) - 1;
x = NULL;
lnCount = -1;
lnDataCount = -1;
memset(&bxmlFinds, 0, sizeof(bxmlFinds));
memset(&bxmlaFinds, 0, sizeof(bxmlaFinds));
memset(&bxmlDataFinds, 0, sizeof (bxmlDataFinds));
//////////
// Find our first *child* reference
//////
if (!vvm_bxmlFindFirst(bxml, &bxmlReference, NULL, &wildcardSearch, true, false, &x))
{
// Was not found, error
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
vvm_sha1ComputeSha1(bxmlReference->_name.data._s8, (u32)bxmlReference->_name.length, sha20Bytes);
lnSha1As64Bit = vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As32Bit = vvm_sha1Compute32BitFromSha1(sha20Bytes);
if (lnSha1As64Bit != cgnTestBxml41_Sha1As64Bit || lnSha1As32Bit != cgnTestBxml41_Sha1As32Bit)
{
// The file does not match the expected SHA-1 value
vvm_resourcePrintf(IDS_VVM_TEST_BXML_RELOAD_DOES_NOT_MATCH);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
//////////
// Get the count of how many items are found in total
//////
u32 lnFinds = 1;
while (vvm_bxmlFindContinue(x))
++lnFinds;
// We should've found 13 separate instances throughout looking for "*child*" (includes child, grandchild, ggrandchild, child2, etc.)
if (lnFinds != 13)
{
// The appropriate number was not found
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
//////////
// Get the node and attribute name finds as lists, compute their SHA-1 values
//////
vvm_sha1ComputeSha1_Start(context);
vvm_bxmlFindAllAsStartEndLists(bxml, &bxmlFinds, NULL, &wildcardSearch, &lnCount, true, true);
vvm_bxmlFindAllAsStartEndLists(bxml, NULL, &bxmlaFinds, &wildcardSearchAttributes, &lnCountAttributes, true, true);
// Compute SHA-1 of bxml node finds
SStartEndCallback cb;
cb._func = (u64)&iivvmt_testBxml_computeSha1CallbackBxml;
cb.extra = (u64)&context[0];
vvm_SEChain_iterateThroughForCallback(&bxmlFinds, &cb);
vvm_SEChain_delete(&bxmlFinds, 0, 0, false);
// And continue by computing SHA-1 of bxmla attribute name finds on top of the just computed SHA-1 from bxml node finds
cb._func = (u64)&iivvmt_testBxml_computeSha1CallbackBxmla;
vvm_SEChain_iterateThroughForCallback(&bxmlaFinds, &cb);
vvm_SEChain_delete(&bxmlaFinds, 0, 0, false);
// Determine the SHA-1 based on the finds
vvm_sha1ComputeSha1_FinishAsSha1(context, sha20Bytes, true);
lnSha1As64Bit = vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As32Bit = vvm_sha1Compute32BitFromSha1(sha20Bytes);
if (lnSha1As64Bit != cgnTestBxml42_Sha1As64Bit || lnSha1As32Bit != cgnTestBxml42_Sha1As32Bit)
{
// The file does not match the expected SHA-1 value
vvm_resourcePrintf(IDS_VVM_TEST_BXML_RELOAD_DOES_NOT_MATCH);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
//////////
// Get the attribute data finds as lists, compute their sha1 values
//////
vvm_sha1ComputeSha1_Start(context);
vvm_bxmlDataFindAllAsStartEndList(bxml, &bxmlaFinds, &wildcardSearchData, &lnDataCount, true);
// Compute SHA-1 of bxmla attribute data finds
cb._func = (u64)&iivvmt_testBxml_computeSha1CallbackBxmlaData;
vvm_SEChain_iterateThroughForCallback(&bxmlDataFinds, &cb);
vvm_SEChain_delete(&bxmlDataFinds, 0, 0, false);
// Determine the SHA-1 based on the finds
vvm_sha1ComputeSha1_FinishAsSha1(context, sha20Bytes, true);
lnSha1As64Bit = vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As32Bit = vvm_sha1Compute32BitFromSha1(sha20Bytes);
if (lnSha1As64Bit != cgnTestBxml43_Sha1As64Bit || lnSha1As32Bit != cgnTestBxml43_Sha1As32Bit)
{
// The file does not match the expected SHA-1 value
vvm_resourcePrintf(IDS_VVM_TEST_BXML_RELOAD_DOES_NOT_MATCH);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// If we get here, we're good
vvm_resourcePrintf(IDS_VVM_TEST_PASS);
return(true);
}
//////////
// #02 - Save the processed bxml file to disk (should match cgc_Test_Bxml_2_1 in Bxml_test2.h)
//////
bool iivvmt_testBxml_2(u64 lnHandleLog, SBxml* bxml)
{
u64 lnBytesWritten, lnBytesRead, lnErrorOffset, lnErrorCode, lnSha1As64Bit;
u32 lnSha1As32Bit;
u8 sha20Bytes[20];
s8* lcFileOut;
SBxml* bxml2;
// Tell which test we're running
vvm_resourcePrintf(IDS_VVM_TEST_BXML_2);
// Save the current state to see how she fared
lcFileOut = oss_sharedAsciiGetTempFilename();
if (!lcFileOut)
{
// Unable to allocate the temporary filename
vvm_resourcePrintf(IDS_VVM_TEST_BXML_UNABLE_TO_GET_TEMP_FILE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// Save the file to disk
vvm_bxmlSave(bxml, lcFileOut, sizeof(lcFileOut) - 1, true, true, &lnBytesWritten);
// Try to read it back in, and compare the memory
bxml2 = vvm_bxmlLoad(lcFileOut, strlen(lcFileOut), &lnBytesRead, &lnErrorOffset, &lnErrorCode);
// Clean house
oss_sharedAsciiDeleteFile(lcFileOut);
oss_free(lcFileOut);
// Did we read it back in correctly?
if (!bxml2 || lnErrorCode != 0 || lnBytesRead != lnBytesWritten)
{
// Unable to load the temporary file back in correctly
vvm_resourcePrintf(IDS_VVM_TEST_BXML_UNABLE_TO_RELOAD_TEMP_FILE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// If we get here, file was loaded properly
// Grab the SHA-1 value from the loaded file
lnSha1As64Bit = vvm_bxmlNodeSha1(bxml2, sha20Bytes);
lnSha1As32Bit = vvm_sha1Compute32BitFromSha1(sha20Bytes);
if (lnSha1As64Bit != cgnTestBxmlDotHNodeSha1As64Bit || lnSha1As32Bit != cgnTestBxmlDotHNodeSha1As32Bit)
{
// The file does not match the expected SHA-1 value
vvm_resourcePrintf(IDS_VVM_TEST_BXML_RELOAD_DOES_NOT_MATCH);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// If we get here, we're good, the re-loaded file matched the form with which it was
// saved, and the SHA-1 validation upon reload indicated they were identical.
// In short, it's time to do a little dance! Woo hoo! :-)
// Delete the loaded node
vvm_bxmlNodeDelete(bxml2, true);
bxml2 = NULL;
// If we get here, we're good
vvm_resourcePrintf(IDS_VVM_TEST_PASS);
return(true);
}
//////////
//
// #03 - Delete everything in pieces and in chains
//
//////
bool iivvmt_testSll4_3(u64 lnHandleLog, SLL4** root)
{
SLL4Callback cb;
u64 lnSha1As64Bit;
u32 lnSha1As32Bit;
u8 sha20Bytes[20];
u8 context[92];
SLL4* ll4x1;
SLL4* ll4x2;
SLL4* ll4x3;
SLL4* ll4x4;
SLL4* ll4x5;
SLL4* ll4w1;
SLL4* ll4w2;
SLL4* ll4e1;
SLL4* ll4e2;
SLL4* ll4n1;
SLL4* ll4n2;
SLL4* ll4s1;
SLL4* ll4s2;
//////////
// Tell them which test we're running
//////
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_DELETE);
///////////
// Verify we still have our root setup properly
//////
// Check w2..root
if (!(*root)->west || !(*root)->west->west || !(*root)->west->west->west)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_CORRUPT_ROOT_STRUCTURE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// Check root..e2
if (!(*root)->east || !(*root)->east->east || (*root)->east->east->east)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_CORRUPT_ROOT_STRUCTURE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// Check root..n2
if (!(*root)->north || !(*root)->north->north || (*root)->north->north->north)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_CORRUPT_ROOT_STRUCTURE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// Check root..s2
if (!(*root)->south || !(*root)->south->south || (*root)->south->south->south)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_CORRUPT_ROOT_STRUCTURE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// Grab w2 by navigation the chain
ll4x1 = vvm_ll4_getLastNode(*root, _LL4_WEST);
if (ll4x1 != (*root)->west->west->west)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_UNABLE_TO_NAVIGATE_CHAIN);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// Grab w2
ll4w2 = ll4x1->east;
if (ll4w2 != (*root)->west->west)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_UNABLE_TO_NAVIGATE_CHAIN);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// Grab w1
ll4w1 = ll4w2->east;
if (ll4w1 != (*root)->west)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_UNABLE_TO_NAVIGATE_CHAIN);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// Grab e2 by navigation the chain
ll4e2 = vvm_ll4_getLastNode(*root, _LL4_EAST);
if (ll4e2 != (*root)->east->east)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_UNABLE_TO_NAVIGATE_CHAIN);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// Grab e1
ll4e1 = ll4e2->west;
if (ll4e1 != (*root)->east)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_UNABLE_TO_NAVIGATE_CHAIN);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// Grab n2 by navigation the chain
ll4n2 = vvm_ll4_getLastNode(*root, _LL4_NORTH);
if (ll4n2 != (*root)->north->north)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_UNABLE_TO_NAVIGATE_CHAIN);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// Grab n1
ll4n1 = ll4n2->south;
if (ll4n1 != (*root)->north)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_UNABLE_TO_NAVIGATE_CHAIN);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// Grab s2 by navigation the chain
ll4s2 = vvm_ll4_getLastNode(*root, _LL4_SOUTH);
if (ll4s2 != (*root)->south->south)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_UNABLE_TO_NAVIGATE_CHAIN);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// Grab s1
ll4s1 = ll4s2->north;
if (ll4s1 != (*root)->south)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_UNABLE_TO_NAVIGATE_CHAIN);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// Grab each item down from ll4x1
if (!ll4x1->south || !ll4x1->south->south || !ll4x1->south->south->south || !ll4x1->south->south->south->south)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_UNABLE_TO_NAVIGATE_CHAIN);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
ll4x2 = ll4x1->south;
ll4x3 = ll4x2->south;
ll4x4 = ll4x3->south;
ll4x5 = ll4x4->south;
//////////
// Delete x2
//////
vvm_ll4_delete(ll4x2);
vvm_sha1ComputeSha1_Start(context);
cb._func = (u64)&i3vvmt_testSll4_1_sha1Callback;
cb.node = ll4x1;
cb.extra1 = (u64)&context[0];
cb.extra2 = (u64)&sha20Bytes[0];
vvm_ll4_iterateViaCallback(&cb, _LL4_SOUTH);
cb.node = ll4x5;
vvm_ll4_iterateViaCallback(&cb, _LL4_NORTH);
vvm_sha1ComputeSha1_FinishAsSha1(context, sha20Bytes, false);
vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As64Bit = vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As32Bit = vvm_sha1Compute32BitFromSha1(sha20Bytes);
if (lnSha1As64Bit != cgnTest2Ll43NodeSha1As64Bit || lnSha1As32Bit != cgnTest2Ll43NodeSha1As32Bit)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_SHA1_FAILURE_AFTER_DELETE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// If we get here, we're good
//////////
// Delete x5
//////
vvm_ll4_delete(ll4x5);
vvm_sha1ComputeSha1_Start(context);
cb._func = (u64)&i3vvmt_testSll4_1_sha1Callback;
cb.node = ll4x1;
vvm_ll4_iterateViaCallback(&cb, _LL4_SOUTH);
cb.node = ll4x4;
vvm_ll4_iterateViaCallback(&cb, _LL4_NORTH);
vvm_sha1ComputeSha1_FinishAsSha1(context, sha20Bytes, false);
vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As64Bit = vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As32Bit = vvm_sha1Compute32BitFromSha1(sha20Bytes);
if (lnSha1As64Bit != cgnTest2Ll44NodeSha1As64Bit || lnSha1As32Bit != cgnTest2Ll44NodeSha1As32Bit)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_SHA1_FAILURE_AFTER_DELETE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// If we get here, we're good
//////////
// Delete x3
//////
vvm_ll4_delete(ll4x3);
vvm_sha1ComputeSha1_Start(context);
cb._func = (u64)&i3vvmt_testSll4_1_sha1Callback;
cb.node = ll4x1;
vvm_ll4_iterateViaCallback(&cb, _LL4_SOUTH);
cb.node = ll4x4;
vvm_ll4_iterateViaCallback(&cb, _LL4_NORTH);
vvm_sha1ComputeSha1_FinishAsSha1(context, sha20Bytes, false);
vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As64Bit = vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As32Bit = vvm_sha1Compute32BitFromSha1(sha20Bytes);
if (lnSha1As64Bit != cgnTest2Ll45NodeSha1As64Bit || lnSha1As32Bit != cgnTest2Ll45NodeSha1As32Bit)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_SHA1_FAILURE_AFTER_DELETE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// If we get here, we're good
//////////
// Delete x4
//////
vvm_ll4_delete(ll4x4);
vvm_sha1ComputeSha1_Start(context);
cb._func = (u64)&i3vvmt_testSll4_1_sha1Callback;
cb.node = ll4x1;
vvm_ll4_iterateViaCallback(&cb, _LL4_SOUTH);
vvm_sha1ComputeSha1_FinishAsSha1(context, sha20Bytes, false);
vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As64Bit = vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As32Bit = vvm_sha1Compute32BitFromSha1(sha20Bytes);
if (lnSha1As64Bit != cgnTest2Ll46NodeSha1As64Bit || lnSha1As32Bit != cgnTest2Ll46NodeSha1As32Bit)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_SHA1_FAILURE_AFTER_DELETE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// If we get here, we're good
//////////
// Delete x1
//////
vvm_ll4_delete(ll4x1);
vvm_sha1ComputeSha1_Start(context);
cb._func = (u64)&i3vvmt_testSll4_1_sha1Callback;
cb.node = ll4e2;
vvm_ll4_iterateViaCallback(&cb, _LL4_WEST);
vvm_sha1ComputeSha1_FinishAsSha1(context, sha20Bytes, false);
vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As64Bit = vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As32Bit = vvm_sha1Compute32BitFromSha1(sha20Bytes);
if (lnSha1As64Bit != cgnTest2Ll47NodeSha1As64Bit || lnSha1As32Bit != cgnTest2Ll47NodeSha1As32Bit)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_SHA1_FAILURE_AFTER_DELETE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// If we get here, we're good
//////////
// Delete e2
//////
vvm_ll4_delete(ll4e2);
vvm_sha1ComputeSha1_Start(context);
cb._func = (u64)&i3vvmt_testSll4_1_sha1Callback;
cb.node = ll4e1;
vvm_ll4_iterateViaCallback(&cb, _LL4_WEST);
cb.node = ll4w2;
vvm_ll4_iterateViaCallback(&cb, _LL4_EAST);
vvm_sha1ComputeSha1_FinishAsSha1(context, sha20Bytes, false);
vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As64Bit = vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As32Bit = vvm_sha1Compute32BitFromSha1(sha20Bytes);
if (lnSha1As64Bit != cgnTest2Ll48NodeSha1As64Bit || lnSha1As32Bit != cgnTest2Ll48NodeSha1As32Bit)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_SHA1_FAILURE_AFTER_DELETE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// If we get here, we're good
//////////
// Delete w1
//////
vvm_ll4_delete(ll4w1);
vvm_sha1ComputeSha1_Start(context);
cb._func = (u64)&i3vvmt_testSll4_1_sha1Callback;
cb.node = ll4e1;
vvm_ll4_iterateViaCallback(&cb, _LL4_WEST);
cb.node = ll4w2;
vvm_ll4_iterateViaCallback(&cb, _LL4_EAST);
vvm_sha1ComputeSha1_FinishAsSha1(context, sha20Bytes, false);
vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As64Bit = vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As32Bit = vvm_sha1Compute32BitFromSha1(sha20Bytes);
if (lnSha1As64Bit != cgnTest2Ll49NodeSha1As64Bit || lnSha1As32Bit != cgnTest2Ll49NodeSha1As32Bit)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_SHA1_FAILURE_AFTER_DELETE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// If we get here, we're good
//////////
// Delete e1 and chain east
//////
vvm_ll4_deleteChain(&ll4e1, _LL4_EAST);
vvm_sha1ComputeSha1_Start(context);
cb._func = (u64)&i3vvmt_testSll4_1_sha1Callback;
cb.node = *root;
vvm_ll4_iterateViaCallback(&cb, _LL4_WEST);
cb.node = ll4w2;
vvm_ll4_iterateViaCallback(&cb, _LL4_EAST);
vvm_sha1ComputeSha1_FinishAsSha1(context, sha20Bytes, false);
vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As64Bit = vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As32Bit = vvm_sha1Compute32BitFromSha1(sha20Bytes);
if (lnSha1As64Bit != cgnTest2Ll410NodeSha1As64Bit || lnSha1As32Bit != cgnTest2Ll410NodeSha1As32Bit)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_SHA1_FAILURE_AFTER_DELETE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// If we get here, we're good
//////////
// Delete w2 and chain west
//////
vvm_ll4_deleteChain(&ll4w2, _LL4_WEST);
vvm_sha1ComputeSha1_Start(context);
cb._func = (u64)&i3vvmt_testSll4_1_sha1Callback;
cb.node = *root;
vvm_ll4_iterateViaCallback(&cb, _LL4_WEST);
vvm_ll4_iterateViaCallback(&cb, _LL4_EAST);
vvm_sha1ComputeSha1_FinishAsSha1(context, sha20Bytes, false);
vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As64Bit = vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As32Bit = vvm_sha1Compute32BitFromSha1(sha20Bytes);
if (lnSha1As64Bit != cgnTest2Ll411NodeSha1As64Bit || lnSha1As32Bit != cgnTest2Ll411NodeSha1As32Bit)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_SHA1_FAILURE_AFTER_DELETE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// If we get here, we're good
//////////
// Delete n1 and chain north
//////
vvm_ll4_deleteChain(&ll4n1, _LL4_NORTH);
vvm_sha1ComputeSha1_Start(context);
cb._func = (u64)&i3vvmt_testSll4_1_sha1Callback;
cb.node = ll4s2;
vvm_ll4_iterateViaCallback(&cb, _LL4_NORTH);
vvm_sha1ComputeSha1_FinishAsSha1(context, sha20Bytes, false);
vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As64Bit = vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As32Bit = vvm_sha1Compute32BitFromSha1(sha20Bytes);
if (lnSha1As64Bit != cgnTest2Ll412NodeSha1As64Bit || lnSha1As32Bit != cgnTest2Ll412NodeSha1As32Bit)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_SHA1_FAILURE_AFTER_DELETE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// If we get here, we're good
//////////
// Delete s1 and chain south
//////
vvm_ll4_deleteChain(&ll4s1, _LL4_SOUTH);
vvm_sha1ComputeSha1_Start(context);
cb._func = (u64)&i3vvmt_testSll4_1_sha1Callback;
cb.node = *root;
vvm_ll4_iterateViaCallback(&cb, _LL4_SOUTH);
vvm_sha1ComputeSha1_FinishAsSha1(context, sha20Bytes, false);
vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As64Bit = vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As32Bit = vvm_sha1Compute32BitFromSha1(sha20Bytes);
if (lnSha1As64Bit != cgnTest2Ll413NodeSha1As64Bit || lnSha1As32Bit != cgnTest2Ll413NodeSha1As32Bit)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_SHA1_FAILURE_AFTER_DELETE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// If we get here, we're good
//////////
// Delete root and chain south
//////
vvm_ll4_deleteChain(root, _LL4_SOUTH);
if (*root)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_SHA1_FAILURE_AFTER_DELETE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// If we get here, we're good
// If we get here, we're good
vvm_resourcePrintf(IDS_VVM_TEST_PASS);
return(true);
}
//////////
//
// The 4-way link-list will be of the w2..e2 and n2..s2 form. This process creates a north/south
// chain and inserts it west of w2, calling it x1..x5. After doing this, it deletes x2, then x5,
// then x3, then x4, leaving x1. Then it deletes x1, e2, w1, then the chain east from e1, and west
// from w2. Then it deletes the chain north from n1, and south from s1, leaving only root.
//
// ____ north
// | n2 |
// |____|
// | n1 |
// ____ ____ ____|____|____ ____
// | x1 | w2 | w1 |root| e1 | e2 |
// |____|____|____|____|____|____|
// | x2 |west | s1 | east
// |____| |____|
// | x3 | | s2 |
// |____| |____|
// | x4 | south
// |____|
// | x5 |
// |____|
//
//////
bool iivvmt_testSll4_2(u64 lnHandleLog, SLL4* root)
{
SLL4Callback cb;
u64 lnSha1As64Bit;
u32 lnSha1As32Bit;
u8 sha20Bytes[20];
u8 context[92];
u32 lnCount;
SLL4* ll4x1;
SLL4* ll4w1;
SLL4* ll4w2;
SLL4* ll4e1;
SLL4* ll4e2;
SLL4* ll4n1;
SLL4* ll4n2;
SLL4* ll4s1;
SLL4* ll4s2;
//////////
// Tell them which test we're running
//////
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_APPEND);
///////////
// Verify we still have our root setup properly
//////
// Check w2..root
if (!root->west || !root->west->west || root->west->west->west)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_CORRUPT_ROOT_STRUCTURE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// Check root..e2
if (!root->east || !root->east->east || root->east->east->east)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_CORRUPT_ROOT_STRUCTURE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// Check root..n2
if (!root->north || !root->north->north || root->north->north->north)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_CORRUPT_ROOT_STRUCTURE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// Check root..s2
if (!root->south || !root->south->south || root->south->south->south)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_CORRUPT_ROOT_STRUCTURE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// Grab w2 by navigation the chain
ll4w2 = vvm_ll4_getLastNode(root, _LL4_WEST);
if (ll4w2 != root->west->west)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_UNABLE_TO_NAVIGATE_CHAIN);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// Grab w1
ll4w1 = ll4w2->east;
if (ll4w1 != root->west)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_UNABLE_TO_NAVIGATE_CHAIN);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// Grab e2 by navigation the chain
ll4e2 = vvm_ll4_getLastNode(root, _LL4_EAST);
if (ll4e2 != root->east->east)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_UNABLE_TO_NAVIGATE_CHAIN);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// Grab e1
ll4e1 = ll4e2->west;
if (ll4e1 != root->east)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_UNABLE_TO_NAVIGATE_CHAIN);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// Grab n2 by navigation the chain
ll4n2 = vvm_ll4_getLastNode(root, _LL4_NORTH);
if (ll4n2 != root->north->north)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_UNABLE_TO_NAVIGATE_CHAIN);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// Grab n1
ll4n1 = ll4n2->south;
if (ll4n1 != root->north)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_UNABLE_TO_NAVIGATE_CHAIN);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// Grab s2 by navigation the chain
ll4s2 = vvm_ll4_getLastNode(root, _LL4_SOUTH);
if (ll4s2 != root->south->south)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_UNABLE_TO_NAVIGATE_CHAIN);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// Grab s1
ll4s1 = ll4s2->north;
if (ll4s1 != root->south)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_UNABLE_TO_NAVIGATE_CHAIN);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
//////////
// Create the chain
//////
lnCount = 5;
ll4x1 = vvm_ll4_createChain(cgnLl4BufferSize, &lnCount, _LL4_SOUTH);
if (lnCount != 5 || !ll4x1)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_UNABLE_TO_CREATE_CHAIN);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
//////////
// Populate the chain with known data
//////
cb._func = (u64)&i3vvmt_testSll4_initiallyPopulateCallback;
cb.node = ll4x1;
cb.extra1 = (u64)&context[0];
cb.extra2 = (u64)&sha20Bytes[0];
vvm_ll4_iterateViaCallback(&cb, _LL4_SOUTH);
//////////
// Validate that it was setup and populated correctly
//////
vvm_sha1ComputeSha1_Start(context);
cb._func = (u64)&i3vvmt_testSll4_1_sha1Callback;
cb.node = ll4x1;
vvm_ll4_iterateViaCallback(&cb, _LL4_SOUTH);
vvm_sha1ComputeSha1_FinishAsSha1(context, sha20Bytes, false);
vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As64Bit = vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As32Bit = vvm_sha1Compute32BitFromSha1(sha20Bytes);
if (lnSha1As64Bit != cgnTest2Ll41NodeSha1As64Bit || lnSha1As32Bit != cgnTest2Ll41NodeSha1As32Bit)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_SHA1_FAILURE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// If we get here, we're good
//////////
// Attach x1 onto w2's west, and validate it's on there good
//////
vvm_ll4_insertWestEast(ll4x1, ll4w2, false);
vvm_sha1ComputeSha1_Start(context);
cb._func = (u64)&i3vvmt_testSll4_1_sha1Callback;
cb.node = ll4e2;
vvm_ll4_iterateViaCallback(&cb, _LL4_WEST);
cb.node = ll4x1;
vvm_ll4_iterateViaCallback(&cb, _LL4_SOUTH);
vvm_sha1ComputeSha1_FinishAsSha1(context, sha20Bytes, false);
vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As64Bit = vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As32Bit = vvm_sha1Compute32BitFromSha1(sha20Bytes);
if (lnSha1As64Bit != cgnTest2Ll42NodeSha1As64Bit || lnSha1As32Bit != cgnTest2Ll42NodeSha1As32Bit)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_SHA1_FAILURE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// If we get here, we're good
// If we get here, we're good, only root remains
vvm_resourcePrintf(IDS_VVM_TEST_PASS);
return(true);
}
//////////
//
// The 4-way link-list test builds everything off the root. It first adds the "2" nodes,
// which initially occupy the positions immediate off root. It then adds the "1" nodes, which
// are inserted between the "2" nodes and root in each direction.
//
// ____ north
// | n2 |
// |____|
// | n1 |
// ____ ____|____|____ ____
// | w2 | w1 |root| e1 | e2 |
// |____|____|____|____|____|
// west | s1 | east
// |____|
// | s2 |
// |____|
// south
//////
bool iivvmt_testSll4_1(u64 lnHandleLog, SLL4** root)
{
SLL4Callback cb;
u64 lnSha1As64Bit;
u32 lnSha1As32Bit;
u8 sha20Bytes[20];
u8 context[92];
SLL4* nodeNorth2;
SLL4* nodeSouth2;
SLL4* nodeWest2;
SLL4* nodeEast2;
SLL4* nodeNorth1;
SLL4* nodeSouth1;
SLL4* nodeWest1;
SLL4* nodeEast1;
//////////
// Tell them which test we're running
//////
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_CREATE);
//////////
// Create a single node
//////
*root = i3vvmt_testSll4_1_createSll4(cgnLl4BufferSize);
if (!*root)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_UNABLE_TO_CREATE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// Initialize our callback data
cb._func = (u64)&i3vvmt_testSll4_1_sha1Callback;
cb.extra1 = (u64)&context[0];
cb.extra2 = (u64)&sha20Bytes[0];
//////////
// Determine the SHA-1 on that one node
//////
vvm_sha1ComputeSha1_Start(context);
cb.node = *root;
vvm_ll4_iterateViaCallback(&cb, _LL4_EAST);
vvm_sha1ComputeSha1_FinishAsSha1(context, sha20Bytes, false);
vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As64Bit = vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As32Bit = vvm_sha1Compute32BitFromSha1(sha20Bytes);
if (lnSha1As64Bit != cgnTest1Ll41NodeSha1As64Bit || lnSha1As32Bit != cgnTest1Ll41NodeSha1As32Bit)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_SHA1_FAILURE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// If we get here, we're good
//////////
// Create a node to go to the west
//////
nodeWest2 = i3vvmt_testSll4_1_createSll4(cgnLl4BufferSize);
if (!nodeWest2)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_UNABLE_TO_CREATE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
//////////
// Create a node to go to the east
//////
nodeEast2 = i3vvmt_testSll4_1_createSll4(cgnLl4BufferSize);
if (!nodeEast2)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_UNABLE_TO_CREATE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
//////////
// Create a node to go to the north
//////
nodeNorth2 = i3vvmt_testSll4_1_createSll4(cgnLl4BufferSize);
if (!nodeNorth2)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_UNABLE_TO_CREATE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
//////////
// Create a node to go to the south
//////
nodeSouth2 = i3vvmt_testSll4_1_createSll4(cgnLl4BufferSize);
if (!nodeSouth2)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_UNABLE_TO_CREATE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
//////////
// Insert the node to the west
//////
vvm_ll4_insertWestEast(nodeWest2, *root, false);
//////////
// Determine the SHA-1 on the two nodes
//////
vvm_sha1ComputeSha1_Start(context);
cb.node = nodeWest2;
vvm_ll4_iterateViaCallback(&cb, _LL4_EAST);
cb.node = *root;
vvm_ll4_iterateViaCallback(&cb, _LL4_WEST);
vvm_sha1ComputeSha1_FinishAsSha1(context, sha20Bytes, false);
vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As64Bit = vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As32Bit = vvm_sha1Compute32BitFromSha1(sha20Bytes);
if (lnSha1As64Bit != cgnTest1Ll42NodeSha1As64Bit || lnSha1As32Bit != cgnTest1Ll42NodeSha1As32Bit)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_SHA1_FAILURE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// If we get here, we're good
//////////
// Insert the node to the east
//////
vvm_ll4_insertWestEast(nodeEast2, *root, true);
//////////
// Determine the SHA-1 on the three nodes
//////
vvm_sha1ComputeSha1_Start(context);
cb.node = nodeWest2;
vvm_ll4_iterateViaCallback(&cb, _LL4_EAST);
cb.node = nodeEast2;
vvm_ll4_iterateViaCallback(&cb, _LL4_WEST);
vvm_sha1ComputeSha1_FinishAsSha1(context, sha20Bytes, false);
vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As64Bit = vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As32Bit = vvm_sha1Compute32BitFromSha1(sha20Bytes);
if (lnSha1As64Bit != cgnTest1Ll43NodeSha1As64Bit || lnSha1As32Bit != cgnTest1Ll43NodeSha1As32Bit)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_SHA1_FAILURE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// If we get here, we're good
//////////
// Insert the node to the north
//////
vvm_ll4_insertNorthSouth(nodeNorth2, *root, false);
//////////
// Determine the SHA-1 on the two nodes
//////
vvm_sha1ComputeSha1_Start(context);
cb.node = nodeNorth2;
vvm_ll4_iterateViaCallback(&cb, _LL4_SOUTH);
cb.node = *root;
vvm_ll4_iterateViaCallback(&cb, _LL4_NORTH);
cb.node = nodeWest2;
vvm_ll4_iterateViaCallback(&cb, _LL4_EAST);
cb.node = nodeEast2;
vvm_ll4_iterateViaCallback(&cb, _LL4_WEST);
vvm_sha1ComputeSha1_FinishAsSha1(context, sha20Bytes, false);
vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As64Bit = vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As32Bit = vvm_sha1Compute32BitFromSha1(sha20Bytes);
if (lnSha1As64Bit != cgnTest1Ll44NodeSha1As64Bit || lnSha1As32Bit != cgnTest1Ll44NodeSha1As32Bit)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_SHA1_FAILURE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// If we get here, we're good
//////////
// Insert the node to the south
//////
vvm_ll4_insertNorthSouth(nodeSouth2, *root, true);
//////////
// Determine the SHA-1 on the three nodes
//////
vvm_sha1ComputeSha1_Start(context);
cb.node = nodeNorth2;
vvm_ll4_iterateViaCallback(&cb, _LL4_SOUTH);
cb.node = nodeSouth2;
vvm_ll4_iterateViaCallback(&cb, _LL4_NORTH);
cb.node = nodeWest2;
vvm_ll4_iterateViaCallback(&cb, _LL4_EAST);
cb.node = nodeEast2;
vvm_ll4_iterateViaCallback(&cb, _LL4_WEST);
vvm_sha1ComputeSha1_FinishAsSha1(context, sha20Bytes, false);
vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As64Bit = vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As32Bit = vvm_sha1Compute32BitFromSha1(sha20Bytes);
if (lnSha1As64Bit != cgnTest1Ll45NodeSha1As64Bit || lnSha1As32Bit != cgnTest1Ll45NodeSha1As32Bit)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_SHA1_FAILURE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// If we get here, we're good
//////////
// Create a node to go to the west
//////
nodeWest1 = i3vvmt_testSll4_1_createSll4(cgnLl4BufferSize);
if (!nodeWest1)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_UNABLE_TO_CREATE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
//////////
// Create a node to go to the east
//////
nodeEast1 = i3vvmt_testSll4_1_createSll4(cgnLl4BufferSize);
if (!nodeEast1)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_UNABLE_TO_CREATE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
//////////
// Create a node to go to the north
//////
nodeNorth1 = i3vvmt_testSll4_1_createSll4(cgnLl4BufferSize);
if (!nodeNorth1)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_UNABLE_TO_CREATE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
//////////
// Create a node to go to the south
//////
nodeSouth1 = i3vvmt_testSll4_1_createSll4(cgnLl4BufferSize);
if (!nodeSouth1)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_UNABLE_TO_CREATE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
//////////
// Insert the node to the west
//////
vvm_ll4_insertWestEast(nodeWest1, *root, false);
//////////
// Determine the SHA-1 on the two nodes
//////
vvm_sha1ComputeSha1_Start(context);
cb.node = nodeNorth2;
vvm_ll4_iterateViaCallback(&cb, _LL4_SOUTH);
cb.node = nodeSouth2;
vvm_ll4_iterateViaCallback(&cb, _LL4_NORTH);
cb.node = nodeWest2;
vvm_ll4_iterateViaCallback(&cb, _LL4_EAST);
cb.node = nodeEast2;
vvm_ll4_iterateViaCallback(&cb, _LL4_WEST);
vvm_sha1ComputeSha1_FinishAsSha1(context, sha20Bytes, false);
vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As64Bit = vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As32Bit = vvm_sha1Compute32BitFromSha1(sha20Bytes);
if (lnSha1As64Bit != cgnTest1Ll46NodeSha1As64Bit || lnSha1As32Bit != cgnTest1Ll46NodeSha1As32Bit)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_SHA1_FAILURE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// If we get here, we're good
//////////
// Insert the node to the east
//////
vvm_ll4_insertWestEast(nodeEast1, *root, true);
//////////
// Determine the SHA-1 on the three nodes
//////
vvm_sha1ComputeSha1_Start(context);
cb.node = nodeNorth2;
vvm_ll4_iterateViaCallback(&cb, _LL4_SOUTH);
cb.node = nodeSouth2;
vvm_ll4_iterateViaCallback(&cb, _LL4_NORTH);
cb.node = nodeWest2;
vvm_ll4_iterateViaCallback(&cb, _LL4_EAST);
cb.node = nodeEast2;
vvm_ll4_iterateViaCallback(&cb, _LL4_WEST);
vvm_sha1ComputeSha1_FinishAsSha1(context, sha20Bytes, false);
vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As64Bit = vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As32Bit = vvm_sha1Compute32BitFromSha1(sha20Bytes);
if (lnSha1As64Bit != cgnTest1Ll47NodeSha1As64Bit || lnSha1As32Bit != cgnTest1Ll47NodeSha1As32Bit)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_SHA1_FAILURE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// If we get here, we're good
//////////
// Insert the node to the north
//////
vvm_ll4_insertNorthSouth(nodeNorth1, *root, false);
//////////
// Determine the SHA-1 on the two nodes
//////
vvm_sha1ComputeSha1_Start(context);
cb.node = nodeNorth2;
vvm_ll4_iterateViaCallback(&cb, _LL4_SOUTH);
cb.node = nodeSouth2;
vvm_ll4_iterateViaCallback(&cb, _LL4_NORTH);
cb.node = nodeWest2;
vvm_ll4_iterateViaCallback(&cb, _LL4_EAST);
cb.node = nodeEast2;
vvm_ll4_iterateViaCallback(&cb, _LL4_WEST);
vvm_sha1ComputeSha1_FinishAsSha1(context, sha20Bytes, false);
vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As64Bit = vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As32Bit = vvm_sha1Compute32BitFromSha1(sha20Bytes);
if (lnSha1As64Bit != cgnTest1Ll48NodeSha1As64Bit || lnSha1As32Bit != cgnTest1Ll48NodeSha1As32Bit)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_SHA1_FAILURE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// If we get here, we're good
//////////
// Insert the node to the south
//////
vvm_ll4_insertNorthSouth(nodeSouth1, *root, true);
//////////
// Determine the SHA-1 on the three nodes
//////
vvm_sha1ComputeSha1_Start(context);
cb.node = nodeNorth2;
vvm_ll4_iterateViaCallback(&cb, _LL4_SOUTH);
cb.node = nodeSouth2;
vvm_ll4_iterateViaCallback(&cb, _LL4_NORTH);
cb.node = nodeWest2;
vvm_ll4_iterateViaCallback(&cb, _LL4_EAST);
cb.node = nodeEast2;
vvm_ll4_iterateViaCallback(&cb, _LL4_WEST);
vvm_sha1ComputeSha1_FinishAsSha1(context, sha20Bytes, false);
vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As64Bit = vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As32Bit = vvm_sha1Compute32BitFromSha1(sha20Bytes);
if (lnSha1As64Bit != cgnTest1Ll49NodeSha1As64Bit || lnSha1As32Bit != cgnTest1Ll49NodeSha1As32Bit)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL4_SHA1_FAILURE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// If we get here, we're good
// If we get here, we're good
vvm_resourcePrintf(IDS_VVM_TEST_PASS);
return(true);
}
bool iivvmt_testSll_3(u64 lnHandleLog, SLL** root)
{
SLLCallback cb;
u64 lnSha1As64Bit;
u32 lnSha1As32Bit;
u8 sha20Bytes[20];
u8 context[92];
SLL* nodePrev;
//////////
// Tell them which test we're running
//////
vvm_resourcePrintf(IDS_VVM_TEST_SLL_DELETE);
//////////
// Prepare for our callbacks
//////
cb._func = (u64)&i3vvmt_testSll_1_sha1Callback;
cb.node = (*root)->prev;
cb.extra1 = (u64)&context[0];
cb.extra2 = (u64)&sha20Bytes[0];
//////////
// Delete the first node
//////
vvm_ll_delete((*root)->prev->prev);
//////////
// Determine the SHA-1 on that one node
//////
vvm_sha1ComputeSha1_Start(context);
vvm_ll_iterateViaCallback(&cb);
vvm_sha1ComputeSha1_FinishAsSha1(context, sha20Bytes, false);
vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As64Bit = vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As32Bit = vvm_sha1Compute32BitFromSha1(sha20Bytes);
if (lnSha1As64Bit != cgnTestLl8NodeSha1As64Bit || lnSha1As32Bit != cgnTestLl8NodeSha1As32Bit)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL_SHA1_FAILURE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// If we get here, we're good
//////////
// Delete the last node
//////
vvm_ll_delete((*root)->next->next);
//////////
// Determine the SHA-1 on that one node
//////
vvm_sha1ComputeSha1_Start(context);
cb.node = (*root)->prev;
vvm_ll_iterateViaCallback(&cb);
vvm_sha1ComputeSha1_FinishAsSha1(context, sha20Bytes, false);
vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As64Bit = vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As32Bit = vvm_sha1Compute32BitFromSha1(sha20Bytes);
if (lnSha1As64Bit != cgnTestLl9NodeSha1As64Bit || lnSha1As32Bit != cgnTestLl9NodeSha1As32Bit)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL_SHA1_FAILURE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// If we get here, we're good
//////////
// Delete the last node
//////
// Get what will become the new root, which is the first item
nodePrev = (*root)->prev;
// Delete the middle node
vvm_ll_delete(*root);
// Store the new root
*root = nodePrev;
//////////
// Determine the SHA-1 on the remaining two nodes going forward
//////
vvm_sha1ComputeSha1_Start(context);
cb.node = nodePrev;
vvm_ll_iterateViaCallback(&cb);
vvm_sha1ComputeSha1_FinishAsSha1(context, sha20Bytes, false);
vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As64Bit = vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As32Bit = vvm_sha1Compute32BitFromSha1(sha20Bytes);
if (lnSha1As64Bit != cgnTestLl10NodeSha1As64Bit || lnSha1As32Bit != cgnTestLl10NodeSha1As32Bit)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL_SHA1_FAILURE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// If we get here, we're good
//////////
// Determine the SHA-1 on the remaining two nodes going backward
//////
vvm_sha1ComputeSha1_Start(context);
cb.node = nodePrev->next;
vvm_ll_iterateBackwardViaCallback(&cb);
vvm_sha1ComputeSha1_FinishAsSha1(context, sha20Bytes, false);
vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As64Bit = vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As32Bit = vvm_sha1Compute32BitFromSha1(sha20Bytes);
if (lnSha1As64Bit != cgnTestLl11NodeSha1As64Bit || lnSha1As32Bit != cgnTestLl11NodeSha1As32Bit)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL_SHA1_FAILURE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// If we get here, we're good
// If we get here, we're good
vvm_resourcePrintf(IDS_VVM_TEST_PASS);
return(true);
}
//////////
//
// This test adds the "1" nodes, which make the former "1" nodes become "2" nodes, as they are
// 2 hops away from root.
// ____ ____ ____ ____ ____
// | p2 | p1 |root| n1 | n2 |
// |____|____|____|____|____|
//
//////
bool iivvmt_testSll_2(u64 lnHandleLog, SLL* root)
{
SLLCallback cb;
u64 lnSha1As64Bit;
u32 lnSha1As32Bit;
u8 sha20Bytes[20];
u8 context[92];
SLL* nodePrev;
SLL* nodeNext;
//////////
// Tell them which test we're running
//////
vvm_resourcePrintf(IDS_VVM_TEST_SLL_APPEND);
//////////
// Prepare for our callbacks
//////
cb._func = (u64)&i3vvmt_testSll_1_sha1Callback;
cb.node = root->prev;
cb.extra1 = (u64)&context[0];
cb.extra2 = (u64)&sha20Bytes[0];
//////////
// Create a node to go before
//////
nodePrev = i3vvmt_testSll_1_createSll(cgnLlBufferSize);
if (!nodePrev)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL_UNABLE_TO_CREATE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
//////////
// Create a node to go after
//////
nodeNext = i3vvmt_testSll_1_createSll(cgnLlBufferSize);
if (!nodeNext)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL_UNABLE_TO_CREATE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
//////////
// Insert the node after
//////
vvm_ll_insert(nodeNext, root, true);
//////////
// Determine the SHA-1 on that one node
//////
vvm_sha1ComputeSha1_Start(context);
vvm_ll_iterateViaCallback(&cb);
vvm_sha1ComputeSha1_FinishAsSha1(context, sha20Bytes, false);
vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As64Bit = vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As32Bit = vvm_sha1Compute32BitFromSha1(sha20Bytes);
if (lnSha1As64Bit != cgnTestLl5NodeSha1As64Bit || lnSha1As32Bit != cgnTestLl5NodeSha1As32Bit)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL_SHA1_FAILURE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// If we get here, we're good
//////////
// Insert the node before
//////
vvm_ll_insert(nodePrev, root, false);
//////////
// Determine the SHA-1 on that one node
//////
vvm_sha1ComputeSha1_Start(context);
cb.node = nodePrev->prev;
vvm_ll_iterateViaCallback(&cb);
vvm_sha1ComputeSha1_FinishAsSha1(context, sha20Bytes, false);
vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As64Bit = vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As32Bit = vvm_sha1Compute32BitFromSha1(sha20Bytes);
if (lnSha1As64Bit != cgnTestLl6NodeSha1As64Bit || lnSha1As32Bit != cgnTestLl6NodeSha1As32Bit)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL_SHA1_FAILURE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// If we get here, we're good
//////////
// Determine the SHA-1 on that one node
//////
vvm_sha1ComputeSha1_Start(context);
cb.node = nodeNext->next;
vvm_ll_iterateBackwardViaCallback(&cb);
vvm_sha1ComputeSha1_FinishAsSha1(context, sha20Bytes, false);
vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As64Bit = vvm_sha1Compute64BitFromSha1(sha20Bytes);
lnSha1As32Bit = vvm_sha1Compute32BitFromSha1(sha20Bytes);
if (lnSha1As64Bit != cgnTestLl7NodeSha1As64Bit || lnSha1As32Bit != cgnTestLl7NodeSha1As32Bit)
{
// Failure
vvm_resourcePrintf(IDS_VVM_TEST_SLL_SHA1_FAILURE);
vvm_resourcePrintf(IDS_VVM_TEST_FAIL);
return(false);
}
// If we get here, we're good
// If we get here, we're good
vvm_resourcePrintf(IDS_VVM_TEST_PASS);
return(true);
}
