static void ClearTree()
{
LE_INFO("---- Clearing Out Current Tree -----------------------------------------------------");
le_cfg_IteratorRef_t iterRef = le_cfg_CreateWriteTxn(TestRootDir);
LE_FATAL_IF(iterRef == NULL, "Test: %s - Could not create iterator.", TestRootDir);
DumpTree(iterRef, 0);
le_cfg_DeleteNode(iterRef, "");
le_cfg_CommitTxn(iterRef);
iterRef = le_cfg_CreateReadTxn(TestRootDir);
DumpTree(iterRef, 0);
le_cfg_CancelTxn(iterRef);
}
void DumpTree(SObject* root, int depth)
{
for ( int i = 0; i < depth; i++ )
FLASHOUTPUT(" ");
FLASHOUTPUT("Type=%i Name=%s addr=%X\n", root->character ? root->character->type : -1, root->name ? root->name : "", root);
for ( SObject* obj = root->bottomChild; obj; obj = obj->above )
DumpTree(obj, depth+1);
}
/* verification */
extern void CGDone( n *nd ) {
/*******************************/
// CGError( "OOPS!" );
Action( "CGDone( %t )%n%n", nd );
VerNode( nd );
DumpTree( nd );
NoDanglers();
}
NS_IMETHODIMP
nsFrameUtil::DumpRegressionData(FILE* aInputFile, FILE* aOutputFile)
{
Node* tree1 = Node::ReadTree(aInputFile);
if (nsnull != tree1) {
DumpTree(tree1, aOutputFile, 0);
Node::Destroy(tree1);
return NS_OK;
}
return NS_ERROR_FAILURE;
}
void ReflectionParser::DumpTree(Cursor const & cursor, size_t level, std::stringstream & outData)
{
outData << "\n";
for (size_t i = 0; i < level; ++i)
outData << "-";
outData << cursor.GetDisplayName() << ", " << cursor.GetKind();
for (auto &child : cursor.GetChildren())
{
DumpTree(child, level + 1, outData);
}
}
NS_IMETHODIMP
nsFrameUtil::CompareRegressionData(FILE* aFile1, FILE* aFile2,PRInt32 aRegressionOutput)
{
Node* tree1 = Node::ReadTree(aFile1);
Node* tree2 = Node::ReadTree(aFile2);
nsresult rv = NS_OK;
if (!CompareTrees(tree1, tree2)) {
// only output this if aRegressionOutput is 0
if( 0 == aRegressionOutput ){
printf("Regression data 1:\n");
DumpTree(tree1, stdout, 0);
printf("Regression data 2:\n");
DumpTree(tree2, stdout, 0);
}
rv = NS_ERROR_FAILURE;
}
Node::Destroy(tree1);
Node::Destroy(tree2);
return rv;
}
void
nsFrameUtil::DumpTree(Node* aNode, FILE* aOutputFile, PRInt32 aIndent)
{
while (nsnull != aNode) {
DumpNode(aNode, aOutputFile, aIndent);
nsFrameUtil::NodeList* lists = aNode->lists;
if (nsnull != lists) {
while (nsnull != lists) {
nsFrame::IndentBy(aOutputFile, aIndent);
fprintf(aOutputFile, " list: %s\n",
lists->name ? lists->name : "primary");
DumpTree(lists->node, aOutputFile, aIndent + 1);
lists = lists->next;
}
}
aNode = aNode->next;
}
}
static void DumpTree(le_cfg_IteratorRef_t iterRef, size_t indent)
{
if (le_arg_NumArgs() == 1)
{
return;
}
static char strBuffer[STR_SIZE] = { 0 };
do
{
size_t i;
for (i = 0; i < indent; i++)
{
printf(" ");
}
le_cfg_GetNodeName(iterRef, "", strBuffer, STR_SIZE);
le_cfg_nodeType_t type = le_cfg_GetNodeType(iterRef, "");
switch (type)
{
case LE_CFG_TYPE_STEM:
printf("%s/\n", strBuffer);
le_cfg_GoToFirstChild(iterRef);
DumpTree(iterRef, indent + 2);
le_cfg_GoToParent(iterRef);
break;
case LE_CFG_TYPE_EMPTY:
printf("%s~~\n", strBuffer);
break;
default:
printf("%s<%s> == ", strBuffer, NodeTypeStr(iterRef));
le_cfg_GetString(iterRef, "", strBuffer, STR_SIZE, "");
printf("%s\n", strBuffer);
break;
}
}
while (le_cfg_GoToNextSibling(iterRef) == LE_OK);
}
// -------------------------------------------------------------------------------------------------
static int HandleGetUserFriendly
(
const char* nodePathPtr ///< Path to the node in the tree.
)
// -------------------------------------------------------------------------------------------------
{
// Start a read transaction at the specified node path. Then dump the value, (if any.)
le_cfg_IteratorRef_t iterRef = le_cfg_CreateReadTxn(nodePathPtr);
switch (le_cfg_GetNodeType(iterRef, ""))
{
case LE_CFG_TYPE_EMPTY:
// Nothing to do here.
break;
case LE_CFG_TYPE_STEM:
DumpTree(iterRef, 0);
break;
case LE_CFG_TYPE_BOOL:
if (le_cfg_GetBool(iterRef, "", false))
{
printf("true\n");
}
else
{
printf("false\n");
}
break;
default:
{
char nodeValue[LE_CFG_STR_LEN_BYTES] = "";
le_cfg_GetString(iterRef, "", nodeValue, LE_CFG_STR_LEN_BYTES, "");
printf("%s\n", nodeValue);
}
break;
}
le_cfg_CancelTxn(iterRef);
return EXIT_SUCCESS;
}
static void DeleteTest()
{
static char pathBuffer[STR_SIZE] = { 0 };
snprintf(pathBuffer, STR_SIZE, "%s/deleteTest/", TestRootDir);
le_cfg_IteratorRef_t iterRef = le_cfg_CreateWriteTxn(pathBuffer);
le_cfg_SetString(iterRef, "valueA", "aNewValue");
le_cfg_SetString(iterRef, "valueB", "aNewValue");
le_cfg_SetString(iterRef, "valueC", "aNewValue");
TestValue(iterRef, "valueA", "aNewValue");
TestValue(iterRef, "valueB", "aNewValue");
TestValue(iterRef, "valueC", "aNewValue");
le_cfg_CommitTxn(iterRef);
iterRef = le_cfg_CreateWriteTxn(pathBuffer);
le_cfg_DeleteNode(iterRef, "valueB");
TestValue(iterRef, "valueA", "aNewValue");
TestValue(iterRef, "valueB", "");
TestValue(iterRef, "valueC", "aNewValue");
le_cfg_CommitTxn(iterRef);
iterRef = le_cfg_CreateReadTxn(pathBuffer);
TestValue(iterRef, "valueA", "aNewValue");
TestValue(iterRef, "valueB", "");
TestValue(iterRef, "valueC", "aNewValue");
DumpTree(iterRef, 0);
le_cfg_CancelTxn(iterRef);
}
void CMagpieApplication::ExecutingModule::DumpTree(INT tabId)
{
CHAR fileName[128];
sprintf(fileName, "c:\\temp\\magpie-modules.%i.log", tabId);
HANDLE hFile = CreateFileA(fileName, GENERIC_READ | GENERIC_WRITE, FILE_SHARE_READ, NULL, OPEN_ALWAYS, FILE_ATTRIBUTE_NORMAL, NULL);
if (hFile == INVALID_HANDLE_VALUE)
{
return;
}
SetFilePointer(hFile, 0, NULL, FILE_END);
CHAR msg[128];
sprintf(msg, "==================================================\r\n");
DWORD w;
WriteFile(hFile, msg, strlen(msg), &w, NULL);
DumpTree(-1, hFile); // don't display root element, its meaningless
CloseHandle(hFile);
}
void vDisplay(char *cmd)
{
DumpTree();
} // vDisplay
void Module::DumpTree (const string& file, Module* mod,int ichild, int level) {
//root node redirects output buffer, if filename is given
streambuf* sobuf = 0;
std::ofstream* pfout = 0;
if (mod ==NULL) {
mod=this;
if (!file.empty()) {
sobuf = cout.rdbuf(); // Save the original stdout buffer.
pfout = new ofstream(file.c_str());
if (*pfout) cout.rdbuf(pfout->rdbuf()); // Redirect cout output to the opened file.
}
}
//Dump info on this module
vector<Module*> children = mod->GetChildren();
stringstream spaces_bef;
for (int j=0;j<level;++j) spaces_bef << " ";
stringstream spaces_aft;
for (int j=level; j<m_seq_tree->GetDepth(); ++j) spaces_aft << " ";
if (ichild<0) {
cout << endl << " Static Events-------> ";
}
else {
if (ichild) cout << spaces_bef.str() << "|_ child " << ichild << " ";
else cout << "dump of sequence tree\n"
<< spaces_aft.str() << " TYPE CLASS NAME duration ADCs TPOIs | module specific\n"
<< spaces_aft.str() << " ----------------------------------------------------------------- | ---------------\n"
<< "sequence-root";
for (int j=level; j<m_seq_tree->GetDepth(); ++j) cout << "--";
cout << "> ";
}
string class_type = mod->GetClassType();
string name = mod->GetName();
transform(class_type.begin(), class_type.end(), class_type.begin(), (int(*)(int)) toupper);
string type;
int adcs = 0;
if (mod->GetType() == MOD_CONCAT) {
type="CONCAT";
adcs=((Sequence*) mod)->GetNumOfADCs();
}
if (mod->GetType() == MOD_ATOM) {
type="ATOM";
adcs=((Sequence*) mod)->GetNumOfADCs();
}
if (mod->GetType() == MOD_PULSE) {
type="PULSE";
adcs=((Pulse*) mod)->GetNADC() ;
}
int tpois = mod->GetNumOfTPOIs();
char chform[70];
sprintf(chform,"%8s %20s %8s %9.3f %7d %8d",type.c_str(),class_type.c_str(),name.c_str(),mod->GetDuration(),adcs,tpois);
cout << chform << " | " << mod->GetInfo() << "\n";
level++;
for (unsigned int i=0; i<children.size() ; ++i)
DumpTree(file, mod->GetChild(i),i+1,level);
// the static Atom
World* pW = World::instance();
if (ichild == 0 && pW->pStaticAtom != NULL ) {
DumpTree(file, ((Module*) pW->pStaticAtom),-1,level);
}
// root node restores cout to original state.
if (ichild == 0 && !file.empty() ) {
cout.rdbuf(sobuf);
delete pfout;
}
}
int main(int argc, char ** argv)
{
int i;
FILE * in = NULL;
FILE * out = NULL;
byte * pb = NULL;
size_t cb = 0;
byte rgb[2048];
size_t cbIn;
int forXML = false;
FOO * root = NULL;
for (i=1; i<argc; i++) {
if ((argv[i][0] == '-') || (argv[i][0] == '/')) {
if (strcmp(&argv[i][1], "someoption") == 0) {
}
else if (strcmp(&argv[i][1], "xml=yes") == 0) {
forXML = true;
}
else if (strcmp(&argv[i][1], "xml=no") == 0) forXML = false;
else if (strncmp(&argv[i][1], "wrap=", 5) == 0) {
WrapLineAt = atoi(&argv[i][6]);
}
else if (strncmp(&argv[i][1], "type=", 5) == 0) {
if (strcmp(&argv[i][1], "type=encrypt") == 0) root = &EncryptedMessage;
else if (strcmp(&argv[i][1], "type=envelope") == 0) root = &EnvelopedMessage;
else if (strcmp(&argv[i][1], "type=signed") == 0) root = &SignedMessage;
else if (strcmp(&argv[i][1], "type=mac") == 0) root = &MacMessage;
else if (strcmp(&argv[i][1], "type=mac0") == 0) root = &Mac0Message;
else if (strcmp(&argv[i][1], "type=keyset") == 0) root = &KeySet;
else if (strcmp(&argv[i][1], "type=key") == 0) root = &Key;
else PrintUsage();
}
else {
PrintUsage();
exit(1);
}
}
else {
if (in == NULL) {
in = fopen(argv[i], "rb");
if (in == NULL) {
fprintf(stderr, "Unable to open file '%s'\n", argv[i]);
exit(1);
}
}
else if (out == NULL) {
out = fopen(argv[i], "wt");
if (out == NULL) {
fprintf(stderr, "Unable to open file '%s'\n", argv[i]);
exit(1);
}
}
else {
PrintUsage();
exit(1);
}
}
}
// Set defaults
if (in == NULL) {
#ifdef _WIN32
in = stdin;
_setmode(_fileno(stdin), _O_BINARY);
#else
in = stdin; // fdreopen(_fileno(stdin), NULL, O_RDONLY | OPEN_O_BINARY);
#endif
}
if (out == NULL) out = stdout;
// Read the input to a buffer - needed for the parser
cbIn = 1;
while (cbIn > 0) {
cbIn = fread(rgb, 1, sizeof(rgb), in);
if (cbIn == 0) {
// finished
break;
}
pb = realloc(pb, cb+cbIn);
if (pb == NULL) {
fprintf(stderr, "Error allocating memory\n");
exit(1);
}
memcpy(pb+cb, rgb, cbIn);
cb += cbIn;
}
// Parse it
cn_cbor * cbor = cn_cbor_decode(pb, cb CBOR_CONTEXT_PARAM, NULL);
if (cbor == NULL) {
fprintf(stderr, "Error parsing CBOR");
exit(1);
}
if (root == NULL) {
if (cbor->type == CN_CBOR_TAG) {
switch (cbor->v.sint) {
case 98: root = &SignedMessageWithTag; break;
case 96: root = &EnvelopedMessageWithTag; break;
case 16: root = &EncryptedMessageWithTag; break;
case 97: root = &MacMessageWithTag; break;
case 17: root = &Mac0MessageWithTag; break;
case 18: root = &Sign0MessageWithTag; break;
}
}
}
if (forXML) {
fprintf(out, "<t>Size of binary file is %lu bytes</t>\n\n", (unsigned long) cb);
fprintf(out, "<figure><artwork type='CBORdiag'><![CDATA[\n");
}
DumpTree(cbor, out, root, 0, true, true, false);
WrapPrintF(out, "\n");
if (forXML) {
fprintf(out, "]]></artwork></figure>\n");
}
}
void DumpTree(const cn_cbor * cbor, FILE * out, const FOO *pFOO, int depth, int fField, int fValue, int fInComment)
{
int i;
int i2;
const cn_cbor * cbor2;
const FOO * pFoo2;
int group;
if (pFOO != NULL) {
switch (pFOO->type) {
case CN_CBOR_TAG:
if (cbor->type != CN_CBOR_TAG) pFOO = NULL;
break;
default:
break;
}
}
if (fField && (pFOO != NULL) && (pFOO->fieldName != NULL)) {
if (fInComment) WrapPrintF(out, "\\ %s \\ ", pFOO -> fieldName);
else WrapPrintF(out, "/ %s / ", pFOO->fieldName);
}
switch (cbor->type) {
case CN_CBOR_TAG:
WrapPrintF(out, "%u(\n", cbor->v.uint);
Indent(out, depth + 1);
DumpTree(cbor->last_child, out, pFOO != NULL ? pFOO->children : NULL, depth+1, true, true, fInComment);
WrapPrintF(out, "\n");
Indent(out, depth);
WrapPrintF(out, ")");
break;
case CN_CBOR_ARRAY:
WrapPrintF(out, "[");
cbor2 = cbor->first_child;
for (i = 0; i < cbor->length; i++, cbor2 = cbor2->next) {
if (i != 0) WrapPrintF(out, ", ");
if (pFOO == NULL) pFoo2 = NULL;
else if (pFOO->count == 1) pFoo2 = pFOO->children;
else if (i >= pFOO->count) pFoo2 = NULL;
else pFoo2 = &pFOO->children[i];
WrapPrintF(out, "\n");
Indent(out, depth + 1);
DumpTree(cbor2, out, pFoo2, depth + 1, true, true, fInComment);
}
if (i > 0) {
WrapPrintF(out, "\n");
Indent(out, depth);
}
WrapPrintF(out, "]");
break;
case CN_CBOR_MAP:
WrapPrintF(out, "{");
cbor2 = cbor->first_child;
// Determine the correct group - always assume it is at element UINT=1
group = 0;
for (i = 0; i < cbor->length; i+=2, cbor2 = cbor2->next->next) {
if ((cbor2->type == CN_CBOR_UINT) && (cbor2->v.uint == 1)) {
group = (int) cbor2->next->v.uint;
break;
}
}
cbor2 = cbor->first_child;
// Dump each element
for (i = 0; i < cbor->length; i+=2, cbor2 = cbor2->next) {
pFoo2 = NULL;
if (pFOO != NULL) {
// Locate the right entry in foo
for (i2 = 0, pFoo2 = pFOO->children; i2 < pFOO->count; pFoo2++, i2 += 1) {
if (pFoo2->type != cbor2->type) continue;
switch (cbor2->type) {
case CN_CBOR_UINT:
if ((group != 0) && (pFoo2->group != 0) && (pFoo2->group != group)) continue;
if (pFoo2->value == (int) cbor2->v.uint) i2 = pFOO->count + 1;
break;
case CN_CBOR_INT:
if ((group != 0) && (pFoo2->group != 0) && (pFoo2->group != group)) continue;
if (pFoo2->value == cbor2->v.sint) i2 = pFOO->count + 1;
break;
default:
// Should assert here?
break;
}
if (i2 == pFOO->count + 1) break;
}
if (i2 == pFOO->count) pFoo2 = NULL;
}
if (i != 0) WrapPrintF(out, ", ");
WrapPrintF(out, "\n");
Indent(out, depth + 1);
DumpTree(cbor2, out, pFoo2, depth + 1, true, false, fInComment);
WrapPrintF(out, ":");
cbor2 = cbor2->next;
DumpTree(cbor2, out, pFoo2, depth + 1, false, true, fInComment);
}
if (i > 0) {
WrapPrintF(out, "\n");
Indent(out, depth);
}
WrapPrintF(out, "}");
break;
case CN_CBOR_BYTES:
DumpBytes(out, cbor);
if ((pFOO != NULL) && (pFOO->children != NULL)) {
const cn_cbor * cbor3 = cn_cbor_decode(cbor->v.bytes, cbor->length CBOR_CONTEXT_PARAM, NULL);
if (cbor3 != NULL) {
WrapPrintF(out, fInComment ? " \\ " : " / ");
DumpTree(cbor3, out, pFOO->children, depth+1, true, true, true);
WrapPrintF(out, fInComment ? " \\ " : " / ");
}
}
break;
case CN_CBOR_INT:
WrapPrintF(out, "%d", cbor->v.sint);
if (fValue && pFOO != NULL) {
for (i = 0, pFoo2 = pFOO->children; i < pFOO->count; i++, pFoo2++) {
if ((pFoo2->type == CN_CBOR_INT) && (pFoo2->value == cbor->v.sint)) {
if (pFoo2->fieldName != NULL) {
if (fInComment) WrapPrintF(out, " \\ %s \\", pFoo2->fieldName);
else WrapPrintF(out, " / %s /", pFoo2->fieldName);
}
break;
}
}
}
break;
case CN_CBOR_UINT:
WrapPrintF(out, "%u", cbor->v.uint);
if (fValue && (pFOO != NULL)) {
for (i = 0, pFoo2 = pFOO->children; i < pFOO->count; i++, pFoo2++) {
if ((pFoo2->type == CN_CBOR_UINT) && (pFoo2->value == (int) cbor->v.uint)) {
if (pFoo2->fieldName != NULL) {
if (fInComment) WrapPrintF(out, " \\ %s \\", pFoo2->fieldName);
else WrapPrintF(out, " / %s /", pFoo2->fieldName);
}
break;
}
}
}
break;
case CN_CBOR_TEXT:
WrapPrintF(out, "\"");
for (i = 0; i < cbor->length; i++) {
if (fInComment && (cbor->v.str[i] == '/')) {
WrapPrintF(out, "%c", cbor->v.str[i]);
}
WrapPrintF(out, "%c", cbor->v.str[i]);
}
WrapPrintF(out, "\"");
break;
case CN_CBOR_TRUE:
WrapPrintF(out, "true");
break;
case CN_CBOR_FALSE:
WrapPrintF(out, "false");
break;
default:
WrapPrintF(out, "##");
break;
}
}
// -------------------------------------------------------------------------------------------------
static void DumpTree
(
le_cfg_IteratorRef_t iterRef, ///< Write out the tree pointed to by this iterator.
size_t indent ///< The amount of indentation to use for this item.
)
// -------------------------------------------------------------------------------------------------
{
// Note that because this is a recursive function, the buffer here is static in order to save on
// stack space. The implication here is that we then have to be careful how it is later
// accessed. Also, this makes the function not thread safe. But this trade off was made as
// this was not intended to be a multi-threaded program.
static char strBuffer[LE_CFG_STR_LEN_BYTES] = "";
do
{
// Quick and dirty way to indent the tree item.
size_t i;
for (i = 0; i < indent; i++)
{
printf(" ");
}
// Simply grab the name and the type of the current node.
le_cfg_GetNodeName(iterRef, "", strBuffer, LE_CFG_STR_LEN_BYTES);
le_cfg_nodeType_t type = le_cfg_GetNodeType(iterRef, "");
switch (type)
{
// It's a stem object, so mark this item as being a stem and recurse into the stem's
// sub-items.
case LE_CFG_TYPE_STEM:
printf("%s/\n", strBuffer);
le_cfg_GoToFirstChild(iterRef);
DumpTree(iterRef, indent + 2);
le_cfg_GoToParent(iterRef);
// If we got back up to where we started then don't iterate the "root" node's
// siblings.
if (indent == 0)
{
return;
}
break;
// The node is empty, so simply mark it as such.
case LE_CFG_TYPE_EMPTY:
printf("%s<empty>\n", strBuffer);
break;
case LE_CFG_TYPE_BOOL:
{
char* value = NULL;
if (le_cfg_GetBool(iterRef, "", false))
{
value = "true";
}
else
{
value = "false";
}
printf("%s<bool> == %s\n", strBuffer, value);
}
break;
// The node has a different type. So write out the name and the type. Then print the
// value.
default:
printf("%s<%s> == ", strBuffer, NodeTypeStr(le_cfg_GetNodeType(iterRef, "")));
le_cfg_GetString(iterRef, "", strBuffer, LE_CFG_STR_LEN_BYTES, "");
printf("%s\n", strBuffer);
break;
}
}
while (le_cfg_GoToNextSibling(iterRef) == LE_OK);
}
//---------------------------------------------------------------------------
//---------------------------------------------------------------------------
//---------------------------------------------------------------------------
void __fastcall TMainForm::LoadFile( void )
{
int bStatus;
// Can we open the file ?
if( (fd = fopen( OpenDialog1->FileName.c_str(), "rb") ) == NULL )
{
MsgBoxStop( "Cannot open input file\n\n" + OpenDialog1->FileName );
return;
}
pnlChunks->Caption = "";
strList->Clear();
ListBoxChunks->Clear();
RichEditChunks->Clear();
RichEditReport->Clear();
ProgressBar1->Min = 0;
ProgressBar1->Position = 0;
SetChunkCount( 0 );
RichEditReport->Lines->Add( "" );
RichEditReport->Lines->Add( "Chunk contents of file :" );
RichEditReport->Lines->Add( OpenDialog1->FileName );
RichEditReport->Lines->Add( "" );
// Make report pane visible - prove we are working and not locked up
PageControl1->ActivePage = tsReport;
try {
StaticTextStatus->Caption = "Working ... please wait";
StaticTextStatus->Update();
bStatus = DumpTree(); // true indicates success
}
__finally {
ProgressBar1->Position = 0;
StaticTextStatus->Caption = "Ok";
fclose( fd );
fd = NULL;
}
if( !bStatus ) // We have an error
{
pnlChunks->Caption = "";
strList->Clear();
ListBoxChunks->Clear();
RichEditChunks->Clear();
RichEditReport->Lines->Add("");
RichEditReport->Lines->Add("An error occurred while reading the file.");
} else { // Read file and chunks without any problems
// Set Report Panels caption
pnlChunks->Caption = "Chunk 1 of " + String( ListBoxChunks->Items->Count );
// Set Listbox to first item
ListBoxChunks->ItemIndex = 0;
// Put gleeful message in report pane
RichEditChunks->Lines->Add( "" );
RichEditChunks->Lines->Add(
"No error's found when reading file ... " );
RichEditChunks->Lines->Add(
"Click the list box to display the data for each chunk.");
// Place cursor at top of editor
RichEditChunks->SelStart = 0;
RichEditChunks->SelLength = 0;
// Place cursor at top of editor
RichEditReport->SelStart = 0;
RichEditReport->SelLength = 0;
// Lock richedits - so an immediate undo does not make data vanish !
RichEditReport->Modified = false;
// @ap@ Borland should fix this ! (it don't work)
}
}