llvm-project/lldb/source/DataFormatters/FormatManager.cpp

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//===-- FormatManager.cpp -------------------------------------------*- C++ -*-===//
//
// The LLVM Compiler Infrastructure
//
// This file is distributed under the University of Illinois Open Source
// License. See LICENSE.TXT for details.
//
//===----------------------------------------------------------------------===//
#include "lldb/lldb-python.h"
#include "lldb/DataFormatters/FormatManager.h"
// C Includes
// C++ Includes
// Other libraries and framework includes
// Project includes
#include "lldb/Core/Debugger.h"
#include "lldb/DataFormatters/CXXFormatterFunctions.h"
#include "lldb/Interpreter/ScriptInterpreterPython.h"
#include "lldb/Target/ExecutionContext.h"
#include "lldb/Target/Platform.h"
#include "llvm/ADT/STLExtras.h"
using namespace lldb;
using namespace lldb_private;
struct FormatInfo
{
Format format;
const char format_char; // One or more format characters that can be used for this format.
const char *format_name; // Long format name that can be used to specify the current format
};
static FormatInfo
g_format_infos[] =
{
{ eFormatDefault , '\0' , "default" },
{ eFormatBoolean , 'B' , "boolean" },
{ eFormatBinary , 'b' , "binary" },
{ eFormatBytes , 'y' , "bytes" },
{ eFormatBytesWithASCII , 'Y' , "bytes with ASCII" },
{ eFormatChar , 'c' , "character" },
{ eFormatCharPrintable , 'C' , "printable character" },
{ eFormatComplexFloat , 'F' , "complex float" },
{ eFormatCString , 's' , "c-string" },
{ eFormatDecimal , 'd' , "decimal" },
{ eFormatEnum , 'E' , "enumeration" },
{ eFormatHex , 'x' , "hex" },
{ eFormatHexUppercase , 'X' , "uppercase hex" },
{ eFormatFloat , 'f' , "float" },
{ eFormatOctal , 'o' , "octal" },
{ eFormatOSType , 'O' , "OSType" },
{ eFormatUnicode16 , 'U' , "unicode16" },
{ eFormatUnicode32 , '\0' , "unicode32" },
{ eFormatUnsigned , 'u' , "unsigned decimal" },
{ eFormatPointer , 'p' , "pointer" },
{ eFormatVectorOfChar , '\0' , "char[]" },
{ eFormatVectorOfSInt8 , '\0' , "int8_t[]" },
{ eFormatVectorOfUInt8 , '\0' , "uint8_t[]" },
{ eFormatVectorOfSInt16 , '\0' , "int16_t[]" },
{ eFormatVectorOfUInt16 , '\0' , "uint16_t[]" },
{ eFormatVectorOfSInt32 , '\0' , "int32_t[]" },
{ eFormatVectorOfUInt32 , '\0' , "uint32_t[]" },
{ eFormatVectorOfSInt64 , '\0' , "int64_t[]" },
{ eFormatVectorOfUInt64 , '\0' , "uint64_t[]" },
{ eFormatVectorOfFloat32, '\0' , "float32[]" },
{ eFormatVectorOfFloat64, '\0' , "float64[]" },
{ eFormatVectorOfUInt128, '\0' , "uint128_t[]" },
{ eFormatComplexInteger , 'I' , "complex integer" },
{ eFormatCharArray , 'a' , "character array" },
{ eFormatAddressInfo , 'A' , "address" },
{ eFormatHexFloat , '\0' , "hex float" },
{ eFormatInstruction , 'i' , "instruction" },
{ eFormatVoid , 'v' , "void" }
};
static uint32_t g_num_format_infos = llvm::array_lengthof(g_format_infos);
static bool
GetFormatFromFormatChar (char format_char, Format &format)
{
for (uint32_t i=0; i<g_num_format_infos; ++i)
{
if (g_format_infos[i].format_char == format_char)
{
format = g_format_infos[i].format;
return true;
}
}
format = eFormatInvalid;
return false;
}
static bool
GetFormatFromFormatName (const char *format_name, bool partial_match_ok, Format &format)
{
uint32_t i;
for (i=0; i<g_num_format_infos; ++i)
{
if (strcasecmp (g_format_infos[i].format_name, format_name) == 0)
{
format = g_format_infos[i].format;
return true;
}
}
if (partial_match_ok)
{
for (i=0; i<g_num_format_infos; ++i)
{
if (strcasestr (g_format_infos[i].format_name, format_name) == g_format_infos[i].format_name)
{
format = g_format_infos[i].format;
return true;
}
}
}
format = eFormatInvalid;
return false;
}
bool
FormatManager::GetFormatFromCString (const char *format_cstr,
bool partial_match_ok,
lldb::Format &format)
{
bool success = false;
if (format_cstr && format_cstr[0])
{
if (format_cstr[1] == '\0')
{
success = GetFormatFromFormatChar (format_cstr[0], format);
if (success)
return true;
}
success = GetFormatFromFormatName (format_cstr, partial_match_ok, format);
}
if (!success)
format = eFormatInvalid;
return success;
}
char
FormatManager::GetFormatAsFormatChar (lldb::Format format)
{
for (uint32_t i=0; i<g_num_format_infos; ++i)
{
if (g_format_infos[i].format == format)
return g_format_infos[i].format_char;
}
return '\0';
}
const char *
FormatManager::GetFormatAsCString (Format format)
{
if (format >= eFormatDefault && format < kNumFormats)
return g_format_infos[format].format_name;
return NULL;
}
void
FormatManager::GetPossibleMatches (ValueObject& valobj,
ClangASTType clang_type,
uint32_t reason,
lldb::DynamicValueType use_dynamic,
FormattersMatchVector& entries,
bool did_strip_ptr,
bool did_strip_ref,
bool did_strip_typedef,
bool root_level)
{
clang_type = clang_type.RemoveFastQualifiers();
ConstString type_name(clang_type.GetConstTypeName());
if (valobj.GetBitfieldBitSize() > 0)
{
StreamString sstring;
sstring.Printf("%s:%d",type_name.AsCString(),valobj.GetBitfieldBitSize());
ConstString bitfieldname = ConstString(sstring.GetData());
entries.push_back({bitfieldname,0,did_strip_ptr,did_strip_ref,did_strip_typedef});
reason |= lldb_private::eFormatterChoiceCriterionStrippedBitField;
}
entries.push_back({type_name,reason,did_strip_ptr,did_strip_ref,did_strip_typedef});
Introduce the concept of a "display name" for types Rationale: Pretty simply, the idea is that sometimes type names are way too long and contain way too many details for the average developer to care about. For instance, a plain ol' vector of int might be shown as std::__1::vector<int, std::__1::allocator<.... rather than the much simpler std::vector<int> form, which is what most developers would actually type in their code Proposed solution: Introduce a notion of "display name" and a corresponding API GetDisplayTypeName() to return such a crafted for visual representation type name Obviously, the display name and the fully qualified (or "true") name are not necessarily the same - that's the whole point LLDB could choose to pick the "display name" as its one true notion of a type name, and if somebody really needs the fully qualified version of it, let them deal with the problem Or, LLDB could rename what it currently calls the "type name" to be the "display name", and add new APIs for the fully qualified name, making the display name the default choice The choice that I am making here is that the type name will keep meaning the same, and people who want a type name suited for display will explicitly ask for one It is the less risky/disruptive choice - and it should eventually make it fairly obvious when someone is asking for the wrong type Caveats: - for now, GetDisplayTypeName() == GetTypeName(), there is no logic to produce customized display type names yet. - while the fully-qualified type name is still the main key to the kingdom of data formatters, if we start showing custom names to people, those should match formatters llvm-svn: 209072
2014-05-18 03:14:17 +08:00
ConstString display_type_name(clang_type.GetDisplayTypeName());
if (display_type_name != type_name)
entries.push_back({display_type_name,reason,did_strip_ptr,did_strip_ref,did_strip_typedef});
for (bool is_rvalue_ref = true, j = true; j && clang_type.IsReferenceType(nullptr, &is_rvalue_ref); j = false)
{
ClangASTType non_ref_type = clang_type.GetNonReferenceType();
GetPossibleMatches(valobj,
non_ref_type,
reason | lldb_private::eFormatterChoiceCriterionStrippedPointerReference,
use_dynamic,
entries,
did_strip_ptr,
true,
did_strip_typedef);
if (non_ref_type.IsTypedefType())
{
ClangASTType deffed_referenced_type = non_ref_type.GetTypedefedType();
deffed_referenced_type = is_rvalue_ref ? deffed_referenced_type.GetRValueReferenceType() : deffed_referenced_type.GetLValueReferenceType();
GetPossibleMatches(valobj,
deffed_referenced_type,
reason | lldb_private::eFormatterChoiceCriterionNavigatedTypedefs,
use_dynamic,
entries,
did_strip_ptr,
did_strip_ref,
true); // this is not exactly the usual meaning of stripping typedefs
}
}
if (clang_type.IsPointerType())
{
ClangASTType non_ptr_type = clang_type.GetPointeeType();
GetPossibleMatches(valobj,
non_ptr_type,
reason | lldb_private::eFormatterChoiceCriterionStrippedPointerReference,
use_dynamic,
entries,
true,
did_strip_ref,
did_strip_typedef);
if (non_ptr_type.IsTypedefType())
{
ClangASTType deffed_pointed_type = non_ptr_type.GetTypedefedType().GetPointerType();
GetPossibleMatches(valobj,
deffed_pointed_type,
reason | lldb_private::eFormatterChoiceCriterionNavigatedTypedefs,
use_dynamic,
entries,
did_strip_ptr,
did_strip_ref,
true); // this is not exactly the usual meaning of stripping typedefs
}
}
bool canBeObjCDynamic = clang_type.IsPossibleDynamicType (NULL,
false, // no C
true); // yes ObjC
if (canBeObjCDynamic)
{
if (use_dynamic != lldb::eNoDynamicValues)
{
do
{
lldb::ProcessSP process_sp = valobj.GetProcessSP();
ObjCLanguageRuntime* runtime = process_sp->GetObjCLanguageRuntime();
if (runtime == nullptr)
break;
ObjCLanguageRuntime::ClassDescriptorSP objc_class_sp (runtime->GetClassDescriptor(valobj));
if (!objc_class_sp)
break;
ConstString name (objc_class_sp->GetClassName());
entries.push_back({name,reason | lldb_private::eFormatterChoiceCriterionDynamicObjCDiscovery,did_strip_ptr,did_strip_ref,did_strip_typedef});
} while (false);
}
ClangASTType non_ptr_type = clang_type.GetPointeeType();
GetPossibleMatches(valobj,
non_ptr_type,
reason | lldb_private::eFormatterChoiceCriterionStrippedPointerReference,
use_dynamic,
entries,
true,
did_strip_ref,
did_strip_typedef);
}
// try to strip typedef chains
if (clang_type.IsTypedefType())
{
ClangASTType deffed_type = clang_type.GetTypedefedType();
GetPossibleMatches(valobj,
deffed_type,
reason | lldb_private::eFormatterChoiceCriterionNavigatedTypedefs,
use_dynamic,
entries,
did_strip_ptr,
did_strip_ref,
true);
}
if (root_level)
{
do {
if (!clang_type.IsValid())
break;
ClangASTType unqual_clang_ast_type = clang_type.GetFullyUnqualifiedType();
if (!unqual_clang_ast_type.IsValid())
break;
if (unqual_clang_ast_type.GetOpaqueQualType() != clang_type.GetOpaqueQualType())
GetPossibleMatches (valobj,
unqual_clang_ast_type,
reason,
use_dynamic,
entries,
did_strip_ptr,
did_strip_ref,
did_strip_typedef);
} while(false);
// if all else fails, go to static type
if (valobj.IsDynamic())
{
lldb::ValueObjectSP static_value_sp(valobj.GetStaticValue());
if (static_value_sp)
GetPossibleMatches(*static_value_sp.get(),
static_value_sp->GetClangType(),
reason | lldb_private::eFormatterChoiceCriterionWentToStaticValue,
use_dynamic,
entries,
did_strip_ptr,
did_strip_ref,
did_strip_typedef,
true);
}
}
}
lldb::TypeFormatImplSP
FormatManager::GetFormatForType (lldb::TypeNameSpecifierImplSP type_sp)
{
if (!type_sp)
return lldb::TypeFormatImplSP();
lldb::TypeFormatImplSP format_chosen_sp;
uint32_t num_categories = m_categories_map.GetCount();
lldb::TypeCategoryImplSP category_sp;
uint32_t prio_category = UINT32_MAX;
for (uint32_t category_id = 0;
category_id < num_categories;
category_id++)
{
category_sp = GetCategoryAtIndex(category_id);
if (category_sp->IsEnabled() == false)
continue;
lldb::TypeFormatImplSP format_current_sp = category_sp->GetFormatForType(type_sp);
if (format_current_sp && (format_chosen_sp.get() == NULL || (prio_category > category_sp->GetEnabledPosition())))
{
prio_category = category_sp->GetEnabledPosition();
format_chosen_sp = format_current_sp;
}
}
return format_chosen_sp;
}
lldb::TypeSummaryImplSP
FormatManager::GetSummaryForType (lldb::TypeNameSpecifierImplSP type_sp)
{
if (!type_sp)
return lldb::TypeSummaryImplSP();
lldb::TypeSummaryImplSP summary_chosen_sp;
uint32_t num_categories = m_categories_map.GetCount();
lldb::TypeCategoryImplSP category_sp;
uint32_t prio_category = UINT32_MAX;
for (uint32_t category_id = 0;
category_id < num_categories;
category_id++)
{
category_sp = GetCategoryAtIndex(category_id);
if (category_sp->IsEnabled() == false)
continue;
lldb::TypeSummaryImplSP summary_current_sp = category_sp->GetSummaryForType(type_sp);
if (summary_current_sp && (summary_chosen_sp.get() == NULL || (prio_category > category_sp->GetEnabledPosition())))
{
prio_category = category_sp->GetEnabledPosition();
summary_chosen_sp = summary_current_sp;
}
}
return summary_chosen_sp;
}
lldb::TypeFilterImplSP
FormatManager::GetFilterForType (lldb::TypeNameSpecifierImplSP type_sp)
{
if (!type_sp)
return lldb::TypeFilterImplSP();
lldb::TypeFilterImplSP filter_chosen_sp;
uint32_t num_categories = m_categories_map.GetCount();
lldb::TypeCategoryImplSP category_sp;
uint32_t prio_category = UINT32_MAX;
for (uint32_t category_id = 0;
category_id < num_categories;
category_id++)
{
category_sp = GetCategoryAtIndex(category_id);
if (category_sp->IsEnabled() == false)
continue;
lldb::TypeFilterImplSP filter_current_sp((TypeFilterImpl*)category_sp->GetFilterForType(type_sp).get());
if (filter_current_sp && (filter_chosen_sp.get() == NULL || (prio_category > category_sp->GetEnabledPosition())))
{
prio_category = category_sp->GetEnabledPosition();
filter_chosen_sp = filter_current_sp;
}
}
return filter_chosen_sp;
}
#ifndef LLDB_DISABLE_PYTHON
lldb::ScriptedSyntheticChildrenSP
FormatManager::GetSyntheticForType (lldb::TypeNameSpecifierImplSP type_sp)
{
if (!type_sp)
return lldb::ScriptedSyntheticChildrenSP();
lldb::ScriptedSyntheticChildrenSP synth_chosen_sp;
uint32_t num_categories = m_categories_map.GetCount();
lldb::TypeCategoryImplSP category_sp;
uint32_t prio_category = UINT32_MAX;
for (uint32_t category_id = 0;
category_id < num_categories;
category_id++)
{
category_sp = GetCategoryAtIndex(category_id);
if (category_sp->IsEnabled() == false)
continue;
lldb::ScriptedSyntheticChildrenSP synth_current_sp((ScriptedSyntheticChildren*)category_sp->GetSyntheticForType(type_sp).get());
if (synth_current_sp && (synth_chosen_sp.get() == NULL || (prio_category > category_sp->GetEnabledPosition())))
{
prio_category = category_sp->GetEnabledPosition();
synth_chosen_sp = synth_current_sp;
}
}
return synth_chosen_sp;
}
#endif
#ifndef LLDB_DISABLE_PYTHON
lldb::SyntheticChildrenSP
FormatManager::GetSyntheticChildrenForType (lldb::TypeNameSpecifierImplSP type_sp)
{
if (!type_sp)
return lldb::SyntheticChildrenSP();
lldb::TypeFilterImplSP filter_sp = GetFilterForType(type_sp);
lldb::ScriptedSyntheticChildrenSP synth_sp = GetSyntheticForType(type_sp);
if (filter_sp->GetRevision() > synth_sp->GetRevision())
return lldb::SyntheticChildrenSP(filter_sp.get());
else
return lldb::SyntheticChildrenSP(synth_sp.get());
}
#endif
lldb::TypeValidatorImplSP
FormatManager::GetValidatorForType (lldb::TypeNameSpecifierImplSP type_sp)
{
if (!type_sp)
return lldb::TypeValidatorImplSP();
lldb::TypeValidatorImplSP validator_chosen_sp;
uint32_t num_categories = m_categories_map.GetCount();
lldb::TypeCategoryImplSP category_sp;
uint32_t prio_category = UINT32_MAX;
for (uint32_t category_id = 0;
category_id < num_categories;
category_id++)
{
category_sp = GetCategoryAtIndex(category_id);
if (category_sp->IsEnabled() == false)
continue;
lldb::TypeValidatorImplSP validator_current_sp(category_sp->GetValidatorForType(type_sp).get());
if (validator_current_sp && (validator_chosen_sp.get() == NULL || (prio_category > category_sp->GetEnabledPosition())))
{
prio_category = category_sp->GetEnabledPosition();
validator_chosen_sp = validator_current_sp;
}
}
return validator_chosen_sp;
}
lldb::TypeCategoryImplSP
Redesign of the interaction between Python and frozen objects: - introduced two new classes ValueObjectConstResultChild and ValueObjectConstResultImpl: the first one is a ValueObjectChild obtained from a ValueObjectConstResult, the second is a common implementation backend for VOCR and VOCRCh of method calls meant to read through pointers stored in frozen objects ; now such reads transparently move from host to target as required - as a consequence of the above, removed code that made target-memory copies of expression results in several places throughout LLDB, and also removed code that enabled to recognize an expression result VO as such - introduced a new GetPointeeData() method in ValueObject that lets you read a given amount of objects of type T from a VO representing a T* or T[], and doing dereferences transparently in private layer it returns a DataExtractor ; in public layer it returns an instance of a newly created lldb::SBData - as GetPointeeData() does the right thing for both frozen and non-frozen ValueObject's, reimplemented ReadPointedString() to use it en lieu of doing the raw read itself - introduced a new GetData() method in ValueObject that lets you get a copy of the data that backs the ValueObject (for pointers, this returns the address without any previous dereferencing steps ; for arrays it actually reads the whole chunk of memory) in public layer this returns an SBData, just like GetPointeeData() - introduced a new CreateValueFromData() method in SBValue that lets you create a new SBValue from a chunk of data wrapped in an SBData the limitation to remember for this kind of SBValue is that they have no address: extracting the address-of for these objects (with any of GetAddress(), GetLoadAddress() and AddressOf()) will return invalid values - added several tests to check that "p"-ing objects (STL classes, char* and char[]) will do the right thing Solved a bug where global pointers to global variables were not dereferenced correctly for display New target setting "max-string-summary-length" gives the maximum number of characters to show in a string when summarizing it, instead of the hardcoded 128 Solved a bug where the summary for char[] and char* would not be shown if the ValueObject's were dumped via the "p" command Removed m_pointers_point_to_load_addrs from ValueObject. Introduced a new m_address_type_of_children, which each ValueObject can set to tell the address type of any pointers and/or references it creates. In the current codebase, this is load address most of the time (the only notable exception being file addresses that generate file address children UNLESS we have a live process) Updated help text for summary-string Fixed an issue in STL formatters where std::stlcontainer::iterator would match the container's synthetic children providers Edited the syntax and help for some commands to have proper argument types llvm-svn: 139160
2011-09-07 03:20:51 +08:00
FormatManager::GetCategory (const ConstString& category_name,
bool can_create)
{
if (!category_name)
Redesign of the interaction between Python and frozen objects: - introduced two new classes ValueObjectConstResultChild and ValueObjectConstResultImpl: the first one is a ValueObjectChild obtained from a ValueObjectConstResult, the second is a common implementation backend for VOCR and VOCRCh of method calls meant to read through pointers stored in frozen objects ; now such reads transparently move from host to target as required - as a consequence of the above, removed code that made target-memory copies of expression results in several places throughout LLDB, and also removed code that enabled to recognize an expression result VO as such - introduced a new GetPointeeData() method in ValueObject that lets you read a given amount of objects of type T from a VO representing a T* or T[], and doing dereferences transparently in private layer it returns a DataExtractor ; in public layer it returns an instance of a newly created lldb::SBData - as GetPointeeData() does the right thing for both frozen and non-frozen ValueObject's, reimplemented ReadPointedString() to use it en lieu of doing the raw read itself - introduced a new GetData() method in ValueObject that lets you get a copy of the data that backs the ValueObject (for pointers, this returns the address without any previous dereferencing steps ; for arrays it actually reads the whole chunk of memory) in public layer this returns an SBData, just like GetPointeeData() - introduced a new CreateValueFromData() method in SBValue that lets you create a new SBValue from a chunk of data wrapped in an SBData the limitation to remember for this kind of SBValue is that they have no address: extracting the address-of for these objects (with any of GetAddress(), GetLoadAddress() and AddressOf()) will return invalid values - added several tests to check that "p"-ing objects (STL classes, char* and char[]) will do the right thing Solved a bug where global pointers to global variables were not dereferenced correctly for display New target setting "max-string-summary-length" gives the maximum number of characters to show in a string when summarizing it, instead of the hardcoded 128 Solved a bug where the summary for char[] and char* would not be shown if the ValueObject's were dumped via the "p" command Removed m_pointers_point_to_load_addrs from ValueObject. Introduced a new m_address_type_of_children, which each ValueObject can set to tell the address type of any pointers and/or references it creates. In the current codebase, this is load address most of the time (the only notable exception being file addresses that generate file address children UNLESS we have a live process) Updated help text for summary-string Fixed an issue in STL formatters where std::stlcontainer::iterator would match the container's synthetic children providers Edited the syntax and help for some commands to have proper argument types llvm-svn: 139160
2011-09-07 03:20:51 +08:00
return GetCategory(m_default_category_name);
lldb::TypeCategoryImplSP category;
if (m_categories_map.Get(category_name, category))
return category;
if (!can_create)
return lldb::TypeCategoryImplSP();
m_categories_map.Add(category_name,lldb::TypeCategoryImplSP(new TypeCategoryImpl(this, category_name)));
Redesign of the interaction between Python and frozen objects: - introduced two new classes ValueObjectConstResultChild and ValueObjectConstResultImpl: the first one is a ValueObjectChild obtained from a ValueObjectConstResult, the second is a common implementation backend for VOCR and VOCRCh of method calls meant to read through pointers stored in frozen objects ; now such reads transparently move from host to target as required - as a consequence of the above, removed code that made target-memory copies of expression results in several places throughout LLDB, and also removed code that enabled to recognize an expression result VO as such - introduced a new GetPointeeData() method in ValueObject that lets you read a given amount of objects of type T from a VO representing a T* or T[], and doing dereferences transparently in private layer it returns a DataExtractor ; in public layer it returns an instance of a newly created lldb::SBData - as GetPointeeData() does the right thing for both frozen and non-frozen ValueObject's, reimplemented ReadPointedString() to use it en lieu of doing the raw read itself - introduced a new GetData() method in ValueObject that lets you get a copy of the data that backs the ValueObject (for pointers, this returns the address without any previous dereferencing steps ; for arrays it actually reads the whole chunk of memory) in public layer this returns an SBData, just like GetPointeeData() - introduced a new CreateValueFromData() method in SBValue that lets you create a new SBValue from a chunk of data wrapped in an SBData the limitation to remember for this kind of SBValue is that they have no address: extracting the address-of for these objects (with any of GetAddress(), GetLoadAddress() and AddressOf()) will return invalid values - added several tests to check that "p"-ing objects (STL classes, char* and char[]) will do the right thing Solved a bug where global pointers to global variables were not dereferenced correctly for display New target setting "max-string-summary-length" gives the maximum number of characters to show in a string when summarizing it, instead of the hardcoded 128 Solved a bug where the summary for char[] and char* would not be shown if the ValueObject's were dumped via the "p" command Removed m_pointers_point_to_load_addrs from ValueObject. Introduced a new m_address_type_of_children, which each ValueObject can set to tell the address type of any pointers and/or references it creates. In the current codebase, this is load address most of the time (the only notable exception being file addresses that generate file address children UNLESS we have a live process) Updated help text for summary-string Fixed an issue in STL formatters where std::stlcontainer::iterator would match the container's synthetic children providers Edited the syntax and help for some commands to have proper argument types llvm-svn: 139160
2011-09-07 03:20:51 +08:00
return GetCategory(category_name);
}
lldb::Format
FormatManager::GetSingleItemFormat(lldb::Format vector_format)
{
switch(vector_format)
{
case eFormatVectorOfChar:
return eFormatCharArray;
case eFormatVectorOfSInt8:
case eFormatVectorOfSInt16:
case eFormatVectorOfSInt32:
case eFormatVectorOfSInt64:
return eFormatDecimal;
case eFormatVectorOfUInt8:
case eFormatVectorOfUInt16:
case eFormatVectorOfUInt32:
case eFormatVectorOfUInt64:
case eFormatVectorOfUInt128:
return eFormatHex;
case eFormatVectorOfFloat32:
case eFormatVectorOfFloat64:
return eFormatFloat;
default:
return lldb::eFormatInvalid;
}
While tracking down memory consumption issue a few things were needed: the ability to dump more information about modules in "target modules list". We can now dump the shared pointer reference count for modules, the pointer to the module itself (in case performance tools can help track down who has references to said pointer), and the modification time. Added "target delete [target-idx ...]" to be able to delete targets when they are no longer needed. This will help track down memory usage issues and help to resolve when module ref counts keep getting incremented. If the command gets no arguments, the currently selected target will be deleted. If any arguments are given, they must all be valid target indexes (use the "target list" command to get the current target indexes). Took care of a bunch of "no newline at end of file" warnings. TimeValue objects can now dump their time to a lldb_private::Stream object. Modified the "target modules list --global" command to not error out if there are no targets since it doesn't require a target. Fixed an issue in the MacOSX DYLD dynamic loader plug-in where if a shared library was updated on disk, we would keep using the older one, even if it was updated. Don't allow the ModuleList::GetSharedModule(...) to return an empty module. Previously we could specify a valid path on disc to a module, and specify an architecture that wasn't contained in that module and get a shared pointer to a module that wouldn't be able to return an object file or a symbol file. We now make sure an object file can be extracted prior to adding the shared pointer to the module to get added to the shared list. llvm-svn: 137196
2011-08-10 10:10:13 +08:00
}
bool
FormatManager::ShouldPrintAsOneLiner (ValueObject& valobj)
{
// if settings say no oneline whatsoever
if (valobj.GetTargetSP().get() && valobj.GetTargetSP()->GetDebugger().GetAutoOneLineSummaries() == false)
return false; // then don't oneline
// if this object has a summary, then ask the summary
if (valobj.GetSummaryFormat().get() != nullptr)
return valobj.GetSummaryFormat()->IsOneLiner();
// no children, no party
if (valobj.GetNumChildren() == 0)
return false;
size_t total_children_name_len = 0;
for (size_t idx = 0;
idx < valobj.GetNumChildren();
idx++)
{
bool is_synth_val = false;
ValueObjectSP child_sp(valobj.GetChildAtIndex(idx, true));
// something is wrong here - bail out
if (!child_sp)
return false;
// if we decided to define synthetic children for a type, we probably care enough
// to show them, but avoid nesting children in children
if (child_sp->GetSyntheticChildren().get() != nullptr)
{
ValueObjectSP synth_sp(child_sp->GetSyntheticValue());
// wait.. wat? just get out of here..
if (!synth_sp)
return false;
// but if we only have them to provide a value, keep going
if (synth_sp->MightHaveChildren() == false && synth_sp->DoesProvideSyntheticValue())
is_synth_val = true;
else
return false;
}
total_children_name_len += child_sp->GetName().GetLength();
// 50 itself is a "randomly" chosen number - the idea is that
// overly long structs should not get this treatment
// FIXME: maybe make this a user-tweakable setting?
if (total_children_name_len > 50)
return false;
// if a summary is there..
if (child_sp->GetSummaryFormat())
{
// and it wants children, then bail out
if (child_sp->GetSummaryFormat()->DoesPrintChildren(child_sp.get()))
return false;
}
// if this child has children..
if (child_sp->GetNumChildren())
{
// ...and no summary...
// (if it had a summary and the summary wanted children, we would have bailed out anyway
// so this only makes us bail out if this has no summary and we would then print children)
if (!child_sp->GetSummaryFormat() && !is_synth_val) // but again only do that if not a synthetic valued child
return false; // then bail out
}
}
return true;
}
ConstString
FormatManager::GetValidTypeName (const ConstString& type)
{
return ::GetValidTypeName_Impl(type);
}
ConstString
GetTypeForCache (ValueObject& valobj,
lldb::DynamicValueType use_dynamic)
{
if (use_dynamic == lldb::eNoDynamicValues)
{
if (valobj.IsDynamic())
{
if (valobj.GetStaticValue())
return valobj.GetStaticValue()->GetQualifiedTypeName();
else
return ConstString();
}
else
return valobj.GetQualifiedTypeName();
}
if (valobj.IsDynamic())
return valobj.GetQualifiedTypeName();
if (valobj.GetDynamicValue(use_dynamic))
return valobj.GetDynamicValue(use_dynamic)->GetQualifiedTypeName();
return ConstString();
}
lldb::TypeFormatImplSP
FormatManager::GetHardcodedFormat (ValueObject& valobj,
lldb::DynamicValueType use_dynamic)
{
for (const auto& candidate: m_hardcoded_formats)
{
auto result = candidate(valobj,use_dynamic,*this);
if (result)
return result;
}
return nullptr;
}
lldb::TypeFormatImplSP
FormatManager::GetFormat (ValueObject& valobj,
lldb::DynamicValueType use_dynamic)
{
TypeFormatImplSP retval;
Log *log(lldb_private::GetLogIfAllCategoriesSet (LIBLLDB_LOG_TYPES));
ConstString valobj_type(GetTypeForCache(valobj, use_dynamic));
if (valobj_type)
{
if (log)
log->Printf("\n\n[FormatManager::GetFormat] Looking into cache for type %s", valobj_type.AsCString("<invalid>"));
if (m_format_cache.GetFormat(valobj_type,retval))
{
if (log)
{
log->Printf("[FormatManager::GetFormat] Cache search success. Returning.");
if (log->GetDebug())
log->Printf("[FormatManager::GetFormat] Cache hits: %" PRIu64 " - Cache Misses: %" PRIu64, m_format_cache.GetCacheHits(), m_format_cache.GetCacheMisses());
}
return retval;
}
if (log)
log->Printf("[FormatManager::GetFormat] Cache search failed. Going normal route");
}
retval = m_categories_map.GetFormat(valobj, use_dynamic);
if (!retval)
{
if (log)
log->Printf("[FormatManager::GetFormat] Search failed. Giving hardcoded a chance.");
retval = GetHardcodedFormat(valobj, use_dynamic);
}
else if (valobj_type)
{
if (log)
log->Printf("[FormatManager::GetFormat] Caching %p for type %s",
static_cast<void*>(retval.get()),
valobj_type.AsCString("<invalid>"));
m_format_cache.SetFormat(valobj_type,retval);
}
if (log && log->GetDebug())
log->Printf("[FormatManager::GetFormat] Cache hits: %" PRIu64 " - Cache Misses: %" PRIu64, m_format_cache.GetCacheHits(), m_format_cache.GetCacheMisses());
return retval;
}
lldb::TypeSummaryImplSP
FormatManager::GetHardcodedSummaryFormat (ValueObject& valobj,
lldb::DynamicValueType use_dynamic)
{
for (const auto& candidate: m_hardcoded_summaries)
{
auto result = candidate(valobj,use_dynamic,*this);
if (result)
return result;
}
return nullptr;
}
lldb::TypeSummaryImplSP
FormatManager::GetSummaryFormat (ValueObject& valobj,
lldb::DynamicValueType use_dynamic)
{
TypeSummaryImplSP retval;
Log *log(lldb_private::GetLogIfAllCategoriesSet (LIBLLDB_LOG_TYPES));
ConstString valobj_type(GetTypeForCache(valobj, use_dynamic));
if (valobj_type)
{
if (log)
log->Printf("\n\n[FormatManager::GetSummaryFormat] Looking into cache for type %s", valobj_type.AsCString("<invalid>"));
if (m_format_cache.GetSummary(valobj_type,retval))
{
if (log)
{
log->Printf("[FormatManager::GetSummaryFormat] Cache search success. Returning.");
if (log->GetDebug())
log->Printf("[FormatManager::GetSummaryFormat] Cache hits: %" PRIu64 " - Cache Misses: %" PRIu64, m_format_cache.GetCacheHits(), m_format_cache.GetCacheMisses());
}
return retval;
}
if (log)
log->Printf("[FormatManager::GetSummaryFormat] Cache search failed. Going normal route");
}
retval = m_categories_map.GetSummaryFormat(valobj, use_dynamic);
if (!retval)
{
if (log)
log->Printf("[FormatManager::GetSummaryFormat] Search failed. Giving hardcoded a chance.");
retval = GetHardcodedSummaryFormat(valobj, use_dynamic);
}
else if (valobj_type)
{
if (log)
log->Printf("[FormatManager::GetSummaryFormat] Caching %p for type %s",
static_cast<void*>(retval.get()),
valobj_type.AsCString("<invalid>"));
m_format_cache.SetSummary(valobj_type,retval);
}
if (log && log->GetDebug())
log->Printf("[FormatManager::GetSummaryFormat] Cache hits: %" PRIu64 " - Cache Misses: %" PRIu64, m_format_cache.GetCacheHits(), m_format_cache.GetCacheMisses());
return retval;
}
#ifndef LLDB_DISABLE_PYTHON
lldb::SyntheticChildrenSP
FormatManager::GetHardcodedSyntheticChildren (ValueObject& valobj,
lldb::DynamicValueType use_dynamic)
{
for (const auto& candidate: m_hardcoded_synthetics)
{
auto result = candidate(valobj,use_dynamic,*this);
if (result)
return result;
}
return nullptr;
}
lldb::SyntheticChildrenSP
FormatManager::GetSyntheticChildren (ValueObject& valobj,
lldb::DynamicValueType use_dynamic)
{
SyntheticChildrenSP retval;
Log *log(lldb_private::GetLogIfAllCategoriesSet (LIBLLDB_LOG_TYPES));
ConstString valobj_type(GetTypeForCache(valobj, use_dynamic));
if (valobj_type)
{
if (log)
log->Printf("\n\n[FormatManager::GetSyntheticChildren] Looking into cache for type %s", valobj_type.AsCString("<invalid>"));
if (m_format_cache.GetSynthetic(valobj_type,retval))
{
if (log)
{
log->Printf("[FormatManager::GetSyntheticChildren] Cache search success. Returning.");
if (log->GetDebug())
log->Printf("[FormatManager::GetSyntheticChildren] Cache hits: %" PRIu64 " - Cache Misses: %" PRIu64, m_format_cache.GetCacheHits(), m_format_cache.GetCacheMisses());
}
return retval;
}
if (log)
log->Printf("[FormatManager::GetSyntheticChildren] Cache search failed. Going normal route");
}
retval = m_categories_map.GetSyntheticChildren(valobj, use_dynamic);
if (!retval)
{
if (log)
log->Printf("[FormatManager::GetSyntheticChildren] Search failed. Giving hardcoded a chance.");
retval = GetHardcodedSyntheticChildren(valobj, use_dynamic);
}
else if (valobj_type)
{
if (log)
log->Printf("[FormatManager::GetSyntheticChildren] Caching %p for type %s",
static_cast<void*>(retval.get()),
valobj_type.AsCString("<invalid>"));
m_format_cache.SetSynthetic(valobj_type,retval);
}
if (log && log->GetDebug())
log->Printf("[FormatManager::GetSyntheticChildren] Cache hits: %" PRIu64 " - Cache Misses: %" PRIu64, m_format_cache.GetCacheHits(), m_format_cache.GetCacheMisses());
return retval;
}
#endif
lldb::TypeValidatorImplSP
FormatManager::GetValidator (ValueObject& valobj,
lldb::DynamicValueType use_dynamic)
{
TypeValidatorImplSP retval;
Log *log(lldb_private::GetLogIfAllCategoriesSet (LIBLLDB_LOG_TYPES));
ConstString valobj_type(GetTypeForCache(valobj, use_dynamic));
if (valobj_type)
{
if (log)
log->Printf("\n\n[FormatManager::GetValidator] Looking into cache for type %s", valobj_type.AsCString("<invalid>"));
if (m_format_cache.GetValidator(valobj_type,retval))
{
if (log)
{
log->Printf("[FormatManager::GetValidator] Cache search success. Returning.");
if (log->GetDebug())
log->Printf("[FormatManager::GetValidator] Cache hits: %" PRIu64 " - Cache Misses: %" PRIu64, m_format_cache.GetCacheHits(), m_format_cache.GetCacheMisses());
}
return retval;
}
if (log)
log->Printf("[FormatManager::GetValidator] Cache search failed. Going normal route");
}
retval = m_categories_map.GetValidator(valobj, use_dynamic);
if (!retval)
{
if (log)
log->Printf("[FormatManager::GetValidator] Search failed. Giving hardcoded a chance.");
retval = GetHardcodedValidator(valobj, use_dynamic);
}
else if (valobj_type)
{
if (log)
log->Printf("[FormatManager::GetValidator] Caching %p for type %s",
static_cast<void*>(retval.get()),
valobj_type.AsCString("<invalid>"));
m_format_cache.SetValidator(valobj_type,retval);
}
if (log && log->GetDebug())
log->Printf("[FormatManager::GetValidator] Cache hits: %" PRIu64 " - Cache Misses: %" PRIu64, m_format_cache.GetCacheHits(), m_format_cache.GetCacheMisses());
return retval;
}
lldb::TypeValidatorImplSP
FormatManager::GetHardcodedValidator (ValueObject& valobj,
lldb::DynamicValueType use_dynamic)
{
for (const auto& candidate: m_hardcoded_validators)
{
auto result = candidate(valobj,use_dynamic,*this);
if (result)
return result;
}
return nullptr;
}
FormatManager::FormatManager() :
m_format_cache(),
m_named_summaries_map(this),
m_last_revision(0),
m_categories_map(this),
m_default_category_name(ConstString("default")),
m_system_category_name(ConstString("system")),
m_gnu_cpp_category_name(ConstString("gnu-libstdc++")),
m_libcxx_category_name(ConstString("libcxx")),
m_objc_category_name(ConstString("objc")),
m_corefoundation_category_name(ConstString("CoreFoundation")),
m_coregraphics_category_name(ConstString("CoreGraphics")),
m_coreservices_category_name(ConstString("CoreServices")),
m_vectortypes_category_name(ConstString("VectorTypes")),
m_appkit_category_name(ConstString("AppKit")),
m_hardcoded_formats(),
m_hardcoded_summaries(),
m_hardcoded_synthetics(),
m_hardcoded_validators()
{
LoadSystemFormatters();
LoadLibStdcppFormatters();
LoadLibcxxFormatters();
LoadObjCFormatters();
LoadHardcodedFormatters();
EnableCategory(m_objc_category_name,TypeCategoryMap::Last);
EnableCategory(m_corefoundation_category_name,TypeCategoryMap::Last);
EnableCategory(m_appkit_category_name,TypeCategoryMap::Last);
EnableCategory(m_coreservices_category_name,TypeCategoryMap::Last);
EnableCategory(m_coregraphics_category_name,TypeCategoryMap::Last);
EnableCategory(m_gnu_cpp_category_name,TypeCategoryMap::Last);
EnableCategory(m_libcxx_category_name,TypeCategoryMap::Last);
EnableCategory(m_vectortypes_category_name,TypeCategoryMap::Last);
EnableCategory(m_system_category_name,TypeCategoryMap::Last);
}
static void
AddFormat (TypeCategoryImpl::SharedPointer category_sp,
lldb::Format format,
ConstString type_name,
TypeFormatImpl::Flags flags,
bool regex = false)
{
lldb::TypeFormatImplSP format_sp(new TypeFormatImpl_Format(format, flags));
if (regex)
category_sp->GetRegexTypeFormatsContainer()->Add(RegularExpressionSP(new RegularExpression(type_name.AsCString())),format_sp);
else
category_sp->GetTypeFormatsContainer()->Add(type_name, format_sp);
}
static void
AddStringSummary(TypeCategoryImpl::SharedPointer category_sp,
const char* string,
ConstString type_name,
TypeSummaryImpl::Flags flags,
bool regex = false)
{
lldb::TypeSummaryImplSP summary_sp(new StringSummaryFormat(flags,
string));
if (regex)
category_sp->GetRegexTypeSummariesContainer()->Add(RegularExpressionSP(new RegularExpression(type_name.AsCString())),summary_sp);
else
category_sp->GetTypeSummariesContainer()->Add(type_name, summary_sp);
}
#ifndef LLDB_DISABLE_PYTHON
static void
AddCXXSummary (TypeCategoryImpl::SharedPointer category_sp,
CXXFunctionSummaryFormat::Callback funct,
const char* description,
ConstString type_name,
TypeSummaryImpl::Flags flags,
bool regex = false)
{
lldb::TypeSummaryImplSP summary_sp(new CXXFunctionSummaryFormat(flags,funct,description));
if (regex)
category_sp->GetRegexTypeSummariesContainer()->Add(RegularExpressionSP(new RegularExpression(type_name.AsCString())),summary_sp);
else
category_sp->GetTypeSummariesContainer()->Add(type_name, summary_sp);
}
#endif
#ifndef LLDB_DISABLE_PYTHON
static void AddCXXSynthetic (TypeCategoryImpl::SharedPointer category_sp,
CXXSyntheticChildren::CreateFrontEndCallback generator,
const char* description,
ConstString type_name,
ScriptedSyntheticChildren::Flags flags,
bool regex = false)
{
lldb::SyntheticChildrenSP synth_sp(new CXXSyntheticChildren(flags,description,generator));
if (regex)
category_sp->GetRegexTypeSyntheticsContainer()->Add(RegularExpressionSP(new RegularExpression(type_name.AsCString())), synth_sp);
else
category_sp->GetTypeSyntheticsContainer()->Add(type_name,synth_sp);
}
#endif
#ifndef LLDB_DISABLE_PYTHON
static void AddFilter (TypeCategoryImpl::SharedPointer category_sp,
std::vector<std::string> children,
const char* description,
ConstString type_name,
ScriptedSyntheticChildren::Flags flags,
bool regex = false)
{
TypeFilterImplSP filter_sp(new TypeFilterImpl(flags));
for (auto child : children)
filter_sp->AddExpressionPath(child);
if (regex)
category_sp->GetRegexTypeFiltersContainer()->Add(RegularExpressionSP(new RegularExpression(type_name.AsCString())), filter_sp);
else
category_sp->GetTypeFiltersContainer()->Add(type_name,filter_sp);
}
#endif
void
FormatManager::LoadLibStdcppFormatters()
{
TypeSummaryImpl::Flags stl_summary_flags;
stl_summary_flags.SetCascades(true)
.SetSkipPointers(false)
.SetSkipReferences(false)
.SetDontShowChildren(true)
.SetDontShowValue(true)
.SetShowMembersOneLiner(false)
.SetHideItemNames(false);
lldb::TypeSummaryImplSP std_string_summary_sp(new StringSummaryFormat(stl_summary_flags,
"${var._M_dataplus._M_p}"));
Redesign of the interaction between Python and frozen objects: - introduced two new classes ValueObjectConstResultChild and ValueObjectConstResultImpl: the first one is a ValueObjectChild obtained from a ValueObjectConstResult, the second is a common implementation backend for VOCR and VOCRCh of method calls meant to read through pointers stored in frozen objects ; now such reads transparently move from host to target as required - as a consequence of the above, removed code that made target-memory copies of expression results in several places throughout LLDB, and also removed code that enabled to recognize an expression result VO as such - introduced a new GetPointeeData() method in ValueObject that lets you read a given amount of objects of type T from a VO representing a T* or T[], and doing dereferences transparently in private layer it returns a DataExtractor ; in public layer it returns an instance of a newly created lldb::SBData - as GetPointeeData() does the right thing for both frozen and non-frozen ValueObject's, reimplemented ReadPointedString() to use it en lieu of doing the raw read itself - introduced a new GetData() method in ValueObject that lets you get a copy of the data that backs the ValueObject (for pointers, this returns the address without any previous dereferencing steps ; for arrays it actually reads the whole chunk of memory) in public layer this returns an SBData, just like GetPointeeData() - introduced a new CreateValueFromData() method in SBValue that lets you create a new SBValue from a chunk of data wrapped in an SBData the limitation to remember for this kind of SBValue is that they have no address: extracting the address-of for these objects (with any of GetAddress(), GetLoadAddress() and AddressOf()) will return invalid values - added several tests to check that "p"-ing objects (STL classes, char* and char[]) will do the right thing Solved a bug where global pointers to global variables were not dereferenced correctly for display New target setting "max-string-summary-length" gives the maximum number of characters to show in a string when summarizing it, instead of the hardcoded 128 Solved a bug where the summary for char[] and char* would not be shown if the ValueObject's were dumped via the "p" command Removed m_pointers_point_to_load_addrs from ValueObject. Introduced a new m_address_type_of_children, which each ValueObject can set to tell the address type of any pointers and/or references it creates. In the current codebase, this is load address most of the time (the only notable exception being file addresses that generate file address children UNLESS we have a live process) Updated help text for summary-string Fixed an issue in STL formatters where std::stlcontainer::iterator would match the container's synthetic children providers Edited the syntax and help for some commands to have proper argument types llvm-svn: 139160
2011-09-07 03:20:51 +08:00
TypeCategoryImpl::SharedPointer gnu_category_sp = GetCategory(m_gnu_cpp_category_name);
Redesign of the interaction between Python and frozen objects: - introduced two new classes ValueObjectConstResultChild and ValueObjectConstResultImpl: the first one is a ValueObjectChild obtained from a ValueObjectConstResult, the second is a common implementation backend for VOCR and VOCRCh of method calls meant to read through pointers stored in frozen objects ; now such reads transparently move from host to target as required - as a consequence of the above, removed code that made target-memory copies of expression results in several places throughout LLDB, and also removed code that enabled to recognize an expression result VO as such - introduced a new GetPointeeData() method in ValueObject that lets you read a given amount of objects of type T from a VO representing a T* or T[], and doing dereferences transparently in private layer it returns a DataExtractor ; in public layer it returns an instance of a newly created lldb::SBData - as GetPointeeData() does the right thing for both frozen and non-frozen ValueObject's, reimplemented ReadPointedString() to use it en lieu of doing the raw read itself - introduced a new GetData() method in ValueObject that lets you get a copy of the data that backs the ValueObject (for pointers, this returns the address without any previous dereferencing steps ; for arrays it actually reads the whole chunk of memory) in public layer this returns an SBData, just like GetPointeeData() - introduced a new CreateValueFromData() method in SBValue that lets you create a new SBValue from a chunk of data wrapped in an SBData the limitation to remember for this kind of SBValue is that they have no address: extracting the address-of for these objects (with any of GetAddress(), GetLoadAddress() and AddressOf()) will return invalid values - added several tests to check that "p"-ing objects (STL classes, char* and char[]) will do the right thing Solved a bug where global pointers to global variables were not dereferenced correctly for display New target setting "max-string-summary-length" gives the maximum number of characters to show in a string when summarizing it, instead of the hardcoded 128 Solved a bug where the summary for char[] and char* would not be shown if the ValueObject's were dumped via the "p" command Removed m_pointers_point_to_load_addrs from ValueObject. Introduced a new m_address_type_of_children, which each ValueObject can set to tell the address type of any pointers and/or references it creates. In the current codebase, this is load address most of the time (the only notable exception being file addresses that generate file address children UNLESS we have a live process) Updated help text for summary-string Fixed an issue in STL formatters where std::stlcontainer::iterator would match the container's synthetic children providers Edited the syntax and help for some commands to have proper argument types llvm-svn: 139160
2011-09-07 03:20:51 +08:00
gnu_category_sp->GetTypeSummariesContainer()->Add(ConstString("std::string"),
Redesign of the interaction between Python and frozen objects: - introduced two new classes ValueObjectConstResultChild and ValueObjectConstResultImpl: the first one is a ValueObjectChild obtained from a ValueObjectConstResult, the second is a common implementation backend for VOCR and VOCRCh of method calls meant to read through pointers stored in frozen objects ; now such reads transparently move from host to target as required - as a consequence of the above, removed code that made target-memory copies of expression results in several places throughout LLDB, and also removed code that enabled to recognize an expression result VO as such - introduced a new GetPointeeData() method in ValueObject that lets you read a given amount of objects of type T from a VO representing a T* or T[], and doing dereferences transparently in private layer it returns a DataExtractor ; in public layer it returns an instance of a newly created lldb::SBData - as GetPointeeData() does the right thing for both frozen and non-frozen ValueObject's, reimplemented ReadPointedString() to use it en lieu of doing the raw read itself - introduced a new GetData() method in ValueObject that lets you get a copy of the data that backs the ValueObject (for pointers, this returns the address without any previous dereferencing steps ; for arrays it actually reads the whole chunk of memory) in public layer this returns an SBData, just like GetPointeeData() - introduced a new CreateValueFromData() method in SBValue that lets you create a new SBValue from a chunk of data wrapped in an SBData the limitation to remember for this kind of SBValue is that they have no address: extracting the address-of for these objects (with any of GetAddress(), GetLoadAddress() and AddressOf()) will return invalid values - added several tests to check that "p"-ing objects (STL classes, char* and char[]) will do the right thing Solved a bug where global pointers to global variables were not dereferenced correctly for display New target setting "max-string-summary-length" gives the maximum number of characters to show in a string when summarizing it, instead of the hardcoded 128 Solved a bug where the summary for char[] and char* would not be shown if the ValueObject's were dumped via the "p" command Removed m_pointers_point_to_load_addrs from ValueObject. Introduced a new m_address_type_of_children, which each ValueObject can set to tell the address type of any pointers and/or references it creates. In the current codebase, this is load address most of the time (the only notable exception being file addresses that generate file address children UNLESS we have a live process) Updated help text for summary-string Fixed an issue in STL formatters where std::stlcontainer::iterator would match the container's synthetic children providers Edited the syntax and help for some commands to have proper argument types llvm-svn: 139160
2011-09-07 03:20:51 +08:00
std_string_summary_sp);
gnu_category_sp->GetTypeSummariesContainer()->Add(ConstString("std::basic_string<char>"),
Redesign of the interaction between Python and frozen objects: - introduced two new classes ValueObjectConstResultChild and ValueObjectConstResultImpl: the first one is a ValueObjectChild obtained from a ValueObjectConstResult, the second is a common implementation backend for VOCR and VOCRCh of method calls meant to read through pointers stored in frozen objects ; now such reads transparently move from host to target as required - as a consequence of the above, removed code that made target-memory copies of expression results in several places throughout LLDB, and also removed code that enabled to recognize an expression result VO as such - introduced a new GetPointeeData() method in ValueObject that lets you read a given amount of objects of type T from a VO representing a T* or T[], and doing dereferences transparently in private layer it returns a DataExtractor ; in public layer it returns an instance of a newly created lldb::SBData - as GetPointeeData() does the right thing for both frozen and non-frozen ValueObject's, reimplemented ReadPointedString() to use it en lieu of doing the raw read itself - introduced a new GetData() method in ValueObject that lets you get a copy of the data that backs the ValueObject (for pointers, this returns the address without any previous dereferencing steps ; for arrays it actually reads the whole chunk of memory) in public layer this returns an SBData, just like GetPointeeData() - introduced a new CreateValueFromData() method in SBValue that lets you create a new SBValue from a chunk of data wrapped in an SBData the limitation to remember for this kind of SBValue is that they have no address: extracting the address-of for these objects (with any of GetAddress(), GetLoadAddress() and AddressOf()) will return invalid values - added several tests to check that "p"-ing objects (STL classes, char* and char[]) will do the right thing Solved a bug where global pointers to global variables were not dereferenced correctly for display New target setting "max-string-summary-length" gives the maximum number of characters to show in a string when summarizing it, instead of the hardcoded 128 Solved a bug where the summary for char[] and char* would not be shown if the ValueObject's were dumped via the "p" command Removed m_pointers_point_to_load_addrs from ValueObject. Introduced a new m_address_type_of_children, which each ValueObject can set to tell the address type of any pointers and/or references it creates. In the current codebase, this is load address most of the time (the only notable exception being file addresses that generate file address children UNLESS we have a live process) Updated help text for summary-string Fixed an issue in STL formatters where std::stlcontainer::iterator would match the container's synthetic children providers Edited the syntax and help for some commands to have proper argument types llvm-svn: 139160
2011-09-07 03:20:51 +08:00
std_string_summary_sp);
gnu_category_sp->GetTypeSummariesContainer()->Add(ConstString("std::basic_string<char,std::char_traits<char>,std::allocator<char> >"),
Redesign of the interaction between Python and frozen objects: - introduced two new classes ValueObjectConstResultChild and ValueObjectConstResultImpl: the first one is a ValueObjectChild obtained from a ValueObjectConstResult, the second is a common implementation backend for VOCR and VOCRCh of method calls meant to read through pointers stored in frozen objects ; now such reads transparently move from host to target as required - as a consequence of the above, removed code that made target-memory copies of expression results in several places throughout LLDB, and also removed code that enabled to recognize an expression result VO as such - introduced a new GetPointeeData() method in ValueObject that lets you read a given amount of objects of type T from a VO representing a T* or T[], and doing dereferences transparently in private layer it returns a DataExtractor ; in public layer it returns an instance of a newly created lldb::SBData - as GetPointeeData() does the right thing for both frozen and non-frozen ValueObject's, reimplemented ReadPointedString() to use it en lieu of doing the raw read itself - introduced a new GetData() method in ValueObject that lets you get a copy of the data that backs the ValueObject (for pointers, this returns the address without any previous dereferencing steps ; for arrays it actually reads the whole chunk of memory) in public layer this returns an SBData, just like GetPointeeData() - introduced a new CreateValueFromData() method in SBValue that lets you create a new SBValue from a chunk of data wrapped in an SBData the limitation to remember for this kind of SBValue is that they have no address: extracting the address-of for these objects (with any of GetAddress(), GetLoadAddress() and AddressOf()) will return invalid values - added several tests to check that "p"-ing objects (STL classes, char* and char[]) will do the right thing Solved a bug where global pointers to global variables were not dereferenced correctly for display New target setting "max-string-summary-length" gives the maximum number of characters to show in a string when summarizing it, instead of the hardcoded 128 Solved a bug where the summary for char[] and char* would not be shown if the ValueObject's were dumped via the "p" command Removed m_pointers_point_to_load_addrs from ValueObject. Introduced a new m_address_type_of_children, which each ValueObject can set to tell the address type of any pointers and/or references it creates. In the current codebase, this is load address most of the time (the only notable exception being file addresses that generate file address children UNLESS we have a live process) Updated help text for summary-string Fixed an issue in STL formatters where std::stlcontainer::iterator would match the container's synthetic children providers Edited the syntax and help for some commands to have proper argument types llvm-svn: 139160
2011-09-07 03:20:51 +08:00
std_string_summary_sp);
gnu_category_sp->GetTypeSummariesContainer()->Add(ConstString("std::basic_string<char, std::char_traits<char>, std::allocator<char> >"),
std_string_summary_sp);
// making sure we force-pick the summary for printing wstring (_M_p is a wchar_t*)
lldb::TypeSummaryImplSP std_wstring_summary_sp(new StringSummaryFormat(stl_summary_flags,
"${var._M_dataplus._M_p%S}"));
gnu_category_sp->GetTypeSummariesContainer()->Add(ConstString("std::wstring"),
std_wstring_summary_sp);
gnu_category_sp->GetTypeSummariesContainer()->Add(ConstString("std::basic_string<wchar_t>"),
std_wstring_summary_sp);
gnu_category_sp->GetTypeSummariesContainer()->Add(ConstString("std::basic_string<wchar_t,std::char_traits<wchar_t>,std::allocator<wchar_t> >"),
std_wstring_summary_sp);
gnu_category_sp->GetTypeSummariesContainer()->Add(ConstString("std::basic_string<wchar_t, std::char_traits<wchar_t>, std::allocator<wchar_t> >"),
std_wstring_summary_sp);
Redesign of the interaction between Python and frozen objects: - introduced two new classes ValueObjectConstResultChild and ValueObjectConstResultImpl: the first one is a ValueObjectChild obtained from a ValueObjectConstResult, the second is a common implementation backend for VOCR and VOCRCh of method calls meant to read through pointers stored in frozen objects ; now such reads transparently move from host to target as required - as a consequence of the above, removed code that made target-memory copies of expression results in several places throughout LLDB, and also removed code that enabled to recognize an expression result VO as such - introduced a new GetPointeeData() method in ValueObject that lets you read a given amount of objects of type T from a VO representing a T* or T[], and doing dereferences transparently in private layer it returns a DataExtractor ; in public layer it returns an instance of a newly created lldb::SBData - as GetPointeeData() does the right thing for both frozen and non-frozen ValueObject's, reimplemented ReadPointedString() to use it en lieu of doing the raw read itself - introduced a new GetData() method in ValueObject that lets you get a copy of the data that backs the ValueObject (for pointers, this returns the address without any previous dereferencing steps ; for arrays it actually reads the whole chunk of memory) in public layer this returns an SBData, just like GetPointeeData() - introduced a new CreateValueFromData() method in SBValue that lets you create a new SBValue from a chunk of data wrapped in an SBData the limitation to remember for this kind of SBValue is that they have no address: extracting the address-of for these objects (with any of GetAddress(), GetLoadAddress() and AddressOf()) will return invalid values - added several tests to check that "p"-ing objects (STL classes, char* and char[]) will do the right thing Solved a bug where global pointers to global variables were not dereferenced correctly for display New target setting "max-string-summary-length" gives the maximum number of characters to show in a string when summarizing it, instead of the hardcoded 128 Solved a bug where the summary for char[] and char* would not be shown if the ValueObject's were dumped via the "p" command Removed m_pointers_point_to_load_addrs from ValueObject. Introduced a new m_address_type_of_children, which each ValueObject can set to tell the address type of any pointers and/or references it creates. In the current codebase, this is load address most of the time (the only notable exception being file addresses that generate file address children UNLESS we have a live process) Updated help text for summary-string Fixed an issue in STL formatters where std::stlcontainer::iterator would match the container's synthetic children providers Edited the syntax and help for some commands to have proper argument types llvm-svn: 139160
2011-09-07 03:20:51 +08:00
#ifndef LLDB_DISABLE_PYTHON
SyntheticChildren::Flags stl_synth_flags;
stl_synth_flags.SetCascades(true).SetSkipPointers(false).SetSkipReferences(false);
gnu_category_sp->GetRegexTypeSyntheticsContainer()->Add(RegularExpressionSP(new RegularExpression("^std::vector<.+>(( )?&)?$")),
SyntheticChildrenSP(new ScriptedSyntheticChildren(stl_synth_flags,
"lldb.formatters.cpp.gnu_libstdcpp.StdVectorSynthProvider")));
gnu_category_sp->GetRegexTypeSyntheticsContainer()->Add(RegularExpressionSP(new RegularExpression("^std::map<.+> >(( )?&)?$")),
SyntheticChildrenSP(new ScriptedSyntheticChildren(stl_synth_flags,
"lldb.formatters.cpp.gnu_libstdcpp.StdMapSynthProvider")));
gnu_category_sp->GetRegexTypeSyntheticsContainer()->Add(RegularExpressionSP(new RegularExpression("^std::list<.+>(( )?&)?$")),
SyntheticChildrenSP(new ScriptedSyntheticChildren(stl_synth_flags,
"lldb.formatters.cpp.gnu_libstdcpp.StdListSynthProvider")));
stl_summary_flags.SetDontShowChildren(false);stl_summary_flags.SetSkipPointers(true);
gnu_category_sp->GetRegexTypeSummariesContainer()->Add(RegularExpressionSP(new RegularExpression("^std::vector<.+>(( )?&)?$")),
TypeSummaryImplSP(new StringSummaryFormat(stl_summary_flags,
"size=${svar%#}")));
gnu_category_sp->GetRegexTypeSummariesContainer()->Add(RegularExpressionSP(new RegularExpression("^std::map<.+> >(( )?&)?$")),
TypeSummaryImplSP(new StringSummaryFormat(stl_summary_flags,
"size=${svar%#}")));
gnu_category_sp->GetRegexTypeSummariesContainer()->Add(RegularExpressionSP(new RegularExpression("^std::list<.+>(( )?&)?$")),
TypeSummaryImplSP(new StringSummaryFormat(stl_summary_flags,
"size=${svar%#}")));
AddCXXSynthetic(gnu_category_sp, lldb_private::formatters::LibStdcppVectorIteratorSyntheticFrontEndCreator, "std::vector iterator synthetic children", ConstString("^__gnu_cxx::__normal_iterator<.+>$"), stl_synth_flags, true);
AddCXXSynthetic(gnu_category_sp, lldb_private::formatters::LibstdcppMapIteratorSyntheticFrontEndCreator, "std::map iterator synthetic children", ConstString("^std::_Rb_tree_iterator<.+>$"), stl_synth_flags, true);
#endif
}
void
FormatManager::LoadLibcxxFormatters()
{
TypeSummaryImpl::Flags stl_summary_flags;
stl_summary_flags.SetCascades(true)
.SetSkipPointers(false)
.SetSkipReferences(false)
.SetDontShowChildren(true)
.SetDontShowValue(true)
.SetShowMembersOneLiner(false)
.SetHideItemNames(false);
#ifndef LLDB_DISABLE_PYTHON
//std::string code(" lldb.formatters.cpp.libcxx.stdstring_SummaryProvider(valobj,internal_dict)");
//lldb::TypeSummaryImplSP std_string_summary_sp(new ScriptSummaryFormat(stl_summary_flags, "lldb.formatters.cpp.libcxx.stdstring_SummaryProvider",code.c_str()));
lldb::TypeSummaryImplSP std_string_summary_sp(new CXXFunctionSummaryFormat(stl_summary_flags, lldb_private::formatters::LibcxxStringSummaryProvider, "std::string summary provider"));
lldb::TypeSummaryImplSP std_wstring_summary_sp(new CXXFunctionSummaryFormat(stl_summary_flags, lldb_private::formatters::LibcxxWStringSummaryProvider, "std::wstring summary provider"));
TypeCategoryImpl::SharedPointer libcxx_category_sp = GetCategory(m_libcxx_category_name);
libcxx_category_sp->GetTypeSummariesContainer()->Add(ConstString("std::__1::string"),
std_string_summary_sp);
libcxx_category_sp->GetTypeSummariesContainer()->Add(ConstString("std::__1::basic_string<char, std::__1::char_traits<char>, std::__1::allocator<char> >"),
std_string_summary_sp);
libcxx_category_sp->GetTypeSummariesContainer()->Add(ConstString("std::__1::wstring"),
std_wstring_summary_sp);
libcxx_category_sp->GetTypeSummariesContainer()->Add(ConstString("std::__1::basic_string<wchar_t, std::__1::char_traits<wchar_t>, std::__1::allocator<wchar_t> >"),
std_wstring_summary_sp);
SyntheticChildren::Flags stl_synth_flags;
stl_synth_flags.SetCascades(true).SetSkipPointers(false).SetSkipReferences(false);
AddCXXSynthetic(libcxx_category_sp, lldb_private::formatters::LibcxxStdVectorSyntheticFrontEndCreator, "libc++ std::vector synthetic children", ConstString("^std::__1::vector<.+>(( )?&)?$"), stl_synth_flags, true);
AddCXXSynthetic(libcxx_category_sp, lldb_private::formatters::LibcxxStdListSyntheticFrontEndCreator, "libc++ std::list synthetic children", ConstString("^std::__1::list<.+>(( )?&)?$"), stl_synth_flags, true);
AddCXXSynthetic(libcxx_category_sp, lldb_private::formatters::LibcxxStdMapSyntheticFrontEndCreator, "libc++ std::map synthetic children", ConstString("^std::__1::map<.+> >(( )?&)?$"), stl_synth_flags, true);
AddCXXSynthetic(libcxx_category_sp, lldb_private::formatters::LibcxxVectorBoolSyntheticFrontEndCreator, "libc++ std::vector<bool> synthetic children", ConstString("std::__1::vector<std::__1::allocator<bool> >"), stl_synth_flags);
AddCXXSynthetic(libcxx_category_sp, lldb_private::formatters::LibcxxVectorBoolSyntheticFrontEndCreator, "libc++ std::vector<bool> synthetic children", ConstString("std::__1::vector<bool, std::__1::allocator<bool> >"), stl_synth_flags);
AddCXXSynthetic(libcxx_category_sp, lldb_private::formatters::LibcxxStdMapSyntheticFrontEndCreator, "libc++ std::set synthetic children", ConstString("^std::__1::set<.+> >(( )?&)?$"), stl_synth_flags, true);
AddCXXSynthetic(libcxx_category_sp, lldb_private::formatters::LibcxxStdMapSyntheticFrontEndCreator, "libc++ std::multiset synthetic children", ConstString("^std::__1::multiset<.+> >(( )?&)?$"), stl_synth_flags, true);
AddCXXSynthetic(libcxx_category_sp, lldb_private::formatters::LibcxxStdMapSyntheticFrontEndCreator, "libc++ std::multimap synthetic children", ConstString("^std::__1::multimap<.+> >(( )?&)?$"), stl_synth_flags, true);
AddCXXSynthetic(libcxx_category_sp, lldb_private::formatters::LibcxxStdUnorderedMapSyntheticFrontEndCreator, "libc++ std::unordered containers synthetic children", ConstString("^(std::__1::)unordered_(multi)?(map|set)<.+> >$"), stl_synth_flags, true);
AddCXXSynthetic(libcxx_category_sp, lldb_private::formatters::LibcxxInitializerListSyntheticFrontEndCreator, "libc++ std::initializer_list synthetic children", ConstString("^std::initializer_list<.+>(( )?&)?$"), stl_synth_flags, true);
libcxx_category_sp->GetRegexTypeSyntheticsContainer()->Add(RegularExpressionSP(new RegularExpression("^(std::__1::)deque<.+>(( )?&)?$")),
SyntheticChildrenSP(new ScriptedSyntheticChildren(stl_synth_flags,
"lldb.formatters.cpp.libcxx.stddeque_SynthProvider")));
AddCXXSynthetic(libcxx_category_sp, lldb_private::formatters::LibcxxSharedPtrSyntheticFrontEndCreator, "shared_ptr synthetic children", ConstString("^(std::__1::)shared_ptr<.+>(( )?&)?$"), stl_synth_flags, true);
AddCXXSynthetic(libcxx_category_sp, lldb_private::formatters::LibcxxSharedPtrSyntheticFrontEndCreator, "weak_ptr synthetic children", ConstString("^(std::__1::)weak_ptr<.+>(( )?&)?$"), stl_synth_flags, true);
stl_summary_flags.SetDontShowChildren(false);stl_summary_flags.SetSkipPointers(false);
AddCXXSynthetic(libcxx_category_sp, lldb_private::formatters::LibcxxVectorBoolSyntheticFrontEndCreator, "libc++ std::vector<bool> synthetic children", ConstString("std::__1::vector<bool, std::__1::allocator<bool> >"), stl_synth_flags);
AddCXXSummary(libcxx_category_sp, lldb_private::formatters::LibcxxContainerSummaryProvider, "libc++ std::vector summary provider", ConstString("^std::__1::vector<.+>(( )?&)?$"), stl_summary_flags, true);
AddCXXSummary(libcxx_category_sp, lldb_private::formatters::LibcxxContainerSummaryProvider, "libc++ std::list summary provider", ConstString("^std::__1::list<.+>(( )?&)?$"), stl_summary_flags, true);
AddCXXSummary(libcxx_category_sp, lldb_private::formatters::LibcxxContainerSummaryProvider, "libc++ std::map summary provider", ConstString("^std::__1::map<.+>(( )?&)?$"), stl_summary_flags, true);
AddCXXSummary(libcxx_category_sp, lldb_private::formatters::LibcxxContainerSummaryProvider, "libc++ std::deque summary provider", ConstString("^std::__1::deque<.+>(( )?&)?$"), stl_summary_flags, true);
AddCXXSummary(libcxx_category_sp, lldb_private::formatters::LibcxxContainerSummaryProvider, "libc++ std::vector<bool> summary provider", ConstString("std::__1::vector<std::__1::allocator<bool> >"), stl_summary_flags);
AddCXXSummary(libcxx_category_sp, lldb_private::formatters::LibcxxContainerSummaryProvider, "libc++ std::vector<bool> summary provider", ConstString("std::__1::vector<bool, std::__1::allocator<bool> >"), stl_summary_flags);
AddCXXSummary(libcxx_category_sp, lldb_private::formatters::LibcxxContainerSummaryProvider, "libc++ std::set summary provider", ConstString("^std::__1::set<.+>(( )?&)?$"), stl_summary_flags, true);
AddCXXSummary(libcxx_category_sp, lldb_private::formatters::LibcxxContainerSummaryProvider, "libc++ std::multiset summary provider", ConstString("^std::__1::multiset<.+>(( )?&)?$"), stl_summary_flags, true);
AddCXXSummary(libcxx_category_sp, lldb_private::formatters::LibcxxContainerSummaryProvider, "libc++ std::multimap summary provider", ConstString("^std::__1::multimap<.+>(( )?&)?$"), stl_summary_flags, true);
AddCXXSummary(libcxx_category_sp, lldb_private::formatters::LibcxxContainerSummaryProvider, "libc++ std::unordered containers summary provider", ConstString("^(std::__1::)unordered_(multi)?(map|set)<.+> >$"), stl_summary_flags, true);
stl_summary_flags.SetSkipPointers(true);
AddCXXSummary(libcxx_category_sp, lldb_private::formatters::LibcxxSmartPointerSummaryProvider, "libc++ std::shared_ptr summary provider", ConstString("^std::__1::shared_ptr<.+>(( )?&)?$"), stl_summary_flags, true);
AddCXXSummary(libcxx_category_sp, lldb_private::formatters::LibcxxSmartPointerSummaryProvider, "libc++ std::weak_ptr summary provider", ConstString("^std::__1::weak_ptr<.+>(( )?&)?$"), stl_summary_flags, true);
AddCXXSynthetic(libcxx_category_sp, lldb_private::formatters::LibCxxVectorIteratorSyntheticFrontEndCreator, "std::vector iterator synthetic children", ConstString("^std::__1::__wrap_iter<.+>$"), stl_synth_flags, true);
AddCXXSummary(libcxx_category_sp, lldb_private::formatters::LibcxxContainerSummaryProvider, "libc++ std::vector<bool> summary provider", ConstString("std::__1::vector<bool, std::__1::allocator<bool> >"), stl_summary_flags);
AddCXXSynthetic(libcxx_category_sp, lldb_private::formatters::LibCxxMapIteratorSyntheticFrontEndCreator, "std::map iterator synthetic children", ConstString("^std::__1::__map_iterator<.+>$"), stl_synth_flags, true);
AddFilter(libcxx_category_sp, {"__a_"}, "libc++ std::atomic filter", ConstString("^std::__1::atomic<.*>$"), stl_synth_flags, true);
#endif
}
void
FormatManager::LoadSystemFormatters()
{
TypeSummaryImpl::Flags string_flags;
string_flags.SetCascades(true)
.SetSkipPointers(true)
.SetSkipReferences(false)
.SetDontShowChildren(true)
.SetDontShowValue(false)
.SetShowMembersOneLiner(false)
.SetHideItemNames(false);
lldb::TypeSummaryImplSP string_format(new StringSummaryFormat(string_flags, "${var%s}"));
lldb::TypeSummaryImplSP string_array_format(new StringSummaryFormat(TypeSummaryImpl::Flags().SetCascades(false)
.SetSkipPointers(true)
.SetSkipReferences(false)
.SetDontShowChildren(true)
.SetDontShowValue(true)
.SetShowMembersOneLiner(false)
.SetHideItemNames(false),
"${var%s}"));
lldb::RegularExpressionSP any_size_char_arr(new RegularExpression("char \\[[0-9]+\\]"));
TypeCategoryImpl::SharedPointer sys_category_sp = GetCategory(m_system_category_name);
sys_category_sp->GetTypeSummariesContainer()->Add(ConstString("char *"), string_format);
sys_category_sp->GetTypeSummariesContainer()->Add(ConstString("unsigned char *"), string_format);
sys_category_sp->GetRegexTypeSummariesContainer()->Add(any_size_char_arr, string_array_format);
lldb::TypeSummaryImplSP ostype_summary(new StringSummaryFormat(TypeSummaryImpl::Flags().SetCascades(false)
.SetSkipPointers(true)
.SetSkipReferences(true)
.SetDontShowChildren(true)
.SetDontShowValue(false)
.SetShowMembersOneLiner(false)
.SetHideItemNames(false),
"${var%O}"));
sys_category_sp->GetTypeSummariesContainer()->Add(ConstString("OSType"), ostype_summary);
#ifndef LLDB_DISABLE_PYTHON
// FIXME because of a bug in the FormattersContainer we need to add a summary for both X* and const X* (<rdar://problem/12717717>)
AddCXXSummary(sys_category_sp, lldb_private::formatters::Char16StringSummaryProvider, "char16_t * summary provider", ConstString("char16_t *"), string_flags);
AddCXXSummary(sys_category_sp, lldb_private::formatters::Char32StringSummaryProvider, "char32_t * summary provider", ConstString("char32_t *"), string_flags);
AddCXXSummary(sys_category_sp, lldb_private::formatters::WCharStringSummaryProvider, "wchar_t * summary provider", ConstString("wchar_t *"), string_flags);
AddCXXSummary(sys_category_sp, lldb_private::formatters::Char16StringSummaryProvider, "unichar * summary provider", ConstString("unichar *"), string_flags);
TypeSummaryImpl::Flags widechar_flags;
widechar_flags.SetDontShowValue(true)
.SetSkipPointers(true)
.SetSkipReferences(false)
.SetCascades(true)
.SetDontShowChildren(true)
.SetHideItemNames(true)
.SetShowMembersOneLiner(false);
AddCXXSummary(sys_category_sp, lldb_private::formatters::Char16SummaryProvider, "char16_t summary provider", ConstString("char16_t"), widechar_flags);
AddCXXSummary(sys_category_sp, lldb_private::formatters::Char32SummaryProvider, "char32_t summary provider", ConstString("char32_t"), widechar_flags);
AddCXXSummary(sys_category_sp, lldb_private::formatters::WCharSummaryProvider, "wchar_t summary provider", ConstString("wchar_t"), widechar_flags);
AddCXXSummary(sys_category_sp, lldb_private::formatters::Char16SummaryProvider, "unichar summary provider", ConstString("unichar"), widechar_flags);
TypeFormatImpl::Flags fourchar_flags;
fourchar_flags.SetCascades(true).SetSkipPointers(true).SetSkipReferences(true);
AddFormat(sys_category_sp, lldb::eFormatOSType, ConstString("FourCharCode"), fourchar_flags);
#endif
}
void
FormatManager::LoadObjCFormatters()
{
TypeSummaryImpl::Flags objc_flags;
objc_flags.SetCascades(false)
.SetSkipPointers(true)
.SetSkipReferences(true)
.SetDontShowChildren(true)
.SetDontShowValue(true)
.SetShowMembersOneLiner(false)
.SetHideItemNames(false);
TypeCategoryImpl::SharedPointer objc_category_sp = GetCategory(m_objc_category_name);
lldb::TypeSummaryImplSP ObjC_BOOL_summary(new CXXFunctionSummaryFormat(objc_flags, lldb_private::formatters::ObjCBOOLSummaryProvider,""));
objc_category_sp->GetTypeSummariesContainer()->Add(ConstString("BOOL"),
ObjC_BOOL_summary);
objc_category_sp->GetTypeSummariesContainer()->Add(ConstString("BOOL &"),
ObjC_BOOL_summary);
objc_category_sp->GetTypeSummariesContainer()->Add(ConstString("BOOL *"),
ObjC_BOOL_summary);
#ifndef LLDB_DISABLE_PYTHON
// we need to skip pointers here since we are special casing a SEL* when retrieving its value
objc_flags.SetSkipPointers(true);
AddCXXSummary(objc_category_sp, lldb_private::formatters::ObjCSELSummaryProvider<false>, "SEL summary provider", ConstString("SEL"), objc_flags);
AddCXXSummary(objc_category_sp, lldb_private::formatters::ObjCSELSummaryProvider<false>, "SEL summary provider", ConstString("struct objc_selector"), objc_flags);
AddCXXSummary(objc_category_sp, lldb_private::formatters::ObjCSELSummaryProvider<false>, "SEL summary provider", ConstString("objc_selector"), objc_flags);
AddCXXSummary(objc_category_sp, lldb_private::formatters::ObjCSELSummaryProvider<true>, "SEL summary provider", ConstString("objc_selector *"), objc_flags);
AddCXXSummary(objc_category_sp, lldb_private::formatters::ObjCSELSummaryProvider<true>, "SEL summary provider", ConstString("SEL *"), objc_flags);
AddCXXSummary(objc_category_sp, lldb_private::formatters::ObjCClassSummaryProvider, "Class summary provider", ConstString("Class"), objc_flags);
SyntheticChildren::Flags class_synth_flags;
class_synth_flags.SetCascades(true).SetSkipPointers(false).SetSkipReferences(false);
AddCXXSynthetic(objc_category_sp, lldb_private::formatters::ObjCClassSyntheticFrontEndCreator, "Class synthetic children", ConstString("Class"), class_synth_flags);
#endif // LLDB_DISABLE_PYTHON
objc_flags.SetSkipPointers(false);
objc_flags.SetCascades(true);
objc_flags.SetSkipReferences(false);
AddStringSummary (objc_category_sp,
"${var.__FuncPtr%A}",
ConstString("__block_literal_generic"),
objc_flags);
TypeCategoryImpl::SharedPointer corefoundation_category_sp = GetCategory(m_corefoundation_category_name);
AddStringSummary(corefoundation_category_sp,
"${var.years} years, ${var.months} months, ${var.days} days, ${var.hours} hours, ${var.minutes} minutes ${var.seconds} seconds",
ConstString("CFGregorianUnits"),
objc_flags);
AddStringSummary(corefoundation_category_sp,
"location=${var.location} length=${var.length}",
ConstString("CFRange"),
objc_flags);
AddStringSummary(corefoundation_category_sp,
"(x=${var.x}, y=${var.y})",
ConstString("NSPoint"),
objc_flags);
AddStringSummary(corefoundation_category_sp,
"location=${var.location}, length=${var.length}",
ConstString("NSRange"),
objc_flags);
AddStringSummary(corefoundation_category_sp,
"${var.origin}, ${var.size}",
ConstString("NSRect"),
objc_flags);
AddStringSummary(corefoundation_category_sp,
"(${var.origin}, ${var.size}), ...",
ConstString("NSRectArray"),
objc_flags);
AddStringSummary(objc_category_sp,
"(width=${var.width}, height=${var.height})",
ConstString("NSSize"),
objc_flags);
TypeCategoryImpl::SharedPointer coregraphics_category_sp = GetCategory(m_coregraphics_category_name);
AddStringSummary(coregraphics_category_sp,
"(width=${var.width}, height=${var.height})",
ConstString("CGSize"),
objc_flags);
AddStringSummary(coregraphics_category_sp,
"(x=${var.x}, y=${var.y})",
ConstString("CGPoint"),
objc_flags);
AddStringSummary(coregraphics_category_sp,
"origin=${var.origin} size=${var.size}",
ConstString("CGRect"),
objc_flags);
TypeCategoryImpl::SharedPointer coreservices_category_sp = GetCategory(m_coreservices_category_name);
AddStringSummary(coreservices_category_sp,
"red=${var.red} green=${var.green} blue=${var.blue}",
ConstString("RGBColor"),
objc_flags);
AddStringSummary(coreservices_category_sp,
"(t=${var.top}, l=${var.left}, b=${var.bottom}, r=${var.right})",
ConstString("Rect"),
objc_flags);
AddStringSummary(coreservices_category_sp,
"(v=${var.v}, h=${var.h})",
ConstString("Point"),
objc_flags);
AddStringSummary(coreservices_category_sp,
"${var.month}/${var.day}/${var.year} ${var.hour} :${var.minute} :${var.second} dayOfWeek:${var.dayOfWeek}",
ConstString("DateTimeRect *"),
objc_flags);
AddStringSummary(coreservices_category_sp,
"${var.ld.month}/${var.ld.day}/${var.ld.year} ${var.ld.hour} :${var.ld.minute} :${var.ld.second} dayOfWeek:${var.ld.dayOfWeek}",
ConstString("LongDateRect"),
objc_flags);
AddStringSummary(coreservices_category_sp,
"(x=${var.x}, y=${var.y})",
ConstString("HIPoint"),
objc_flags);
AddStringSummary(coreservices_category_sp,
"origin=${var.origin} size=${var.size}",
ConstString("HIRect"),
objc_flags);
TypeCategoryImpl::SharedPointer appkit_category_sp = GetCategory(m_appkit_category_name);
TypeSummaryImpl::Flags appkit_flags;
appkit_flags.SetCascades(true)
.SetSkipPointers(false)
.SetSkipReferences(false)
.SetDontShowChildren(true)
.SetDontShowValue(false)
.SetShowMembersOneLiner(false)
.SetHideItemNames(false);
appkit_flags.SetDontShowChildren(false);
#ifndef LLDB_DISABLE_PYTHON
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSArraySummaryProvider, "NSArray summary provider", ConstString("NSArray"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSArraySummaryProvider, "NSArray summary provider", ConstString("NSMutableArray"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSArraySummaryProvider, "NSArray summary provider", ConstString("__NSArrayI"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSArraySummaryProvider, "NSArray summary provider", ConstString("__NSArrayM"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSArraySummaryProvider, "NSArray summary provider", ConstString("__NSCFArray"), appkit_flags);
AddCXXSummary(corefoundation_category_sp, lldb_private::formatters::NSArraySummaryProvider, "NSArray summary provider", ConstString("CFArrayRef"), appkit_flags);
AddCXXSummary(corefoundation_category_sp, lldb_private::formatters::NSArraySummaryProvider, "NSArray summary provider", ConstString("CFMutableArrayRef"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSDictionarySummaryProvider<false>, "NSDictionary summary provider", ConstString("NSDictionary"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSDictionarySummaryProvider<false>, "NSDictionary summary provider", ConstString("NSMutableDictionary"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSDictionarySummaryProvider<false>, "NSDictionary summary provider", ConstString("__NSCFDictionary"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSDictionarySummaryProvider<false>, "NSDictionary summary provider", ConstString("__NSDictionaryI"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSDictionarySummaryProvider<false>, "NSDictionary summary provider", ConstString("__NSDictionaryM"), appkit_flags);
AddCXXSummary(corefoundation_category_sp, lldb_private::formatters::NSDictionarySummaryProvider<true>, "NSDictionary summary provider", ConstString("CFDictionaryRef"), appkit_flags);
AddCXXSummary(corefoundation_category_sp, lldb_private::formatters::NSDictionarySummaryProvider<true>, "NSDictionary summary provider", ConstString("CFMutableDictionaryRef"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSSetSummaryProvider<false>, "NSSet summary", ConstString("NSSet"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSSetSummaryProvider<false>, "NSMutableSet summary", ConstString("NSMutableSet"), appkit_flags);
AddCXXSummary(corefoundation_category_sp, lldb_private::formatters::NSSetSummaryProvider<true>, "CFSetRef summary", ConstString("CFSetRef"), appkit_flags);
AddCXXSummary(corefoundation_category_sp, lldb_private::formatters::NSSetSummaryProvider<true>, "CFMutableSetRef summary", ConstString("CFMutableSetRef"), appkit_flags);
AddCXXSummary(corefoundation_category_sp, lldb_private::formatters::NSSetSummaryProvider<false>, "__NSCFSet summary", ConstString("__NSCFSet"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSSetSummaryProvider<false>, "__NSSetI summary", ConstString("__NSSetI"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSSetSummaryProvider<false>, "__NSSetM summary", ConstString("__NSSetM"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSSetSummaryProvider<false>, "NSCountedSet summary", ConstString("NSCountedSet"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSSetSummaryProvider<false>, "NSMutableSet summary", ConstString("NSMutableSet"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSSetSummaryProvider<false>, "NSOrderedSet summary", ConstString("NSOrderedSet"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSSetSummaryProvider<false>, "__NSOrderedSetI summary", ConstString("__NSOrderedSetI"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSSetSummaryProvider<false>, "__NSOrderedSetM summary", ConstString("__NSOrderedSetM"), appkit_flags);
// AddSummary(appkit_category_sp, "${var.key%@} -> ${var.value%@}", ConstString("$_lldb_typegen_nspair"), appkit_flags);
appkit_flags.SetDontShowChildren(true);
AddCXXSynthetic(appkit_category_sp, lldb_private::formatters::NSArraySyntheticFrontEndCreator, "NSArray synthetic children", ConstString("__NSArrayM"), ScriptedSyntheticChildren::Flags());
AddCXXSynthetic(appkit_category_sp, lldb_private::formatters::NSArraySyntheticFrontEndCreator, "NSArray synthetic children", ConstString("__NSArrayI"), ScriptedSyntheticChildren::Flags());
AddCXXSynthetic(appkit_category_sp, lldb_private::formatters::NSArraySyntheticFrontEndCreator, "NSArray synthetic children", ConstString("NSArray"), ScriptedSyntheticChildren::Flags());
AddCXXSynthetic(appkit_category_sp, lldb_private::formatters::NSArraySyntheticFrontEndCreator, "NSArray synthetic children", ConstString("NSMutableArray"), ScriptedSyntheticChildren::Flags());
AddCXXSynthetic(corefoundation_category_sp, lldb_private::formatters::NSArraySyntheticFrontEndCreator, "NSArray synthetic children", ConstString("__NSCFArray"), ScriptedSyntheticChildren::Flags());
AddCXXSynthetic(corefoundation_category_sp, lldb_private::formatters::NSArraySyntheticFrontEndCreator, "NSArray synthetic children", ConstString("CFMutableArrayRef"), ScriptedSyntheticChildren::Flags());
AddCXXSynthetic(corefoundation_category_sp, lldb_private::formatters::NSArraySyntheticFrontEndCreator, "NSArray synthetic children", ConstString("CFArrayRef"), ScriptedSyntheticChildren::Flags());
AddCXXSynthetic(appkit_category_sp, lldb_private::formatters::NSDictionarySyntheticFrontEndCreator, "NSDictionary synthetic children", ConstString("__NSDictionaryM"), ScriptedSyntheticChildren::Flags());
AddCXXSynthetic(appkit_category_sp, lldb_private::formatters::NSDictionarySyntheticFrontEndCreator, "NSDictionary synthetic children", ConstString("__NSDictionaryI"), ScriptedSyntheticChildren::Flags());
AddCXXSynthetic(appkit_category_sp, lldb_private::formatters::NSDictionarySyntheticFrontEndCreator, "NSDictionary synthetic children", ConstString("__NSCFDictionary"), ScriptedSyntheticChildren::Flags());
AddCXXSynthetic(appkit_category_sp, lldb_private::formatters::NSDictionarySyntheticFrontEndCreator, "NSDictionary synthetic children", ConstString("NSDictionary"), ScriptedSyntheticChildren::Flags());
AddCXXSynthetic(appkit_category_sp, lldb_private::formatters::NSDictionarySyntheticFrontEndCreator, "NSDictionary synthetic children", ConstString("NSMutableDictionary"), ScriptedSyntheticChildren::Flags());
AddCXXSynthetic(corefoundation_category_sp, lldb_private::formatters::NSDictionarySyntheticFrontEndCreator, "NSDictionary synthetic children", ConstString("CFDictionaryRef"), ScriptedSyntheticChildren::Flags());
AddCXXSynthetic(corefoundation_category_sp, lldb_private::formatters::NSDictionarySyntheticFrontEndCreator, "NSDictionary synthetic children", ConstString("CFMutableDictionaryRef"), ScriptedSyntheticChildren::Flags());
AddCXXSynthetic(appkit_category_sp, lldb_private::formatters::NSSetSyntheticFrontEndCreator, "NSSet synthetic children", ConstString("NSSet"), ScriptedSyntheticChildren::Flags());
AddCXXSynthetic(appkit_category_sp, lldb_private::formatters::NSSetSyntheticFrontEndCreator, "__NSSetI synthetic children", ConstString("__NSSetI"), ScriptedSyntheticChildren::Flags());
AddCXXSynthetic(appkit_category_sp, lldb_private::formatters::NSSetSyntheticFrontEndCreator, "__NSSetM synthetic children", ConstString("__NSSetM"), ScriptedSyntheticChildren::Flags());
AddCXXSynthetic(appkit_category_sp, lldb_private::formatters::NSSetSyntheticFrontEndCreator, "NSMutableSet synthetic children", ConstString("NSMutableSet"), ScriptedSyntheticChildren::Flags());
AddCXXSynthetic(appkit_category_sp, lldb_private::formatters::NSSetSyntheticFrontEndCreator, "NSOrderedSet synthetic children", ConstString("NSOrderedSet"), ScriptedSyntheticChildren::Flags());
AddCXXSynthetic(appkit_category_sp, lldb_private::formatters::NSSetSyntheticFrontEndCreator, "__NSOrderedSetI synthetic children", ConstString("__NSOrderedSetI"), ScriptedSyntheticChildren::Flags());
AddCXXSynthetic(appkit_category_sp, lldb_private::formatters::NSSetSyntheticFrontEndCreator, "__NSOrderedSetM synthetic children", ConstString("__NSOrderedSetM"), ScriptedSyntheticChildren::Flags());
AddCXXSynthetic(appkit_category_sp, lldb_private::formatters::NSIndexPathSyntheticFrontEndCreator, "NSIndexPath synthetic children", ConstString("NSIndexPath"), ScriptedSyntheticChildren::Flags());
AddCXXSummary(corefoundation_category_sp,lldb_private::formatters::CFBagSummaryProvider, "CFBag summary provider", ConstString("CFBagRef"), appkit_flags);
AddCXXSummary(corefoundation_category_sp,lldb_private::formatters::CFBagSummaryProvider, "CFBag summary provider", ConstString("__CFBag"), appkit_flags);
AddCXXSummary(corefoundation_category_sp,lldb_private::formatters::CFBagSummaryProvider, "CFBag summary provider", ConstString("const struct __CFBag"), appkit_flags);
AddCXXSummary(corefoundation_category_sp,lldb_private::formatters::CFBagSummaryProvider, "CFBag summary provider", ConstString("CFMutableBagRef"), appkit_flags);
AddCXXSummary(corefoundation_category_sp,lldb_private::formatters::CFBinaryHeapSummaryProvider, "CFBinaryHeap summary provider", ConstString("CFBinaryHeapRef"), appkit_flags);
AddCXXSummary(corefoundation_category_sp,lldb_private::formatters::CFBinaryHeapSummaryProvider, "CFBinaryHeap summary provider", ConstString("__CFBinaryHeap"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSStringSummaryProvider, "NSString summary provider", ConstString("NSString"), appkit_flags);
AddCXXSummary(corefoundation_category_sp, lldb_private::formatters::NSStringSummaryProvider, "NSString summary provider", ConstString("CFStringRef"), appkit_flags);
AddCXXSummary(corefoundation_category_sp, lldb_private::formatters::NSStringSummaryProvider, "NSString summary provider", ConstString("__CFString"), appkit_flags);
AddCXXSummary(corefoundation_category_sp, lldb_private::formatters::NSStringSummaryProvider, "NSString summary provider", ConstString("CFMutableStringRef"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSStringSummaryProvider, "NSString summary provider", ConstString("NSMutableString"), appkit_flags);
AddCXXSummary(corefoundation_category_sp, lldb_private::formatters::NSStringSummaryProvider, "NSString summary provider", ConstString("__NSCFConstantString"), appkit_flags);
AddCXXSummary(corefoundation_category_sp, lldb_private::formatters::NSStringSummaryProvider, "NSString summary provider", ConstString("__NSCFString"), appkit_flags);
AddCXXSummary(corefoundation_category_sp, lldb_private::formatters::NSStringSummaryProvider, "NSString summary provider", ConstString("NSCFConstantString"), appkit_flags);
AddCXXSummary(corefoundation_category_sp, lldb_private::formatters::NSStringSummaryProvider, "NSString summary provider", ConstString("NSCFString"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSStringSummaryProvider, "NSString summary provider", ConstString("NSPathStore2"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSAttributedStringSummaryProvider, "NSAttributedString summary provider", ConstString("NSAttributedString"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSMutableAttributedStringSummaryProvider, "NSMutableAttributedString summary provider", ConstString("NSMutableAttributedString"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSMutableAttributedStringSummaryProvider, "NSMutableAttributedString summary provider", ConstString("NSConcreteMutableAttributedString"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSBundleSummaryProvider, "NSBundle summary provider", ConstString("NSBundle"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSDataSummaryProvider<false>, "NSData summary provider", ConstString("NSData"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSDataSummaryProvider<false>, "NSData summary provider", ConstString("NSConcreteData"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSDataSummaryProvider<false>, "NSData summary provider", ConstString("NSConcreteMutableData"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSDataSummaryProvider<false>, "NSData summary provider", ConstString("NSMutableData"), appkit_flags);
AddCXXSummary(corefoundation_category_sp, lldb_private::formatters::NSDataSummaryProvider<false>, "NSData summary provider", ConstString("__NSCFData"), appkit_flags);
AddCXXSummary(corefoundation_category_sp, lldb_private::formatters::NSDataSummaryProvider<true>, "NSData summary provider", ConstString("CFDataRef"), appkit_flags);
AddCXXSummary(corefoundation_category_sp, lldb_private::formatters::NSDataSummaryProvider<true>, "NSData summary provider", ConstString("CFMutableDataRef"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSMachPortSummaryProvider, "NSMachPort summary provider", ConstString("NSMachPort"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSNotificationSummaryProvider, "NSNotification summary provider", ConstString("NSNotification"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSNotificationSummaryProvider, "NSNotification summary provider", ConstString("NSConcreteNotification"), appkit_flags);
AddStringSummary(appkit_category_sp, "domain: ${var._domain} - code: ${var._code}", ConstString("NSError"), appkit_flags);
AddStringSummary(appkit_category_sp,"name:${var.name%S} reason:${var.reason%S}",ConstString("NSException"),appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSNumberSummaryProvider, "NSNumber summary provider", ConstString("NSNumber"), appkit_flags);
AddCXXSummary(corefoundation_category_sp, lldb_private::formatters::NSNumberSummaryProvider, "CFNumberRef summary provider", ConstString("CFNumberRef"), appkit_flags);
AddCXXSummary(corefoundation_category_sp, lldb_private::formatters::NSNumberSummaryProvider, "NSNumber summary provider", ConstString("__NSCFBoolean"), appkit_flags);
AddCXXSummary(corefoundation_category_sp, lldb_private::formatters::NSNumberSummaryProvider, "NSNumber summary provider", ConstString("__NSCFNumber"), appkit_flags);
AddCXXSummary(corefoundation_category_sp, lldb_private::formatters::NSNumberSummaryProvider, "NSNumber summary provider", ConstString("NSCFBoolean"), appkit_flags);
AddCXXSummary(corefoundation_category_sp, lldb_private::formatters::NSNumberSummaryProvider, "NSNumber summary provider", ConstString("NSCFNumber"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::RuntimeSpecificDescriptionSummaryProvider, "NSDecimalNumber summary provider", ConstString("NSDecimalNumber"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::RuntimeSpecificDescriptionSummaryProvider, "NSHost summary provider", ConstString("NSHost"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::RuntimeSpecificDescriptionSummaryProvider, "NSTask summary provider", ConstString("NSTask"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::RuntimeSpecificDescriptionSummaryProvider, "NSValue summary provider", ConstString("NSValue"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSURLSummaryProvider, "NSURL summary provider", ConstString("NSURL"), appkit_flags);
AddCXXSummary(corefoundation_category_sp, lldb_private::formatters::NSURLSummaryProvider, "NSURL summary provider", ConstString("CFURLRef"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSDateSummaryProvider, "NSDate summary provider", ConstString("NSDate"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSDateSummaryProvider, "NSDate summary provider", ConstString("__NSDate"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSDateSummaryProvider, "NSDate summary provider", ConstString("__NSTaggedDate"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSDateSummaryProvider, "NSDate summary provider", ConstString("NSCalendarDate"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSTimeZoneSummaryProvider, "NSTimeZone summary provider", ConstString("NSTimeZone"), appkit_flags);
AddCXXSummary(corefoundation_category_sp, lldb_private::formatters::NSTimeZoneSummaryProvider, "NSTimeZone summary provider", ConstString("CFTimeZoneRef"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSTimeZoneSummaryProvider, "NSTimeZone summary provider", ConstString("__NSTimeZone"), appkit_flags);
// CFAbsoluteTime is actually a double rather than a pointer to an object
// we do not care about the numeric value, since it is probably meaningless to users
appkit_flags.SetDontShowValue(true);
AddCXXSummary(corefoundation_category_sp, lldb_private::formatters::CFAbsoluteTimeSummaryProvider, "CFAbsoluteTime summary provider", ConstString("CFAbsoluteTime"), appkit_flags);
appkit_flags.SetDontShowValue(false);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSIndexSetSummaryProvider, "NSIndexSet summary provider", ConstString("NSIndexSet"), appkit_flags);
AddCXXSummary(appkit_category_sp, lldb_private::formatters::NSIndexSetSummaryProvider, "NSIndexSet summary provider", ConstString("NSMutableIndexSet"), appkit_flags);
AddStringSummary(corefoundation_category_sp,
"@\"${var.month%d}/${var.day%d}/${var.year%d} ${var.hour%d}:${var.minute%d}:${var.second}\"",
ConstString("CFGregorianDate"),
appkit_flags);
AddCXXSummary(corefoundation_category_sp, lldb_private::formatters::CFBitVectorSummaryProvider, "CFBitVector summary provider", ConstString("CFBitVectorRef"), appkit_flags);
AddCXXSummary(corefoundation_category_sp, lldb_private::formatters::CFBitVectorSummaryProvider, "CFBitVector summary provider", ConstString("CFMutableBitVectorRef"), appkit_flags);
AddCXXSummary(corefoundation_category_sp, lldb_private::formatters::CFBitVectorSummaryProvider, "CFBitVector summary provider", ConstString("__CFBitVector"), appkit_flags);
AddCXXSummary(corefoundation_category_sp, lldb_private::formatters::CFBitVectorSummaryProvider, "CFBitVector summary provider", ConstString("__CFMutableBitVector"), appkit_flags);
#endif // LLDB_DISABLE_PYTHON
TypeCategoryImpl::SharedPointer vectors_category_sp = GetCategory(m_vectortypes_category_name);
TypeSummaryImpl::Flags vector_flags;
vector_flags.SetCascades(true)
.SetSkipPointers(true)
.SetSkipReferences(false)
.SetDontShowChildren(true)
.SetDontShowValue(false)
.SetShowMembersOneLiner(true)
.SetHideItemNames(true);
AddStringSummary(vectors_category_sp,
"${var.uint128}",
ConstString("builtin_type_vec128"),
objc_flags);
AddStringSummary(vectors_category_sp,
"",
ConstString("float [4]"),
vector_flags);
AddStringSummary(vectors_category_sp,
"",
ConstString("int32_t [4]"),
vector_flags);
AddStringSummary(vectors_category_sp,
"",
ConstString("int16_t [8]"),
vector_flags);
AddStringSummary(vectors_category_sp,
"",
ConstString("vDouble"),
vector_flags);
AddStringSummary(vectors_category_sp,
"",
ConstString("vFloat"),
vector_flags);
AddStringSummary(vectors_category_sp,
"",
ConstString("vSInt8"),
vector_flags);
AddStringSummary(vectors_category_sp,
"",
ConstString("vSInt16"),
vector_flags);
AddStringSummary(vectors_category_sp,
"",
ConstString("vSInt32"),
vector_flags);
AddStringSummary(vectors_category_sp,
"",
ConstString("vUInt16"),
vector_flags);
AddStringSummary(vectors_category_sp,
"",
ConstString("vUInt8"),
vector_flags);
AddStringSummary(vectors_category_sp,
"",
ConstString("vUInt16"),
vector_flags);
AddStringSummary(vectors_category_sp,
"",
ConstString("vUInt32"),
vector_flags);
AddStringSummary(vectors_category_sp,
"",
ConstString("vBool32"),
vector_flags);
}
void
FormatManager::LoadHardcodedFormatters()
{
{
// insert code to load formats here
}
{
// insert code to load summaries here
}
{
// insert code to load synthetics here
}
{
// insert code to load validators here
}
}