// Copyright (c) 2013 The Chromium Authors. All rights reserved. // Use of this source code is governed by a BSD-style license that can be // found in the LICENSE file. #include "gpu/config/gpu_control_list.h" #include "base/cpu.h" #include "base/json/json_reader.h" #include "base/logging.h" #include "base/strings/string_number_conversions.h" #include "base/strings/string_split.h" #include "base/strings/string_util.h" #include "base/strings/stringprintf.h" #include "base/sys_info.h" #include "gpu/config/gpu_info.h" #include "gpu/config/gpu_util.h" namespace gpu { namespace { // Break a version string into segments. Return true if each segment is // a valid number. bool ProcessVersionString(const std::string& version_string, char splitter, std::vector* version) { DCHECK(version); base::SplitString(version_string, splitter, version); if (version->size() == 0) return false; // If the splitter is '-', we assume it's a date with format "mm-dd-yyyy"; // we split it into the order of "yyyy", "mm", "dd". if (splitter == '-') { std::string year = (*version)[version->size() - 1]; for (int i = version->size() - 1; i > 0; --i) { (*version)[i] = (*version)[i - 1]; } (*version)[0] = year; } for (size_t i = 0; i < version->size(); ++i) { unsigned num = 0; if (!base::StringToUint((*version)[i], &num)) return false; } return true; } // Compare two number strings using numerical ordering. // Return 0 if number = number_ref, // 1 if number > number_ref, // -1 if number < number_ref. int CompareNumericalNumberStrings( const std::string& number, const std::string& number_ref) { unsigned value1 = 0; unsigned value2 = 0; bool valid = base::StringToUint(number, &value1); DCHECK(valid); valid = base::StringToUint(number_ref, &value2); DCHECK(valid); if (value1 == value2) return 0; if (value1 > value2) return 1; return -1; } // Compare two number strings using lexical ordering. // Return 0 if number = number_ref, // 1 if number > number_ref, // -1 if number < number_ref. // We only compare as many digits as number_ref contains. // If number_ref is xxx, it's considered as xxx* // For example: CompareLexicalNumberStrings("121", "12") returns 0, // CompareLexicalNumberStrings("12", "121") returns -1. int CompareLexicalNumberStrings( const std::string& number, const std::string& number_ref) { for (size_t i = 0; i < number_ref.length(); ++i) { unsigned value1 = 0; if (i < number.length()) value1 = number[i] - '0'; unsigned value2 = number_ref[i] - '0'; if (value1 > value2) return 1; if (value1 < value2) return -1; } return 0; } bool GpuUnmatched(uint32 vendor_id, const std::vector& device_id_list, const GPUInfo::GPUDevice& gpu) { if (vendor_id == 0) return false; if (vendor_id != gpu.vendor_id) return true; bool device_specified = false; for (size_t i = 0; i < device_id_list.size(); ++i) { if (device_id_list[i] == 0) continue; if (device_id_list[i] == gpu.device_id) return false; device_specified = true; } return device_specified; } const char kMultiGpuStyleStringAMDSwitchable[] = "amd_switchable"; const char kMultiGpuStyleStringOptimus[] = "optimus"; const char kMultiGpuCategoryStringPrimary[] = "primary"; const char kMultiGpuCategoryStringSecondary[] = "secondary"; const char kMultiGpuCategoryStringAny[] = "any"; const char kVersionStyleStringNumerical[] = "numerical"; const char kVersionStyleStringLexical[] = "lexical"; const char kOp[] = "op"; } // namespace anonymous GpuControlList::VersionInfo::VersionInfo( const std::string& version_op, const std::string& version_style, const std::string& version_string, const std::string& version_string2) : version_style_(kVersionStyleNumerical) { op_ = StringToNumericOp(version_op); if (op_ == kUnknown || op_ == kAny) return; version_style_ = StringToVersionStyle(version_style); if (!ProcessVersionString(version_string, '.', &version_)) { op_ = kUnknown; return; } if (op_ == kBetween) { if (!ProcessVersionString(version_string2, '.', &version2_)) op_ = kUnknown; } } GpuControlList::VersionInfo::~VersionInfo() { } bool GpuControlList::VersionInfo::Contains( const std::string& version_string) const { return Contains(version_string, '.'); } bool GpuControlList::VersionInfo::Contains( const std::string& version_string, char splitter) const { if (op_ == kUnknown) return false; if (op_ == kAny) return true; std::vector version; if (!ProcessVersionString(version_string, splitter, &version)) return false; int relation = Compare(version, version_, version_style_); if (op_ == kEQ) return (relation == 0); else if (op_ == kLT) return (relation < 0); else if (op_ == kLE) return (relation <= 0); else if (op_ == kGT) return (relation > 0); else if (op_ == kGE) return (relation >= 0); // op_ == kBetween if (relation < 0) return false; return Compare(version, version2_, version_style_) <= 0; } bool GpuControlList::VersionInfo::IsValid() const { return (op_ != kUnknown && version_style_ != kVersionStyleUnknown); } bool GpuControlList::VersionInfo::IsLexical() const { return version_style_ == kVersionStyleLexical; } // static int GpuControlList::VersionInfo::Compare( const std::vector& version, const std::vector& version_ref, VersionStyle version_style) { DCHECK(version.size() > 0 && version_ref.size() > 0); DCHECK(version_style != kVersionStyleUnknown); for (size_t i = 0; i < version_ref.size(); ++i) { if (i >= version.size()) return 0; int ret = 0; // We assume both versions are checked by ProcessVersionString(). if (i > 0 && version_style == kVersionStyleLexical) ret = CompareLexicalNumberStrings(version[i], version_ref[i]); else ret = CompareNumericalNumberStrings(version[i], version_ref[i]); if (ret != 0) return ret; } return 0; } // static GpuControlList::VersionInfo::VersionStyle GpuControlList::VersionInfo::StringToVersionStyle( const std::string& version_style) { if (version_style.empty() || version_style == kVersionStyleStringNumerical) return kVersionStyleNumerical; if (version_style == kVersionStyleStringLexical) return kVersionStyleLexical; return kVersionStyleUnknown; } GpuControlList::OsInfo::OsInfo(const std::string& os, const std::string& version_op, const std::string& version_string, const std::string& version_string2) { type_ = StringToOsType(os); if (type_ != kOsUnknown) { version_info_.reset(new VersionInfo( version_op, std::string(), version_string, version_string2)); } } GpuControlList::OsInfo::~OsInfo() {} bool GpuControlList::OsInfo::Contains(OsType type, const std::string& version) const { if (!IsValid()) return false; if (type_ != type && type_ != kOsAny) return false; return version_info_->Contains(version); } bool GpuControlList::OsInfo::IsValid() const { return type_ != kOsUnknown && version_info_->IsValid(); } GpuControlList::OsType GpuControlList::OsInfo::type() const { return type_; } GpuControlList::OsType GpuControlList::OsInfo::StringToOsType( const std::string& os) { if (os == "win") return kOsWin; else if (os == "macosx") return kOsMacosx; else if (os == "android") return kOsAndroid; else if (os == "linux") return kOsLinux; else if (os == "chromeos") return kOsChromeOS; else if (os == "any") return kOsAny; return kOsUnknown; } GpuControlList::MachineModelInfo::MachineModelInfo( const std::string& name_op, const std::string& name_value, const std::string& version_op, const std::string& version_string, const std::string& version_string2) { name_info_.reset(new StringInfo(name_op, name_value)); version_info_.reset(new VersionInfo( version_op, std::string(), version_string, version_string2)); } GpuControlList::MachineModelInfo::~MachineModelInfo() {} bool GpuControlList::MachineModelInfo::Contains( const std::string& name, const std::string& version) const { if (!IsValid()) return false; if (!name_info_->Contains(name)) return false; return version_info_->Contains(version); } bool GpuControlList::MachineModelInfo::IsValid() const { return name_info_->IsValid() && version_info_->IsValid(); } GpuControlList::StringInfo::StringInfo(const std::string& string_op, const std::string& string_value) { op_ = StringToOp(string_op); value_ = StringToLowerASCII(string_value); } bool GpuControlList::StringInfo::Contains(const std::string& value) const { std::string my_value = StringToLowerASCII(value); switch (op_) { case kContains: return strstr(my_value.c_str(), value_.c_str()) != NULL; case kBeginWith: return StartsWithASCII(my_value, value_, false); case kEndWith: return EndsWith(my_value, value_, false); case kEQ: return value_ == my_value; default: return false; } } bool GpuControlList::StringInfo::IsValid() const { return op_ != kUnknown; } GpuControlList::StringInfo::Op GpuControlList::StringInfo::StringToOp( const std::string& string_op) { if (string_op == "=") return kEQ; else if (string_op == "contains") return kContains; else if (string_op == "beginwith") return kBeginWith; else if (string_op == "endwith") return kEndWith; return kUnknown; } GpuControlList::FloatInfo::FloatInfo(const std::string& float_op, const std::string& float_value, const std::string& float_value2) : op_(kUnknown), value_(0.f), value2_(0.f) { op_ = StringToNumericOp(float_op); if (op_ == kAny) return; double dvalue = 0; if (!base::StringToDouble(float_value, &dvalue)) { op_ = kUnknown; return; } value_ = static_cast(dvalue); if (op_ == kBetween) { if (!base::StringToDouble(float_value2, &dvalue)) { op_ = kUnknown; return; } value2_ = static_cast(dvalue); } } bool GpuControlList::FloatInfo::Contains(float value) const { if (op_ == kUnknown) return false; if (op_ == kAny) return true; if (op_ == kEQ) return (value == value_); if (op_ == kLT) return (value < value_); if (op_ == kLE) return (value <= value_); if (op_ == kGT) return (value > value_); if (op_ == kGE) return (value >= value_); DCHECK(op_ == kBetween); return ((value_ <= value && value <= value2_) || (value2_ <= value && value <= value_)); } bool GpuControlList::FloatInfo::IsValid() const { return op_ != kUnknown; } GpuControlList::IntInfo::IntInfo(const std::string& int_op, const std::string& int_value, const std::string& int_value2) : op_(kUnknown), value_(0), value2_(0) { op_ = StringToNumericOp(int_op); if (op_ == kAny) return; if (!base::StringToInt(int_value, &value_)) { op_ = kUnknown; return; } if (op_ == kBetween && !base::StringToInt(int_value2, &value2_)) op_ = kUnknown; } bool GpuControlList::IntInfo::Contains(int value) const { if (op_ == kUnknown) return false; if (op_ == kAny) return true; if (op_ == kEQ) return (value == value_); if (op_ == kLT) return (value < value_); if (op_ == kLE) return (value <= value_); if (op_ == kGT) return (value > value_); if (op_ == kGE) return (value >= value_); DCHECK(op_ == kBetween); return ((value_ <= value && value <= value2_) || (value2_ <= value && value <= value_)); } bool GpuControlList::IntInfo::IsValid() const { return op_ != kUnknown; } // static GpuControlList::ScopedGpuControlListEntry GpuControlList::GpuControlListEntry::GetEntryFromValue( const base::DictionaryValue* value, bool top_level, const FeatureMap& feature_map, bool supports_feature_type_all) { DCHECK(value); ScopedGpuControlListEntry entry(new GpuControlListEntry()); size_t dictionary_entry_count = 0; if (top_level) { uint32 id; if (!value->GetInteger("id", reinterpret_cast(&id)) || !entry->SetId(id)) { LOG(WARNING) << "Malformed id entry " << entry->id(); return NULL; } dictionary_entry_count++; bool disabled; if (value->GetBoolean("disabled", &disabled)) { entry->SetDisabled(disabled); dictionary_entry_count++; } } std::string description; if (value->GetString("description", &description)) { entry->description_ = description; dictionary_entry_count++; } else { entry->description_ = "The GPU is unavailable for an unexplained reason."; } const base::ListValue* cr_bugs; if (value->GetList("cr_bugs", &cr_bugs)) { for (size_t i = 0; i < cr_bugs->GetSize(); ++i) { int bug_id; if (cr_bugs->GetInteger(i, &bug_id)) { entry->cr_bugs_.push_back(bug_id); } else { LOG(WARNING) << "Malformed cr_bugs entry " << entry->id(); return NULL; } } dictionary_entry_count++; } const base::ListValue* webkit_bugs; if (value->GetList("webkit_bugs", &webkit_bugs)) { for (size_t i = 0; i < webkit_bugs->GetSize(); ++i) { int bug_id; if (webkit_bugs->GetInteger(i, &bug_id)) { entry->webkit_bugs_.push_back(bug_id); } else { LOG(WARNING) << "Malformed webkit_bugs entry " << entry->id(); return NULL; } } dictionary_entry_count++; } const base::DictionaryValue* os_value = NULL; if (value->GetDictionary("os", &os_value)) { std::string os_type; std::string os_version_op = "any"; std::string os_version_string; std::string os_version_string2; os_value->GetString("type", &os_type); const base::DictionaryValue* os_version_value = NULL; if (os_value->GetDictionary("version", &os_version_value)) { os_version_value->GetString(kOp, &os_version_op); os_version_value->GetString("value", &os_version_string); os_version_value->GetString("value2", &os_version_string2); } if (!entry->SetOsInfo(os_type, os_version_op, os_version_string, os_version_string2)) { LOG(WARNING) << "Malformed os entry " << entry->id(); return NULL; } dictionary_entry_count++; } std::string vendor_id; if (value->GetString("vendor_id", &vendor_id)) { if (!entry->SetVendorId(vendor_id)) { LOG(WARNING) << "Malformed vendor_id entry " << entry->id(); return NULL; } dictionary_entry_count++; } const base::ListValue* device_id_list; if (value->GetList("device_id", &device_id_list)) { for (size_t i = 0; i < device_id_list->GetSize(); ++i) { std::string device_id; if (!device_id_list->GetString(i, &device_id) || !entry->AddDeviceId(device_id)) { LOG(WARNING) << "Malformed device_id entry " << entry->id(); return NULL; } } dictionary_entry_count++; } std::string multi_gpu_style; if (value->GetString("multi_gpu_style", &multi_gpu_style)) { if (!entry->SetMultiGpuStyle(multi_gpu_style)) { LOG(WARNING) << "Malformed multi_gpu_style entry " << entry->id(); return NULL; } dictionary_entry_count++; } std::string multi_gpu_category; if (value->GetString("multi_gpu_category", &multi_gpu_category)) { if (!entry->SetMultiGpuCategory(multi_gpu_category)) { LOG(WARNING) << "Malformed multi_gpu_category entry " << entry->id(); return NULL; } dictionary_entry_count++; } const base::DictionaryValue* driver_vendor_value = NULL; if (value->GetDictionary("driver_vendor", &driver_vendor_value)) { std::string vendor_op; std::string vendor_value; driver_vendor_value->GetString(kOp, &vendor_op); driver_vendor_value->GetString("value", &vendor_value); if (!entry->SetDriverVendorInfo(vendor_op, vendor_value)) { LOG(WARNING) << "Malformed driver_vendor entry " << entry->id(); return NULL; } dictionary_entry_count++; } const base::DictionaryValue* driver_version_value = NULL; if (value->GetDictionary("driver_version", &driver_version_value)) { std::string driver_version_op = "any"; std::string driver_version_style; std::string driver_version_string; std::string driver_version_string2; driver_version_value->GetString(kOp, &driver_version_op); driver_version_value->GetString("style", &driver_version_style); driver_version_value->GetString("value", &driver_version_string); driver_version_value->GetString("value2", &driver_version_string2); if (!entry->SetDriverVersionInfo(driver_version_op, driver_version_style, driver_version_string, driver_version_string2)) { LOG(WARNING) << "Malformed driver_version entry " << entry->id(); return NULL; } dictionary_entry_count++; } const base::DictionaryValue* driver_date_value = NULL; if (value->GetDictionary("driver_date", &driver_date_value)) { std::string driver_date_op = "any"; std::string driver_date_string; std::string driver_date_string2; driver_date_value->GetString(kOp, &driver_date_op); driver_date_value->GetString("value", &driver_date_string); driver_date_value->GetString("value2", &driver_date_string2); if (!entry->SetDriverDateInfo(driver_date_op, driver_date_string, driver_date_string2)) { LOG(WARNING) << "Malformed driver_date entry " << entry->id(); return NULL; } dictionary_entry_count++; } const base::DictionaryValue* gl_vendor_value = NULL; if (value->GetDictionary("gl_vendor", &gl_vendor_value)) { std::string vendor_op; std::string vendor_value; gl_vendor_value->GetString(kOp, &vendor_op); gl_vendor_value->GetString("value", &vendor_value); if (!entry->SetGLVendorInfo(vendor_op, vendor_value)) { LOG(WARNING) << "Malformed gl_vendor entry " << entry->id(); return NULL; } dictionary_entry_count++; } const base::DictionaryValue* gl_renderer_value = NULL; if (value->GetDictionary("gl_renderer", &gl_renderer_value)) { std::string renderer_op; std::string renderer_value; gl_renderer_value->GetString(kOp, &renderer_op); gl_renderer_value->GetString("value", &renderer_value); if (!entry->SetGLRendererInfo(renderer_op, renderer_value)) { LOG(WARNING) << "Malformed gl_renderer entry " << entry->id(); return NULL; } dictionary_entry_count++; } const base::DictionaryValue* gl_extensions_value = NULL; if (value->GetDictionary("gl_extensions", &gl_extensions_value)) { std::string extensions_op; std::string extensions_value; gl_extensions_value->GetString(kOp, &extensions_op); gl_extensions_value->GetString("value", &extensions_value); if (!entry->SetGLExtensionsInfo(extensions_op, extensions_value)) { LOG(WARNING) << "Malformed gl_extensions entry " << entry->id(); return NULL; } dictionary_entry_count++; } const base::DictionaryValue* gl_reset_notification_strategy_value = NULL; if (value->GetDictionary("gl_reset_notification_strategy", &gl_reset_notification_strategy_value)) { std::string op; std::string int_value; std::string int_value2; gl_reset_notification_strategy_value->GetString(kOp, &op); gl_reset_notification_strategy_value->GetString("value", &int_value); gl_reset_notification_strategy_value->GetString("value2", &int_value2); if (!entry->SetGLResetNotificationStrategyInfo( op, int_value, int_value2)) { LOG(WARNING) << "Malformed gl_reset_notification_strategy entry " << entry->id(); return NULL; } dictionary_entry_count++; } const base::DictionaryValue* cpu_brand_value = NULL; if (value->GetDictionary("cpu_info", &cpu_brand_value)) { std::string cpu_op; std::string cpu_value; cpu_brand_value->GetString(kOp, &cpu_op); cpu_brand_value->GetString("value", &cpu_value); if (!entry->SetCpuBrand(cpu_op, cpu_value)) { LOG(WARNING) << "Malformed cpu_brand entry " << entry->id(); return NULL; } dictionary_entry_count++; } const base::DictionaryValue* perf_graphics_value = NULL; if (value->GetDictionary("perf_graphics", &perf_graphics_value)) { std::string op; std::string float_value; std::string float_value2; perf_graphics_value->GetString(kOp, &op); perf_graphics_value->GetString("value", &float_value); perf_graphics_value->GetString("value2", &float_value2); if (!entry->SetPerfGraphicsInfo(op, float_value, float_value2)) { LOG(WARNING) << "Malformed perf_graphics entry " << entry->id(); return NULL; } dictionary_entry_count++; } const base::DictionaryValue* perf_gaming_value = NULL; if (value->GetDictionary("perf_gaming", &perf_gaming_value)) { std::string op; std::string float_value; std::string float_value2; perf_gaming_value->GetString(kOp, &op); perf_gaming_value->GetString("value", &float_value); perf_gaming_value->GetString("value2", &float_value2); if (!entry->SetPerfGamingInfo(op, float_value, float_value2)) { LOG(WARNING) << "Malformed perf_gaming entry " << entry->id(); return NULL; } dictionary_entry_count++; } const base::DictionaryValue* perf_overall_value = NULL; if (value->GetDictionary("perf_overall", &perf_overall_value)) { std::string op; std::string float_value; std::string float_value2; perf_overall_value->GetString(kOp, &op); perf_overall_value->GetString("value", &float_value); perf_overall_value->GetString("value2", &float_value2); if (!entry->SetPerfOverallInfo(op, float_value, float_value2)) { LOG(WARNING) << "Malformed perf_overall entry " << entry->id(); return NULL; } dictionary_entry_count++; } const base::DictionaryValue* machine_model_value = NULL; if (value->GetDictionary("machine_model", &machine_model_value)) { std::string name_op; std::string name_value; const base::DictionaryValue* name = NULL; if (machine_model_value->GetDictionary("name", &name)) { name->GetString(kOp, &name_op); name->GetString("value", &name_value); } std::string version_op = "any"; std::string version_string; std::string version_string2; const base::DictionaryValue* version_value = NULL; if (machine_model_value->GetDictionary("version", &version_value)) { version_value->GetString(kOp, &version_op); version_value->GetString("value", &version_string); version_value->GetString("value2", &version_string2); } if (!entry->SetMachineModelInfo( name_op, name_value, version_op, version_string, version_string2)) { LOG(WARNING) << "Malformed machine_model entry " << entry->id(); return NULL; } dictionary_entry_count++; } const base::DictionaryValue* gpu_count_value = NULL; if (value->GetDictionary("gpu_count", &gpu_count_value)) { std::string op; std::string int_value; std::string int_value2; gpu_count_value->GetString(kOp, &op); gpu_count_value->GetString("value", &int_value); gpu_count_value->GetString("value2", &int_value2); if (!entry->SetGpuCountInfo(op, int_value, int_value2)) { LOG(WARNING) << "Malformed gpu_count entry " << entry->id(); return NULL; } dictionary_entry_count++; } if (top_level) { const base::ListValue* feature_value = NULL; if (value->GetList("features", &feature_value)) { std::vector feature_list; for (size_t i = 0; i < feature_value->GetSize(); ++i) { std::string feature; if (feature_value->GetString(i, &feature)) { feature_list.push_back(feature); } else { LOG(WARNING) << "Malformed feature entry " << entry->id(); return NULL; } } if (!entry->SetFeatures( feature_list, feature_map, supports_feature_type_all)) { LOG(WARNING) << "Malformed feature entry " << entry->id(); return NULL; } dictionary_entry_count++; } } if (top_level) { const base::ListValue* exception_list_value = NULL; if (value->GetList("exceptions", &exception_list_value)) { for (size_t i = 0; i < exception_list_value->GetSize(); ++i) { const base::DictionaryValue* exception_value = NULL; if (!exception_list_value->GetDictionary(i, &exception_value)) { LOG(WARNING) << "Malformed exceptions entry " << entry->id(); return NULL; } ScopedGpuControlListEntry exception(GetEntryFromValue( exception_value, false, feature_map, supports_feature_type_all)); if (exception.get() == NULL) { LOG(WARNING) << "Malformed exceptions entry " << entry->id(); return NULL; } // Exception should inherit vendor_id from parent, otherwise if only // device_ids are specified in Exception, the info will be incomplete. if (exception->vendor_id_ == 0 && entry->vendor_id_ != 0) exception->vendor_id_ = entry->vendor_id_; entry->AddException(exception); } dictionary_entry_count++; } } if (value->size() != dictionary_entry_count) { LOG(WARNING) << "Entry with unknown fields " << entry->id(); return NULL; } return entry; } GpuControlList::GpuControlListEntry::GpuControlListEntry() : id_(0), disabled_(false), vendor_id_(0), multi_gpu_style_(kMultiGpuStyleNone), multi_gpu_category_(kMultiGpuCategoryPrimary) { } GpuControlList::GpuControlListEntry::~GpuControlListEntry() { } bool GpuControlList::GpuControlListEntry::SetId(uint32 id) { if (id != 0) { id_ = id; return true; } return false; } void GpuControlList::GpuControlListEntry::SetDisabled(bool disabled) { disabled_ = disabled; } bool GpuControlList::GpuControlListEntry::SetOsInfo( const std::string& os, const std::string& version_op, const std::string& version_string, const std::string& version_string2) { os_info_.reset(new OsInfo(os, version_op, version_string, version_string2)); return os_info_->IsValid(); } bool GpuControlList::GpuControlListEntry::SetVendorId( const std::string& vendor_id_string) { vendor_id_ = 0; return base::HexStringToUInt(vendor_id_string, &vendor_id_); } bool GpuControlList::GpuControlListEntry::AddDeviceId( const std::string& device_id_string) { uint32 device_id = 0; if (base::HexStringToUInt(device_id_string, &device_id)) { device_id_list_.push_back(device_id); return true; } return false; } bool GpuControlList::GpuControlListEntry::SetMultiGpuStyle( const std::string& multi_gpu_style_string) { MultiGpuStyle style = StringToMultiGpuStyle(multi_gpu_style_string); if (style == kMultiGpuStyleNone) return false; multi_gpu_style_ = style; return true; } bool GpuControlList::GpuControlListEntry::SetMultiGpuCategory( const std::string& multi_gpu_category_string) { MultiGpuCategory category = StringToMultiGpuCategory(multi_gpu_category_string); if (category == kMultiGpuCategoryNone) return false; multi_gpu_category_ = category; return true; } bool GpuControlList::GpuControlListEntry::SetDriverVendorInfo( const std::string& vendor_op, const std::string& vendor_value) { driver_vendor_info_.reset(new StringInfo(vendor_op, vendor_value)); return driver_vendor_info_->IsValid(); } bool GpuControlList::GpuControlListEntry::SetDriverVersionInfo( const std::string& version_op, const std::string& version_style, const std::string& version_string, const std::string& version_string2) { driver_version_info_.reset(new VersionInfo( version_op, version_style, version_string, version_string2)); return driver_version_info_->IsValid(); } bool GpuControlList::GpuControlListEntry::SetDriverDateInfo( const std::string& date_op, const std::string& date_string, const std::string& date_string2) { driver_date_info_.reset( new VersionInfo(date_op, std::string(), date_string, date_string2)); return driver_date_info_->IsValid(); } bool GpuControlList::GpuControlListEntry::SetGLVendorInfo( const std::string& vendor_op, const std::string& vendor_value) { gl_vendor_info_.reset(new StringInfo(vendor_op, vendor_value)); return gl_vendor_info_->IsValid(); } bool GpuControlList::GpuControlListEntry::SetGLRendererInfo( const std::string& renderer_op, const std::string& renderer_value) { gl_renderer_info_.reset(new StringInfo(renderer_op, renderer_value)); return gl_renderer_info_->IsValid(); } bool GpuControlList::GpuControlListEntry::SetGLExtensionsInfo( const std::string& extensions_op, const std::string& extensions_value) { gl_extensions_info_.reset(new StringInfo(extensions_op, extensions_value)); return gl_extensions_info_->IsValid(); } bool GpuControlList::GpuControlListEntry::SetGLResetNotificationStrategyInfo( const std::string& op, const std::string& int_string, const std::string& int_string2) { gl_reset_notification_strategy_info_.reset( new IntInfo(op, int_string, int_string2)); return gl_reset_notification_strategy_info_->IsValid(); } bool GpuControlList::GpuControlListEntry::SetCpuBrand( const std::string& cpu_op, const std::string& cpu_value) { cpu_brand_.reset(new StringInfo(cpu_op, cpu_value)); return cpu_brand_->IsValid(); } bool GpuControlList::GpuControlListEntry::SetPerfGraphicsInfo( const std::string& op, const std::string& float_string, const std::string& float_string2) { perf_graphics_info_.reset(new FloatInfo(op, float_string, float_string2)); return perf_graphics_info_->IsValid(); } bool GpuControlList::GpuControlListEntry::SetPerfGamingInfo( const std::string& op, const std::string& float_string, const std::string& float_string2) { perf_gaming_info_.reset(new FloatInfo(op, float_string, float_string2)); return perf_gaming_info_->IsValid(); } bool GpuControlList::GpuControlListEntry::SetPerfOverallInfo( const std::string& op, const std::string& float_string, const std::string& float_string2) { perf_overall_info_.reset(new FloatInfo(op, float_string, float_string2)); return perf_overall_info_->IsValid(); } bool GpuControlList::GpuControlListEntry::SetMachineModelInfo( const std::string& name_op, const std::string& name_value, const std::string& version_op, const std::string& version_string, const std::string& version_string2) { machine_model_info_.reset(new MachineModelInfo( name_op, name_value, version_op, version_string, version_string2)); return machine_model_info_->IsValid(); } bool GpuControlList::GpuControlListEntry::SetGpuCountInfo( const std::string& op, const std::string& int_string, const std::string& int_string2) { gpu_count_info_.reset(new IntInfo(op, int_string, int_string2)); return gpu_count_info_->IsValid(); } bool GpuControlList::GpuControlListEntry::SetFeatures( const std::vector& feature_strings, const FeatureMap& feature_map, bool supports_feature_type_all) { size_t size = feature_strings.size(); if (size == 0) return false; features_.clear(); for (size_t i = 0; i < size; ++i) { int feature = 0; if (supports_feature_type_all && feature_strings[i] == "all") { for (FeatureMap::const_iterator iter = feature_map.begin(); iter != feature_map.end(); ++iter) features_.insert(iter->second); continue; } if (!StringToFeature(feature_strings[i], &feature, feature_map)) { features_.clear(); return false; } features_.insert(feature); } return true; } void GpuControlList::GpuControlListEntry::AddException( ScopedGpuControlListEntry exception) { exceptions_.push_back(exception); } // static GpuControlList::GpuControlListEntry::MultiGpuStyle GpuControlList::GpuControlListEntry::StringToMultiGpuStyle( const std::string& style) { if (style == kMultiGpuStyleStringOptimus) return kMultiGpuStyleOptimus; if (style == kMultiGpuStyleStringAMDSwitchable) return kMultiGpuStyleAMDSwitchable; return kMultiGpuStyleNone; } // static GpuControlList::GpuControlListEntry::MultiGpuCategory GpuControlList::GpuControlListEntry::StringToMultiGpuCategory( const std::string& category) { if (category == kMultiGpuCategoryStringPrimary) return kMultiGpuCategoryPrimary; if (category == kMultiGpuCategoryStringSecondary) return kMultiGpuCategorySecondary; if (category == kMultiGpuCategoryStringAny) return kMultiGpuCategoryAny; return kMultiGpuCategoryNone; } void GpuControlList::GpuControlListEntry::LogControlListMatch( const std::string& control_list_logging_name) const { static const char kControlListMatchMessage[] = "Control list match for rule #%u in %s."; VLOG(1) << base::StringPrintf(kControlListMatchMessage, id_, control_list_logging_name.c_str()); } bool GpuControlList::GpuControlListEntry::Contains( OsType os_type, const std::string& os_version, const GPUInfo& gpu_info) const { DCHECK(os_type != kOsAny); if (os_info_.get() != NULL && !os_info_->Contains(os_type, os_version)) return false; bool is_not_primary_gpu = GpuUnmatched(vendor_id_, device_id_list_, gpu_info.gpu); bool is_not_secondary_gpu = true; for (size_t i = 0; i < gpu_info.secondary_gpus.size(); ++i) { is_not_secondary_gpu = is_not_secondary_gpu && GpuUnmatched(vendor_id_, device_id_list_, gpu_info.secondary_gpus[i]); } switch (multi_gpu_category_) { case kMultiGpuCategoryPrimary: if (is_not_primary_gpu) return false; break; case kMultiGpuCategorySecondary: if (is_not_secondary_gpu) return false; break; case kMultiGpuCategoryAny: if (is_not_primary_gpu && is_not_secondary_gpu) return false; break; case kMultiGpuCategoryNone: break; } switch (multi_gpu_style_) { case kMultiGpuStyleOptimus: if (!gpu_info.optimus) return false; break; case kMultiGpuStyleAMDSwitchable: if (!gpu_info.amd_switchable) return false; break; case kMultiGpuStyleNone: break; } if (driver_vendor_info_.get() != NULL && !gpu_info.driver_vendor.empty() && !driver_vendor_info_->Contains(gpu_info.driver_vendor)) return false; if (driver_version_info_.get() != NULL && !gpu_info.driver_version.empty()) { if (!driver_version_info_->Contains(gpu_info.driver_version)) return false; } if (driver_date_info_.get() != NULL && !gpu_info.driver_date.empty()) { if (!driver_date_info_->Contains(gpu_info.driver_date, '-')) return false; } if (gl_vendor_info_.get() != NULL && !gpu_info.gl_vendor.empty() && !gl_vendor_info_->Contains(gpu_info.gl_vendor)) return false; if (gl_renderer_info_.get() != NULL && !gpu_info.gl_renderer.empty() && !gl_renderer_info_->Contains(gpu_info.gl_renderer)) return false; if (gl_extensions_info_.get() != NULL && !gpu_info.gl_extensions.empty() && !gl_extensions_info_->Contains(gpu_info.gl_extensions)) return false; if (gl_reset_notification_strategy_info_.get() != NULL && !gl_reset_notification_strategy_info_->Contains( gpu_info.gl_reset_notification_strategy)) return false; if (perf_graphics_info_.get() != NULL && (gpu_info.performance_stats.graphics == 0.0 || !perf_graphics_info_->Contains(gpu_info.performance_stats.graphics))) return false; if (perf_gaming_info_.get() != NULL && (gpu_info.performance_stats.gaming == 0.0 || !perf_gaming_info_->Contains(gpu_info.performance_stats.gaming))) return false; if (perf_overall_info_.get() != NULL && (gpu_info.performance_stats.overall == 0.0 || !perf_overall_info_->Contains(gpu_info.performance_stats.overall))) return false; if (machine_model_info_.get() != NULL) { std::vector name_version; base::SplitString(gpu_info.machine_model, ' ', &name_version); if (name_version.size() == 2 && !machine_model_info_->Contains(name_version[0], name_version[1])) return false; } if (gpu_count_info_.get() != NULL && !gpu_count_info_->Contains(gpu_info.secondary_gpus.size() + 1)) return false; if (cpu_brand_.get() != NULL) { base::CPU cpu_info; if (!cpu_brand_->Contains(cpu_info.cpu_brand())) return false; } for (size_t i = 0; i < exceptions_.size(); ++i) { if (exceptions_[i]->Contains(os_type, os_version, gpu_info) && !exceptions_[i]->NeedsMoreInfo(gpu_info)) return false; } return true; } bool GpuControlList::GpuControlListEntry::NeedsMoreInfo( const GPUInfo& gpu_info) const { // We only check for missing info that might be collected with a gl context. // If certain info is missing due to some error, say, we fail to collect // vendor_id/device_id, then even if we launch GPU process and create a gl // context, we won't gather such missing info, so we still return false. if (driver_vendor_info_.get() && gpu_info.driver_vendor.empty()) return true; if (driver_version_info_.get() && gpu_info.driver_version.empty()) return true; if (gl_vendor_info_.get() && gpu_info.gl_vendor.empty()) return true; if (gl_renderer_info_.get() && gpu_info.gl_renderer.empty()) return true; for (size_t i = 0; i < exceptions_.size(); ++i) { if (exceptions_[i]->NeedsMoreInfo(gpu_info)) return true; } return false; } GpuControlList::OsType GpuControlList::GpuControlListEntry::GetOsType() const { if (os_info_.get() == NULL) return kOsAny; return os_info_->type(); } uint32 GpuControlList::GpuControlListEntry::id() const { return id_; } bool GpuControlList::GpuControlListEntry::disabled() const { return disabled_; } const std::set& GpuControlList::GpuControlListEntry::features() const { return features_; } // static bool GpuControlList::GpuControlListEntry::StringToFeature( const std::string& feature_name, int* feature_id, const FeatureMap& feature_map) { FeatureMap::const_iterator iter = feature_map.find(feature_name); if (iter != feature_map.end()) { *feature_id = iter->second; return true; } return false; } GpuControlList::GpuControlList() : max_entry_id_(0), needs_more_info_(false), supports_feature_type_all_(false), control_list_logging_enabled_(false) { } GpuControlList::~GpuControlList() { Clear(); } bool GpuControlList::LoadList( const std::string& json_context, GpuControlList::OsFilter os_filter) { scoped_ptr root; root.reset(base::JSONReader::Read(json_context)); if (root.get() == NULL || !root->IsType(base::Value::TYPE_DICTIONARY)) return false; base::DictionaryValue* root_dictionary = static_cast(root.get()); DCHECK(root_dictionary); return LoadList(*root_dictionary, os_filter); } bool GpuControlList::LoadList(const base::DictionaryValue& parsed_json, GpuControlList::OsFilter os_filter) { std::vector entries; parsed_json.GetString("version", &version_); std::vector pieces; if (!ProcessVersionString(version_, '.', &pieces)) return false; const base::ListValue* list = NULL; if (!parsed_json.GetList("entries", &list)) return false; uint32 max_entry_id = 0; for (size_t i = 0; i < list->GetSize(); ++i) { const base::DictionaryValue* list_item = NULL; bool valid = list->GetDictionary(i, &list_item); if (!valid || list_item == NULL) return false; ScopedGpuControlListEntry entry(GpuControlListEntry::GetEntryFromValue( list_item, true, feature_map_, supports_feature_type_all_)); if (entry.get() == NULL) return false; if (entry->id() > max_entry_id) max_entry_id = entry->id(); entries.push_back(entry); } Clear(); OsType my_os = GetOsType(); for (size_t i = 0; i < entries.size(); ++i) { OsType entry_os = entries[i]->GetOsType(); if (os_filter == GpuControlList::kAllOs || entry_os == kOsAny || entry_os == my_os) entries_.push_back(entries[i]); } max_entry_id_ = max_entry_id; return true; } std::set GpuControlList::MakeDecision( GpuControlList::OsType os, std::string os_version, const GPUInfo& gpu_info) { active_entries_.clear(); std::set features; needs_more_info_ = false; std::set possible_features; if (os == kOsAny) os = GetOsType(); if (os_version.empty()) { os_version = base::SysInfo::OperatingSystemVersion(); size_t pos = os_version.find_first_not_of("0123456789."); if (pos != std::string::npos) os_version = os_version.substr(0, pos); } std::vector pieces; if (!ProcessVersionString(os_version, '.', &pieces)) os_version = "0"; for (size_t i = 0; i < entries_.size(); ++i) { if (entries_[i]->Contains(os, os_version, gpu_info)) { if (!entries_[i]->disabled()) { if (control_list_logging_enabled_) entries_[i]->LogControlListMatch(control_list_logging_name_); MergeFeatureSets(&possible_features, entries_[i]->features()); if (!entries_[i]->NeedsMoreInfo(gpu_info)) MergeFeatureSets(&features, entries_[i]->features()); } active_entries_.push_back(entries_[i]); } } if (possible_features.size() > features.size()) needs_more_info_ = true; return features; } void GpuControlList::GetDecisionEntries( std::vector* entry_ids, bool disabled) const { DCHECK(entry_ids); entry_ids->clear(); for (size_t i = 0; i < active_entries_.size(); ++i) { if (disabled == active_entries_[i]->disabled()) entry_ids->push_back(active_entries_[i]->id()); } } void GpuControlList::GetReasons(base::ListValue* problem_list) const { DCHECK(problem_list); for (size_t i = 0; i < active_entries_.size(); ++i) { GpuControlListEntry* entry = active_entries_[i].get(); if (entry->disabled()) continue; base::DictionaryValue* problem = new base::DictionaryValue(); problem->SetString("description", entry->description()); base::ListValue* cr_bugs = new base::ListValue(); for (size_t j = 0; j < entry->cr_bugs().size(); ++j) cr_bugs->Append(new base::FundamentalValue(entry->cr_bugs()[j])); problem->Set("crBugs", cr_bugs); base::ListValue* webkit_bugs = new base::ListValue(); for (size_t j = 0; j < entry->webkit_bugs().size(); ++j) { webkit_bugs->Append(new base::FundamentalValue(entry->webkit_bugs()[j])); } problem->Set("webkitBugs", webkit_bugs); problem_list->Append(problem); } } size_t GpuControlList::num_entries() const { return entries_.size(); } uint32 GpuControlList::max_entry_id() const { return max_entry_id_; } std::string GpuControlList::version() const { return version_; } GpuControlList::OsType GpuControlList::GetOsType() { #if defined(OS_CHROMEOS) return kOsChromeOS; #elif defined(OS_WIN) return kOsWin; #elif defined(OS_ANDROID) return kOsAndroid; #elif defined(OS_LINUX) || defined(OS_OPENBSD) return kOsLinux; #elif defined(OS_MACOSX) return kOsMacosx; #else return kOsUnknown; #endif } void GpuControlList::Clear() { entries_.clear(); active_entries_.clear(); max_entry_id_ = 0; } // static GpuControlList::NumericOp GpuControlList::StringToNumericOp( const std::string& op) { if (op == "=") return kEQ; if (op == "<") return kLT; if (op == "<=") return kLE; if (op == ">") return kGT; if (op == ">=") return kGE; if (op == "any") return kAny; if (op == "between") return kBetween; return kUnknown; } void GpuControlList::AddSupportedFeature( const std::string& feature_name, int feature_id) { feature_map_[feature_name] = feature_id; } void GpuControlList::set_supports_feature_type_all(bool supported) { supports_feature_type_all_ = supported; } } // namespace gpu