Macros for handling exponential backoff. More...

Namespaces
namespace	app
	Sparta Application framework.

namespace	exp_backoff
	Contains utilities and types of exponential backoff helpers.

namespace	log
	Diagnostic logging framework. This node generates logging messages of a specific category.

namespace	memory
	Namespace containing memory interfaces, types, and storage objects.

namespace	statistics
	Namespace containing methods for computing and generating statistical information using instrumentation extracted from sparta structures such as Counters.

Classes
class	__RegisterDefintionSet
	Type that holds a set of register definitions. More...

class	ArchData
	Contains a set of contiguous line of architectural data which can be referred to by any architected object model. When layout() is called, reserves space for each element in a registered set of ArchDataSegment instances at offsets within Lines within the ArchData. More...

class	ArchDataContainer
	Container class for any number of ArchData pointers owned externally. More...

class	ArchDataSegment

class	Array
	Array is essentially a fixed size vector, maintains a concept of validity of its indexes, and provides access via stl iteration and general get methods. More...

class	AssertContext
	Creates a helper traits class for determining whehther a type has a member named getClock. More...

class	AssignOnceObject
	Object which can only have it's value set once. Throws exception if being set more than once. More...

class	AsyncEvent
	In a multi-threaded sim environment, this event is used to schedule an event asynchronously. More...

class	Audience
	Class used maintain a list of sparta::Scheduleable objects; used by observation-type classes. More...

class	BasicHistogram

class	Baz

struct	bit_reference_to_bool
	Helper type for converting _Bit_reference types into bool types for the purpose of determining how to lexically cast a string into that type. More...

struct	bit_reference_to_bool< typename std::_Bit_reference >

class	BoolEnum
	The class responsible for handling State<bool> instances and converts bool instances into actual EnumTValueType instances to satisfy exisiting function signatures. More...

class	bounded_int
	Bounded integer type with range-checking. More...

class	Buffer
	A data structure allowing appending at the end, beginning, or middle, but erase anywhere with collapse. More...

class	Bus
	Class that defines a Bus type. More...

class	BusSet
	A TreeNode that represents a set of Buses. More...

class	CircularBuffer
	A data structure allowing appending at the end, beginning, or insert in the middle, but erase anywhere with collapse. More...

class	Clock
	A representation of simulated time. More...

class	ClockManager
	Manages building a clock tree. More...

class	ContextCounter
	A container type that allows a modeler to build, store, and charge counts to a specific context. More...

class	Counter
	Represents a counter of type counter_type (uint64_t). 2 and greater than 0 with a ceiling specified. A ceiling value that is a power of two is optimized to perform operations faster. More...

class	CounterBase
	The base class for all Counters. More...

class	CycleCounter
	Represents a cycle counter. More...

class	CycleHistogramBase
	CycleHistogramBase class for uint64_t values. More...

class	CycleHistogramStandalone
	CycleHistogramStandalone class for uint64_t values. More...

class	CycleHistogramTreeNode
	CycleHistogramTreeNode class for uint64_t values. More...

class	DAG

class	DataContainer
	Used by DataInPort and SyncInPort, this class holds received data from these ports and remembers the time in which the data was set. It also maintains the validity of the data. More...

class	DataInPort
	DataInPort receives data from sender using a DataOutPort. More...

class	DataOutPort
	DataOutPort is used for transferring any data to another module. More...

class	DataView
	View into a backend block of memory in an ArchData. More...

class	DynamicResourceTreeNode
	TreeNode subclass representing a node in the device tree which creates and owns a resource. This node is created at run-time and, although it takes a parameter set at construction, is not part of the SPARTA configuration phase and is not user configurable through any sparta::ParameterSet. More...

class	EnumCycleHistogram
	EnumCycleHistogram class for C++ Enum values. More...

class	EnumHistogram
	EnumHistogram class for sparta::utils::Enum. More...

class	Event
	Event is a simple class for scheduling random events on the Scheduler. More...

class	EventGroup
	Group a series of events together for precedence establishment. More...

class	EventNode
	EventNode is the base class for all event types in SPARTA. Not to be used by the modeler. Its main purpose is to look for a clock and scheduler for the event. More...

class	EventSet
	Set of Events that a unit (or sparta::TreeNode, sparta::Resource) contains and are visible through a sparta Tree. More...

class	ExportedPort
	Class that "exports" a port that's contained in the same ResourceTreeNode structure. More...

class	ExtensionDescriptor
	Descriptor class which provides basic information about an extended tree node: device tree location, extension name, and parameter name-values. More...

class	ExtensionsParamsOnly
	Helper class used to trivially extend TreeNode parameter sets (but not any additional functionality beyond that) More...

class	FrontArray
	a type of Array with special allocation policies to support writing to the front most valid entry in the Array, as well as reading the nth valid entry in the array. More...

class	FunctionManager
	Singleton Function Manager class. This class contains two maps and one constant string token. These maps contain a string as key and function pointers as value. The string key is the same as the name of the free functions as defined by the users and the keys are the function pointers to those methods. One map is dedicated for HistogramTreeNodes while the other is dedicated for CycleHistogramTreeNodes. This was necessary because these two classes do not share a common polymorphic base. More...

class	FutureStatisticRange
	Exception indicating that the range of a StatisticInstance starts or ends in the future (probably caused by to checkpointing) More...

class	GlobalEvent
	A type of "global" reusable event. More...

class	GlobalEventProxy
	A helper class of GlobalEvent. More...

class	GlobalOrderingPoint
	Used to set precedence between Scheduleable types across simulation. More...

class	GlobalTreeNode
	TreeNode which represents some "global" namespace of the device tree, containing only RootTreeNodes, for performing searches. More...

class	HistogramBase
	Histogram base class for uint64_t values. More...

class	HistogramStandalone

class	HistogramTreeNode

class	InPort
	Base class for all InPort types. More...

class	InstrumentationNode
	Base class requiring. More...

class	IntParameterSet

struct	is_sparta_enum
	Detect whether template parameter is sparta::utils::Enum type. More...

struct	is_sparta_enum< sparta::utils::Enum< T > >
	Detect whether template parameter is sparta::utils::Enum type. More...

struct	is_vector
	Templated for determining if ValueType is std::vector for use in metaprogramming constructs. This is intended to be be consumed by enable_if. More...

struct	is_vector< std::vector< T > >

class	KeyValue
	The type-to-type name map. Not really necessary, but useful. More...

class	LineStringStream
	Helper class for building a set of lines through an ostream-like interface. More...

class	MemoryProfiler
	Utility used to periodically collect heap usage statistics throughout a simulation. Supported phases for inspection include Build, Configure, Bind, and Simulate. More...

class	MirrorNotificationSource
	essentially a pass through notification source that is a placeholder in a shadow tree. More...

class	NotificationSource
	A TreeNode that generates a specific type of notification which propagates up a tree of TreeNodes (using the NotificationPropagator base class. More...

class	NotificationSourceBase
	A TreeNode that generates a single specific type of notification which propagates up a tree of TreeNodes using TreeNode's builtin functionality. More...

class	ObjectAllocator

class	OneWayBool
	Boolean with a default capable of being changed to the opposite value only. it can never set to the default even if already at the default value. More...

class	OutPort
	Base class for all OutPort types. More...

class	Parameter
	Parameter instance, templated to contain only a specific type. More...

class	ParameterBase
	Non-templated base class for generic parameter access and iteration. More...

class	ParameterException
	Exception indicating a misconfigured Parameter or invalid Parameter access. More...

class	ParameterSet
	Generic container of Parameters. More...

class	ParameterTree
	Virtual Parameter Tree. This represents a tree of parameters read from some source but does not necessarily correspond to the parameters in the simulation itself or even to the simulation tree. This is meant to provide a hierarchical view into simulation parameters before they are actually applied to a real TreeNode tree. More...

class	PayloadEvent
	Class to schedule a Scheduleable in the future with a payload, typed on both the data type and the scheduling phase. This is the preferred class to use in simulation, but the main API is found in sparta::PhasedPayloadEvent. More...

class	PhasedObject
	Object having a specific phase in the sparta construction paradigm. More...

class	PhasedPayloadEvent
	Class to schedule a Scheduleable in the future with a payload, but the class itself is not typed on the phase, but is constructed with one. The preference, however, is for the modeler to use sparta::PayloadEvent instead. More...

class	PhasedSingleCycleUniqueEvent
	An event that can only be schedule one cycle into the future. More...

class	PhasedUniqueEvent
	A type of Event that uniquely schedules itself on the schedule within a single time quantum. This UniqueEvent is not typed on the SchedulingPhase. It is discouraged to use this class – use UniqueEvent templatized on the SchedulingPhase. More...

class	Pipe
	A very simple pipe, not part of the DES paradigm. More...

class	Pipeline
	A simple pipeline. More...

class	Port
	The port interface used to bind port types together and defines a port behavior. More...

class	PortSet
	A TreeNode that represents a set of ports used by a Resource. More...

class	PostRunValidationInfo
	Information describing the type of validation being done. More...

class	PriorityQueue
	A data structure that allows pushing/emplacing into it with a given sorter. More...

struct	ptr_to_const_obj_ptr
	Template type helper that removes a pointer, adds a const, and then re-adds the pointer. This is useful to turn "T" [T=U] into "U const " in places where simply using "const T" results in "U* const". More...

class	Queue
	A data structure that allows appending at the back and invalidating from the front. More...

class	ReadOnlyCounter
	Represents a non-writable and non-observable counter with a very similar interface to sparta::Counter. The value of this counter In most cases, a normal counter should be used. However, if a value must be stored as an integer outside of counter for any reason, a ReadOnly counter can be used to wrap that value and expose it to sparta Report and statistics infrastructure. More...

class	Register
	An implementation of a RegisterBase. More...

class	RegisterBankTable
	Container of register banks as a helper for RegisterSet. Instances of this class will be owned by a single RegisterSet. More...

class	RegisterBase
	Base class to represents an architected register of any size that is a power of 2 and greater than 0 with a ceiling specified. More...

class	RegisterBits

class	RegisterProxy
	Represents an interface to a pseudo-"Register" of a fixed size which indirectly references other registers (having the same group num, group idx, and size) depending on simulator state. Essentially, this hides banking and register aliasing (shared data) information from the client of this interface which is useful for presenting debugginer-visible and software-visible registers without regard for the underlying banking or aliasing. More...

class	RegisterProxyBase

class	RegisterSet
	Holds and can create a set of Register objects having various names and groups. More...

class	Resource
	The is the base class for all types of resources used by the SPARTA framework. More...

class	ResourceContainer
	PhasedObject which can hold 0 or 1 Resource pointers to an associatedresource. Contains logic for setting and getting the associated Resource. More...

class	ResourceFactory
	Templated ResourceFactoryBase implementation which can be used to trivially define Resource Factories. More...

class	ResourceFactoryBase
	Factory which can create Resources as well as the Parameter sets that can be modified before actually instantiating the resources themselves. Packages providing resources to the simulator implement this interface. More...

class	ResourceSet
	Set of published ResourceFactories which can be referenced by name. More...

class	ResourceTreeNode
	TreeNode subclass representing a node in the device tree which contains a single ResourceFactory and a sparta::ParameterSet. A ResourceTreeNode is also associated with a clock. More...

class	ReversedStatisticRange
	Exception indicating that the range of a StatisticInstance was reversed when it was accessed (probably caused by checkpointing) More...

class	RootTreeNode
	TreeNode which represents the root ("top") of a device tree. More...

class	Scheduleable
	A class that defines the basic scheduling interface to the Scheduler. Not intended to be used by modelers directly, but certainly can be. More...

class	ScheduleableHandle
	A light-weight reference counting handle for Scheduleables – DOES NOT delete. More...

class	Scheduler
	A class that lets you schedule events now and in the future. More...

class	Scoreboard
	Class used to track operand dependencies (timed) between units. More...

class	ScoreboardView
	A ScoreboardView is a view into the master Scoreboard for operand readiness. More...

class	SharedData
	Class that allows the writing of data this cycle, but not visable until next cycle. More...

class	SignalInPort
	SignalInPort receives data from sender using a SignalOutPort. More...

class	SignalOutPort
	SignalOutPort is used for transferring a simple signal to another module. More...

class	SimulationInfo
	Contains information describing the simulation instance for the purpose of identifying the simulation and possible recreating it. This information should be written to all log files, reports, cmdline, etc. More...

class	SingleCycleUniqueEvent
	An event that can only be schedule one cycle into the future. More...

class	SpartaCriticalError
	Indicates something went seriously wrong and likely indicates corruption in simulator runtime state. More...

class	SpartaException
	Used to construct and throw a standard C++ exception. Inherits from std::exception. More...

class	SpartaFatalError
	Indicates something went seriously wrong and likely indicates unrecoverable corruption in simulator runtime state or misuse. This is the only exception that should ever be generated by a destructor since its semantics are that the simulation should terminate. More...

class	SpartaSharedPointer
	Used for garbage collection, will delete the object it points to when all objects are finished using it. More...

class	SpartaSharedPointerAllocator
	A memory allocator complementing SpartaSharedPointer that reuses old memory. More...

class	SpartaStaticInitializer
	Static-initialization order controller. More...

class	SpartaTester
	A simple testing class. More...

class	SpartaWeakPointer
	Like in STL, create a weak pointer to a SpartaSharedPointer. More...

class	StartupEvent
	StartupEvent is a simple class for scheduling a starting event on the Scheduler. It does not support precedence. More...

class	State
	The State class for watching transition between enum states. More...

class	State< T, typename std::enable_if< std::is_same< T, PhasedObject::TreePhase >::value >::type >

class	StateHistogram
	StateHistogram class for uint64_t values. More...

class	StateTimerUnit
	A high level wrapper contains the StateTimerPool and StateTimerHistogram. More...

class	StatInstCalculator

class	StatisticDef
	Contains a statistic definition (some useful information which can be computed) More...

class	StatisticInstance
	Instance of either a StatisticDef or CounterBase or an Expression. Has a sample window (simulator ticks) over which it will compute the value of the contained expression/counter for that range. More...

class	StatisticSet
	Set of StatisticDef and CounterBase-derived objects for visiblility through a sparta Tree. More...

class	StringManager
	Manages string internment for SPARTA. This allows strings to be compared by pointer once interned. More...

class	SyncInPort
	Class that defines an synchronized input port on modules on two different clocks. More...

class	SyncOutPort
	Class that defines a synchronized SyncOutPort for data writes on different clocks. More...

class	SysCSpartaSchedulerAdapter
	Class that "connects" Sparta to SystemC. More...

class	Tag
	Tag(): Simple class to provide nested sequence numbering. More...

class	TieredMap
	N-Tier lookup map for sparse-representation of large memory spaces. This is essentially a M-Tree where the child lookup at each node is a simple offset computed by a rshift and mask. More...

class	TimeManager
	Singleton which manages wall-clock time for simulations in SPARTA This is not a "timer" manager, but rather an information service and could possible become a timing interval manager. More...

class	TreeNode
	Node in a composite tree representing a sparta Tree item. More...

class	TreeNodePrivateAttorney

class	UniqueEvent
	A type of Event that uniquely schedules itself on the schedule within a single time quantum. This class is typed on the SchedulingPhase and is the preferred type to use for UniqueEvent use, but the main API is found in PhasedUniqueEvent. More...

class	Unit
	The is the base class for user defined blocks in simulation. More...

class	ValidationCheckCallback
	Delegate for Parameter validation. More...

class	VirtualGlobalTreeNode
	Virtual global node for all device trees in a single simulation. This node acts a potential notification observation point for every node in the simulation regardless hierarchy. More...

class	WeightedContextCounter
	This is an example context counter subclass used to show how users may supply their own "aggregated value calculation" method via the REGISTER_CONTEXT_COUNTER_AGGREGATE_FCN macro. More...

Typedefs
using	RegisterDefinitionSet = __RegisterDefintionSet< sparta::RegisterBase >

using	ProxyDefinitionSet = __RegisterDefintionSet< sparta::RegisterProxyBase >

typedef std::shared_ptr< std::unordered_map< uint32_t, std::vector< sparta::Clock::Cycle > * > >	StateTimerDataContainerPtr

typedef std::vector< std::unique_ptr< ExtensionDescriptor > >	ExtensionDescriptorVec

using	CycleHistogram = CycleHistogramTreeNode

typedef HistogramTreeNode	Histogram

template<typename T >
using	HistStatCalcFcn = double()(const T )

Enumerations
enum class	SchedulingPhase { Update , PortUpdate , Flush , Collection , Tick , PostTick }
	The SchedulingPhases used for events (Tick, Update, PortUpdate, etc) More...

enum class	ArrayType { NORMAL , AGED }
	Defines how a sparta::Array should behave. The array will have different features depending on the type. More...

enum	ByteOrder { LE = 0 , BE = 1 }
	Byte order enum for read/write methods. More...

Functions
template<typename T >
std::enable_if< std::is_same< T, app::FeatureConfiguration >::value, bool >::type	IsFeatureValueEqualTo (const T &cfg, const std::string &feature_name, const unsigned int feature_value)

template<typename T >
std::enable_if< MetaStruct::is_any_pointer< T >::value, bool >::type	IsFeatureValueEqualTo (const T &cfg, const std::string &feature_name, const unsigned int feature_value)

template<typename T >
std::enable_if< std::is_same< T, app::FeatureConfiguration >::value, bool >::type	IsFeatureValueEnabled (const T &cfg, const std::string &feature_name)

template<typename T >
std::enable_if< MetaStruct::is_any_pointer< T >::value, bool >::type	IsFeatureValueEnabled (const T &cfg, const std::string &feature_name)

template<typename T >
std::enable_if< std::is_same< T, app::FeatureConfiguration >::value, constapp::FeatureConfiguration::FeatureOptions * >::type	GetFeatureOptions (const T &cfg, const std::string &feature_name)

template<typename T >
std::enable_if< MetaStruct::is_any_pointer< T >::value, constapp::FeatureConfiguration::FeatureOptions * >::type	GetFeatureOptions (const T &cfg, const std::string &feature_name)

std::ostream &	operator<< (std::ostream &o, const SimulationInfo &info)
	ostream insertion operator for SimulationInfo

template<class ScheduleableTypeA >
std::enable_if< std::is_base_of< EventNode, ScheduleableTypeA >::value, constGlobalOrderingPoint >::type &	operator>> (ScheduleableTypeA &producer, const GlobalOrderingPoint &consumer)
	Place a precedence between a Scheduleable object and a GlobalOrderingPoint.

template<class ScheduleableTypeA >
std::enable_if< std::is_base_of< EventNode, ScheduleableTypeA >::value, ScheduleableTypeA >::type &	operator>> (const GlobalOrderingPoint &producer, ScheduleableTypeA &consumer)
	Place a precedence between a Scheduleable object and a GlobalOrderingPoint.

InPort &	operator>> (const GlobalOrderingPoint &producer, InPort &consumer)
	Place a precedence between a GlobalOrderingPoint and an InPort.

const GlobalOrderingPoint &	operator>> (InPort &producer, const GlobalOrderingPoint &consumer)
	Place a precedence between a Scheduleable object and a GlobalOrderingPoint.

template<class DataT1 , SchedulingPhase PayloadPhaseT1, class DataT2 , SchedulingPhase PayloadPhaseT2>
PayloadEvent< DataT2, PayloadPhaseT2 > &	operator>> (PayloadEvent< DataT1, PayloadPhaseT1 > &producer, PayloadEvent< DataT2, PayloadPhaseT2 > &consumer)
	Place a precedence between a PayloadEvent and another PayloadEvent.

template<class DataT1 , SchedulingPhase PayloadPhaseT1, SchedulingPhase PayloadPhaseT2>
UniqueEvent< PayloadPhaseT2 > &	operator>> (PayloadEvent< DataT1, PayloadPhaseT1 > &producer, UniqueEvent< PayloadPhaseT2 > &consumer)
	Place a precedence between a PayloadEvent and UniqueEvent.

template<class DataT1 , SchedulingPhase PayloadPhaseT1, SchedulingPhase PayloadPhaseT2>
SingleCycleUniqueEvent< PayloadPhaseT2 > &	operator>> (PayloadEvent< DataT1, PayloadPhaseT1 > &producer, SingleCycleUniqueEvent< PayloadPhaseT2 > &consumer)
	Place a precedence between a PayloadEvent and SingleCycleUniqueEvent.

template<class DataT1 , SchedulingPhase PayloadPhaseT1, SchedulingPhase PayloadPhaseT2>
Event< PayloadPhaseT2 > &	operator>> (PayloadEvent< DataT1, PayloadPhaseT1 > &producer, Event< PayloadPhaseT2 > &consumer)
	Place a precedence between a PayloadEvent and an Event.

template<SchedulingPhase PayloadPhaseT1, class DataT2 , SchedulingPhase PayloadPhaseT2>
PayloadEvent< DataT2, PayloadPhaseT2 > &	operator>> (UniqueEvent< PayloadPhaseT1 > &producer, PayloadEvent< DataT2, PayloadPhaseT2 > &consumer)
	Place a precedence between a PayloadEvent and an UniqueEvent.

template<SchedulingPhase PayloadPhaseT1, class DataT2 , SchedulingPhase PayloadPhaseT2>
PayloadEvent< DataT2, PayloadPhaseT2 > &	operator>> (SingleCycleUniqueEvent< PayloadPhaseT1 > &producer, PayloadEvent< DataT2, PayloadPhaseT2 > &consumer)
	Place a precedence between a PayloadEvent and an SingleCycleUniqueEvent.

template<SchedulingPhase PayloadPhaseT1, class DataT2 , SchedulingPhase PayloadPhaseT2>
PayloadEvent< DataT2, PayloadPhaseT2 > &	operator>> (Event< PayloadPhaseT1 > &producer, PayloadEvent< DataT2, PayloadPhaseT2 > &consumer)
	Place a precedence between a Event and an PayloadEvent.

template<SchedulingPhase PayloadPhaseT1, SchedulingPhase PayloadPhaseT2>
UniqueEvent< PayloadPhaseT2 > &	operator>> (UniqueEvent< PayloadPhaseT1 > &producer, UniqueEvent< PayloadPhaseT2 > &consumer)
	Place a precedence between a UniqueEvent and an UniqueEvent.

template<SchedulingPhase PayloadPhaseT1, SchedulingPhase PayloadPhaseT2>
SingleCycleUniqueEvent< PayloadPhaseT2 > &	operator>> (UniqueEvent< PayloadPhaseT1 > &producer, SingleCycleUniqueEvent< PayloadPhaseT2 > &consumer)
	Place a precedence between a UniqueEvent and an SingleCycleUniqueEvent.

template<SchedulingPhase PayloadPhaseT1, SchedulingPhase PayloadPhaseT2>
UniqueEvent< PayloadPhaseT2 > &	operator>> (SingleCycleUniqueEvent< PayloadPhaseT1 > &producer, UniqueEvent< PayloadPhaseT2 > &consumer)
	Place a precedence between a SingleCycleUniqueEvent and an UniqueEvent.

template<SchedulingPhase PhaseT1, SchedulingPhase PhaseT2>
SingleCycleUniqueEvent< PhaseT2 > &	operator>> (SingleCycleUniqueEvent< PhaseT1 > &producer, SingleCycleUniqueEvent< PhaseT2 > &consumer)
	Place a precedence between a SingleCycleUniqueEvent and a SingleCycleUniqueEvent.

template<SchedulingPhase PhaseT1, SchedulingPhase PhaseT2>
Event< PhaseT2 > &	operator>> (Event< PhaseT1 > &producer, Event< PhaseT2 > &consumer)
	Place a precedence between a Event and another Event.

template<class EventT1 , class EventT2 >
std::unique_ptr< EventT2 > &	operator>> (std::unique_ptr< EventT1 > &producer, std::unique_ptr< EventT2 > &consumer)
	Place a precedence between a std::unique_ptr<EventT1> and another std::unique_ptr<EventT2>

template<class EventT1 , class EventT2 >
std::unique_ptr< EventT2 > &	operator>> (EventT1 &producer, std::unique_ptr< EventT2 > &consumer)
	Place a precedence between an EventT1 and std::unique_ptr<EventT2>

template<class EventT1 , class EventT2 >
EventT2 &	operator>> (std::unique_ptr< EventT1 > &producer, EventT2 &consumer)
	Place a precedence between a std::unique_ptr<EventT1> and EventT2.

template<class DataT2 , SchedulingPhase phase>
PayloadEvent< DataT2, phase > &	operator>> (Scheduleable &producer, PayloadEvent< DataT2, phase > &consumer)
	Place a precedence between a Scheduleable and a PayloadEvent.

template<class DataT1 , SchedulingPhase phase>
Scheduleable &	operator>> (PayloadEvent< DataT1, phase > &producer, Scheduleable &consumer)
	Place a precedence between a PayloadEvent and a Scheduleable.

template<class ScheduleableType >
std::enable_if< std::is_base_of< Scheduleable, ScheduleableType >::value, Bus >::type &	operator>> (ScheduleableType &producer, Bus &consumer)
	Place a precedence between a Scheduleable and a Bus.

template<class ScheduleableType >
std::enable_if< std::is_base_of< Scheduleable, ScheduleableType >::value, ScheduleableType >::type &	operator>> (Bus &producer, ScheduleableType &consumer)
	Place a precedence between a Bus and a Scheduleable.

template<class ScheduleableTypeB >
ScheduleableTypeB &	operator>> (const EventGroup &producers, ScheduleableTypeB &consumer)

template<class ScheduleableTypeA >
const EventGroup &	operator>> (ScheduleableTypeA &producer, const EventGroup &consumers)

const EventGroup &	operator>> (const EventGroup &producers, const EventGroup &consumers)

Scheduleable &	operator>> (Scheduleable &producer, Scheduleable &consumer)

std::ostream &	operator<< (std::ostream &os, const SchedulingPhase &phase)
	Print the SchedulingPhase.

bool	operator== (const RegisterBase::Definition &a, const RegisterBase::Definition &b)

bool	operator!= (const RegisterBase::Definition &a, const RegisterBase::Definition &b)

bool	operator== (const RegisterProxyBase::Definition &a, const RegisterProxyBase::Definition &b)

bool	operator!= (const RegisterProxyBase::Definition &a, const RegisterProxyBase::Definition &b)

std::ostream &	operator<< (std::ostream &os, const DAG &d)

std::ostream &	operator<< (std::ostream &os, const DAG *d)

std::ostream &	operator<< (std::ostream &o, const NotificationSourceBase::ObservationStateCallback &osc)

std::ostream &	operator<< (std::ostream &o, const NotificationSourceBase::ObservationStateCallback *osc)

void	bind (Bus p1, Bus p2)
	Bind two buses together.

void	bind (Bus &p1, Bus &p2)
	Bind two buses together.

void	bind (Bus *p1, Bus &p2)
	Bind two buses together.

void	bind (Bus &p1, Bus *p2)
	Bind two buses together.

void	bind (Port p1, Port p2)
	Bind two ports together.

void	bind (Port &p1, Port &p2)
	Bind two ports together.

void	bind (Port *p1, Port &p2)
	Bind two ports together.

void	bind (Port &p1, Port *p2)
	Bind two ports together.

std::string	printBitSet (const Scoreboard::RegisterBitMask &bits)

std::ostream &	operator<< (std::ostream &os, const sparta::Clock &clk)

Scheduler::Tick	calculateClockCrossingDelay (Scheduler::Tick src_delay, const Clock src_clk, Scheduler::Tick dst_delay, const Clock dst_clk)

Scheduler::Tick	calculateReverseClockCrossingDelay (Scheduler::Tick dst_arrival_tick, Scheduler::Tick src_delay, const Clock src_clk, Scheduler::Tick dst_delay, const Clock dst_clk)

std::ostream &	operator<< (std::ostream &os, const ClockManager &m)

template<typename T >
T	smartLexicalCast (const ParameterBase *p, const std::string &s, size_t &end_pos, bool allow_recursion=true, bool allow_prefix=true)
	smartLexicalCast wrapper with parameter information added to exceptions

std::ostream &	operator<< (std::ostream &o, const ParameterTree::Node &n)

std::ostream &	operator<< (std::ostream &o, const ParameterTree::Node *n)

template<class Ch , class Tr >
std::basic_ostream< Ch, Tr > &	operator<< (std::basic_ostream< Ch, Tr > &out, sparta::TreeNode const &tn)
	TreeNode stream operator.

std::ostream &	operator<< (std::ostream &out, sparta::TreeNode const *tn)
	TreeNode stream operator.

ExtensionDescriptorVec	createExtensionDescriptorsFromFile (const std::string &def_file, TreeNode *context)
	Given a tree node extension YAML file, parse it out into individual descriptors, one for each extension defined in the file.

ExtensionDescriptorVec	createExtensionDescriptorsFromDefinitionString (const std::string &def_string, TreeNode *context)
	Given a tree node extension definition string, parse it out into individual descriptors.

template<typename U >
MetaStruct::enable_if_t< not sparta::is_sparta_enum< U >::value and sparta::utils::has_ostream_operator< U >::value, void >	getHumanReadableHistogramBinNames (std::vector< std::string > &enum_name_strings)
	Given an enum class type, this method figures out the string.

template<typename U >
MetaStruct::enable_if_t< not sparta::is_sparta_enum< U >::value and not sparta::utils::has_ostream_operator< U >::value, void >	getHumanReadableHistogramBinNames (std::vector< std::string > &)
	Given an enum class type, this method figures out the string.

template<typename U >
MetaStruct::enable_if_t< sparta::is_sparta_enum< U >::value, void >	getHumanReadableHistogramBinNames (std::vector< std::string > &enum_name_strings)
	Given an enum class type, this method figures out the string.

std::ostream &	operator<< (std::ostream &out, sparta::StatisticInstance const &si)
	StatisticInstance stream operator.

std::ostream &	operator<< (std::ostream &out, sparta::StatisticInstance const *si)
	TreeNode stream operator.

template<typename T >
std::enable_if< std::is_integral< T >::value, T >::type	byte_swap (T val)
	Swaps the order of bytes for various types.

template<>
uint8_t	byte_swap (uint8_t val)

template<>
int8_t	byte_swap (int8_t val)

template<>
uint16_t	byte_swap (uint16_t val)

template<>
int16_t	byte_swap (int16_t val)

template<>
uint32_t	byte_swap (uint32_t val)

template<>
int32_t	byte_swap (int32_t val)

template<>
uint64_t	byte_swap (uint64_t val)

template<>
int64_t	byte_swap (int64_t val)

template<typename T , enum ByteOrder BO>
std::enable_if< std::is_same< boost::mpl::int_< BO >, boost::mpl::int_< BE > >::value, T >::type	reorder (const T &t)

template<typename T , enum ByteOrder BO>
std::enable_if< std::is_same< boost::mpl::int_< BO >, boost::mpl::int_< LE > >::value, T >::type	reorder (const T &t)

template<class T >
T	lexicalCast (const std::string &str, uint32_t base=10)

template<class T >
MetaStruct::enable_if_t< MetaStruct::is_stl< T >::value and std::is_same< typename T::value_type, bool >::value, T >	lexicalCast (const std::string &str, uint32_t base=10)=delete

template<>
std::string	lexicalCast (const std::string &str, uint32_t base)

template<>
bool	lexicalCast (const std::string &str, uint32_t base)

template<>
uint64_t	lexicalCast (const std::string &str, uint32_t base)

template<>
int64_t	lexicalCast (const std::string &str, uint32_t base)

template<>
uint32_t	lexicalCast (const std::string &str, uint32_t base)

template<>
int32_t	lexicalCast (const std::string &str, uint32_t base)

uint32_t	numDecDigits (uint32_t val)
	Gets number of decimal digits in a uint32_t.

template<typename PtrT , typename Ptr2 >
bool	operator== (const SpartaSharedPointer< PtrT > &ptr1, const SpartaSharedPointer< Ptr2 > &ptr2) noexcept

template<typename PtrT >
bool	operator== (const SpartaSharedPointer< PtrT > &ptr1, std::nullptr_t) noexcept

template<typename PtrT >
bool	operator== (std::nullptr_t, const SpartaSharedPointer< PtrT > &ptr1) noexcept

template<typename PtrT , typename Ptr2 >
bool	operator!= (const SpartaSharedPointer< PtrT > &ptr1, const SpartaSharedPointer< Ptr2 > &ptr2) noexcept

template<typename PtrT >
bool	operator!= (const SpartaSharedPointer< PtrT > &ptr1, std::nullptr_t) noexcept

template<typename PtrT >
bool	operator!= (std::nullptr_t, const SpartaSharedPointer< PtrT > &ptr1) noexcept

template<typename PtrT >
std::ostream &	operator<< (std::ostream &os, const SpartaSharedPointer< PtrT > &p)

template<typename PointerT , typename... Args>
SpartaSharedPointer< PointerT >	allocate_sparta_shared_pointer (SpartaSharedPointerAllocator< PointerT > &alloc, Args &&...args)
	Allocate a SpartaSharedPointer.

std::ostream &	operator<< (std::ostream &os, const Tag &tag)
	<<(): Stream insertion operator

std::ostream &	operator<< (std::ostream &os, const Tag *tag)
	<<(): Stream insertion operator (for Tag pointers)

template<typename K , typename V , typename... Args, template< typename... > class MapType>
MapType< V, K >	flipMap (const MapType< K, V, Args... > &map)
	Function to invert a maps or an unordered_map, or any type of class that has key/value semantics. The variadic template argument is necessary 'cause map/unordered_map don't have just two template parameters.

bool	isPowerOf2 (uint64_t x)
	Determines if input is 0 or a power of 2.

template<typename T >
T	computeMask (T size, T &lsb_pos)
	Computes a maks and the lsb-position given a block size. The mask generated can be AND-ed with any number to get a value rounded down to the nearest multiple of size.

template<typename T >
T	computeMaskShift (T size)
	Convenience wrapper around computeMask to get the shift value.

std::string	demangle (const std::string &name) noexcept
	Demangles a C++ symbol.

template<typename T >
T *	notNull (T *p)
	Ensures that a pointer is not null.

uint32_t	replaceSubstring (std::string &s, const std::string &from, const std::string &to)
	Replaces within a string 's' all instances of some string 'from' with 'to'.

std::string	copyWithReplace (const std::string &s, char from, const std::string &to)
	Copies from 1 string to another with replacement of a single character with a string.

std::string	convertCPPStringToPython (const std::string &s)
	Take all of the C++-isms out of a string (like parens, angle brackets, colons, etc) and replace them with an '_'.

void	writeNChars (std::ostream &out, uint32_t num, char chr=' ')
	Insert a number of some character into an ostream.

std::string	toLower (const std::string &s)
	Makes a copy of an input string s in lower-case.

template<typename T >
std::ostream &	operator<< (std::ostream &o, const AssignOnceObject< T > &v)

Variables
const uint32_t	NUM_SCHEDULING_PHASES
	The number of phases.

static class sparta::SpartaStaticInitializer	_SpartaStaticInitializer

Detailed Description

Macros for handling exponential backoff.

Typedef Documentation

◆ CycleHistogram

using sparta::CycleHistogram = typedef CycleHistogramTreeNode

Definition at line 796 of file CycleHistogram.hpp.

◆ ExtensionDescriptorVec

typedef std::vector<std::unique_ptr<ExtensionDescriptor> > sparta::ExtensionDescriptorVec

Definition at line 180 of file TreeNode.hpp.

◆ Histogram

typedef HistogramTreeNode sparta::Histogram

Definition at line 526 of file Histogram.hpp.

◆ HistStatCalcFcn

template<typename T >

using sparta::HistStatCalcFcn = typedef double (*)(const T*)

Definition at line 75 of file HistogramFunctionManager.hpp.

◆ ProxyDefinitionSet

using sparta::ProxyDefinitionSet = typedef __RegisterDefintionSet<sparta::RegisterProxyBase>

Definition at line 64 of file RegisterDefinitionSet.hpp.

◆ RegisterDefinitionSet

using sparta::RegisterDefinitionSet = typedef __RegisterDefintionSet<sparta::RegisterBase>

Definition at line 61 of file RegisterDefinitionSet.hpp.

◆ StateTimerDataContainerPtr

typedef std::shared_ptr<std::unordered_map<uint32_t, std::vector<sparta::Clock::Cycle> *> > sparta::StateTimerDataContainerPtr

Definition at line 24 of file StateTimerUnit.hpp.

Enumeration Type Documentation

◆ ArrayType

enum class sparta::ArrayType

strong

Defines how a sparta::Array should behave. The array will have different features depending on the type.

Enumerator
NORMAL	The array does NOT allow access or maintain information about age.
AGED	The array allows fuctions that require a concept of age in each entry

Definition at line 27 of file Array.hpp.

◆ ByteOrder

enum sparta::ByteOrder

Byte order enum for read/write methods.

Example 32 Byte register layout which can be accessed as smaller types by index. Layout in memory is unaware of byte-order. Read/Write methods dictate the storage.

The following shows how the value index offset and access sizes map to some data in memory.

* MEMORY   addr: 0x 0     2     4     6     8     a     c     e     10    12    14    16    18    1a    1c    1e    20
*                   [- -- -- -- -- -- -- -- -- -- -- -- -- -- -- -- 32 -- -- -- -- -- -- -- -- -- -- -- -- -- -- -- )
*                   [- -- -- -- -- -- -- -- 16 -- -- -- -- -- -- -- )                       ,                       ,
*                   [- -- -- -- 8- -- -- -- )                                                                       ,
*                   [- -- 4- -- )           ,                       ,                       ,                       ,
*                   [- 2- )                                                                                         ,
*                   [- )        .           ,           .           ,           .           ,           .           ,
*          val: 0x  00 01 02 03 04 05 06 07 08 09 0a 0b 0c 0d 0e 0f 10 11 12 13 14 15 16 17 18 19 1a 1b 1c 1d 1e 1f ,
*
* Little (LE)       ,                                               ,                                               ,
*                   LSB                                             ,                                            MSB,
*  type      idx    ,                                               ,                                               ,
*  uint64_t  0      [- -- -- -- -- -- -- -]                         ,                                               , => 0x0706050403020100
*  uint64_t  3      ,                                               ,                       [- -- -- -- -- -- -- -] , => 0x1f1e1d1c1b1a1918
*  uint32_t  0      [- -- -- -]                                     ,                                               , => 0x03020100
*  uint32_t  1      ,           [- -- -- -]                         ,                                               , => 0x07060504
*  uint8_t   1      ,  []                                           ,                                               , => 0x01
*
* Big (BE)          ,                                               ,                                               ,
*                   MSB                                             ,                                            LSB,
*  uint64_t  0      [- -- -- -- -- -- -- -]                         ,                                               , => 0x0001020304050607
*  uint64_t  3      ,                                               ,                       [- -- -- -- -- -- -- -] m => 0x18191a1b1c1d1e1f
*  uint8_t   1      ,  []                                           ,                                               , => 0x01
*
* Bitfield (LE)     ,                                               ,                                               ,
*  07-00            []                                              ,                                               , => 0x00
*  15-08            ,  []                                           ,                                               , => 0x01
*  23-16            ,     []                                        ,                                               , => 0x02
*  31-24            ,        []                                     ,                                               , => 0x03
*
*

Enumerator
BE	Little endian.

Definition at line 73 of file ByteOrder.hpp.

◆ SchedulingPhase

enum class sparta::SchedulingPhase

strong

The SchedulingPhases used for events (Tick, Update, PortUpdate, etc)

SchedulingPhase are phases within the SPARTA framework that allow a user to "categorize" events, ports, collection, and updatables into groups for auto-precedence establishment.

The current organization of this framework is UPCaT (Updateables, Ports, Collection, and Tick [incl PostTick]) or more specifically:

Updatables are ordered first (sparta::SchedulingPhase::Update)
Ports, N-Cycle where N > 0, that transfer/append to resources (like pipes, buffers) are updated next (specifically, registered handlers are called) (sparta::SchedulingPhase::PortUpdate)
Collection for pipeline viewing (sparta::SchedulingPhase::Collection)
Tickables, or simulation components that operate on data from updatables and ports. (sparta::SchedulingPhase::Tick)
Post-tickables, or events fired after all Tick events (sparta::SchedulingPhase::PostTick)

What happens in the framework is that all Scheduleable objects that are in the SchedulingPhase::Update phase will be organized on the Scheduler before SchedulingPhase::PortUpdate Scheduleable events, which are before SchedulingPhase::Collection Scheduleable objects, and so on. Within a specific phase, a modeler can order events as well. For example, two events in the SchedulingPhase::Tick can be ordered using the ">>" operator. See Precedence.h for more information.

For 0-cycle Ports, SchedulingPhase::PortUpdate events occur in the SchedulingPhase::Tick scheduling phase and are ordered with other events also in the SchedulingPhase::Tick scheduling phase. This only happens, however, when precedence is established between the Port and that subsequent events. This precedence is established by calling Port::registerConsumerEvent or Port::registerProducingEvent (depending on the sparta::Port::Direction).

Enumerator
Update	Resources are updated in this phase.
PortUpdate	N-cycle Ports are updated in this phase.
Flush	Phase where flushing of pipelines, etc can occur.
Collection	Pipeline collection occurs here.
Tick	Most operations (combinational logic) occurs in this phase.
PostTick	Operations such as post-tick pipeline collection occur here.

Definition at line 57 of file SchedulingPhases.hpp.

Function Documentation

◆ allocate_sparta_shared_pointer()

template<typename PointerT , typename... Args>

SpartaSharedPointer< PointerT > sparta::allocate_sparta_shared_pointer	(	SpartaSharedPointerAllocator< PointerT > &	alloc,
		Args &&...	args
	)

Allocate a SpartaSharedPointer.

Template Parameters

PointerT The pointer type to allocate

Parameters

args	Arguments to the class being instantiated

Returns: sparta::SpartaSharedPointer type

Allocate a SpartaSharedPointer using the SpartaSharedPointerAllocator instance found in the PointerT.

See SpartaSharedPointerAllocator for example usage

Definition at line 488 of file SpartaSharedPointerAllocator.hpp.

◆ bind() [1/8]

void sparta::bind	(	Bus &	p1,
		Bus &	p2
	)

inline

Bind two buses together.

Parameters

p1	First bus to bind to
p2	Second bus to bind to

This method will bi-directionally bind two buses together

Definition at line 346 of file Bus.hpp.

Here is the call graph for this function:

◆ bind() [2/8]

void sparta::bind	(	Bus &	p1,
		Bus *	p2
	)

inline

Bind two buses together.

Parameters

p1	First bus to bind to
p2	Second bus to bind to

This method will bi-directionally bind two buses together

Definition at line 369 of file Bus.hpp.

Here is the call graph for this function:

◆ bind() [3/8]

void sparta::bind	(	Bus *	p1,
		Bus &	p2
	)

inline

Bind two buses together.

Parameters

p1	First bus to bind to
p2	Second bus to bind to

This method will bi-directionally bind two buses together

Definition at line 357 of file Bus.hpp.

Here is the call graph for this function:

◆ bind() [4/8]

void sparta::bind	(	Bus *	p1,
		Bus *	p2
	)

inline

Bind two buses together.

Parameters

p1	First bus to bind to
p2	Second bus to bind to

This method will bi-directionally bind two buses together

Definition at line 333 of file Bus.hpp.

Here is the call graph for this function:

◆ bind() [5/8]

void sparta::bind	(	Port &	p1,
		Port &	p2
	)

inline

Bind two ports together.

Parameters

p1	First port to bind to
p2	Second port to bind to

This method will bi-directionally bind two ports together

Definition at line 680 of file Port.hpp.

Here is the call graph for this function:

◆ bind() [6/8]

void sparta::bind	(	Port &	p1,
		Port *	p2
	)

inline

Bind two ports together.

Parameters

p1	First port to bind to
p2	Second port to bind to

This method will bi-directionally bind two ports together

Definition at line 703 of file Port.hpp.

Here is the call graph for this function:

◆ bind() [7/8]

void sparta::bind	(	Port *	p1,
		Port &	p2
	)

inline

Bind two ports together.

Parameters

p1	First port to bind to
p2	Second port to bind to

This method will bi-directionally bind two ports together

Definition at line 691 of file Port.hpp.

Here is the call graph for this function:

◆ bind() [8/8]

void sparta::bind	(	Port *	p1,
		Port *	p2
	)

inline

Bind two ports together.

Parameters

p1	First port to bind to
p2	Second port to bind to

This method will bi-directionally bind two ports together

Definition at line 667 of file Port.hpp.

Here is the call graph for this function:

◆ byte_swap() [1/9]

template<>

int16_t sparta::byte_swap ( int16_t val )

inline

Definition at line 109 of file ByteOrder.hpp.

◆ byte_swap() [2/9]

template<>

int32_t sparta::byte_swap ( int32_t val )

inline

Definition at line 121 of file ByteOrder.hpp.

◆ byte_swap() [3/9]

template<>

int64_t sparta::byte_swap ( int64_t val )

inline

Definition at line 133 of file ByteOrder.hpp.

◆ byte_swap() [4/9]

template<>

int8_t sparta::byte_swap ( int8_t val )

inline

Definition at line 97 of file ByteOrder.hpp.

◆ byte_swap() [5/9]

template<typename T >

sparta::byte_swap ( T val )

inline

Swaps the order of bytes for various types.

Definition at line 83 of file ByteOrder.hpp.

◆ byte_swap() [6/9]

template<>

uint16_t sparta::byte_swap ( uint16_t val )

inline

Definition at line 103 of file ByteOrder.hpp.

◆ byte_swap() [7/9]

template<>

uint32_t sparta::byte_swap ( uint32_t val )

inline

Definition at line 115 of file ByteOrder.hpp.

◆ byte_swap() [8/9]

template<>

uint64_t sparta::byte_swap ( uint64_t val )

inline

Definition at line 127 of file ByteOrder.hpp.

◆ byte_swap() [9/9]

template<>

uint8_t sparta::byte_swap ( uint8_t val )

inline

Definition at line 91 of file ByteOrder.hpp.

◆ calculateClockCrossingDelay()

Scheduler::Tick sparta::calculateClockCrossingDelay	(	Scheduler::Tick	src_delay,
		const Clock *	src_clk,
		Scheduler::Tick	dst_delay,
		const Clock *	dst_clk
	)

inline

Definition at line 395 of file Clock.hpp.

◆ calculateReverseClockCrossingDelay()

Scheduler::Tick sparta::calculateReverseClockCrossingDelay	(	Scheduler::Tick	dst_arrival_tick,
		Scheduler::Tick	src_delay,
		const Clock *	src_clk,
		Scheduler::Tick	dst_delay,
		const Clock *	dst_clk
	)

inline

Definition at line 454 of file Clock.hpp.

◆ computeMask()

template<typename T >

T sparta::computeMask	(	T	size,
		T &	lsb_pos
	)

inline

Computes a maks and the lsb-position given a block size. The mask generated can be AND-ed with any number to get a value rounded down to the nearest multiple of size.

Template Parameters

T	Type of value to compute mask for. Expected to be uint[XX]_t.

Parameters

size	Size for which the mask and lsbshould be computed.
lsb_pos	Bit position of lsb in mask. A value can be shifted right by this amount to effectively get a "block index" which is the mask / size.

Returns: Mask computed as described

If size = 0, lsb_pos is number of bits in T and mask returned is 0.

Definition at line 160 of file Utils.hpp.

◆ computeMaskShift()

template<typename T >

T sparta::computeMaskShift ( T size )

inline

Convenience wrapper around computeMask to get the shift value.

See also: computeMask

This exists so that the shift can be computed in a constructor initialization list.

Definition at line 187 of file Utils.hpp.

Here is the call graph for this function:

◆ convertCPPStringToPython()

std::string sparta::convertCPPStringToPython ( const std::string & s )

inline

Take all of the C++-isms out of a string (like parens, angle brackets, colons, etc) and replace them with an '_'.

Parameters

s	The string to clean up

Returns: The cleaned up string

Definition at line 307 of file Utils.hpp.

◆ copyWithReplace()

std::string sparta::copyWithReplace	(	const std::string &	s,
		char	from,
		const std::string &	to
	)

inline

Copies from 1 string to another with replacement of a single character with a string.

Result should be moved if possible

Definition at line 282 of file Utils.hpp.

◆ demangle()

std::string sparta::demangle ( const std::string & name )

inlinenoexcept

Demangles a C++ symbol.

Parameters

Name	Symbol name to demangle

Returns: Demangled name if successful. If failed, returns the input name. Note that demangled names may match input name.

Note: Demangling is limited by DEMANGLE_BUF_LENGTH. results may be truncated or fail for very symbols. Change this value to support longer symbol names.

Definition at line 203 of file Utils.hpp.

◆ flipMap()

template<typename K , typename V , typename... Args, template< typename... > class MapType>

MapType< V, K > sparta::flipMap ( const MapType< K, V, Args... > & map )

Function to invert a maps or an unordered_map, or any type of class that has key/value semantics. The variadic template argument is necessary 'cause map/unordered_map don't have just two template parameters.

Definition at line 93 of file Utils.hpp.

◆ GetFeatureOptions() [1/2]

template<typename T >

std::enable_if< std::is_same< T, app::FeatureConfiguration >::value, constapp::FeatureConfiguration::FeatureOptions * >::type sparta::GetFeatureOptions	(	const T &	cfg,
		const std::string &	feature_name
	)

Utility in the sparta namespace that gets the named FeatureOptions object from a FeatureConfiguration set

Definition at line 308 of file FeatureConfiguration.hpp.

◆ GetFeatureOptions() [2/2]

template<typename T >

std::enable_if< MetaStruct::is_any_pointer< T >::value, constapp::FeatureConfiguration::FeatureOptions * >::type sparta::GetFeatureOptions	(	const T &	cfg,
		const std::string &	feature_name
	)

Utility in the sparta namespace which gets the named FeatureOptions object from a FeatureConfiguration which may be null

Definition at line 320 of file FeatureConfiguration.hpp.

Here is the call graph for this function:

◆ getHumanReadableHistogramBinNames() [1/3]

template<typename U >

MetaStruct::enable_if_t< not sparta::is_sparta_enum::value and not sparta::utils::has_ostream_operator::value, void > sparta::getHumanReadableHistogramBinNames ( std::vector< std::string > & )

Given an enum class type, this method figures out the string.

Definition at line 72 of file EnumCycleHistogram.hpp.

◆ getHumanReadableHistogramBinNames() [2/3]

template<typename U >

MetaStruct::enable_if_t< not sparta::is_sparta_enum::value and sparta::utils::has_ostream_operator::value, void > sparta::getHumanReadableHistogramBinNames ( std::vector< std::string > & enum_name_strings )

Given an enum class type, this method figures out the string.

Definition at line 49 of file EnumCycleHistogram.hpp.

◆ getHumanReadableHistogramBinNames() [3/3]

template<typename U >

MetaStruct::enable_if_t< sparta::is_sparta_enum::value, void > sparta::getHumanReadableHistogramBinNames ( std::vector< std::string > & enum_name_strings )

Given an enum class type, this method figures out the string.

Definition at line 79 of file EnumCycleHistogram.hpp.

◆ IsFeatureValueEnabled() [1/2]

template<typename T >

std::enable_if< std::is_same< T, app::FeatureConfiguration >::value, bool >::type sparta::IsFeatureValueEnabled	(	const T &	cfg,
		const std::string &	feature_name
	)

Utility in the sparta namespace that checks if a feature value has been set to any positive number (0=disabled, >0=enabled)

Definition at line 281 of file FeatureConfiguration.hpp.

◆ IsFeatureValueEnabled() [2/2]

template<typename T >

std::enable_if< MetaStruct::is_any_pointer< T >::value, bool >::type sparta::IsFeatureValueEnabled	(	const T &	cfg,
		const std::string &	feature_name
	)

Utility in the sparta namespace that asks a FeatureConfiguration if the provided feature is enabled, for a FeatureConfiguration that may be null

Definition at line 295 of file FeatureConfiguration.hpp.

Here is the call graph for this function:

◆ IsFeatureValueEqualTo() [1/2]

template<typename T >

std::enable_if< std::is_same< T, app::FeatureConfiguration >::value, bool >::type sparta::IsFeatureValueEqualTo	(	const T &	cfg,
		const std::string &	feature_name,
		const unsigned int	feature_value
	)

Utility in the sparta namespace that checks a FeatureConfiguration for a specific feature's current value (typically 1=enabled, and 0=disabled, but there could be more feature values too)

Definition at line 253 of file FeatureConfiguration.hpp.

◆ IsFeatureValueEqualTo() [2/2]

template<typename T >

std::enable_if< MetaStruct::is_any_pointer< T >::value, bool >::type sparta::IsFeatureValueEqualTo	(	const T &	cfg,
		const std::string &	feature_name,
		const unsigned int	feature_value
	)

Utility in the sparta namespace that checks for a FeatureConfiguration value, with a FeatureConfiguration that may be null

Definition at line 267 of file FeatureConfiguration.hpp.

Here is the call graph for this function:

◆ isPowerOf2()

bool sparta::isPowerOf2 ( uint64_t x )

inline

Determines if input is 0 or a power of 2.

Returns: true if number is 0 or a power of 2

Note: Counting set bits is likely the fastest way to do this, though it probably doesn't make a difference if this is just used for checking register sizes during initialization. \warn Do not use this method in performance-critical code until it is faster.

Definition at line 142 of file Utils.hpp.

◆ lexicalCast() [1/8]

template<>

std::string sparta::lexicalCast	(	const std::string &	str,
		uint32_t	base
	)

inline

Definition at line 100 of file LexicalCast.hpp.

◆ lexicalCast() [2/8]

template<>

bool sparta::lexicalCast	(	const std::string &	str,
		uint32_t	base
	)

inline

Definition at line 106 of file LexicalCast.hpp.

◆ lexicalCast() [3/8]

template<>

uint64_t sparta::lexicalCast	(	const std::string &	str,
		uint32_t	base
	)

inline

Definition at line 130 of file LexicalCast.hpp.

◆ lexicalCast() [4/8]

template<>

int64_t sparta::lexicalCast	(	const std::string &	str,
		uint32_t	base
	)

inline

Definition at line 144 of file LexicalCast.hpp.

◆ lexicalCast() [5/8]

template<>

uint32_t sparta::lexicalCast	(	const std::string &	str,
		uint32_t	base
	)

inline

Definition at line 158 of file LexicalCast.hpp.

◆ lexicalCast() [6/8]

template<>

int32_t sparta::lexicalCast	(	const std::string &	str,
		uint32_t	base
	)

inline

Definition at line 176 of file LexicalCast.hpp.

◆ lexicalCast() [7/8]

template<class T >

T sparta::lexicalCast	(	const std::string &	str,
		uint32_t	base = `10`
	)

inlinedelete

Cast string to T where T is either ValueType or (if ValueType is a vector) a vector's value_type.

boost::lexical_cast and ios_base::operator>> fail to determine type of an integer literal. For example, 0xdeadbeef is blindly interpreted as 0 with leftover characters. 070 is interpreted as decimal 70.

This attempts to interpret hex and octal in addition to decimal, and string values.

Exceptions

SpartaException if cast fails.

Definition at line 79 of file LexicalCast.hpp.

◆ lexicalCast() [8/8]

template<class T >

MetaStruct::enable_if_t< MetaStruct::is_stl< T >::value and std::is_same< typename T::value_type, bool >::value, T > sparta::lexicalCast	(	const std::string &	str,
		uint32_t	base = `10`
	)

inlinedelete

Cast string to T where T is either ValueType or (if ValueType is a vector) a vector's value_type.

boost::lexical_cast and ios_base::operator>> fail to determine type of an integer literal. For example, 0xdeadbeef is blindly interpreted as 0 with leftover characters. 070 is interpreted as decimal 70.

This attempts to interpret hex and octal in addition to decimal, and string values.

Exceptions

SpartaException if cast fails.

Definition at line 79 of file LexicalCast.hpp.

◆ notNull()

template<typename T >

T * sparta::notNull ( T * p )

inline

Ensures that a pointer is not null.

Parameters

p	Pointer to check

Returns: p unless exception is thrown

Exceptions

SpartaException if pointer is null.

Useful for checking for null in constructor initializer lists which refer to members through object pointers.

Definition at line 224 of file Utils.hpp.

Here is the call graph for this function:

◆ numDecDigits()

uint32_t sparta::numDecDigits ( uint32_t val )

inline

Gets number of decimal digits in a uint32_t.

Definition at line 190 of file LexicalCast.hpp.

◆ operator!=() [1/5]

bool sparta::operator!=	(	const RegisterBase::Definition &	a,
		const RegisterBase::Definition &	b
	)

inline

Definition at line 1463 of file Register.hpp.

◆ operator!=() [2/5]

bool sparta::operator!=	(	const RegisterProxyBase::Definition &	a,
		const RegisterProxyBase::Definition &	b
	)

inline

Definition at line 126 of file RegisterSet.hpp.

◆ operator!=() [3/5]

template<typename PtrT , typename Ptr2 >

bool sparta::operator!=	(	const SpartaSharedPointer< PtrT > &	ptr1,
		const SpartaSharedPointer< Ptr2 > &	ptr2
	)

noexcept

Definition at line 539 of file SpartaSharedPointer.hpp.

◆ operator!=() [4/5]

template<typename PtrT >

bool sparta::operator!=	(	const SpartaSharedPointer< PtrT > &	ptr1,
		std::nullptr_t
	)

noexcept

Definition at line 543 of file SpartaSharedPointer.hpp.

◆ operator!=() [5/5]

template<typename PtrT >

bool sparta::operator!=	(	std::nullptr_t	,
		const SpartaSharedPointer< PtrT > &	ptr1
	)

noexcept

Definition at line 547 of file SpartaSharedPointer.hpp.

◆ operator<<() [1/17]

template<class Ch , class Tr >

std::basic_ostream< Ch, Tr > & sparta::operator<<	(	std::basic_ostream< Ch, Tr > &	out,
		sparta::TreeNode const &	tn
	)

inline

TreeNode stream operator.

Definition at line 180 of file TreeNode.hpp.

◆ operator<<() [2/17]

template<typename T >

std::ostream & sparta::operator<<	(	std::ostream &	o,
		const AssignOnceObject< T > &	v
	)

inline

Definition at line 567 of file Utils.hpp.

◆ operator<<() [3/17]

std::ostream & sparta::operator<<	(	std::ostream &	o,
		const NotificationSourceBase::ObservationStateCallback &	osc
	)

inline

Definition at line 1216 of file NotificationSource.hpp.

◆ operator<<() [4/17]

std::ostream & sparta::operator<<	(	std::ostream &	o,
		const NotificationSourceBase::ObservationStateCallback *	osc
	)

inline

Definition at line 1222 of file NotificationSource.hpp.

◆ operator<<() [5/17]

std::ostream & sparta::operator<<	(	std::ostream &	o,
		const ParameterTree::Node &	n
	)

inline

Definition at line 1310 of file ParameterTree.hpp.

◆ operator<<() [6/17]

std::ostream & sparta::operator<<	(	std::ostream &	o,
		const ParameterTree::Node *	n
	)

inline

Definition at line 1315 of file ParameterTree.hpp.

◆ operator<<() [7/17]

std::ostream & sparta::operator<<	(	std::ostream &	o,
		const SimulationInfo &	info
	)

inline

ostream insertion operator for SimulationInfo

Definition at line 492 of file SimulationInfo.hpp.

Here is the call graph for this function:

◆ operator<<() [8/17]

std::ostream & sparta::operator<<	(	std::ostream &	os,
		const DAG &	d
	)

inline

Definition at line 227 of file DAG.hpp.

◆ operator<<() [9/17]

std::ostream & sparta::operator<<	(	std::ostream &	os,
		const DAG *	d
	)

inline

Definition at line 233 of file DAG.hpp.

◆ operator<<() [10/17]

std::ostream & sparta::operator<<	(	std::ostream &	os,
		const SchedulingPhase &	phase
	)

inline

Print the SchedulingPhase.

Parameters

os	ostream to print to
phase	The SchedulingPhase to print out

Returns: The ostream

Definition at line 84 of file SchedulingPhases.hpp.

◆ operator<<() [11/17]

std::ostream & sparta::operator<<	(	std::ostream &	os,
		const sparta::Clock &	clk
	)

inline

Definition at line 372 of file Clock.hpp.

◆ operator<<() [12/17]

template<typename PtrT >

std::ostream & sparta::operator<<	(	std::ostream &	os,
		const SpartaSharedPointer< PtrT > &	p
	)

Definition at line 551 of file SpartaSharedPointer.hpp.

◆ operator<<() [13/17]

std::ostream & sparta::operator<<	(	std::ostream &	os,
		const Tag &	tag
	)

inline

<<(): Stream insertion operator

Parameters

os	Output stream
tag	Tag to output

Returns: std::ostream&

Definition at line 166 of file Tag.hpp.

◆ operator<<() [14/17]

std::ostream & sparta::operator<<	(	std::ostream &	os,
		const Tag *	tag
	)

inline

<<(): Stream insertion operator (for Tag pointers)

Parameters

os	Output stream
tag	Tag pointer to de-reference and output

Returns: std::ostream&

Definition at line 180 of file Tag.hpp.

◆ operator<<() [15/17]

std::ostream & sparta::operator<<	(	std::ostream &	out,
		sparta::StatisticInstance const &	si
	)

inline

StatisticInstance stream operator.

Definition at line 719 of file StatisticInstance.hpp.

Here is the call graph for this function:

◆ operator<<() [16/17]

std::ostream & sparta::operator<<	(	std::ostream &	out,
		sparta::StatisticInstance const *	si
	)

inline

TreeNode stream operator.

Definition at line 726 of file StatisticInstance.hpp.

Here is the call graph for this function:

◆ operator<<() [17/17]

std::ostream & sparta::operator<<	(	std::ostream &	out,
		sparta::TreeNode const *	tn
	)

inline

TreeNode stream operator.

Definition at line 4548 of file TreeNode.hpp.

Here is the call graph for this function:

◆ operator==() [1/5]

bool sparta::operator==	(	const RegisterBase::Definition &	a,
		const RegisterBase::Definition &	b
	)

inline

Definition at line 1404 of file Register.hpp.

◆ operator==() [2/5]

bool sparta::operator==	(	const RegisterProxyBase::Definition &	a,
		const RegisterProxyBase::Definition &	b
	)

inline

Definition at line 101 of file RegisterSet.hpp.

◆ operator==() [3/5]

template<typename PtrT , typename Ptr2 >

bool sparta::operator==	(	const SpartaSharedPointer< PtrT > &	ptr1,
		const SpartaSharedPointer< Ptr2 > &	ptr2
	)

noexcept

Definition at line 527 of file SpartaSharedPointer.hpp.

◆ operator==() [4/5]

template<typename PtrT >

bool sparta::operator==	(	const SpartaSharedPointer< PtrT > &	ptr1,
		std::nullptr_t
	)

noexcept

Definition at line 531 of file SpartaSharedPointer.hpp.

◆ operator==() [5/5]

template<typename PtrT >

bool sparta::operator==	(	std::nullptr_t	,
		const SpartaSharedPointer< PtrT > &	ptr1
	)

noexcept

Definition at line 535 of file SpartaSharedPointer.hpp.

◆ operator>>() [1/27]

template<class ScheduleableType >

std::enable_if< std::is_base_of< Scheduleable, ScheduleableType >::value, ScheduleableType >::type & sparta::operator>>	(	Bus &	producer,
		ScheduleableType &	consumer
	)

Place a precedence between a Bus and a Scheduleable.

Parameters

producer	The Bus to succeed a Scheduleable
consumer	The producer (LHS) must come before consumer (RHS)

Returns: The consumer

Note: This function returns the consumer (RHS) of the operation instead of the producer (LHS). This is opposite of typical behavior of >> operators.

Place a precedence on a producer to the consumer. The consumer is returned, not the producer. This is to allow chaining:

my_producer_event_ >> my_consumer_event_ >> my_event_following_consumption_;

This implementation of the precedence operator catches a Scheduleable/EventNode on the LHS preceding another and ensures the two events are within the same phase.

my_outgoing_bus >> ev_tick;

Definition at line 995 of file Precedence.hpp.

Here is the call graph for this function:

◆ operator>>() [2/27]

const EventGroup & sparta::operator>>	(	const EventGroup &	producers,
		const EventGroup &	consumers
	)

inline

This template supports the following:

Parameters

producers	Group of Scheduleables that must come before each of the consumers in the EventGroup
consumers	Group of Scheduleables that must come after each of the producers in the EventGroup sparta::EventGroup( ProdEvent1, ProdEvent2, ProdEvent3, ... ) >> sparta::EventGroup( ConsEvent1, ConsEvent2, ConsEvent3, ... ); sparta::EventGroup Group a series of events together for precedence establishment. Definition Precedence.hpp:1042

Where each consuming event is preceded by each producing event. The consuming and producing events are still independent of each other.

Definition at line 1188 of file Precedence.hpp.

◆ operator>>() [3/27]

template<class ScheduleableTypeB >

ScheduleableTypeB & sparta::operator>>	(	const EventGroup &	producers,
		ScheduleableTypeB &	consumer
	)

This template supports the following:

Parameters

producers	Group of Scheduleables that must come before the given consumer
consumer	The Scheduleable that succeed each of the Scheduleables in the EventGroup

sparta::EventGroup(ProEvent1, ProEvent2, ProEvent3, ...) >> ConsEvent;

Where the consuming event is preceded by each producing event. The producing events are still independent.

Definition at line 1144 of file Precedence.hpp.

◆ operator>>() [4/27]

InPort & sparta::operator>>	(	const GlobalOrderingPoint &	producer,
		InPort &	consumer
	)

inline

Place a precedence between a GlobalOrderingPoint and an InPort.

Methods used for precedence have access to the internal scheduleable.

Parameters

producer	The GlobalOrderingPoint to succeed the ScheduleableType
consumer	The producer (LHS) must come before consumer (RHS)

Returns: The consumer

Note: This function returns the consumer (RHS) of the operation instead of the producer (LHS). This is opposite of typical behavior of >> operators.

Place a precedence on a producer to the consumer. The consumer is returned, not the producer. This is to allow chaining:

my_producer_event_ >> my_consumer_event_ >> my_event_following_consumption_;

This implementation of the precedence operator catches a GlobalOrderingPoint on the LHS preceding a InPort and ensures the two events are within the same phase.

GlobalOrderingPoint(node, "gop") >> InPort

sparta::GlobalOrderingPoint

Used to set precedence between Scheduleable types across simulation.

Definition GlobalOrderingPoint.hpp:61

sparta::InPort

Base class for all InPort types.

Definition Port.hpp:297

Definition at line 206 of file Precedence.hpp.

◆ operator>>() [5/27]

template<class ScheduleableTypeA >

std::enable_if< std::is_base_of< EventNode, ScheduleableTypeA >::value, ScheduleableTypeA >::type & sparta::operator>>	(	const GlobalOrderingPoint &	producer,
		ScheduleableTypeA &	consumer
	)

Place a precedence between a Scheduleable object and a GlobalOrderingPoint.

Parameters

producer	The GlobalOrderingPoint to succeed the ScheduleableType
consumer	The producer (LHS) must come before consumer (RHS)

Returns: The consumer

Note: This function returns the consumer (RHS) of the operation instead of the producer (LHS). This is opposite of typical behavior of >> operators.

Place a precedence on a producer to the consumer. The consumer is returned, not the producer. This is to allow chaining:

my_producer_event_ >> my_consumer_event_ >> my_event_following_consumption_;

This implementation of the precedence operator catches a GlobalOrderingPoint on the LHS preceding a Scheduleable type and ensures the two events are within the same phase.

GlobalOrderingPoint(node, "gop") >> (UniqueEvent, PayloadEvent, SingleCycleUniqueEvent, Event);

sparta::Event

Event is a simple class for scheduling random events on the Scheduler.

Definition Event.hpp:42

sparta::PayloadEvent

Class to schedule a Scheduleable in the future with a payload, typed on both the data type and the sc...

Definition PayloadEvent.hpp:87

sparta::SingleCycleUniqueEvent

An event that can only be schedule one cycle into the future.

Definition SingleCycleUniqueEvent.hpp:75

sparta::UniqueEvent

A type of Event that uniquely schedules itself on the schedule within a single time quantum....

Definition UniqueEvent.hpp:73

Definition at line 173 of file Precedence.hpp.

Here is the call graph for this function:

◆ operator>>() [6/27]

template<SchedulingPhase PayloadPhaseT1, class DataT2 , SchedulingPhase PayloadPhaseT2>

PayloadEvent< DataT2, PayloadPhaseT2 > & sparta::operator>>	(	Event< PayloadPhaseT1 > &	producer,
		PayloadEvent< DataT2, PayloadPhaseT2 > &	consumer
	)

Place a precedence between a Event and an PayloadEvent.

Parameters

producer	The Event to succeed a PayloadEvent
consumer	The producer (LHS) must come before consumer (RHS)

Returns: The consumer

Note: This function returns the consumer (RHS) of the operation instead of the producer (LHS). This is opposite of typical behavior of >> operators.

Place a precedence on a producer to the consumer. The consumer is returned, not the producer. This is to allow chaining:

my_producer_event_ >> my_consumer_event_ >> my_event_following_consumption_;

This implementation of the precedence operator catches a Scheduleable/EventNode on the LHS preceding another and ensures the two events are within the same phase.

Event >> PayloadEvent<T, P>;

Definition at line 523 of file Precedence.hpp.

Here is the call graph for this function:

◆ operator>>() [7/27]

template<SchedulingPhase PhaseT1, SchedulingPhase PhaseT2>

Event< PhaseT2 > & sparta::operator>>	(	Event< PhaseT1 > &	producer,
		Event< PhaseT2 > &	consumer
	)

Place a precedence between a Event and another Event.

Parameters

producer	The Event to succeed a Event
consumer	The producer (LHS) must come before consumer (RHS)

Returns: The consumer

Note: This function returns the consumer (RHS) of the operation instead of the producer (LHS). This is opposite of typical behavior of >> operators.

Place a precedence on a producer to the consumer. The consumer is returned, not the producer. This is to allow chaining:

my_producer_event_ >> my_consumer_event_ >> my_event_following_consumption_;

This implementation of the precedence operator catches a Scheduleable/EventNode on the LHS preceding another and ensures the two events are within the same phase.

Event >> Event;

Definition at line 720 of file Precedence.hpp.

Here is the call graph for this function:

◆ operator>>() [8/27]

template<class EventT1 , class EventT2 >

std::unique_ptr< EventT2 > & sparta::operator>>	(	EventT1 &	producer,
		std::unique_ptr< EventT2 > &	consumer
	)

Place a precedence between an EventT1 and std::unique_ptr<EventT2>

Parameters

producer	The EventT1 to succeed a EventT2
consumer	The producer (LHS) must come before consumer (RHS)

Returns: The consumer

Note: This function returns the consumer (RHS) of the operation instead of the producer (LHS). This is opposite of typical behavior of >> operators.

Place a precedence on a producer to the consumer. The consumer is returned, not the producer. This is to allow chaining:

my_producer_event_ >> my_consumer_event_ >> my_event_following_consumption_;

This implementation of the precedence operator catches a Scheduleable/EventNode on the LHS preceding another and ensures the two events are within the same phase.

EventT1 >> std::unique_ptr<EventT2>;

Definition at line 798 of file Precedence.hpp.

◆ operator>>() [9/27]

const GlobalOrderingPoint & sparta::operator>>	(	InPort &	producer,
		const GlobalOrderingPoint &	consumer
	)

inline

Place a precedence between a Scheduleable object and a GlobalOrderingPoint.

Parameters

producer	The GlobalOrderingPoint to succeed the ScheduleableType
consumer	The producer (LHS) must come before consumer (RHS)

Returns: The consumer

Note: This function returns the consumer (RHS) of the operation instead of the producer (LHS). This is opposite of typical behavior of >> operators.

Place a precedence on a producer to the consumer. The consumer is returned, not the producer. This is to allow chaining:

my_producer_event_ >> my_consumer_event_ >> my_event_following_consumption_;

This implementation of the precedence operator catches a InPort on the LHS preceding a GlobalOrderingPoint (which is a Vertex type) and ensures the two events are within the same phase.

InPort >> GlobalOrderingPoint(node, "gop");

Definition at line 238 of file Precedence.hpp.

◆ operator>>() [10/27]

template<class DataT1 , SchedulingPhase PayloadPhaseT1, SchedulingPhase PayloadPhaseT2>

Event< PayloadPhaseT2 > & sparta::operator>>	(	PayloadEvent< DataT1, PayloadPhaseT1 > &	producer,
		Event< PayloadPhaseT2 > &	consumer
	)

Place a precedence between a PayloadEvent and an Event.

Parameters

producer	The PayloadEvent to succeed an Event
consumer	The producer (LHS) must come before consumer (RHS)

Returns: The consumer

Note: This function returns the consumer (RHS) of the operation instead of the producer (LHS). This is opposite of typical behavior of >> operators.

Place a precedence on a producer to the consumer. The consumer is returned, not the producer. This is to allow chaining:

my_producer_event_ >> my_consumer_event_ >> my_event_following_consumption_;

This implementation of the precedence operator catches a Scheduleable/EventNode on the LHS preceding another and ensures the two events are within the same phase.

PayloadEvent<T, P> >> Event;

Definition at line 409 of file Precedence.hpp.

Here is the call graph for this function:

◆ operator>>() [11/27]

template<class DataT1 , SchedulingPhase PayloadPhaseT1, class DataT2 , SchedulingPhase PayloadPhaseT2>

PayloadEvent< DataT2, PayloadPhaseT2 > & sparta::operator>>	(	PayloadEvent< DataT1, PayloadPhaseT1 > &	producer,
		PayloadEvent< DataT2, PayloadPhaseT2 > &	consumer
	)

Place a precedence between a PayloadEvent and another PayloadEvent.

Parameters

producer	The PayloadEvent to succeed another PayloadEvent
consumer	The producer (LHS) must come before consumer (RHS)

Returns: The consumer

Note: This function returns the consumer (RHS) of the operation instead of the producer (LHS). This is opposite of typical behavior of >> operators.

Place a precedence on a producer to the consumer. The consumer is returned, not the producer. This is to allow chaining:

my_producer_event_ >> my_consumer_event_ >> my_event_following_consumption_;

This implementation of the precedence operator catches a Scheduleable/EventNode on the LHS preceding another and ensures the two events are within the same phase.

PayloadEvent<T, P> >> PayloadEvent<T, P>;

Definition at line 295 of file Precedence.hpp.

Here is the call graph for this function:

◆ operator>>() [12/27]

template<class DataT1 , SchedulingPhase PayloadPhaseT1, SchedulingPhase PayloadPhaseT2>

SingleCycleUniqueEvent< PayloadPhaseT2 > & sparta::operator>>	(	PayloadEvent< DataT1, PayloadPhaseT1 > &	producer,
		SingleCycleUniqueEvent< PayloadPhaseT2 > &	consumer
	)

Place a precedence between a PayloadEvent and SingleCycleUniqueEvent.

Parameters

producer	The PayloadEvent to succeed SingleCycleUniqueEvent
consumer	The producer (LHS) must come before consumer (RHS)

Returns: The consumer

Note: This function returns the consumer (RHS) of the operation instead of the producer (LHS). This is opposite of typical behavior of >> operators.

Place a precedence on a producer to the consumer. The consumer is returned, not the producer. This is to allow chaining:

my_producer_event_ >> my_consumer_event_ >> my_event_following_consumption_;

This implementation of the precedence operator catches a Scheduleable/EventNode on the LHS preceding another and ensures the two events are within the same phase.

PayloadEvent<T, P> >> SingleCycleUniqueEvent;

Definition at line 371 of file Precedence.hpp.

Here is the call graph for this function:

◆ operator>>() [13/27]

template<class DataT1 , SchedulingPhase PayloadPhaseT1, SchedulingPhase PayloadPhaseT2>

UniqueEvent< PayloadPhaseT2 > & sparta::operator>>	(	PayloadEvent< DataT1, PayloadPhaseT1 > &	producer,
		UniqueEvent< PayloadPhaseT2 > &	consumer
	)

Place a precedence between a PayloadEvent and UniqueEvent.

Parameters

producer	The PayloadEvent to succeed UniqueEvent
consumer	The producer (LHS) must come before consumer (RHS)

Returns: The consumer

Note: This function returns the consumer (RHS) of the operation instead of the producer (LHS). This is opposite of typical behavior of >> operators.

Place a precedence on a producer to the consumer. The consumer is returned, not the producer. This is to allow chaining:

my_producer_event_ >> my_consumer_event_ >> my_event_following_consumption_;

This implementation of the precedence operator catches a Scheduleable/EventNode on the LHS preceding another and ensures the two events are within the same phase.

PayloadEvent<T, P> >> UniqueEvent;

Definition at line 333 of file Precedence.hpp.

Here is the call graph for this function:

◆ operator>>() [14/27]

template<class DataT1 , SchedulingPhase phase>

Scheduleable & sparta::operator>>	(	PayloadEvent< DataT1, phase > &	producer,
		Scheduleable &	consumer
	)

Place a precedence between a PayloadEvent and a Scheduleable.

Parameters

producer	The PayloadEvent to succeed a Scheduleable
consumer	The producer (LHS) must come before consumer (RHS)

Returns: The consumer

Note: This function returns the consumer (RHS) of the operation instead of the producer (LHS). This is opposite of typical behavior of >> operators.

Place a precedence on a producer to the consumer. The consumer is returned, not the producer. This is to allow chaining:

my_producer_event_ >> my_consumer_event_ >> my_event_following_consumption_;

This implementation of the precedence operator catches a Scheduleable/EventNode on the LHS preceding another and ensures the two events are within the same phase.

PayloadEvent<DataT, PhaseT> >> Scheduleable;

sparta::Scheduleable

A class that defines the basic scheduling interface to the Scheduler. Not intended to be used by mode...

Definition Scheduleable.hpp:38

Definition at line 907 of file Precedence.hpp.

Here is the call graph for this function:

◆ operator>>() [15/27]

template<class DataT2 , SchedulingPhase phase>

PayloadEvent< DataT2, phase > & sparta::operator>>	(	Scheduleable &	producer,
		PayloadEvent< DataT2, phase > &	consumer
	)

Place a precedence between a Scheduleable and a PayloadEvent.

Parameters

producer	The Scheduleable to succeed the PayloadEvent
consumer	The producer (LHS) must come before consumer (RHS)

Returns: The consumer

Note: This function returns the consumer (RHS) of the operation instead of the producer (LHS). This is opposite of typical behavior of >> operators.

Place a precedence on a producer to the consumer. The consumer is returned, not the producer. This is to allow chaining:

my_producer_event_ >> my_consumer_event_ >> my_event_following_consumption_;

This implementation of the precedence operator catches a Scheduleable/EventNode on the LHS preceding another and ensures the two events are within the same phase.

Scheduleable >> PayloadEvent<DataT, PhaseT>;

Definition at line 870 of file Precedence.hpp.

Here is the call graph for this function:

◆ operator>>() [16/27]

Scheduleable & sparta::operator>>	(	Scheduleable &	producer,
		Scheduleable &	consumer
	)

inline

Definition at line 625 of file Scheduleable.hpp.

◆ operator>>() [17/27]

template<class ScheduleableType >

std::enable_if< std::is_base_of< Scheduleable, ScheduleableType >::value, Bus >::type & sparta::operator>>	(	ScheduleableType &	producer,
		Bus &	consumer
	)

Place a precedence between a Scheduleable and a Bus.

Parameters

producer	The Scheduleable to succeed a Bus
consumer	The producer (LHS) must come before consumer (RHS)

Returns: The consumer

Note: This function returns the consumer (RHS) of the operation instead of the producer (LHS). This is opposite of typical behavior of >> operators.

Place a precedence on a producer to the consumer. The consumer is returned, not the producer. This is to allow chaining:

my_producer_event_ >> my_consumer_event_ >> my_event_following_consumption_;

This implementation of the precedence operator catches a Scheduleable/EventNode on the LHS preceding another and ensures the two events are within the same phase.

ev_tick >> my_outgoing_bus;

Definition at line 953 of file Precedence.hpp.

Here is the call graph for this function:

◆ operator>>() [18/27]

template<class ScheduleableTypeA >

const EventGroup & sparta::operator>>	(	ScheduleableTypeA &	producer,
		const EventGroup &	consumers
	)

This template supports the following:

Parameters

producer	The Scheduleable that precedes each of the Scheduleables in the EventGroup
consumer	Group of Scheduleables that must come after the given producer ProEvent1 >> sparta::EventGroup(ConsEvent1, ConsEvent2, ConsEvent3, ... );

Where each consuming event is preceded by the single producing event. The consuming events are still independent.

Definition at line 1165 of file Precedence.hpp.

◆ operator>>() [19/27]

template<class ScheduleableTypeA >

std::enable_if< std::is_base_of< EventNode, ScheduleableTypeA >::value, constGlobalOrderingPoint >::type & sparta::operator>>	(	ScheduleableTypeA &	producer,
		const GlobalOrderingPoint &	consumer
	)

Place a precedence between a Scheduleable object and a GlobalOrderingPoint.

Parameters

producer	The producer (LHS) must come before consumer (RHS)
consumer	The GlobalOrderingPoint (Vertex type) to succeed the ScheduleableType

Returns: The consumer

Note: This function returns the consumer (RHS) of the operation instead of the producer (LHS). This is opposite of typical behavior of >> operators.

Place a precedence on a producer to the consumer. The consumer is returned, not the producer. This is to allow chaining:

my_producer_event_ >> my_consumer_event_ >> my_event_following_consumption_;

This implementation of the precedence operator catches a Scheduleable on the LHS preceding a GlobalOrderingPoint point and ensures the two events are within the same phase.

(UniqueEvent, PayloadEvent, SingleCycleUniqueEvent, Event) >> GlobalOrderingPoint(node, "gop");

Definition at line 138 of file Precedence.hpp.

Here is the call graph for this function:

◆ operator>>() [20/27]

template<SchedulingPhase PayloadPhaseT1, class DataT2 , SchedulingPhase PayloadPhaseT2>

PayloadEvent< DataT2, PayloadPhaseT2 > & sparta::operator>>	(	SingleCycleUniqueEvent< PayloadPhaseT1 > &	producer,
		PayloadEvent< DataT2, PayloadPhaseT2 > &	consumer
	)

Place a precedence between a PayloadEvent and an SingleCycleUniqueEvent.

Parameters

producer	The SingleCycleUniqueEvent to succeed a PayloadEvent
consumer	The producer (LHS) must come before consumer (RHS)

Returns: The consumer

Note: This function returns the consumer (RHS) of the operation instead of the producer (LHS). This is opposite of typical behavior of >> operators.

Place a precedence on a producer to the consumer. The consumer is returned, not the producer. This is to allow chaining:

my_producer_event_ >> my_consumer_event_ >> my_event_following_consumption_;

This implementation of the precedence operator catches a Scheduleable/EventNode on the LHS preceding another and ensures the two events are within the same phase.

SingleCycleUniqueEvent >> PayloadEvent<T, P>;

Definition at line 485 of file Precedence.hpp.

Here is the call graph for this function:

◆ operator>>() [21/27]

template<SchedulingPhase PayloadPhaseT1, SchedulingPhase PayloadPhaseT2>

UniqueEvent< PayloadPhaseT2 > & sparta::operator>>	(	SingleCycleUniqueEvent< PayloadPhaseT1 > &	producer,
		UniqueEvent< PayloadPhaseT2 > &	consumer
	)

Place a precedence between a SingleCycleUniqueEvent and an UniqueEvent.

Parameters

producer	The SingleCycleUniqueEvent to succeed an UniqueEvent
consumer	The producer (LHS) must come before consumer (RHS)

Returns: The consumer

Note: This function returns the consumer (RHS) of the operation instead of the producer (LHS). This is opposite of typical behavior of >> operators.

Place a precedence on a producer to the consumer. The consumer is returned, not the producer. This is to allow chaining:

my_producer_event_ >> my_consumer_event_ >> my_event_following_consumption_;

This implementation of the precedence operator catches a Scheduleable/EventNode on the LHS preceding another and ensures the two events are within the same phase.

SingleCycleUniqueEvent >> UniqueEvent;

Definition at line 642 of file Precedence.hpp.

Here is the call graph for this function:

◆ operator>>() [22/27]

template<SchedulingPhase PhaseT1, SchedulingPhase PhaseT2>

SingleCycleUniqueEvent< PhaseT2 > & sparta::operator>>	(	SingleCycleUniqueEvent< PhaseT1 > &	producer,
		SingleCycleUniqueEvent< PhaseT2 > &	consumer
	)

Place a precedence between a SingleCycleUniqueEvent and a SingleCycleUniqueEvent.

Parameters

producer	The SingleCycleUniqueEvent to succeed a SingleCycleUniqueEvent
consumer	The producer (LHS) must come before consumer (RHS)

Returns: The consumer

Note: This function returns the consumer (RHS) of the operation instead of the producer (LHS). This is opposite of typical behavior of >> operators.

Place a precedence on a producer to the consumer. The consumer is returned, not the producer. This is to allow chaining:

my_producer_event_ >> my_consumer_event_ >> my_event_following_consumption_;

This implementation of the precedence operator catches a Scheduleable/EventNode on the LHS preceding another and ensures the two events are within the same phase.

SingleCycleUniqueEvent >> SingleCycleUniqueEvent;

Definition at line 681 of file Precedence.hpp.

Here is the call graph for this function:

◆ operator>>() [23/27]

template<class EventT1 , class EventT2 >

EventT2 & sparta::operator>>	(	std::unique_ptr< EventT1 > &	producer,
		EventT2 &	consumer
	)

Place a precedence between a std::unique_ptr<EventT1> and EventT2.

Parameters

producer	The EventT1 to succeed a EventT2
consumer	The producer (LHS) must come before consumer (RHS)

Returns: The consumer

Note: This function returns the consumer (RHS) of the operation instead of the producer (LHS). This is opposite of typical behavior of >> operators.

Place a precedence on a producer to the consumer. The consumer is returned, not the producer. This is to allow chaining:

my_producer_event_ >> my_consumer_event_ >> my_event_following_consumption_;

This implementation of the precedence operator catches a Scheduleable/EventNode on the LHS preceding another and ensures the two events are within the same phase.

std::unique_ptr<EventT1> >> EventT2;

Definition at line 832 of file Precedence.hpp.

◆ operator>>() [24/27]

template<class EventT1 , class EventT2 >

std::unique_ptr< EventT2 > & sparta::operator>>	(	std::unique_ptr< EventT1 > &	producer,
		std::unique_ptr< EventT2 > &	consumer
	)

Place a precedence between a std::unique_ptr<EventT1> and another std::unique_ptr<EventT2>

Parameters

producer	The EventT1 to succeed a EventT2
consumer	The producer (LHS) must come before consumer (RHS)

Returns: The consumer

Note: This function returns the consumer (RHS) of the operation instead of the producer (LHS). This is opposite of typical behavior of >> operators.

Place a precedence on a producer to the consumer. The consumer is returned, not the producer. This is to allow chaining:

my_producer_event_ >> my_consumer_event_ >> my_event_following_consumption_;

This implementation of the precedence operator catches a Scheduleable/EventNode on the LHS preceding another and ensures the two events are within the same phase.

std::unique_ptr<EventT1> >> std::unique_ptr<EventT2>;

Definition at line 763 of file Precedence.hpp.

◆ operator>>() [25/27]

template<SchedulingPhase PayloadPhaseT1, class DataT2 , SchedulingPhase PayloadPhaseT2>

PayloadEvent< DataT2, PayloadPhaseT2 > & sparta::operator>>	(	UniqueEvent< PayloadPhaseT1 > &	producer,
		PayloadEvent< DataT2, PayloadPhaseT2 > &	consumer
	)

Place a precedence between a PayloadEvent and an UniqueEvent.

Parameters

producer	The UniqueEvent to succeed a PayloadEvent
consumer	The producer (LHS) must come before consumer (RHS)

Returns: The consumer

Note: This function returns the consumer (RHS) of the operation instead of the producer (LHS). This is opposite of typical behavior of >> operators.

Place a precedence on a producer to the consumer. The consumer is returned, not the producer. This is to allow chaining:

my_producer_event_ >> my_consumer_event_ >> my_event_following_consumption_;

This implementation of the precedence operator catches a Scheduleable/EventNode on the LHS preceding another and ensures the two events are within the same phase.

UniqueEvent >> PayloadEvent<T, P>;

Definition at line 447 of file Precedence.hpp.

Here is the call graph for this function:

◆ operator>>() [26/27]

template<SchedulingPhase PayloadPhaseT1, SchedulingPhase PayloadPhaseT2>

SingleCycleUniqueEvent< PayloadPhaseT2 > & sparta::operator>>	(	UniqueEvent< PayloadPhaseT1 > &	producer,
		SingleCycleUniqueEvent< PayloadPhaseT2 > &	consumer
	)

Place a precedence between a UniqueEvent and an SingleCycleUniqueEvent.

Parameters

producer	The UniqueEvent to succeed a SingleCycleUniqueEvent
consumer	The producer (LHS) must come before consumer (RHS)

Returns: The consumer

Note: This function returns the consumer (RHS) of the operation instead of the producer (LHS). This is opposite of typical behavior of >> operators.

Place a precedence on a producer to the consumer. The consumer is returned, not the producer. This is to allow chaining:

my_producer_event_ >> my_consumer_event_ >> my_event_following_consumption_;

This implementation of the precedence operator catches a Scheduleable/EventNode on the LHS preceding another and ensures the two events are within the same phase.

UniqueEvent >> SingleCycleUniqueEvent;

Definition at line 605 of file Precedence.hpp.

Here is the call graph for this function:

◆ operator>>() [27/27]

template<SchedulingPhase PayloadPhaseT1, SchedulingPhase PayloadPhaseT2>

UniqueEvent< PayloadPhaseT2 > & sparta::operator>>	(	UniqueEvent< PayloadPhaseT1 > &	producer,
		UniqueEvent< PayloadPhaseT2 > &	consumer
	)

Place a precedence between a UniqueEvent and an UniqueEvent.

Parameters

producer	The UniqueEvent to succeed a UniqueEvent
consumer	The producer (LHS) must come before consumer (RHS)

Returns: The consumer

Note: This function returns the consumer (RHS) of the operation instead of the producer (LHS). This is opposite of typical behavior of >> operators.

Place a precedence on a producer to the consumer. The consumer is returned, not the producer. This is to allow chaining:

my_producer_event_ >> my_consumer_event_ >> my_event_following_consumption_;

This implementation of the precedence operator catches a Scheduleable/EventNode on the LHS preceding another and ensures the two events are within the same phase.

UniqueEvent >> UniqueEvent;

Definition at line 568 of file Precedence.hpp.

Here is the call graph for this function:

◆ reorder() [1/2]

template<typename T , enum ByteOrder BO>

std::enable_if< std::is_same< boost::mpl::int_< BO >, boost::mpl::int_< BE > >::value, T >::type sparta::reorder ( const T & t )

inline

Takes a value of type T from native byte order to the designed byte order Specialization for Big-Endian

Definition at line 143 of file ByteOrder.hpp.

◆ reorder() [2/2]

template<typename T , enum ByteOrder BO>

std::enable_if< std::is_same< boost::mpl::int_< BO >, boost::mpl::int_< LE > >::value, T >::type sparta::reorder ( const T & t )

inline

Takes a value of type T from native byte order to the designed byte order Specialization for Little-Endian

Definition at line 152 of file ByteOrder.hpp.

◆ replaceSubstring()

uint32_t sparta::replaceSubstring	(	std::string &	s,
		const std::string &	from,
		const std::string &	to
	)

inline

Replaces within a string 's' all instances of some string 'from' with 'to'.

Parameters

s	String to perform replacement on
from	String to replace with <to>
to	String to replace all instances of <from> with.

Returns: Number of replacements

Note: This can resize the string ~~if from and to are different lengths.~~

Replaces based on found instances of <from> starting from position 0. After replacing, the loop advances to the end of the replaced text and continues there. Characters inserted from <to> will never be matched as part of a <from>

Definition at line 265 of file Utils.hpp.

◆ smartLexicalCast()

template<typename T >

T sparta::smartLexicalCast	(	const ParameterBase *	p,
		const std::string &	s,
		size_t &	end_pos,
		bool	allow_recursion = `true`,
		bool	allow_prefix = `true`
	)

inline

smartLexicalCast wrapper with parameter information added to exceptions

Definition at line 2551 of file Parameter.hpp.

Here is the call graph for this function:

◆ toLower()

std::string sparta::toLower ( const std::string & s )

inline

Makes a copy of an input string s in lower-case.

Definition at line 341 of file Utils.hpp.

◆ writeNChars()

void sparta::writeNChars	(	std::ostream &	out,
		uint32_t	num,
		char	chr = `' '`
	)

inline

Insert a number of some character into an ostream.

Definition at line 332 of file Utils.hpp.

Variable Documentation

◆ NUM_SCHEDULING_PHASES

const uint32_t sparta::NUM_SCHEDULING_PHASES

Initial value:

=

static_cast<uint32_t>(SchedulingPhase::__last_scheduling_phase)

The number of phases.

Definition at line 75 of file SchedulingPhases.hpp.

Namespaces

Classes

Typedefs

Enumerations

Functions

Variables

Detailed Description

Typedef Documentation

◆ CycleHistogram

◆ ExtensionDescriptorVec

◆ Histogram

◆ HistStatCalcFcn

◆ ProxyDefinitionSet

◆ RegisterDefinitionSet

◆ StateTimerDataContainerPtr

Enumeration Type Documentation

◆ ArrayType

◆ ByteOrder

◆ SchedulingPhase

Function Documentation

◆ allocate_sparta_shared_pointer()

◆ bind() [1/8]

◆ bind() [2/8]

◆ bind() [3/8]

◆ bind() [4/8]

◆ bind() [5/8]

◆ bind() [6/8]

◆ bind() [7/8]

◆ bind() [8/8]

◆ byte_swap() [1/9]

◆ byte_swap() [2/9]

◆ byte_swap() [3/9]

◆ byte_swap() [4/9]

◆ byte_swap() [5/9]

◆ byte_swap() [6/9]

◆ byte_swap() [7/9]

◆ byte_swap() [8/9]

◆ byte_swap() [9/9]

◆ calculateClockCrossingDelay()

◆ calculateReverseClockCrossingDelay()

◆ computeMask()

◆ computeMaskShift()

◆ convertCPPStringToPython()

◆ copyWithReplace()

◆ demangle()

◆ flipMap()

◆ GetFeatureOptions() [1/2]

◆ GetFeatureOptions() [2/2]

◆ getHumanReadableHistogramBinNames() [1/3]

◆ getHumanReadableHistogramBinNames() [2/3]

◆ getHumanReadableHistogramBinNames() [3/3]

◆ IsFeatureValueEnabled() [1/2]

◆ IsFeatureValueEnabled() [2/2]

◆ IsFeatureValueEqualTo() [1/2]

◆ IsFeatureValueEqualTo() [2/2]

◆ isPowerOf2()

◆ lexicalCast() [1/8]

◆ lexicalCast() [2/8]

◆ lexicalCast() [3/8]

◆ lexicalCast() [4/8]

◆ lexicalCast() [5/8]

◆ lexicalCast() [6/8]

◆ lexicalCast() [7/8]

◆ lexicalCast() [8/8]

◆ notNull()

◆ numDecDigits()

◆ operator!=() [1/5]

◆ operator!=() [2/5]

◆ operator!=() [3/5]

◆ operator!=() [4/5]

◆ operator!=() [5/5]

◆ operator<<() [1/17]

◆ operator<<() [2/17]

◆ operator<<() [3/17]

◆ operator<<() [4/17]

◆ operator<<() [5/17]

◆ operator<<() [6/17]

◆ operator<<() [7/17]

◆ operator<<() [8/17]

◆ operator<<() [9/17]