plugins/org.eclipse.app4mc.amalthea.model.help/help-model/xcore/amalthea.xcore.bak

/**
 ********************************************************************************
 * Copyright (c) 2015-2019 Robert Bosch GmbH and others.
 * 
 * This program and the accompanying materials are made
 * available under the terms of the Eclipse Public License 2.0
 * which is available at https://www.eclipse.org/legal/epl-2.0/
 * 
 * SPDX-License-Identifier: EPL-2.0
 * *******************************************************************************
 */

@GenModel(
	modelName="Amalthea", prefix="Amalthea",
	editDirectory="/org.eclipse.app4mc.amalthea.model.edit/src-gen",
	editorDirectory="/org.eclipse.app4mc.amalthea.model.editor/src-gen",
	rootExtendsClass="org.eclipse.app4mc.amalthea.sphinx.AmaltheaExtendedEObjectImpl",
	providerRootExtendsClass="org.eclipse.app4mc.amalthea.sphinx.AmaltheaExtendedItemProviderAdapter",
	creationIcons="false",
	forceOverwrite="true",
	creationSubmenus="true",
	// *** create XML instance of the Amalthea meta model
	publicationLocation="org.eclipse.app4mc.amalthea.model/model-gen/xml/amalthea.xml",
	loadInitialization="false",	// can be removed with Neon.3 ??
//	dynamicTemplates="true",
//	templateDirectory="org.eclipse.app4mc.amalthea.model/templates",
	copyrightText="*******************************************************************************\r\n Copyright (c) 2015-2019 Robert Bosch GmbH and others.\r\n\r\n This program and the accompanying materials are made\r\n available under the terms of the Eclipse Public License 2.0\r\n which is available at https://www.eclipse.org/legal/epl-2.0/\r\n\r\n SPDX-License-Identifier: EPL-2.0\r\n\r\n    Generated using Eclipse EMF\r\n\r\n*******************************************************************************",
	decoration="Live",
	collapseAllAction="true",
	expandAllAction="true", 
	autoExpandProperties="1",
	eclipsePlatformVersion="Photon"
)

@Ecore(
	nsPrefix="am",
	nsURI="http://app4mc.eclipse.org/amalthea/0.9.5"
)

package org.eclipse.app4mc.amalthea.model

import java.net.URLEncoder
import java.nio.charset.StandardCharsets
import org.eclipse.emf.ecore.EDiagnosticChain
import org.eclipse.emf.ecore.EMap
import org.eclipse.emf.ecore.InternalEObject
import org.eclipse.emf.ecore.util.EcoreEList$UnmodifiableEList


// ===============================================================================
// ===============================================================================
// 
// 									Central Model
// 
// ===============================================================================
// ===============================================================================


class Amalthea extends BaseObject
{
	derived readonly String version get {
		return "0.9.5"
	}
	
	contains CommonElements commonElements
	contains SWModel swModel
	contains HWModel hwModel
	contains OSModel osModel
	contains StimuliModel stimuliModel
	contains EventModel eventModel
	contains ConstraintsModel constraintsModel
	contains PropertyConstraintsModel propertyConstraintsModel
	contains MappingModel mappingModel
	contains ComponentsModel componentsModel
	contains ConfigModel configModel
	contains MeasurementModel measurementModel
}


// ===============================================================================
// ===============================================================================
// 
// 									Common Model
// 
// ===============================================================================
// ===============================================================================


class CommonElements extends BaseObject
{
	contains Tag[] tags
	contains CoreClassifier[] coreClassifiers
	contains MemoryClassifier[] memoryClassifiers
}

/*
 * Base classes to be used to provide common functionality for all objects.
 * Needs to be extended by other classes.
 */
abstract class BaseObject extends IAnnotatable {}

abstract class ReferableObject extends IReferable {}

abstract class ReferableBaseObject extends IAnnotatable, IReferable {}

/*
 * IAnnotatable: Possibility to store custom properties on elements
 */
interface IAnnotatable
{
	contains CustomProperty[] customProperties
}

/*
 * ITaggable: Possibility to add tags to an elements
 */
interface ITaggable
{
	refers Tag[] tags
}

/*
 * INamed: Name attribute
 */
interface INamed
{
	@GenModel(propertyCategory="Main")
	String name = ""
}

/*
 * IReferable: Computed ID for name based references
 */
interface IReferable extends INamed
{
	// use IPropertySheetEntry.FILTER_ID_EXPERT ("org.eclipse.ui.views.properties.expert")
	@GenModel(propertyCategory="Read only", propertyFilterFlags="org.eclipse.ui.views.properties.expert")
	id derived readonly String uniqueName get {
		return (if (namePrefix.nullOrEmpty) "" else encode(namePrefix) + "/") + encode(name) + "?type=" + eClass.name
	}
	
	@GenModel(documentation="Overwrite this method to define a specific prefix (used by name-based references).")
	op String getNamePrefix() { "" }
	
	op String encode(String str) {
		return (if (str.nullOrEmpty) "no-name" else URLEncoder.encode(str, StandardCharsets.UTF_8.toString))
	}
	
	op boolean validateInvariants(EDiagnosticChain diagnostics, EMap<Object,Object> context) {
		AmaltheaValidations.validateInvariants(this, diagnostics, context)
	}
}

interface IDisplayName
{
	String displayName
}

/*
 * A tag for processes, runnables, events and labels
 */
class Tag extends ReferableBaseObject
{
	String tagType
	
	// back pointer (readonly)
	@GenModel(documentation="<p><b>Returns an <em>immutable</em> list of objects (ITaggable) referring to the this tag.</b></p>")
	@GenModel(propertyCategory="Read only", propertyFilterFlags="org.eclipse.ui.views.properties.expert")
	refers transient readonly volatile derived ITaggable[] taggedObjects get {
		AmaltheaIndex.getInverseReferences(this, AmaltheaPackage.eINSTANCE.tag_TaggedObjects,
			#{AmaltheaPackage.eINSTANCE.ITaggable_Tags}
		)
	}
}

enum RelationalOperator
{
	_undefined_ // Display: "<relation>"
	EQUAL
	NOT_EQUAL
	LESS_THAN
	GREATER_THAN
}

/*
 * Classifiers for hardware properties
 */
abstract class Classifier extends ReferableBaseObject
{
	String description
}

class CoreClassifier extends Classifier
{
}

class MemoryClassifier extends Classifier
{
}

/*
 * Data transmission details for communication (e.g. LabelAccesses)
 */
class TransmissionPolicy
{
	contains DataSize chunkSize
	int chunkProcessingTicks = "0"
	double transmitRatio = "1.0"
}

// -------------------------------------------------------------------------------
//
// 								Quantities
//
// -------------------------------------------------------------------------------

/*
 * Abstract class for Quantities (value + unit)
 */
abstract class Quantity {}

/*
 * Time units (enumeration of available units)
 */
enum TimeUnit
{
	_undefined_ // Display: "<unit>"
	s
	ms
	us
	ns
	ps
}

interface TimeComparable wraps java.lang.Comparable<Time> {}

/*
 * General time class to define time value and unit.
 */
class Time extends Quantity, Value, TimeComparable
{
	BigInteger value = "0"
	TimeUnit unit
	
	op String toString() {
		return value + " " + if (unit == TimeUnit::_UNDEFINED_) "<unit>" else unit.literal
	}
	
	op int compareTo(Time t) { return AmaltheaServices.compareTimes(this, t) }
	
	op Time adjustUnit() { return AmaltheaServices.adjustTimeUnit(this) }
	op Time add(Time t) { return AmaltheaServices.addTime(this, t) }
	op Time subtract(Time t) { return AmaltheaServices.subtractTime(this, t) }
	op Time multiply(long v) { return AmaltheaServices.multiply(this, v) }
	op Time multiply(double v) { return AmaltheaServices.multiply(this, v) }
	op double divide(Time t) { return AmaltheaServices.divideTime(this, t) }
}


/*
 * Frequency units (enumeration of available units)
 */
enum FrequencyUnit
{
	_undefined_ // Display: "<unit>"
	Hz
	kHz
	MHz
	GHz
//	rpm ???
}

/*
 * General frequency class to define frequency value and unit
 */
class Frequency extends Quantity
{
	NonNegativeDouble value = "0.0"
	FrequencyUnit unit
	
	op String toString() {
		return value + " " + if (unit == FrequencyUnit::_UNDEFINED_) "<unit>" else unit.literal
	}
}

/*
 * Voltage units (enumeration of available units)
 */
enum VoltageUnit
{
	_undefined_ // Display: "<unit>"
	uV
	mV
	V
}

/*
 * General voltage class to define voltage value and unit
 */
class Voltage extends Quantity
{
	double value = "0.0"
	VoltageUnit unit
	
	op String toString() {
		return value + " " + if (unit == VoltageUnit::_UNDEFINED_) "<unit>" else unit.literal
	}
}

/*
 * Data size units (enumeration of available units)
 */
enum DataSizeUnit
{
	_undefined_ // Display: "<unit>"
	bit
	kbit
	Mbit
	Gbit
	Tbit
	
	Kibit
	Mibit
	Gibit
	Tibit
	
	B
	kB
	MB
	GB
	TB
	
	KiB
	MiB
	GiB
	TiB
}

/*
 * General data size class to define size (value and unit)
 */
class DataSize extends Quantity
{
	BigInteger value = "0"
	DataSizeUnit unit
	
	op String toString() {
		return value + " " + if (unit == DataSizeUnit::_UNDEFINED_) "<unit>" else unit.literal
	}
	
	/*
	 * Convenience methods to retrieve the size in Bits and Bytes
	 */
	op long getNumberBits() {
		if (unit === DataSizeUnit::BIT) return value.longValue
		
		val bits = AmaltheaServices.convertToBit(this)
		if (bits === null) -1L else bits.longValue
	}
	op long getNumberBytes() {
		if (unit === DataSizeUnit::B) return value.longValue
		
		val bits = AmaltheaServices.convertToBit(this)
		if (bits === null) -1L else Math::ceil(bits.longValue / 8).longValue
	}
}

/*
 * Data rate units (enumeration of available units)
 */
enum DataRateUnit
{
	_undefined_ // Display: "<unit>"
	bitPerSecond // Display: "bit/s"
	kbitPerSecond
	MbitPerSecond
	GbitPerSecond
	TbitPerSecond
	
	KibitPerSecond
	MibitPerSecond
	GibitPerSecond
	TibitPerSecond
	
	BPerSecond
	kBPerSecond
	MBPerSecond
	GBPerSecond
	TBPerSecond
	
	KiBPerSecond
	MiBPerSecond
	GiBPerSecond
	TiBPerSecond
}

interface DataRateComparable wraps java.lang.Comparable<DataRate> {}

/*
 * General data rate class to define rate (value and unit)
 */
class DataRate extends Quantity, DataRateComparable
{
	BigInteger value = "0"
	DataRateUnit unit
	
	op String toString() {
		return value + " " + if (unit == DataRateUnit::_UNDEFINED_) "<unit>" else unit.literal.replace("PerSecond", "/s")
	}
	op int compareTo(DataRate rate) {
		return AmaltheaServices.compareDataRates(this, rate)
	}
}

// -------------------------------------------------------------------------------
//
// 							Custom Properties and Values
//
// -------------------------------------------------------------------------------

/*
 * custom property container for map
 */
class CustomProperty wraps java.util.Map$Entry
{
	String[1] key
	contains Value value
}

/*
 * Abstract generalization of a value entry. 
 */
abstract class Value {}

class ListObject extends Value
{
	contains Value[] values
}

/*
 * Object for using the elementary datatype String as generic parameter
 */
class StringObject extends Value
{
	String[1] value
}

/*
 * Object for using the elementary datatype String as generic parameter
 */
class BigIntegerObject extends Value
{
	BigInteger[1] value = "0"
}

/*
 * Object for using object reference as generic parameter
 */
class ReferenceObject extends Value
{
	refers IReferable value
}

/*
 * Object for using the elementary datatype integer as generic parameter
 */
class IntegerObject extends Value
{
	int[1] value = "0"
}

/*
 * Object for using the elementary datatype long as generic parameter
 */
class LongObject extends Value
{
	long[1] value = "0"
}

/*
 * Object for using the elementary datatype float as generic parameter
 */
class FloatObject extends Value
{
	float[1] value = "0.0"
}

/*
 * Object for using the elementary datatype double as generic parameter
 */
class DoubleObject extends Value
{
	double[1] value = "0.0"
}

/*
 * Object for using the elementary datatype boolean as generic parameter
 */
class BooleanObject extends Value
{
	boolean[1] value = "false"
}

// -------------------------------------------------------------------------------
//
// 						Statistics / Deviations (general)
//
// -------------------------------------------------------------------------------

interface NumericStatistic {}

/*
 * Statistic to provide capabilities for min, max and avg
 */
class MinAvgMaxStatistic extends NumericStatistic
{
	int min = "0"
	float avg = "0f"
	int max = "0"
	
	op boolean validateInvariants(EDiagnosticChain diagnostics, EMap<Object,Object> context) {
		AmaltheaValidations.validateInvariants(this, diagnostics, context)
	}
}

class SingleValueStatistic extends NumericStatistic
{
	float value = "0f"
}

/*
 * The types of sampling
 */
enum SamplingType
{
	^default // Display: "<sampling>"
	BestCase
	WorstCase
	AverageCase
	CornerCase
	Uniform
}

// -------------------------------------------------------------------------------
//
// 								Deviation of Time
//
// -------------------------------------------------------------------------------

interface ITimeDeviation {
	op Time getLowerBound()
	op Time getUpperBound()
	op Time getAverage()
}

abstract class TimeInterval {
	contains Time[1] lowerBound
	contains Time[1] upperBound
	
	op Time getAverage() {
		lowerBound.add( upperBound.subtract(lowerBound).multiply(0.5) )
	}

	op boolean validateInvariants(EDiagnosticChain diagnostics, EMap<Object,Object> context) {
		AmaltheaValidations.validateInvariants(this, diagnostics, context)
	}
}

class TimeConstant extends ITimeDeviation {
	contains Time[1] value
	
	op Time getLowerBound() { value }
	op Time getUpperBound() { value }
	op Time getAverage() { value }
}

class TimeHistogram extends ITimeDeviation {
	contains TimeHistogramEntry[+] entries
	
	op Time getLowerBound() { entries.map[lowerBound].min }
	op Time getUpperBound() { entries.map[upperBound].max }
	op Time getAverage() {
		val sum = entries.map[average.multiply(occurrences)].reduce[p1, p2 | p1.add(p2)]
		val count = entries.map[occurrences].reduce[p1, p2 | p1 + p2]
		sum.multiply(1.0 / count)
	}
}

class TimeHistogramEntry extends TimeInterval {
	PositiveLong[1] occurrences = "1"
}

abstract class BoundedTimeDistribution extends TimeInterval, ITimeDeviation {}

abstract class TruncatedTimeDistribution extends ITimeDeviation {
	contains Time lowerBound
	contains Time upperBound
	
	op boolean validateInvariants(EDiagnosticChain diagnostics, EMap<Object,Object> context) {
		AmaltheaValidations.validateInvariants(this, diagnostics, context)
	}
}

/*
 * Defines the upper and lower bounds of a value interval without defining the distribution
 */
class TimeBoundaries extends BoundedTimeDistribution {
	SamplingType samplingType
}

/*
 * Defines the upper bound, lower bound and mean of a value interval without defining the distribution
 */
class TimeStatistics extends BoundedTimeDistribution {
	contains Time[1] average
}

/*
 * Uniform distribution
 */
class TimeUniformDistribution extends BoundedTimeDistribution {}

/*
 * Gauss distribution
 */
 class TimeGaussDistribution extends TruncatedTimeDistribution {
	contains Time[1] mean
	contains Time[1] sd
	
	op Time getAverage() {
		if (lowerBound === null && upperBound === null) return mean
		return AmaltheaServices.getAverageOfTruncatedNormalDistribution(lowerBound, upperBound, mean, sd)
	}
}

/*
 * Weibull Distribution
 * The parameter of a Weibull distribution (kappa, lambda...) are calculated from the estimators minimum, maximum and average. 
 */
class TimeWeibullEstimatorsDistribution extends BoundedTimeDistribution {
	contains Time[1] average
	PositiveDouble[1] pRemainPromille = "1.0"
}

/*
 * Beta distribution
 */
class TimeBetaDistribution extends BoundedTimeDistribution {
	PositiveDouble[1] alpha = "1.0"
	PositiveDouble[1] beta = "1.0"
	
	op Time getAverage() {
		val ratio = 1.0 / (1.0 + (beta / alpha)); // mean in interval [0,1] is 1 / (1 + (beta/alpha))
		lowerBound.add( upperBound.subtract(lowerBound).multiply(ratio) )
	}
}

// -------------------------------------------------------------------------------
//
// 								Deviation of Long
//
// -------------------------------------------------------------------------------

interface IDiscreteValueDeviation {
	op Long getLowerBound()
	op Long getUpperBound()
	op double getAverage()
}

abstract class DiscreteValueInterval {
	Long[1] lowerBound = "0"
	Long[1] upperBound = "0"
	
	op double getAverage() {
		lowerBound + (upperBound - lowerBound) / 2.0
	}
	
	op boolean validateInvariants(EDiagnosticChain diagnostics, EMap<Object,Object> context) {
		AmaltheaValidations.validateInvariants(this, diagnostics, context)
	}
}

class DiscreteValueConstant extends IDiscreteValueDeviation {
	long[1] value = "0"
	
	op Long getLowerBound() { value }
	op Long getUpperBound() { value }
	op double getAverage() { value.doubleValue }
}

class DiscreteValueHistogram extends IDiscreteValueDeviation {
	contains DiscreteValueHistogramEntry[+] entries
	
	op Long getLowerBound() { entries.map[lowerBound].min }
	op Long getUpperBound() { entries.map[upperBound].max }
	op double getAverage() {
		val sum = entries.map[average * occurrences].reduce[p1, p2 | p1 + p2]
		val count = entries.map[occurrences].reduce[p1, p2 | p1 + p2]
		sum / count
	}
}

class DiscreteValueHistogramEntry extends DiscreteValueInterval {
	PositiveLong[1] occurrences = "1"
}

abstract class BoundedDiscreteValueDistribution extends DiscreteValueInterval, IDiscreteValueDeviation {}

abstract class TruncatedDiscreteValueDistribution extends IDiscreteValueDeviation {
	Long lowerBound		// initial value is null
	Long upperBound		// initial value is null
	
	op boolean validateInvariants(EDiagnosticChain diagnostics, EMap<Object,Object> context) {
		AmaltheaValidations.validateInvariants(this, diagnostics, context)
	}
}

/*
 * Defines the upper and lower bounds of a value interval without defining the distribution
 */
class DiscreteValueBoundaries extends BoundedDiscreteValueDistribution {
	SamplingType samplingType
}

/*
 * Defines the upper bound, lower bound and mean of a value interval without defining the distribution
 */
class DiscreteValueStatistics extends BoundedDiscreteValueDistribution {
	double[1] average = "0.0"
}

/*
 * Uniform distribution
 */
class DiscreteValueUniformDistribution extends BoundedDiscreteValueDistribution {}

/*
 * Gauss distribution
 */
 class DiscreteValueGaussDistribution extends TruncatedDiscreteValueDistribution {
	double[1] mean = "0.0"
	PositiveDouble[1] sd = "1.0"
	
	op double getAverage() {
		if (lowerBound === null && upperBound === null) return mean
		return AmaltheaServices.getAverageOfTruncatedNormalDistribution(lowerBound, upperBound, mean, sd)
	}
}

/*
 * Weibull Distribution
 * The parameter of a Weibull distribution (kappa, lambda...) are calculated from the estimators minimum, maximum and average. 
 */
class DiscreteValueWeibullEstimatorsDistribution extends BoundedDiscreteValueDistribution {
	double[1] average = "0.0"
	PositiveDouble[1] pRemainPromille = "1.0"
}

/*
 * Beta distribution
 */
class DiscreteValueBetaDistribution extends BoundedDiscreteValueDistribution {
	PositiveDouble[1] alpha = "1.0"
	PositiveDouble[1] beta = "1.0"
	
	op double getAverage() {
		val ratio = 1.0 / (1.0 + (beta / alpha)); // mean in interval [0,1] is 1 / (1 + (beta/alpha))
		lowerBound + (upperBound - lowerBound) * ratio
	}
}

// -------------------------------------------------------------------------------
//
// 								Deviation of Double
//
// -------------------------------------------------------------------------------

interface IContinuousValueDeviation {
	op Double getLowerBound()
	op Double getUpperBound()
	op double getAverage()
}

abstract class ContinuousValueInterval {
	Double[1] lowerBound = "0.0"
	Double[1] upperBound = "0.0"
	
	op double getAverage() {
		lowerBound + (upperBound - lowerBound) / 2.0
	}
	
	op boolean validateInvariants(EDiagnosticChain diagnostics, EMap<Object,Object> context) {
		AmaltheaValidations.validateInvariants(this, diagnostics, context)
	}
}

class ContinuousValueConstant extends IContinuousValueDeviation {
	double[1] value = "0.0"
	
	op Double getLowerBound() { value }
	op Double getUpperBound() { value }
	op double getAverage() { value }
}

class ContinuousValueHistogram extends IContinuousValueDeviation {
	contains ContinuousValueHistogramEntry[+] entries
	
	op Double getLowerBound() { entries.map[lowerBound].min }
	op Double getUpperBound() { entries.map[upperBound].max }
	op double getAverage() {
		val sum = entries.map[average * occurrences].reduce[p1, p2 | p1 + p2]
		val count = entries.map[occurrences].reduce[p1, p2 | p1 + p2]
		sum / count
	}
}

class ContinuousValueHistogramEntry extends ContinuousValueInterval {
	PositiveLong[1] occurrences = "1"
}

abstract class BoundedContinuousValueDistribution extends ContinuousValueInterval, IContinuousValueDeviation {}

abstract class TruncatedContinuousValueDistribution extends IContinuousValueDeviation {
	Double lowerBound		// initial value is null
	Double upperBound		// initial value is null
	
	op boolean validateInvariants(EDiagnosticChain diagnostics, EMap<Object,Object> context) {
		AmaltheaValidations.validateInvariants(this, diagnostics, context)
	}
}

/*
 * Defines the upper and lower bounds of a value interval without defining the distribution
 */
class ContinuousValueBoundaries extends BoundedContinuousValueDistribution {
	SamplingType samplingType
}

/*
 * Defines the upper bound, lower bound and mean of a value interval without defining the distribution
 */
class ContinuousValueStatistics extends BoundedContinuousValueDistribution {
	double[1] average = "0.0"
}

/*
 * Uniform distribution
 */
class ContinuousValueUniformDistribution extends BoundedContinuousValueDistribution {}

/*
 * Gauss distribution
 */
 class ContinuousValueGaussDistribution extends TruncatedContinuousValueDistribution {
	double[1] mean = "0.0"
	PositiveDouble[1] sd = "1.0"
	
	op double getAverage() {
		if (lowerBound === null && upperBound === null) return mean
		return AmaltheaServices.getAverageOfTruncatedNormalDistribution(lowerBound, upperBound, mean, sd)
	}
}

/*
 * Weibull Distribution
 * The parameter of a Weibull distribution (kappa, lambda...) are calculated from the estimators minimum, maximum and average. 
 */
class ContinuousValueWeibullEstimatorsDistribution extends BoundedContinuousValueDistribution {
	double[1] average = "0.0"
	PositiveDouble[1] pRemainPromille = "1.0"
}

/*
 * Beta distribution
 */
class ContinuousValueBetaDistribution extends BoundedContinuousValueDistribution {
	PositiveDouble[1] alpha = "1.0"
	PositiveDouble[1] beta = "1.0"
	
	op double getAverage() {
		val ratio = 1.0 / (1.0 + (beta / alpha)); // mean in interval [0,1] is 1 / (1 + (beta/alpha))
		lowerBound + (upperBound - lowerBound) * ratio
	}
}

// -------------------------------------------------------------------------------
//
// 										Modes
//
// -------------------------------------------------------------------------------

abstract class Mode extends ReferableBaseObject {}

class NumericMode extends Mode
{
	// future extensions (restrictions) possible, e.g. range
}

class EnumMode extends Mode
{
	contains ModeLiteral[] literals opposite containingMode
	
	op ModeLiteral getLiteral(String literal) {
		literals.findFirst[it.name == literal]
	}
}

class ModeLiteral extends ReferableBaseObject
{
	@GenModel(propertyCategory="Read only")
	container readonly EnumMode containingMode opposite literals
	
	op String getNamePrefix() { containingMode?.name }
	
	op String toString() {
		if (name.nullOrEmpty) "<literal>" else name
	}
}

// -------------------------------------------------------------------------------
//
// 										Datatypes
//
// -------------------------------------------------------------------------------

/*
 * Hardware Address (long; specified as hexadecimal value)
 */
@ExtendedMetaData(minInclusive="0")
type Address wraps long
create {
	if (it !== null) {
		if (it.startsWith("-") || it.startsWith("+"))
			throw new NumberFormatException("Sign character")
	 	else
			Long.decode(it)
	}
}
convert {
	"0x" + Long.toHexString(it)
}

//
// Positive Numbers (value > 0): Integer (int), Long (long), Double (double)
//
 
@ExtendedMetaData(minExclusive="0")
type PositiveInt wraps int

@ExtendedMetaData(minExclusive="0")
type PositiveLong wraps long

@ExtendedMetaData(minExclusive="0")
type PositiveDouble wraps double

//
// Non Negative Numbers(value >= 0): Integer (int), Long (long), Double (double)
//
 
@ExtendedMetaData(minInclusive="0")
type NonNegativeInt wraps int

@ExtendedMetaData(minInclusive="0")
type NonNegativeLong wraps long

@ExtendedMetaData(minInclusive="0")
type NonNegativeDouble wraps double


// ===============================================================================
// ===============================================================================
// 
// 								Components Model
// 
// ===============================================================================
// ===============================================================================


class ComponentsModel extends BaseObject
{
	contains Component[] components
	contains System[] systems
}

interface ISystem
{
	contains ComponentInstance[] componentInstances
	contains Connector[] connectors
	contains QualifiedPort[] groundedPorts
	
	@GenModel(propertyCategory="Read only", propertyFilterFlags="org.eclipse.ui.views.properties.expert")
	refers derived readonly QualifiedPort[] innerPorts get {
		AmaltheaServices.getInnerPorts(this);
	}
}

abstract class Port extends ReferableBaseObject, ITaggable
{
	@GenModel(propertyCategory="Read only")
	container readonly Component containingComponent opposite ports
	
	op String getNamePrefix() { containingComponent?.name }
}

class Component extends ReferableBaseObject, ITaggable
{
	contains Port[] ports opposite containingComponent
	refers AbstractProcess[] tasks
	refers Runnable[] runnables
	refers Label[] labels
	refers Semaphore[] semaphores
	refers OsEvent[] osEvents
}

class Composite extends Component, ISystem {}

class System extends ReferableBaseObject, ITaggable, ISystem {}

class ComponentInstance extends ReferableBaseObject, ITaggable
{
	refers Component ^type
}

class Connector extends BaseObject, INamed, ITaggable
{
	contains QualifiedPort sourcePort
	contains QualifiedPort targetPort
}

class QualifiedPort extends BaseObject
{
	refers ComponentInstance instance
	refers Port port
}

class InterfacePort extends Port
{
	String interfaceName
	InterfaceKind kind
}

enum InterfaceKind
{
	_undefined_ // Display: "<kind>"
	provides // Display: "PROVIDES"
	requires // Display: "REQUIRES"
	provides_requires // Display: "PROVIDES+REQUIRES"
}


// ===============================================================================
// ===============================================================================
// 
// 								Config Model
// 
// ===============================================================================
// ===============================================================================


class ConfigModel extends BaseObject
{
	contains EventConfig[] eventsToTrace
}

class EventConfig extends BaseObject, INamed
{
	refers EntityEvent[1] event
}


// ===============================================================================
// ===============================================================================
// 
// 								Constraints Model
// 
// ===============================================================================
// ===============================================================================


class ConstraintsModel extends BaseObject
{
	contains EventChain[] eventChains
	contains TimingConstraint[] timingConstraints
	contains AffinityConstraint[] affinityConstraints
	contains RunnableSequencingConstraint[] runnableSequencingConstraints
	contains DataAgeConstraint[] dataAgeConstraints
	contains Requirement[] requirements
	contains DataCoherencyGroup[] dataCoherencyGroups
	contains DataStabilityGroup[] dataStabilityGroups
	contains PhysicalSectionConstraint[] physicalSectionConstraints
}

enum RunnableOrderType{
	_undefined_ // Display: "<order>"
	successor
	immediateSuccessorStartSequence
	immediateSuccessorAnySequence
	immediateSuccessorEndSequence
}

class RunnableSequencingConstraint extends ReferableBaseObject
{
	RunnableOrderType orderType
	contains RunnableEntityGroup[2..*] runnableGroups
	refers AbstractProcess[] processScope
}

abstract class AffinityConstraint extends ReferableBaseObject {}

/*
 * An abstract superclass for all separation constraints
 */
abstract class SeparationConstraint extends AffinityConstraint {}

/*
 * An abstract superclass for all pairing constraints
 */
abstract class PairingConstraint extends AffinityConstraint {}

/*
 * An abstract superclass for all process related constraint
 * The target describes the entity on which the processes can be mapped
 */
abstract class ProcessConstraint
{
	contains ProcessConstraintTarget target
}

/*
 * An abstract superclass for all runnable related constraint
 * The target describes the entity on which the runnables can be mapped
 */
abstract class RunnableConstraint
{
	contains RunnableConstraintTarget target
}

/*
 * An abstract superclass for all data related constraint
 * The target describes the entity on which the data can be mapped
 */
abstract class DataConstraint
{
	contains DataConstraintTarget target
}

/*
 * A runnable-separation-constraint
 * groups describes the runnable-groups that should be separated from each other on the target
 * if there is only one group then this means that the runnables of this group are not allowed to be executed on the target
 */
class RunnableSeparationConstraint extends SeparationConstraint, RunnableConstraint, BaseObject
{
	contains RunnableGroup[1..2] groups
}

/*
 * A process-separation-constraint
 * groups describes the process-groups that should be separated from each other on the target
 * if there is only one group then this means that the processes of this group are not allowed to be executed on the target
 */
class ProcessSeparationConstraint extends SeparationConstraint, ProcessConstraint, BaseObject
{
	contains ProcessGroup[1..2] groups
}

/*
 * A data-separation-constraint
 * groups describes the label-groups that should be separated from each other on the target
 * if there is only one group then this means that the label of this group is not allowed to be executed on the target
 */
class DataSeparationConstraint extends SeparationConstraint, DataConstraint, BaseObject
{
	contains LabelEntityGroup[1..2] groups
}

/*
 * A runnable-pairing-constraint
 * runnables describes the group of runnables that should be paired on the target
 */
class RunnablePairingConstraint extends PairingConstraint, RunnableConstraint, BaseObject
{
	contains RunnableGroup[1] group
}

/*
 * A process-pairing-constraint
 * processes describes the group of processes that should be paired on the target
 */
class ProcessPairingConstraint extends PairingConstraint, ProcessConstraint, BaseObject
{
	contains ProcessGroup[1] group
}

/*
 * A data-pairing-constraint
 * labels describes the group of labels that should be paired on the target
 */
class DataPairingConstraint extends PairingConstraint, DataConstraint, BaseObject
{
	contains LabelGroup[1] group
}

/*
 * An abstract superclass for all possible targets for runnable-constraints
 */
abstract class RunnableConstraintTarget {}

/*
 * An abstract superclass for all possible targets for process-constraints
 */
abstract class ProcessConstraintTarget {}

/*
 * An abstract superclass for all possible targets for data-constraints
 */
abstract class DataConstraintTarget {}

/*
 * A memory target description
 * A memory can be a target for data-constraints
 * memories: the reference to zero or more Memories. If this list is empty, the target stands for all memories! 
 */
class TargetMemory extends DataConstraintTarget, BaseObject
{
	refers Memory[] memories
}

/*
 * A core target description
 * A core can be a target for runnable-constraints, process-constraints and scheduler-constraints
 * cores: the reference to zero or more Cores. If this list is empty, the target stands for all cores! 
 */
class TargetCore extends RunnableConstraintTarget, ProcessConstraintTarget, BaseObject
{
	refers ProcessingUnit[] cores
}

/*
 * A scheduler target description
 * A scheduler can be a target for runnable-constraints and process-constraints
 * schedulers: the reference to zero or more Schedulers. If this list is empty, the target stands for all schedulers! 
 */
class TargetScheduler extends RunnableConstraintTarget, ProcessConstraintTarget, BaseObject
{
	refers Scheduler[] schedulers
}

/*
 * An abstract description for a group of labels that can be paired or separated by a runnable-constraint
 */
abstract class LabelGroup {}

/*
 * An abstract description for a group of runnables that can be paired or separated by a runnable-constraint
 */
abstract class RunnableGroup {}

/*
 * An abstract description for a group of processes that can be paired or separated by a process-constraint
 */
abstract class ProcessGroup {}

/*
 * A group of labels that can be paired or separated by a data-constraint
 */
class LabelEntityGroup extends LabelGroup, BaseObject
{
	refers Label[1..*] labels
}

/*
 * A group of runnables that can be paired or separated by a runnable-constraint
 */
class RunnableEntityGroup extends RunnableGroup, BaseObject
{
	refers Runnable[1..*] runnables
}

/*
 * A group of processes that can be paired or separated by a process-constraint
 */
class ProcessEntityGroup extends ProcessGroup, BaseObject
{
	refers Process[1..*] processes
}

/*
 * A group that contains only a tag and groups all objects that are marked with this tag
 * This can be runnables or processes
 */
class TagGroup extends RunnableGroup, ProcessGroup, BaseObject
{
	refers Tag[1] tag
}

//////////////////////////Event chains & Timing constraints:
/*
 * Describes an event chain which must have a minimum of two events (stimulus and response)
 * If there are more events the event chain have to be divided into segments. Each segment is another event chain.
 * Alternative event paths are contained in strands.
 * stimulus: Beginning of chain
 * response: End of chain
 * segments: Sub event chains
 * strands: alternative event paths
 */
abstract class AbstractEventChain extends BaseObject, INamed
{
	refers Event[1] stimulus
	refers Event[1] response
	contains EventChainItem[] segments
	contains EventChainItem[] strands
}

class EventChain extends AbstractEventChain, IReferable {}

class SubEventChain extends AbstractEventChain {}

interface EventChainItem
{
	op AbstractEventChain getEventChain()
}

class EventChainReference extends BaseObject, EventChainItem
{
	refers EventChain[1] eventChain
}

class EventChainContainer extends BaseObject, EventChainItem
{
	contains SubEventChain[1] eventChain
}

abstract class TimingConstraint extends ReferableBaseObject {}

/*
 * This contraints is used to limit a section in Memories
 */
class PhysicalSectionConstraint extends ReferableBaseObject
{
	refers Section[1] section
	refers Memory[+] memories
}

/*
 * Base class for synchronization constraints, which limit the distance between events
 * multipleOccurrencesAllowed: Defines whether multiple event occurrences are allowed for analysis
 * tolerance: Maximum allowed tolerance
 */
abstract class SynchronizationConstraint extends TimingConstraint
{
	boolean multipleOccurrencesAllowed = "false"
	contains Time[1] tolerance
}

/*
 * The synchronization constraint considers a group of events and limits the distance of the events within this group.
 */
class EventSynchronizationConstraint extends SynchronizationConstraint
{
	refers EntityEvent[+] events
}

enum SynchronizationType
{
	_undefined_ // Display: "<synchronization>"
	Stimulus
	Response
}

/*
 * A synchronization constraint describes the allowed tolerance in synchronization between two event chains
 * scope: Considered event chains that have to by in sync
 * type: Defines which parts of the event chains have to be in sync
 */
class EventChainSynchronizationConstraint extends SynchronizationConstraint
{
	refers EventChain[2] scope
	SynchronizationType ^type
}

enum MappingType
{
	_undefined_ // Display: "<mapping>"
	OneToOne
	Reaction
	UniqueReaction
}

/*
 * This constraint describes how a source and a target event are placed relative to each other
 */
class DelayConstraint extends TimingConstraint
{
	MappingType mappingType
	refers EntityEvent[1] source
	refers EntityEvent[1] target
	contains Time upper
	contains Time lower
}

enum LatencyType
{
	_undefined_ // Display: "<latency>"
	Age
	Reaction
}

/*
 * A latency constraint describes the allowed range in latency between a stimulus and its response.
 * scope: Considered event chain that defines the stimulus and response relation
 * type: Defines the point of view (forward or backward)
 * minimum: Minimum allowed latency
 * maximum: Maximum allowed latency
 */
class EventChainLatencyConstraint extends TimingConstraint
{
	refers EventChain[1] scope
	LatencyType ^type
	contains Time minimum
	contains Time maximum
}

/*
 * A repetition constraint prescribes the distribution of a single event during runtime.
 */
class RepetitionConstraint extends TimingConstraint
{
	refers EntityEvent[1] event
	int span = "0"
	contains Time lower
	contains Time upper
	contains Time jitter
	contains Time period
}

//////////////////////////Data Age Constraint
class DataAgeConstraint extends ReferableBaseObject
{
	refers Runnable[1] runnable
	refers Label[1] label
	contains DataAge[1] dataAge
}

abstract class DataAge {}

class DataAgeCycle extends DataAge
{
	int minimumCycle = "0"
	int maximumCycle = "0"
}

class DataAgeTime extends DataAge
{
	contains Time minimumTime
	contains Time maximumTime
}

////////////////////////// Requirements
abstract class Requirement extends BaseObject, INamed
{
	Severity severity
	contains RequirementLimit[1] limit
}

class ProcessRequirement extends Requirement
{
	refers AbstractProcess[1] process
}

class RunnableRequirement extends Requirement
{
	refers Runnable[1] runnable
}

class ArchitectureRequirement extends Requirement
{
	refers Component[1] component
}

class ProcessChainRequirement extends Requirement
{
	refers ProcessChain[1] processChain
}

abstract class RequirementLimit
{
	LimitType limitType
}

class CPUPercentageRequirementLimit extends RequirementLimit
{
	CPUPercentageMetric metric
	double limitValue = "0.0"
	// can be ECU, Processor or Core
	refers ProcessingUnit hardwareContext
}

class FrequencyRequirementLimit extends RequirementLimit
{
	FrequencyMetric metric
	contains Frequency[1] limitValue
}

class PercentageRequirementLimit extends RequirementLimit
{
	PercentageMetric metric
	double limitValue = "0.0"
}

class CountRequirementLimit extends RequirementLimit
{
	CountMetric metric
	int limitValue = "0"
}

class TimeRequirementLimit extends RequirementLimit
{
	TimeMetric metric
	// signed time is allowed because the requirement to lateness can be negative
	contains Time[1] limitValue
}

enum Severity
{
	_undefined_ // Display: "<severity>"
	Cosmetic
	Minor
	Major
	Critical
}

enum LimitType
{
	_undefined_ // Display: "<limit>"
	UpperLimit
	LowerLimit
}

enum TimeMetric
{
	_undefined_ // Display: "<time metric>"
	ActivateToActivate
	CoreExecutionTime
	EndToEnd
	EndToStart
	GrossExecutionTime
	Lateness
	MemoryAccessTime
	NetExecutionTime
	OsOverhead
	ParkingTime
	PollingTime
	ReadyTime
	ResponseTime
	RunningTime
	StartDelay
	StartToStart
	WaitingTime
}

enum CountMetric
{
	_undefined_ // Display: "<count metric>"
	Activations
	BoundedMigrations
	CacheHit
	CacheMiss
	FullMigrations
	MtaLimitExceeding
	Preemptions
}

enum PercentageMetric
{
	_undefined_ // Display: "<% metric>"
	CacheHitRatio
	CacheMissRatio
	CoreExecutionTimeRelative
	MemoryAccessTimeRelative
	NormalizedLateness
	NormalizedResponseTime
	OsOverheadRelative
}

enum CPUPercentageMetric
{
	_undefined_ // Display: "<CPU % metric>"
	CPUBuffering
	CPULoad
	CPUParking
	CPUPolling
	CPUReady
	CPURunning
	CPUWaiting
}

enum FrequencyMetric
{
	_undefined_ // Display: "<frequency metric>"
	CacheHitFrequency
	CacheMissFrequency
}

//////////////////////////// Data Groups (Coherency and Stability)
class DataCoherencyGroup extends ReferableBaseObject
{
	refers Label[+] labels
	contains DataGroupScope scope
	CoherencyDirection direction
}

enum CoherencyDirection
{
	_undefined_ // Display: "<direction>"
	input
	output
}

class DataStabilityGroup extends ReferableBaseObject
{
	refers Label[+] labels
	contains DataGroupScope scope
}

abstract class DataGroupScope {}

class ProcessScope extends DataGroupScope
{
	refers AbstractProcess process
}

class RunnableScope extends DataGroupScope
{
	refers Runnable runnable
}

class ComponentScope  extends DataGroupScope
{
	refers Component component
}


// ===============================================================================
// ===============================================================================
// 
// 									Events Model
// 
// ===============================================================================
// ===============================================================================


class EventModel extends BaseObject
{
	contains Event[] events
}

/*
 * An abstract event
 */
abstract class Event extends ReferableBaseObject, ITaggable
{
	String description
}

/*
 * A set of entity-events
 */
class EventSet extends Event
{
	refers EntityEvent[+] events
}

/*
 * An abstract event that describes the notification of a changed state of an entity
 */
abstract class EntityEvent extends Event {}

/*
 * Defines Events to be used in Stimuli as trigger.
 */
abstract class TriggerEvent extends EntityEvent
{
}

class CustomEvent extends TriggerEvent
{
	String eventType
	
	// back pointer (readonly)
	@GenModel(documentation="<p><b>Returns an <em>immutable</em> list of triggers (CustomEventTrigger).</b></p>")
	@GenModel(propertyCategory="Read only", propertyFilterFlags="org.eclipse.ui.views.properties.expert")
	refers transient readonly volatile derived CustomEventTrigger[] explicitTriggers get {
		AmaltheaIndex.getInverseReferences(this, AmaltheaPackage.eINSTANCE.customEvent_ExplicitTriggers, 
			#{AmaltheaPackage.eINSTANCE.customEventTrigger_Event} )
	}
}

/*
 * Describes the event of a stimulus. 
 * It contains only the stimulus but no event type because a stimulus has only one event type.
 */
class StimulusEvent extends EntityEvent
{
	refers Stimulus entity
}

/*
 * Describes the event of a process
 * eventType: The type of the Event
 * entity: The process that fires the event (optional)
 * processingUnit: The processing unit that executes the process when the event is fired (optional) 
 */
class ProcessEvent extends EntityEvent
{
	ProcessEventType eventType
	refers Process entity
	refers ProcessingUnit processingUnit
}

/*
 * Describes the event of some process within a process chain
 * eventType: The type of the Event
 * entity: The process that fires the event (optional)
 * processingUnit: The processing unit that executes the process when the event is fired (optional) 
 */
class ProcessChainEvent extends EntityEvent
{
	ProcessEventType eventType
	refers ProcessChain entity
	refers ProcessingUnit processingUnit
}

/*
 * Describes the event of a runnable
 * eventType: The type of event
 * entity: The runnable that fires the event (optional)
 * process: The process that executes the runnable (optional)
 * processingUnit: The processing unit that executes the runnable (executes the process that calls the runnable) (optional) 
 */
class RunnableEvent extends TriggerEvent
{
	RunnableEventType eventType
	refers Runnable entity
	refers Process process
	refers ProcessingUnit processingUnit
}

/*
 * Describes the event of a label access
 * eventType: The type of event
 * entity: The accessed label that fires the event (optional)
 * runnable: The runnable that accesses the label (optional)
 * process: The process that accesses the label (optional)
 */
class LabelEvent extends TriggerEvent
{
	LabelEventType eventType
	refers Label entity
	refers Runnable runnable
	refers Process process
}

/*
 * Describes the event of a channel access
 * eventType: The type of event
 * entity: The accessed channel that fires the event (optional)
 * runnable: The runnable that accesses the label (optional)
 * process: The process that accesses the label (optional)
 */
class ChannelEvent extends TriggerEvent
{
	ChannelEventType eventType
	refers Channel entity
	refers Runnable runnable
	refers Process process
}

/*
 * Describes the event of a semaphore access
 * eventType: The type of event
 * entity: The accessed semaphore that fires the event (optional)
 * runnable: The runnable that accesses the semaphore (optional)
 * process: The process that accesses the semaphore (optional)
 * processingUnit: The processing unit that executes the process/runnable that accesses the semaphore (optional)
 */
class SemaphoreEvent extends EntityEvent
{
	SemaphoreEventType eventType
	refers Semaphore entity
	refers Runnable runnable
	refers Process process
	refers ProcessingUnit processingUnit
}

/*
 * Describes the event of a component
 * eventType: The type of event
 * entity: The component that fires the event (optional)
 */
class ComponentEvent extends EntityEvent
{
	ComponentEventType eventType
	refers Component entity
}

/*
 * The types of a process event
 */
enum ProcessEventType
{
	_all_
	activate
	deadline
	start
	resume
	preempt
	poll
	run
	wait
	poll_parking
	park
	release_parking
	release
	terminate
}

/*
 * The types of a runnable event
 */
enum RunnableEventType
{
	_all_
	start
	suspend
	resume
	terminate
}

/*
 * The types of a label event
 */
enum LabelEventType
{
	_all_
	read
	write
}

/*
 * The types of a label event
 */
enum ChannelEventType
{
	_all_
	send
	receive
}

/*
 * The types of a semaphore event
 */
enum SemaphoreEventType
{
	_all_
	lock
	unlock
}

/*
 * The types of a component event
 */
enum ComponentEventType
{
	_all_
	start
	end
}


// ===============================================================================
// ===============================================================================
// 
// 									HW Model
// 
// ===============================================================================
// ===============================================================================


class HWModel extends BaseObject
{
	contains HwDefinition[] definitions
	contains HwFeatureCategory[] featureCategories
	contains HwStructure[] structures
	contains HwDomain[] domains
}

class HwStructure extends ReferableBaseObject, ITaggable
{
	StructureType structureType
	contains HwPort[] ports
	contains HwStructure[] structures
	contains HwModule[] modules
	contains HwConnection[] connections
	
	@GenModel(propertyCategory="Read only", propertyFilterFlags="org.eclipse.ui.views.properties.expert")
	refers derived readonly HwPort[] innerPorts get {
		AmaltheaServices.getInnerPorts(this);
	}
}

abstract class HwModule extends ReferableBaseObject, ITaggable
{
	contains HwPort[] ports
	refers PowerDomain powerDomain
	refers FrequencyDomain frequencyDomain
}

abstract class HwDomain extends ReferableBaseObject, ITaggable {}

class FrequencyDomain extends HwDomain
{
	// contains Frequency[] possibleValues
	contains Frequency defaultValue
	boolean clockGating = "false"
}

class PowerDomain extends HwDomain
{
	// contains Voltage[] possibleValues
	contains Voltage defaultValue
	boolean powerGating = "false"
}

class ProcessingUnit extends HwModule, HwDestination, HwPathElement
{
	refers ProcessingUnitDefinition definition
	contains HwAccessElement[] accessElements opposite source
	contains Cache[] caches
}

class Memory extends HwModule, HwDestination
{
	refers MemoryDefinition definition
	
	// back pointer (readonly)
	@GenModel(documentation="<p><b>Returns an <em>immutable</em> list of mappings (MemoryMapping).</b></p>")
	@GenModel(propertyCategory="Read only", propertyFilterFlags="org.eclipse.ui.views.properties.expert")
	refers transient readonly volatile derived MemoryMapping[] mappings get {
		AmaltheaIndex.getInverseReferences(this, AmaltheaPackage.eINSTANCE.memory_Mappings,
			#{AmaltheaPackage.eINSTANCE.memoryMapping_Memory} )
	}
}

enum MemoryType
{
	_undefined_
	DRAM
	SRAM
	FLASH
	PCM
}

class Cache extends HwModule, HwPathElement
{
	refers CacheDefinition definition
}

class HwFeatureCategory extends ReferableBaseObject
{
	HwFeatureType featureType
	String description
	contains HwFeature[] features opposite containingCategory
}

class HwFeature extends ReferableBaseObject
{
	@GenModel(propertyCategory="Read only")
	container readonly HwFeatureCategory containingCategory opposite features
	
	op String getNamePrefix() { containingCategory?.name }
	
	op String toString() {
		val featureName = containingCategory?.name
		return (if (featureName.nullOrEmpty) "<category>" else featureName) + "::" + (if (name.nullOrEmpty) "<feature>" else name)
	}
	
	double value = "0.0"
}

class HwPort extends ReferableBaseObject, ITaggable
{
	op String getNamePrefix() { (eContainer as INamed)?.name }
	
	int bitWidth = "0"
	int priority = "0"
	PortType portType
	PortInterface portInterface
	
	@GenModel(propertyCategory="Read only")
	derived readonly boolean delegated get {
		eContainer instanceof HwStructure
	}
	
	// back pointer (readonly)
	@GenModel(documentation="<p><b>Returns an <em>immutable</em> list of connections (HwConnection).</b></p>")
	@GenModel(propertyCategory="Read only", propertyFilterFlags="org.eclipse.ui.views.properties.expert")
	refers transient readonly volatile derived HwConnection[] connections get {
		AmaltheaIndex.getInverseReferences(this, AmaltheaPackage.eINSTANCE.hwPort_Connections,
			#{AmaltheaPackage.eINSTANCE.hwConnection_Port1, AmaltheaPackage.eINSTANCE.hwConnection_Port2}
		)
	}

}

class ConnectionHandler extends HwModule, HwPathElement
{
	refers ConnectionHandlerDefinition definition
	contains HwConnection[] internalConnections
}

class HwConnection extends ReferableBaseObject, HwPathElement, ITaggable
{
	op String getNamePrefix() { (eContainer as INamed)?.name }
	
	@GenModel(documentation="<p><b>Read latency [cycles]</b></p>")
	contains IDiscreteValueDeviation readLatency
	@GenModel(documentation="<p><b>Write latency [cycles]</b></p>")
	contains IDiscreteValueDeviation writeLatency
	contains DataRate dataRate
	refers HwPort port1
	refers HwPort port2
	
	@GenModel(propertyCategory="Read only")
	derived readonly boolean internal get {
		eContainer instanceof ConnectionHandler
	}
	
	op HwPort[] getPorts() {
		return newArrayList(port1, port2).filterNull.toEList.unmodifiableEList
	}
}

class HwAccessElement extends ITaggable, INamed
{
	// container (read only)
	@GenModel(propertyCategory="Read only")
	container readonly ProcessingUnit source opposite accessElements
	
	refers HwDestination[1] destination
	contains HwAccessPath accessPath opposite containingAccessElement
	@GenModel(documentation="<p><b>Read latency [cycles]</b></p>")
	contains IDiscreteValueDeviation readLatency
	@GenModel(documentation="<p><b>Write latency [cycles]</b></p>")
	contains IDiscreteValueDeviation writeLatency
	contains DataRate dataRate
}

enum StructureType
{
	_undefined_
	System
	ECU
	Microcontroller
	SoC
	Cluster
	Group
	Array
	Area
	Region
}

enum CacheType
{
	_undefined_
	instruction
	data
	unified
}

enum PortType
{
	_undefined_
	initiator // master
	responder // slave
}

enum SchedPolicy
{
	_undefined_
	RoundRobin
	FCFS
	PriorityBased
}

enum WriteStrategy
{
	_undefined_
	none
	writeback
	writethrough
}

abstract class HwDefinition extends ReferableBaseObject, ITaggable {}

class ProcessingUnitDefinition extends HwDefinition
{
	PuType puType
	refers HwFeature[] features
	refers CoreClassifier[] classifiers // backward compatibility
}

class ConnectionHandlerDefinition extends HwDefinition
{
	SchedPolicy policy
	@GenModel(documentation="<p><b>Read latency [cycles]</b></p>")
	contains IDiscreteValueDeviation readLatency
	@GenModel(documentation="<p><b>Write latency [cycles]</b></p>")
	contains IDiscreteValueDeviation writeLatency
	contains DataRate dataRate
	PositiveInt maxBurstSize = "1"
	PositiveInt maxConcurrentTransfers = "1"
}

class MemoryDefinition extends HwDefinition
{
	contains DataSize size
	@GenModel(documentation="<p><b>Access latency [cycles]</b></p>")
	contains IDiscreteValueDeviation accessLatency
	contains DataRate dataRate
	MemoryType memoryType
	refers MemoryClassifier[] classifiers // backward compatibility
}

class CacheDefinition extends HwDefinition
{
	contains DataSize size
	contains DataSize lineSize
	@GenModel(documentation="<p><b>Access latency [cycles]</b></p>")
	contains IDiscreteValueDeviation accessLatency
	CacheType cacheType
	WriteStrategy writeStrategy
	int nWays = "0"
	boolean coherency = "false"
	boolean exclusive = "false"
	double hitRate = "0.0"
}

abstract class HwPath
{
	op HwAccessElement getContainingAccessElement() {}
	
	@GenModel(propertyCategory="Read only")
	refers derived readonly ProcessingUnit source get {
		return containingAccessElement.source
	}
	@GenModel(propertyCategory="Read only")
	refers derived readonly HwDestination destination get {
		return containingAccessElement.destination
	}
}

class HwAccessPath extends HwPath, INamed
{
	@GenModel(propertyCategory="Read only")
	container readonly HwAccessElement containingAccessElement opposite accessPath
	
	refers HwPathElement[+] pathElements
	Address startAddress = "0"
	Address endAddress = "0"
	Address memOffset = "0"
}

interface HwPathElement extends IReferable
{
	op HwPort[] getPorts()
}

interface HwDestination extends IReferable
{
	op HwPort[] getPorts()
}

enum PuType
{
	_undefined_
	GPU
	CPU
	Accelerator
}

enum PortInterface
{
	_undefined_
	custom
	CAN
	Flexray
	LIN
	MOST
	Ethernet
	SPI			// Serial Peripheral Interface
	I2C			// Inter-Integrated Circuit
	AXI			// Advanced eXtensible Interface
	AHB			// Advanced High-performance Bus
	APB			// Advanced Peripheral Bus
	SWR			// Serial WireRing
}

enum HwFeatureType
{
	_undefined_
	performance
	power
	performance_and_power
}


// ===============================================================================
// ===============================================================================
// 
// 									Mapping Model
// 
// ===============================================================================
// ===============================================================================


class MappingModel extends BaseObject
{
	contains SchedulerAllocation[] schedulerAllocation
	contains RunnableAllocation[] runnableAllocation
	contains TaskAllocation[] taskAllocation
	contains ISRAllocation[] isrAllocation
	contains MemoryMapping[] memoryMapping
	contains PhysicalSectionMapping[] physicalSectionMapping
	MemoryAddressMappingType addressMappingType
}

/*
 * Defines how to interpret the memory addresses in this mapping model
 */
enum MemoryAddressMappingType
{
	_undefined_ // Display: "<address type>"
	// no addresses required
	none
	// absolute memory address
	address
	// offset from first address of memory
	offset
}

//////////////// Generalizations for the Allocations (assignment to cores)
/*
 * Allocation of Schedulers
 */
class SchedulerAllocation extends BaseObject
{
	refers Scheduler[1] scheduler
	refers ProcessingUnit[+] responsibility
	refers ProcessingUnit executingPU
}

//////////////// Specializations of Allocations
class TaskAllocation extends BaseObject
{
	refers Task[1] task
	refers TaskScheduler[1] scheduler
	refers ProcessingUnit[] affinity
	contains SchedulingParameters schedulingParameters
	contains ParameterExtension[] parameterExtensions
}

class ISRAllocation extends BaseObject
{
	refers ISR[1] isr
	refers InterruptController[1] controller
	Integer priority
}

class RunnableAllocation extends BaseObject
{
	refers Scheduler[1] scheduler
	refers Runnable[1] entity
}

//////////////// Specializations of Mappings
/*
 * Mapping of AbstractMemoryElement (Label, Runnable, ISR, Task, ...) 
 * to a specific memory.
 */
class MemoryMapping extends BaseObject
{
	refers AbstractMemoryElement[1] abstractElement
	refers Memory memory
	/*
	 * The position of the element in the mapped memory
	 */
	Address memoryPositionAddress = "0"
}

class PhysicalSectionMapping extends ReferableBaseObject
{
	@GenModel(propertyCategory="Main")
	refers Section[+] origin
	@GenModel(propertyCategory="Memory")
	refers Memory[1] memory
	@GenModel(propertyCategory="Memory")
	Address startAddress = "0"
	@GenModel(propertyCategory="Memory")
	Address endAddress	= "0"
	refers Label[] labels
	refers Runnable[] runEntities
}


// ===============================================================================
// ===============================================================================
// 
// 									OS Model
// 
// ===============================================================================
// ===============================================================================


class OSModel extends BaseObject
{
	contains Semaphore[] semaphores
	contains OperatingSystem[] operatingSystems
	contains OsOverhead[] osOverheads
}

class OsDataConsistency extends BaseObject
{
	OsDataConsistencyMode mode
	contains DataStability dataStability
	contains NonAtomicDataCoherency nonAtomicDataCoherency
}

class DataStability
{
	boolean enabled = "false"
	String algorithm
	AccessMultiplicity accessMultiplicity
	DataStabilityLevel level
}

class NonAtomicDataCoherency
{
	boolean enabled = "false"
	String algorithm
	AccessMultiplicity accessMultiplicity
}

enum OsDataConsistencyMode
{
	_undefined_ // Display: "<data consistency mode>"
	noProtection
	automaticProtection
	customProtection
	handledByModelElements
}

enum AccessMultiplicity
{
	_undefined_ // Display: "<access multiplicity>"
	singleAccess
	multipleAccesses
}

enum DataStabilityLevel
{
	_undefined_ // Display: "<data stability level>"
	period // between consecutive occurrences
	process // within a Task or ISR
	scheduleSection // between Schedule points (explicit schedule points, begin and end of process)
	runnable // within a Runnable
}

/*
 * name: Name of semaphore
 * maxValue: maximum number of users which can access the semaphore simultaneously
 * initialValue: number of users which access semaphore at system startup
 * priorityCeilingProtocol: enables priority ceiling for this resource

 */
class Semaphore extends ReferableBaseObject
{
	SemaphoreType semaphoreType
	int initialValue = "0"
	int maxValue = "0"
	boolean priorityCeilingProtocol = "false"
	
	// back pointer (readonly)
	@GenModel(documentation="<p><b>Returns an <em>immutable</em> list of accesses (SemaphoreAccess).</b></p>")
	@GenModel(propertyCategory="Read only", propertyFilterFlags="org.eclipse.ui.views.properties.expert")
	refers transient readonly volatile derived SemaphoreAccess[] semaphoreAccesses get {
		AmaltheaIndex.getInverseReferences(this, AmaltheaPackage.eINSTANCE.semaphore_SemaphoreAccesses,
			#{AmaltheaPackage.eINSTANCE.semaphoreAccess_Semaphore} )
	}
	// back pointer (readonly)
	@GenModel(documentation="<p><b>Returns an <em>immutable</em> list of components the semaphore belongs to.</b></p>")
	@GenModel(propertyCategory="Read only", propertyFilterFlags="org.eclipse.ui.views.properties.expert")
	refers transient readonly volatile derived Component[] referringComponents get {
		AmaltheaIndex.getInverseReferences(this, AmaltheaPackage.eINSTANCE.semaphore_ReferringComponents,
			#{AmaltheaPackage.eINSTANCE.component_Semaphores} )
	}
}

enum SemaphoreType
{
	_undefined_ // Display: "<semaphore type>"
	CountingSemaphore
	Resource
	Spinlock
}

/*
 * scheduling algorithm: The used algorithm for scheduling
 * computation items: steps to perform the scheduling algorithm
 */
abstract class Scheduler extends ReferableBaseObject
{
	contains ComputationItem[] computationItems
	op Algorithm getSchedulingAlgorithm() {}
	
	// back pointer (readonly)
	@GenModel(documentation="<p><b>Returns an <em>immutable</em> list of scheduler allocations (SchedulerAllocation).</b></p>")
	@GenModel(propertyCategory="Read only", propertyFilterFlags="org.eclipse.ui.views.properties.expert")
	refers transient readonly volatile derived SchedulerAllocation[] schedulerAllocations get {
		AmaltheaIndex.getInverseReferences(this, AmaltheaPackage.eINSTANCE.scheduler_SchedulerAllocations,
			#{AmaltheaPackage.eINSTANCE.schedulerAllocation_Scheduler} )
	}
	
	// back pointer (readonly)
	@GenModel(documentation="<p><b>Returns an <em>immutable</em> list of runnable allocations (RunnableAllocation).</b></p>")
	@GenModel(propertyCategory="Read only", propertyFilterFlags="org.eclipse.ui.views.properties.expert")
	refers transient readonly volatile derived RunnableAllocation[] runnableAllocations get {
		AmaltheaIndex.getInverseReferences(this, AmaltheaPackage.eINSTANCE.scheduler_RunnableAllocations,
			#{AmaltheaPackage.eINSTANCE.runnableAllocation_Scheduler} )
	}
}

class TaskScheduler extends Scheduler
{
	contains TaskSchedulingAlgorithm schedulingAlgorithm
	contains SchedulerAssociation parentAssociation opposite child
	
	// back pointer (readonly)
	@GenModel(documentation="<p><b>Returns an <em>immutable</em> list of child associations (SchedulerAssociation).</b></p>")
	@GenModel(propertyCategory="Read only", propertyFilterFlags="org.eclipse.ui.views.properties.expert")
	refers transient readonly volatile derived SchedulerAssociation[] childAssociations get {
		AmaltheaIndex.getInverseReferences(this, AmaltheaPackage.eINSTANCE.taskScheduler_ChildAssociations,
			#{AmaltheaPackage.eINSTANCE.schedulerAssociation_Parent} )
	}
	
	// back pointer (readonly)
	@GenModel(documentation="<p><b>Returns an <em>immutable</em> list of task allocations (TaskAllocation).</b></p>")
	@GenModel(propertyCategory="Read only", propertyFilterFlags="org.eclipse.ui.views.properties.expert")
	refers transient readonly volatile derived TaskAllocation[] taskAllocations get {
		AmaltheaIndex.getInverseReferences(this, AmaltheaPackage.eINSTANCE.taskScheduler_TaskAllocations,
			#{AmaltheaPackage.eINSTANCE.taskAllocation_Scheduler} )
	}
	
	@GenModel(propertyCategory="Read only")
	refers derived readonly TaskScheduler parentScheduler get {
		return parentAssociation?.parent
	}
	
	@GenModel(propertyCategory="Read only")
	refers derived readonly TaskScheduler[] childSchedulers get {
		val result = childAssociations.map[child].filterNull
		return new UnmodifiableEList(this as InternalEObject, AmaltheaPackage.eINSTANCE.taskScheduler_ChildSchedulers,
			result.size, result.toList.toArray)
	}
}

class SchedulerAssociation
{
	// container (read only)
	@GenModel(propertyCategory="Read only")
	container readonly TaskScheduler child opposite parentAssociation
	
	refers TaskScheduler parent
	contains SchedulingParameters schedulingParameters
	contains ParameterExtension[] parameterExtensions
}

class InterruptController extends Scheduler
{
	contains InterruptSchedulingAlgorithm schedulingAlgorithm
	
	// back pointer (readonly)
	@GenModel(documentation="<p><b>Returns an <em>immutable</em> list of ISR allocations (ISRAllocation).</b></p>")
	@GenModel(propertyCategory="Read only", propertyFilterFlags="org.eclipse.ui.views.properties.expert")
	refers transient readonly volatile derived ISRAllocation[] isrAllocations get {
		AmaltheaIndex.getInverseReferences(this, AmaltheaPackage.eINSTANCE.interruptController_IsrAllocations,
			#{AmaltheaPackage.eINSTANCE.ISRAllocation_Controller} )
	}	
}

/*
 * Common scheduling parameters
 */
class SchedulingParameters
{
	Integer priority
	contains Time minBudget
	contains Time maxBudget
	contains Time replenishment
}

/*
 * Parameter extensions (used for scheduling algorithms)
 */
class ParameterExtension wraps java.util.Map$Entry
{
	String[1] key
	String[1] value
}

abstract class Algorithm extends BaseObject {}

/*
 * Interrupt Scheduling Algorithm
 */
abstract class InterruptSchedulingAlgorithm extends Algorithm {}

/*
 * Task Scheduling Algorithm
 */
abstract class TaskSchedulingAlgorithm extends Algorithm {}

/*
 * Fixed Priority Scheduling
 */
abstract class FixedPriority extends TaskSchedulingAlgorithm {}

/*
 * Fixed Priority Preemptive scheduling algorithm
 */
class FixedPriorityPreemptive extends FixedPriority {}

/*
 * Fixed Priority Preemptive scheduling algorithm (with budget enforcement)
 */
class FixedPriorityPreemptiveWithBudgetEnforcement extends FixedPriority {}

/*
 * OSEK scheduling algorithm
 */
class OSEK extends FixedPriority {}

/*
 * task with shortest deadline has highest priority
 */
class DeadlineMonotonic extends FixedPriority {}

/*
 * task with shortest recurrence (i.e. period) has highest priority
 */
class RateMonotonic extends FixedPriority {}

/*
 * Proportionate Fair (Pfair) Scheduling
 * (global scheduling algorithm)
 */
abstract class Pfair extends TaskSchedulingAlgorithm
{
	int quantSizeNs = "0"
}

/*
 * Proportionate Fair PD2 Scheduling
 * (global scheduling algorithm)
 */
class PfairPD2 extends Pfair {}

/*
 * Partly Proportionate Fair PD2 Scheduling
 * (global scheduling algorithm)
 */
class PartlyPFairPD2 extends Pfair {}

/*
 * Early Release Fair PD2 Scheduling
 * (global scheduling algorithm)
 */
class EarlyReleaseFairPD2 extends Pfair {}

/*
 * Partly Early Release Fair PD2 Scheduling
 * (global scheduling algorithm)
 */
class PartlyEarlyReleaseFairPD2 extends Pfair {}

/*
 * Dynamic Priority Scheduling
 */
abstract class DynamicPriority extends TaskSchedulingAlgorithm {}

/*
 * global scheduling algorithm
 */
class LeastLocalRemainingExecutionTimeFirst extends DynamicPriority {}

/*
 * earliest absolute deadline first
 */
class EarliestDeadlineFirst extends DynamicPriority {}

/*
 * all tasks with equal priority executed for certain time slice
 */
class PriorityBasedRoundRobin extends DynamicPriority {}

/*
 * Reservation Based Server
 */
abstract class ReservationBasedServer extends TaskSchedulingAlgorithm {}

/*
 * Deferrable Server
 */
class DeferrableServer extends ReservationBasedServer {}

/*
 * Polling Periodic Server
 */
class PollingPeriodicServer extends ReservationBasedServer {}

/*
 * Sporadic Server
 */
class SporadicServer extends ReservationBasedServer {}

/*
 * Constant Bandwidth Server
 */
class ConstantBandwidthServer extends ReservationBasedServer {}

/*
 * Constant Bandwidth Server With CASH
 */
class ConstantBandwidthServerWithCASH extends ReservationBasedServer {}

/*
 * logical grouping of tasks/child-schedulers
 */
class Grouping extends TaskSchedulingAlgorithm {}

/*
 * allows the user to define own scheduling algorithm (TA-Toolsuite feature)
 */
class UserSpecificSchedulingAlgorithm extends TaskSchedulingAlgorithm, InterruptSchedulingAlgorithm
{
	contains ParameterExtension[] parameterExtensions
}

/*
 * Priority based Scheduling Algorithm for Interrupts
 */
class PriorityBased extends InterruptSchedulingAlgorithm {}

class OperatingSystem extends BaseObject, INamed
{
	refers OsOverhead overhead
	contains TaskScheduler[] taskSchedulers
	contains InterruptController[] interruptControllers
	contains OsDataConsistency osDataConsistency
}

class VendorOperatingSystem extends OperatingSystem
{
	String osName
	String vendor
	String version
}

class OsOverhead extends ReferableBaseObject
{
	contains OsAPIOverhead apiOverhead
	contains OsISROverhead isrCategory1Overhead
	contains OsISROverhead isrCategory2Overhead
}

class OsAPIOverhead extends BaseObject
{
	contains Ticks apiSendMessage
	contains Ticks apiTerminateTask
	contains Ticks apiSchedule
	contains Ticks apiRequestResource
	contains Ticks apiReleaseResource
	contains Ticks apiSetEvent
	contains Ticks apiWaitEvent
	contains Ticks apiClearEvent
	contains Ticks apiActivateTask
	contains Ticks apiEnforcedMigration
	contains Ticks apiSuspendOsInterrupts
	contains Ticks apiResumeOsInterrupts
	contains Ticks apiRequestSpinlock
	contains Ticks apiReleaseSpinlock
	contains Ticks apiSenderReceiverRead
	contains Ticks apiSenderReceiverWrite
	contains Ticks apiSynchronousServerCallPoint
	contains Ticks apiIocRead
	contains Ticks apiIocWrite
}

class OsISROverhead extends BaseObject
{
	contains Ticks preExecutionOverhead
	contains Ticks postExecutionOverhead
}


// ===============================================================================
// ===============================================================================
// 
// 								Property Constraints Model
// 
// ===============================================================================
// ===============================================================================


class PropertyConstraintsModel extends BaseObject
{
	contains CoreAllocationConstraint[] allocationConstraints
	contains MemoryMappingConstraint[] mappingConstraints
}

/*
 * Abstract Class, used to describe Constraints for Allocations
 * (these usually target Cores and their features/attributes)
 */
abstract class CoreAllocationConstraint extends BaseObject
{
	contains CoreClassification coreClassification
}

/*
 * Abstract Class, used to describe Constraints for Mapping
 * (these usually target Memories and their features/attributes)
 */
abstract class MemoryMappingConstraint extends BaseObject
{
	contains MemoryClassification memoryClassification
}

/*
 * ProcessAllocationConstraints describe the constraints for
 * Process-to-Core allocations
 */
class ProcessAllocationConstraint extends CoreAllocationConstraint
{
	refers Process process
}

/*
 * ProcessPrototypeAllocationConstraints describe the constraints for
 * ProcessPrototype-to-Core allocations
 */
class ProcessPrototypeAllocationConstraint extends CoreAllocationConstraint
{
	refers ProcessPrototype processPrototype
}

/*
 * RunnableAllocationConstraints describe the constraints for
 * Runnable-to-Core allocations
 */
class RunnableAllocationConstraint extends CoreAllocationConstraint
{
	refers Runnable runnable
}

/*
 * AbstractElementMappingConstraints describe the constraints for 
 * AbstractMemoryElement-to-Memory Mapping
 */
class AbstractElementMappingConstraint extends MemoryMappingConstraint
{
	refers AbstractMemoryElement abstractElement
}

/*
 * Generalization for all Hardware related constraints
 */
abstract class Classification extends BaseObject
{
	Condition condition
	GroupingType grouping
}

enum Condition
{
	_undefined_ // Display: "<condition>"
	requires
	excludes
}

enum GroupingType{
	_undefined_ // Display: "<grouping>"
	allOfThem
	atLeastOneOfThem
}

class CoreClassification extends Classification
{
	refers CoreClassifier[] classifiers
}

class MemoryClassification extends Classification
{
	refers MemoryClassifier[] classifiers
}



// ===============================================================================
// ===============================================================================
// 
// 									Stimuli Model
// 
// ===============================================================================
// ===============================================================================


class StimuliModel extends BaseObject
{
	contains Stimulus[] stimuli
	contains Clock[] clocks
}

/*
 * Every process/task can have one or more stimuli.
 * A stimulus activates the process
 */
abstract class Stimulus extends ReferableBaseObject, ITaggable
{
	contains ModeValueList setModeValueList
	contains ModeConditionDisjunction executionCondition
	
	// back pointer (readonly)
	@GenModel(documentation="<p><b>Returns an <em>immutable</em> list of affected processes (Process).</b></p>")
	@GenModel(propertyCategory="Read only", propertyFilterFlags="org.eclipse.ui.views.properties.expert")
	refers transient readonly volatile derived Process[] affectedProcesses get {
		AmaltheaIndex.getInverseReferences(this, AmaltheaPackage.eINSTANCE.stimulus_AffectedProcesses,
			#{AmaltheaPackage.eINSTANCE.process_Stimuli} )
	}
}

class ModeValueList extends BaseObject
{
	contains ModeAssignment[] entries
}

class ModeValueMapEntry wraps java.util.Map$Entry
{
	refers ModeLabel[1] key
	String[1] value
}

abstract class ModeValue extends BaseObject {
	refers ModeLabel[1] label
	String[1] value

	op boolean validateInvariants(EDiagnosticChain diagnostics, EMap<Object,Object> context) {
		AmaltheaValidations.validateInvariants(this, diagnostics, context)
	}

	op ModeLiteral getLiteral() {
		if (value === null) return null
		val mode = label?.mode
		if (mode instanceof EnumMode) {mode.literals.findFirst[name == value]} else {null}
	}

	op Integer getInteger() {
		if (value === null) return null
		val mode = label?.mode
		if (mode instanceof NumericMode && value.matches("-?\\d+")) {Integer.parseInt(value)} else {null}
	}
}

class ModeAssignment extends ModeValue {
}

class ModeConditionDisjunction extends BaseObject
{
	contains ModeConditionDisjunctionEntry[+] entries
	
	op boolean isSatisfiedBy(ModeValueMapEntry[] context) {
		for (ModeConditionDisjunctionEntry entry : entries) {
			if (entry.isSatisfiedBy(context)) return true;
		}
		return false;
	}
}

interface ModeConditionDisjunctionEntry extends BaseObject
{
	op boolean isSatisfiedBy(ModeValueMapEntry[] assignment) 
}

class ModeCondition extends ModeValue, ModeConditionDisjunctionEntry {
	RelationalOperator relation

	op boolean isSatisfiedBy(ModeValueMapEntry[] context) {
		// no value defined => satisfied (don't care)
		val labelValue = context?.get(label)
		return (labelValue === null) || (labelValue == value)
	}
}

class ModeConditionConjunction extends ModeConditionDisjunctionEntry
{
	contains ModeCondition[+] entries
	
	op boolean isSatisfiedBy(ModeValueMapEntry[] context) {
		for (ModeCondition entry : entries) {
			if (! entry.isSatisfiedBy(context)) return false;
		}
		return true;
	}
}

/*
 * Stimulus that is triggered periodically.
 * offset: Time of first occurrence
 * recurrence: Time between following occurrences
 */
interface FixedPeriodic
{
	contains Time offset
	contains Time recurrence
}

/*
 * Stimulus that is triggered periodically.
 * jitter: Deviation from true periodicity to real occurrence
 * minDistance: Minimal time between occurrences
 */
class PeriodicStimulus extends Stimulus, FixedPeriodic
{
	contains ITimeDeviation jitter
	contains Time minDistance
}

/*
 * Stimulus that is triggered relative to the previous occurrence.
 * offset: Time of first occurrence
 * step: Time (Deviation) between successive occurrences
 */
class RelativePeriodicStimulus extends Stimulus
{
	contains Time offset
	contains ITimeDeviation nextOccurrence
}

/*
 * Periodic stimulus based on other events, like rotation speed
 * clock: Time base which defines deviation of time, multiple stimuli can have the same time base
 */
class VariableRateStimulus extends Stimulus
{
	contains Time[1] step
	contains IContinuousValueDeviation occurrencesPerStep
	Double maxIncreasePerStep		// initial value is null
	Double maxDecreasePerStep		// initial value is null
	contains Scenario scenario
}

class Scenario extends BaseObject
{
	contains Counter counter
	refers Clock[1] clock
}

/*
 * Stimulus (repeated periodically) with a defined list of occurrences.
 * occurrenceTimes: List of all occurrences
 */
class PeriodicSyntheticStimulus extends Stimulus, FixedPeriodic
{
	contains Time[+] occurrenceTimes
}

/*
 * Stimulus to describe own custom types, including properties.
 */
class CustomStimulus extends Stimulus
{
	String description
}

/*
 * Single occurrence at a defined time.
 */
class SingleStimulus extends Stimulus
{
	contains Time[1] occurrence
}

/*
 * Stimulus based on a explicit inter process trigger.
 */
class InterProcessStimulus extends Stimulus
{
	contains Counter counter
	
	// back pointer (readonly)
	@GenModel(documentation="<p><b>Returns an <em>immutable</em> list of triggers (InterProcessTrigger).</b></p>")
	@GenModel(propertyCategory="Read only", propertyFilterFlags="org.eclipse.ui.views.properties.expert")
	refers transient readonly volatile derived InterProcessTrigger[] explicitTriggers get {
		AmaltheaIndex.getInverseReferences(this, AmaltheaPackage.eINSTANCE.interProcessStimulus_ExplicitTriggers,
			#{AmaltheaPackage.eINSTANCE.interProcessTrigger_Stimulus} )
	}
}

/*
 * Stimulus  (repeated periodically) for burst occurrences
 * burstLength: Time frame for the burst (occurrences after the length are clipped)
 */
class PeriodicBurstStimulus extends Stimulus, FixedPeriodic
{
	contains Time[1] burstLength
	contains Time occurrenceMinDistance
	int occurrenceCount = "0"
}

/*
 * Stimulus which is activated by an event.
 */
class EventStimulus extends Stimulus
{
	refers TriggerEvent[+] triggeringEvents
	contains Counter counter
}

/*
 * Arrival Curve Stimulus
 */
class ArrivalCurveStimulus extends Stimulus
{
	contains ArrivalCurveEntry[+] entries
}

class ArrivalCurveEntry extends BaseObject
{
	int numberOfOccurrences = "0"
	contains Time lowerTimeBorder
	contains Time upperTimeBorder
}

/*
 * Within a Scenario a Clock defines the predefined curve progression in a simulation
 */
abstract class Clock extends ReferableBaseObject {}

class ClockFunction extends Clock
{
	CurveType curveType
	contains Time[1] period
	contains Frequency[1] peakToPeak // amplitude
	contains Time xOffset
	contains Frequency yOffset
}


enum CurveType
{
	_undefined_ // Display: "<curve type>"
	sine
	triangle
}

class ClockStepList extends Clock
{
	contains ClockStep[+] entries
	contains Time period
}

class ClockStep extends BaseObject
{
	contains Frequency[1] frequency
	contains Time[1] time
}


// ===============================================================================
// ===============================================================================
// 
// 									SW Model
// 
// ===============================================================================
// ===============================================================================


/*
 * Central instance to provide central access. 
 */
class SWModel extends BaseObject
{
	contains ISR[] isrs
	contains Task[] tasks
	contains Runnable[] runnables
	contains Label[] labels
	contains Channel[] channels
	contains ProcessPrototype[] processPrototypes
	contains Section[] sections
	contains Activation[] activations
	contains OsEvent[] events
	contains TypeDefinition[] typeDefinitions
	contains CustomEntity[] customEntities
	contains ProcessChain[] processChains
	contains Mode[] modes
	contains ModeLabel[] modeLabels
	op ModeLiteral modeLiteral(String mode, String literal) {
		if (mode.isNullOrEmpty || literal.isNullOrEmpty) return null
		return (modes?.findFirst[it instanceof EnumMode && it.name == mode] as EnumMode)?.literals?.findFirst[it.name == literal]
	}
}

abstract class AbstractMemoryElement extends ReferableBaseObject, ITaggable
{
	/*
	 * Specifying the size of the element corresponding to the needed memory allocation
	 */
	contains DataSize size
	
	// back pointer (readonly)
	@GenModel(documentation="<p><b>Returns an <em>immutable</em> list of mappings (MemoryMapping).</b></p>")
	@GenModel(propertyCategory="Read only", propertyFilterFlags="org.eclipse.ui.views.properties.expert")
	refers transient readonly volatile derived MemoryMapping[] mappings get {
		AmaltheaIndex.getInverseReferences(this, AmaltheaPackage.eINSTANCE.abstractMemoryElement_Mappings,
			#{AmaltheaPackage.eINSTANCE.memoryMapping_AbstractElement} )
	}
}

abstract class AbstractProcess extends AbstractMemoryElement
{
	// back pointer (readonly)
	@GenModel(documentation="<p><b>Returns an <em>immutable</em> list of components the abstract process belongs to.</b></p>")
	@GenModel(propertyCategory="Read only", propertyFilterFlags="org.eclipse.ui.views.properties.expert")
	refers transient readonly volatile derived Component[] referringComponents get {
		AmaltheaIndex.getInverseReferences(this, AmaltheaPackage.eINSTANCE.abstractProcess_ReferringComponents,
			#{AmaltheaPackage.eINSTANCE.component_Tasks} )
	}	
}

/*
 * Possibility to define general custom elements
 */
class CustomEntity extends AbstractMemoryElement
{
	String typeName
}

/*
 * Groups a list of processes to a process chain.
 * This does not define how the processes are chained, like being executed by one parent or like they trigger each other
 * This just defines that the processes should be chained.
 */
class ProcessChain extends ReferableBaseObject 
{
	refers Process[] processes
}

/*
 * Generalizes interrupt service routines and tasks
 */
abstract class Process extends AbstractProcess
{
	contains CallGraph callGraph
	refers Stimulus[] stimuli
}

interface ICallGraphItemContainer
{
	contains CallGraphItem[] items
}


/*
 * Describes the different execution paths of a process or runnable
 */
class CallGraph extends BaseObject, ICallGraphItemContainer {}

/*
 * An abstract item of a call graph
 */
abstract class CallGraphItem extends BaseObject
{
	// container (read only)
	@GenModel(propertyCategory="Read only", propertyFilterFlags="org.eclipse.ui.views.properties.expert")
	refers local readonly derived Process containingProcess get {
		AmaltheaServices.getContainerOfType(this, Process)
	}
	
	// container (read only)
	@GenModel(propertyCategory="Read only", propertyFilterFlags="org.eclipse.ui.views.properties.expert")
	refers local readonly derived Runnable containingRunnable get {
		AmaltheaServices.getContainerOfType(this, Runnable)
	}
}

/*
 * A switch in the call graph, the selected path depends on the value of the provided mode conditions
 */
class ModeSwitch extends CallGraphItem
{
	contains ModeSwitchEntry[] entries
	contains ModeSwitchDefault defaultEntry
}

/*
 * A switch entry for a ModeSwitch. 
 * It describes a path of the switch and the required mode condition to use this path
 */
class ModeSwitchEntry extends BaseObject, INamed, ICallGraphItemContainer
{
	contains ModeConditionDisjunction[1] condition
}

class ModeSwitchDefault extends BaseObject, ICallGraphItemContainer {}

/*
 * A switch in the call graph, each path has a probability
 */
class ProbabilitySwitch extends CallGraphItem
{
	contains ProbabilitySwitchEntry[] entries
}

/*
 * A switch entry for a ProbabilitySwitch
 * It describes a path of the switch and it's probability
 */
class ProbabilitySwitchEntry extends BaseObject, ICallGraphItemContainer
{
	double probability = "0.0"
}

/*
 * A counter for the call sequence items
 */
class Counter extends BaseObject
{
	PositiveLong prescaler = "1"
	NonNegativeLong offset = "0"
}

/*
 * Let the process wait for a combination of events defined by eventMask
 * maskType defines if the events in eventMask are linked by a AND or OR
 */
class WaitEvent extends CallGraphItem
{
	contains EventMask eventMask
	WaitEventType maskType
	WaitingBehaviour waitingBehaviour
	
	contains Counter counter
}

enum WaitEventType
{
	_undefined_ // Display: "<wait event>"
	AND
	OR
}

enum WaitingBehaviour
{
	_undefined_ // Display: "<waiting>"
	active
	passive
}

/*
 * Sets the events of eventMask 
 * These events can be set for a specific process, if there is no process, is is global (for all processes)
 * If there is a process, it is possible to set the event for a specific process instance that is currently activated
 */
class SetEvent extends CallGraphItem
{
	contains EventMask eventMask
	refers Process process
	
	contains Counter counter
}

/*
 * Clears the events of eventMask
 */
class ClearEvent extends CallGraphItem
{
	contains EventMask eventMask
	
	contains Counter counter
}

/*
 * A event mask
 */
class EventMask extends BaseObject
{
	refers OsEvent[] events
}

/*
 * A event that can be set, cleared and waited for by a process 
 */
class OsEvent extends ReferableBaseObject, ITaggable
{
	int communicationOverheadInBit = "0"
	
	// back pointer (readonly)
	@GenModel(documentation="<p><b>Returns an <em>immutable</em> list of components the OS event belongs to.</b></p>")
	@GenModel(propertyCategory="Read only", propertyFilterFlags="org.eclipse.ui.views.properties.expert")
	refers transient readonly volatile derived Component[] referringComponents get {
		AmaltheaIndex.getInverseReferences(this, AmaltheaPackage.eINSTANCE.osEvent_ReferringComponents,
			#{AmaltheaPackage.eINSTANCE.component_OsEvents} )
	}
}

/*
 * Triggers a stimulus to activate its processes
 */
class InterProcessTrigger extends CallGraphItem
{
	refers InterProcessStimulus[1] stimulus
	
	contains Counter counter
}

/*
 * Migrates task to core of resource owner
 */
class EnforcedMigration extends CallGraphItem
{
	refers TaskScheduler[1] resourceOwner
}

/*
 * Triggers scheduler
 */
class SchedulePoint extends CallGraphItem
{
}

/*
 * Terminates the process
 */
class TerminateProcess extends CallGraphItem
{
	contains Counter counter
}

/*
 * Schedulable entity, which is managed by the OS. An instance of a Task is mapped to exactly one core
 * and includes the direct representation of all abstractions.
 */
class Task extends Process
{
	Preemption preemption
	int multipleTaskActivationLimit = "0"
}

/*
 * Interrupt service routine
 */
class ISR extends Process
{
	ISRCategory category
}

enum ISRCategory
{
	_undefined_ // Display: "<isr category>"
	CATEGORY_1
	CATEGORY_2
}

/*
 * Prototype class for Process. 
 * It does contain meta information of potential processes, which does not represent the final state.
 * The final state can be several Tasks, which can be computed using provided information of this prototype.
 */
class ProcessPrototype extends AbstractProcess
{
	Preemption preemption
	refers Runnable firstRunnable
	refers Runnable lastRunnable
	/*
	 * Defines the general label accesses
	 */
	contains AccessPrecedenceSpec[] accessPrecedenceSpec
	/*
	 * Defines the general order of runnables
	 */
	contains OrderPrecedenceSpec[] orderPrecedenceSpec
	contains ChainedProcessPrototype[] chainedPrototypes
	refers Activation activation
	contains RunnableCall[] runnableCalls
}

class ChainedProcessPrototype extends BaseObject
{
	refers ProcessPrototype[1] prototype
	int apply = "0"
	int offset = "0"
}

/*
 * General abstraction for precedence
 */
abstract class GeneralPrecedence extends BaseObject
{
	refers Runnable origin
	refers Runnable target
}

/*
 * 
 */
class AccessPrecedenceSpec extends GeneralPrecedence
{
	refers Label[1] label
	AccessPrecedenceType orderType
}

/*
 * Defines the access precedence at the time of one task period.
 */
enum AccessPrecedenceType
{
	_undefined_ // Display: "<access>"
	/*
	 * Writer of label has to be performed before the reader.
	 */
	defaultWR
	/*
	 * Dependency between writer and reader can be ignored.
	 */
	ignoreWR
	/*
	 * Reader of label has to be performed before the writer (delay unit of controller).
	 */
	enforceRW
}

/*
 * 
 */
class OrderPrecedenceSpec extends GeneralPrecedence
{
	OrderType orderType
}

enum OrderType
{
	_undefined_ // Display: "<order>"
	/*
	 * Defines a general order, the included elements must not follow directly
	 */
	order
	/*
	 * The defined elements must follow directly
	 */
	directOrder
	startSequence
	endSequence
}

enum DirectionType
{
	_undefined_ // Display: "<direction>“
	in
	out
	inout	
}

class DataDependency extends BaseObject 
{
	refers Label[] labels
	refers RunnableParameter[] parameters
	refers CallArgument[] callArguments
	
	// container (read only)
	@GenModel(propertyCategory="Read only", propertyFilterFlags="org.eclipse.ui.views.properties.expert")
	refers local readonly derived Runnable containingRunnable get {
		AmaltheaServices.getContainerOfType(this, Runnable)
	}
}

class RunnableParameter extends ReferableBaseObject
{
	@GenModel(propertyCategory="Read only")
	container readonly Runnable containingRunnable opposite parameters
	
	op String getNamePrefix() { containingRunnable?.name }
	
	DirectionType direction
	refers TypeDefinition dataType
	contains DataDependency dependsOn
	
	op String toString() {
		val runName = containingRunnable?.name
		return (if (runName.nullOrEmpty) "<runnable>" else runName) + "::" + (if (name.nullOrEmpty) "<parameter>" else name)
	}	
}


/*
 * Smallest allocatable unit, which provides additional (optional) attributes for allocation algorithms.
 */
class Runnable extends AbstractMemoryElement
{
	contains ModeConditionDisjunction executionCondition
	contains RunnableParameter[] parameters opposite containingRunnable
	contains CallGraph callGraph
	refers Activation[] activations
	
	op CallGraphItem[] getRunnableItems() {
		if (callGraph === null) callGraph = AmaltheaFactory.eINSTANCE.createCallGraph()
		callGraph.items
	}
	op Activation getFirstActivation() {
		activations.head
	}
	/*
	 * Marker if runnable is used as callback.
	 */
	boolean callback = "false"
	/*
	 * Marker if runnable is used as a service.
	 */
	boolean service = "false"
	/*
	 * ASIL level for the runnable entity
	 */
	ASILType asilLevel
	
	refers Section section
	
	// back pointer (readonly)
	@GenModel(documentation="<p><b>Returns an <em>immutable</em> list of callers (RunnableCalls).</b></p>")
	@GenModel(propertyCategory="Read only", propertyFilterFlags="org.eclipse.ui.views.properties.expert")
	refers transient readonly volatile derived RunnableCall[] runnableCalls get {
		AmaltheaIndex.getInverseReferences(this, AmaltheaPackage.eINSTANCE.runnable_RunnableCalls,
			#{AmaltheaPackage.eINSTANCE.runnableCall_Runnable} )
	}
	// back pointer (readonly)
	@GenModel(documentation="<p><b>Returns an <em>immutable</em> list of components the runnable belongs to.</b></p>")
	@GenModel(propertyCategory="Read only", propertyFilterFlags="org.eclipse.ui.views.properties.expert")
	refers transient readonly volatile derived Component[] referringComponents get {
		AmaltheaIndex.getInverseReferences(this, AmaltheaPackage.eINSTANCE.runnable_ReferringComponents,
			#{AmaltheaPackage.eINSTANCE.component_Runnables} )
	}
}

/*
 * Data representation, which can be accessed by run entities.
 */
class Label extends AbstractMemoryElement, IDisplayName
{
	contains DataType dataType
	/*
	 * Defines the label as a constant, not modifiable entity
	 */
	boolean constant = "false"
	/*
	 * Defines if the label value is volatile or persistent to survive shutdown and start of system
	 */
	boolean bVolatile = "false"
	/*
	 * Defines the data stability needs of the label
	 */
	LabelDataStability dataStability
	DataStabilityLevel stabilityLevel
	
	refers Section section
	
	// back pointer (readonly)
	@GenModel(documentation="<p><b>Returns an <em>immutable</em> list of accesses (LabelAccess).</b></p>")
	@GenModel(propertyCategory="Read only", propertyFilterFlags="org.eclipse.ui.views.properties.expert")
	refers transient readonly volatile derived LabelAccess[] labelAccesses get {
		AmaltheaIndex.getInverseReferences(this, AmaltheaPackage.eINSTANCE.label_LabelAccesses,
			#{AmaltheaPackage.eINSTANCE.labelAccess_Data} )
	}
	// back pointer (readonly)
	@GenModel(documentation="<p><b>Returns an <em>immutable</em> list of components the label belongs to.</b></p>")
	@GenModel(propertyCategory="Read only", propertyFilterFlags="org.eclipse.ui.views.properties.expert")
	refers transient readonly volatile derived Component[] referringComponents get {
		AmaltheaIndex.getInverseReferences(this, AmaltheaPackage.eINSTANCE.label_ReferringComponents,
			#{AmaltheaPackage.eINSTANCE.component_Labels} )
	}

}

class Channel extends AbstractMemoryElement, IDisplayName
{
	contains DataType elementType
	int defaultElements = "0"
	int maxElements = "0"
	
	// back pointer (readonly)
	@GenModel(documentation="<p><b>Returns an <em>immutable</em> list of accesses (ChannelAccess).</b></p>")
	@GenModel(propertyCategory="Read only", propertyFilterFlags="org.eclipse.ui.views.properties.expert")
	refers transient readonly volatile derived ChannelAccess[] channelAccesses get {
		AmaltheaIndex.getInverseReferences(this, AmaltheaPackage.eINSTANCE.channel_ChannelAccesses,
			#{AmaltheaPackage.eINSTANCE.channelAccess_Data} )
	}
}

class ModeLabel extends AbstractMemoryElement, IDisplayName {
	refers Mode[1] mode
	String initialValue
	
	op boolean validateInvariants(EDiagnosticChain diagnostics, EMap<Object,Object> context) {
		AmaltheaValidations.validateInvariants(this, diagnostics, context)
	}

	op boolean isEnum() {
		mode instanceof EnumMode
	}
	
	op boolean isNumeric() {
		mode instanceof NumericMode
	}
}


enum LabelDataStability
{
	_undefined_ // Display: "<data stability>"
	noProtection
	automaticProtection
	customProtection
	handledByModelElements
}

/*
 * A section is a logical structure, which contains labels and abstract run entities.
 * It is used to provide an easy mechanism to distribute objects to memory, 
 * which are belonging together.
 */
class Section extends ReferableBaseObject
{
	/*
	 * for specifying the ASIL level for the "virtual memory sections"
	 */
	ASILType asilLevel
	
	// back pointer (readonly)
	@GenModel(documentation="<p><b>Returns an <em>immutable</em> list of labels (Label).</b></p>")
	@GenModel(propertyCategory="Read only", propertyFilterFlags="org.eclipse.ui.views.properties.expert")
	refers transient readonly volatile derived Label[] labels get {
		AmaltheaIndex.getInverseReferences(this, AmaltheaPackage.eINSTANCE.section_Labels,
			#{AmaltheaPackage.eINSTANCE.label_Section} )
	}
	// back pointer (readonly)
	@GenModel(documentation="<p><b>Returns an <em>immutable</em> list of runnables (Runnable).</b></p>")
	@GenModel(propertyCategory="Read only", propertyFilterFlags="org.eclipse.ui.views.properties.expert")
	refers transient readonly volatile derived Runnable[] runnables get {
		AmaltheaIndex.getInverseReferences(this, AmaltheaPackage.eINSTANCE.section_Runnables,
			#{AmaltheaPackage.eINSTANCE.runnable_Section} )
	}
}

/*
 * Representation of a object that describes computation
 */
abstract class ComputationItem extends CallGraphItem {}

/*
 * Representation of the execution needs of a Runnable (default and core-specific)
 */
class ExecutionNeed extends CallGraphItem
{
	contains NeedEntry[] needs
}

class NeedEntry wraps java.util.Map$Entry
{
	String[1] key	//	refers to HwFeatureCategory
	contains IDiscreteValueDeviation[1] value
}

/*
 * Representation of the execution IDiscreteValueDeviation of a Runnable (default and core-specific)
 */
class Ticks extends ComputationItem {
	contains IDiscreteValueDeviation ^default
	contains TicksEntry[] extended
}

class TicksEntry wraps java.util.Map$Entry {
	refers ProcessingUnitDefinition[1] key
	contains IDiscreteValueDeviation[1] value
}

enum ModeLabelAccessEnum {
	_undefined_ // Display: "<access>"
	read
	^set
	increment
	decrement
}

/*
 * Representation of a mode label access of a run entity.
 */
class ModeLabelAccess extends CallGraphItem
{
	refers ModeLabel[1] data
	ModeLabelAccessEnum access
	/*
	 * Just used in case that this access writes a value to a Mode-Label.
	 * It can be used to define which mode value is written to the label. 
	 */
	String value
	/*
	 * Just used in case of increment or decrement.
	 * It can be used to define a step other than 1. 
	 */
	PositiveInt step = "1"
	
	op boolean validateInvariants(EDiagnosticChain diagnostics, EMap<Object,Object> context) {
		AmaltheaValidations.validateInvariants(this, diagnostics, context)
	}
}

/*
 * Representation of a label access of a run entity.
 */
class LabelAccess extends ComputationItem, ITaggable
{
	refers Label[1] data
	LabelAccessEnum access

	/*
	 * Optional parameter for statistic values
	 */
	contains LabelAccessStatistic statistic

	/*
	 * Optional parameter for transmission policy of larger data
	 */
	contains TransmissionPolicy transmissionPolicy

	/*
	 * Defines the data stability needs of the label access
	 */
	LabelAccessDataStability dataStability
	LabelAccessImplementation implementation	 
		
	contains DataDependency dependsOn
}

abstract class ChannelAccess extends CallGraphItem
{
	refers Channel[1] data
	int elements = "0"
	contains TransmissionPolicy transmissionPolicy
}

class ChannelSend extends ChannelAccess
{
}

class ChannelReceive extends ChannelAccess
{
	ReceiveOperation receiveOperation
	boolean dataMustBeNew = "false"
	int elementIndex = "0"
	int lowerBound = "0"
//	int elementsHold	-> use custom property
}

enum ReceiveOperation
{
	_undefined_ // Display: "<receive operation>"
	FIFO_Read
	FIFO_Take
	LIFO_Read
	LIFO_Take
}

/*
 * Defines the data stability needs of a label access.
 * Inherited means that the setting of the Label is used
 */
enum LabelAccessDataStability
{
	_undefined_ // Display: "<data stability>"
	inherited
	noProtection
	automaticProtection
	customProtection
	handledByModelElements
}

enum LabelAccessEnum
{
	_undefined_ // Display: "<access>"
	read
	write
}

enum LabelAccessImplementation
{
	_undefined_ // Display: "<implementation>"
	explicit // also known as "direct"
	implicit // also known as "optimized"
	timed
}

/*
 * Describes an semaphore access
 */
class SemaphoreAccess extends CallGraphItem
{
	refers Semaphore[1] semaphore
	SemaphoreAccessEnum access
	WaitingBehaviour waitingBehaviour
}

/*
 * request: requests access to semaphore
 * release: release accessed semaphore
 * exclusive: gets access to requested semaphore only when there is no other user accessing it
 */
enum SemaphoreAccessEnum
{
	_undefined_ // Display: "<access>"
	request
	exclusive
	release
}

/*
 * An abstract description for sender-receiver-communication (it can be read or write)
 */
abstract class SenderReceiverCommunication extends CallGraphItem
{
	boolean buffered = "false"
	refers Label[1] label
	refers Port port
}

/*
 * The read operation of the receiver of the sender-receiver-communication
 */
class SenderReceiverRead extends SenderReceiverCommunication {}

/*
 * The write operation of the sender of the sender-receiver-communication
 * It contains the runnables that have the corresponding SenderReceiverRead  
 */
class SenderReceiverWrite extends SenderReceiverCommunication
{
	refers Runnable[] notifiedRunnables
}

/*
 * An abstract description for client/server communication
 * It refers to a required runnable that describes the called server operation
 */
abstract class ServerCall extends CallGraphItem
{
	refers Runnable[1] serverRunnable
	refers Port port
}

/*
 * A synchronous server call
 */
class SynchronousServerCall extends ServerCall
{
	WaitingBehaviour waitingBehaviour
}

/*
 * A asynchronous server call
 * It refers to a optional runnable that exploits the results produced by the server
 */
class AsynchronousServerCall extends ServerCall
{
	refers Runnable resultRunnable
}

/*
 * Get the result of a previous asynchronous server call
 */
class GetResultServerCall extends ServerCall
{
	BlockingType blockingType
}

/*
 * Blocking type
 */
enum BlockingType
{
	_undefined_ // Display: "<blocking>"
	active_wait
	passive_wait
	non_blocking
}

/*
 * Describes a group of deviation runnable items
 */
class Group extends CallGraphItem, INamed, ICallGraphItemContainer
{
	boolean ordered = "true"
}

class CallArgument extends ReferableObject
{
	@GenModel(propertyCategory="Read only")
	container readonly RunnableCall containingCall opposite arguments
	
	op String getName() {
		if (super.name.nullOrEmpty) "access.1" else super.name
	}
	
	op String computeUniqueName() {
		return encode(containingCall?.containingRunnable?.name)
				+ "/calls/" + encode(containingCall?.runnable?.name)
				+ "/param/" + encode(parameter?.name) + "/" + encode(name)
				+ "?type=" + eClass.name
	}
	
	@GenModel(propertyCategory="Main")
	refers RunnableParameter parameter
	
	contains DataDependency dependsOn
}

/*
 * Representation of a runnable call of a run entity.
 */
class RunnableCall extends CallGraphItem, ITaggable
{
	refers Runnable[1] runnable
	contains CallArgument[] arguments opposite containingCall
	contains RunEntityCallStatistic statistic
}

/*
 * Preemption type for scheduling
 */
enum Preemption
{
	_undefined_ // Display: "<preemption>"
	preemptive
	cooperative // aka limited-preemptive
	non_preemptive
}

/*
 * Concurrency type of an entity
 */
enum ConcurrencyType
{
	_undefined_ // Display: "<concurrency>"
	/*
	 * Safe for access inside of the same core
	 */
	SingleCoreSafe
	/*
	 * Safe for access from another core
	 */
	MultiCoreSafe
	SingleCorePrioSafe
}

/*
 * Explicitly trigger a custom event from a runnable.
 */
class CustomEventTrigger extends CallGraphItem
{
	refers CustomEvent[1] event
}

/*
 * Central access point for different data type definitions
 */
interface DataType
{
}

/*
 * Couple of compound data types
 */
abstract class CompoundType extends BaseObject, DataType
{
}

/*
 * Representing a struct definition, containing different entries
 */
class Struct extends CompoundType
{
	contains StructEntry[] entries
}

/*
 * Representation of one struct entry
 */
class StructEntry extends BaseObject, INamed
{
	contains DataType dataType
}

/*
 * Representation of an array data type
 */
class Array extends CompoundType
{
	int numberElements = "0"
	contains DataType dataType
}

/*
 * Representing a pointer
 */
class Pointer extends CompoundType
{
	contains DataType dataType
}

class TypeRef extends BaseObject, DataType
{
	refers TypeDefinition typeDef
}


class Alias extends BaseObject
{
	/*
	 * Name of the target environment
	 */
	String target
	/*
	 * Corresponding name in the target environment
	 */
	String alias
}

abstract class TypeDefinition extends ReferableBaseObject
{
	/*
	 * Size of the defined data type
	 */
	contains DataSize size
}

class DataTypeDefinition extends TypeDefinition
{
	contains DataType dataType
}

/*
 * Basic data type definition, including naming (alias) in target environments
 */
class BaseTypeDefinition extends TypeDefinition
{
	/*
	 * Naming in different target environments
	 */
	contains Alias[] aliases
}

/*
 * General abstraction for activation source.
 * Used for first definition of an activation rate, which is later refined by stimulus.
 */
abstract class Activation extends ReferableBaseObject, ITaggable
{
}

/*
 * Min and Max execution frequency within a task or timeslice
 */
class PeriodicActivation extends Activation
{
	contains Time min
	contains Time max
	contains Time[1] recurrence
	contains Time[1] offset
}

/*
 * Periodic activation based on other events, like rotation speed
 */
class VariableRateActivation extends Activation
{
	String description
	contains Time[1] step
	contains IContinuousValueDeviation[1] occurrencesPerStep
}

class SporadicActivation extends Activation
{
	String description
	contains ITimeDeviation[1] occurrence
}

/*
 * A single activation between time min and max
 */
class SingleActivation extends Activation
{
	contains Time min
	contains Time max
}

/*
 * Activation which is triggered by an event.
 */
class EventActivation extends Activation
{
	refers TriggerEvent[+] triggeringEvents
	contains Counter counter
}

class CustomActivation extends Activation
{
	String description
}

/*
 * Contains information about access statistic values
 */
class LabelAccessStatistic extends BaseObject
{
	contains NumericStatistic value
	contains NumericStatistic cacheMisses
}

class RunEntityCallStatistic extends BaseObject
{
	contains NumericStatistic statistic
}

enum ASILType
{
	_undefined_ // Display: "<ASIL Level>"
	D
	C
	B
	A
	QM
}


// ===============================================================================
// ===============================================================================
// 
// 									Measurement Model
// 
// ===============================================================================
// ===============================================================================


class MeasurementModel extends BaseObject
{
	contains Measurement[] measurements
}

abstract class Measurement extends BaseObject
{
	contains Time[] runtimes
	contains ITimeDeviation runtimeDeviation
}

class EventChainMeasurement extends Measurement
{
	refers EventChain[1] eventChain
}

class TaskMeasurement extends Measurement
{
	refers Task[1] task
}

class RunnableMeasurement extends Measurement
{
	refers Runnable[1] runnable
}