libSBML Python API  5.8.0
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libsbml.Reaction Class Reference
Inheritance diagram for libsbml.Reaction:
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Detailed Description

Implementation of SBML's Reaction construct.

A reaction represents any transformation, transport or binding process, typically a chemical reaction, that can change the quantity of one or more species. In SBML, a reaction is defined primarily in terms of the participating reactants and products (and their corresponding stoichiometries), along with optional modifier species, an optional rate at which the reaction takes place, and optional parameters.

As with other major object in SBML, Reaction has a mandatory attribute, 'id', used to give the compartment type an identifier. The identifier must be a text string conforming to the identifer syntax permitted in SBML. In SBML Level 2 and Level 3, the reaction 'id' identifier can be used in mathematical formulas elsewhere in an SBML model to represent the rate of that reaction; this usage is explained below. Reaction also has an optional 'name' attribute, of type string. The 'id' and 'name' must be used according to the guidelines described in the SBML specification.

The species participating as reactants, products, and/or modifiers in a reaction are declared using lists of SpeciesReference and/or ModifierSpeciesReference instances stored in subelements 'listOfReactants', 'listOfProducts' and 'listOfModifiers'. Certain restrictions are placed on the appearance of species in reaction definitions:

  • The ability of a species to appear as a reactant or product of any reaction in a model is governed by certain flags in that species' definition; see the definition of Species for more information.

  • Any species appearing in the mathematical formula of the subelement 'kineticLaw' (described below) of a Reaction must be declared in at least one of that Reaction's lists of reactants, products, and/or modifiers. Put another way, it is an error for a reaction's kinetic law formula to refer to species that have not been declared for that reaction.

  • A reaction definition can contain an empty list of reactants or an empty list of products, but it must have at least one reactant or product; in other words, a reaction without any reactant or product species is not permitted. (This restriction does not apply to modifier species, which remain optional in all cases.)

A reaction can contain up to one KineticLaw object in a subelement named 'kineticLaw'. It defines the speed at which the process defined by the reaction takes place. The description of KineticLaw provides more details about its use. Note that although the inclusion of a KineticLaw object in an instance of a Reaction component is optional, there is no useful default that can be substituted in place of a missing rate expression in a reaction. Moreover, a reaction's rate cannot be defined in any other way in SBML—InitialAssignment, AssignmentRule, RateRule, AlgebraicRule, Event, and other constructs in SBML cannot be used to set the reaction rate separately. Nevertheless, for some modeling applications, reactions without any defined rate can be perfectly acceptable.

Reaction also has a boolean attribute named 'reversible' for indicating whether the reaction is reversible. This attribute is optional in SBML Level 2, with a default of True; it is mandatory in SBML Level 3 (with no default value). To say that a reaction is reversible is to say it can proceed in either the forward or the reverse direction. Although the reversibility of a reaction can sometimes be deduced by inspecting its rate expression, this is not always the case, especially for complicated expressions. Moreover, the need in SBML to allow rate expressions (i.e., KineticLaw) to be optional leads to the need for a separate flag indicating reversibility. Note that labeling a reaction as irreversible is an assertion that the reaction always proceeds in the given forward direction. (Why else would it be flagged as irreversible?) This implies the rate expression in the KineticLaw always has a non-negative value during simulations. Software tools could provide a means of optionally testing that this condition holds. The presence of reversibility information in two places (i.e., the rate expression and the 'reversible' attribute on Reaction) leaves open the possibility that a model could contain contradictory information, but the creation of such a model would be an error on the part of the software generating it.

The Reaction object class has another boolean attribute called 'fast'. This attribute is optional in SBML Level 2, with a default of false; it is mandatory in SBML Level 3 (with no default value). It is used to indicate that a reaction occurs on a vastly faster time scale than others in a system. Readers are directed to the SBML Level 2 Version 4 specification, which provides more detail about the conditions under which a reaction can be considered to be fast in this sense. The attribute's default value is False. SBML Level 1 and Level 2 Version 1 incorrectly claimed that software tools could ignore this attribute if they did not implement support for the corresponding concept; however, further research in SBML has revealed that this is not true, and 'fast' cannot be ignored if it is set to True. SBML Level 2 Versions 2–4 therefore stipulate that if a model has any reactions with 'fast' set to True, a software tool must be able to respect the attribute or else indicate to the user that it does not have the capacity to do so. Analysis software cannot ignore the value of the 'fast' attribute because doing so may lead to different results as compared to a software system that does make use of 'fast'.

In SBML Level 3 Version 1, the Reaction object has an additional optional attribute named 'compartment', whose value must be the identifier of a compartment defined in the enclosing Model object. The 'compartment' attribute can be used to indicate the compartment in which the reaction is assumed to take place. If the attribute is present, its value must be the identifier of a Compartment object defined in the enclosing Model object. Similar to the 'reversible' attribute, the value of the 'compartment' attribute has no direct impact on the construction of mathematical equations for the SBML model. When a kinetic law is given for a reaction, the compartment location may already be implicit in the kinetic law (although this cannot always be guaranteed). Nevertheless, software tools may find the 'compartment' attribute value useful for such purposes as analyzing the structure of the model, guiding the modeler in constructing correct rate formulas, and visualization purposes.

Readers are urged to read the SBML specification for more details about the proper use of Reaction.

Public Member Functions

def addCVTerm
 
def addModifier
 
def addProduct
 
def addReactant
 
def appendAnnotation
 
def appendNotes
 
def clone
 
def createKineticLaw
 
def createModifier
 
def createProduct
 
def createReactant
 
def disablePackage
 
def enablePackage
 
def getAncestorOfType
 
def getAnnotation
 
def getAnnotationString
 
def getColumn
 
def getCompartment
 
def getCVTerm
 
def getCVTerms
 
def getElementByMetaId
 
def getElementBySId
 
def getElementName
 
def getFast
 
def getId
 
def getKineticLaw
 
def getLevel
 
def getLine
 
def getListOfAllElements
 
def getListOfAllElementsFromPlugins
 
def getListOfModifiers
 
def getListOfProducts
 
def getListOfReactants
 
def getMetaId
 
def getModel
 
def getModelHistory
 
def getModifier
 
def getName
 
def getNamespaces
 
def getNotes
 
def getNotesString
 
def getNumCVTerms
 
def getNumModifiers
 
def getNumPlugins
 
def getNumProducts
 
def getNumReactants
 
def getPackageName
 
def getPackageVersion
 
def getParentSBMLObject
 
def getPlugin
 
def getProduct
 
def getReactant
 
def getResourceBiologicalQualifier
 
def getResourceModelQualifier
 
def getReversible
 
def getSBMLDocument
 
def getSBOTerm
 
def getSBOTermAsURL
 
def getSBOTermID
 
def getTypeCode
 
def getVersion
 
def hasRequiredAttributes
 
def hasValidLevelVersionNamespaceCombination
 
def initDefaults
 
def isPackageEnabled
 
def isPackageURIEnabled
 
def isPkgEnabled
 
def isPkgURIEnabled
 
def isSetAnnotation
 
def isSetCompartment
 
def isSetFast
 
def isSetId
 
def isSetKineticLaw
 
def isSetMetaId
 
def isSetModelHistory
 
def isSetName
 
def isSetNotes
 
def isSetReversible
 
def isSetSBOTerm
 
def matchesRequiredSBMLNamespacesForAddition
 
def matchesSBMLNamespaces
 
def removeFromParentAndDelete
 
def removeModifier
 
def removeProduct
 
def removeReactant
 
def removeTopLevelAnnotationElement
 
def renameMetaIdRefs
 
def renameSIdRefs
 
def renameUnitSIdRefs
 
def replaceTopLevelAnnotationElement
 
def setAnnotation
 
def setCompartment
 
def setFast
 
def setId
 
def setKineticLaw
 
def setMetaId
 
def setModelHistory
 
def setName
 
def setNamespaces
 
def setNotes
 
def setReversible
 
def setSBOTerm
 
def toSBML
 
def unsetAnnotation
 
def unsetCompartment
 
def unsetCVTerms
 
def unsetFast
 
def unsetId
 
def unsetKineticLaw
 
def unsetMetaId
 
def unsetModelHistory
 
def unsetName
 
def unsetNotes
 
def unsetSBOTerm
 

Member Function Documentation

def libsbml.SBase.addCVTerm (   self,
  args 
)
inherited

Python method signature(s):

addCVTerm(SBase self, CVTerm term, bool newBag=False)   int
addCVTerm(SBase self, CVTerm term)   int

Adds a copy of the given CVTerm object to this SBML object.

Parameters
termthe CVTerm to assign.
newBagif True, creates a new RDF bag with the same identifier as a previous bag, and if False, adds the term to an existing RDF bag with the same type of qualifier as the term being added.
Returns
integer value indicating success/failure of the function. The possible values returned by this function are:
Note
Since the CV Term uses the 'metaid' attribute of the object as a reference, if the object has no 'metaid' attribute value set, then the CVTerm will not be added.
Warning
The fact that this method copies the object passed to it means that the caller will be left holding a physically different object instance than the one contained in this object. Changes made to the original object instance (such as resetting attribute values) will not affect the instance added here. In addition, the caller should make sure to free the original object if it is no longer being used, or else a memory leak will result.
Documentation note:
The native C++ implementation of this method defines a default argument value. In the documentation generated for different libSBML language bindings, you may or may not see corresponding arguments in the method declarations. For example, in Java and C#, a default argument is handled by declaring two separate methods, with one of them having the argument and the other one lacking the argument. However, the libSBML documentation will be identical for both methods. Consequently, if you are reading this and do not see an argument even though one is described, please look for descriptions of other variants of this method near where this one appears in the documentation.
def libsbml.Reaction.addModifier (   self,
  args 
)

Python method signature(s):

addModifier(Reaction self, ModifierSpeciesReference msr)   int

Adds a given ModifierSpeciesReference object as a product in this Reaction.

The ModifierSpeciesReference instance in msr is copied.

Parameters
msra ModifierSpeciesReference object referring to a Species in the enclosing Model
Returns
integer value indicating success/failure of the function. The possible values returned by this function are:
Note
This method should be used with some caution. The fact that this method copies the object passed to it means that the caller will be left holding a physically different object instance than the one contained in this Reaction. Changes made to the original object instance (such as resetting attribute values) will not affect the instance in the Reaction. In addition, the caller should make sure to free the original object if it is no longer being used, or else a memory leak will result. Please see Reaction.createModifier() for a method that does not lead to these issues.
See Also
createModifier()
def libsbml.Reaction.addProduct (   self,
  args 
)

Python method signature(s):

addProduct(Reaction self, SpeciesReference sr)   int

Adds a given SpeciesReference object as a product in this Reaction.

The SpeciesReference instance in sr is copied.

Parameters
sra SpeciesReference object referring to a Species in the enclosing Model
Returns
integer value indicating success/failure of the function. The possible values returned by this function are:
Note
This method should be used with some caution. The fact that this method copies the object passed to it means that the caller will be left holding a physically different object instance than the one contained in this Reaction. Changes made to the original object instance (such as resetting attribute values) will not affect the instance in the Reaction. In addition, the caller should make sure to free the original object if it is no longer being used, or else a memory leak will result. Please see Reaction.createProduct() for a method that does not lead to these issues.
See Also
createProduct()
def libsbml.Reaction.addReactant (   self,
  args 
)

Python method signature(s):

addReactant(Reaction self, SpeciesReference sr)   int

Adds a given SpeciesReference object as a reactant in this Reaction.

The SpeciesReference instance in sr is copied.

Parameters
sra SpeciesReference object referring to a Species in the enclosing Model
Returns
integer value indicating success/failure of the function. The possible values returned by this function are:
Note
This method should be used with some caution. The fact that this method copies the object passed to it means that the caller will be left holding a physically different object instance than the one contained in this Reaction. Changes made to the original object instance (such as resetting attribute values) will not affect the instance in the Reaction. In addition, the caller should make sure to free the original object if it is no longer being used, or else a memory leak will result. Please see Reaction.createReactant() for a method that does not lead to these issues.
See Also
createReactant()
def libsbml.SBase.appendAnnotation (   self,
  args 
)
inherited

Python method signature(s):

appendAnnotation(SBase self, XMLNode annotation)   int
appendAnnotation(SBase self, string annotation)   int

This method has multiple variants that differ in the arguments they accept. Each is described separately below.


Method variant with the following signature:

appendAnnotation(XMLNode annotation)

Appends the given annotation to the 'annotation' subelement of this object.

Whereas the SBase 'notes' subelement is a container for content to be shown directly to humans, the 'annotation' element is a container for optional software-generated content not meant to be shown to humans. Every object derived from SBase can have its own value for 'annotation'. The element's content type is XML type 'any', allowing essentially arbitrary well-formed XML data content.

SBML places a few restrictions on the organization of the content of annotations; these are intended to help software tools read and write the data as well as help reduce conflicts between annotations added by different tools. Please see the SBML specifications for more details.

Unlike SBase.setAnnotation() or SBase.setAnnotation(), this method allows other annotations to be preserved when an application adds its own data.

Parameters
annotationan XML structure that is to be copied and appended to the content of the 'annotation' subelement of this object
Returns
integer value indicating success/failure of the function. The possible values returned by this function are:
See Also
getAnnotationString()
isSetAnnotation()
setAnnotation()
setAnnotation()
appendAnnotation()
unsetAnnotation()

Method variant with the following signature:

appendAnnotation(string annotation)

Appends the given annotation to the 'annotation' subelement of this object.

Whereas the SBase 'notes' subelement is a container for content to be shown directly to humans, the 'annotation' element is a container for optional software-generated content not meant to be shown to humans. Every object derived from SBase can have its own value for 'annotation'. The element's content type is XML type 'any', allowing essentially arbitrary well-formed XML data content.

SBML places a few restrictions on the organization of the content of annotations; these are intended to help software tools read and write the data as well as help reduce conflicts between annotations added by different tools. Please see the SBML specifications for more details.

Unlike SBase.setAnnotation() or SBase.setAnnotation(), this method allows other annotations to be preserved when an application adds its own data.

Parameters
annotationan XML string that is to be copied and appended to the content of the 'annotation' subelement of this object
Returns
integer value indicating success/failure of the function. The possible values returned by this function are:
See Also
getAnnotationString()
isSetAnnotation()
setAnnotation()
setAnnotation()
appendAnnotation()
unsetAnnotation()
def libsbml.SBase.appendNotes (   self,
  args 
)
inherited

Python method signature(s):

appendNotes(SBase self, XMLNode notes)   int
appendNotes(SBase self, string notes)   int

This method has multiple variants that differ in the arguments they accept. Each is described separately below.


Method variant with the following signature:

appendNotes(string notes)

Appends the given notes to the 'notes' subelement of this object.

The content of the parameter notes is copied.

The optional SBML element named 'notes', present on every major SBML component type, is intended as a place for storing optional information intended to be seen by humans. An example use of the 'notes' element would be to contain formatted user comments about the model element in which the 'notes' element is enclosed. Every object derived directly or indirectly from type SBase can have a separate value for 'notes', allowing users considerable freedom when adding comments to their models.

The format of 'notes' elements must be XHTML 1.0. To help verify the formatting of 'notes' content, libSBML provides the static utility method SyntaxChecker.hasExpectedXHTMLSyntax(); however, readers are urged to consult the appropriate SBML specification document for the Level and Version of their model for more in-depth explanations. The SBML Level 2 and  3 specifications have considerable detail about how 'notes' element content must be structured.

Parameters
notesan XML string that is to appended to the content of the 'notes' subelement of this object
Returns
integer value indicating success/failure of the function. The possible values returned by this function are:
See Also
getNotesString()
isSetNotes()
setNotes()
setNotes()
appendNotes()
unsetNotes()
SyntaxChecker.hasExpectedXHTMLSyntax()

Method variant with the following signature:

appendNotes(XMLNode notes)

Appends the given notes to the 'notes' subelement of this object.

The content of notes is copied.

The optional SBML element named 'notes', present on every major SBML component type, is intended as a place for storing optional information intended to be seen by humans. An example use of the 'notes' element would be to contain formatted user comments about the model element in which the 'notes' element is enclosed. Every object derived directly or indirectly from type SBase can have a separate value for 'notes', allowing users considerable freedom when adding comments to their models.

The format of 'notes' elements must be XHTML 1.0. To help verify the formatting of 'notes' content, libSBML provides the static utility method SyntaxChecker.hasExpectedXHTMLSyntax(); however, readers are urged to consult the appropriate SBML specification document for the Level and Version of their model for more in-depth explanations. The SBML Level 2 and  3 specifications have considerable detail about how 'notes' element content must be structured.

Parameters
notesan XML node structure that is to appended to the content of the 'notes' subelement of this object
Returns
integer value indicating success/failure of the function. The possible values returned by this function are:
See Also
getNotesString()
isSetNotes()
setNotes()
setNotes()
appendNotes()
unsetNotes()
SyntaxChecker.hasExpectedXHTMLSyntax()
def libsbml.Reaction.clone (   self)

Implementation of SBML's Reaction construct.

A reaction represents any transformation, transport or binding process, typically a chemical reaction, that can change the quantity of one or more species. In SBML, a reaction is defined primarily in terms of the participating reactants and products (and their corresponding stoichiometries), along with optional modifier species, an optional rate at which the reaction takes place, and optional parameters.

As with other major object in SBML, Reaction has a mandatory attribute, 'id', used to give the compartment type an identifier. The identifier must be a text string conforming to the identifer syntax permitted in SBML. In SBML Level 2 and Level 3, the reaction 'id' identifier can be used in mathematical formulas elsewhere in an SBML model to represent the rate of that reaction; this usage is explained below. Reaction also has an optional 'name' attribute, of type string. The 'id' and 'name' must be used according to the guidelines described in the SBML specification.

The species participating as reactants, products, and/or modifiers in a reaction are declared using lists of SpeciesReference and/or ModifierSpeciesReference instances stored in subelements 'listOfReactants', 'listOfProducts' and 'listOfModifiers'. Certain restrictions are placed on the appearance of species in reaction definitions:

  • The ability of a species to appear as a reactant or product of any reaction in a model is governed by certain flags in that species' definition; see the definition of Species for more information.

  • Any species appearing in the mathematical formula of the subelement 'kineticLaw' (described below) of a Reaction must be declared in at least one of that Reaction's lists of reactants, products, and/or modifiers. Put another way, it is an error for a reaction's kinetic law formula to refer to species that have not been declared for that reaction.

  • A reaction definition can contain an empty list of reactants or an empty list of products, but it must have at least one reactant or product; in other words, a reaction without any reactant or product species is not permitted. (This restriction does not apply to modifier species, which remain optional in all cases.)

A reaction can contain up to one KineticLaw object in a subelement named 'kineticLaw'. It defines the speed at which the process defined by the reaction takes place. The description of KineticLaw provides more details about its use. Note that although the inclusion of a KineticLaw object in an instance of a Reaction component is optional, there is no useful default that can be substituted in place of a missing rate expression in a reaction. Moreover, a reaction's rate cannot be defined in any other way in SBML—InitialAssignment, AssignmentRule, RateRule, AlgebraicRule, Event, and other constructs in SBML cannot be used to set the reaction rate separately. Nevertheless, for some modeling applications, reactions without any defined rate can be perfectly acceptable.

Reaction also has a boolean attribute named 'reversible' for indicating whether the reaction is reversible. This attribute is optional in SBML Level 2, with a default of True; it is mandatory in SBML Level 3 (with no default value). To say that a reaction is reversible is to say it can proceed in either the forward or the reverse direction. Although the reversibility of a reaction can sometimes be deduced by inspecting its rate expression, this is not always the case, especially for complicated expressions. Moreover, the need in SBML to allow rate expressions (i.e., KineticLaw) to be optional leads to the need for a separate flag indicating reversibility. Note that labeling a reaction as irreversible is an assertion that the reaction always proceeds in the given forward direction. (Why else would it be flagged as irreversible?) This implies the rate expression in the KineticLaw always has a non-negative value during simulations. Software tools could provide a means of optionally testing that this condition holds. The presence of reversibility information in two places (i.e., the rate expression and the 'reversible' attribute on Reaction) leaves open the possibility that a model could contain contradictory information, but the creation of such a model would be an error on the part of the software generating it.

The Reaction object class has another boolean attribute called 'fast'. This attribute is optional in SBML Level 2, with a default of false; it is mandatory in SBML Level 3 (with no default value). It is used to indicate that a reaction occurs on a vastly faster time scale than others in a system. Readers are directed to the SBML Level 2 Version 4 specification, which provides more detail about the conditions under which a reaction can be considered to be fast in this sense. The attribute's default value is False. SBML Level 1 and Level 2 Version 1 incorrectly claimed that software tools could ignore this attribute if they did not implement support for the corresponding concept; however, further research in SBML has revealed that this is not true, and 'fast' cannot be ignored if it is set to True. SBML Level 2 Versions 2–4 therefore stipulate that if a model has any reactions with 'fast' set to True, a software tool must be able to respect the attribute or else indicate to the user that it does not have the capacity to do so. Analysis software cannot ignore the value of the 'fast' attribute because doing so may lead to different results as compared to a software system that does make use of 'fast'.

In SBML Level 3 Version 1, the Reaction object has an additional optional attribute named 'compartment', whose value must be the identifier of a compartment defined in the enclosing Model object. The 'compartment' attribute can be used to indicate the compartment in which the reaction is assumed to take place. If the attribute is present, its value must be the identifier of a Compartment object defined in the enclosing Model object. Similar to the 'reversible' attribute, the value of the 'compartment' attribute has no direct impact on the construction of mathematical equations for the SBML model. When a kinetic law is given for a reaction, the compartment location may already be implicit in the kinetic law (although this cannot always be guaranteed). Nevertheless, software tools may find the 'compartment' attribute value useful for such purposes as analyzing the structure of the model, guiding the modeler in constructing correct rate formulas, and visualization purposes.

Readers are urged to read the SBML specification for more details about the proper use of Reaction. Python method signature(s):

clone(Reaction self)   Reaction

Creates and returns a deep copy of this Reaction.

Returns
a (deep) copy of this Reaction.
def libsbml.Reaction.createKineticLaw (   self)

Python method signature(s):

createKineticLaw(Reaction self)   KineticLaw

Creates a new KineticLaw object, installs it as this Reaction's 'kineticLaw' subelement, and returns it.

If this Reaction had a previous KineticLaw, it will be destroyed.

Returns
the new KineticLaw object
def libsbml.Reaction.createModifier (   self)

Python method signature(s):

createModifier(Reaction self)   ModifierSpeciesReference

Creates a new ModifierSpeciesReference, adds it to this Reaction's list of modifiers and returns it.

Returns
a new ModifierSpeciesReference object.
def libsbml.Reaction.createProduct (   self)

Python method signature(s):

createProduct(Reaction self)   SpeciesReference

Creates a new SpeciesReference, adds it to this Reaction's list of products, and returns it.

Returns
a new SpeciesReference object.
def libsbml.Reaction.createReactant (   self)

Python method signature(s):

createReactant(Reaction self)   SpeciesReference

Creates a new SpeciesReference, adds it to this Reaction's list of reactants, and returns it.

Returns
a new SpeciesReference object.
def libsbml.SBase.disablePackage (   self,
  args 
)
inherited

Python method signature(s):

disablePackage(SBase self, string pkgURI, string pkgPrefix)   int

Disables the given SBML Level 3 package

This method enables or disables the specified package on this object and other objects connected by child-parent links in the same SBMLDocument object.

Parameters
pkgURIthe URI of the package
pkgPrefixthe XML prefix of the package
Returns
integer value indicating success/failure of the function. The possible values returned by this function are:
def libsbml.SBase.enablePackage (   self,
  args 
)
inherited

Python method signature(s):

enablePackage(SBase self, string pkgURI, string pkgPrefix, bool flag)   int

Enables or disables the given SBML Level 3 package

This method enables or disables the specified package on this object and other objects connected by child-parent links in the same SBMLDocument object.

Parameters
pkgURIthe URI of the package
pkgPrefixthe XML prefix of the package
flagwhether to enable (True) or disable (False) the package
Returns
integer value indicating success/failure of the function. The possible values returned by this function are:
def libsbml.SBase.getAncestorOfType (   self,
  args 
)
inherited

Python method signature(s):

getAncestorOfType(SBase self, int type, string pkgName="core")   SBase
getAncestorOfType(SBase self, int type)   SBase
getAncestorOfType(SBase self, int type, string pkgName="core")   SBase
getAncestorOfType(SBase self, int type)   SBase

Returns the first ancestor object that has the given SBML type code.

LibSBML attaches an identifying code to every kind of SBML object. These are known as SBML type codes. In the Python language interface for libSBML, the type codes are defined as static integer constants in the interface class libsbml. The names of the type codes all begin with the characters SBML_.

This method searches the tree of objects that are parents of this object, and returns the first one that has the given SBML type code. If the optional argument pkgName is given, it will cause the search to be limited to the SBML Level 3 package given.

Parameters
typethe SBML type code of the object sought
pkgName(optional) the short name of an SBML Level 3 package to which the sought-after object must belong
Returns
the ancestor SBML object of this SBML object that corresponds to the given SBML object type code, or None if no ancestor exists.
Documentation note:
The native C++ implementation of this method defines a default argument value. In the documentation generated for different libSBML language bindings, you may or may not see corresponding arguments in the method declarations. For example, in Java and C#, a default argument is handled by declaring two separate methods, with one of them having the argument and the other one lacking the argument. However, the libSBML documentation will be identical for both methods. Consequently, if you are reading this and do not see an argument even though one is described, please look for descriptions of other variants of this method near where this one appears in the documentation.
def libsbml.SBase.getAnnotation (   self,
  args 
)
inherited

Python method signature(s):

getAnnotation(SBase self)   XMLNode
getAnnotation(SBase self)   XMLNode

Returns the content of the 'annotation' subelement of this object as a tree of XMLNode objects.

Whereas the SBML 'notes' subelement is a container for content to be shown directly to humans, the 'annotation' element is a container for optional software-generated content not meant to be shown to humans. Every object derived from SBase can have its own value for 'annotation'. The element's content type is XML type 'any', allowing essentially arbitrary well-formed XML data content.

SBML places a few restrictions on the organization of the content of annotations; these are intended to help software tools read and write the data as well as help reduce conflicts between annotations added by different tools. Please see the SBML specifications for more details.

The annotations returned by this method will be in XML form. LibSBML provides an object model and related interfaces for certain specific kinds of annotations, namely model history information and RDF content. See the ModelHistory, CVTerm and RDFAnnotationParser classes for more information about the facilities available.

Returns
the annotation of this SBML object as a tree of XMLNode objects.
See Also
getAnnotationString()
isSetAnnotation()
setAnnotation()
setAnnotation()
appendAnnotation()
appendAnnotation()
unsetAnnotation()
def libsbml.SBase.getAnnotationString (   self,
  args 
)
inherited

Python method signature(s):

getAnnotationString(SBase self)   string
getAnnotationString(SBase self)   string

Returns the content of the 'annotation' subelement of this object as a character string.

Whereas the SBML 'notes' subelement is a container for content to be shown directly to humans, the 'annotation' element is a container for optional software-generated content not meant to be shown to humans. Every object derived from SBase can have its own value for 'annotation'. The element's content type is XML type 'any', allowing essentially arbitrary well-formed XML data content.

SBML places a few restrictions on the organization of the content of annotations; these are intended to help software tools read and write the data as well as help reduce conflicts between annotations added by different tools. Please see the SBML specifications for more details.

The annotations returned by this method will be in string form.

Returns
the annotation of this SBML object as a character string.
See Also
getAnnotation()
isSetAnnotation()
setAnnotation()
setAnnotation()
appendAnnotation()
appendAnnotation()
unsetAnnotation()
def libsbml.SBase.getColumn (   self)
inherited

Python method signature(s):

getColumn(SBase self)   long

Returns the column number on which this object first appears in the XML representation of the SBML document.

Returns
the column number of this SBML object.
Note
The column number for each construct in an SBML model is set upon reading the model. The accuracy of the column number depends on the correctness of the XML representation of the model, and on the particular XML parser library being used. The former limitation relates to the following problem: if the model is actually invalid XML, then the parser may not be able to interpret the data correctly and consequently may not be able to establish the real column number. The latter limitation is simply that different parsers seem to have their own accuracy limitations, and out of all the parsers supported by libSBML, none have been 100% accurate in all situations. (At this time, libSBML supports the use of libxml2, Expat and Xerces.)
See Also
getLine()
def libsbml.Reaction.getCompartment (   self)

Python method signature(s):

getCompartment(Reaction self)   string

(SBML Level 3 only) Returns the value of the 'compartment' attribute on the Reaction.

Returns
the compartment of this Reaction.
Note
The 'compartment' attribute is available in SBML Level 3 Version 1 Core, but is not present on Reaction in lower Levels of SBML.
def libsbml.SBase.getCVTerm (   self,
  args 
)
inherited

Python method signature(s):

getCVTerm(SBase self, long n)   CVTerm

Returns the nth CVTerm in the list of CVTerms of this SBML object.

Parameters
nlong the index of the CVTerm to retrieve
Returns
the nth CVTerm in the list of CVTerms for this SBML object.
def libsbml.SBase.getCVTerms (   self)
inherited

Python method signature(s):

getCVTerms()   CVTermList

Get the CVTermList of CVTerm objects in this SBase.

Returns the CVTermList for this SBase.

def libsbml.Reaction.getElementByMetaId (   self,
  args 
)

Python method signature(s):

getElementByMetaId(Reaction self, string metaid)   SBase

Returns the first child element it can find with the given metaid, or None if no such object is found.

Parameters
metaidstring representing the metaid of objects to find
Returns
pointer to the first element found with the given metaid.
def libsbml.Reaction.getElementBySId (   self,
  args 
)

Python method signature(s):

getElementBySId(Reaction self, string id)   SBase

Returns the first child element found that has the given id in the model-wide SId namespace, or None if no such object is found.

Parameters
idstring representing the id of objects to find.
Returns
pointer to the first element found with the given id.
def libsbml.Reaction.getElementName (   self)

Python method signature(s):

getElementName(Reaction self)   string

Returns the XML element name of this object, which for Reaction, is always 'reaction'.

Returns
the name of this element, i.e., 'reaction'.
def libsbml.Reaction.getFast (   self)

Python method signature(s):

getFast(Reaction self)   bool

Returns the value of the 'fast' attribute of this Reaction.

Returns
the 'fast' status of this Reaction.
Warning
SBML definitions before SBML Level 2 Version 2 incorrectly indicated that software tools could ignore this attribute if they did not implement support for the corresponding concept; however, further research in SBML has revealed that this is not true, and 'fast' cannot be ignored if it is set to True. SBML Level 2 Versions 2, 3 and 4 therefore stipulate that if a model has any reactions with 'fast' set to True, a software tool must be able to respect the attribute or else indicate to the user that it does not have the capacity to do so. Readers are directed to the SBML Level 2 Version 4 specification, which provides more detail about the conditions under which a reaction can be considered to be fast in this sense.
def libsbml.Reaction.getId (   self)

Python method signature(s):

getId(Reaction self)   string

Returns the value of the 'id' attribute of this Reaction.

Returns
the id of this Reaction.
def libsbml.Reaction.getKineticLaw (   self,
  args 
)

Python method signature(s):

getKineticLaw(Reaction self)   KineticLaw
getKineticLaw(Reaction self)   KineticLaw

Returns the KineticLaw object contained in this Reaction.

Returns
the KineticLaw instance.
def libsbml.SBase.getLevel (   self)
inherited

Python method signature(s):

getLevel(SBase self)   long

Returns the SBML Level of the SBMLDocument object containing this object.

Returns
the SBML level of this SBML object.
See Also
getVersion()
getNamespaces()
getPackageVersion()
def libsbml.SBase.getLine (   self)
inherited

Python method signature(s):

getLine(SBase self)   long

Returns the line number on which this object first appears in the XML representation of the SBML document.

Returns
the line number of this SBML object.
Note
The line number for each construct in an SBML model is set upon reading the model. The accuracy of the line number depends on the correctness of the XML representation of the model, and on the particular XML parser library being used. The former limitation relates to the following problem: if the model is actually invalid XML, then the parser may not be able to interpret the data correctly and consequently may not be able to establish the real line number. The latter limitation is simply that different parsers seem to have their own accuracy limitations, and out of all the parsers supported by libSBML, none have been 100% accurate in all situations. (At this time, libSBML supports the use of libxml2, Expat and Xerces.)
See Also
getColumn()
def libsbml.SBase.getListOfAllElements (   self)
inherited

Python method signature(s):

getListOfAllElements(SBase self)   SBaseList
def libsbml.SBase.getListOfAllElementsFromPlugins (   self)
inherited

Python method signature(s):

getListOfAllElementsFromPlugins(SBase self)   SBaseList
def libsbml.Reaction.getListOfModifiers (   self,
  args 
)

Python method signature(s):

getListOfModifiers(Reaction self)   ListOfSpeciesReferences
getListOfModifiers(Reaction self)   ListOfSpeciesReferences

Returns the list of modifiers in this Reaction object.

Returns
the ListOfSpeciesReferences containing the references to the species acting as modifiers in this reaction
def libsbml.Reaction.getListOfProducts (   self,
  args 
)

Python method signature(s):

getListOfProducts(Reaction self)   ListOfSpeciesReferences
getListOfProducts(Reaction self)   ListOfSpeciesReferences

Returns the list of products in this Reaction object.

Returns
the ListOfSpeciesReferences containing the references to the species acting as products in this reaction
def libsbml.Reaction.getListOfReactants (   self,
  args 
)

Python method signature(s):

getListOfReactants(Reaction self)   ListOfSpeciesReferences
getListOfReactants(Reaction self)   ListOfSpeciesReferences

Returns the list of reactants in this Reaction object.

Returns
the ListOfSpeciesReferences containing the references to the species acting as reactants in this reaction
def libsbml.SBase.getMetaId (   self)
inherited

Python method signature(s):

getMetaId(SBase self)   string

Returns the value of the 'metaid' attribute of this object.

The optional attribute named 'metaid', present on every major SBML component type, is for supporting metadata annotations using RDF (Resource Description Format). The attribute value has the data type XML ID, the XML identifier type, which means each 'metaid' value must be globally unique within an SBML file. (Importantly, this uniqueness criterion applies across any attribute with type XML ID, not just the 'metaid' attribute used by SBML—something to be aware of if your application-specific XML content inside the 'annotation' subelement happens to use XML ID.) The 'metaid' value serves to identify a model component for purposes such as referencing that component from metadata placed within 'annotation' subelements.

Returns
the meta-identifier of this SBML object.
See Also
isSetMetaId()
setMetaId()
def libsbml.SBase.getModel (   self)
inherited

Python method signature(s):

getModel(SBase self)   Model

Returns the Model object in which the current object is located.

Returns
the parent Model of this SBML object.
See Also
getParentSBMLObject()
getSBMLDocument()
def libsbml.SBase.getModelHistory (   self,
  args 
)
inherited

Python method signature(s):

getModelHistory(SBase self)   ModelHistory
getModelHistory(SBase self)   ModelHistory

Returns the ModelHistory object, if any, attached to this object.

Returns
the ModelHistory object attached to this object, or None if none exist.
Note
In SBML Level 2, model history annotations were only permitted on the Model element. In SBML Level 3, they are permitted on all SBML components derived from SBase.
def libsbml.Reaction.getModifier (   self,
  args 
)

Python method signature(s):

getModifier(Reaction self, long n)   ModifierSpeciesReference
getModifier(Reaction self, long n)   ModifierSpeciesReference
getModifier(Reaction self, string species)   ModifierSpeciesReference
getModifier(Reaction self, string species)   ModifierSpeciesReference

This method has multiple variants that differ in the arguments they accept. Each is described separately below.


Method variant with the following signature:

getModifier(string species)

Returns the modifier species (as a ModifierSpeciesReference object) having a specific identifier in this Reaction.

Parameters
speciesthe identifier of the modifier Species ('species' attribute of the ModifierSpeciesReference object)
Returns
a ModifierSpeciesReference object, or None if no species with the given identifier species appears as a modifier in this Reaction.

Method variant with the following signature:

getModifier(long n)

Returns the nth modifier species (as a ModifierSpeciesReference object) in the list of modifiers of this Reaction.

Callers should first call getNumModifiers() to find out how many modifiers there are, to avoid using an invalid index number.

Parameters
nthe index of the modifier species sought
Returns
the nth modifier (as a ModifierSpeciesReference object) of this Reaction.
def libsbml.Reaction.getName (   self)

Python method signature(s):

getName(Reaction self)   string

Returns the value of the 'name' attribute of this Reaction.

Returns
the name of this Reaction.
def libsbml.SBase.getNamespaces (   self)
inherited

Python method signature(s):

getNamespaces(SBase self)   XMLNamespaces

Returns a list of the XML Namespaces declared on this SBML document.

The SBMLNamespaces object encapsulates SBML Level/Version/namespaces information. It is used to communicate the SBML Level, Version, and (in SBML Level 3) packages used in addition to SBML Level 3 Core.

Returns
the XML Namespaces associated with this SBML object
See Also
getLevel()
getVersion()
def libsbml.SBase.getNotes (   self,
  args 
)
inherited

Python method signature(s):

getNotes(SBase self)   XMLNode
getNotes(SBase self)   XMLNode

Returns the content of the 'notes' subelement of this object as a tree of XMLNode objects.

The optional SBML element named 'notes', present on every major SBML component type, is intended as a place for storing optional information intended to be seen by humans. An example use of the 'notes' element would be to contain formatted user comments about the model element in which the 'notes' element is enclosed. Every object derived directly or indirectly from type SBase can have a separate value for 'notes', allowing users considerable freedom when adding comments to their models.

The format of 'notes' elements must be XHTML 1.0. To help verify the formatting of 'notes' content, libSBML provides the static utility method SyntaxChecker.hasExpectedXHTMLSyntax(); however, readers are urged to consult the appropriate SBML specification document for the Level and Version of their model for more in-depth explanations. The SBML Level 2 and  3 specifications have considerable detail about how 'notes' element content must be structured.

The 'notes' element content returned by this method will be in XML form, but libSBML does not provide an object model specifically for the content of notes. Callers will need to traverse the XML tree structure using the facilities available on XMLNode and related objects. For an alternative method of accessing the notes, see getNotesString().

Returns
the content of the 'notes' subelement of this SBML object as a tree structure composed of XMLNode objects.
See Also
getNotesString()
isSetNotes()
setNotes()
setNotes()
appendNotes()
appendNotes()
unsetNotes()
SyntaxChecker.hasExpectedXHTMLSyntax()
def libsbml.SBase.getNotesString (   self,
  args 
)
inherited

Python method signature(s):

getNotesString(SBase self)   string
getNotesString(SBase self)   string

Returns the content of the 'notes' subelement of this object as a string.

The optional SBML element named 'notes', present on every major SBML component type, is intended as a place for storing optional information intended to be seen by humans. An example use of the 'notes' element would be to contain formatted user comments about the model element in which the 'notes' element is enclosed. Every object derived directly or indirectly from type SBase can have a separate value for 'notes', allowing users considerable freedom when adding comments to their models.

The format of 'notes' elements must be XHTML 1.0. To help verify the formatting of 'notes' content, libSBML provides the static utility method SyntaxChecker.hasExpectedXHTMLSyntax(); however, readers are urged to consult the appropriate SBML specification document for the Level and Version of their model for more in-depth explanations. The SBML Level 2 and  3 specifications have considerable detail about how 'notes' element content must be structured.

For an alternative method of accessing the notes, see getNotes(), which returns the content as an XMLNode tree structure. Depending on an application's needs, one or the other method may be more convenient.

Returns
the content of the 'notes' subelement of this SBML object as a string.
See Also
getNotes()
isSetNotes()
setNotes()
setNotes()
appendNotes()
appendNotes()
unsetNotes()
SyntaxChecker.hasExpectedXHTMLSyntax()
def libsbml.SBase.getNumCVTerms (   self)
inherited

Python method signature(s):

getNumCVTerms(SBase self)   long

Returns the number of CVTerm objects in the annotations of this SBML object.

Returns
the number of CVTerms for this SBML object.
def libsbml.Reaction.getNumModifiers (   self)

Python method signature(s):

getNumModifiers(Reaction self)   long

Returns the number of modifier species in this Reaction.

Returns
the number of modifiers in this Reaction.
def libsbml.SBase.getNumPlugins (   self)
inherited

Python method signature(s):

getNumPlugins(SBase self)   long

Returns the number of plug-in objects (extenstion interfaces) for SBML Level 3 package extensions known.

Returns
the number of plug-in objects (extension interfaces) of package extensions known by this instance of libSBML.
def libsbml.Reaction.getNumProducts (   self)

Python method signature(s):

getNumProducts(Reaction self)   long

Returns the number of product species in this Reaction.

Returns
the number of products in this Reaction.
def libsbml.Reaction.getNumReactants (   self)

Python method signature(s):

getNumReactants(Reaction self)   long

Returns the number of reactant species in this Reaction.

Returns
the number of reactants in this Reaction.
def libsbml.SBase.getPackageName (   self)
inherited

Python method signature(s):

getPackageName(SBase self)   string

Returns the name of the SBML Level 3 package in which this element is defined.

Returns
the name of the SBML package in which this element is defined. The string "core" will be returned if this element is defined in SBML Level 3 Core. The string "unknown" will be returned if this element is not defined in any SBML package.
def libsbml.SBase.getPackageVersion (   self)
inherited

Python method signature(s):

getPackageVersion(SBase self)   long

Returns the Version of the SBML Level 3 package to which this element belongs to.

Returns
the version of the SBML Level 3 package to which this element belongs. The value 0 will be returned if this element belongs to the SBML Level 3 Core package.
See Also
getLevel()
getVersion()
def libsbml.SBase.getParentSBMLObject (   self,
  args 
)
inherited

Python method signature(s):

getParentSBMLObject(SBase self)   SBase
getParentSBMLObject(SBase self)   SBase

Returns the parent SBML object containing this object.

This returns the immediately-containing object. This method is convenient when holding an object nested inside other objects in an SBML model.

Returns
the parent SBML object of this SBML object.
See Also
getSBMLDocument()
getModel()
def libsbml.SBase.getPlugin (   self,
  args 
)
inherited

Python method signature(s):

getPlugin(SBase self, string package)   SBasePlugin
getPlugin(SBase self, string package)   SBasePlugin
getPlugin(SBase self, long n)   SBasePlugin
getPlugin(SBase self, long n)   SBasePlugin

This method has multiple variants that differ in the arguments they accept. Each is described separately below.


Method variant with the following signature:

getPlugin(long n)

Returns the nth plug-in object (extension interface) for an SBML Level 3 package extension.

Parameters
nthe index of the plug-in to return
Returns
the plug-in object (the libSBML extension interface) of a package extension with the given package name or URI.

Method variant with the following signature:

getPlugin(string package)

Returns a plug-in object (extension interface) for an SBML Level 3 package extension with the given package name or URI.

Parameters
packagethe name or URI of the package
Returns
the plug-in object (the libSBML extension interface) of a package extension with the given package name or URI.
def libsbml.Reaction.getProduct (   self,
  args 
)

Python method signature(s):

getProduct(Reaction self, long n)   SpeciesReference
getProduct(Reaction self, long n)   SpeciesReference
getProduct(Reaction self, string species)   SpeciesReference
getProduct(Reaction self, string species)   SpeciesReference

This method has multiple variants that differ in the arguments they accept. Each is described separately below.


Method variant with the following signature:

getProduct(string species)

Returns the product species (as a SpeciesReference object) having a specific identifier in this Reaction.

Parameters
speciesthe identifier of the product Species ('species' attribute of the product SpeciesReference object)
Returns
a SpeciesReference object, or None if no species with the given identifier species appears as a product in this Reaction.

Method variant with the following signature:

getProduct(long n)

Returns the nth product species (as a SpeciesReference object) in the list of products in this Reaction.

Callers should first call getNumProducts() to find out how many products there are, to avoid using an invalid index number.

Parameters
nthe index of the product sought.
Returns
the nth product (as a SpeciesReference object) of this Reaction.
def libsbml.Reaction.getReactant (   self,
  args 
)

Python method signature(s):

getReactant(Reaction self, long n)   SpeciesReference
getReactant(Reaction self, long n)   SpeciesReference
getReactant(Reaction self, string species)   SpeciesReference
getReactant(Reaction self, string species)   SpeciesReference

This method has multiple variants that differ in the arguments they accept. Each is described separately below.


Method variant with the following signature:

getReactant(string species)

Returns the reactant species (as a SpeciesReference object) having a specific identifier in this Reaction.

Parameters
speciesthe identifier of the reactant Species ('species' attribute of the reactant SpeciesReference object)
Returns
a SpeciesReference object, or None if no species with the given identifier species appears as a reactant in this Reaction.

Method variant with the following signature:

getReactant(long n)

Returns the nth reactant species (as a SpeciesReference object) in the list of reactants in this Reaction.

Callers should first call getNumReactants() to find out how many reactants there are, to avoid using an invalid index number.

Parameters
nthe index of the reactant sought.
Returns
the nth reactant (as a SpeciesReference object) of this Reaction.
def libsbml.SBase.getResourceBiologicalQualifier (   self,
  args 
)
inherited

Python method signature(s):

getResourceBiologicalQualifier(SBase self, string resource)   long

Returns the MIRIAM biological qualifier associated with the given resource.

In MIRIAM, qualifiers are an optional means of indicating the relationship between a model component and its annotations. There are two broad kinds of annotations: model and biological. The latter kind is used to qualify the relationship between a model component and a biological entity which it represents. Examples of relationships include 'is' and 'has part', but many others are possible. MIRIAM defines numerous relationship qualifiers to enable different software tools to qualify biological annotations in the same standardized way. In libSBML, the MIRIAM controlled-vocabulary annotations on an SBML model element are represented using lists of CVTerm objects, and the the MIRIAM biological qualifiers are represented using valueswhose names begin with BQB_ in the interface class libsbml.

This method searches the controlled-vocabulary annotations (i.e., the list of CVTerm objects) on the present object, then out of those that have biological qualifiers, looks for an annotation to the given resource. If such an annotation is found, it returns the type of biological qualifier associated with that resource as a valuewhose name begins with BQB_ from the interface class libsbml.

Parameters
resourcestring representing the resource; e.g., 'http://www.geneontology.org/#GO:0005892'.
Returns
the qualifier associated with the resource, or BQB_UNKNOWN if the resource does not exist.
Note
The set of MIRIAM biological qualifiers grows over time, although relatively slowly. The values are up to date with MIRIAM at the time of a given libSBML release. The set of values in list of BQB_ constants defined in libsbml may be expanded in later libSBML releases, to match the values defined by MIRIAM at that later time.
def libsbml.SBase.getResourceModelQualifier (   self,
  args 
)
inherited

Python method signature(s):

getResourceModelQualifier(SBase self, string resource)   long

Returns the MIRIAM model qualifier associated with the given resource.

In MIRIAM, qualifiers are an optional means of indicating the relationship between a model component and its annotations. There are two broad kinds of annotations: model and biological. The former kind is used to qualify the relationship between a model component and another modeling object. An example qualifier is 'isDerivedFrom', to indicate that a given component of the model is derived from the modeling object represented by the referenced resource. MIRIAM defines numerous relationship qualifiers to enable different software tools to qualify model annotations in the same standardized way. In libSBML, the MIRIAM controlled-vocabulary annotations on an SBML model element are represented using lists of CVTerm objects, and the the MIRIAM model qualifiers are represented using valueswhose names begin with BQM_ in the interface class libsbml.

This method method searches the controlled-vocabulary annotations (i.e., the list of CVTerm objects) on the present object, then out of those that have model qualifiers, looks for an annotation to the given resource. If such an annotation is found, it returns the type of type of model qualifier associated with that resource as a valuewhose name begins with BQM_ from the interface class libsbml.

Parameters
resourcestring representing the resource; e.g., 'http://www.geneontology.org/#GO:0005892'.
Returns
the model qualifier type associated with the resource, or BQM_UNKNOWN if the resource does not exist.
Note
The set of MIRIAM model qualifiers grows over time, although relatively slowly. The values are up to date with MIRIAM at the time of a given libSBML release. The set of values in list of BQM_ constants defined in libsbml may be expanded in later libSBML releases, to match the values defined by MIRIAM at that later time.
def libsbml.Reaction.getReversible (   self)

Python method signature(s):

getReversible(Reaction self)   bool

Returns the value of the 'reversible' attribute on the Reaction as a boolean value.

Returns
the reversibility status of this Reaction.
def libsbml.SBase.getSBMLDocument (   self,
  args 
)
inherited

Python method signature(s):

getSBMLDocument(SBase self)   SBMLDocument
getSBMLDocument(SBase self)   SBMLDocument

Returns the SBMLDocument object containing this object instance.

LibSBML uses the class SBMLDocument as a top-level container for storing SBML content and data associated with it (such as warnings and error messages). An SBML model in libSBML is contained inside an SBMLDocument object. SBMLDocument corresponds roughly to the class SBML defined in the SBML Level 3 and Level 2 specifications, but it does not have a direct correspondence in SBML Level 1. (But, it is created by libSBML no matter whether the model is Level 1, Level 2 or Level 3.)

This method allows the caller to obtain the SBMLDocument for the current object.

Returns
the parent SBMLDocument object of this SBML object.
See Also
getParentSBMLObject()
getModel()
def libsbml.SBase.getSBOTerm (   self)
inherited

Python method signature(s):

getSBOTerm(SBase self)   int

Returns the integer portion of the value of the 'sboTerm' attribute of this object.

Beginning with SBML Level 2 Version 3, objects derived from SBase have an optional attribute named 'sboTerm' for supporting the use of the Systems Biology Ontology. In SBML proper, the data type of the attribute is a string of the form 'SBO:NNNNNNN', where 'NNNNNNN' is a seven digit integer number; libSBML simplifies the representation by only storing the 'NNNNNNN' integer portion. Thus, in libSBML, the 'sboTerm' attribute on SBase has data type int, and SBO identifiers are stored simply as integers. (For convenience, libSBML offers methods for returning both the integer form and a text-string form of the SBO identifier.)

SBO terms are a type of optional annotation, and each different class of SBML object derived from SBase imposes its own requirements about the values permitted for 'sboTerm'. Please consult the SBML Level 2 Version 4 specification for more information about the use of SBO and the 'sboTerm' attribute.

Returns
the value of the 'sboTerm' attribute as an integer, or -1 if the value is not set.
def libsbml.SBase.getSBOTermAsURL (   self)
inherited

Python method signature(s):

getSBOTermAsURL(SBase self)   string

Returns the identifiers.org URL representation of the 'sboTerm' attribute of this object.

This method returns the entire SBO identifier as a text string in the form 'http://identifiers.org/biomodels.sbo/SBO:NNNNNNN'.

SBO terms are a type of optional annotation, and each different class of SBML object derived from SBase imposes its own requirements about the values permitted for 'sboTerm'. Please consult the SBML Level 2 Version 4 specification for more information about the use of SBO and the 'sboTerm' attribute.

Returns
the value of the 'sboTerm' attribute as an identifiers.org URL (its value will be of the form 'http://identifiers.org/biomodels.sbo/SBO:NNNNNNN'), or an empty string if the value is not set.
def libsbml.SBase.getSBOTermID (   self)
inherited

Python method signature(s):

getSBOTermID(SBase self)   string

Returns the string representation of the 'sboTerm' attribute of this object.

Beginning with SBML Level 2 Version 3, objects derived from SBase have an optional attribute named 'sboTerm' for supporting the use of the Systems Biology Ontology. In SBML proper, the data type of the attribute is a string of the form 'SBO:NNNNNNN', where 'NNNNNNN' is a seven digit integer number; libSBML simplifies the representation by only storing the 'NNNNNNN' integer portion. Thus, in libSBML, the 'sboTerm' attribute on SBase has data type int, and SBO identifiers are stored simply as integers. This method returns the entire SBO identifier as a text string in the form 'SBO:NNNNNNN'.

SBO terms are a type of optional annotation, and each different class of SBML object derived from SBase imposes its own requirements about the values permitted for 'sboTerm'. Please consult the SBML Level 2 Version 4 specification for more information about the use of SBO and the 'sboTerm' attribute.

Returns
the value of the 'sboTerm' attribute as a string (its value will be of the form 'SBO:NNNNNNN'), or an empty string if the value is not set.
def libsbml.Reaction.getTypeCode (   self)

Python method signature(s):

getTypeCode(Reaction self)   int

Returns the libSBML type code for this SBML object.

LibSBML attaches an identifying code to every kind of SBML object. These are known as SBML type codes. In the Python language interface for libSBML, the type codes are defined as static integer constants in the interface class libsbml. The names of the type codes all begin with the characters SBML_.

Returns
the SBML type code for this object, or SBML_UNKNOWN (default).
See Also
getElementName()
def libsbml.SBase.getVersion (   self)
inherited

Python method signature(s):

getVersion(SBase self)   long

Returns the Version within the SBML Level of the SBMLDocument object containing this object.

Returns
the SBML version of this SBML object.
See Also
getLevel()
getNamespaces()
def libsbml.Reaction.hasRequiredAttributes (   self)

Python method signature(s):

hasRequiredAttributes(Reaction self)   bool

Predicate returning True if all the required attributes for this Reaction object have been set.

Note
The required attributes for a Reaction object are:
  • 'id' (or 'name' in SBML Level 1)
  • 'fast' (in Level 3 only, where it is defined as a required attribute)
  • 'reversible' (in Level 3 only, where it is defined as a required attribute)
Returns
a boolean value indicating whether all the required attributes for this object have been defined.
def libsbml.SBase.hasValidLevelVersionNamespaceCombination (   self)
inherited

Python method signature(s):

hasValidLevelVersionNamespaceCombination(SBase self)   bool
def libsbml.Reaction.initDefaults (   self)

Python method signature(s):

initDefaults(Reaction self)

Initializes the fields of this Reaction object to 'typical' default values.

The SBML Reaction component has slightly different aspects and default attribute values in different SBML Levels and Versions. This method sets the values to certain common defaults, based mostly on what they are in SBML Level 2. Specifically:

  • Sets the 'reversible' attribute to True
  • Sets the 'fast' attribute to False
  • Marks the 'fast' attribute as not having been set
Warning
The 'fast' attribute must be used with care. SBML definitions before SBML Level 2 Version 2 incorrectly indicated that software tools could ignore this attribute if they did not implement support for the corresponding concept; however, further research in SBML has revealed that this is not true, and 'fast' cannot be ignored if it is set to True. Beginning with SBML Level 2 Versions 2, the SBML specifications therefore stipulate that if a model has any reactions with 'fast' set to true, a software tool must be able to respect the attribute or else indicate to the user that it does not have the capacity to do so. Readers are directed to the SBML specifications, which provides more detail about the conditions under which a reaction can be considered to be fast in this sense.
def libsbml.SBase.isPackageEnabled (   self,
  args 
)
inherited

Python method signature(s):

isPackageEnabled(SBase self, string pkgName)   bool

Predicate returning True if the given SBML Level 3 package is enabled with this object.

The search ignores the package version.

Parameters
pkgNamethe name of the package
Returns
True if the given package is enabled within this object, false otherwise.
See Also
isPackageURIEnabled()
def libsbml.SBase.isPackageURIEnabled (   self,
  args 
)
inherited

Python method signature(s):

isPackageURIEnabled(SBase self, string pkgURI)   bool

Predicate returning True if an SBML Level 3 package with the given URI is enabled with this object.

Parameters
pkgURIthe URI of the package
Returns
True if the given package is enabled within this object, false otherwise.
See Also
isPackageEnabled()
def libsbml.SBase.isPkgEnabled (   self,
  args 
)
inherited

Python method signature(s):

isPkgEnabled(SBase self, string pkgName)   bool

Predicate returning True if the given SBML Level 3 package is enabled with this object.

The search ignores the package version.

Parameters
pkgNamethe name of the package
Returns
True if the given package is enabled within this object, false otherwise.
See Also
isPkgURIEnabled()
def libsbml.SBase.isPkgURIEnabled (   self,
  args 
)
inherited

Python method signature(s):

isPkgURIEnabled(SBase self, string pkgURI)   bool

Predicate returning True if an SBML Level 3 package with the given URI is enabled with this object.

Parameters
pkgURIthe URI of the package
Returns
True if the given package is enabled within this object, false otherwise.
See Also
isPkgEnabled()
def libsbml.SBase.isSetAnnotation (   self)
inherited

Python method signature(s):

isSetAnnotation(SBase self)   bool

Predicate returning True if this object's 'annotation' subelement exists and has content.

Whereas the SBase 'notes' subelement is a container for content to be shown directly to humans, the 'annotation' element is a container for optional software-generated content not meant to be shown to humans. Every object derived from SBase can have its own value for 'annotation'. The element's content type is XML type 'any', allowing essentially arbitrary well-formed XML data content.

SBML places a few restrictions on the organization of the content of annotations; these are intended to help software tools read and write the data as well as help reduce conflicts between annotations added by different tools. Please see the SBML specifications for more details.

Returns
True if a 'annotation' subelement exists, False otherwise.
See Also
getAnnotation()
getAnnotationString()
setAnnotation()
setAnnotation()
appendAnnotation()
appendAnnotation()
unsetAnnotation()
def libsbml.Reaction.isSetCompartment (   self)

Python method signature(s):

isSetCompartment(Reaction self)   bool

Predicate returning True if this Reaction's 'compartment' attribute is set.

Returns
True if the 'compartment' attribute of this Reaction is set, False otherwise.
Note
The 'compartment' attribute is available in SBML Level 3 Version 1 Core, but is not present on Reaction in lower Levels of SBML.
def libsbml.Reaction.isSetFast (   self)

Python method signature(s):

isSetFast(Reaction self)   bool

Predicate returning True if the value of the 'fast' attribute on this Reaction.

Returns
True if the 'fast' attribute is true, False otherwise.
Warning
SBML definitions before SBML Level 2 Version 2 incorrectly indicated that software tools could ignore this attribute if they did not implement support for the corresponding concept; however, further research in SBML has revealed that this is not true, and 'fast' cannot be ignored if it is set to True. SBML Level 2 Versions 2, 3 and 4 therefore stipulate that if a model has any reactions with 'fast' set to True, a software tool must be able to respect the attribute or else indicate to the user that it does not have the capacity to do so. Readers are directed to the SBML Level 2 Version 4 specification, which provides more detail about the conditions under which a reaction can be considered to be fast in this sense. Note also that in SBML Level 1, 'fast' is defined as optional with a default of False, which means it is effectively always set.
def libsbml.Reaction.isSetId (   self)

Python method signature(s):

isSetId(Reaction self)   bool

Predicate returning True if this Reaction's 'id' attribute is set.

Returns
True if the 'id' attribute of this Reaction is set, False otherwise.
def libsbml.Reaction.isSetKineticLaw (   self)

Python method signature(s):

isSetKineticLaw(Reaction self)   bool

Predicate returning True if this Reaction contains a kinetic law object.

Returns
True if a KineticLaw is present in this Reaction,, False otherwise.
def libsbml.SBase.isSetMetaId (   self)
inherited

Python method signature(s):

isSetMetaId(SBase self)   bool

Predicate returning True if this object's 'metaid' attribute is set.

The optional attribute named 'metaid', present on every major SBML component type, is for supporting metadata annotations using RDF (Resource Description Format). The attribute value has the data type XML ID, the XML identifier type, which means each 'metaid' value must be globally unique within an SBML file. (Importantly, this uniqueness criterion applies across any attribute with type XML ID, not just the 'metaid' attribute used by SBML—something to be aware of if your application-specific XML content inside the 'annotation' subelement happens to use XML ID.) The 'metaid' value serves to identify a model component for purposes such as referencing that component from metadata placed within 'annotation' subelements.

Returns
True if the 'metaid' attribute of this SBML object is set, False otherwise.
See Also
getMetaId()
setMetaId()
def libsbml.SBase.isSetModelHistory (   self)
inherited

Python method signature(s):

isSetModelHistory(SBase self)   bool

Predicate returning True if this object has a ModelHistory object attached to it.

Returns
True if the ModelHistory of this object is set, false otherwise.
Note
In SBML Level 2, model history annotations were only permitted on the Model element. In SBML Level 3, they are permitted on all SBML components derived from SBase.
def libsbml.Reaction.isSetName (   self)

Python method signature(s):

isSetName(Reaction self)   bool

Predicate returning True if this Reaction's 'name' attribute is set.

Returns
True if the 'name' attribute of this Reaction is set, False otherwise.
def libsbml.SBase.isSetNotes (   self)
inherited

Python method signature(s):

isSetNotes(SBase self)   bool

Predicate returning True if this object's 'notes' subelement exists and has content.

The optional SBML element named 'notes', present on every major SBML component type, is intended as a place for storing optional information intended to be seen by humans. An example use of the 'notes' element would be to contain formatted user comments about the model element in which the 'notes' element is enclosed. Every object derived directly or indirectly from type SBase can have a separate value for 'notes', allowing users considerable freedom when adding comments to their models.

The format of 'notes' elements must be XHTML 1.0. To help verify the formatting of 'notes' content, libSBML provides the static utility method SyntaxChecker.hasExpectedXHTMLSyntax(); however, readers are urged to consult the appropriate SBML specification document for the Level and Version of their model for more in-depth explanations. The SBML Level 2 and  3 specifications have considerable detail about how 'notes' element content must be structured.

Returns
True if a 'notes' subelement exists, False otherwise.
See Also
getNotes()
getNotesString()
setNotes()
setNotes()
appendNotes()
appendNotes()
unsetNotes()
SyntaxChecker.hasExpectedXHTMLSyntax()
def libsbml.Reaction.isSetReversible (   self)

Python method signature(s):

isSetReversible(Reaction self)   bool

Predicate returning True if this Reaction's 'reversible' attribute is set.

Returns
True if the 'reversible' attribute of this Reaction is set, False otherwise.
def libsbml.SBase.isSetSBOTerm (   self)
inherited

Python method signature(s):

isSetSBOTerm(SBase self)   bool

Predicate returning True if this object's 'sboTerm' attribute is set.

Returns
True if the 'sboTerm' attribute of this SBML object is set, False otherwise.
def libsbml.SBase.matchesRequiredSBMLNamespacesForAddition (   self,
  args 
)
inherited

Python method signature(s):

matchesRequiredSBMLNamespacesForAddition(SBase self, SBase sb)   bool
matchesRequiredSBMLNamespacesForAddition(SBase self, SBase sb)   bool

Returns True if this object's set of XML namespaces are a subset of the given object's XML namespaces.

Parameters
sban object to compare with respect to namespaces
Returns
boolean, True if this object's collection of namespaces is a subset of sb's, False otherwise.
def libsbml.SBase.matchesSBMLNamespaces (   self,
  args 
)
inherited

Python method signature(s):

matchesSBMLNamespaces(SBase self, SBase sb)   bool
matchesSBMLNamespaces(SBase self, SBase sb)   bool

Returns True if this object's set of XML namespaces are the same as the given object's XML namespaces.

Parameters
sban object to compare with respect to namespaces
Returns
boolean, True if this object's collection of namespaces is the same as sb's, False otherwise.
def libsbml.SBase.removeFromParentAndDelete (   self)
inherited

Python method signature(s):

removeFromParentAndDelete(SBase self)   int

Removes itself from its parent. If the parent was storing it as a pointer, it is deleted. If not, it is simply cleared (as in ListOf objects). Pure virutal, as every SBase element has different parents, and therefore different methods of removing itself. Will fail (and not delete itself) if it has no parent object. This function is designed to be overridden, but for all objects whose parent is of the class ListOf, the default implementation will work.

Returns
integer value indicating success/failure of the function. The possible values returned by this function are:
def libsbml.Reaction.removeModifier (   self,
  args 
)

Python method signature(s):

removeModifier(Reaction self, long n)   ModifierSpeciesReference
removeModifier(Reaction self, string species)   ModifierSpeciesReference

This method has multiple variants that differ in the arguments they accept. Each is described separately below.


Method variant with the following signature:

removeModifier(string species)

Removes the modifier species (ModifierSpeciesReference object) having the given 'species' attribute in this Reaction and returns a pointer to it.

The caller owns the returned object and is responsible for deleting it.

Parameters
speciesthe 'species' attribute of the ModifierSpeciesReference object
Returns
the removed ModifierSpeciesReference object, or None if no ModifierSpeciesReference object with the given 'species' attribute species exists in this Reaction.

Method variant with the following signature:

removeModifier(long n)

Removes the nth modifier species (ModifierSpeciesReference object) in the list of modifiers in this Reaction and returns a pointer to it.

The caller owns the returned object and is responsible for deleting it. The caller should first call getNumModifiers() to find out how many modifiers there are, to avoid using an invalid index number.

Parameters
nthe index of the ModifierSpeciesReference object to remove
Returns
the removed ModifierSpeciesReference object, or None if the given index is out of range.
def libsbml.Reaction.removeProduct (   self,
  args 
)

Python method signature(s):

removeProduct(Reaction self, long n)   SpeciesReference
removeProduct(Reaction self, string species)   SpeciesReference

This method has multiple variants that differ in the arguments they accept. Each is described separately below.


Method variant with the following signature:

removeProduct(string species)

Removes the product species (SpeciesReference object) having the given 'species' attribute in this Reaction and returns a pointer to it.

The caller owns the returned object and is responsible for deleting it.

Parameters
speciesthe 'species' attribute of the product SpeciesReference object
Returns
the removed product SpeciesReference object, or None if no product SpeciesReference object with the given 'species' attribute species exists in this Reaction.

Method variant with the following signature:

removeProduct(long n)

Removes the nth product species (SpeciesReference object) in the list of products in this Reaction and returns a pointer to it.

The caller owns the returned object and is responsible for deleting it. The caller should first call getNumProducts() to find out how many products there are, to avoid using an invalid index number.

Parameters
nthe index of the product SpeciesReference object to remove
Returns
the removed product SpeciesReference object, or None if the given index is out of range.
def libsbml.Reaction.removeReactant (   self,
  args 
)

Python method signature(s):

removeReactant(Reaction self, long n)   SpeciesReference
removeReactant(Reaction self, string species)   SpeciesReference

This method has multiple variants that differ in the arguments they accept. Each is described separately below.


Method variant with the following signature:

removeReactant(string species)

Removes the reactant species (SpeciesReference object) having the given 'species' attribute in this Reaction and returns a pointer to it.

The caller owns the returned object and is responsible for deleting it.

Parameters
speciesthe 'species' attribute of the reactant SpeciesReference object
Returns
the removed reactant SpeciesReference object, or None if no reactant SpeciesReference object with the given 'species' attribute species exists in this Reaction.

Method variant with the following signature:

removeReactant(long n)

Removes the nth reactant species (SpeciesReference object) in the list of reactants in this Reaction and returns a pointer to it.

The caller owns the returned object and is responsible for deleting it. The caller should first call getNumReactants() to find out how many reactants there are, to avoid using an invalid index number.

Parameters
nthe index of the reactant SpeciesReference object to remove
Returns
the removed reactant SpeciesReference object, or None if the given index is out of range.
def libsbml.SBase.removeTopLevelAnnotationElement (   self,
  args 
)
inherited

Python method signature(s):

removeTopLevelAnnotationElement(SBase self, string elementName, string elementURI="")   int
removeTopLevelAnnotationElement(SBase self, string elementName)   int

Removes the top-level element within the 'annotation' subelement of this SBML object with the given name and optional URI.

SBML places a few restrictions on the organization of the content of annotations; these are intended to help software tools read and write the data as well as help reduce conflicts between annotations added by different tools. Please see the SBML specifications for more details.

Calling this method allows a particular annotation element to be removed whilst the remaining annotations remain intact.

Parameters
elementNamea string representing the name of the top level annotation element that is to be removed
elementURIan optional string that is used to check both the name and URI of the top level element to be removed
Returns
integer value indicating success/failure of the function. The possible values returned by this function are:
See Also
replaceTopLevelAnnotationElement()
replaceTopLevelAnnotationElement()
def libsbml.SBase.renameMetaIdRefs (   self,
  args 
)
inherited

Python method signature(s):

renameMetaIdRefs(SBase self, string oldid, string newid)

Renames all the MetaIdRef attributes on this element.

This method works by looking at all meta-attribute values, comparing the identifiers to the value of oldid. If any matches are found, the matching identifiers are replaced with newid. The method does not descend into child elements.

Parameters
oldidthe old identifier
newidthe new identifier
def libsbml.Reaction.renameSIdRefs (   self,
  args 
)

Python method signature(s):

renameSIdRefs(Reaction self, string oldid, string newid)

Renames all the SIdRef attributes on this element, including any found in MathML

def libsbml.SBase.renameUnitSIdRefs (   self,
  args 
)
inherited

Python method signature(s):

renameUnitSIdRefs(SBase self, string oldid, string newid)

Renames all the UnitSIdRef attributes on this element.

This method works by looking at all unit identifier attribute values (including, if appropriate, inside mathematical formulas), comparing the unit identifiers to the value of oldid. If any matches are found, the matching identifiers are replaced with newid. The method does not descend into child elements.

Parameters
oldidthe old identifier
newidthe new identifier
def libsbml.SBase.replaceTopLevelAnnotationElement (   self,
  args 
)
inherited

Python method signature(s):

replaceTopLevelAnnotationElement(SBase self, XMLNode annotation)   int
replaceTopLevelAnnotationElement(SBase self, string annotation)   int

This method has multiple variants that differ in the arguments they accept. Each is described separately below.


Method variant with the following signature:

replaceTopLevelAnnotationElement(XMLNode annotation)

Replaces the given top-level element within the 'annotation' subelement of this SBML object and with the annotation element supplied.

SBML places a few restrictions on the organization of the content of annotations; these are intended to help software tools read and write the data as well as help reduce conflicts between annotations added by different tools. Please see the SBML specifications for more details.

This method determines the name of the element to be replaced from the annotation argument. Functionally it is equivalent to calling removeTopLevelAnnotationElement(name); appendAnnotation(annotation_with_name); with the exception that the placement of the annotation element remains the same.

Parameters
annotationXMLNode representing the replacement top level annotation
Returns
integer value indicating success/failure of the function. The possible values returned by this function are:
See Also
removeTopLevelAnnotationElement()
replaceTopLevelAnnotationElement()

Method variant with the following signature:

replaceTopLevelAnnotationElement(string annotation)

Replaces the given top-level element within the 'annotation' subelement of this SBML object and with the annotation element supplied.

SBML places a few restrictions on the organization of the content of annotations; these are intended to help software tools read and write the data as well as help reduce conflicts between annotations added by different tools. Please see the SBML specifications for more details.

This method determines the name of the element to be replaced from the annotation argument. Functionally it is equivalent to calling removeTopLevelAnnotationElement(name); appendAnnotation(annotation_with_name); with the exception that the placement of the annotation element remains the same.

Parameters
annotationstring representing the replacement top level annotation
Returns
integer value indicating success/failure of the function. The possible values returned by this function are:
See Also
removeTopLevelAnnotationElement()
replaceTopLevelAnnotationElement()
def libsbml.SBase.setAnnotation (   self,
  args 
)
inherited

Python method signature(s):

setAnnotation(SBase self, XMLNode annotation)   int
setAnnotation(SBase self, string annotation)   int

This method has multiple variants that differ in the arguments they accept. Each is described separately below.


Method variant with the following signature:

setAnnotation(XMLNode annotation)

Sets the value of the 'annotation' subelement of this SBML object.

The content of annotation is copied, and any previous content of this object's 'annotation' subelement is deleted.

Whereas the SBase 'notes' subelement is a container for content to be shown directly to humans, the 'annotation' element is a container for optional software-generated content not meant to be shown to humans. Every object derived from SBase can have its own value for 'annotation'. The element's content type is XML type 'any', allowing essentially arbitrary well-formed XML data content.

SBML places a few restrictions on the organization of the content of annotations; these are intended to help software tools read and write the data as well as help reduce conflicts between annotations added by different tools. Please see the SBML specifications for more details.

Call this method will result in any existing content of the 'annotation' subelement to be discarded. Unless you have taken steps to first copy and reconstitute any existing annotations into the annotation that is about to be assigned, it is likely that performing such wholesale replacement is unfriendly towards other software applications whose annotations are discarded. An alternative may be to use SBase.appendAnnotation() or SBase.appendAnnotation().

Parameters
annotationan XML structure that is to be used as the new content of the 'annotation' subelement of this object
Returns
integer value indicating success/failure of the function. The possible values returned by this function are:
See Also
getAnnotationString()
isSetAnnotation()
setAnnotation()
appendAnnotation()
appendAnnotation()
unsetAnnotation()

Method variant with the following signature:

setAnnotation(string annotation)

Sets the value of the 'annotation' subelement of this SBML object.

The content of annotation is copied, and any previous content of this object's 'annotation' subelement is deleted.

Whereas the SBase 'notes' subelement is a container for content to be shown directly to humans, the 'annotation' element is a container for optional software-generated content not meant to be shown to humans. Every object derived from SBase can have its own value for 'annotation'. The element's content type is XML type 'any', allowing essentially arbitrary well-formed XML data content.

SBML places a few restrictions on the organization of the content of annotations; these are intended to help software tools read and write the data as well as help reduce conflicts between annotations added by different tools. Please see the SBML specifications for more details.

Call this method will result in any existing content of the 'annotation' subelement to be discarded. Unless you have taken steps to first copy and reconstitute any existing annotations into the annotation that is about to be assigned, it is likely that performing such wholesale replacement is unfriendly towards other software applications whose annotations are discarded. An alternative may be to use SBase.appendAnnotation() or SBase.appendAnnotation().

Parameters
annotationan XML string that is to be used as the content of the 'annotation' subelement of this object
Returns
integer value indicating success/failure of the function. The possible values returned by this function are:
See Also
getAnnotationString()
isSetAnnotation()
setAnnotation()
appendAnnotation()
appendAnnotation()
unsetAnnotation()
def libsbml.Reaction.setCompartment (   self,
  args 
)

Python method signature(s):

setCompartment(Reaction self, string sid)   int

Sets the value of the 'compartment' attribute of this Reaction.

The string sid is copied.

Parameters
sidthe string to use as the compartment of this Reaction
Returns
integer value indicating success/failure of the function. The possible values returned by this function are:
Note
The 'compartment' attribute is available in SBML Level 3 Version 1 Core, but is not present on Reaction in lower Levels of SBML.
def libsbml.Reaction.setFast (   self,
  args 
)

Python method signature(s):

setFast(Reaction self, bool value)   int

Sets the value of the 'fast' attribute of this Reaction.

Parameters
valuethe value of the 'fast' attribute.
Returns
integer value indicating success/failure of the function. The possible values returned by this function are:
Warning
SBML definitions before SBML Level 2 Version 2 incorrectly indicated that software tools could ignore this attribute if they did not implement support for the corresponding concept; however, further research in SBML has revealed that this is not true, and 'fast' cannot be ignored if it is set to True. SBML Level 2 Versions 2, 3 and 4 therefore stipulate that if a model has any reactions with 'fast' set to True, a software tool must be able to respect the attribute or else indicate to the user that it does not have the capacity to do so. Readers are directed to the SBML Level 2 Version 4 specification, which provides more detail about the conditions under which a reaction can be considered to be fast in this sense.
def libsbml.Reaction.setId (   self,
  args 
)

Python method signature(s):

setId(Reaction self, string sid)   int

Sets the value of the 'id' attribute of this Reaction.

The string sid is copied. Note that SBML has strict requirements for the syntax of identifiers. The following is a summary of the definition of the SBML identifier type SId, which defines the permitted syntax of identifiers. We express the syntax using an extended form of BNF notation:

letter ::= 'a'..'z','A'..'Z'
digit  ::= '0'..'9'
idChar ::= letter | digit | '_'
SId    ::= ( letter | '_' ) idChar*
The characters ( and ) are used for grouping, the character * "zero or more times", and the character | indicates logical "or". The equality of SBML identifiers is determined by an exact character sequence match; i.e., comparisons must be performed in a case-sensitive manner. In addition, there are a few conditions for the uniqueness of identifiers in an SBML model. Please consult the SBML specifications for the exact formulations.

Parameters
sidthe string to use as the identifier of this Reaction
Returns
integer value indicating success/failure of the function. The possible values returned by this function are:
def libsbml.Reaction.setKineticLaw (   self,
  args 
)

Python method signature(s):

setKineticLaw(Reaction self, KineticLaw kl)   int

Sets the 'kineticLaw' subelement of this Reaction to a copy of the given KineticLaw object.

Parameters
klthe KineticLaw object to use.
Returns
integer value indicating success/failure of the function. The possible values returned by this function are:
def libsbml.SBase.setMetaId (   self,
  args 
)
inherited

Python method signature(s):

setMetaId(SBase self, string metaid)   int

Sets the value of the 'metaid' attribute of this object.

The string metaid is copied. The value of metaid must be an identifier conforming to the syntax defined by the XML 1.0 data type ID. Among other things, this type requires that a value is unique among all the values of type XML ID in an SBMLDocument. Although SBML only uses XML ID for the 'metaid' attribute, callers should be careful if they use XML ID's in XML portions of a model that are not defined by SBML, such as in the application-specific content of the 'annotation' subelement.

Parameters
metaidthe identifier string to use as the value of the 'metaid' attribute
Returns
integer value indicating success/failure of the function. The possible values returned by this function are:
See Also
getMetaId()
isSetMetaId()
def libsbml.SBase.setModelHistory (   self,
  args 
)
inherited

Python method signature(s):

setModelHistory(SBase self, ModelHistory history)   int

Sets the ModelHistory of this object.

The content of history is copied, and this object's existing model history content is deleted.

Parameters
historyModelHistory of this object.
Returns
integer value indicating success/failure of the function. The possible values returned by this function are:
Note
In SBML Level 2, model history annotations were only permitted on the Model element. In SBML Level 3, they are permitted on all SBML components derived from SBase.
def libsbml.Reaction.setName (   self,
  args 
)

Python method signature(s):

setName(Reaction self, string name)   int

Sets the value of the 'name' attribute of this Reaction.

The string in name is copied.

Parameters
namethe new name for the Reaction
Returns
integer value indicating success/failure of the function. The possible values returned by this function are:
def libsbml.SBase.setNamespaces (   self,
  args 
)
inherited

Python method signature(s):

setNamespaces(SBase self, XMLNamespaces xmlns)   int

Sets the namespaces relevant of this SBML object.

The content of xmlns is copied, and this object's existing namespace content is deleted.

The SBMLNamespaces object encapsulates SBML Level/Version/namespaces information. It is used to communicate the SBML Level, Version, and (in Level 3) packages used in addition to SBML Level 3 Core.

Parameters
xmlnsthe namespaces to set
Returns
integer value indicating success/failure of the function. The possible values returned by this function are:
def libsbml.SBase.setNotes (   self,
  args 
)
inherited

Python method signature(s):

setNotes(SBase self, XMLNode notes)   int
setNotes(SBase self, string notes, bool addXHTMLMarkup=False)   int
setNotes(SBase self, string notes)   int

This method has multiple variants that differ in the arguments they accept. Each is described separately below.


Method variant with the following signature:

setNotes(string notes, bool addXHTMLMarkup = false)

Sets the value of the 'notes' subelement of this SBML object to a copy of the string notes.

The content of notes is copied, and any existing content of this object's 'notes' subelement is deleted.

The optional SBML element named 'notes', present on every major SBML component type, is intended as a place for storing optional information intended to be seen by humans. An example use of the 'notes' element would be to contain formatted user comments about the model element in which the 'notes' element is enclosed. Every object derived directly or indirectly from type SBase can have a separate value for 'notes', allowing users considerable freedom when adding comments to their models.

The format of 'notes' elements must be XHTML 1.0. To help verify the formatting of 'notes' content, libSBML provides the static utility method SyntaxChecker.hasExpectedXHTMLSyntax(); however, readers are urged to consult the appropriate SBML specification document for the Level and Version of their model for more in-depth explanations. The SBML Level 2 and  3 specifications have considerable detail about how 'notes' element content must be structured.

The following code illustrates a very simple way of setting the notes using this method. Here, the object being annotated is the whole SBML document, but that is for illustration purposes only; you could of course use this same approach to annotate any other SBML component.

Parameters
notesan XML string that is to be used as the content of the 'notes' subelement of this object
addXHTMLMarkupa boolean indicating whether to wrap the contents of the notes argument with XHTML paragraph (<p>) tags. This is appropriate when the string in notes does not already containg the appropriate XHTML markup.
Returns
integer value indicating success/failure of the function. The possible values returned by this function are:
See Also
getNotesString()
isSetNotes()
setNotes()
appendNotes()
appendNotes()
unsetNotes()
SyntaxChecker.hasExpectedXHTMLSyntax()

Method variant with the following signature:

setNotes(XMLNode notes)

Sets the value of the 'notes' subelement of this SBML object.

The content of notes is copied, and any existing content of this object's 'notes' subelement is deleted.

The optional SBML element named 'notes', present on every major SBML component type, is intended as a place for storing optional information intended to be seen by humans. An example use of the 'notes' element would be to contain formatted user comments about the model element in which the 'notes' element is enclosed. Every object derived directly or indirectly from type SBase can have a separate value for 'notes', allowing users considerable freedom when adding comments to their models.

The format of 'notes' elements must be XHTML 1.0. To help verify the formatting of 'notes' content, libSBML provides the static utility method SyntaxChecker.hasExpectedXHTMLSyntax(); however, readers are urged to consult the appropriate SBML specification document for the Level and Version of their model for more in-depth explanations. The SBML Level 2 and  3 specifications have considerable detail about how 'notes' element content must be structured.

Parameters
notesan XML structure that is to be used as the content of the 'notes' subelement of this object
Returns
integer value indicating success/failure of the function. The possible values returned by this function are:
See Also
getNotesString()
isSetNotes()
setNotes()
appendNotes()
appendNotes()
unsetNotes()
SyntaxChecker.hasExpectedXHTMLSyntax()
def libsbml.Reaction.setReversible (   self,
  args 
)

Python method signature(s):

setReversible(Reaction self, bool value)   int

Sets the value of the 'reversible' attribute of this Reaction.

Parameters
valuethe value of the 'reversible' attribute.
Returns
integer value indicating success/failure of the function. The possible values returned by this function are:
def libsbml.SBase.setSBOTerm (   self,
  args 
)
inherited

Python method signature(s):

setSBOTerm(SBase self, int value)   int
setSBOTerm(SBase self, string sboid)   int

This method has multiple variants that differ in the arguments they accept. Each is described separately below.


Method variant with the following signature:

setSBOTerm(int value)

Sets the value of the 'sboTerm' attribute.

Beginning with SBML Level 2 Version 3, objects derived from SBase have an optional attribute named 'sboTerm' for supporting the use of the Systems Biology Ontology. In SBML proper, the data type of the attribute is a string of the form 'SBO:NNNNNNN', where 'NNNNNNN' is a seven digit integer number; libSBML simplifies the representation by only storing the 'NNNNNNN' integer portion. Thus, in libSBML, the 'sboTerm' attribute on SBase has data type int, and SBO identifiers are stored simply as integers.

SBO terms are a type of optional annotation, and each different class of SBML object derived from SBase imposes its own requirements about the values permitted for 'sboTerm'. Please consult the SBML Level 2 Version 4 specification for more information about the use of SBO and the 'sboTerm' attribute.

Parameters
valuethe NNNNNNN integer portion of the SBO identifier
Returns
integer value indicating success/failure of the function. The possible values returned by this function are:
See Also
setSBOTerm()

Method variant with the following signature:

setSBOTerm(string &sboid)

Sets the value of the 'sboTerm' attribute by string.

Beginning with SBML Level 2 Version 3, objects derived from SBase have an optional attribute named 'sboTerm' for supporting the use of the Systems Biology Ontology. In SBML proper, the data type of the attribute is a string of the form 'SBO:NNNNNNN', where 'NNNNNNN' is a seven digit integer number; libSBML simplifies the representation by only storing the 'NNNNNNN' integer portion. Thus, in libSBML, the 'sboTerm' attribute on SBase has data type int, and SBO identifiers are stored simply as integers. This method lets you set the value of 'sboTerm' as a complete string of the form 'SBO:NNNNNNN', whereas setSBOTerm(int value) allows you to set it using the integer form.

SBO terms are a type of optional annotation, and each different class of SBML object derived from SBase imposes its own requirements about the values permitted for 'sboTerm'. Please consult the SBML Level 2 Version 4 specification for more information about the use of SBO and the 'sboTerm' attribute.

Parameters
sboidthe SBO identifier string of the form 'SBO:NNNNNNN'
Returns
integer value indicating success/failure of the function. The possible values returned by this function are:
See Also
setSBOTerm()
def libsbml.SBase.toSBML (   self)
inherited

toSBML(SBase self) string *

Returns a string consisting of a partial SBML corresponding to just this object.

Returns
the partial SBML that describes this SBML object.
Warning
This is primarily provided for testing and debugging purposes. It may be removed in a future version of libSBML.
def libsbml.SBase.unsetAnnotation (   self)
inherited

Python method signature(s):

unsetAnnotation(SBase self)   int

Unsets the value of the 'annotation' subelement of this SBML object.

Whereas the SBase 'notes' subelement is a container for content to be shown directly to humans, the 'annotation' element is a container for optional software-generated content not meant to be shown to humans. Every object derived from SBase can have its own value for 'annotation'. The element's content type is XML type 'any', allowing essentially arbitrary well-formed XML data content.

SBML places a few restrictions on the organization of the content of annotations; these are intended to help software tools read and write the data as well as help reduce conflicts between annotations added by different tools. Please see the SBML specifications for more details.

Returns
integer value indicating success/failure of the function. The possible values returned by this function are:
See Also
getAnnotation()
getAnnotationString()
isSetAnnotation()
setAnnotation()
setAnnotation()
appendAnnotation()
appendAnnotation()
def libsbml.Reaction.unsetCompartment (   self)

Python method signature(s):

unsetCompartment(Reaction self)   int

Unsets the value of the 'compartment' attribute of this Reaction.

Returns
integer value indicating success/failure of the function. The possible values returned by this function are:
Note
The 'compartment' attribute is available in SBML Level 3 Version 1 Core, but is not present on Reaction in lower Levels of SBML.
def libsbml.SBase.unsetCVTerms (   self)
inherited

Python method signature(s):

unsetCVTerms(SBase self)   int

Clears the list of CVTerm objects attached to this SBML object.

Returns
integer value indicating success/failure of the function. The possible values returned by this function are:
def libsbml.Reaction.unsetFast (   self)

Python method signature(s):

unsetFast(Reaction self)   int

Unsets the value of the 'fast' attribute of this Reaction.

Returns
integer value indicating success/failure of the function. The possible values returned by this function are:
Warning
In SBML Level 1, 'fast' is optional with a default of false, which means it is effectively always set (and reset to False if this method is called). Further, SBML definitions before SBML Level 2 Version 2 incorrectly indicated that software tools could ignore this attribute if they did not implement support for the corresponding concept; however, further research in SBML has revealed that this is not true, and 'fast' cannot be ignored if it is set to True. SBML Level 2 Versions 2, 3 and 4 therefore stipulate that if a model has any reactions with 'fast' set to True, a software tool must be able to respect the attribute or else indicate to the user that it does not have the capacity to do so. Readers are directed to the SBML Level 2 Version 4 specification, which provides more detail about the conditions under which a reaction can be considered to be fast in this sense.
def libsbml.SBase.unsetId (   self)
inherited

Python method signature(s):

unsetId(SBase self)   int

Unsets the value of the 'id' attribute of this SBML object.

Most (but not all) objects in SBML include two common attributes: 'id' and 'name'. The identifier given by an object's 'id' attribute value is used to identify the object within the SBML model definition. Other objects can refer to the component using this identifier. The data type of 'id' is always either Sid or UnitSId, depending on the object in question. Both data types are defined as follows:

  letter ::= 'a'..'z','A'..'Z'
  digit  ::= '0'..'9'
  idChar ::= letter | digit | '_'
  SId    ::= ( letter | '_' ) idChar*

The equality of SId and UnitSId type values in SBML is determined by an exact character sequence match; i.e., comparisons of these identifiers must be performed in a case-sensitive manner. This applies to all uses of SId and UnitSId.

Returns
integer value indicating success/failure of the function. The possible values returned by this function are:
def libsbml.Reaction.unsetKineticLaw (   self)

Python method signature(s):

unsetKineticLaw(Reaction self)   int

Unsets the 'kineticLaw' subelement of this Reaction.

Returns
integer value indicating success/failure of the function. The possible values returned by this function are:
def libsbml.SBase.unsetMetaId (   self)
inherited

Python method signature(s):

unsetMetaId(SBase self)   int

Unsets the value of the 'metaid' attribute of this SBML object.

The optional attribute named 'metaid', present on every major SBML component type, is for supporting metadata annotations using RDF (Resource Description Format). The attribute value has the data type XML ID, the XML identifier type, which means each 'metaid' value must be globally unique within an SBML file. (Importantly, this uniqueness criterion applies across any attribute with type XML ID, not just the 'metaid' attribute used by SBML—something to be aware of if your application-specific XML content inside the 'annotation' subelement happens to use XML ID.) The 'metaid' value serves to identify a model component for purposes such as referencing that component from metadata placed within 'annotation' subelements.

Returns
integer value indicating success/failure of the function. The possible values returned by this function are:
def libsbml.SBase.unsetModelHistory (   self)
inherited

Python method signature(s):

unsetModelHistory(SBase self)   int

Unsets the ModelHistory object attached to this object.

Returns
integer value indicating success/failure of the function. The possible values returned by this function are:
Note
In SBML Level 2, model history annotations were only permitted on the Model element. In SBML Level 3, they are permitted on all SBML components derived from SBase.
def libsbml.Reaction.unsetName (   self)

Python method signature(s):

unsetName(Reaction self)   int

Unsets the value of the 'name' attribute of this Reaction.

Returns
integer value indicating success/failure of the function. The possible values returned by this function are:
def libsbml.SBase.unsetNotes (   self)
inherited

Python method signature(s):

unsetNotes(SBase self)   int

Unsets the value of the 'notes' subelement of this SBML object.

The optional SBML element named 'notes', present on every major SBML component type, is intended as a place for storing optional information intended to be seen by humans. An example use of the 'notes' element would be to contain formatted user comments about the model element in which the 'notes' element is enclosed. Every object derived directly or indirectly from type SBase can have a separate value for 'notes', allowing users considerable freedom when adding comments to their models.

The format of 'notes' elements must be XHTML 1.0. To help verify the formatting of 'notes' content, libSBML provides the static utility method SyntaxChecker.hasExpectedXHTMLSyntax(); however, readers are urged to consult the appropriate SBML specification document for the Level and Version of their model for more in-depth explanations. The SBML Level 2 and  3 specifications have considerable detail about how 'notes' element content must be structured.

Returns
integer value indicating success/failure of the function. The possible values returned by this function are:
See Also
getNotesString()
isSetNotes()
setNotes()
setNotes()
appendNotes()
appendNotes()
SyntaxChecker.hasExpectedXHTMLSyntax()
def libsbml.SBase.unsetSBOTerm (   self)
inherited

Python method signature(s):

unsetSBOTerm(SBase self)   int

Unsets the value of the 'sboTerm' attribute of this SBML object.

Returns
integer value indicating success/failure of the function. The possible values returned by this function are: