Class DateStructFieldAccess

A FieldAccess that would represent an access to a field on a struct.

Import path

import semmle.code.cpp.commons.DateTime

Direct supertypes

FieldAccess

Indirect supertypes

Known direct subtypes

Inherited predicates

findRootCause	Gets the source of this element: either itself or a macro that expanded to this element.	from Element
fromSource	Holds if this element may be from source. This predicate holds for all elements, except for those in the dummy file, whose name is the empty string. The dummy file contains declarations that are built directly into the compiler.	from Element
getAChild	Gets a child of this expression.	from Expr
getAFalseSuccessor	Gets a node such that the control-flow edge `(this, result)` may be taken when this expression is false.	from ControlFlowNode
getAPredecessor	Gets a direct predecessor of this control-flow node, if any.	from ControlFlowNode
getAPrimaryQlClass	Gets the name of a primary CodeQL class to which this element belongs.	from FieldAccess
getASuccessor	Gets a direct successor of this control-flow node, if any.	from ControlFlowNode
getATrueSuccessor	Gets a node such that the control-flow edge `(this, result)` may be taken when this expression is true.	from ControlFlowNode
getActualType	Gets the type of this expression, after any implicit conversions and explicit casts, and after resolving typedefs.	from Expr
getAnImplicitDestructorCall	Gets a compiler-generated destructor call that is performed after this expression.	from Expr
getBasicBlock	Gets the `BasicBlock` containing this control-flow node.	from ControlFlowNode
getChild	Gets the nth child of this expression.	from Expr
getControlFlowScope	Gets the function containing this control-flow node.	from Expr
getConversion	Gets the conversion associated with this expression, if any.	from Expr
getConversionString	Gets a string describing the conversion associated with this expression, or "" if there is none.	from Expr
getEnclosingBlock	Gets the nearest enclosing set of curly braces around this expression in the source, if any.	from Expr
getEnclosingDeclaration	Gets the enclosing variable or function of this expression.	from Expr
getEnclosingElement	Gets the closest `Element` enclosing this one.	from Element
getEnclosingFunction	Gets the enclosing function of this expression, if any.	from Expr
getEnclosingStmt	Gets the smallest statement containing this control-flow node.	from Expr
getEnclosingVariable	Gets the enclosing variable of this expression, if any.	from Expr
getExplicitlyConverted	Gets this expression with all of its explicit casts, but none of its implicit casts. More precisely this takes conversions up to the last explicit cast (there may be implicit conversions along the way), but does not include conversions after the last explicit cast.	from Expr
getFile	Gets the primary file where this element occurs.	from Element
getFullyConverted	Gets the fully converted form of this expression, including all type casts and other conversions.	from Expr
getImplicitDestructorCall	Gets the `n`th compiler-generated destructor call that is performed after this expression, in order of destruction.	from Expr
getImplicitlyConverted	Gets this expression with all of its initial implicit casts, but none of its explicit casts. More precisely, this takes all implicit conversions up to (but not including) the first explicit cast (if any).	from Expr
getLocation	Gets the location of this expression.	from Expr
getNameQualifier	Gets the name qualifier associated with this element. For example, the name qualifier of `N::f()` is `N`.	from NameQualifiableElement
getNumChild	Gets the number of direct children of this expression.	from Expr
getParent	Gets the parent of this expression, if any.	from Expr
getParentScope	Gets the parent scope of this `Element`, if any. A scope is a `Type` (`Class` / `Enum`), a `Namespace`, a `BlockStmt`, a `Function`, or certain kinds of `Statement`.	from Element
getParentWithConversions	Gets the parent of this expression, if any, in an alternative syntax tree that has `Conversion`s as part of the tree.	from Expr
getPrecedence	Gets the precedence of the main operator of this expression; higher precedence binds tighter.	from Expr
getPrimaryQlClasses	Gets a comma-separated list of the names of the primary CodeQL classes to which this element belongs.	from ElementBase
getQualifier	Gets the expression generating the variable being accessed.	from VariableAccess
getTarget	Gets the accessed field.	from FieldAccess
getType	Gets the type of this expression.	from Expr
getUnconverted	Gets the unique non-`Conversion` expression `e` for which `this = e.getConversion*()`.	from Expr
getUnderlyingType	Gets the type of this expression after typedefs have been resolved.	from Expr
getUnspecifiedType	Gets the type of this expression after specifiers have been deeply stripped and typedefs have been resolved.	from Expr
getValue	Gets the value of this expression, if it is a constant.	from Expr
getValueCategoryString	Gets a string representation of the value category of the expression. This is intended only for debugging. The possible values are:	from Expr
getValueText	Gets the source text for the value of this expression, if it is a constant.	from Expr
hasChild	Holds if e is the nth child of this expression.	from Expr
hasConversion	Holds if this expression has a conversion.	from Expr
hasExplicitConversion	Holds if this expression has an explicit conversion.	from Expr
hasGlobalQualifiedName	Holds if this element has a globally qualified name. For example, `::x` is globally qualified. It is used to refer to `x` in the global namespace.	from NameQualifiableElement
hasImplicitConversion	Holds if this expression has an implicit conversion.	from Expr
hasLValueToRValueConversion	Holds if this expression has undergone an lvalue-to-rvalue conversion to extract its value. for example: `y = x;` The `VariableAccess` for `x` is a prvalue, and `hasLValueToRValueConversion()` holds because the value of `x` was loaded from the location of `x`. The `VariableAccess` for `y` is an lvalue, and `hasLValueToRValueConversion()` does not hold because the value of `y` was not extracted.	from Expr
hasSuperQualifiedName	Holds if this element has a `__super`-qualified name. For example: `__super::get()`. Note: `__super` is non-standard C++ extension, only supported by some C++ compilers.	from NameQualifiableElement
isAddressOfAccess	Holds if this access is used to get the address of the underlying variable in such a way that the address might escape. This can be either explicit, for example `&x`, or implicit, for example `T& y = x`.	from VariableAccess
isAddressOfAccessNonConst	Holds if this access is used to get the address of the underlying variable in such a way that the address might escape as a pointer or reference to non-const data. This can be either explicit, for example `&x`, or implicit, for example `T& y = x`.	from VariableAccess
isAffectedByMacro	Holds if this element is affected in any way by a macro. All elements that are totally or partially generated by a macro are included, so this is a super-set of `isInMacroExpansion`.	from Element
isCompilerGenerated	Holds if this is an auxiliary expression generated by the compiler.	from Expr
isCondition	Holds if this node is the top-level expression of a conditional statement, meaning that `this.getATrueSuccessor()` or `this.getAFalseSuccessor()` will have a result.	from ControlFlowNode
isConstant	Holds if this expression has a value that can be determined at compile time.	from Expr
isFromTemplateInstantiation	Holds if this `Element` is a part of a template instantiation (but not the template itself).	from Element
isFromUninstantiatedTemplate	Holds if this `Element` is part of a template `template` (not if it is part of an instantiation of `template`). This means it is represented in the database purely as syntax and without guarantees on the presence or correctness of type-based operations such as implicit conversions.	from Element
isGLValueCategory	Holds if this expression is a glvalue. A glvalue is either an lvalue or an xvalue.	from Expr
isInMacroExpansion	Holds if this element comes from a macro expansion. Only elements that are entirely generated by a macro are included - for elements that partially come from a macro, see `isAffectedByMacro`.	from Element
isLValue	Holds if this expression is an lvalue, in the sense of having an address.	from Expr
isLValueCategory	Holds if this expression is an lvalue. An lvalue is an expression that represents a location, rather than a value. See [basic.lval] for more about lvalues.	from Expr
isModified	Holds if this variable access is in a position where it is (directly) modified, for instance by an assignment or increment/decrement operator.	from VariableAccess
isPRValueCategory	Holds if this expression is a prvalue. A prvalue is an expression that represents a value, rather than a location. See [basic.lval] for more about prvalues.	from Expr
isParenthesised	Holds if this expression is parenthesised.	from Expr
isPure	Holds if this expression is side-effect free (conservative approximation). This predicate cannot be overridden; override mayBeImpure() instead.	from Expr
isRValue	Holds if this variable access is an rvalue.	from VariableAccess
isRValueCategory	Holds if this expression is an rvalue. An rvalue is either a prvalue or an xvalue.	from Expr
isUnevaluated	Holds if this expression will not be evaluated because of its context, such as an expression inside a sizeof.	from Expr
isUsedAsLValue	Holds if this variable access is providing an LValue in a meaningful way. For example, this includes accesses on the left-hand side of an assignment. It does not include accesses on the right-hand side of an assignment, even if they could appear on the left-hand side of some assignment.	from VariableAccess
isXValueCategory	Holds if this expression is an xvalue. An xvalue is a location whose lifetime is about to end (e.g. an rvalue reference returned from a function call). See [basic.lval] for more about xvalues.	from Expr
mayBeGloballyImpure	Holds if it is possible that the expression may be impure. If we are not sure, then it holds. Unlike `mayBeImpure()`, this predicate does not consider modifications to temporary local variables to be impure. If you call a function in which nothing may be globally impure then the function as a whole will have no side-effects, even if it mutates its own fresh stack variables.	from VariableAccess
mayBeImpure	Holds if it is possible that the expression may be impure. If we are not sure, then it holds.	from VariableAccess
toString	Gets a textual representation of this variable access.	from VariableAccess

Charpred

DateStructFieldAccess