Class PyxlTag

A Tag in Pyxl (which gets converted to a call in Python).

Import path

import semmle.python.templates.PyxlTags

Direct supertypes

Call

Indirect supertypes

Known direct subtypes

Predicates

getEnclosedNode	Gets the pyxl or Python node that is enclosed by this one in the pyxl source
getEnclosedPythonCode	Gets the Python code (if any) that is contained in this pyxl node
getPyxlTagName

Inherited predicates

contains	Whether this contains `inner` syntactically	from AstNode
containsInScope	Whether this contains `inner` syntactically and `inner` has the same scope as `this`	from AstNode
defines	Whether this expression defines variable `v` If doing dataflow, then consider using SsaVariable.getDefinition() for more precision.	from Expr
getAChildNode	Gets a child node of this node in the AST. This predicate exists to aid exploration of the AST and other experiments. The child-parent relation may not be meaningful. For a more meaningful relation in terms of dependency use Expr.getASubExpression(), Stmt.getASubStatement(), Stmt.getASubExpression() or Scope.getAStmt().	from Call
getAFlowNode	Gets a flow node corresponding directly to this node. NOTE: For some statements and other purely syntactic elements, there may not be a `ControlFlowNode`	from Call
getAKeyword	Gets a keyword argument of this call expression, provided it is not preceded by a double-starred argument. This exists primarily for backwards compatibility. You are recommended to use Call.getANamedArg() instead.	from Call
getANamedArg	Gets a named argument of this call expression.	from Call_
getANamedArgumentName	Gets the name of a named argument, including those passed in dict literals.	from Call
getAPositionalArg	Gets a positional argument of this call expression.	from Call_
getASubExpression	Gets an immediate (non-nested) sub-expression of this expression	from Call
getAnArg	Gets a positional argument, provided it is not preceded by a starred argument. This exists primarily for backwards compatibility. You are recommended to use Call.getAPositionalArg() instead.	from Call
getArg	Gets the positional argument at `index`, provided it is not preceded by a starred argument. This exists primarily for backwards compatibility. You are recommended to use Call.getPositionalArg(index) instead.	from Call
getEnclosingModule	Gets the module in which this expression occurs	from Expr
getFunc	Gets the callable of this call expression.	from Call_
getKeyword	Gets the nth keyword argument of this call expression, provided it is not preceded by a double-starred argument. This exists primarily for backwards compatibility. You are recommended to use Call.getNamedArg(index) instead.	from Call
getKwargs	Gets a dictionary (**) argument of this call.	from Call
getLocation		from Expr
getNamedArg	Gets the nth named argument of this call expression.	from Call_
getNamedArgs	Gets the named arguments of this call expression.	from Call_
getParent	Gets a parent of this expression	from Expr_
getParentNode	Gets the parent node of this node in the AST. This predicate exists to aid exploration of the AST and other experiments. The child-parent relation may not be meaningful. For a more meaningful relation in terms of dependency use Expr.getASubExpression(), Stmt.getASubStatement(), Stmt.getASubExpression() or Scope.getAStmt() applied to the parent.	from AstNode
getPositionalArg	Gets the nth positional argument of this call expression.	from Call_
getPositionalArgs	Gets the positional arguments of this call expression.	from Call_
getPositionalArgumentCount	Gets the positional argument count of this call, provided there is no more than one tuple (*) argument.	from Call
getScope	Gets the scope of this expression	from Expr
getStarArg	Gets the first tuple (*) argument of this call, if any.	from Call
getStarargs	Gets a tuple (*) argument of this call.	from Call
hasSideEffects	Whether this expression may have a side effect (as determined purely from its syntax)	from Call
isArtificial	Whether this syntactic element is artificial, that is it is generated by the compiler and is not present in the source	from AstNode
isConstant	Whether this expression is a constant	from Expr
isParenthesised	Whether the parenthesised property of this expression is true.	from Expr_
isParenthesized	Whether the parenthesized property of this expression is true.	from Expr
pointsTo	Gets a value that this expression might “point-to”.	from Expr
pointsTo	Holds if this expression might “point-to” to `value`.	from Expr
pointsTo	Holds if this expression might “point-to” to `value` which is from `origin`.	from Expr
pointsTo	Holds if this expression might “point-to” to `value` which is from `origin` in the given `context`.	from Expr
refersTo	NOTE: `refersTo` will be deprecated in 2019. Use `pointsTo` instead. Equivalent to `this.refersTo(value, _)`	from Expr
refersTo	NOTE: `refersTo` will be deprecated in 2019. Use `pointsTo` instead. Holds if this expression might “refer-to” to `value` which is from `origin` Unlike `this.refersTo(value, _, origin)`, this predicate includes results where the class cannot be inferred.	from Expr
refersTo	NOTE: `refersTo` will be deprecated in 2019. Use `pointsTo` instead. Gets what this expression might “refer-to”. Performs a combination of localized (intra-procedural) points-to analysis and global module-level analysis. This points-to analysis favours precision over recall. It is highly precise, but may not provide information for a significant number of flow-nodes. If the class is unimportant then use `refersTo(value)` or `refersTo(value, origin)` instead. NOTE: For complex dataflow, involving multiple stages of points-to analysis, it may be more precise to use `ControlFlowNode.refersTo(...)` instead.	from Expr
refersTo	NOTE: `refersTo` will be deprecated in 2019. Use `pointsTo` instead. Gets what this expression might “refer-to” in the given `context`.	from Expr
toString	Gets a textual representation of this element.	from Call

Charpred

PyxlTag