Scala Reflection Library2.13.17 < Back
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# Packages

-  package root
  Definition Classes
    root
-  package scala
  Definition Classes
    root
-  package reflect
  Definition Classes
    scala
-  package api

  EXPERIMENTAL

  EXPERIMENTAL

  The Scala Reflection API (located in scala-reflect.jar).

  In Scala 2.10.0, the Scala Reflection API and its implementation have an "experimental" status. This means that the API and the docs are not complete and can be changed in binary- and source-incompatible manner in 2.10.1. This also means that the implementation has some known issues.

  The following types are the backbone of the Scala Reflection API, and serve as a good starting point for information about Scala Reflection:

  - scala.reflect.api.Symbols
  - scala.reflect.api.Types
  - scala.reflect.api.Mirrors
  - scala.reflect.api.Universe

  For more information about Scala Reflection, see the Reflection Guide

  Definition Classes
    reflect
-  trait Trees extends AnyRef

  EXPERIMENTAL

  EXPERIMENTAL

  This trait defines the node types used in Scala abstract syntax trees (AST) and operations on them.

  Trees are the basis for Scala's abstract syntax that is used to represent programs. They are also called abstract syntax trees and commonly abbreviated as ASTs.

  In Scala reflection, APIs that produce or use `Tree`s are:

  - Annotations which use trees to represent their arguments, exposed in Annotation.scalaArgs.
  - reify, a special method on scala.reflect.api.Universe that takes an expression and returns an AST which represents the expression.
  - Macros and runtime compilation with toolboxes which both use trees as their program representation medium.

  Trees are immutable, except for three fields pos, symbol, and tpe, which are assigned when a tree is typechecked to attribute it with the information gathered by the typechecker.

  ##### Examples

  The following creates an AST representing a literal 5 in Scala source code:

      Literal(Constant(5))

  The following creates an AST representing `print("Hello World")`:

      Apply(Select(Select(This(TypeName("scala")), TermName("Predef")), TermName("print")), List(Literal(Constant("Hello World"))))

  The following creates an AST from a literal 5, and then uses `showRaw` to print it in a readable format.

      import scala.reflect.runtime.universe.{ reify, showRaw }
      print( showRaw( reify{5}.tree ) )` // prints Literal(Constant(5))

  For more information about `Tree`s, see the Reflection Guide: Symbols, Trees, Types.

  Definition Classes
    api
- Alternative
- AlternativeApi
- AlternativeExtractor
- Annotated
- AnnotatedApi
- AnnotatedExtractor
- AppliedTypeTree
- AppliedTypeTreeApi
- AppliedTypeTreeExtractor
- Apply
- ApplyApi
- ApplyExtractor
- Assign
- AssignApi
- AssignExtractor
- Bind
- BindApi
- BindExtractor
- Block
- BlockApi
- BlockExtractor
- CaseDef
- CaseDefApi
- CaseDefExtractor
- ClassDef
- ClassDefApi
- ClassDefExtractor
- CompoundTypeTree
- CompoundTypeTreeApi
- CompoundTypeTreeExtractor
- DefDef
- DefDefApi
- DefDefExtractor
- DefTree
- DefTreeApi
- ExistentialTypeTree
- ExistentialTypeTreeApi
- ExistentialTypeTreeExtractor
- Function
- FunctionApi
- FunctionExtractor
- GenericApply
- GenericApplyApi
- Ident
- IdentApi
- IdentExtractor
- If
- IfApi
- IfExtractor
- ImplDef
- ImplDefApi
- Import
- ImportApi
- ImportExtractor
- ImportSelector
- ImportSelectorApi
- ImportSelectorExtractor
- LabelDef
- LabelDefApi
- LabelDefExtractor
- Literal
- LiteralApi
- LiteralExtractor
- Match
- MatchApi
- MatchExtractor
- MemberDef
- MemberDefApi
- Modifiers
- ModifiersApi
- ModifiersExtractor
- ModuleDef
- ModuleDefApi
- ModuleDefExtractor
- NameTree
- NameTreeApi
- NamedArg
- NamedArgApi
- NamedArgExtractor
- New
- NewApi
- NewExtractor
- PackageDef
- PackageDefApi
- PackageDefExtractor
- RefTree
- RefTreeApi
- RefTreeExtractor
- Return
- ReturnApi
- ReturnExtractor
- Select
- SelectApi
- SelectExtractor
- SelectFromTypeTree
- SelectFromTypeTreeApi
- SelectFromTypeTreeExtractor
- SingletonTypeTree
- SingletonTypeTreeApi
- SingletonTypeTreeExtractor
- Star
- StarApi
- StarExtractor
- Super
- SuperApi
- SuperExtractor
- SymTree
- SymTreeApi
- Template
- TemplateApi
- TemplateExtractor
- TermTree
- TermTreeApi
- This
- ThisApi
- ThisExtractor
- Throw
- ThrowApi
- ThrowExtractor
- Transformer
- Traverser
- Tree
- TreeApi
- TreeCopier
- TreeCopierOps
- Try
- TryApi
- TryExtractor
- TypTree
- TypTreeApi
- TypeApply
- TypeApplyApi
- TypeApplyExtractor
- TypeBoundsTree
- TypeBoundsTreeApi
- TypeBoundsTreeExtractor
- TypeDef
- TypeDefApi
- TypeDefExtractor
- TypeTree
- TypeTreeApi
- TypeTreeExtractor
- Typed
- TypedApi
- TypedExtractor
- UnApply
- UnApplyApi
- UnApplyExtractor
- ValDef
- ValDefApi
- ValDefExtractor
- ValOrDefDef
- ValOrDefDefApi

c

scala.reflect.api.Trees

# TreeCopierOps

###

#### abstract class TreeCopierOps extends AnyRef

The API of a tree copier.

Source
  Trees.scala

Linear Supertypes
AnyRef, Any
Known Subclasses
TreeCopier, TreeCopier
Type Hierarchy

Ordering

1. Alphabetic
2. By Inheritance

Inherited

1. TreeCopierOps
2. AnyRef
3. Any

Implicitly

1. by any2stringadd
2. by StringFormat
3. by Ensuring
4. by ArrowAssoc

1. Hide All
2. Show All

Visibility

1. Public
2. Protected

### Instance Constructors

1.  new TreeCopierOps()

### Abstract Value Members

1.  abstract def Alternative(tree: Universe.Tree, trees: List[Universe.Tree]): Universe.Alternative

   Creates a `Alternative` node from the given components, having a given `tree` as a prototype.

   Creates a `Alternative` node from the given components, having a given `tree` as a prototype. Having a tree as a prototype means that the tree's attachments, type and symbol will be copied into the result.

2.  abstract def Annotated(tree: Universe.Tree, annot: Universe.Tree, arg: Universe.Tree): Universe.Annotated

   Creates a `Annotated` node from the given components, having a given `tree` as a prototype.

   Creates a `Annotated` node from the given components, having a given `tree` as a prototype. Having a tree as a prototype means that the tree's attachments, type and symbol will be copied into the result.

3.  abstract def AppliedTypeTree(tree: Universe.Tree, tpt: Universe.Tree, args: List[Universe.Tree]): Universe.AppliedTypeTree

   Creates a `AppliedTypeTree` node from the given components, having a given `tree` as a prototype.

   Creates a `AppliedTypeTree` node from the given components, having a given `tree` as a prototype. Having a tree as a prototype means that the tree's attachments, type and symbol will be copied into the result.

4.  abstract def Apply(tree: Universe.Tree, fun: Universe.Tree, args: List[Universe.Tree]): Universe.Apply

   Creates a `Apply` node from the given components, having a given `tree` as a prototype.

   Creates a `Apply` node from the given components, having a given `tree` as a prototype. Having a tree as a prototype means that the tree's attachments, type and symbol will be copied into the result.

5.  abstract def Assign(tree: Universe.Tree, lhs: Universe.Tree, rhs: Universe.Tree): Universe.Assign

   Creates a `Assign` node from the given components, having a given `tree` as a prototype.

   Creates a `Assign` node from the given components, having a given `tree` as a prototype. Having a tree as a prototype means that the tree's attachments, type and symbol will be copied into the result.

6.  abstract def Bind(tree: Universe.Tree, name: Universe.Name, body: Universe.Tree): Universe.Bind

   Creates a `Bind` node from the given components, having a given `tree` as a prototype.

   Creates a `Bind` node from the given components, having a given `tree` as a prototype. Having a tree as a prototype means that the tree's attachments, type and symbol will be copied into the result.

7.  abstract def Block(tree: Universe.Tree, stats: List[Universe.Tree], expr: Universe.Tree): Universe.Block

   Creates a `Block` node from the given components, having a given `tree` as a prototype.

   Creates a `Block` node from the given components, having a given `tree` as a prototype. Having a tree as a prototype means that the tree's attachments, type and symbol will be copied into the result.

8.  abstract def CaseDef(tree: Universe.Tree, pat: Universe.Tree, guard: Universe.Tree, body: Universe.Tree): Universe.CaseDef

   Creates a `CaseDef` node from the given components, having a given `tree` as a prototype.

   Creates a `CaseDef` node from the given components, having a given `tree` as a prototype. Having a tree as a prototype means that the tree's attachments, type and symbol will be copied into the result.

9.  abstract def ClassDef(tree: Universe.Tree, mods: Universe.Modifiers, name: Universe.Name, tparams: List[Universe.TypeDef], impl: Universe.Template): Universe.ClassDef

   Creates a `ClassDef` node from the given components, having a given `tree` as a prototype.

   Creates a `ClassDef` node from the given components, having a given `tree` as a prototype. Having a tree as a prototype means that the tree's attachments, type and symbol will be copied into the result.

10.  abstract def CompoundTypeTree(tree: Universe.Tree, templ: Universe.Template): Universe.CompoundTypeTree

    Creates a `CompoundTypeTree` node from the given components, having a given `tree` as a prototype.

    Creates a `CompoundTypeTree` node from the given components, having a given `tree` as a prototype. Having a tree as a prototype means that the tree's attachments, type and symbol will be copied into the result.

11.  abstract def DefDef(tree: Universe.Tree, mods: Universe.Modifiers, name: Universe.Name, tparams: List[Universe.TypeDef], vparamss: List[List[Universe.ValDef]], tpt: Universe.Tree, rhs: Universe.Tree): Universe.DefDef

    Creates a `DefDef` node from the given components, having a given `tree` as a prototype.

    Creates a `DefDef` node from the given components, having a given `tree` as a prototype. Having a tree as a prototype means that the tree's attachments, type and symbol will be copied into the result.

12.  abstract def ExistentialTypeTree(tree: Universe.Tree, tpt: Universe.Tree, whereClauses: List[Universe.MemberDef]): Universe.ExistentialTypeTree

    Creates a `ExistentialTypeTree` node from the given components, having a given `tree` as a prototype.

    Creates a `ExistentialTypeTree` node from the given components, having a given `tree` as a prototype. Having a tree as a prototype means that the tree's attachments, type and symbol will be copied into the result.

13.  abstract def Function(tree: Universe.Tree, vparams: List[Universe.ValDef], body: Universe.Tree): Universe.Function

    Creates a `Function` node from the given components, having a given `tree` as a prototype.

    Creates a `Function` node from the given components, having a given `tree` as a prototype. Having a tree as a prototype means that the tree's attachments, type and symbol will be copied into the result.

14.  abstract def Ident(tree: Universe.Tree, name: Universe.Name): Universe.Ident

    Creates a `Ident` node from the given components, having a given `tree` as a prototype.

    Creates a `Ident` node from the given components, having a given `tree` as a prototype. Having a tree as a prototype means that the tree's attachments, type and symbol will be copied into the result.

15.  abstract def If(tree: Universe.Tree, cond: Universe.Tree, thenp: Universe.Tree, elsep: Universe.Tree): Universe.If

    Creates a `If` node from the given components, having a given `tree` as a prototype.

    Creates a `If` node from the given components, having a given `tree` as a prototype. Having a tree as a prototype means that the tree's attachments, type and symbol will be copied into the result.

16.  abstract def Import(tree: Universe.Tree, expr: Universe.Tree, selectors: List[Universe.ImportSelector]): Universe.Import

    Creates a `Import` node from the given components, having a given `tree` as a prototype.

    Creates a `Import` node from the given components, having a given `tree` as a prototype. Having a tree as a prototype means that the tree's attachments, type and symbol will be copied into the result.

17.  abstract def LabelDef(tree: Universe.Tree, name: Universe.Name, params: List[Universe.Ident], rhs: Universe.Tree): Universe.LabelDef

    Creates a `LabelDef` node from the given components, having a given `tree` as a prototype.

    Creates a `LabelDef` node from the given components, having a given `tree` as a prototype. Having a tree as a prototype means that the tree's attachments, type and symbol will be copied into the result.

18.  abstract def Literal(tree: Universe.Tree, value: Universe.Constant): Universe.Literal

    Creates a `Literal` node from the given components, having a given `tree` as a prototype.

    Creates a `Literal` node from the given components, having a given `tree` as a prototype. Having a tree as a prototype means that the tree's attachments, type and symbol will be copied into the result.

19.  abstract def Match(tree: Universe.Tree, selector: Universe.Tree, cases: List[Universe.CaseDef]): Universe.Match

    Creates a `Match` node from the given components, having a given `tree` as a prototype.

    Creates a `Match` node from the given components, having a given `tree` as a prototype. Having a tree as a prototype means that the tree's attachments, type and symbol will be copied into the result.

20.  abstract def ModuleDef(tree: Universe.Tree, mods: Universe.Modifiers, name: Universe.Name, impl: Universe.Template): Universe.ModuleDef

    Creates a `ModuleDef` node from the given components, having a given `tree` as a prototype.

    Creates a `ModuleDef` node from the given components, having a given `tree` as a prototype. Having a tree as a prototype means that the tree's attachments, type and symbol will be copied into the result.

21.  abstract def NamedArg(tree: Universe.Tree, lhs: Universe.Tree, rhs: Universe.Tree): Universe.NamedArg

    Creates a `NamedArg` node from the given components, having a given `tree` as a prototype.

    Creates a `NamedArg` node from the given components, having a given `tree` as a prototype. Having a tree as a prototype means that the tree's attachments, type and symbol will be copied into the result.

22.  abstract def New(tree: Universe.Tree, tpt: Universe.Tree): Universe.New

    Creates a `New` node from the given components, having a given `tree` as a prototype.

    Creates a `New` node from the given components, having a given `tree` as a prototype. Having a tree as a prototype means that the tree's attachments, type and symbol will be copied into the result.

23.  abstract def PackageDef(tree: Universe.Tree, pid: Universe.RefTree, stats: List[Universe.Tree]): Universe.PackageDef

    Creates a `PackageDef` node from the given components, having a given `tree` as a prototype.

    Creates a `PackageDef` node from the given components, having a given `tree` as a prototype. Having a tree as a prototype means that the tree's attachments, type and symbol will be copied into the result.

24.  abstract def RefTree(tree: Universe.Tree, qualifier: Universe.Tree, selector: Universe.Name): Universe.RefTree

    Creates a `RefTree` node from the given components, having a given `tree` as a prototype.

    Creates a `RefTree` node from the given components, having a given `tree` as a prototype. Having a tree as a prototype means that the tree's attachments, type and symbol will be copied into the result.

25.  abstract def ReferenceToBoxed(tree: Universe.Tree, idt: Universe.Ident): Universe.ReferenceToBoxed

    Creates a `ReferenceToBoxed` node from the given components, having a given `tree` as a prototype.

    Creates a `ReferenceToBoxed` node from the given components, having a given `tree` as a prototype. Having a tree as a prototype means that the tree's attachments, type and symbol will be copied into the result.

26.  abstract def Return(tree: Universe.Tree, expr: Universe.Tree): Universe.Return

    Creates a `Return` node from the given components, having a given `tree` as a prototype.

    Creates a `Return` node from the given components, having a given `tree` as a prototype. Having a tree as a prototype means that the tree's attachments, type and symbol will be copied into the result.

27.  abstract def Select(tree: Universe.Tree, qualifier: Universe.Tree, selector: Universe.Name): Universe.Select

    Creates a `Select` node from the given components, having a given `tree` as a prototype.

    Creates a `Select` node from the given components, having a given `tree` as a prototype. Having a tree as a prototype means that the tree's attachments, type and symbol will be copied into the result.

28.  abstract def SelectFromTypeTree(tree: Universe.Tree, qualifier: Universe.Tree, selector: Universe.Name): Universe.SelectFromTypeTree

    Creates a `SelectFromTypeTree` node from the given components, having a given `tree` as a prototype.

    Creates a `SelectFromTypeTree` node from the given components, having a given `tree` as a prototype. Having a tree as a prototype means that the tree's attachments, type and symbol will be copied into the result.

29.  abstract def SingletonTypeTree(tree: Universe.Tree, ref: Universe.Tree): Universe.SingletonTypeTree

    Creates a `SingletonTypeTree` node from the given components, having a given `tree` as a prototype.

    Creates a `SingletonTypeTree` node from the given components, having a given `tree` as a prototype. Having a tree as a prototype means that the tree's attachments, type and symbol will be copied into the result.

30.  abstract def Star(tree: Universe.Tree, elem: Universe.Tree): Universe.Star

    Creates a `Star` node from the given components, having a given `tree` as a prototype.

    Creates a `Star` node from the given components, having a given `tree` as a prototype. Having a tree as a prototype means that the tree's attachments, type and symbol will be copied into the result.

31.  abstract def Super(tree: Universe.Tree, qual: Universe.Tree, mix: Universe.TypeName): Universe.Super

    Creates a `Super` node from the given components, having a given `tree` as a prototype.

    Creates a `Super` node from the given components, having a given `tree` as a prototype. Having a tree as a prototype means that the tree's attachments, type and symbol will be copied into the result.

32.  abstract def Template(tree: Universe.Tree, parents: List[Universe.Tree], self: Universe.ValDef, body: List[Universe.Tree]): Universe.Template

    Creates a `Template` node from the given components, having a given `tree` as a prototype.

    Creates a `Template` node from the given components, having a given `tree` as a prototype. Having a tree as a prototype means that the tree's attachments, type and symbol will be copied into the result.

33.  abstract def This(tree: Universe.Tree, qual: Universe.Name): Universe.This

    Creates a `This` node from the given components, having a given `tree` as a prototype.

    Creates a `This` node from the given components, having a given `tree` as a prototype. Having a tree as a prototype means that the tree's attachments, type and symbol will be copied into the result.

34.  abstract def Throw(tree: Universe.Tree, expr: Universe.Tree): Universe.Throw

    Creates a `Throw` node from the given components, having a given `tree` as a prototype.

    Creates a `Throw` node from the given components, having a given `tree` as a prototype. Having a tree as a prototype means that the tree's attachments, type and symbol will be copied into the result.

35.  abstract def Try(tree: Universe.Tree, block: Universe.Tree, catches: List[Universe.CaseDef], finalizer: Universe.Tree): Universe.Try

    Creates a `Try` node from the given components, having a given `tree` as a prototype.

    Creates a `Try` node from the given components, having a given `tree` as a prototype. Having a tree as a prototype means that the tree's attachments, type and symbol will be copied into the result.

36.  abstract def TypeApply(tree: Universe.Tree, fun: Universe.Tree, args: List[Universe.Tree]): Universe.TypeApply

    Creates a `TypeApply` node from the given components, having a given `tree` as a prototype.

    Creates a `TypeApply` node from the given components, having a given `tree` as a prototype. Having a tree as a prototype means that the tree's attachments, type and symbol will be copied into the result.

37.  abstract def TypeBoundsTree(tree: Universe.Tree, lo: Universe.Tree, hi: Universe.Tree): Universe.TypeBoundsTree

    Creates a `TypeBoundsTree` node from the given components, having a given `tree` as a prototype.

    Creates a `TypeBoundsTree` node from the given components, having a given `tree` as a prototype. Having a tree as a prototype means that the tree's attachments, type and symbol will be copied into the result.

38.  abstract def TypeDef(tree: Universe.Tree, mods: Universe.Modifiers, name: Universe.Name, tparams: List[Universe.TypeDef], rhs: Universe.Tree): Universe.TypeDef

    Creates a `TypeDef` node from the given components, having a given `tree` as a prototype.

    Creates a `TypeDef` node from the given components, having a given `tree` as a prototype. Having a tree as a prototype means that the tree's attachments, type and symbol will be copied into the result.

39.  abstract def TypeTree(tree: Universe.Tree): Universe.TypeTree

    Creates a `TypeTree` node from the given components, having a given `tree` as a prototype.

    Creates a `TypeTree` node from the given components, having a given `tree` as a prototype. Having a tree as a prototype means that the tree's attachments, type and symbol will be copied into the result.

40.  abstract def Typed(tree: Universe.Tree, expr: Universe.Tree, tpt: Universe.Tree): Universe.Typed

    Creates a `Typed` node from the given components, having a given `tree` as a prototype.

    Creates a `Typed` node from the given components, having a given `tree` as a prototype. Having a tree as a prototype means that the tree's attachments, type and symbol will be copied into the result.

41.  abstract def UnApply(tree: Universe.Tree, fun: Universe.Tree, args: List[Universe.Tree]): Universe.UnApply

    Creates a `UnApply` node from the given components, having a given `tree` as a prototype.

    Creates a `UnApply` node from the given components, having a given `tree` as a prototype. Having a tree as a prototype means that the tree's attachments, type and symbol will be copied into the result.

42.  abstract def ValDef(tree: Universe.Tree, mods: Universe.Modifiers, name: Universe.Name, tpt: Universe.Tree, rhs: Universe.Tree): Universe.ValDef

    Creates a `ValDef` node from the given components, having a given `tree` as a prototype.

    Creates a `ValDef` node from the given components, having a given `tree` as a prototype. Having a tree as a prototype means that the tree's attachments, type and symbol will be copied into the result.

### Concrete Value Members

1.  final def !=(arg0: Any): Boolean
   Definition Classes
     AnyRef → Any
2.  final def ##: Int
   Definition Classes
     AnyRef → Any
3.  def +(other: String): String
   Implicit
     This member is added by an implicit conversion from Universe.TreeCopierOps toany2stringadd[Universe.TreeCopierOps] performed by method any2stringadd in scala.Predef.
   Definition Classes
     any2stringadd
4.  def ->[B](y: B): (Universe.TreeCopierOps, B)
   Implicit
     This member is added by an implicit conversion from Universe.TreeCopierOps toArrowAssoc[Universe.TreeCopierOps] performed by method ArrowAssoc in scala.Predef.
   Definition Classes
     ArrowAssoc
   Annotations
     @inline()
5.  final def ==(arg0: Any): Boolean
   Definition Classes
     AnyRef → Any
6.  final def asInstanceOf[T0]: T0
   Definition Classes
     Any
7.  def clone(): AnyRef
   Attributes
     protected[lang]
   Definition Classes
     AnyRef
   Annotations
     @throws(classOf[java.lang.CloneNotSupportedException]) @native()
8.  def ensuring(cond: (Universe.TreeCopierOps) => Boolean, msg: => Any): Universe.TreeCopierOps
   Implicit
     This member is added by an implicit conversion from Universe.TreeCopierOps toEnsuring[Universe.TreeCopierOps] performed by method Ensuring in scala.Predef.
   Definition Classes
     Ensuring
9.  def ensuring(cond: (Universe.TreeCopierOps) => Boolean): Universe.TreeCopierOps
   Implicit
     This member is added by an implicit conversion from Universe.TreeCopierOps toEnsuring[Universe.TreeCopierOps] performed by method Ensuring in scala.Predef.
   Definition Classes
     Ensuring
10.  def ensuring(cond: Boolean, msg: => Any): Universe.TreeCopierOps
    Implicit
      This member is added by an implicit conversion from Universe.TreeCopierOps toEnsuring[Universe.TreeCopierOps] performed by method Ensuring in scala.Predef.
    Definition Classes
      Ensuring
11.  def ensuring(cond: Boolean): Universe.TreeCopierOps
    Implicit
      This member is added by an implicit conversion from Universe.TreeCopierOps toEnsuring[Universe.TreeCopierOps] performed by method Ensuring in scala.Predef.
    Definition Classes
      Ensuring
12.  final def eq(arg0: AnyRef): Boolean
    Definition Classes
      AnyRef
13.  def equals(arg0: AnyRef): Boolean
    Definition Classes
      AnyRef → Any
14.  def finalize(): Unit
    Attributes
      protected[lang]
    Definition Classes
      AnyRef
    Annotations
      @throws(classOf[java.lang.Throwable])
15.  final def getClass(): Class[_ <: AnyRef]
    Definition Classes
      AnyRef → Any
    Annotations
      @native()
16.  def hashCode(): Int
    Definition Classes
      AnyRef → Any
    Annotations
      @native()
17.  final def isInstanceOf[T0]: Boolean
    Definition Classes
      Any
18.  final def ne(arg0: AnyRef): Boolean
    Definition Classes
      AnyRef
19.  final def notify(): Unit
    Definition Classes
      AnyRef
    Annotations
      @native()
20.  final def notifyAll(): Unit
    Definition Classes
      AnyRef
    Annotations
      @native()
21.  final def synchronized[T0](arg0: => T0): T0
    Definition Classes
      AnyRef
22.  def toString(): String
    Definition Classes
      AnyRef → Any
23.  final def wait(): Unit
    Definition Classes
      AnyRef
    Annotations
      @throws(classOf[java.lang.InterruptedException])
24.  final def wait(arg0: Long, arg1: Int): Unit
    Definition Classes
      AnyRef
    Annotations
      @throws(classOf[java.lang.InterruptedException])
25.  final def wait(arg0: Long): Unit
    Definition Classes
      AnyRef
    Annotations
      @throws(classOf[java.lang.InterruptedException]) @native()

### Deprecated Value Members

1.  def formatted(fmtstr: String): String
   Implicit
     This member is added by an implicit conversion from Universe.TreeCopierOps toStringFormat[Universe.TreeCopierOps] performed by method StringFormat in scala.Predef.
   Definition Classes
     StringFormat
   Annotations
     @deprecated @inline()
   Deprecated

     (Since version 2.12.16) Use `formatString.format(value)` instead of `value.formatted(formatString)`, or use the `f""` string interpolator. In Java 15 and later, `formatted` resolves to the new method in String which has reversed parameters.

2.  def →[B](y: B): (Universe.TreeCopierOps, B)
   Implicit
     This member is added by an implicit conversion from Universe.TreeCopierOps toArrowAssoc[Universe.TreeCopierOps] performed by method ArrowAssoc in scala.Predef.
   Definition Classes
     ArrowAssoc
   Annotations
     @deprecated
   Deprecated

     (Since version 2.13.0) Use `->` instead. If you still wish to display it as one character, consider using a font with programming ligatures such as Fira Code.

### Inherited from AnyRef

### Inherited from Any

### Inherited by implicit conversion any2stringadd fromUniverse.TreeCopierOps to any2stringadd[Universe.TreeCopierOps]

### Inherited by implicit conversion StringFormat fromUniverse.TreeCopierOps to StringFormat[Universe.TreeCopierOps]

### Inherited by implicit conversion Ensuring fromUniverse.TreeCopierOps to Ensuring[Universe.TreeCopierOps]

### Inherited by implicit conversion ArrowAssoc fromUniverse.TreeCopierOps to ArrowAssoc[Universe.TreeCopierOps]

### Ungrouped