Updated Vendoring

It resolves issues #474 and #589 which were coming from libcompose,
as well as resolves #440 and #437 partially as `group_add` & `stop_grace_period`
are supported by libcompose now.

vendor/github.com/pelletier/go-toml/doc.go

@@ -13,14 +13,14 @@
 //   // load TOML data stored in a string
 //   tree, err := toml.Load(stringContainingTomlData)
 //
-// Either way, the result is a TomlTree object that can be used to navigate the
+// Either way, the result is a Tree object that can be used to navigate the
 // structure and data within the original document.
 //
 //
-// Getting data from the TomlTree
+// Getting data from the Tree
 //
 // After parsing TOML data with Load() or LoadFile(), use the Has() and Get()
-// methods on the returned TomlTree, to find your way through the document data.
+// methods on the returned Tree, to find your way through the document data.
 //
 //   if tree.Has("foo") {
 //     fmt.Println("foo is:", tree.Get("foo"))
@@ -50,11 +50,11 @@
 //   tree.GetPath([]string{"foo","bar","baz"})
 //
 // Note that this is distinct from the heavyweight query syntax supported by
-// TomlTree.Query() and the Query() struct (see below).
+// Tree.Query() and the Query() struct (see below).
 //
 // Position Support
 //
-// Each element within the TomlTree is stored with position metadata, which is
+// Each element within the Tree is stored with position metadata, which is
 // invaluable for providing semantic feedback to a user.  This helps in
 // situations where the TOML file parses correctly, but contains data that is
 // not correct for the application.  In such cases, an error message can be
@@ -75,176 +75,10 @@
 //      return fmt.Errorf("%v: Expected 'bar' element", tree.GetPosition(""))
 //   }
 //
-// Query Support
+// JSONPath-like queries
 //
-// The TOML query path implementation is based loosely on the JSONPath specification:
-// http://goessner.net/articles/JsonPath/
-//
-// The idea behind a query path is to allow quick access to any element, or set
-// of elements within TOML document, with a single expression.
-//
-//   result, err := tree.Query("$.foo.bar.baz")
-//
-// This is roughly equivalent to:
-//
-//   next := tree.Get("foo")
-//   if next != nil {
-//     next = next.Get("bar")
-//     if next != nil {
-//       next = next.Get("baz")
-//     }
-//   }
-//   result := next
-//
-// err is nil if any parsing exception occurs.
-//
-// If no node in the tree matches the query, result will simply contain an empty list of
-// items.
-//
-// As illustrated above, the query path is much more efficient, especially since
-// the structure of the TOML file can vary.  Rather than making assumptions about
-// a document's structure, a query allows the programmer to make structured
-// requests into the document, and get zero or more values as a result.
-//
-// The syntax of a query begins with a root token, followed by any number
-// sub-expressions:
-//
-//   $
-//                    Root of the TOML tree.  This must always come first.
-//   .name
-//                    Selects child of this node, where 'name' is a TOML key
-//                    name.
-//   ['name']
-//                    Selects child of this node, where 'name' is a string
-//                    containing a TOML key name.
-//   [index]
-//                    Selcts child array element at 'index'.
-//   ..expr
-//                    Recursively selects all children, filtered by an a union,
-//                    index, or slice expression.
-//   ..*
-//                    Recursive selection of all nodes at this point in the
-//                    tree.
-//   .*
-//                    Selects all children of the current node.
-//   [expr,expr]
-//                    Union operator - a logical 'or' grouping of two or more
-//                    sub-expressions: index, key name, or filter.
-//   [start:end:step]
-//                    Slice operator - selects array elements from start to
-//                    end-1, at the given step.  All three arguments are
-//                    optional.
-//   [?(filter)]
-//                    Named filter expression - the function 'filter' is
-//                    used to filter children at this node.
-//
-// Query Indexes And Slices
-//
-// Index expressions perform no bounds checking, and will contribute no
-// values to the result set if the provided index or index range is invalid.
-// Negative indexes represent values from the end of the array, counting backwards.
-//
-//   // select the last index of the array named 'foo'
-//   tree.Query("$.foo[-1]")
-//
-// Slice expressions are supported, by using ':' to separate a start/end index pair.
-//
-//   // select up to the first five elements in the array
-//   tree.Query("$.foo[0:5]")
-//
-// Slice expressions also allow negative indexes for the start and stop
-// arguments.
-//
-//   // select all array elements.
-//   tree.Query("$.foo[0:-1]")
-//
-// Slice expressions may have an optional stride/step parameter:
-//
-//   // select every other element
-//   tree.Query("$.foo[0:-1:2]")
-//
-// Slice start and end parameters are also optional:
-//
-//   // these are all equivalent and select all the values in the array
-//   tree.Query("$.foo[:]")
-//   tree.Query("$.foo[0:]")
-//   tree.Query("$.foo[:-1]")
-//   tree.Query("$.foo[0:-1:]")
-//   tree.Query("$.foo[::1]")
-//   tree.Query("$.foo[0::1]")
-//   tree.Query("$.foo[:-1:1]")
-//   tree.Query("$.foo[0:-1:1]")
-//
-// Query Filters
-//
-// Query filters are used within a Union [,] or single Filter [] expression.
-// A filter only allows nodes that qualify through to the next expression,
-// and/or into the result set.
-//
-//   // returns children of foo that are permitted by the 'bar' filter.
-//   tree.Query("$.foo[?(bar)]")
-//
-// There are several filters provided with the library:
-//
-//   tree
-//          Allows nodes of type TomlTree.
-//   int
-//          Allows nodes of type int64.
-//   float
-//          Allows nodes of type float64.
-//   string
-//          Allows nodes of type string.
-//   time
-//          Allows nodes of type time.Time.
-//   bool
-//          Allows nodes of type bool.
-//
-// Query Results
-//
-// An executed query returns a QueryResult object.  This contains the nodes
-// in the TOML tree that qualify the query expression.  Position information
-// is also available for each value in the set.
-//
-//   // display the results of a query
-//   results := tree.Query("$.foo.bar.baz")
-//   for idx, value := results.Values() {
-//       fmt.Println("%v: %v", results.Positions()[idx], value)
-//   }
-//
-// Compiled Queries
-//
-// Queries may be executed directly on a TomlTree object, or compiled ahead
-// of time and executed discretely.  The former is more convienent, but has the
-// penalty of having to recompile the query expression each time.
-//
-//   // basic query
-//   results := tree.Query("$.foo.bar.baz")
-//
-//   // compiled query
-//   query := toml.CompileQuery("$.foo.bar.baz")
-//   results := query.Execute(tree)
-//
-//   // run the compiled query again on a different tree
-//   moreResults := query.Execute(anotherTree)
-//
-// User Defined Query Filters
-//
-// Filter expressions may also be user defined by using the SetFilter()
-// function on the Query object.  The function must return true/false, which
-// signifies if the passed node is kept or discarded, respectively.
-//
-//   // create a query that references a user-defined filter
-//   query, _ := CompileQuery("$[?(bazOnly)]")
-//
-//   // define the filter, and assign it to the query
-//   query.SetFilter("bazOnly", func(node interface{}) bool{
-//       if tree, ok := node.(*TomlTree); ok {
-//           return tree.Has("baz")
-//       }
-//       return false  // reject all other node types
-//   })
-//
-//   // run the query
-//   query.Execute(tree)
+// The package github.com/pelletier/go-toml/query implements a system
+// similar to JSONPath to quickly retrive elements of a TOML document using a
+// single expression. See the package documentation for more information.
 //
 package toml

vendor/github.com/pelletier/go-toml/marshal.go

@@ -1,6 +1,7 @@
 package toml
 
 import (
+	"bytes"
 	"errors"
 	"fmt"
 	"reflect"
@@ -9,14 +10,14 @@ import (
 )
 
 /*
-TomlTree structural types and corresponding marshal types
+Tree structural types and corresponding marshal types
 -------------------------------------------------------------------------------
-*TomlTree                        (*)struct, (*)map[string]interface{}
-[]*TomlTree                      (*)[](*)struct, (*)[](*)map[string]interface{}
+*Tree                        (*)struct, (*)map[string]interface{}
+[]*Tree                      (*)[](*)struct, (*)[](*)map[string]interface{}
 []interface{} (as interface{})   (*)[]primitive, (*)[]([]interface{})
 interface{}                      (*)primitive
 
-TomlTree primitive types and  corresponding marshal types
+Tree primitive types and  corresponding marshal types
 -----------------------------------------------------------
 uint64     uint, uint8-uint64, pointers to same
 int64      int, int8-uint64, pointers to same
@@ -35,7 +36,7 @@ type tomlOpts struct {
 var timeType = reflect.TypeOf(time.Time{})
 var marshalerType = reflect.TypeOf(new(Marshaler)).Elem()
 
-// Check if the given marshall type maps to a TomlTree primitive
+// Check if the given marshall type maps to a Tree primitive
 func isPrimitive(mtype reflect.Type) bool {
 	switch mtype.Kind() {
 	case reflect.Ptr:
@@ -57,7 +58,7 @@ func isPrimitive(mtype reflect.Type) bool {
 	}
 }
 
-// Check if the given marshall type maps to a TomlTree slice
+// Check if the given marshall type maps to a Tree slice
 func isTreeSlice(mtype reflect.Type) bool {
 	switch mtype.Kind() {
 	case reflect.Slice:
@@ -67,7 +68,7 @@ func isTreeSlice(mtype reflect.Type) bool {
 	}
 }
 
-// Check if the given marshall type maps to a non-TomlTree slice
+// Check if the given marshall type maps to a non-Tree slice
 func isOtherSlice(mtype reflect.Type) bool {
 	switch mtype.Kind() {
 	case reflect.Ptr:
@@ -79,7 +80,7 @@ func isOtherSlice(mtype reflect.Type) bool {
 	}
 }
 
-// Check if the given marshall type maps to a TomlTree
+// Check if the given marshall type maps to a Tree
 func isTree(mtype reflect.Type) bool {
 	switch mtype.Kind() {
 	case reflect.Map:
@@ -133,11 +134,11 @@ func Marshal(v interface{}) ([]byte, error) {
 }
 
 // Convert given marshal struct or map value to toml tree
-func valueToTree(mtype reflect.Type, mval reflect.Value) (*TomlTree, error) {
+func valueToTree(mtype reflect.Type, mval reflect.Value) (*Tree, error) {
 	if mtype.Kind() == reflect.Ptr {
 		return valueToTree(mtype.Elem(), mval.Elem())
 	}
-	tval := newTomlTree()
+	tval := newTree()
 	switch mtype.Kind() {
 	case reflect.Struct:
 		for i := 0; i < mtype.NumField(); i++ {
@@ -165,8 +166,8 @@ func valueToTree(mtype reflect.Type, mval reflect.Value) (*TomlTree, error) {
 }
 
 // Convert given marshal slice to slice of Toml trees
-func valueToTreeSlice(mtype reflect.Type, mval reflect.Value) ([]*TomlTree, error) {
-	tval := make([]*TomlTree, mval.Len(), mval.Len())
+func valueToTreeSlice(mtype reflect.Type, mval reflect.Value) ([]*Tree, error) {
+	tval := make([]*Tree, mval.Len(), mval.Len())
 	for i := 0; i < mval.Len(); i++ {
 		val, err := valueToTree(mtype.Elem(), mval.Index(i))
 		if err != nil {
@@ -224,24 +225,15 @@ func valueToToml(mtype reflect.Type, mval reflect.Value) (interface{}, error) {
 	}
 }
 
-/*
-Unmarshal parses the TOML-encoded data and stores the result in the value
-pointed to by v. Behavior is similar to the Go json encoder, except that there
-is no concept of an Unmarshaler interface or UnmarshalTOML function for
-sub-structs, and currently only definite types can be unmarshaled to (i.e. no
-`interface{}`).
-*/
-func Unmarshal(data []byte, v interface{}) error {
+// Unmarshal attempts to unmarshal the Tree into a Go struct pointed by v.
+// Neither Unmarshaler interfaces nor UnmarshalTOML functions are supported for
+// sub-structs, and only definite types can be unmarshaled.
+func (t *Tree) Unmarshal(v interface{}) error {
 	mtype := reflect.TypeOf(v)
 	if mtype.Kind() != reflect.Ptr || mtype.Elem().Kind() != reflect.Struct {
 		return errors.New("Only a pointer to struct can be unmarshaled from TOML")
 	}
 
-	t, err := Load(string(data))
-	if err != nil {
-		return err
-	}
-
 	sval, err := valueFromTree(mtype.Elem(), t)
 	if err != nil {
 		return err
@@ -250,8 +242,21 @@ func Unmarshal(data []byte, v interface{}) error {
 	return nil
 }
 
+// Unmarshal parses the TOML-encoded data and stores the result in the value
+// pointed to by v. Behavior is similar to the Go json encoder, except that there
+// is no concept of an Unmarshaler interface or UnmarshalTOML function for
+// sub-structs, and currently only definite types can be unmarshaled to (i.e. no
+// `interface{}`).
+func Unmarshal(data []byte, v interface{}) error {
+	t, err := LoadReader(bytes.NewReader(data))
+	if err != nil {
+		return err
+	}
+	return t.Unmarshal(v)
+}
+
 // Convert toml tree to marshal struct or map, using marshal type
-func valueFromTree(mtype reflect.Type, tval *TomlTree) (reflect.Value, error) {
+func valueFromTree(mtype reflect.Type, tval *Tree) (reflect.Value, error) {
 	if mtype.Kind() == reflect.Ptr {
 		return unwrapPointer(mtype, tval)
 	}
@@ -290,7 +295,7 @@ func valueFromTree(mtype reflect.Type, tval *TomlTree) (reflect.Value, error) {
 }
 
 // Convert toml value to marshal struct/map slice, using marshal type
-func valueFromTreeSlice(mtype reflect.Type, tval []*TomlTree) (reflect.Value, error) {
+func valueFromTreeSlice(mtype reflect.Type, tval []*Tree) (reflect.Value, error) {
 	mval := reflect.MakeSlice(mtype, len(tval), len(tval))
 	for i := 0; i < len(tval); i++ {
 		val, err := valueFromTree(mtype.Elem(), tval[i])
@@ -322,9 +327,9 @@ func valueFromToml(mtype reflect.Type, tval interface{}) (reflect.Value, error)
 	}
 	switch {
 	case isTree(mtype):
-		return valueFromTree(mtype, tval.(*TomlTree))
+		return valueFromTree(mtype, tval.(*Tree))
 	case isTreeSlice(mtype):
-		return valueFromTreeSlice(mtype, tval.([]*TomlTree))
+		return valueFromTreeSlice(mtype, tval.([]*Tree))
 	case isOtherSlice(mtype):
 		return valueFromOtherSlice(mtype, tval.([]interface{}))
 	default:

vendor/github.com/pelletier/go-toml/match.go

@@ -1,234 +0,0 @@
-package toml
-
-import (
-	"fmt"
-)
-
-// support function to set positions for tomlValues
-// NOTE: this is done to allow ctx.lastPosition to indicate the start of any
-// values returned by the query engines
-func tomlValueCheck(node interface{}, ctx *queryContext) interface{} {
-	switch castNode := node.(type) {
-	case *tomlValue:
-		ctx.lastPosition = castNode.position
-		return castNode.value
-	case []*TomlTree:
-		if len(castNode) > 0 {
-			ctx.lastPosition = castNode[0].position
-		}
-		return node
-	default:
-		return node
-	}
-}
-
-// base match
-type matchBase struct {
-	next pathFn
-}
-
-func (f *matchBase) setNext(next pathFn) {
-	f.next = next
-}
-
-// terminating functor - gathers results
-type terminatingFn struct {
-	// empty
-}
-
-func newTerminatingFn() *terminatingFn {
-	return &terminatingFn{}
-}
-
-func (f *terminatingFn) setNext(next pathFn) {
-	// do nothing
-}
-
-func (f *terminatingFn) call(node interface{}, ctx *queryContext) {
-	switch castNode := node.(type) {
-	case *TomlTree:
-		ctx.result.appendResult(node, castNode.position)
-	case *tomlValue:
-		ctx.result.appendResult(node, castNode.position)
-	default:
-		// use last position for scalars
-		ctx.result.appendResult(node, ctx.lastPosition)
-	}
-}
-
-// match single key
-type matchKeyFn struct {
-	matchBase
-	Name string
-}
-
-func newMatchKeyFn(name string) *matchKeyFn {
-	return &matchKeyFn{Name: name}
-}
-
-func (f *matchKeyFn) call(node interface{}, ctx *queryContext) {
-	if array, ok := node.([]*TomlTree); ok {
-		for _, tree := range array {
-			item := tree.values[f.Name]
-			if item != nil {
-				f.next.call(item, ctx)
-			}
-		}
-	} else if tree, ok := node.(*TomlTree); ok {
-		item := tree.values[f.Name]
-		if item != nil {
-			f.next.call(item, ctx)
-		}
-	}
-}
-
-// match single index
-type matchIndexFn struct {
-	matchBase
-	Idx int
-}
-
-func newMatchIndexFn(idx int) *matchIndexFn {
-	return &matchIndexFn{Idx: idx}
-}
-
-func (f *matchIndexFn) call(node interface{}, ctx *queryContext) {
-	if arr, ok := tomlValueCheck(node, ctx).([]interface{}); ok {
-		if f.Idx < len(arr) && f.Idx >= 0 {
-			f.next.call(arr[f.Idx], ctx)
-		}
-	}
-}
-
-// filter by slicing
-type matchSliceFn struct {
-	matchBase
-	Start, End, Step int
-}
-
-func newMatchSliceFn(start, end, step int) *matchSliceFn {
-	return &matchSliceFn{Start: start, End: end, Step: step}
-}
-
-func (f *matchSliceFn) call(node interface{}, ctx *queryContext) {
-	if arr, ok := tomlValueCheck(node, ctx).([]interface{}); ok {
-		// adjust indexes for negative values, reverse ordering
-		realStart, realEnd := f.Start, f.End
-		if realStart < 0 {
-			realStart = len(arr) + realStart
-		}
-		if realEnd < 0 {
-			realEnd = len(arr) + realEnd
-		}
-		if realEnd < realStart {
-			realEnd, realStart = realStart, realEnd // swap
-		}
-		// loop and gather
-		for idx := realStart; idx < realEnd; idx += f.Step {
-			f.next.call(arr[idx], ctx)
-		}
-	}
-}
-
-// match anything
-type matchAnyFn struct {
-	matchBase
-}
-
-func newMatchAnyFn() *matchAnyFn {
-	return &matchAnyFn{}
-}
-
-func (f *matchAnyFn) call(node interface{}, ctx *queryContext) {
-	if tree, ok := node.(*TomlTree); ok {
-		for _, v := range tree.values {
-			f.next.call(v, ctx)
-		}
-	}
-}
-
-// filter through union
-type matchUnionFn struct {
-	Union []pathFn
-}
-
-func (f *matchUnionFn) setNext(next pathFn) {
-	for _, fn := range f.Union {
-		fn.setNext(next)
-	}
-}
-
-func (f *matchUnionFn) call(node interface{}, ctx *queryContext) {
-	for _, fn := range f.Union {
-		fn.call(node, ctx)
-	}
-}
-
-// match every single last node in the tree
-type matchRecursiveFn struct {
-	matchBase
-}
-
-func newMatchRecursiveFn() *matchRecursiveFn {
-	return &matchRecursiveFn{}
-}
-
-func (f *matchRecursiveFn) call(node interface{}, ctx *queryContext) {
-	if tree, ok := node.(*TomlTree); ok {
-		var visit func(tree *TomlTree)
-		visit = func(tree *TomlTree) {
-			for _, v := range tree.values {
-				f.next.call(v, ctx)
-				switch node := v.(type) {
-				case *TomlTree:
-					visit(node)
-				case []*TomlTree:
-					for _, subtree := range node {
-						visit(subtree)
-					}
-				}
-			}
-		}
-		f.next.call(tree, ctx)
-		visit(tree)
-	}
-}
-
-// match based on an externally provided functional filter
-type matchFilterFn struct {
-	matchBase
-	Pos  Position
-	Name string
-}
-
-func newMatchFilterFn(name string, pos Position) *matchFilterFn {
-	return &matchFilterFn{Name: name, Pos: pos}
-}
-
-func (f *matchFilterFn) call(node interface{}, ctx *queryContext) {
-	fn, ok := (*ctx.filters)[f.Name]
-	if !ok {
-		panic(fmt.Sprintf("%s: query context does not have filter '%s'",
-			f.Pos.String(), f.Name))
-	}
-	switch castNode := tomlValueCheck(node, ctx).(type) {
-	case *TomlTree:
-		for _, v := range castNode.values {
-			if tv, ok := v.(*tomlValue); ok {
-				if fn(tv.value) {
-					f.next.call(v, ctx)
-				}
-			} else {
-				if fn(v) {
-					f.next.call(v, ctx)
-				}
-			}
-		}
-	case []interface{}:
-		for _, v := range castNode {
-			if fn(v) {
-				f.next.call(v, ctx)
-			}
-		}
-	}
-}

vendor/github.com/pelletier/go-toml/parser.go

@@ -14,7 +14,7 @@ import (
 
 type tomlParser struct {
 	flow          chan token
-	tree          *TomlTree
+	tree          *Tree
 	tokensBuffer  []token
 	currentTable  []string
 	seenTableKeys []string
@@ -106,18 +106,18 @@ func (p *tomlParser) parseGroupArray() tomlParserStateFn {
 	}
 	p.tree.createSubTree(keys[:len(keys)-1], startToken.Position) // create parent entries
 	destTree := p.tree.GetPath(keys)
-	var array []*TomlTree
+	var array []*Tree
 	if destTree == nil {
-		array = make([]*TomlTree, 0)
-	} else if target, ok := destTree.([]*TomlTree); ok && target != nil {
-		array = destTree.([]*TomlTree)
+		array = make([]*Tree, 0)
+	} else if target, ok := destTree.([]*Tree); ok && target != nil {
+		array = destTree.([]*Tree)
 	} else {
 		p.raiseError(key, "key %s is already assigned and not of type table array", key)
 	}
 	p.currentTable = keys
 
 	// add a new tree to the end of the table array
-	newTree := newTomlTree()
+	newTree := newTree()
 	newTree.position = startToken.Position
 	array = append(array, newTree)
 	p.tree.SetPath(p.currentTable, array)
@@ -183,11 +183,11 @@ func (p *tomlParser) parseAssign() tomlParserStateFn {
 	}
 
 	// find the table to assign, looking out for arrays of tables
-	var targetNode *TomlTree
+	var targetNode *Tree
 	switch node := p.tree.GetPath(tableKey).(type) {
-	case []*TomlTree:
+	case []*Tree:
 		targetNode = node[len(node)-1]
-	case *TomlTree:
+	case *Tree:
 		targetNode = node
 	default:
 		p.raiseError(key, "Unknown table type for path: %s",
@@ -212,7 +212,7 @@ func (p *tomlParser) parseAssign() tomlParserStateFn {
 	var toInsert interface{}
 
 	switch value.(type) {
-	case *TomlTree, []*TomlTree:
+	case *Tree, []*Tree:
 		toInsert = value
 	default:
 		toInsert = &tomlValue{value, key.Position}
@@ -289,8 +289,8 @@ func tokenIsComma(t *token) bool {
 	return t != nil && t.typ == tokenComma
 }
 
-func (p *tomlParser) parseInlineTable() *TomlTree {
-	tree := newTomlTree()
+func (p *tomlParser) parseInlineTable() *Tree {
+	tree := newTree()
 	var previous *token
 Loop:
 	for {
@@ -360,22 +360,22 @@ func (p *tomlParser) parseArray() interface{} {
 			p.getToken()
 		}
 	}
-	// An array of TomlTrees is actually an array of inline
+	// An array of Trees is actually an array of inline
 	// tables, which is a shorthand for a table array. If the
-	// array was not converted from []interface{} to []*TomlTree,
+	// array was not converted from []interface{} to []*Tree,
 	// the two notations would not be equivalent.
-	if arrayType == reflect.TypeOf(newTomlTree()) {
-		tomlArray := make([]*TomlTree, len(array))
+	if arrayType == reflect.TypeOf(newTree()) {
+		tomlArray := make([]*Tree, len(array))
 		for i, v := range array {
-			tomlArray[i] = v.(*TomlTree)
+			tomlArray[i] = v.(*Tree)
 		}
 		return tomlArray
 	}
 	return array
 }
 
-func parseToml(flow chan token) *TomlTree {
-	result := newTomlTree()
+func parseToml(flow chan token) *Tree {
+	result := newTree()
 	result.position = Position{1, 1}
 	parser := &tomlParser{
 		flow:          flow,

vendor/github.com/pelletier/go-toml/query.go

@@ -1,153 +0,0 @@
-package toml
-
-import (
-	"time"
-)
-
-// NodeFilterFn represents a user-defined filter function, for use with
-// Query.SetFilter().
-//
-// The return value of the function must indicate if 'node' is to be included
-// at this stage of the TOML path.  Returning true will include the node, and
-// returning false will exclude it.
-//
-// NOTE: Care should be taken to write script callbacks such that they are safe
-// to use from multiple goroutines.
-type NodeFilterFn func(node interface{}) bool
-
-// QueryResult is the result of Executing a Query.
-type QueryResult struct {
-	items     []interface{}
-	positions []Position
-}
-
-// appends a value/position pair to the result set.
-func (r *QueryResult) appendResult(node interface{}, pos Position) {
-	r.items = append(r.items, node)
-	r.positions = append(r.positions, pos)
-}
-
-// Values is a set of values within a QueryResult.  The order of values is not
-// guaranteed to be in document order, and may be different each time a query is
-// executed.
-func (r QueryResult) Values() []interface{} {
-	values := make([]interface{}, len(r.items))
-	for i, v := range r.items {
-		o, ok := v.(*tomlValue)
-		if ok {
-			values[i] = o.value
-		} else {
-			values[i] = v
-		}
-	}
-	return values
-}
-
-// Positions is a set of positions for values within a QueryResult.  Each index
-// in Positions() corresponds to the entry in Value() of the same index.
-func (r QueryResult) Positions() []Position {
-	return r.positions
-}
-
-// runtime context for executing query paths
-type queryContext struct {
-	result       *QueryResult
-	filters      *map[string]NodeFilterFn
-	lastPosition Position
-}
-
-// generic path functor interface
-type pathFn interface {
-	setNext(next pathFn)
-	call(node interface{}, ctx *queryContext)
-}
-
-// A Query is the representation of a compiled TOML path.  A Query is safe
-// for concurrent use by multiple goroutines.
-type Query struct {
-	root    pathFn
-	tail    pathFn
-	filters *map[string]NodeFilterFn
-}
-
-func newQuery() *Query {
-	return &Query{
-		root:    nil,
-		tail:    nil,
-		filters: &defaultFilterFunctions,
-	}
-}
-
-func (q *Query) appendPath(next pathFn) {
-	if q.root == nil {
-		q.root = next
-	} else {
-		q.tail.setNext(next)
-	}
-	q.tail = next
-	next.setNext(newTerminatingFn()) // init the next functor
-}
-
-// CompileQuery compiles a TOML path expression.  The returned Query can be used
-// to match elements within a TomlTree and its descendants.
-func CompileQuery(path string) (*Query, error) {
-	return parseQuery(lexQuery(path))
-}
-
-// Execute executes a query against a TomlTree, and returns the result of the query.
-func (q *Query) Execute(tree *TomlTree) *QueryResult {
-	result := &QueryResult{
-		items:     []interface{}{},
-		positions: []Position{},
-	}
-	if q.root == nil {
-		result.appendResult(tree, tree.GetPosition(""))
-	} else {
-		ctx := &queryContext{
-			result:  result,
-			filters: q.filters,
-		}
-		q.root.call(tree, ctx)
-	}
-	return result
-}
-
-// SetFilter sets a user-defined filter function.  These may be used inside
-// "?(..)" query expressions to filter TOML document elements within a query.
-func (q *Query) SetFilter(name string, fn NodeFilterFn) {
-	if q.filters == &defaultFilterFunctions {
-		// clone the static table
-		q.filters = &map[string]NodeFilterFn{}
-		for k, v := range defaultFilterFunctions {
-			(*q.filters)[k] = v
-		}
-	}
-	(*q.filters)[name] = fn
-}
-
-var defaultFilterFunctions = map[string]NodeFilterFn{
-	"tree": func(node interface{}) bool {
-		_, ok := node.(*TomlTree)
-		return ok
-	},
-	"int": func(node interface{}) bool {
-		_, ok := node.(int64)
-		return ok
-	},
-	"float": func(node interface{}) bool {
-		_, ok := node.(float64)
-		return ok
-	},
-	"string": func(node interface{}) bool {
-		_, ok := node.(string)
-		return ok
-	},
-	"time": func(node interface{}) bool {
-		_, ok := node.(time.Time)
-		return ok
-	},
-	"bool": func(node interface{}) bool {
-		_, ok := node.(bool)
-		return ok
-	},
-}

vendor/github.com/pelletier/go-toml/querylexer.go

@@ -1,356 +0,0 @@
-// TOML JSONPath lexer.
-//
-// Written using the principles developed by Rob Pike in
-// http://www.youtube.com/watch?v=HxaD_trXwRE
-
-package toml
-
-import (
-	"fmt"
-	"strconv"
-	"strings"
-	"unicode/utf8"
-)
-
-// Lexer state function
-type queryLexStateFn func() queryLexStateFn
-
-// Lexer definition
-type queryLexer struct {
-	input      string
-	start      int
-	pos        int
-	width      int
-	tokens     chan token
-	depth      int
-	line       int
-	col        int
-	stringTerm string
-}
-
-func (l *queryLexer) run() {
-	for state := l.lexVoid; state != nil; {
-		state = state()
-	}
-	close(l.tokens)
-}
-
-func (l *queryLexer) nextStart() {
-	// iterate by runes (utf8 characters)
-	// search for newlines and advance line/col counts
-	for i := l.start; i < l.pos; {
-		r, width := utf8.DecodeRuneInString(l.input[i:])
-		if r == '\n' {
-			l.line++
-			l.col = 1
-		} else {
-			l.col++
-		}
-		i += width
-	}
-	// advance start position to next token
-	l.start = l.pos
-}
-
-func (l *queryLexer) emit(t tokenType) {
-	l.tokens <- token{
-		Position: Position{l.line, l.col},
-		typ:      t,
-		val:      l.input[l.start:l.pos],
-	}
-	l.nextStart()
-}
-
-func (l *queryLexer) emitWithValue(t tokenType, value string) {
-	l.tokens <- token{
-		Position: Position{l.line, l.col},
-		typ:      t,
-		val:      value,
-	}
-	l.nextStart()
-}
-
-func (l *queryLexer) next() rune {
-	if l.pos >= len(l.input) {
-		l.width = 0
-		return eof
-	}
-	var r rune
-	r, l.width = utf8.DecodeRuneInString(l.input[l.pos:])
-	l.pos += l.width
-	return r
-}
-
-func (l *queryLexer) ignore() {
-	l.nextStart()
-}
-
-func (l *queryLexer) backup() {
-	l.pos -= l.width
-}
-
-func (l *queryLexer) errorf(format string, args ...interface{}) queryLexStateFn {
-	l.tokens <- token{
-		Position: Position{l.line, l.col},
-		typ:      tokenError,
-		val:      fmt.Sprintf(format, args...),
-	}
-	return nil
-}
-
-func (l *queryLexer) peek() rune {
-	r := l.next()
-	l.backup()
-	return r
-}
-
-func (l *queryLexer) accept(valid string) bool {
-	if strings.ContainsRune(valid, l.next()) {
-		return true
-	}
-	l.backup()
-	return false
-}
-
-func (l *queryLexer) follow(next string) bool {
-	return strings.HasPrefix(l.input[l.pos:], next)
-}
-
-func (l *queryLexer) lexVoid() queryLexStateFn {
-	for {
-		next := l.peek()
-		switch next {
-		case '$':
-			l.pos++
-			l.emit(tokenDollar)
-			continue
-		case '.':
-			if l.follow("..") {
-				l.pos += 2
-				l.emit(tokenDotDot)
-			} else {
-				l.pos++
-				l.emit(tokenDot)
-			}
-			continue
-		case '[':
-			l.pos++
-			l.emit(tokenLeftBracket)
-			continue
-		case ']':
-			l.pos++
-			l.emit(tokenRightBracket)
-			continue
-		case ',':
-			l.pos++
-			l.emit(tokenComma)
-			continue
-		case '*':
-			l.pos++
-			l.emit(tokenStar)
-			continue
-		case '(':
-			l.pos++
-			l.emit(tokenLeftParen)
-			continue
-		case ')':
-			l.pos++
-			l.emit(tokenRightParen)
-			continue
-		case '?':
-			l.pos++
-			l.emit(tokenQuestion)
-			continue
-		case ':':
-			l.pos++
-			l.emit(tokenColon)
-			continue
-		case '\'':
-			l.ignore()
-			l.stringTerm = string(next)
-			return l.lexString
-		case '"':
-			l.ignore()
-			l.stringTerm = string(next)
-			return l.lexString
-		}
-
-		if isSpace(next) {
-			l.next()
-			l.ignore()
-			continue
-		}
-
-		if isAlphanumeric(next) {
-			return l.lexKey
-		}
-
-		if next == '+' || next == '-' || isDigit(next) {
-			return l.lexNumber
-		}
-
-		if l.next() == eof {
-			break
-		}
-
-		return l.errorf("unexpected char: '%v'", next)
-	}
-	l.emit(tokenEOF)
-	return nil
-}
-
-func (l *queryLexer) lexKey() queryLexStateFn {
-	for {
-		next := l.peek()
-		if !isAlphanumeric(next) {
-			l.emit(tokenKey)
-			return l.lexVoid
-		}
-
-		if l.next() == eof {
-			break
-		}
-	}
-	l.emit(tokenEOF)
-	return nil
-}
-
-func (l *queryLexer) lexString() queryLexStateFn {
-	l.pos++
-	l.ignore()
-	growingString := ""
-
-	for {
-		if l.follow(l.stringTerm) {
-			l.emitWithValue(tokenString, growingString)
-			l.pos++
-			l.ignore()
-			return l.lexVoid
-		}
-
-		if l.follow("\\\"") {
-			l.pos++
-			growingString += "\""
-		} else if l.follow("\\'") {
-			l.pos++
-			growingString += "'"
-		} else if l.follow("\\n") {
-			l.pos++
-			growingString += "\n"
-		} else if l.follow("\\b") {
-			l.pos++
-			growingString += "\b"
-		} else if l.follow("\\f") {
-			l.pos++
-			growingString += "\f"
-		} else if l.follow("\\/") {
-			l.pos++
-			growingString += "/"
-		} else if l.follow("\\t") {
-			l.pos++
-			growingString += "\t"
-		} else if l.follow("\\r") {
-			l.pos++
-			growingString += "\r"
-		} else if l.follow("\\\\") {
-			l.pos++
-			growingString += "\\"
-		} else if l.follow("\\u") {
-			l.pos += 2
-			code := ""
-			for i := 0; i < 4; i++ {
-				c := l.peek()
-				l.pos++
-				if !isHexDigit(c) {
-					return l.errorf("unfinished unicode escape")
-				}
-				code = code + string(c)
-			}
-			l.pos--
-			intcode, err := strconv.ParseInt(code, 16, 32)
-			if err != nil {
-				return l.errorf("invalid unicode escape: \\u" + code)
-			}
-			growingString += string(rune(intcode))
-		} else if l.follow("\\U") {
-			l.pos += 2
-			code := ""
-			for i := 0; i < 8; i++ {
-				c := l.peek()
-				l.pos++
-				if !isHexDigit(c) {
-					return l.errorf("unfinished unicode escape")
-				}
-				code = code + string(c)
-			}
-			l.pos--
-			intcode, err := strconv.ParseInt(code, 16, 32)
-			if err != nil {
-				return l.errorf("invalid unicode escape: \\u" + code)
-			}
-			growingString += string(rune(intcode))
-		} else if l.follow("\\") {
-			l.pos++
-			return l.errorf("invalid escape sequence: \\" + string(l.peek()))
-		} else {
-			growingString += string(l.peek())
-		}
-
-		if l.next() == eof {
-			break
-		}
-	}
-
-	return l.errorf("unclosed string")
-}
-
-func (l *queryLexer) lexNumber() queryLexStateFn {
-	l.ignore()
-	if !l.accept("+") {
-		l.accept("-")
-	}
-	pointSeen := false
-	digitSeen := false
-	for {
-		next := l.next()
-		if next == '.' {
-			if pointSeen {
-				return l.errorf("cannot have two dots in one float")
-			}
-			if !isDigit(l.peek()) {
-				return l.errorf("float cannot end with a dot")
-			}
-			pointSeen = true
-		} else if isDigit(next) {
-			digitSeen = true
-		} else {
-			l.backup()
-			break
-		}
-		if pointSeen && !digitSeen {
-			return l.errorf("cannot start float with a dot")
-		}
-	}
-
-	if !digitSeen {
-		return l.errorf("no digit in that number")
-	}
-	if pointSeen {
-		l.emit(tokenFloat)
-	} else {
-		l.emit(tokenInteger)
-	}
-	return l.lexVoid
-}
-
-// Entry point
-func lexQuery(input string) chan token {
-	l := &queryLexer{
-		input:  input,
-		tokens: make(chan token),
-		line:   1,
-		col:    1,
-	}
-	go l.run()
-	return l.tokens
-}

vendor/github.com/pelletier/go-toml/queryparser.go

@@ -1,275 +0,0 @@
-/*
-  Based on the "jsonpath" spec/concept.
-
-  http://goessner.net/articles/JsonPath/
-  https://code.google.com/p/json-path/
-*/
-
-package toml
-
-import (
-	"fmt"
-)
-
-const maxInt = int(^uint(0) >> 1)
-
-type queryParser struct {
-	flow         chan token
-	tokensBuffer []token
-	query        *Query
-	union        []pathFn
-	err          error
-}
-
-type queryParserStateFn func() queryParserStateFn
-
-// Formats and panics an error message based on a token
-func (p *queryParser) parseError(tok *token, msg string, args ...interface{}) queryParserStateFn {
-	p.err = fmt.Errorf(tok.Position.String()+": "+msg, args...)
-	return nil // trigger parse to end
-}
-
-func (p *queryParser) run() {
-	for state := p.parseStart; state != nil; {
-		state = state()
-	}
-}
-
-func (p *queryParser) backup(tok *token) {
-	p.tokensBuffer = append(p.tokensBuffer, *tok)
-}
-
-func (p *queryParser) peek() *token {
-	if len(p.tokensBuffer) != 0 {
-		return &(p.tokensBuffer[0])
-	}
-
-	tok, ok := <-p.flow
-	if !ok {
-		return nil
-	}
-	p.backup(&tok)
-	return &tok
-}
-
-func (p *queryParser) lookahead(types ...tokenType) bool {
-	result := true
-	buffer := []token{}
-
-	for _, typ := range types {
-		tok := p.getToken()
-		if tok == nil {
-			result = false
-			break
-		}
-		buffer = append(buffer, *tok)
-		if tok.typ != typ {
-			result = false
-			break
-		}
-	}
-	// add the tokens back to the buffer, and return
-	p.tokensBuffer = append(p.tokensBuffer, buffer...)
-	return result
-}
-
-func (p *queryParser) getToken() *token {
-	if len(p.tokensBuffer) != 0 {
-		tok := p.tokensBuffer[0]
-		p.tokensBuffer = p.tokensBuffer[1:]
-		return &tok
-	}
-	tok, ok := <-p.flow
-	if !ok {
-		return nil
-	}
-	return &tok
-}
-
-func (p *queryParser) parseStart() queryParserStateFn {
-	tok := p.getToken()
-
-	if tok == nil || tok.typ == tokenEOF {
-		return nil
-	}
-
-	if tok.typ != tokenDollar {
-		return p.parseError(tok, "Expected '$' at start of expression")
-	}
-
-	return p.parseMatchExpr
-}
-
-// handle '.' prefix, '[]', and '..'
-func (p *queryParser) parseMatchExpr() queryParserStateFn {
-	tok := p.getToken()
-	switch tok.typ {
-	case tokenDotDot:
-		p.query.appendPath(&matchRecursiveFn{})
-		// nested parse for '..'
-		tok := p.getToken()
-		switch tok.typ {
-		case tokenKey:
-			p.query.appendPath(newMatchKeyFn(tok.val))
-			return p.parseMatchExpr
-		case tokenLeftBracket:
-			return p.parseBracketExpr
-		case tokenStar:
-			// do nothing - the recursive predicate is enough
-			return p.parseMatchExpr
-		}
-
-	case tokenDot:
-		// nested parse for '.'
-		tok := p.getToken()
-		switch tok.typ {
-		case tokenKey:
-			p.query.appendPath(newMatchKeyFn(tok.val))
-			return p.parseMatchExpr
-		case tokenStar:
-			p.query.appendPath(&matchAnyFn{})
-			return p.parseMatchExpr
-		}
-
-	case tokenLeftBracket:
-		return p.parseBracketExpr
-
-	case tokenEOF:
-		return nil // allow EOF at this stage
-	}
-	return p.parseError(tok, "expected match expression")
-}
-
-func (p *queryParser) parseBracketExpr() queryParserStateFn {
-	if p.lookahead(tokenInteger, tokenColon) {
-		return p.parseSliceExpr
-	}
-	if p.peek().typ == tokenColon {
-		return p.parseSliceExpr
-	}
-	return p.parseUnionExpr
-}
-
-func (p *queryParser) parseUnionExpr() queryParserStateFn {
-	var tok *token
-
-	// this state can be traversed after some sub-expressions
-	// so be careful when setting up state in the parser
-	if p.union == nil {
-		p.union = []pathFn{}
-	}
-
-loop: // labeled loop for easy breaking
-	for {
-		if len(p.union) > 0 {
-			// parse delimiter or terminator
-			tok = p.getToken()
-			switch tok.typ {
-			case tokenComma:
-				// do nothing
-			case tokenRightBracket:
-				break loop
-			default:
-				return p.parseError(tok, "expected ',' or ']', not '%s'", tok.val)
-			}
-		}
-
-		// parse sub expression
-		tok = p.getToken()
-		switch tok.typ {
-		case tokenInteger:
-			p.union = append(p.union, newMatchIndexFn(tok.Int()))
-		case tokenKey:
-			p.union = append(p.union, newMatchKeyFn(tok.val))
-		case tokenString:
-			p.union = append(p.union, newMatchKeyFn(tok.val))
-		case tokenQuestion:
-			return p.parseFilterExpr
-		default:
-			return p.parseError(tok, "expected union sub expression, not '%s', %d", tok.val, len(p.union))
-		}
-	}
-
-	// if there is only one sub-expression, use that instead
-	if len(p.union) == 1 {
-		p.query.appendPath(p.union[0])
-	} else {
-		p.query.appendPath(&matchUnionFn{p.union})
-	}
-
-	p.union = nil // clear out state
-	return p.parseMatchExpr
-}
-
-func (p *queryParser) parseSliceExpr() queryParserStateFn {
-	// init slice to grab all elements
-	start, end, step := 0, maxInt, 1
-
-	// parse optional start
-	tok := p.getToken()
-	if tok.typ == tokenInteger {
-		start = tok.Int()
-		tok = p.getToken()
-	}
-	if tok.typ != tokenColon {
-		return p.parseError(tok, "expected ':'")
-	}
-
-	// parse optional end
-	tok = p.getToken()
-	if tok.typ == tokenInteger {
-		end = tok.Int()
-		tok = p.getToken()
-	}
-	if tok.typ == tokenRightBracket {
-		p.query.appendPath(newMatchSliceFn(start, end, step))
-		return p.parseMatchExpr
-	}
-	if tok.typ != tokenColon {
-		return p.parseError(tok, "expected ']' or ':'")
-	}
-
-	// parse optional step
-	tok = p.getToken()
-	if tok.typ == tokenInteger {
-		step = tok.Int()
-		if step < 0 {
-			return p.parseError(tok, "step must be a positive value")
-		}
-		tok = p.getToken()
-	}
-	if tok.typ != tokenRightBracket {
-		return p.parseError(tok, "expected ']'")
-	}
-
-	p.query.appendPath(newMatchSliceFn(start, end, step))
-	return p.parseMatchExpr
-}
-
-func (p *queryParser) parseFilterExpr() queryParserStateFn {
-	tok := p.getToken()
-	if tok.typ != tokenLeftParen {
-		return p.parseError(tok, "expected left-parenthesis for filter expression")
-	}
-	tok = p.getToken()
-	if tok.typ != tokenKey && tok.typ != tokenString {
-		return p.parseError(tok, "expected key or string for filter funciton name")
-	}
-	name := tok.val
-	tok = p.getToken()
-	if tok.typ != tokenRightParen {
-		return p.parseError(tok, "expected right-parenthesis for filter expression")
-	}
-	p.union = append(p.union, newMatchFilterFn(name, tok.Position))
-	return p.parseUnionExpr
-}
-
-func parseQuery(flow chan token) (*Query, error) {
-	parser := &queryParser{
-		flow:         flow,
-		tokensBuffer: []token{},
-		query:        newQuery(),
-	}
-	parser.run()
-	return parser.query, parser.err
-}

vendor/github.com/pelletier/go-toml/toml.go

@@ -14,30 +14,35 @@ type tomlValue struct {
 	position Position
 }
 
-// TomlTree is the result of the parsing of a TOML file.
-type TomlTree struct {
-	values   map[string]interface{} // string -> *tomlValue, *TomlTree, []*TomlTree
+// Tree is the result of the parsing of a TOML file.
+type Tree struct {
+	values   map[string]interface{} // string -> *tomlValue, *Tree, []*Tree
 	position Position
 }
 
-func newTomlTree() *TomlTree {
-	return &TomlTree{
+func newTree() *Tree {
+	return &Tree{
 		values:   make(map[string]interface{}),
 		position: Position{},
 	}
 }
 
-// TreeFromMap initializes a new TomlTree object using the given map.
-func TreeFromMap(m map[string]interface{}) (*TomlTree, error) {
+// TreeFromMap initializes a new Tree object using the given map.
+func TreeFromMap(m map[string]interface{}) (*Tree, error) {
 	result, err := toTree(m)
 	if err != nil {
 		return nil, err
 	}
-	return result.(*TomlTree), nil
+	return result.(*Tree), nil
+}
+
+// Position returns the position of the tree.
+func (t *Tree) Position() Position {
+	return t.position
 }
 
 // Has returns a boolean indicating if the given key exists.
-func (t *TomlTree) Has(key string) bool {
+func (t *Tree) Has(key string) bool {
 	if key == "" {
 		return false
 	}
@@ -45,25 +50,27 @@ func (t *TomlTree) Has(key string) bool {
 }
 
 // HasPath returns true if the given path of keys exists, false otherwise.
-func (t *TomlTree) HasPath(keys []string) bool {
+func (t *Tree) HasPath(keys []string) bool {
 	return t.GetPath(keys) != nil
 }
 
 // Keys returns the keys of the toplevel tree.
 // Warning: this is a costly operation.
-func (t *TomlTree) Keys() []string {
-	var keys []string
+func (t *Tree) Keys() []string {
+	keys := make([]string, len(t.values))
+	i := 0
 	for k := range t.values {
-		keys = append(keys, k)
+		keys[i] = k
+		i++
 	}
 	return keys
 }
 
-// Get the value at key in the TomlTree.
+// Get the value at key in the Tree.
 // Key is a dot-separated path (e.g. a.b.c).
 // Returns nil if the path does not exist in the tree.
 // If keys is of length zero, the current tree is returned.
-func (t *TomlTree) Get(key string) interface{} {
+func (t *Tree) Get(key string) interface{} {
 	if key == "" {
 		return t
 	}
@@ -76,7 +83,7 @@ func (t *TomlTree) Get(key string) interface{} {
 
 // GetPath returns the element in the tree indicated by 'keys'.
 // If keys is of length zero, the current tree is returned.
-func (t *TomlTree) GetPath(keys []string) interface{} {
+func (t *Tree) GetPath(keys []string) interface{} {
 	if len(keys) == 0 {
 		return t
 	}
@@ -87,9 +94,9 @@ func (t *TomlTree) GetPath(keys []string) interface{} {
 			return nil
 		}
 		switch node := value.(type) {
-		case *TomlTree:
+		case *Tree:
 			subtree = node
-		case []*TomlTree:
+		case []*Tree:
 			// go to most recent element
 			if len(node) == 0 {
 				return nil
@@ -109,7 +116,7 @@ func (t *TomlTree) GetPath(keys []string) interface{} {
 }
 
 // GetPosition returns the position of the given key.
-func (t *TomlTree) GetPosition(key string) Position {
+func (t *Tree) GetPosition(key string) Position {
 	if key == "" {
 		return t.position
 	}
@@ -118,7 +125,7 @@ func (t *TomlTree) GetPosition(key string) Position {
 
 // GetPositionPath returns the element in the tree indicated by 'keys'.
 // If keys is of length zero, the current tree is returned.
-func (t *TomlTree) GetPositionPath(keys []string) Position {
+func (t *Tree) GetPositionPath(keys []string) Position {
 	if len(keys) == 0 {
 		return t.position
 	}
@@ -129,9 +136,9 @@ func (t *TomlTree) GetPositionPath(keys []string) Position {
 			return Position{0, 0}
 		}
 		switch node := value.(type) {
-		case *TomlTree:
+		case *Tree:
 			subtree = node
-		case []*TomlTree:
+		case []*Tree:
 			// go to most recent element
 			if len(node) == 0 {
 				return Position{0, 0}
@@ -145,9 +152,9 @@ func (t *TomlTree) GetPositionPath(keys []string) Position {
 	switch node := subtree.values[keys[len(keys)-1]].(type) {
 	case *tomlValue:
 		return node.position
-	case *TomlTree:
+	case *Tree:
 		return node.position
-	case []*TomlTree:
+	case []*Tree:
 		// go to most recent element
 		if len(node) == 0 {
 			return Position{0, 0}
@@ -159,7 +166,7 @@ func (t *TomlTree) GetPositionPath(keys []string) Position {
 }
 
 // GetDefault works like Get but with a default value
-func (t *TomlTree) GetDefault(key string, def interface{}) interface{} {
+func (t *Tree) GetDefault(key string, def interface{}) interface{} {
 	val := t.Get(key)
 	if val == nil {
 		return def
@@ -169,30 +176,30 @@ func (t *TomlTree) GetDefault(key string, def interface{}) interface{} {
 
 // Set an element in the tree.
 // Key is a dot-separated path (e.g. a.b.c).
-// Creates all necessary intermediates trees, if needed.
-func (t *TomlTree) Set(key string, value interface{}) {
+// Creates all necessary intermediate trees, if needed.
+func (t *Tree) Set(key string, value interface{}) {
 	t.SetPath(strings.Split(key, "."), value)
 }
 
 // SetPath sets an element in the tree.
 // Keys is an array of path elements (e.g. {"a","b","c"}).
-// Creates all necessary intermediates trees, if needed.
-func (t *TomlTree) SetPath(keys []string, value interface{}) {
+// Creates all necessary intermediate trees, if needed.
+func (t *Tree) SetPath(keys []string, value interface{}) {
 	subtree := t
 	for _, intermediateKey := range keys[:len(keys)-1] {
 		nextTree, exists := subtree.values[intermediateKey]
 		if !exists {
-			nextTree = newTomlTree()
+			nextTree = newTree()
 			subtree.values[intermediateKey] = nextTree // add new element here
 		}
 		switch node := nextTree.(type) {
-		case *TomlTree:
+		case *Tree:
 			subtree = node
-		case []*TomlTree:
+		case []*Tree:
 			// go to most recent element
 			if len(node) == 0 {
 				// create element if it does not exist
-				subtree.values[intermediateKey] = append(node, newTomlTree())
+				subtree.values[intermediateKey] = append(node, newTree())
 			}
 			subtree = node[len(node)-1]
 		}
@@ -201,9 +208,9 @@ func (t *TomlTree) SetPath(keys []string, value interface{}) {
 	var toInsert interface{}
 
 	switch value.(type) {
-	case *TomlTree:
+	case *Tree:
 		toInsert = value
-	case []*TomlTree:
+	case []*Tree:
 		toInsert = value
 	case *tomlValue:
 		toInsert = value
@@ -221,21 +228,21 @@ func (t *TomlTree) SetPath(keys []string, value interface{}) {
 // and tree[a][b][c]
 //
 // Returns nil on success, error object on failure
-func (t *TomlTree) createSubTree(keys []string, pos Position) error {
+func (t *Tree) createSubTree(keys []string, pos Position) error {
 	subtree := t
 	for _, intermediateKey := range keys {
 		nextTree, exists := subtree.values[intermediateKey]
 		if !exists {
-			tree := newTomlTree()
+			tree := newTree()
 			tree.position = pos
 			subtree.values[intermediateKey] = tree
 			nextTree = tree
 		}
 
 		switch node := nextTree.(type) {
-		case []*TomlTree:
+		case []*Tree:
 			subtree = node[len(node)-1]
-		case *TomlTree:
+		case *Tree:
 			subtree = node
 		default:
 			return fmt.Errorf("unknown type for path %s (%s): %T (%#v)",
@@ -245,17 +252,8 @@ func (t *TomlTree) createSubTree(keys []string, pos Position) error {
 	return nil
 }
 
-// Query compiles and executes a query on a tree and returns the query result.
-func (t *TomlTree) Query(query string) (*QueryResult, error) {
-	q, err := CompileQuery(query)
-	if err != nil {
-		return nil, err
-	}
-	return q.Execute(t), nil
-}
-
-// LoadReader creates a TomlTree from any io.Reader.
-func LoadReader(reader io.Reader) (tree *TomlTree, err error) {
+// LoadReader creates a Tree from any io.Reader.
+func LoadReader(reader io.Reader) (tree *Tree, err error) {
 	defer func() {
 		if r := recover(); r != nil {
 			if _, ok := r.(runtime.Error); ok {
@@ -268,13 +266,13 @@ func LoadReader(reader io.Reader) (tree *TomlTree, err error) {
 	return
 }
 
-// Load creates a TomlTree from a string.
-func Load(content string) (tree *TomlTree, err error) {
+// Load creates a Tree from a string.
+func Load(content string) (tree *Tree, err error) {
 	return LoadReader(strings.NewReader(content))
 }
 
-// LoadFile creates a TomlTree from a file.
-func LoadFile(path string) (tree *TomlTree, err error) {
+// LoadFile creates a Tree from a file.
+func LoadFile(path string) (tree *Tree, err error) {
 	file, err := os.Open(path)
 	if err != nil {
 		return nil, err

vendor/github.com/pelletier/go-toml/tomltree_create.go

@@ -51,7 +51,7 @@ func simpleValueCoercion(object interface{}) (interface{}, error) {
 	case fmt.Stringer:
 		return original.String(), nil
 	default:
-		return nil, fmt.Errorf("cannot convert type %T to TomlTree", object)
+		return nil, fmt.Errorf("cannot convert type %T to Tree", object)
 	}
 }
 
@@ -59,7 +59,7 @@ func sliceToTree(object interface{}) (interface{}, error) {
 	// arrays are a bit tricky, since they can represent either a
 	// collection of simple values, which is represented by one
 	// *tomlValue, or an array of tables, which is represented by an
-	// array of *TomlTree.
+	// array of *Tree.
 
 	// holding the assumption that this function is called from toTree only when value.Kind() is Array or Slice
 	value := reflect.ValueOf(object)
@@ -70,14 +70,14 @@ func sliceToTree(object interface{}) (interface{}, error) {
 	}
 	if insideType.Kind() == reflect.Map {
 		// this is considered as an array of tables
-		tablesArray := make([]*TomlTree, 0, length)
+		tablesArray := make([]*Tree, 0, length)
 		for i := 0; i < length; i++ {
 			table := value.Index(i)
 			tree, err := toTree(table.Interface())
 			if err != nil {
 				return nil, err
 			}
-			tablesArray = append(tablesArray, tree.(*TomlTree))
+			tablesArray = append(tablesArray, tree.(*Tree))
 		}
 		return tablesArray, nil
 	}
@@ -120,7 +120,7 @@ func toTree(object interface{}) (interface{}, error) {
 			}
 			values[key.String()] = newValue
 		}
-		return &TomlTree{values, Position{}}, nil
+		return &Tree{values, Position{}}, nil
 	}
 
 	if value.Kind() == reflect.Array || value.Kind() == reflect.Slice {

vendor/github.com/pelletier/go-toml/tomltree_write.go

@@ -4,11 +4,11 @@ import (
 	"bytes"
 	"fmt"
 	"io"
+	"reflect"
 	"sort"
 	"strconv"
 	"strings"
 	"time"
-	"reflect"
 )
 
 // encodes a string to a TOML-compliant string value
@@ -83,14 +83,14 @@ func tomlValueStringRepresentation(v interface{}) (string, error) {
 	return "", fmt.Errorf("unsupported value type %T: %v", v, v)
 }
 
-func (t *TomlTree) writeTo(w io.Writer, indent, keyspace string, bytesCount int64) (int64, error) {
+func (t *Tree) writeTo(w io.Writer, indent, keyspace string, bytesCount int64) (int64, error) {
 	simpleValuesKeys := make([]string, 0)
 	complexValuesKeys := make([]string, 0)
 
 	for k := range t.values {
 		v := t.values[k]
 		switch v.(type) {
-		case *TomlTree, []*TomlTree:
+		case *Tree, []*Tree:
 			complexValuesKeys = append(complexValuesKeys, k)
 		default:
 			simpleValuesKeys = append(simpleValuesKeys, k)
@@ -129,7 +129,7 @@ func (t *TomlTree) writeTo(w io.Writer, indent, keyspace string, bytesCount int6
 
 		switch node := v.(type) {
 		// node has to be of those two types given how keys are sorted above
-		case *TomlTree:
+		case *Tree:
 			tableName := fmt.Sprintf("\n%s[%s]\n", indent, combinedKey)
 			writtenBytesCount, err := w.Write([]byte(tableName))
 			bytesCount += int64(writtenBytesCount)
@@ -140,7 +140,7 @@ func (t *TomlTree) writeTo(w io.Writer, indent, keyspace string, bytesCount int6
 			if err != nil {
 				return bytesCount, err
 			}
-		case []*TomlTree:
+		case []*Tree:
 			for _, subTree := range node {
 				if len(subTree.values) > 0 {
 					tableArrayName := fmt.Sprintf("\n%s[[%s]]\n", indent, combinedKey)
@@ -162,16 +162,16 @@ func (t *TomlTree) writeTo(w io.Writer, indent, keyspace string, bytesCount int6
 	return bytesCount, nil
 }
 
-// WriteTo encode the TomlTree as Toml and writes it to the writer w.
+// WriteTo encode the Tree as Toml and writes it to the writer w.
 // Returns the number of bytes written in case of success, or an error if anything happened.
-func (t *TomlTree) WriteTo(w io.Writer) (int64, error) {
+func (t *Tree) WriteTo(w io.Writer) (int64, error) {
 	return t.writeTo(w, "", "", 0)
 }
 
 // ToTomlString generates a human-readable representation of the current tree.
 // Output spans multiple lines, and is suitable for ingest by a TOML parser.
 // If the conversion cannot be performed, ToString returns a non-nil error.
-func (t *TomlTree) ToTomlString() (string, error) {
+func (t *Tree) ToTomlString() (string, error) {
 	var buf bytes.Buffer
 	_, err := t.WriteTo(&buf)
 	if err != nil {
@@ -182,7 +182,7 @@ func (t *TomlTree) ToTomlString() (string, error) {
 
 // String generates a human-readable representation of the current tree.
 // Alias of ToString. Present to implement the fmt.Stringer interface.
-func (t *TomlTree) String() string {
+func (t *Tree) String() string {
 	result, _ := t.ToTomlString()
 	return result
 }
@@ -196,18 +196,18 @@ func (t *TomlTree) String() string {
 // * time.Time
 // * map[string]interface{} (where interface{} is any of this list)
 // * []interface{} (where interface{} is any of this list)
-func (t *TomlTree) ToMap() map[string]interface{} {
+func (t *Tree) ToMap() map[string]interface{} {
 	result := map[string]interface{}{}
 
 	for k, v := range t.values {
 		switch node := v.(type) {
-		case []*TomlTree:
+		case []*Tree:
 			var array []interface{}
 			for _, item := range node {
 				array = append(array, item.ToMap())
 			}
 			result[k] = array
-		case *TomlTree:
+		case *Tree:
 			result[k] = node.ToMap()
 		case *tomlValue:
 			result[k] = node.value