From af64e10400f8533a0c48ecdf5ab9b7fbf329e14e Mon Sep 17 00:00:00 2001 From: Daniel J Walsh Date: Mon, 26 Mar 2018 18:26:55 -0400 Subject: Vendor in lots of kubernetes stuff to shrink image size Signed-off-by: Daniel J Walsh Closes: #554 Approved by: mheon --- vendor/github.com/mailru/easyjson/jlexer/error.go | 15 - vendor/github.com/mailru/easyjson/jlexer/lexer.go | 1121 --------------------- 2 files changed, 1136 deletions(-) delete mode 100644 vendor/github.com/mailru/easyjson/jlexer/error.go delete mode 100644 vendor/github.com/mailru/easyjson/jlexer/lexer.go (limited to 'vendor/github.com/mailru/easyjson/jlexer') diff --git a/vendor/github.com/mailru/easyjson/jlexer/error.go b/vendor/github.com/mailru/easyjson/jlexer/error.go deleted file mode 100644 index e90ec40d0..000000000 --- a/vendor/github.com/mailru/easyjson/jlexer/error.go +++ /dev/null @@ -1,15 +0,0 @@ -package jlexer - -import "fmt" - -// LexerError implements the error interface and represents all possible errors that can be -// generated during parsing the JSON data. -type LexerError struct { - Reason string - Offset int - Data string -} - -func (l *LexerError) Error() string { - return fmt.Sprintf("parse error: %s near offset %d of '%s'", l.Reason, l.Offset, l.Data) -} diff --git a/vendor/github.com/mailru/easyjson/jlexer/lexer.go b/vendor/github.com/mailru/easyjson/jlexer/lexer.go deleted file mode 100644 index db4939d5a..000000000 --- a/vendor/github.com/mailru/easyjson/jlexer/lexer.go +++ /dev/null @@ -1,1121 +0,0 @@ -// Package jlexer contains a JSON lexer implementation. -// -// It is expected that it is mostly used with generated parser code, so the interface is tuned -// for a parser that knows what kind of data is expected. -package jlexer - -import ( - "encoding/base64" - "errors" - "fmt" - "io" - "reflect" - "strconv" - "unicode" - "unicode/utf16" - "unicode/utf8" - "unsafe" -) - -// tokenKind determines type of a token. -type tokenKind byte - -const ( - tokenUndef tokenKind = iota // No token. - tokenDelim // Delimiter: one of '{', '}', '[' or ']'. - tokenString // A string literal, e.g. "abc\u1234" - tokenNumber // Number literal, e.g. 1.5e5 - tokenBool // Boolean literal: true or false. - tokenNull // null keyword. -) - -// token describes a single token: type, position in the input and value. -type token struct { - kind tokenKind // Type of a token. - - boolValue bool // Value if a boolean literal token. - byteValue []byte // Raw value of a token. - delimValue byte -} - -// Lexer is a JSON lexer: it iterates over JSON tokens in a byte slice. -type Lexer struct { - Data []byte // Input data given to the lexer. - - start int // Start of the current token. - pos int // Current unscanned position in the input stream. - token token // Last scanned token, if token.kind != tokenUndef. - - firstElement bool // Whether current element is the first in array or an object. - wantSep byte // A comma or a colon character, which need to occur before a token. - - UseMultipleErrors bool // If we want to use multiple errors. - fatalError error // Fatal error occured during lexing. It is usually a syntax error. - multipleErrors []*LexerError // Semantic errors occured during lexing. Marshalling will be continued after finding this errors. -} - -// FetchToken scans the input for the next token. -func (r *Lexer) FetchToken() { - r.token.kind = tokenUndef - r.start = r.pos - - // Check if r.Data has r.pos element - // If it doesn't, it mean corrupted input data - if len(r.Data) < r.pos { - r.errParse("Unexpected end of data") - return - } - // Determine the type of a token by skipping whitespace and reading the - // first character. - for _, c := range r.Data[r.pos:] { - switch c { - case ':', ',': - if r.wantSep == c { - r.pos++ - r.start++ - r.wantSep = 0 - } else { - r.errSyntax() - } - - case ' ', '\t', '\r', '\n': - r.pos++ - r.start++ - - case '"': - if r.wantSep != 0 { - r.errSyntax() - } - - r.token.kind = tokenString - r.fetchString() - return - - case '{', '[': - if r.wantSep != 0 { - r.errSyntax() - } - r.firstElement = true - r.token.kind = tokenDelim - r.token.delimValue = r.Data[r.pos] - r.pos++ - return - - case '}', ']': - if !r.firstElement && (r.wantSep != ',') { - r.errSyntax() - } - r.wantSep = 0 - r.token.kind = tokenDelim - r.token.delimValue = r.Data[r.pos] - r.pos++ - return - - case '0', '1', '2', '3', '4', '5', '6', '7', '8', '9', '-': - if r.wantSep != 0 { - r.errSyntax() - } - r.token.kind = tokenNumber - r.fetchNumber() - return - - case 'n': - if r.wantSep != 0 { - r.errSyntax() - } - - r.token.kind = tokenNull - r.fetchNull() - return - - case 't': - if r.wantSep != 0 { - r.errSyntax() - } - - r.token.kind = tokenBool - r.token.boolValue = true - r.fetchTrue() - return - - case 'f': - if r.wantSep != 0 { - r.errSyntax() - } - - r.token.kind = tokenBool - r.token.boolValue = false - r.fetchFalse() - return - - default: - r.errSyntax() - return - } - } - r.fatalError = io.EOF - return -} - -// isTokenEnd returns true if the char can follow a non-delimiter token -func isTokenEnd(c byte) bool { - return c == ' ' || c == '\t' || c == '\r' || c == '\n' || c == '[' || c == ']' || c == '{' || c == '}' || c == ',' || c == ':' -} - -// fetchNull fetches and checks remaining bytes of null keyword. -func (r *Lexer) fetchNull() { - r.pos += 4 - if r.pos > len(r.Data) || - r.Data[r.pos-3] != 'u' || - r.Data[r.pos-2] != 'l' || - r.Data[r.pos-1] != 'l' || - (r.pos != len(r.Data) && !isTokenEnd(r.Data[r.pos])) { - - r.pos -= 4 - r.errSyntax() - } -} - -// fetchTrue fetches and checks remaining bytes of true keyword. -func (r *Lexer) fetchTrue() { - r.pos += 4 - if r.pos > len(r.Data) || - r.Data[r.pos-3] != 'r' || - r.Data[r.pos-2] != 'u' || - r.Data[r.pos-1] != 'e' || - (r.pos != len(r.Data) && !isTokenEnd(r.Data[r.pos])) { - - r.pos -= 4 - r.errSyntax() - } -} - -// fetchFalse fetches and checks remaining bytes of false keyword. -func (r *Lexer) fetchFalse() { - r.pos += 5 - if r.pos > len(r.Data) || - r.Data[r.pos-4] != 'a' || - r.Data[r.pos-3] != 'l' || - r.Data[r.pos-2] != 's' || - r.Data[r.pos-1] != 'e' || - (r.pos != len(r.Data) && !isTokenEnd(r.Data[r.pos])) { - - r.pos -= 5 - r.errSyntax() - } -} - -// bytesToStr creates a string pointing at the slice to avoid copying. -// -// Warning: the string returned by the function should be used with care, as the whole input data -// chunk may be either blocked from being freed by GC because of a single string or the buffer.Data -// may be garbage-collected even when the string exists. -func bytesToStr(data []byte) string { - h := (*reflect.SliceHeader)(unsafe.Pointer(&data)) - shdr := reflect.StringHeader{h.Data, h.Len} - return *(*string)(unsafe.Pointer(&shdr)) -} - -// fetchNumber scans a number literal token. -func (r *Lexer) fetchNumber() { - hasE := false - afterE := false - hasDot := false - - r.pos++ - for i, c := range r.Data[r.pos:] { - switch { - case c >= '0' && c <= '9': - afterE = false - case c == '.' && !hasDot: - hasDot = true - case (c == 'e' || c == 'E') && !hasE: - hasE = true - hasDot = true - afterE = true - case (c == '+' || c == '-') && afterE: - afterE = false - default: - r.pos += i - if !isTokenEnd(c) { - r.errSyntax() - } else { - r.token.byteValue = r.Data[r.start:r.pos] - } - return - } - } - - r.pos = len(r.Data) - r.token.byteValue = r.Data[r.start:] -} - -// findStringLen tries to scan into the string literal for ending quote char to determine required size. -// The size will be exact if no escapes are present and may be inexact if there are escaped chars. -func findStringLen(data []byte) (hasEscapes bool, length int) { - delta := 0 - - for i := 0; i < len(data); i++ { - switch data[i] { - case '\\': - i++ - delta++ - if i < len(data) && data[i] == 'u' { - delta++ - } - case '"': - return (delta > 0), (i - delta) - } - } - - return false, len(data) -} - -// getu4 decodes \uXXXX from the beginning of s, returning the hex value, -// or it returns -1. -func getu4(s []byte) rune { - if len(s) < 6 || s[0] != '\\' || s[1] != 'u' { - return -1 - } - var val rune - for i := 2; i < len(s) && i < 6; i++ { - var v byte - c := s[i] - switch c { - case '0', '1', '2', '3', '4', '5', '6', '7', '8', '9': - v = c - '0' - case 'a', 'b', 'c', 'd', 'e', 'f': - v = c - 'a' + 10 - case 'A', 'B', 'C', 'D', 'E', 'F': - v = c - 'A' + 10 - default: - return -1 - } - - val <<= 4 - val |= rune(v) - } - return val -} - -// processEscape processes a single escape sequence and returns number of bytes processed. -func (r *Lexer) processEscape(data []byte) (int, error) { - if len(data) < 2 { - return 0, fmt.Errorf("syntax error at %v", string(data)) - } - - c := data[1] - switch c { - case '"', '/', '\\': - r.token.byteValue = append(r.token.byteValue, c) - return 2, nil - case 'b': - r.token.byteValue = append(r.token.byteValue, '\b') - return 2, nil - case 'f': - r.token.byteValue = append(r.token.byteValue, '\f') - return 2, nil - case 'n': - r.token.byteValue = append(r.token.byteValue, '\n') - return 2, nil - case 'r': - r.token.byteValue = append(r.token.byteValue, '\r') - return 2, nil - case 't': - r.token.byteValue = append(r.token.byteValue, '\t') - return 2, nil - case 'u': - rr := getu4(data) - if rr < 0 { - return 0, errors.New("syntax error") - } - - read := 6 - if utf16.IsSurrogate(rr) { - rr1 := getu4(data[read:]) - if dec := utf16.DecodeRune(rr, rr1); dec != unicode.ReplacementChar { - read += 6 - rr = dec - } else { - rr = unicode.ReplacementChar - } - } - var d [4]byte - s := utf8.EncodeRune(d[:], rr) - r.token.byteValue = append(r.token.byteValue, d[:s]...) - return read, nil - } - - return 0, errors.New("syntax error") -} - -// fetchString scans a string literal token. -func (r *Lexer) fetchString() { - r.pos++ - data := r.Data[r.pos:] - - hasEscapes, length := findStringLen(data) - if !hasEscapes { - r.token.byteValue = data[:length] - r.pos += length + 1 - return - } - - r.token.byteValue = make([]byte, 0, length) - p := 0 - for i := 0; i < len(data); { - switch data[i] { - case '"': - r.pos += i + 1 - r.token.byteValue = append(r.token.byteValue, data[p:i]...) - i++ - return - - case '\\': - r.token.byteValue = append(r.token.byteValue, data[p:i]...) - off, err := r.processEscape(data[i:]) - if err != nil { - r.errParse(err.Error()) - return - } - i += off - p = i - - default: - i++ - } - } - r.errParse("unterminated string literal") -} - -// scanToken scans the next token if no token is currently available in the lexer. -func (r *Lexer) scanToken() { - if r.token.kind != tokenUndef || r.fatalError != nil { - return - } - - r.FetchToken() -} - -// consume resets the current token to allow scanning the next one. -func (r *Lexer) consume() { - r.token.kind = tokenUndef - r.token.delimValue = 0 -} - -// Ok returns true if no error (including io.EOF) was encountered during scanning. -func (r *Lexer) Ok() bool { - return r.fatalError == nil -} - -const maxErrorContextLen = 13 - -func (r *Lexer) errParse(what string) { - if r.fatalError == nil { - var str string - if len(r.Data)-r.pos <= maxErrorContextLen { - str = string(r.Data) - } else { - str = string(r.Data[r.pos:r.pos+maxErrorContextLen-3]) + "..." - } - r.fatalError = &LexerError{ - Reason: what, - Offset: r.pos, - Data: str, - } - } -} - -func (r *Lexer) errSyntax() { - r.errParse("syntax error") -} - -func (r *Lexer) errInvalidToken(expected string) { - if r.fatalError != nil { - return - } - if r.UseMultipleErrors { - r.pos = r.start - r.consume() - r.SkipRecursive() - switch expected { - case "[": - r.token.delimValue = ']' - r.token.kind = tokenDelim - case "{": - r.token.delimValue = '}' - r.token.kind = tokenDelim - } - r.addNonfatalError(&LexerError{ - Reason: fmt.Sprintf("expected %s", expected), - Offset: r.start, - Data: string(r.Data[r.start:r.pos]), - }) - return - } - - var str string - if len(r.token.byteValue) <= maxErrorContextLen { - str = string(r.token.byteValue) - } else { - str = string(r.token.byteValue[:maxErrorContextLen-3]) + "..." - } - r.fatalError = &LexerError{ - Reason: fmt.Sprintf("expected %s", expected), - Offset: r.pos, - Data: str, - } -} - -func (r *Lexer) GetPos() int { - return r.pos -} - -// Delim consumes a token and verifies that it is the given delimiter. -func (r *Lexer) Delim(c byte) { - if r.token.kind == tokenUndef && r.Ok() { - r.FetchToken() - } - - if !r.Ok() || r.token.delimValue != c { - r.consume() // errInvalidToken can change token if UseMultipleErrors is enabled. - r.errInvalidToken(string([]byte{c})) - } else { - r.consume() - } -} - -// IsDelim returns true if there was no scanning error and next token is the given delimiter. -func (r *Lexer) IsDelim(c byte) bool { - if r.token.kind == tokenUndef && r.Ok() { - r.FetchToken() - } - return !r.Ok() || r.token.delimValue == c -} - -// Null verifies that the next token is null and consumes it. -func (r *Lexer) Null() { - if r.token.kind == tokenUndef && r.Ok() { - r.FetchToken() - } - if !r.Ok() || r.token.kind != tokenNull { - r.errInvalidToken("null") - } - r.consume() -} - -// IsNull returns true if the next token is a null keyword. -func (r *Lexer) IsNull() bool { - if r.token.kind == tokenUndef && r.Ok() { - r.FetchToken() - } - return r.Ok() && r.token.kind == tokenNull -} - -// Skip skips a single token. -func (r *Lexer) Skip() { - if r.token.kind == tokenUndef && r.Ok() { - r.FetchToken() - } - r.consume() -} - -// SkipRecursive skips next array or object completely, or just skips a single token if not -// an array/object. -// -// Note: no syntax validation is performed on the skipped data. -func (r *Lexer) SkipRecursive() { - r.scanToken() - var start, end byte - - if r.token.delimValue == '{' { - start, end = '{', '}' - } else if r.token.delimValue == '[' { - start, end = '[', ']' - } else { - r.consume() - return - } - - r.consume() - - level := 1 - inQuotes := false - wasEscape := false - - for i, c := range r.Data[r.pos:] { - switch { - case c == start && !inQuotes: - level++ - case c == end && !inQuotes: - level-- - if level == 0 { - r.pos += i + 1 - return - } - case c == '\\' && inQuotes: - wasEscape = !wasEscape - continue - case c == '"' && inQuotes: - inQuotes = wasEscape - case c == '"': - inQuotes = true - } - wasEscape = false - } - r.pos = len(r.Data) - r.fatalError = &LexerError{ - Reason: "EOF reached while skipping array/object or token", - Offset: r.pos, - Data: string(r.Data[r.pos:]), - } -} - -// Raw fetches the next item recursively as a data slice -func (r *Lexer) Raw() []byte { - r.SkipRecursive() - if !r.Ok() { - return nil - } - return r.Data[r.start:r.pos] -} - -// IsStart returns whether the lexer is positioned at the start -// of an input string. -func (r *Lexer) IsStart() bool { - return r.pos == 0 -} - -// Consumed reads all remaining bytes from the input, publishing an error if -// there is anything but whitespace remaining. -func (r *Lexer) Consumed() { - if r.pos > len(r.Data) { - return - } - - for _, c := range r.Data[r.pos:] { - if c != ' ' && c != '\t' && c != '\r' && c != '\n' { - r.fatalError = &LexerError{ - Reason: "invalid character '" + string(c) + "' after top-level value", - Offset: r.pos, - Data: string(r.Data[r.pos:]), - } - return - } - - r.pos++ - r.start++ - } -} - -func (r *Lexer) unsafeString() (string, []byte) { - if r.token.kind == tokenUndef && r.Ok() { - r.FetchToken() - } - if !r.Ok() || r.token.kind != tokenString { - r.errInvalidToken("string") - return "", nil - } - bytes := r.token.byteValue - ret := bytesToStr(r.token.byteValue) - r.consume() - return ret, bytes -} - -// UnsafeString returns the string value if the token is a string literal. -// -// Warning: returned string may point to the input buffer, so the string should not outlive -// the input buffer. Intended pattern of usage is as an argument to a switch statement. -func (r *Lexer) UnsafeString() string { - ret, _ := r.unsafeString() - return ret -} - -// String reads a string literal. -func (r *Lexer) String() string { - if r.token.kind == tokenUndef && r.Ok() { - r.FetchToken() - } - if !r.Ok() || r.token.kind != tokenString { - r.errInvalidToken("string") - return "" - } - ret := string(r.token.byteValue) - r.consume() - return ret -} - -// Bytes reads a string literal and base64 decodes it into a byte slice. -func (r *Lexer) Bytes() []byte { - if r.token.kind == tokenUndef && r.Ok() { - r.FetchToken() - } - if !r.Ok() || r.token.kind != tokenString { - r.errInvalidToken("string") - return nil - } - ret := make([]byte, base64.StdEncoding.DecodedLen(len(r.token.byteValue))) - len, err := base64.StdEncoding.Decode(ret, r.token.byteValue) - if err != nil { - r.fatalError = &LexerError{ - Reason: err.Error(), - } - return nil - } - - r.consume() - return ret[:len] -} - -// Bool reads a true or false boolean keyword. -func (r *Lexer) Bool() bool { - if r.token.kind == tokenUndef && r.Ok() { - r.FetchToken() - } - if !r.Ok() || r.token.kind != tokenBool { - r.errInvalidToken("bool") - return false - } - ret := r.token.boolValue - r.consume() - return ret -} - -func (r *Lexer) number() string { - if r.token.kind == tokenUndef && r.Ok() { - r.FetchToken() - } - if !r.Ok() || r.token.kind != tokenNumber { - r.errInvalidToken("number") - return "" - } - ret := bytesToStr(r.token.byteValue) - r.consume() - return ret -} - -func (r *Lexer) Uint8() uint8 { - s := r.number() - if !r.Ok() { - return 0 - } - - n, err := strconv.ParseUint(s, 10, 8) - if err != nil { - r.addNonfatalError(&LexerError{ - Offset: r.start, - Reason: err.Error(), - Data: s, - }) - } - return uint8(n) -} - -func (r *Lexer) Uint16() uint16 { - s := r.number() - if !r.Ok() { - return 0 - } - - n, err := strconv.ParseUint(s, 10, 16) - if err != nil { - r.addNonfatalError(&LexerError{ - Offset: r.start, - Reason: err.Error(), - Data: s, - }) - } - return uint16(n) -} - -func (r *Lexer) Uint32() uint32 { - s := r.number() - if !r.Ok() { - return 0 - } - - n, err := strconv.ParseUint(s, 10, 32) - if err != nil { - r.addNonfatalError(&LexerError{ - Offset: r.start, - Reason: err.Error(), - Data: s, - }) - } - return uint32(n) -} - -func (r *Lexer) Uint64() uint64 { - s := r.number() - if !r.Ok() { - return 0 - } - - n, err := strconv.ParseUint(s, 10, 64) - if err != nil { - r.addNonfatalError(&LexerError{ - Offset: r.start, - Reason: err.Error(), - Data: s, - }) - } - return n -} - -func (r *Lexer) Uint() uint { - return uint(r.Uint64()) -} - -func (r *Lexer) Int8() int8 { - s := r.number() - if !r.Ok() { - return 0 - } - - n, err := strconv.ParseInt(s, 10, 8) - if err != nil { - r.addNonfatalError(&LexerError{ - Offset: r.start, - Reason: err.Error(), - Data: s, - }) - } - return int8(n) -} - -func (r *Lexer) Int16() int16 { - s := r.number() - if !r.Ok() { - return 0 - } - - n, err := strconv.ParseInt(s, 10, 16) - if err != nil { - r.addNonfatalError(&LexerError{ - Offset: r.start, - Reason: err.Error(), - Data: s, - }) - } - return int16(n) -} - -func (r *Lexer) Int32() int32 { - s := r.number() - if !r.Ok() { - return 0 - } - - n, err := strconv.ParseInt(s, 10, 32) - if err != nil { - r.addNonfatalError(&LexerError{ - Offset: r.start, - Reason: err.Error(), - Data: s, - }) - } - return int32(n) -} - -func (r *Lexer) Int64() int64 { - s := r.number() - if !r.Ok() { - return 0 - } - - n, err := strconv.ParseInt(s, 10, 64) - if err != nil { - r.addNonfatalError(&LexerError{ - Offset: r.start, - Reason: err.Error(), - Data: s, - }) - } - return n -} - -func (r *Lexer) Int() int { - return int(r.Int64()) -} - -func (r *Lexer) Uint8Str() uint8 { - s, b := r.unsafeString() - if !r.Ok() { - return 0 - } - - n, err := strconv.ParseUint(s, 10, 8) - if err != nil { - r.addNonfatalError(&LexerError{ - Offset: r.start, - Reason: err.Error(), - Data: string(b), - }) - } - return uint8(n) -} - -func (r *Lexer) Uint16Str() uint16 { - s, b := r.unsafeString() - if !r.Ok() { - return 0 - } - - n, err := strconv.ParseUint(s, 10, 16) - if err != nil { - r.addNonfatalError(&LexerError{ - Offset: r.start, - Reason: err.Error(), - Data: string(b), - }) - } - return uint16(n) -} - -func (r *Lexer) Uint32Str() uint32 { - s, b := r.unsafeString() - if !r.Ok() { - return 0 - } - - n, err := strconv.ParseUint(s, 10, 32) - if err != nil { - r.addNonfatalError(&LexerError{ - Offset: r.start, - Reason: err.Error(), - Data: string(b), - }) - } - return uint32(n) -} - -func (r *Lexer) Uint64Str() uint64 { - s, b := r.unsafeString() - if !r.Ok() { - return 0 - } - - n, err := strconv.ParseUint(s, 10, 64) - if err != nil { - r.addNonfatalError(&LexerError{ - Offset: r.start, - Reason: err.Error(), - Data: string(b), - }) - } - return n -} - -func (r *Lexer) UintStr() uint { - return uint(r.Uint64Str()) -} - -func (r *Lexer) Int8Str() int8 { - s, b := r.unsafeString() - if !r.Ok() { - return 0 - } - - n, err := strconv.ParseInt(s, 10, 8) - if err != nil { - r.addNonfatalError(&LexerError{ - Offset: r.start, - Reason: err.Error(), - Data: string(b), - }) - } - return int8(n) -} - -func (r *Lexer) Int16Str() int16 { - s, b := r.unsafeString() - if !r.Ok() { - return 0 - } - - n, err := strconv.ParseInt(s, 10, 16) - if err != nil { - r.addNonfatalError(&LexerError{ - Offset: r.start, - Reason: err.Error(), - Data: string(b), - }) - } - return int16(n) -} - -func (r *Lexer) Int32Str() int32 { - s, b := r.unsafeString() - if !r.Ok() { - return 0 - } - - n, err := strconv.ParseInt(s, 10, 32) - if err != nil { - r.addNonfatalError(&LexerError{ - Offset: r.start, - Reason: err.Error(), - Data: string(b), - }) - } - return int32(n) -} - -func (r *Lexer) Int64Str() int64 { - s, b := r.unsafeString() - if !r.Ok() { - return 0 - } - - n, err := strconv.ParseInt(s, 10, 64) - if err != nil { - r.addNonfatalError(&LexerError{ - Offset: r.start, - Reason: err.Error(), - Data: string(b), - }) - } - return n -} - -func (r *Lexer) IntStr() int { - return int(r.Int64Str()) -} - -func (r *Lexer) Float32() float32 { - s := r.number() - if !r.Ok() { - return 0 - } - - n, err := strconv.ParseFloat(s, 32) - if err != nil { - r.addNonfatalError(&LexerError{ - Offset: r.start, - Reason: err.Error(), - Data: s, - }) - } - return float32(n) -} - -func (r *Lexer) Float64() float64 { - s := r.number() - if !r.Ok() { - return 0 - } - - n, err := strconv.ParseFloat(s, 64) - if err != nil { - r.addNonfatalError(&LexerError{ - Offset: r.start, - Reason: err.Error(), - Data: s, - }) - } - return n -} - -func (r *Lexer) Error() error { - return r.fatalError -} - -func (r *Lexer) AddError(e error) { - if r.fatalError == nil { - r.fatalError = e - } -} - -func (r *Lexer) AddNonFatalError(e error) { - r.addNonfatalError(&LexerError{ - Offset: r.start, - Data: string(r.Data[r.start:r.pos]), - Reason: e.Error(), - }) -} - -func (r *Lexer) addNonfatalError(err *LexerError) { - if r.UseMultipleErrors { - // We don't want to add errors with the same offset. - if len(r.multipleErrors) != 0 && r.multipleErrors[len(r.multipleErrors)-1].Offset == err.Offset { - return - } - r.multipleErrors = append(r.multipleErrors, err) - return - } - r.fatalError = err -} - -func (r *Lexer) GetNonFatalErrors() []*LexerError { - return r.multipleErrors -} - -// Interface fetches an interface{} analogous to the 'encoding/json' package. -func (r *Lexer) Interface() interface{} { - if r.token.kind == tokenUndef && r.Ok() { - r.FetchToken() - } - - if !r.Ok() { - return nil - } - switch r.token.kind { - case tokenString: - return r.String() - case tokenNumber: - return r.Float64() - case tokenBool: - return r.Bool() - case tokenNull: - r.Null() - return nil - } - - if r.token.delimValue == '{' { - r.consume() - - ret := map[string]interface{}{} - for !r.IsDelim('}') { - key := r.String() - r.WantColon() - ret[key] = r.Interface() - r.WantComma() - } - r.Delim('}') - - if r.Ok() { - return ret - } else { - return nil - } - } else if r.token.delimValue == '[' { - r.consume() - - var ret []interface{} - for !r.IsDelim(']') { - ret = append(ret, r.Interface()) - r.WantComma() - } - r.Delim(']') - - if r.Ok() { - return ret - } else { - return nil - } - } - r.errSyntax() - return nil -} - -// WantComma requires a comma to be present before fetching next token. -func (r *Lexer) WantComma() { - r.wantSep = ',' - r.firstElement = false -} - -// WantColon requires a colon to be present before fetching next token. -func (r *Lexer) WantColon() { - r.wantSep = ':' - r.firstElement = false -} -- cgit v1.2.3-54-g00ecf