default:
				b = append(b, '\\', 'u', hex[(r>>12)&0xf], hex[(r>>8)&0xf], hex[(r>>4)&0xf], hex[(r>>0)&0xf])
			}
		case r < utf8.RuneSelf:
			b = append(b, byte(r))
		default:
			b = utf8.AppendRune(b, r)
		}
	}
	b = append(b, '"')
	return b

		p[1] = tx | byte(r>>12)&maskx
		p[2] = tx | byte(r>>6)&maskx
		p[3] = tx | byte(r)&maskx
		return 4
	}
}

// AppendRune appends the UTF-8 encoding of r to the end of p and
// returns the extended buffer. If the rune is out of range,
// it appends the encoding of [RuneError].
func AppendRune(p []byte, r rune) []byte {
	// This function is inlineable for fast handling of ASCII.
	if uint32(r) <= rune1Max {

pkg text/template/parse, type ContinueNode struct, Line int
pkg text/template/parse, type ContinueNode struct, embedded NodeType
pkg text/template/parse, type ContinueNode struct, embedded Pos

	// of a uint64 to a rune may lose precision that indicates an overflow.
	r := rune(c)
	if c > utf8.MaxRune {
		r = utf8.RuneError
	}
	buf := f.intbuf[:0]
	f.pad(utf8.AppendRune(buf, r))
}

// fmtQc formats an integer as a single-quoted, escaped Go character constant.
// If the character is not valid Unicode, it will print '\ufffd'.
func (f *fmt) fmtQc(c uint64) {
	r := rune(c)

		}
	}
	if w, ok := state.Width(); ok {
		b = strconv.AppendInt(b, int64(w), 10)
	}
	if p, ok := state.Precision(); ok {
		b = append(b, '.')
		b = strconv.AppendInt(b, int64(p), 10)
	}
	b = utf8.AppendRune(b, verb)
	return string(b)
}

// Use simple []byte instead of bytes.Buffer to avoid large dependency.
type buffer []byte

func (b *buffer) write(p []byte) {
	*b = append(*b, p...)
}

						break
					}
					r = utf8.RuneError
				} else {
					r = utf16.DecodeRune(r, rune(uint16s[i+1]))
					if r != utf8.RuneError {
						i++
					}
				}
			}
			buf = utf8.AppendRune(buf, r)
		}
		fd.readbyte = buf
		fd.readbyteOffset = 0
		if nw == 0 {
			break
		}
	}

	src := fd.readbyte[fd.readbyteOffset:]
	var i int
	for i = 0; i < len(src) && i < len(b); i++ {

            prettyPrint {
                appendLine("${KtDeclaration::class.simpleName}: ${declaration::class.simpleName}")

                appendLine("Symbol:")
                appendLine(symbol.render(KaDeclarationRendererForDebug.WITH_QUALIFIED_NAMES))

                appendLine()

                appendLine("Substitutor:")
                appendLine(stringRepresentation(substitutor))

                appendLine()

                .mapValues { (_, importedNames) -> importedNames.sorted() }

            appendLine("USED DECLARATIONS:")
            for ((path, elements) in sortedUsedDeclarations) {
                appendLine()
                appendLine("Declaration: $path")
                appendLine("By names: $elements")
            }

            appendLine()

            val sortedUnresolvedNames = importsAnalysis.unresolvedNames.sorted()

                appendLine("Expression: ${expression.text}")
                appendLine("${KaType::class.simpleName}: ${type.render(position = Variance.INVARIANT)}")
                appendLine()
                appendLine("${KaTypeScope::class.simpleName}:")
                appendLine(typeScope?.let { renderForTests(it) } ?: "NO_SCOPE")
                appendLine()

                appendLine("Declaration Scope:")

            buildString {
                appendLine("${KtAnnotationEntry::class.simpleName}: ${annotationEntry.text}")
                appendLine()
                appendLine("Resolved annotation symbol:")
                appendLine(annotationClassSymbol.render(KtDeclarationRendererForDebug.WITH_QUALIFIED_NAMES))
                appendLine()
                appendLine("Applicable targets: $applicableTargetsInOrder")
            }