default:
		return false

	case objabi.R_DWARFSECREF:
		out.Write32(uint32(sectoff))
		out.Write32(uint32(symdynid))
		out.Write16(ld.IMAGE_REL_ARM64_SECREL)

	case objabi.R_ADDR:
		out.Write32(uint32(sectoff))
		out.Write32(uint32(symdynid))
		if r.Size == 8 {
			out.Write16(ld.IMAGE_REL_ARM64_ADDR64)
		} else {
			out.Write16(ld.IMAGE_REL_ARM64_ADDR32)
		}

	case objabi.R_PEIMAGEOFF:

	out.Write32(uint32(e.Paddr))
	out.Write32(uint32(e.Filesz))
	out.Write32(uint32(e.Memsz))
	out.Write32(uint32(e.Flags))
	out.Write32(uint32(e.Align))
}

func elf64shdr(out *OutBuf, e *ElfShdr) {
	out.Write32(e.Name)
	out.Write32(uint32(e.Type))
	out.Write64(uint64(e.Flags))
	out.Write64(e.Addr)
	out.Write64(e.Off)
	out.Write64(e.Size)
	out.Write32(e.Link)
	out.Write32(e.Info)
	out.Write64(e.Addralign)

	case *image.Gray:
		nComponent = 1
	}
	// Write the Start Of Image marker.
	e.buf[0] = 0xff
	e.buf[1] = 0xd8
	e.write(e.buf[:2])
	// Write the quantization tables.
	e.writeDQT()
	// Write the image dimensions.
	e.writeSOF0(b.Size(), nComponent)
	// Write the Huffman tables.
	e.writeDHT(nComponent)
	// Write the image data.
	e.writeSOS(m)
	// Write the End Of Image marker.
	e.buf[0] = 0xff

	if len(name) > 8 {
		out.Write32(0)
		out.Write32(uint32(f.stringTable.add(name)))
	} else {
		out.WriteStringN(name, 8)
	}
	out.Write32(uint32(value))
	out.Write16(uint16(sectidx))
	out.Write16(typ)
	out.Write8(class)
	out.Write8(0) // no aux entries

	ldr.SetSymDynid(s, int32(f.symbolCount))

	f.symbolCount++
}

	out.Write64(uint64(sectoff))

	elfsym := ld.ElfSymForReloc(ctxt, r.Xsym)
	siz := r.Size
	switch r.Type {
	default:
		return false
	case objabi.R_ADDR, objabi.R_DWARFSECREF:
		if siz == 4 {
			out.Write64(uint64(elf.R_X86_64_32) | uint64(elfsym)<<32)
		} else if siz == 8 {
			out.Write64(uint64(elf.R_X86_64_64) | uint64(elfsym)<<32)
		} else {

	case objabi.R_ADDR, objabi.R_DWARFSECREF:
		if siz == 4 {
			out.Write32(uint32(elf.R_386_32) | uint32(elfsym)<<8)
		} else {
			return false
		}
	case objabi.R_GOTPCREL:
		if siz == 4 {
			out.Write32(uint32(elf.R_386_GOTPC))
			if ldr.SymName(r.Xsym) != "_GLOBAL_OFFSET_TABLE_" {
				out.Write32(uint32(sectoff))
				out.Write32(uint32(elf.R_386_GOT32) | uint32(elfsym)<<8)
			}
		} else {
			return false

		err = w.Close()
		if err != nil {
			// we cannot write an error to the writer anymore as the Encode call was successful.
			utilruntime.HandleError(fmt.Errorf("apiserver was unable to close cleanly the response writer: %v", err))
		}
		return
	}

	// make a best effort to write the object if a failure is detected
	utilruntime.HandleError(fmt.Errorf("apiserver was unable to write a JSON response: %v", err))
	status := ErrorToAPIStatus(err)

	"path"
	"slices"
	"strings"
	"time"
)

// Writer provides sequential writing of a tar archive.
// [Writer.WriteHeader] begins a new file with the provided [Header],
// and then Writer can be treated as an io.Writer to supply that file's data.
type Writer struct {
	w    io.Writer
	pad  int64      // Amount of padding to write after current file entry
	curr fileWriter // Writer for current file entry

}

// Write encodes p using quoted-printable encoding and writes it to the
// underlying [io.Writer]. It limits line length to 76 characters. The encoded
// bytes are not necessarily flushed until the [Writer] is closed.
func (w *Writer) Write(p []byte) (n int, err error) {
	for i, b := range p {
		switch {
		// Simple writes are done in batch.
		case b >= '!' && b <= '~' && b != '=':
			continue

// NewWriter creates a new byte format writer.
func NewWriter(w io.Writer, v version.Version) (*Writer, error) {
	_, err := version.WriteHeader(w, v)
	return &Writer{w: w, v: v, specs: v.Specs()}, err
}

// WriteEvent writes a single event to the trace wire format stream.
func (w *Writer) WriteEvent(e Event) error {
	// Check version.
	if e.Version != w.v {