startLine int32 // line number of start of function (func keyword/TEXT directive)
}

// An inlineUnwinder iterates over the stack of inlined calls at a PC by
// decoding the inline table. The last step of iteration is always the frame of
// the physical function, so there's always at least one frame.
//
// This is typically used as:
//

}

type H struct {
	A A `json:"ha"`
	C `json:",inline"`
}

type I struct {
	A A `json:"ia"`
	H `json:",inline"`

	UL1 UnknownLevel1 `json:"ul1"`
}

type UnknownLevel1 struct {
	A          int64 `json:"a"`
	InlinedAA  `json:",inline"`
	InlinedAAA `json:",inline"`
}
type InlinedAA struct {
	AA int64 `json:"aa"`
}
type InlinedAAA struct {

type InlCall struct {
	// index into ctx.InlTree describing the call inlined here
	InlIndex int

	// Position of the inlined call site.
	CallPos src.Pos

	// Dwarf abstract subroutine symbol (really *obj.LSym).
	AbsFunSym Sym

	// Indices of child inlines within Calls array above.
	Children []int

	// entries in this list are PAUTO's created by the inliner to
	// capture the promoted formals and locals of the inlined callee.

// pcBuf and dst should not overlap.
//
// fpunwindExpand checks if pcBuf contains logical frames (which include inlined
// frames) or physical frames (produced by frame pointer unwinding) using a
// sentinel value in pcBuf[0]. Logical frames are simply returned without the
// sentinel. Physical frames are turned into logical frames via inline unwinding
// and by applying the skip value that's stored in pcBuf[0].

          rangesBuffer.writeByte('-'.code)
          rangesBuffer.writeByte('-'.code)
        }
        is MappedRange.Inline1 -> {
          rangesBuffer.writeByte(range.b1)
          rangesBuffer.writeByte(range.b2)
          rangesBuffer.writeByte('-'.code)
        }
        is MappedRange.Inline2 -> {
          rangesBuffer.writeByte(range.b1)
          rangesBuffer.writeByte(range.b2)
          rangesBuffer.writeByte(range.b3)

}

type Text struct {
	Position
	Inline []Inline
	raw    string
}

func (b *Text) PrintHTML(buf *bytes.Buffer) {
	for _, x := range b.Inline {
		x.PrintHTML(buf)
	}
}

func (b *Text) printMarkdown(buf *bytes.Buffer, s mdState) {
	if s.prefix1 != "" {
		buf.WriteString(s.prefix1)
	} else {
		buf.WriteString(s.prefix)
	}
	var prev Inline
	for _, x := range b.Inline {

	return ok
}

// InlineData returns true if object contents are inlined alongside its metadata.
func (fi FileInfo) InlineData() bool {
	_, ok := fi.Metadata[ReservedMetadataPrefixLower+"inline-data"]
	// Earlier MinIO versions didn't reset "x-minio-internal-inline-data"
	// from fi.Metadata when the object was tiered. So, tiered objects

}


internal
fun MethodVisitor.GOTO(label: Label) {
    visitJumpInsn(Opcodes.GOTO, label)
}


internal
inline fun <reified T> MethodVisitor.TRY_CATCH(
    noinline tryBlock: MethodVisitor.() -> Unit,
    noinline catchBlock: MethodVisitor.() -> Unit
) =
    TRY_CATCH(T::class.internalName, tryBlock, catchBlock)


internal
fun MethodVisitor.TRY_CATCH(

        }
  }

  data class Inline1(
    override val rangeStart: Int,
    private val mappedTo: ByteString,
  ) : MappedRange {
    val b1: Int
      get() {
        val b3bit8 = mappedTo[0] and 0x80 != 0
        return if (b3bit8) 123 else 122
      }

    val b2: Int
      get() = mappedTo[0] and 0x7f
  }

  data class Inline2(
    override val rangeStart: Int,

		},
		// function, inlined
		{
			func(buf []byte) int { return testTracebackGenericFnInlined[int](buf) },
			"testTracebackGenericFnInlined[...](",
		},
		// method, not inlined
		{
			x.M,
			"testTracebackGenericTyp[...].M(",
		},
		// method, inlined
		{
			func(buf []byte) int { return x.Inlined(buf) },
			"testTracebackGenericTyp[...].Inlined(",
		},
	}
	var buf [1000]byte