// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.

#include "textflag.h"
#include "funcdata.h"

#define	REGCTXT	R29

// The frames of each of the two functions below contain two locals, at offsets
// that are known to the runtime.
//
// The first local is a bool called retValid with a whole pointer-word reserved

			return false
		}
	}
	return true
}

var frames = []string{
	"../testdata/video-001.gif",
	"../testdata/video-005.gray.gif",
}

func testEncodeAll(t *testing.T, go1Dot5Fields bool, useGlobalColorModel bool) {
	const width, height = 150, 103

	g0 := &GIF{
		Image:     make([]*image.Paletted, len(frames)),
		Delay:     make([]int, len(frames)),
		LoopCount: 5,
	}
	for i, f := range frames {

	MemProfileRate for the default value.

	profstackdepth: profstackdepth=128 (the default) will set the maximum stack
	depth used by all pprof profilers except for the CPU profiler to 128 frames.
	Stack traces that exceed this limit will be truncated to the limit starting
	from the leaf frame. Setting profstackdepth to any value above 1024 will
	silently default to 1024. Future versions of Go may remove this limitation

}

type internalObjFile struct {
	ObjFile
}

func (f *internalObjFile) SourceLine(frame uint64) ([]plugin.Frame, error) {
	frames, err := f.ObjFile.SourceLine(frame)
	if err != nil {
		return nil, err
	}
	var pluginFrames []plugin.Frame
	for _, f := range frames {
		pluginFrames = append(pluginFrames, plugin.Frame(f))
	}
	return pluginFrames, nil
}

var traceback_env uint32

// gotraceback returns the current traceback settings.
//
// If level is 0, suppress all tracebacks.
// If level is 1, show tracebacks, but exclude runtime frames.
// If level is 2, show tracebacks including runtime frames.
// If all is set, print all goroutine stacks. Otherwise, print just the current goroutine.
// If crash is set, crash (core dump, etc) after tracebacking.
//
//go:nosplit

    @Suppress("NOTHING_TO_INLINE")
    private inline fun buildPackageNamesSetFrom(vararg fqNameSets: Set<FqName>): Set<String> =
        buildSet {
            for (fqNameSet in fqNameSets) {
                fqNameSet.mapTo(this, FqName::asString)
            }
        }

    override fun getTopLevelProperties(callableId: CallableId): Collection<KtProperty> =

pointer against g->stackguard to check for overflow.  To cut one
instruction from the check sequence for functions with tiny frames,
the stack is allowed to protrude StackSmall bytes below the stack
guard.  Functions with large frames don't bother with the check and
always call morestack.  The sequences are (for amd64, others are
similar):

	guard = g->stackguard
	frame = function's stack frame size

func elimDeadAutosGeneric(f *Func) {
	addr := make(map[*Value]*ir.Name) // values that the address of the auto reaches
	elim := make(map[*Value]*ir.Name) // values that could be eliminated if the auto is
	var used ir.NameSet               // used autos that must be kept

	// visit the value and report whether any of the maps are updated
	visit := func(v *Value) (changed bool) {
		args := v.Args
		switch v.Op {

	}
	return w.w.Write(data)
}

type lengthDelimitedFrameReader struct {
	r         io.ReadCloser
	remaining int
}

// NewLengthDelimitedFrameReader returns an io.Reader that will decode length-prefixed
// frames off of a stream.
//
// The protocol is:
//
//	stream: message ...
//	message: prefix body
//	prefix: 4 byte uint32 in BigEndian order, denotes length of body
//	body: bytes (0..prefix)
//

	// where splice(2) will just return EINVAL; newer kernels support non-streams like UDP, but I really
	// doubt that splice(2) could help non-streams, cuz they usually send small frames respectively
	// and one splice call would result in one frame.
	// splice(2) is suitable for large data but the generation of fragments defeats its edge here.