)

// Symbolizer implements the plugin.Symbolize interface.
type Symbolizer struct {
	Obj       plugin.ObjTool
	UI        plugin.UI
	Transport http.RoundTripper
}

// test taps for dependency injection
var symbolzSymbolize = symbolz.Symbolize
var localSymbolize = doLocalSymbolize
var demangleFunction = Demangle

// Symbolize attempts to symbolize profile p. First uses binutils on

// are the RelocIndex[i]-th (inclusive) to RelocIndex[i+1]-th (exclusive)
// elements in the Relocs array. Aux/Data are likewise. (The index is
// 0-based.)

// Auxiliary symbols.
//
// Each symbol may (or may not) be associated with a number of auxiliary
// symbols. They are described in the Aux block. See Aux struct below.
// Currently a symbol's Gotype, FuncInfo, and associated DWARF symbols
// are auxiliary symbols.

//
// Background: DLL import symbols are data (SNOPTRDATA) symbols whose
// name is of the form "__imp_XXX", which contain a pointer/reference
// to symbol XXX. It's possible to have import symbols for both data
// symbols ("__imp__fmode") and text symbols ("__imp_CreateEventA").
// In some case import symbols are just references to some external
// thing, and in other cases we see actual definitions of import
// symbols when reading host objects.
//

import org.jetbrains.kotlin.analysis.api.scopes.KaTypeScope
import org.jetbrains.kotlin.analysis.api.symbols.KaFileSymbol
import org.jetbrains.kotlin.analysis.api.symbols.KaPackageSymbol
import org.jetbrains.kotlin.analysis.api.symbols.KaSymbol
import org.jetbrains.kotlin.analysis.api.symbols.markers.KaSymbolWithMembers
import org.jetbrains.kotlin.analysis.api.types.KaType
import org.jetbrains.kotlin.psi.KtElement

            analyseForTest(mainFile) {
                val (symbols, symbolForPrettyRendering) = collectSymbols(mainFile, testServices)

                checkContainingFiles(symbols, mainFile, testServices)

                val pointerWithRenderedSymbol = symbols
                    .asSequence()
                    .flatMap { symbol ->
                        sequenceOf(symbol to true) + symbol.withImplicitSymbols().map { implicitSymbol ->

	// symbol reference in the object file.
	pkgIdx map[string]int32

	defs         []*LSym // list of defined symbols in the current package
	hashed64defs []*LSym // list of defined short (64-bit or less) hashed (content-addressable) symbols
	hasheddefs   []*LSym // list of defined hashed (content-addressable) symbols
	nonpkgdefs   []*LSym // list of defined non-package symbols

        val platform = getContainingModule(symbol).platform
        if (!platform.has<JvmPlatform>()) return null

        val containingSymbolOrSelf = when (symbol) {
            is KaValueParameterSymbol -> {
                getContainingDeclaration(symbol) as? KaFunctionLikeSymbol ?: symbol
            }
            is KaPropertyAccessorSymbol -> {

    }

    override fun buildSelfClassType(symbol: KaNamedClassOrObjectSymbol): KaType {
        require(symbol is KaFirNamedClassOrObjectSymbol)
        symbol.firSymbol.lazyResolveToPhase(FirResolvePhase.SUPER_TYPES)
        val firClass = symbol.firSymbol.fir
        val type = ConeClassLikeTypeImpl(
            firClass.symbol.toLookupTag(),

    }

    private inline fun <reified T : DeclarationDescriptor> getDescriptor(symbol: KaSymbol): T? {
        return when (symbol) {
            is KaFe10DescSymbol<*> -> symbol.descriptor as? T
            is KaFe10PsiSymbol<*, *> -> symbol.descriptor as? T
            else -> {
                require(symbol is KaFe10Symbol) { "Unrecognized symbol implementation found" }
                null
            }
        }
    }

	// This preserves the length of symbols, preventing the following two symbols
	// from hashing the same:
	//
	//    [2]int{1,2} ≠ [10]int{1,2,0,0,0...}
	//
	// In this case, if the smaller symbol is alive, the larger is not kept unless
	// needed.
	binary.LittleEndian.PutUint64(tmp[:8], uint64(s.Size))
	// Some symbols require being in separate sections.
	tmp[8] = contentHashSection(s)