val getters = functionsByName
            .filterKeys { it.startsWith("get") && it.substringAfter("get").firstOrNull()?.isUpperCase() == true }
            .mapValues { (_, functions) -> functions.singleOrNull { fn -> fn.parameters.all { it == fn.instanceParameter } } }
            .filterValues { it != null && includeMemberFilter.shouldIncludeMember(it) && isGradlePropertyType(it.returnType) }

import org.jetbrains.kotlin.analysis.api.symbols.KaValueParameterSymbol
import org.jetbrains.kotlin.analysis.api.types.KaSubstitutor

/**
 * A signature of a function-like symbol. This includes functions, getters, setters, lambdas, etc.
 */
public abstract class KaFunctionLikeSignature<out S : KaFunctionLikeSymbol> : KaCallableSignature<S>() {
    /**
     * The use-site-substituted value parameters.
     */

<!-- go.dev/issue/61405, CL 557835, CL 584596 -->
Go 1.23 makes the (Go 1.22) ["range-over-func" experiment](/wiki/RangefuncExperiment) a part of the language.
The "range" clause in a "for-range" loop now accepts iterator functions of the following types

	func(func() bool)
	func(func(K) bool)
	func(func(K, V) bool)

as range expressions.
Calls of the iterator argument function produce the iteration values for the "for-range" loop.

found in the _cgo_export.h generated header, after any preambles
copied from the cgo input files. Functions with multiple
return values are mapped to functions returning a struct.

Not all Go types can be mapped to C types in a useful way.
Go struct types are not supported; use a C struct type.
Go array types are not supported; use a C pointer.

Go functions that take arguments of type string may be called with the

import org.jetbrains.kotlin.analysis.api.symbols.markers.KaSymbolWithTypeParameters

/**
 * Represents a symbol of declaration which can be directly expressed in source code.
 * Eg, classes, type parameters or functions are [KaDeclarationSymbol], but files and packages are not
 */
public sealed interface KaDeclarationSymbol : KaSymbol, KaSymbolWithTypeParameters, KaAnnotatedSymbol

        val getters = functionsByName
            .filterKeys { it.startsWith("get") && it.substringAfter("get").firstOrNull()?.isUpperCase() == true }
            .mapValues { (_, functions) -> functions.singleOrNull { fn -> fn.parameters.all { it == fn.instanceParameter } } }
            .filterValues { it != null && includeMemberFilter.shouldIncludeMember(it) }
        return getters.mapNotNull { (name, getter) ->

		}
		p[n] = byte(val)
		val >>= 8
		pos--
	}
	*readPos = pos
	*readVal = val
	return
}

/*
 * Top-level convenience functions
 */

// globalRandGenerator is the source of random numbers for the top-level
// convenience functions. When possible it uses the runtime fastrand64
// function to avoid locking. This is not possible if the user called Seed,

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

package abi

type RF_State int

// These constants are shared between the compiler, which uses them for state functions
// and panic indicators, and the runtime, which turns them into more meaningful strings
// For best code generation, RF_DONE and RF_READY should be 0 and 1.
const (

			factoryType := res.Type
			if t, ok := factoryType.(*ast.ArrayType); ok {
				// We consider functions that return slices or arrays of type
				// T (or pointers to T) as factory functions of T.
				factoryType = t.Elt
			}
			if n, imp := baseTypeName(factoryType); !imp && r.isVisible(n) && !r.isPredeclared(n) {
				if lookupTypeParam(n, fun.Type.TypeParams) != nil {

    ): DataClass {
        val properties = preIndex.getAllProperties(kClass)

        val functions = functionExtractor.memberFunctions(kClass, preIndex)
        val constructors = functionExtractor.constructors(kClass, preIndex)
        val name = kClass.fqName
        return DefaultDataClass(name, supertypesOf(kClass), properties, functions.toList(), constructors.toList())
    }

    private