Primer paso de la investigacion. Se aportan el .apk, las carpetas con el apk extraido y el apk descompilado. El archivo API_DOCUMENTATION.md es un archivo donde se anotaran los descubrimientos del funcionamiento de la API, y los .py son scripts para probar la funcionalidad de la API con los métodos que vayamos encontrando. Finalmente, los archivos .js son scripts de Frida para extraer informacion de la APP durante la ejecucion.

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2025-12-04 13:59:54 +01:00
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package kotlin.reflect.full;
import java.lang.annotation.Annotation;
import java.util.ArrayList;
import java.util.List;
import kotlin.Metadata;
import kotlin.NoWhenBranchMatchedException;
import kotlin.SinceKotlin;
import kotlin.collections.CollectionsKt;
import kotlin.collections.CollectionsKt__IterablesKt;
import kotlin.jvm.JvmName;
import kotlin.jvm.internal.Intrinsics;
import kotlin.jvm.internal.SourceDebugExtension;
import kotlin.reflect.KClassifier;
import kotlin.reflect.KType;
import kotlin.reflect.KTypeProjection;
import kotlin.reflect.KVariance;
import kotlin.reflect.jvm.internal.KClassifierImpl;
import kotlin.reflect.jvm.internal.KTypeImpl;
import kotlin.reflect.jvm.internal.KotlinReflectionInternalError;
import kotlin.reflect.jvm.internal.impl.descriptors.ClassifierDescriptor;
import kotlin.reflect.jvm.internal.impl.descriptors.TypeParameterDescriptor;
import kotlin.reflect.jvm.internal.impl.types.KotlinType;
import kotlin.reflect.jvm.internal.impl.types.KotlinTypeFactory;
import kotlin.reflect.jvm.internal.impl.types.SimpleType;
import kotlin.reflect.jvm.internal.impl.types.StarProjectionImpl;
import kotlin.reflect.jvm.internal.impl.types.TypeAttributes;
import kotlin.reflect.jvm.internal.impl.types.TypeConstructor;
import kotlin.reflect.jvm.internal.impl.types.TypeProjectionBase;
import kotlin.reflect.jvm.internal.impl.types.TypeProjectionImpl;
import kotlin.reflect.jvm.internal.impl.types.Variance;
import kotlin.reflect.jvm.internal.impl.types.checker.KotlinTypeRefiner;
@Metadata(d1 = {"\u00008\n\u0000\n\u0002\u0018\u0002\n\u0002\u0018\u0002\n\u0002\b\u0005\n\u0002\u0018\u0002\n\u0000\n\u0002\u0018\u0002\n\u0000\n\u0002\u0018\u0002\n\u0000\n\u0002\u0010 \n\u0002\u0018\u0002\n\u0000\n\u0002\u0010\u000b\n\u0002\b\u0002\n\u0002\u0010\u001b\n\u0000\u001a.\u0010\u0007\u001a\u00020\b2\u0006\u0010\t\u001a\u00020\n2\u0006\u0010\u000b\u001a\u00020\f2\f\u0010\r\u001a\b\u0012\u0004\u0012\u00020\u000f0\u000e2\u0006\u0010\u0010\u001a\u00020\u0011H\u0002\u001a6\u0010\u0012\u001a\u00020\u0001*\u00020\u00022\u000e\b\u0002\u0010\r\u001a\b\u0012\u0004\u0012\u00020\u000f0\u000e2\b\b\u0002\u0010\u0010\u001a\u00020\u00112\u000e\b\u0002\u0010\u0013\u001a\b\u0012\u0004\u0012\u00020\u00140\u000eH\u0007\"\u001e\u0010\u0000\u001a\u00020\u0001*\u00020\u00028FX\u0087\u0004¢\u0006\f\u0012\u0004\b\u0003\u0010\u0004\u001a\u0004\b\u0005\u0010\u0006¨\u0006\u0015"}, d2 = {"starProjectedType", "Lkotlin/reflect/KType;", "Lkotlin/reflect/KClassifier;", "getStarProjectedType$annotations", "(Lkotlin/reflect/KClassifier;)V", "getStarProjectedType", "(Lkotlin/reflect/KClassifier;)Lkotlin/reflect/KType;", "createKotlinType", "Lkotlin/reflect/jvm/internal/impl/types/SimpleType;", "attributes", "Lkotlin/reflect/jvm/internal/impl/types/TypeAttributes;", "typeConstructor", "Lkotlin/reflect/jvm/internal/impl/types/TypeConstructor;", "arguments", "", "Lkotlin/reflect/KTypeProjection;", "nullable", "", "createType", "annotations", "", "kotlin-reflection"}, k = 2, mv = {1, 9, 0}, xi = 48)
@JvmName(name = "KClassifiers")
@SourceDebugExtension({"SMAP\nKClassifiers.kt\nKotlin\n*S Kotlin\n*F\n+ 1 KClassifiers.kt\nkotlin/reflect/full/KClassifiers\n+ 2 _Collections.kt\nkotlin/collections/CollectionsKt___CollectionsKt\n*L\n1#1,97:1\n1559#2:98\n1590#2,4:99\n1549#2:103\n1620#2,3:104\n*S KotlinDebug\n*F\n+ 1 KClassifiers.kt\nkotlin/reflect/full/KClassifiers\n*L\n69#1:98\n69#1:99,4\n95#1:103\n95#1:104,3\n*E\n"})
/* loaded from: classes3.dex */
public final class KClassifiers {
@Metadata(k = 3, mv = {1, 9, 0}, xi = 48)
/* loaded from: classes3.dex */
public /* synthetic */ class WhenMappings {
public static final /* synthetic */ int[] $EnumSwitchMapping$0;
static {
int[] iArr = new int[KVariance.values().length];
try {
iArr[KVariance.INVARIANT.ordinal()] = 1;
} catch (NoSuchFieldError unused) {
}
try {
iArr[KVariance.IN.ordinal()] = 2;
} catch (NoSuchFieldError unused2) {
}
try {
iArr[KVariance.OUT.ordinal()] = 3;
} catch (NoSuchFieldError unused3) {
}
$EnumSwitchMapping$0 = iArr;
}
}
private static final SimpleType createKotlinType(TypeAttributes typeAttributes, TypeConstructor typeConstructor, List<KTypeProjection> list, boolean z3) {
int collectionSizeOrDefault;
TypeProjectionBase starProjectionImpl;
List<TypeParameterDescriptor> parameters = typeConstructor.getParameters();
Intrinsics.checkNotNullExpressionValue(parameters, "getParameters(...)");
List<KTypeProjection> list2 = list;
collectionSizeOrDefault = CollectionsKt__IterablesKt.collectionSizeOrDefault(list2, 10);
ArrayList arrayList = new ArrayList(collectionSizeOrDefault);
int i = 0;
for (Object obj : list2) {
int i4 = i + 1;
if (i < 0) {
CollectionsKt.throwIndexOverflow();
}
KTypeProjection kTypeProjection = (KTypeProjection) obj;
KTypeImpl kTypeImpl = (KTypeImpl) kTypeProjection.getType();
KotlinType type = kTypeImpl != null ? kTypeImpl.getType() : null;
KVariance variance = kTypeProjection.getVariance();
int i5 = variance == null ? -1 : WhenMappings.$EnumSwitchMapping$0[variance.ordinal()];
if (i5 == -1) {
TypeParameterDescriptor typeParameterDescriptor = parameters.get(i);
Intrinsics.checkNotNullExpressionValue(typeParameterDescriptor, "get(...)");
starProjectionImpl = new StarProjectionImpl(typeParameterDescriptor);
} else if (i5 == 1) {
Variance variance2 = Variance.INVARIANT;
Intrinsics.checkNotNull(type);
starProjectionImpl = new TypeProjectionImpl(variance2, type);
} else if (i5 == 2) {
Variance variance3 = Variance.IN_VARIANCE;
Intrinsics.checkNotNull(type);
starProjectionImpl = new TypeProjectionImpl(variance3, type);
} else {
if (i5 != 3) {
throw new NoWhenBranchMatchedException();
}
Variance variance4 = Variance.OUT_VARIANCE;
Intrinsics.checkNotNull(type);
starProjectionImpl = new TypeProjectionImpl(variance4, type);
}
arrayList.add(starProjectionImpl);
i = i4;
}
return KotlinTypeFactory.simpleType$default(typeAttributes, typeConstructor, arrayList, z3, (KotlinTypeRefiner) null, 16, (Object) null);
}
@SinceKotlin(version = "1.1")
public static final KType createType(KClassifier kClassifier, List<KTypeProjection> arguments, boolean z3, List<? extends Annotation> annotations) {
ClassifierDescriptor descriptor;
Intrinsics.checkNotNullParameter(kClassifier, "<this>");
Intrinsics.checkNotNullParameter(arguments, "arguments");
Intrinsics.checkNotNullParameter(annotations, "annotations");
KClassifierImpl kClassifierImpl = kClassifier instanceof KClassifierImpl ? (KClassifierImpl) kClassifier : null;
if (kClassifierImpl == null || (descriptor = kClassifierImpl.getDescriptor()) == null) {
throw new KotlinReflectionInternalError("Cannot create type for an unsupported classifier: " + kClassifier + " (" + kClassifier.getClass() + ')');
}
TypeConstructor typeConstructor = descriptor.getTypeConstructor();
Intrinsics.checkNotNullExpressionValue(typeConstructor, "getTypeConstructor(...)");
List<TypeParameterDescriptor> parameters = typeConstructor.getParameters();
Intrinsics.checkNotNullExpressionValue(parameters, "getParameters(...)");
if (parameters.size() == arguments.size()) {
return new KTypeImpl(createKotlinType(annotations.isEmpty() ? TypeAttributes.Companion.getEmpty() : TypeAttributes.Companion.getEmpty(), typeConstructor, arguments, z3), null, 2, null);
}
throw new IllegalArgumentException("Class declares " + parameters.size() + " type parameters, but " + arguments.size() + " were provided.");
}
public static /* synthetic */ KType createType$default(KClassifier kClassifier, List list, boolean z3, List list2, int i, Object obj) {
if ((i & 1) != 0) {
list = CollectionsKt.emptyList();
}
if ((i & 2) != 0) {
z3 = false;
}
if ((i & 4) != 0) {
list2 = CollectionsKt.emptyList();
}
return createType(kClassifier, list, z3, list2);
}
public static final KType getStarProjectedType(KClassifier kClassifier) {
ClassifierDescriptor descriptor;
int collectionSizeOrDefault;
Intrinsics.checkNotNullParameter(kClassifier, "<this>");
KClassifierImpl kClassifierImpl = kClassifier instanceof KClassifierImpl ? (KClassifierImpl) kClassifier : null;
if (kClassifierImpl == null || (descriptor = kClassifierImpl.getDescriptor()) == null) {
return createType$default(kClassifier, null, false, null, 7, null);
}
List<TypeParameterDescriptor> parameters = descriptor.getTypeConstructor().getParameters();
Intrinsics.checkNotNullExpressionValue(parameters, "getParameters(...)");
if (parameters.isEmpty()) {
return createType$default(kClassifier, null, false, null, 7, null);
}
List<TypeParameterDescriptor> list = parameters;
collectionSizeOrDefault = CollectionsKt__IterablesKt.collectionSizeOrDefault(list, 10);
ArrayList arrayList = new ArrayList(collectionSizeOrDefault);
for (TypeParameterDescriptor typeParameterDescriptor : list) {
arrayList.add(KTypeProjection.INSTANCE.getSTAR());
}
return createType$default(kClassifier, arrayList, false, null, 6, null);
}
@SinceKotlin(version = "1.1")
public static /* synthetic */ void getStarProjectedType$annotations(KClassifier kClassifier) {
}
}