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package kotlin.reflect.full;
import java.lang.annotation.Annotation;
import java.util.ArrayList;
import java.util.Collection;
import java.util.List;
import kotlin.Metadata;
import kotlin.NoWhenBranchMatchedException;
import kotlin.collections.CollectionsKt;
import kotlin.jvm.functions.Function0;
import kotlin.jvm.internal.DefaultConstructorMarker;
import kotlin.jvm.internal.Intrinsics;
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.TypeParameterDescriptor;
import kotlin.reflect.jvm.internal.impl.descriptors.annotations.Annotations;
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.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\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;", "typeAnnotations", "Lkotlin/reflect/jvm/internal/impl/descriptors/annotations/Annotations;", "typeConstructor", "Lkotlin/reflect/jvm/internal/impl/types/TypeConstructor;", "arguments", "", "Lkotlin/reflect/KTypeProjection;", "nullable", "", "createType", "annotations", "", "kotlin-reflection"}, k = 2, mv = {1, 6, 0}, xi = 48)
/* compiled from: KClassifiers.kt */
public final class KClassifiers {
@Metadata(k = 3, mv = {1, 6, 0}, xi = 48)
/* compiled from: KClassifiers.kt */
public /* synthetic */ class WhenMappings {
public static final /* synthetic */ int[] $EnumSwitchMapping$0;
static {
int[] iArr = new int[KVariance.values().length];
iArr[KVariance.INVARIANT.ordinal()] = 1;
iArr[KVariance.IN.ordinal()] = 2;
iArr[KVariance.OUT.ordinal()] = 3;
$EnumSwitchMapping$0 = iArr;
}
}
public static /* synthetic */ void getStarProjectedType$annotations(KClassifier kClassifier) {
}
public static /* synthetic */ KType createType$default(KClassifier kClassifier, List list, boolean z, List list2, int i, Object obj) {
if ((i & 1) != 0) {
list = CollectionsKt.emptyList();
}
if ((i & 2) != 0) {
z = false;
}
if ((i & 4) != 0) {
list2 = CollectionsKt.emptyList();
}
return createType(kClassifier, list, z, list2);
}
public static final KType createType(KClassifier kClassifier, List<KTypeProjection> list, boolean z, List<? extends Annotation> list2) {
Annotations annotations;
Intrinsics.checkNotNullParameter(kClassifier, "<this>");
Intrinsics.checkNotNullParameter(list, "arguments");
Intrinsics.checkNotNullParameter(list2, "annotations");
KClassifierImpl kClassifierImpl = kClassifier instanceof KClassifierImpl ? (KClassifierImpl) kClassifier : null;
if (kClassifierImpl != null) {
TypeConstructor typeConstructor = kClassifierImpl.getDescriptor().getTypeConstructor();
Intrinsics.checkNotNullExpressionValue(typeConstructor, "descriptor.typeConstructor");
List<TypeParameterDescriptor> parameters = typeConstructor.getParameters();
Intrinsics.checkNotNullExpressionValue(parameters, "typeConstructor.parameters");
if (parameters.size() == list.size()) {
if (list2.isEmpty()) {
annotations = Annotations.Companion.getEMPTY();
} else {
annotations = Annotations.Companion.getEMPTY();
}
return new KTypeImpl(createKotlinType(annotations, typeConstructor, list, z), (Function0) null, 2, (DefaultConstructorMarker) null);
}
throw new IllegalArgumentException("Class declares " + parameters.size() + " type parameters, but " + list.size() + " were provided.");
}
throw new KotlinReflectionInternalError("Cannot create type for an unsupported classifier: " + kClassifier + " (" + kClassifier.getClass() + ')');
}
private static final SimpleType createKotlinType(Annotations annotations, TypeConstructor typeConstructor, List<KTypeProjection> list, boolean z) {
TypeProjectionBase typeProjectionBase;
List<TypeParameterDescriptor> parameters = typeConstructor.getParameters();
Intrinsics.checkNotNullExpressionValue(parameters, "typeConstructor.parameters");
Iterable iterable = list;
Collection arrayList = new ArrayList(CollectionsKt.collectionSizeOrDefault(iterable, 10));
int i = 0;
for (Object next : iterable) {
int i2 = i + 1;
if (i < 0) {
CollectionsKt.throwIndexOverflow();
}
KTypeProjection kTypeProjection = (KTypeProjection) next;
KTypeImpl kTypeImpl = (KTypeImpl) kTypeProjection.getType();
KotlinType type = kTypeImpl == null ? null : kTypeImpl.getType();
KVariance variance = kTypeProjection.getVariance();
int i3 = variance == null ? -1 : WhenMappings.$EnumSwitchMapping$0[variance.ordinal()];
if (i3 == -1) {
TypeParameterDescriptor typeParameterDescriptor = parameters.get(i);
Intrinsics.checkNotNullExpressionValue(typeParameterDescriptor, "parameters[index]");
typeProjectionBase = new StarProjectionImpl(typeParameterDescriptor);
} else if (i3 == 1) {
Variance variance2 = Variance.INVARIANT;
Intrinsics.checkNotNull(type);
typeProjectionBase = new TypeProjectionImpl(variance2, type);
} else if (i3 == 2) {
Variance variance3 = Variance.IN_VARIANCE;
Intrinsics.checkNotNull(type);
typeProjectionBase = new TypeProjectionImpl(variance3, type);
} else if (i3 == 3) {
Variance variance4 = Variance.OUT_VARIANCE;
Intrinsics.checkNotNull(type);
typeProjectionBase = new TypeProjectionImpl(variance4, type);
} else {
throw new NoWhenBranchMatchedException();
}
arrayList.add(typeProjectionBase);
i = i2;
}
return KotlinTypeFactory.simpleType$default(annotations, typeConstructor, (List) arrayList, z, (KotlinTypeRefiner) null, 16, (Object) null);
}
public static final KType getStarProjectedType(KClassifier kClassifier) {
Intrinsics.checkNotNullParameter(kClassifier, "<this>");
KClassifierImpl kClassifierImpl = kClassifier instanceof KClassifierImpl ? (KClassifierImpl) kClassifier : null;
if (kClassifierImpl == null) {
return createType$default(kClassifier, (List) null, false, (List) null, 7, (Object) null);
}
List<TypeParameterDescriptor> parameters = kClassifierImpl.getDescriptor().getTypeConstructor().getParameters();
Intrinsics.checkNotNullExpressionValue(parameters, "descriptor.typeConstructor.parameters");
if (parameters.isEmpty()) {
return createType$default(kClassifier, (List) null, false, (List) null, 7, (Object) null);
}
Iterable<TypeParameterDescriptor> iterable = parameters;
Collection arrayList = new ArrayList(CollectionsKt.collectionSizeOrDefault(iterable, 10));
for (TypeParameterDescriptor typeParameterDescriptor : iterable) {
arrayList.add(KTypeProjection.Companion.getSTAR());
}
return createType$default(kClassifier, (List) arrayList, false, (List) null, 6, (Object) null);
}
}
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