package androidx.collection;

import kotlin.ULong;
import kotlin.collections.ArraysKt___ArraysJvmKt;
import kotlin.jvm.functions.Function0;
import kotlin.jvm.functions.Function2;
import kotlin.jvm.internal.DefaultConstructorMarker;
import kotlin.jvm.internal.Intrinsics;
import kotlin.jvm.internal.SourceDebugExtension;

@SourceDebugExtension({"SMAP\nFloatFloatMap.kt\nKotlin\n*S Kotlin\n*F\n+ 1 FloatFloatMap.kt\nandroidx/collection/MutableFloatFloatMap\n+ 2 fake.kt\nkotlin/jvm/internal/FakeKt\n+ 3 ScatterMap.kt\nandroidx/collection/ScatterMapKt\n+ 4 FloatFloatMap.kt\nandroidx/collection/FloatFloatMap\n+ 5 FloatSet.kt\nandroidx/collection/FloatSet\n+ 6 FloatList.kt\nandroidx/collection/FloatList\n+ 7 FloatSet.kt\nandroidx/collection/FloatSetKt\n*L\n1#1,1047:1\n1037#1,2:1134\n1041#1,5:1142\n1037#1,2:1173\n1041#1,5:1181\n1037#1,2:1198\n1041#1,5:1206\n1037#1,2:1212\n1041#1,5:1220\n1#2:1048\n1672#3,6:1049\n1826#3:1065\n1688#3:1069\n1826#3:1087\n1688#3:1091\n1826#3:1112\n1688#3:1116\n1672#3,6:1136\n1672#3,6:1147\n1615#3:1156\n1619#3:1157\n1795#3,3:1158\n1809#3,3:1161\n1733#3:1164\n1721#3:1165\n1715#3:1166\n1728#3:1167\n1818#3:1168\n1682#3:1169\n1661#3:1170\n1680#3:1171\n1661#3:1172\n1672#3,6:1175\n1795#3,3:1186\n1826#3:1189\n1715#3:1190\n1685#3:1191\n1661#3:1192\n1615#3:1196\n1619#3:1197\n1672#3,6:1200\n1661#3:1211\n1672#3,6:1214\n1672#3,6:1225\n1672#3,6:1231\n385#4,4:1055\n357#4,6:1059\n367#4,3:1066\n370#4,2:1070\n389#4,2:1072\n373#4,6:1074\n391#4:1080\n357#4,6:1081\n367#4,3:1088\n370#4,9:1092\n262#5,4:1101\n232#5,7:1105\n243#5,3:1113\n246#5,2:1117\n266#5,2:1119\n249#5,6:1121\n268#5:1127\n253#6,6:1128\n849#7,3:1153\n849#7,3:1193\n*S KotlinDebug\n*F\n+ 1 FloatFloatMap.kt\nandroidx/collection/MutableFloatFloatMap\n*L\n875#1:1134,2\n875#1:1142,5\n933#1:1173,2\n933#1:1181,5\n1007#1:1198,2\n1007#1:1206,5\n1023#1:1212,2\n1023#1:1220,5\n711#1:1049,6\n789#1:1065\n789#1:1069\n828#1:1087\n828#1:1091\n855#1:1112\n855#1:1116\n875#1:1136,6\n885#1:1147,6\n899#1:1156\n900#1:1157\n907#1:1158,3\n908#1:1161,3\n909#1:1164\n910#1:1165\n910#1:1166\n914#1:1167\n917#1:1168\n926#1:1169\n926#1:1170\n932#1:1171\n932#1:1172\n933#1:1175,6\n948#1:1186,3\n949#1:1189\n951#1:1190\n1002#1:1191\n1002#1:1192\n1005#1:1196\n1007#1:1197\n1007#1:1200,6\n1021#1:1211\n1023#1:1214,6\n1038#1:1225,6\n1044#1:1231,6\n789#1:1055,4\n789#1:1059,6\n789#1:1066,3\n789#1:1070,2\n789#1:1072,2\n789#1:1074,6\n789#1:1080\n828#1:1081,6\n828#1:1088,3\n828#1:1092,9\n855#1:1101,4\n855#1:1105,7\n855#1:1113,3\n855#1:1117,2\n855#1:1119,2\n855#1:1121,6\n855#1:1127\n864#1:1128,6\n898#1:1153,3\n1004#1:1193,3\n*E\n"})
/* loaded from: classes.dex */
public final class MutableFloatFloatMap extends FloatFloatMap {
    private int growthLimit;

    public MutableFloatFloatMap() {
        this(0, 1, null);
    }

    public final void minusAssign(FloatList keys) {
        Intrinsics.checkNotNullParameter(keys, "keys");
        float[] fArr = keys.content;
        int i = keys._size;
        for (int i2 = 0; i2 < i; i2++) {
            remove(fArr[i2]);
        }
    }

    public final void minusAssign(FloatSet keys) {
        Intrinsics.checkNotNullParameter(keys, "keys");
        float[] fArr = keys.elements;
        long[] jArr = keys.metadata;
        int length = jArr.length - 2;
        if (length < 0) {
            return;
        }
        int i = 0;
        while (true) {
            long j = jArr[i];
            if ((((~j) << 7) & j & (-9187201950435737472L)) != -9187201950435737472L) {
                int i2 = 8 - ((~(i - length)) >>> 31);
                for (int i3 = 0; i3 < i2; i3++) {
                    if ((255 & j) < 128) {
                        remove(fArr[(i << 3) + i3]);
                    }
                    j >>= 8;
                }
                if (i2 != 8) {
                    return;
                }
            }
            if (i == length) {
                return;
            } else {
                i++;
            }
        }
    }

    public final void removeIf(Function2 predicate) {
        Intrinsics.checkNotNullParameter(predicate, "predicate");
        long[] jArr = this.metadata;
        int length = jArr.length - 2;
        if (length < 0) {
            return;
        }
        int i = 0;
        while (true) {
            long j = jArr[i];
            if ((((~j) << 7) & j & (-9187201950435737472L)) != -9187201950435737472L) {
                int i2 = 8 - ((~(i - length)) >>> 31);
                for (int i3 = 0; i3 < i2; i3++) {
                    if ((255 & j) < 128) {
                        int i4 = (i << 3) + i3;
                        if (((Boolean) predicate.invoke(Float.valueOf(this.keys[i4]), Float.valueOf(this.values[i4]))).booleanValue()) {
                            removeValueAt(i4);
                        }
                    }
                    j >>= 8;
                }
                if (i2 != 8) {
                    return;
                }
            }
            if (i == length) {
                return;
            } else {
                i++;
            }
        }
    }

    public final void putAll(FloatFloatMap from) {
        Intrinsics.checkNotNullParameter(from, "from");
        float[] fArr = from.keys;
        float[] fArr2 = from.values;
        long[] jArr = from.metadata;
        int length = jArr.length - 2;
        if (length < 0) {
            return;
        }
        int i = 0;
        while (true) {
            long j = jArr[i];
            if ((((~j) << 7) & j & (-9187201950435737472L)) != -9187201950435737472L) {
                int i2 = 8 - ((~(i - length)) >>> 31);
                for (int i3 = 0; i3 < i2; i3++) {
                    if ((255 & j) < 128) {
                        int i4 = (i << 3) + i3;
                        set(fArr[i4], fArr2[i4]);
                    }
                    j >>= 8;
                }
                if (i2 != 8) {
                    return;
                }
            }
            if (i == length) {
                return;
            } else {
                i++;
            }
        }
    }

    public /* synthetic */ MutableFloatFloatMap(int i, int i2, DefaultConstructorMarker defaultConstructorMarker) {
        this((i2 & 1) != 0 ? 6 : i);
    }

    public MutableFloatFloatMap(int i) {
        super(null);
        if (i < 0) {
            throw new IllegalArgumentException("Capacity must be a positive value.".toString());
        }
        initializeStorage(ScatterMapKt.unloadedCapacity(i));
    }

    private final void initializeStorage(int i) {
        int max = i > 0 ? Math.max(7, ScatterMapKt.normalizeCapacity(i)) : 0;
        this._capacity = max;
        initializeMetadata(max);
        this.keys = new float[max];
        this.values = new float[max];
    }

    private final void initializeMetadata(int i) {
        long[] jArr;
        if (i == 0) {
            jArr = ScatterMapKt.EmptyGroup;
        } else {
            jArr = new long[((i + 15) & (-8)) >> 3];
            ArraysKt___ArraysJvmKt.fill$default(jArr, -9187201950435737472L, 0, 0, 6, (Object) null);
        }
        this.metadata = jArr;
        int i2 = i >> 3;
        long j = 255 << ((i & 7) << 3);
        jArr[i2] = (jArr[i2] & (~j)) | j;
        initializeGrowth();
    }

    private final void initializeGrowth() {
        this.growthLimit = ScatterMapKt.loadedCapacity(getCapacity()) - this._size;
    }

    public final float getOrPut(float f, Function0 defaultValue) {
        Intrinsics.checkNotNullParameter(defaultValue, "defaultValue");
        int findKeyIndex = findKeyIndex(f);
        if (findKeyIndex < 0) {
            float floatValue = ((Number) defaultValue.invoke()).floatValue();
            put(f, floatValue);
            return floatValue;
        }
        return this.values[findKeyIndex];
    }

    public final void set(float f, float f2) {
        int findInsertIndex = findInsertIndex(f);
        if (findInsertIndex < 0) {
            findInsertIndex = ~findInsertIndex;
        }
        this.keys[findInsertIndex] = f;
        this.values[findInsertIndex] = f2;
    }

    public final void put(float f, float f2) {
        set(f, f2);
    }

    public final float put(float f, float f2, float f3) {
        int findInsertIndex = findInsertIndex(f);
        if (findInsertIndex < 0) {
            findInsertIndex = ~findInsertIndex;
        } else {
            f3 = this.values[findInsertIndex];
        }
        this.keys[findInsertIndex] = f;
        this.values[findInsertIndex] = f2;
        return f3;
    }

    public final void plusAssign(FloatFloatMap from) {
        Intrinsics.checkNotNullParameter(from, "from");
        putAll(from);
    }

    public final void remove(float f) {
        int findKeyIndex = findKeyIndex(f);
        if (findKeyIndex >= 0) {
            removeValueAt(findKeyIndex);
        }
    }

    public final boolean remove(float f, float f2) {
        int findKeyIndex = findKeyIndex(f);
        if (findKeyIndex < 0 || this.values[findKeyIndex] != f2) {
            return false;
        }
        removeValueAt(findKeyIndex);
        return true;
    }

    public final void minusAssign(float f) {
        remove(f);
    }

    public final void minusAssign(float[] keys) {
        Intrinsics.checkNotNullParameter(keys, "keys");
        for (float f : keys) {
            remove(f);
        }
    }

    private final int findInsertIndex(float f) {
        int hashCode = Float.hashCode(f) * ScatterMapKt.MurmurHashC1;
        int i = hashCode ^ (hashCode << 16);
        int i2 = i >>> 7;
        int i3 = i & 127;
        int i4 = this._capacity;
        int i5 = i2 & i4;
        int i6 = 0;
        while (true) {
            long[] jArr = this.metadata;
            int i7 = i5 >> 3;
            int i8 = (i5 & 7) << 3;
            long j = ((jArr[i7 + 1] << (64 - i8)) & ((-i8) >> 63)) | (jArr[i7] >>> i8);
            long j2 = i3;
            int i9 = i6;
            long j3 = j ^ (j2 * ScatterMapKt.BitmaskLsb);
            for (long j4 = (~j3) & (j3 - ScatterMapKt.BitmaskLsb) & (-9187201950435737472L); j4 != 0; j4 &= j4 - 1) {
                int numberOfTrailingZeros = ((Long.numberOfTrailingZeros(j4) >> 3) + i5) & i4;
                if (this.keys[numberOfTrailingZeros] == f) {
                    return numberOfTrailingZeros;
                }
            }
            if ((((~j) << 6) & j & (-9187201950435737472L)) != 0) {
                int findFirstAvailableSlot = findFirstAvailableSlot(i2);
                if (this.growthLimit == 0 && ((this.metadata[findFirstAvailableSlot >> 3] >> ((findFirstAvailableSlot & 7) << 3)) & 255) != 254) {
                    adjustStorage();
                    findFirstAvailableSlot = findFirstAvailableSlot(i2);
                }
                this._size++;
                int i10 = this.growthLimit;
                long[] jArr2 = this.metadata;
                int i11 = findFirstAvailableSlot >> 3;
                long j5 = jArr2[i11];
                int i12 = (findFirstAvailableSlot & 7) << 3;
                this.growthLimit = i10 - (((j5 >> i12) & 255) == 128 ? 1 : 0);
                jArr2[i11] = (j5 & (~(255 << i12))) | (j2 << i12);
                int i13 = this._capacity;
                int i14 = ((findFirstAvailableSlot - 7) & i13) + (i13 & 7);
                int i15 = i14 >> 3;
                int i16 = (i14 & 7) << 3;
                jArr2[i15] = ((~(255 << i16)) & jArr2[i15]) | (j2 << i16);
                return ~findFirstAvailableSlot;
            }
            i6 = i9 + 8;
            i5 = (i5 + i6) & i4;
        }
    }

    public final void clear() {
        this._size = 0;
        long[] jArr = this.metadata;
        if (jArr != ScatterMapKt.EmptyGroup) {
            ArraysKt___ArraysJvmKt.fill$default(jArr, -9187201950435737472L, 0, 0, 6, (Object) null);
            long[] jArr2 = this.metadata;
            int i = this._capacity;
            int i2 = i >> 3;
            long j = 255 << ((i & 7) << 3);
            jArr2[i2] = (jArr2[i2] & (~j)) | j;
        }
        initializeGrowth();
    }

    public final int trim() {
        int i = this._capacity;
        int normalizeCapacity = ScatterMapKt.normalizeCapacity(ScatterMapKt.unloadedCapacity(this._size));
        if (normalizeCapacity >= i) {
            return 0;
        }
        resizeStorage(normalizeCapacity);
        return i - this._capacity;
    }

    private final void adjustStorage() {
        if (this._capacity > 8 && Long.compareUnsigned(ULong.m4068constructorimpl(ULong.m4068constructorimpl(this._size) * 32), ULong.m4068constructorimpl(ULong.m4068constructorimpl(this._capacity) * 25)) <= 0) {
            removeDeletedMarkers();
        } else {
            resizeStorage(ScatterMapKt.nextCapacity(this._capacity));
        }
    }

    private final void resizeStorage(int i) {
        long[] jArr;
        float[] fArr;
        long[] jArr2 = this.metadata;
        float[] fArr2 = this.keys;
        float[] fArr3 = this.values;
        int i2 = this._capacity;
        initializeStorage(i);
        float[] fArr4 = this.keys;
        float[] fArr5 = this.values;
        int i3 = 0;
        while (i3 < i2) {
            if (((jArr2[i3 >> 3] >> ((i3 & 7) << 3)) & 255) < 128) {
                float f = fArr2[i3];
                int hashCode = Float.hashCode(f) * ScatterMapKt.MurmurHashC1;
                int i4 = hashCode ^ (hashCode << 16);
                int findFirstAvailableSlot = findFirstAvailableSlot(i4 >>> 7);
                long j = i4 & 127;
                long[] jArr3 = this.metadata;
                int i5 = findFirstAvailableSlot >> 3;
                int i6 = (findFirstAvailableSlot & 7) << 3;
                jArr = jArr2;
                fArr = fArr2;
                jArr3[i5] = (jArr3[i5] & (~(255 << i6))) | (j << i6);
                int i7 = this._capacity;
                int i8 = ((findFirstAvailableSlot - 7) & i7) + (i7 & 7);
                int i9 = i8 >> 3;
                int i10 = (i8 & 7) << 3;
                jArr3[i9] = ((~(255 << i10)) & jArr3[i9]) | (j << i10);
                fArr4[findFirstAvailableSlot] = f;
                fArr5[findFirstAvailableSlot] = fArr3[i3];
            } else {
                jArr = jArr2;
                fArr = fArr2;
            }
            i3++;
            jArr2 = jArr;
            fArr2 = fArr;
        }
    }

    private final void removeDeletedMarkers() {
        long[] jArr = this.metadata;
        int i = this._capacity;
        int i2 = 0;
        for (int i3 = 0; i3 < i; i3++) {
            int i4 = i3 >> 3;
            int i5 = (i3 & 7) << 3;
            if (((jArr[i4] >> i5) & 255) == 254) {
                long[] jArr2 = this.metadata;
                jArr2[i4] = (128 << i5) | (jArr2[i4] & (~(255 << i5)));
                int i6 = this._capacity;
                int i7 = ((i3 - 7) & i6) + (i6 & 7);
                int i8 = i7 >> 3;
                int i9 = (i7 & 7) << 3;
                jArr2[i8] = ((~(255 << i9)) & jArr2[i8]) | (128 << i9);
                i2++;
            }
        }
        this.growthLimit += i2;
    }

    private final void writeMetadata(int i, long j) {
        long[] jArr = this.metadata;
        int i2 = i >> 3;
        int i3 = (i & 7) << 3;
        jArr[i2] = (jArr[i2] & (~(255 << i3))) | (j << i3);
        int i4 = this._capacity;
        int i5 = ((i - 7) & i4) + (i4 & 7);
        int i6 = i5 >> 3;
        int i7 = (i5 & 7) << 3;
        jArr[i6] = (j << i7) | (jArr[i6] & (~(255 << i7)));
    }

    public final void removeValueAt(int i) {
        this._size--;
        long[] jArr = this.metadata;
        int i2 = i >> 3;
        int i3 = (i & 7) << 3;
        jArr[i2] = (jArr[i2] & (~(255 << i3))) | (254 << i3);
        int i4 = this._capacity;
        int i5 = ((i - 7) & i4) + (i4 & 7);
        int i6 = i5 >> 3;
        int i7 = (i5 & 7) << 3;
        jArr[i6] = (jArr[i6] & (~(255 << i7))) | (254 << i7);
    }

    private final int findFirstAvailableSlot(int i) {
        int i2 = this._capacity;
        int i3 = i & i2;
        int i4 = 0;
        while (true) {
            long[] jArr = this.metadata;
            int i5 = i3 >> 3;
            int i6 = (i3 & 7) << 3;
            long j = ((jArr[i5 + 1] << (64 - i6)) & ((-i6) >> 63)) | (jArr[i5] >>> i6);
            long j2 = j & ((~j) << 7) & (-9187201950435737472L);
            if (j2 != 0) {
                return (i3 + (Long.numberOfTrailingZeros(j2) >> 3)) & i2;
            }
            i4 += 8;
            i3 = (i3 + i4) & i2;
        }
    }
}