package com.hypixel.fastutil.doubles;
import com.hypixel.fastutil.FastCollection;
import com.hypixel.fastutil.util.SneakyThrow;
import com.hypixel.fastutil.util.TLRUtil;
import it.unimi.dsi.fastutil.doubles.Double2ObjectMap;
import it.unimi.dsi.fastutil.doubles.DoubleCollection;
import it.unimi.dsi.fastutil.doubles.DoubleIterator;
import it.unimi.dsi.fastutil.doubles.DoubleSet;
import it.unimi.dsi.fastutil.doubles.DoubleSpliterator;
import it.unimi.dsi.fastutil.objects.ObjectCollection;
import it.unimi.dsi.fastutil.objects.ObjectIterator;
import it.unimi.dsi.fastutil.objects.ObjectSet;
import it.unimi.dsi.fastutil.objects.ObjectSpliterator;
import java.io.Serializable;
import java.lang.reflect.Array;
import java.lang.reflect.Field;
import java.util.Arrays;
import java.util.Collection;
import java.util.Enumeration;
import java.util.Iterator;
import java.util.Map;
import java.util.NoSuchElementException;
import java.util.Set;
import java.util.concurrent.CountedCompleter;
import java.util.concurrent.ForkJoinPool;
import java.util.concurrent.atomic.AtomicReference;
import java.util.concurrent.locks.LockSupport;
import java.util.concurrent.locks.ReentrantLock;
import java.util.function.BiFunction;
import java.util.function.Consumer;
import java.util.function.DoubleBinaryOperator;
import java.util.function.DoubleConsumer;
import java.util.function.Function;
import java.util.function.IntBinaryOperator;
import java.util.function.LongBinaryOperator;
import java.util.function.Predicate;
import java.util.function.ToIntFunction;
import java.util.function.ToLongFunction;
import sun.misc.Unsafe;
public class Double2ObjectConcurrentHashMap<V> {
protected static final long serialVersionUID = 7249069246763182397L;
protected static final int MAXIMUM_CAPACITY = 1073741824;
protected static final int DEFAULT_CAPACITY = 16;
protected static final int MAX_ARRAY_SIZE = 2147483639;
protected static final int DEFAULT_CONCURRENCY_LEVEL = 16;
protected static final float LOAD_FACTOR = 0.75F;
protected static final int TREEIFY_THRESHOLD = 8;
protected static final int UNTREEIFY_THRESHOLD = 6;
protected static final int MIN_TREEIFY_CAPACITY = 64;
protected static final int MIN_TRANSFER_STRIDE = 16;
protected static int RESIZE_STAMP_BITS = 16;
protected static final int MAX_RESIZERS;
protected static final int RESIZE_STAMP_SHIFT;
protected static final int MOVED = -1;
protected static final int TREEBIN = -2;
protected static final int RESERVED = -3;
protected static final int HASH_BITS = 2147483647;
protected static final int NCPU;
protected transient volatile Node<V>[] table;
protected transient volatile Node<V>[] nextTable;
protected transient volatile long baseCount;
protected transient volatile int sizeCtl;
protected transient volatile int transferIndex;
protected transient volatile int cellsBusy;
protected transient volatile CounterCell[] counterCells;
protected transient KeySetView<V> keySet;
protected transient ValuesView<V> values;
protected transient EntrySetView<V> entrySet;
protected final double EMPTY;
protected static final Unsafe U;
protected static final long SIZECTL;
protected static final long TRANSFERINDEX;
protected static final long BASECOUNT;
protected static final long CELLSBUSY;
protected static final long CELLVALUE;
protected static final long ABASE;
protected static final int ASHIFT;
protected static final int spread(int h) {
return (h ^ h >>> 16) & 2147483647;
}
protected static final int tableSizeFor(int c) {
int n = c - 1;
n |= n >>> 1;
n |= n >>> 2;
n |= n >>> 4;
n |= n >>> 8;
n |= n >>> 16;
return n < 0 ? 1 : (n >= 1073741824 ? 1073741824 : n + 1);
}
protected static final <V> Node<V> tabAt(Node<V>[] tab, int i) {
return (Node)U.getObjectVolatile(tab, ((long)i << ASHIFT) + ABASE);
}
protected static final <V> boolean casTabAt(Node<V>[] tab, int i, Node<V> c, Node<V> v) {
return U.compareAndSwapObject(tab, ((long)i << ASHIFT) + ABASE, c, v);
}
protected static final <V> void setTabAt(Node<V>[] tab, int i, Node<V> v) {
U.putObjectVolatile(tab, ((long)i << ASHIFT) + ABASE, v);
}
public Double2ObjectConcurrentHashMap() {
this.EMPTY = -1.0;
}
public Double2ObjectConcurrentHashMap(boolean nonce, double emptyValue) {
this.EMPTY = emptyValue;
}
public Double2ObjectConcurrentHashMap(int initialCapacity) {
this(initialCapacity, true, -1.0);
}
public Double2ObjectConcurrentHashMap(int initialCapacity, boolean nonce, double emptyValue) {
if (initialCapacity < 0) {
throw new IllegalArgumentException();
} else {
int cap = initialCapacity >= 536870912 ? 1073741824 : tableSizeFor(initialCapacity + (initialCapacity >>> 1) + 1);
this.sizeCtl = cap;
this.EMPTY = emptyValue;
}
}
public Double2ObjectConcurrentHashMap(Map<? extends Double, ? extends V> m, double emptyValue) {
this.sizeCtl = 16;
this.EMPTY = emptyValue;
this.putAll(m);
}
public Double2ObjectConcurrentHashMap(Double2ObjectConcurrentHashMap<? extends V> m) {
this.sizeCtl = 16;
this.EMPTY = m.EMPTY;
this.putAll(m);
}
public Double2ObjectConcurrentHashMap(Double2ObjectMap<V> m) {
this.sizeCtl = 16;
this.EMPTY = -1.0;
this.putAll(m);
}
public Double2ObjectConcurrentHashMap(Double2ObjectMap<V> m, double emptyValue) {
this.sizeCtl = 16;
this.EMPTY = emptyValue;
this.putAll(m);
}
public Double2ObjectConcurrentHashMap(int initialCapacity, float loadFactor) {
this(initialCapacity, loadFactor, 1, -1.0);
}
public Double2ObjectConcurrentHashMap(int initialCapacity, float loadFactor, int concurrencyLevel, double emptyValue) {
if (loadFactor > 0.0F && initialCapacity >= 0 && concurrencyLevel > 0) {
if (initialCapacity < concurrencyLevel) {
initialCapacity = concurrencyLevel;
}
long size = (long)(1.0 + (double)((float)((long)initialCapacity) / loadFactor));
int cap = size >= 1073741824L ? 1073741824 : tableSizeFor((int)size);
this.sizeCtl = cap;
this.EMPTY = emptyValue;
} else {
throw new IllegalArgumentException();
}
}
public int size() {
long n = this.sumCount();
return n < 0L ? 0 : (n > 2147483647L ? 2147483647 : (int)n);
}
public boolean isEmpty() {
return this.sumCount() <= 0L;
}
public V get(double key) {
if (key == this.EMPTY) {
throw new IllegalArgumentException("Key is EMPTY: " + this.EMPTY);
} else {
int h = spread(Double.hashCode(key));
Node<V>[] tab;
Node<V> e;
int n;
if ((tab = this.table) != null && (n = tab.length) > 0 && (e = tabAt(tab, n - 1 & h)) != null) {
int eh;
if ((eh = e.hash) == h) {
double ek;
if ((ek = e.key) == key || ek != this.EMPTY && key == ek) {
return e.val;
}
} else if (eh < 0) {
Node<V> p;
return (V)((p = e.find(h, key)) != null ? p.val : null);
}
while((e = e.next) != null) {
double ek;
if (e.hash == h && ((ek = e.key) == key || ek != this.EMPTY && key == ek)) {
return e.val;
}
}
}
return null;
}
}
public boolean containsKey(double key) {
return this.get(key) != null;
}
public boolean containsValue(Object value) {
if (value == null) {
throw new NullPointerException();
} else {
Node<V>[] tt;
if ((tt = this.table) != null) {
Node<V>[] tab = tt;
Node<V> next = null;
TableStack<V> stack = null;
TableStack<V> spare = null;
int index = 0;
int baseIndex = 0;
int baseLimit = tt.length;
int baseSize = tt.length;
while(true) {
Node<V> p = null;
p = next;
if (next != null) {
p = next.next;
}
label87:
while(true) {
if (p != null) {
next = p;
break;
}
if (baseIndex < baseLimit) {
Node<V>[] t = tab;
int n;
if (tab != null && (n = tab.length) > index && index >= 0) {
if ((p = tabAt(tab, index)) != null && p.hash < 0) {
if (p instanceof ForwardingNode) {
tab = ((ForwardingNode)p).nextTable;
p = null;
TableStack<V> s = spare;
if (spare != null) {
spare = spare.next;
} else {
s = new TableStack<V>();
}
s.tab = t;
s.length = n;
s.index = index;
s.next = stack;
stack = s;
continue;
}
if (p instanceof TreeBin) {
p = ((TreeBin)p).first;
} else {
p = null;
}
}
if (stack == null) {
if ((index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
continue;
}
while(true) {
TableStack<V> s = stack;
int len;
if (stack == null || (index += len = stack.length) < n) {
if (stack == null && (index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
continue label87;
}
n = len;
index = stack.index;
tab = stack.tab;
stack.tab = null;
TableStack<V> anext = stack.next;
stack.next = spare;
stack = anext;
spare = s;
}
}
}
next = null;
break;
}
if (p == null) {
break;
}
V v;
if ((v = p.val) == value || v != null && value.equals(v)) {
return true;
}
}
}
return false;
}
}
public V put(double key, V value) {
return (V)this.putVal(key, value, false);
}
protected final V putVal(double key, V value, boolean onlyIfAbsent) {
if (key == this.EMPTY) {
throw new IllegalArgumentException("Key is EMPTY: " + this.EMPTY);
} else if (value == null) {
throw new NullPointerException();
} else {
int hash = spread(Double.hashCode(key));
int binCount = 0;
Node<V>[] tab = this.table;
while(true) {
int n;
while(tab == null || (n = tab.length) == 0) {
tab = this.initTable();
}
Node<V> f;
int i;
if ((f = tabAt(tab, i = n - 1 & hash)) == null) {
if (casTabAt(tab, i, (Node)null, new Node(this.EMPTY, hash, key, value, (Node)null))) {
break;
}
} else {
int fh;
if ((fh = f.hash) == -1) {
tab = this.helpTransfer(tab, f);
} else {
V oldVal = null;
synchronized(f) {
if (tabAt(tab, i) == f) {
if (fh < 0) {
if (f instanceof TreeBin) {
binCount = 2;
Node<V> p;
if ((p = (f).putTreeVal(hash, key, value)) != null) {
oldVal = p.val;
if (!onlyIfAbsent) {
p.val = value;
}
}
}
} else {
label107: {
binCount = 1;
Node<V> e;
double ek;
for(e = f; e.hash != hash || (ek = e.key) != key && (ek == this.EMPTY || key != ek); ++binCount) {
Node<V> pred = e;
if ((e = e.next) == null) {
pred.next = new Node<V>(this.EMPTY, hash, key, value, (Node)null);
break label107;
}
}
oldVal = e.val;
if (!onlyIfAbsent) {
e.val = value;
}
}
}
}
}
if (binCount != 0) {
if (binCount >= 8) {
this.treeifyBin(tab, i);
}
if (oldVal != null) {
return oldVal;
}
break;
}
}
}
}
this.addCount(1L, binCount);
return null;
}
}
public void putAll(Map<? extends Double, ? extends V> m) {
this.tryPresize(m.size());
for(Map.Entry<? extends Double, ? extends V> e : m.entrySet()) {
this.putVal((Double)e.getKey(), e.getValue(), false);
}
}
public void putAll(Double2ObjectConcurrentHashMap<? extends V> m) {
this.tryPresize(m.size());
for(Double2ObjectMap.Entry<? extends V> e : m.double2ObjectEntrySet()) {
this.putVal(e.getDoubleKey(), e.getValue(), false);
}
}
public void putAll(Double2ObjectMap<V> m) {
this.tryPresize(m.size());
ObjectIterator<? extends Double2ObjectMap.Entry<? extends V>> iterator = m.double2ObjectEntrySet().iterator();
while(iterator.hasNext()) {
Double2ObjectMap.Entry<? extends V> next = (Double2ObjectMap.Entry)iterator.next();
this.putVal(next.getDoubleKey(), next.getValue(), false);
}
}
public V remove(double key) {
return (V)this.replaceNode(key, (Object)null, (Object)null);
}
@Deprecated
public V remove(Double key) {
return (V)this.replaceNode(key, (Object)null, (Object)null);
}
@Deprecated
public V remove(Object key) {
return (V)this.remove((Double)key);
}
protected final V replaceNode(double key, V value, Object cv) {
if (key == this.EMPTY) {
throw new IllegalArgumentException("Key is EMPTY: " + this.EMPTY);
} else {
int hash = spread(Double.hashCode(key));
Node<V>[] tab = this.table;
Node<V> f;
int n;
int i;
while(tab != null && (n = tab.length) != 0 && (f = tabAt(tab, i = n - 1 & hash)) != null) {
int fh;
if ((fh = f.hash) == -1) {
tab = this.helpTransfer(tab, f);
} else {
V oldVal = null;
boolean validated = false;
synchronized(f) {
if (tabAt(tab, i) == f) {
if (fh < 0) {
if (f instanceof TreeBin) {
validated = true;
TreeBin<V> t = (TreeBin)f;
TreeNode<V> r;
TreeNode<V> p;
if ((r = t.root) != null && (p = r.findTreeNode(hash, key, (Class)null)) != null) {
V pv = p.val;
if (cv == null || cv == pv || pv != null && cv.equals(pv)) {
oldVal = pv;
if (value != null) {
p.val = value;
} else if (t.removeTreeNode(p)) {
setTabAt(tab, i, this.untreeify(t.first));
}
}
}
}
} else {
label126: {
validated = true;
Node<V> e = f;
Node<V> pred = null;
double ek;
while(e.hash != hash || (ek = e.key) != key && (ek == this.EMPTY || key != ek)) {
pred = e;
if ((e = e.next) == null) {
break label126;
}
}
V ev = e.val;
if (cv == null || cv == ev || ev != null && cv.equals(ev)) {
oldVal = ev;
if (value != null) {
e.val = value;
} else if (pred != null) {
pred.next = e.next;
} else {
setTabAt(tab, i, e.next);
}
}
}
}
}
}
if (validated) {
if (oldVal != null) {
if (value == null) {
this.addCount(-1L, -1);
}
return oldVal;
}
break;
}
}
}
return null;
}
}
public void clear() {
long delta = 0L;
int i = 0;
Node<V>[] tab = this.table;
while(tab != null && i < tab.length) {
Node<V> f = tabAt(tab, i);
if (f == null) {
++i;
} else {
int fh;
if ((fh = f.hash) == -1) {
tab = this.helpTransfer(tab, f);
i = 0;
} else {
synchronized(f) {
if (tabAt(tab, i) == f) {
for(Node<V> p = (Node<V>)(fh >= 0 ? f : (f instanceof TreeBin ? ((TreeBin)f).first : null)); p != null; p = p.next) {
--delta;
}
setTabAt(tab, i++, (Node)null);
}
}
}
}
}
if (delta != 0L) {
this.addCount(delta, -1);
}
}
public KeySetView<V> keySet() {
KeySetView<V> ks;
return (ks = this.keySet) != null ? ks : (this.keySet = this.buildKeySetView());
}
protected KeySetView<V> buildKeySetView() {
return new KeySetView<V>(this, (Object)null);
}
public FastCollection<V> values() {
ValuesView<V> vs;
return (vs = this.values) != null ? vs : (this.values = this.buildValuesView());
}
protected ValuesView<V> buildValuesView() {
return new ValuesView<V>(this);
}
public ObjectSet<Double2ObjectMap.Entry<V>> double2ObjectEntrySet() {
EntrySetView<V> es;
return (es = this.entrySet) != null ? es : (this.entrySet = this.buildEntrySetView());
}
@Deprecated
public ObjectSet<Map.Entry<Double, V>> entrySet() {
return this.double2ObjectEntrySet();
}
protected EntrySetView<V> buildEntrySetView() {
return new EntrySetView<V>(this);
}
public int hashCode() {
int h = 0;
Node<V>[] tt;
if ((tt = this.table) != null) {
Node<V>[] tab = tt;
Node<V> next = null;
TableStack<V> stack = null;
TableStack<V> spare = null;
int index = 0;
int baseIndex = 0;
int baseLimit = tt.length;
int baseSize = tt.length;
while(true) {
Node<V> p = null;
p = next;
if (next != null) {
p = next.next;
}
label77: {
while(true) {
if (p != null) {
next = p;
break label77;
}
if (baseIndex >= baseLimit) {
break;
}
Node<V>[] t = tab;
int n;
if (tab == null || (n = tab.length) <= index || index < 0) {
break;
}
if ((p = tabAt(tab, index)) != null && p.hash < 0) {
if (p instanceof ForwardingNode) {
tab = ((ForwardingNode)p).nextTable;
p = null;
TableStack<V> s = spare;
if (spare != null) {
spare = spare.next;
} else {
s = new TableStack<V>();
}
s.tab = t;
s.length = n;
s.index = index;
s.next = stack;
stack = s;
continue;
}
if (p instanceof TreeBin) {
p = ((TreeBin)p).first;
} else {
p = null;
}
}
if (stack == null) {
if ((index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
} else {
while(true) {
TableStack<V> s = stack;
int len;
if (stack == null || (index += len = stack.length) < n) {
if (stack == null && (index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
break;
}
n = len;
index = stack.index;
tab = stack.tab;
stack.tab = null;
TableStack<V> anext = stack.next;
stack.next = spare;
stack = anext;
spare = s;
}
}
}
next = null;
}
if (p == null) {
break;
}
h += Double.hashCode(p.key) ^ p.val.hashCode();
}
}
return h;
}
public String toString() {
Node<V>[] t;
int f = (t = this.table) == null ? 0 : t.length;
Traverser<V> it = new Traverser<V>(t, f, 0, f);
StringBuilder sb = new StringBuilder();
sb.append('{');
Node<V> p;
if ((p = it.advance()) != null) {
while(true) {
double k = p.key;
V v = p.val;
sb.append(k);
sb.append('=');
sb.append(v == this ? "(this Map)" : v);
if ((p = it.advance()) == null) {
break;
}
sb.append(',').append(' ');
}
}
return sb.append('}').toString();
}
public boolean equals(Object o) {
if (o != this) {
if (!(o instanceof Double2ObjectConcurrentHashMap)) {
return false;
}
Double2ObjectConcurrentHashMap<?> m = (Double2ObjectConcurrentHashMap)o;
Node<V>[] t;
int f = (t = this.table) == null ? 0 : t.length;
Traverser<V> it = new Traverser<V>(t, f, 0, f);
Node<V> p;
while((p = it.advance()) != null) {
V val = p.val;
Object v = m.get(p.key);
if (v == null || v != val && !v.equals(val)) {
return false;
}
}
for(Double2ObjectMap.Entry<?> e : m.double2ObjectEntrySet()) {
Object mv;
Object v;
double mk;
if ((mk = e.getDoubleKey()) == m.EMPTY || (mv = e.getValue()) == null || (v = this.get(mk)) == null || mv != v && !mv.equals(v)) {
return false;
}
}
}
return true;
}
public V putIfAbsent(double key, V value) {
return (V)this.putVal(key, value, true);
}
public boolean remove(double key, Object value) {
if (key == this.EMPTY) {
throw new IllegalArgumentException("Key is EMPTY: " + this.EMPTY);
} else {
return value != null && this.replaceNode(key, (Object)null, value) != null;
}
}
public boolean replace(double key, V oldValue, V newValue) {
if (key == this.EMPTY) {
throw new IllegalArgumentException("Key is EMPTY: " + this.EMPTY);
} else if (oldValue != null && newValue != null) {
return this.replaceNode(key, newValue, oldValue) != null;
} else {
throw new NullPointerException();
}
}
public V replace(double key, V value) {
if (key == this.EMPTY) {
throw new IllegalArgumentException("Key is EMPTY: " + this.EMPTY);
} else if (value == null) {
throw new NullPointerException();
} else {
return (V)this.replaceNode(key, value, (Object)null);
}
}
public V getOrDefault(double key, V defaultValue) {
V v;
return (V)((v = (V)this.get(key)) == null ? defaultValue : v);
}
public int forEach(DoubleObjConsumer<? super V> action) {
if (action == null) {
throw new NullPointerException();
} else {
int count = 0;
Node<V>[] tt;
if ((tt = this.table) != null) {
Node<V>[] tab = tt;
Node<V> next = null;
TableStack<V> stack = null;
TableStack<V> spare = null;
int index = 0;
int baseIndex = 0;
int baseLimit = tt.length;
int baseSize = tt.length;
while(true) {
Node<V> p = null;
p = next;
if (next != null) {
p = next.next;
}
label80: {
while(true) {
if (p != null) {
next = p;
break label80;
}
if (baseIndex >= baseLimit) {
break;
}
Node<V>[] t = tab;
int n;
if (tab == null || (n = tab.length) <= index || index < 0) {
break;
}
if ((p = tabAt(tab, index)) != null && p.hash < 0) {
if (p instanceof ForwardingNode) {
tab = ((ForwardingNode)p).nextTable;
p = null;
TableStack<V> s = spare;
if (spare != null) {
spare = spare.next;
} else {
s = new TableStack<V>();
}
s.tab = t;
s.length = n;
s.index = index;
s.next = stack;
stack = s;
continue;
}
if (p instanceof TreeBin) {
p = ((TreeBin)p).first;
} else {
p = null;
}
}
if (stack == null) {
if ((index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
} else {
while(true) {
TableStack<V> s = stack;
int len;
if (stack == null || (index += len = stack.length) < n) {
if (stack == null && (index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
break;
}
n = len;
index = stack.index;
tab = stack.tab;
stack.tab = null;
TableStack<V> anext = stack.next;
stack.next = spare;
stack = anext;
spare = s;
}
}
}
next = null;
}
if (p == null) {
break;
}
action.accept(p.key, p.val);
++count;
}
}
return count;
}
}
public <X> int forEach(DoubleBiObjConsumer<? super V, X> action, X x) {
if (action == null) {
throw new NullPointerException();
} else {
int count = 0;
Node<V>[] tt;
if ((tt = this.table) != null) {
Node<V>[] tab = tt;
Node<V> next = null;
TableStack<V> stack = null;
TableStack<V> spare = null;
int index = 0;
int baseIndex = 0;
int baseLimit = tt.length;
int baseSize = tt.length;
while(true) {
Node<V> p = null;
p = next;
if (next != null) {
p = next.next;
}
label80: {
while(true) {
if (p != null) {
next = p;
break label80;
}
if (baseIndex >= baseLimit) {
break;
}
Node<V>[] t = tab;
int n;
if (tab == null || (n = tab.length) <= index || index < 0) {
break;
}
if ((p = tabAt(tab, index)) != null && p.hash < 0) {
if (p instanceof ForwardingNode) {
tab = ((ForwardingNode)p).nextTable;
p = null;
TableStack<V> s = spare;
if (spare != null) {
spare = spare.next;
} else {
s = new TableStack<V>();
}
s.tab = t;
s.length = n;
s.index = index;
s.next = stack;
stack = s;
continue;
}
if (p instanceof TreeBin) {
p = ((TreeBin)p).first;
} else {
p = null;
}
}
if (stack == null) {
if ((index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
} else {
while(true) {
TableStack<V> s = stack;
int len;
if (stack == null || (index += len = stack.length) < n) {
if (stack == null && (index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
break;
}
n = len;
index = stack.index;
tab = stack.tab;
stack.tab = null;
TableStack<V> anext = stack.next;
stack.next = spare;
stack = anext;
spare = s;
}
}
}
next = null;
}
if (p == null) {
break;
}
action.accept(p.key, p.val, x);
++count;
}
}
return count;
}
}
public <X, Y> int forEach(DoubleTriObjConsumer<? super V, X, Y> action, X x, Y y) {
if (action == null) {
throw new NullPointerException();
} else {
int count = 0;
Node<V>[] tt;
if ((tt = this.table) != null) {
Node<V>[] tab = tt;
Node<V> next = null;
TableStack<V> stack = null;
TableStack<V> spare = null;
int index = 0;
int baseIndex = 0;
int baseLimit = tt.length;
int baseSize = tt.length;
while(true) {
Node<V> p = null;
p = next;
if (next != null) {
p = next.next;
}
label80: {
while(true) {
if (p != null) {
next = p;
break label80;
}
if (baseIndex >= baseLimit) {
break;
}
Node<V>[] t = tab;
int n;
if (tab == null || (n = tab.length) <= index || index < 0) {
break;
}
if ((p = tabAt(tab, index)) != null && p.hash < 0) {
if (p instanceof ForwardingNode) {
tab = ((ForwardingNode)p).nextTable;
p = null;
TableStack<V> s = spare;
if (spare != null) {
spare = spare.next;
} else {
s = new TableStack<V>();
}
s.tab = t;
s.length = n;
s.index = index;
s.next = stack;
stack = s;
continue;
}
if (p instanceof TreeBin) {
p = ((TreeBin)p).first;
} else {
p = null;
}
}
if (stack == null) {
if ((index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
} else {
while(true) {
TableStack<V> s = stack;
int len;
if (stack == null || (index += len = stack.length) < n) {
if (stack == null && (index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
break;
}
n = len;
index = stack.index;
tab = stack.tab;
stack.tab = null;
TableStack<V> anext = stack.next;
stack.next = spare;
stack = anext;
spare = s;
}
}
}
next = null;
}
if (p == null) {
break;
}
action.accept(p.key, p.val, x, y);
++count;
}
}
return count;
}
}
public int forEachWithByte(DoubleObjByteConsumer<? super V> action, byte ii) {
if (action == null) {
throw new NullPointerException();
} else {
int count = 0;
Node<V>[] tt;
if ((tt = this.table) != null) {
Node<V>[] tab = tt;
Node<V> next = null;
TableStack<V> stack = null;
TableStack<V> spare = null;
int index = 0;
int baseIndex = 0;
int baseLimit = tt.length;
int baseSize = tt.length;
while(true) {
Node<V> p = null;
p = next;
if (next != null) {
p = next.next;
}
label80: {
while(true) {
if (p != null) {
next = p;
break label80;
}
if (baseIndex >= baseLimit) {
break;
}
Node<V>[] t = tab;
int n;
if (tab == null || (n = tab.length) <= index || index < 0) {
break;
}
if ((p = tabAt(tab, index)) != null && p.hash < 0) {
if (p instanceof ForwardingNode) {
tab = ((ForwardingNode)p).nextTable;
p = null;
TableStack<V> s = spare;
if (spare != null) {
spare = spare.next;
} else {
s = new TableStack<V>();
}
s.tab = t;
s.length = n;
s.index = index;
s.next = stack;
stack = s;
continue;
}
if (p instanceof TreeBin) {
p = ((TreeBin)p).first;
} else {
p = null;
}
}
if (stack == null) {
if ((index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
} else {
while(true) {
TableStack<V> s = stack;
int len;
if (stack == null || (index += len = stack.length) < n) {
if (stack == null && (index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
break;
}
n = len;
index = stack.index;
tab = stack.tab;
stack.tab = null;
TableStack<V> anext = stack.next;
stack.next = spare;
stack = anext;
spare = s;
}
}
}
next = null;
}
if (p == null) {
break;
}
action.accept(p.key, p.val, ii);
++count;
}
}
return count;
}
}
public int forEachWithShort(DoubleObjShortConsumer<? super V> action, short ii) {
if (action == null) {
throw new NullPointerException();
} else {
int count = 0;
Node<V>[] tt;
if ((tt = this.table) != null) {
Node<V>[] tab = tt;
Node<V> next = null;
TableStack<V> stack = null;
TableStack<V> spare = null;
int index = 0;
int baseIndex = 0;
int baseLimit = tt.length;
int baseSize = tt.length;
while(true) {
Node<V> p = null;
p = next;
if (next != null) {
p = next.next;
}
label80: {
while(true) {
if (p != null) {
next = p;
break label80;
}
if (baseIndex >= baseLimit) {
break;
}
Node<V>[] t = tab;
int n;
if (tab == null || (n = tab.length) <= index || index < 0) {
break;
}
if ((p = tabAt(tab, index)) != null && p.hash < 0) {
if (p instanceof ForwardingNode) {
tab = ((ForwardingNode)p).nextTable;
p = null;
TableStack<V> s = spare;
if (spare != null) {
spare = spare.next;
} else {
s = new TableStack<V>();
}
s.tab = t;
s.length = n;
s.index = index;
s.next = stack;
stack = s;
continue;
}
if (p instanceof TreeBin) {
p = ((TreeBin)p).first;
} else {
p = null;
}
}
if (stack == null) {
if ((index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
} else {
while(true) {
TableStack<V> s = stack;
int len;
if (stack == null || (index += len = stack.length) < n) {
if (stack == null && (index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
break;
}
n = len;
index = stack.index;
tab = stack.tab;
stack.tab = null;
TableStack<V> anext = stack.next;
stack.next = spare;
stack = anext;
spare = s;
}
}
}
next = null;
}
if (p == null) {
break;
}
action.accept(p.key, p.val, ii);
++count;
}
}
return count;
}
}
public int forEachWithInt(DoubleObjIntConsumer<? super V> action, int ii) {
if (action == null) {
throw new NullPointerException();
} else {
int count = 0;
Node<V>[] tt;
if ((tt = this.table) != null) {
Node<V>[] tab = tt;
Node<V> next = null;
TableStack<V> stack = null;
TableStack<V> spare = null;
int index = 0;
int baseIndex = 0;
int baseLimit = tt.length;
int baseSize = tt.length;
while(true) {
Node<V> p = null;
p = next;
if (next != null) {
p = next.next;
}
label80: {
while(true) {
if (p != null) {
next = p;
break label80;
}
if (baseIndex >= baseLimit) {
break;
}
Node<V>[] t = tab;
int n;
if (tab == null || (n = tab.length) <= index || index < 0) {
break;
}
if ((p = tabAt(tab, index)) != null && p.hash < 0) {
if (p instanceof ForwardingNode) {
tab = ((ForwardingNode)p).nextTable;
p = null;
TableStack<V> s = spare;
if (spare != null) {
spare = spare.next;
} else {
s = new TableStack<V>();
}
s.tab = t;
s.length = n;
s.index = index;
s.next = stack;
stack = s;
continue;
}
if (p instanceof TreeBin) {
p = ((TreeBin)p).first;
} else {
p = null;
}
}
if (stack == null) {
if ((index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
} else {
while(true) {
TableStack<V> s = stack;
int len;
if (stack == null || (index += len = stack.length) < n) {
if (stack == null && (index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
break;
}
n = len;
index = stack.index;
tab = stack.tab;
stack.tab = null;
TableStack<V> anext = stack.next;
stack.next = spare;
stack = anext;
spare = s;
}
}
}
next = null;
}
if (p == null) {
break;
}
action.accept(p.key, p.val, ii);
++count;
}
}
return count;
}
}
public int forEachWithLong(DoubleObjLongConsumer<? super V> action, long ii) {
if (action == null) {
throw new NullPointerException();
} else {
int count = 0;
Node<V>[] tt;
if ((tt = this.table) != null) {
Node<V>[] tab = tt;
Node<V> next = null;
TableStack<V> stack = null;
TableStack<V> spare = null;
int index = 0;
int baseIndex = 0;
int baseLimit = tt.length;
int baseSize = tt.length;
while(true) {
Node<V> p = null;
p = next;
if (next != null) {
p = next.next;
}
label80: {
while(true) {
if (p != null) {
next = p;
break label80;
}
if (baseIndex >= baseLimit) {
break;
}
Node<V>[] t = tab;
int n;
if (tab == null || (n = tab.length) <= index || index < 0) {
break;
}
if ((p = tabAt(tab, index)) != null && p.hash < 0) {
if (p instanceof ForwardingNode) {
tab = ((ForwardingNode)p).nextTable;
p = null;
TableStack<V> s = spare;
if (spare != null) {
spare = spare.next;
} else {
s = new TableStack<V>();
}
s.tab = t;
s.length = n;
s.index = index;
s.next = stack;
stack = s;
continue;
}
if (p instanceof TreeBin) {
p = ((TreeBin)p).first;
} else {
p = null;
}
}
if (stack == null) {
if ((index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
} else {
while(true) {
TableStack<V> s = stack;
int len;
if (stack == null || (index += len = stack.length) < n) {
if (stack == null && (index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
break;
}
n = len;
index = stack.index;
tab = stack.tab;
stack.tab = null;
TableStack<V> anext = stack.next;
stack.next = spare;
stack = anext;
spare = s;
}
}
}
next = null;
}
if (p == null) {
break;
}
action.accept(p.key, p.val, ii);
++count;
}
}
return count;
}
}
public int forEachWithFloat(DoubleObjFloatConsumer<? super V> action, float ii) {
if (action == null) {
throw new NullPointerException();
} else {
int count = 0;
Node<V>[] tt;
if ((tt = this.table) != null) {
Node<V>[] tab = tt;
Node<V> next = null;
TableStack<V> stack = null;
TableStack<V> spare = null;
int index = 0;
int baseIndex = 0;
int baseLimit = tt.length;
int baseSize = tt.length;
while(true) {
Node<V> p = null;
p = next;
if (next != null) {
p = next.next;
}
label80: {
while(true) {
if (p != null) {
next = p;
break label80;
}
if (baseIndex >= baseLimit) {
break;
}
Node<V>[] t = tab;
int n;
if (tab == null || (n = tab.length) <= index || index < 0) {
break;
}
if ((p = tabAt(tab, index)) != null && p.hash < 0) {
if (p instanceof ForwardingNode) {
tab = ((ForwardingNode)p).nextTable;
p = null;
TableStack<V> s = spare;
if (spare != null) {
spare = spare.next;
} else {
s = new TableStack<V>();
}
s.tab = t;
s.length = n;
s.index = index;
s.next = stack;
stack = s;
continue;
}
if (p instanceof TreeBin) {
p = ((TreeBin)p).first;
} else {
p = null;
}
}
if (stack == null) {
if ((index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
} else {
while(true) {
TableStack<V> s = stack;
int len;
if (stack == null || (index += len = stack.length) < n) {
if (stack == null && (index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
break;
}
n = len;
index = stack.index;
tab = stack.tab;
stack.tab = null;
TableStack<V> anext = stack.next;
stack.next = spare;
stack = anext;
spare = s;
}
}
}
next = null;
}
if (p == null) {
break;
}
action.accept(p.key, p.val, ii);
++count;
}
}
return count;
}
}
public int forEachWithDouble(DoubleObjDoubleConsumer<? super V> action, double ii) {
if (action == null) {
throw new NullPointerException();
} else {
int count = 0;
Node<V>[] tt;
if ((tt = this.table) != null) {
Node<V>[] tab = tt;
Node<V> next = null;
TableStack<V> stack = null;
TableStack<V> spare = null;
int index = 0;
int baseIndex = 0;
int baseLimit = tt.length;
int baseSize = tt.length;
while(true) {
Node<V> p = null;
p = next;
if (next != null) {
p = next.next;
}
label80: {
while(true) {
if (p != null) {
next = p;
break label80;
}
if (baseIndex >= baseLimit) {
break;
}
Node<V>[] t = tab;
int n;
if (tab == null || (n = tab.length) <= index || index < 0) {
break;
}
if ((p = tabAt(tab, index)) != null && p.hash < 0) {
if (p instanceof ForwardingNode) {
tab = ((ForwardingNode)p).nextTable;
p = null;
TableStack<V> s = spare;
if (spare != null) {
spare = spare.next;
} else {
s = new TableStack<V>();
}
s.tab = t;
s.length = n;
s.index = index;
s.next = stack;
stack = s;
continue;
}
if (p instanceof TreeBin) {
p = ((TreeBin)p).first;
} else {
p = null;
}
}
if (stack == null) {
if ((index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
} else {
while(true) {
TableStack<V> s = stack;
int len;
if (stack == null || (index += len = stack.length) < n) {
if (stack == null && (index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
break;
}
n = len;
index = stack.index;
tab = stack.tab;
stack.tab = null;
TableStack<V> anext = stack.next;
stack.next = spare;
stack = anext;
spare = s;
}
}
}
next = null;
}
if (p == null) {
break;
}
action.accept(p.key, p.val, ii);
++count;
}
}
return count;
}
}
public <X> int forEachWithByte(DoubleBiObjByteConsumer<? super V, X> action, byte ii, X x) {
if (action == null) {
throw new NullPointerException();
} else {
int count = 0;
Node<V>[] tt;
if ((tt = this.table) != null) {
Node<V>[] tab = tt;
Node<V> next = null;
TableStack<V> stack = null;
TableStack<V> spare = null;
int index = 0;
int baseIndex = 0;
int baseLimit = tt.length;
int baseSize = tt.length;
while(true) {
Node<V> p = null;
p = next;
if (next != null) {
p = next.next;
}
label80: {
while(true) {
if (p != null) {
next = p;
break label80;
}
if (baseIndex >= baseLimit) {
break;
}
Node<V>[] t = tab;
int n;
if (tab == null || (n = tab.length) <= index || index < 0) {
break;
}
if ((p = tabAt(tab, index)) != null && p.hash < 0) {
if (p instanceof ForwardingNode) {
tab = ((ForwardingNode)p).nextTable;
p = null;
TableStack<V> s = spare;
if (spare != null) {
spare = spare.next;
} else {
s = new TableStack<V>();
}
s.tab = t;
s.length = n;
s.index = index;
s.next = stack;
stack = s;
continue;
}
if (p instanceof TreeBin) {
p = ((TreeBin)p).first;
} else {
p = null;
}
}
if (stack == null) {
if ((index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
} else {
while(true) {
TableStack<V> s = stack;
int len;
if (stack == null || (index += len = stack.length) < n) {
if (stack == null && (index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
break;
}
n = len;
index = stack.index;
tab = stack.tab;
stack.tab = null;
TableStack<V> anext = stack.next;
stack.next = spare;
stack = anext;
spare = s;
}
}
}
next = null;
}
if (p == null) {
break;
}
action.accept(p.key, p.val, ii, x);
++count;
}
}
return count;
}
}
public <X> int forEachWithShort(DoubleBiObjShortConsumer<? super V, X> action, short ii, X x) {
if (action == null) {
throw new NullPointerException();
} else {
int count = 0;
Node<V>[] tt;
if ((tt = this.table) != null) {
Node<V>[] tab = tt;
Node<V> next = null;
TableStack<V> stack = null;
TableStack<V> spare = null;
int index = 0;
int baseIndex = 0;
int baseLimit = tt.length;
int baseSize = tt.length;
while(true) {
Node<V> p = null;
p = next;
if (next != null) {
p = next.next;
}
label80: {
while(true) {
if (p != null) {
next = p;
break label80;
}
if (baseIndex >= baseLimit) {
break;
}
Node<V>[] t = tab;
int n;
if (tab == null || (n = tab.length) <= index || index < 0) {
break;
}
if ((p = tabAt(tab, index)) != null && p.hash < 0) {
if (p instanceof ForwardingNode) {
tab = ((ForwardingNode)p).nextTable;
p = null;
TableStack<V> s = spare;
if (spare != null) {
spare = spare.next;
} else {
s = new TableStack<V>();
}
s.tab = t;
s.length = n;
s.index = index;
s.next = stack;
stack = s;
continue;
}
if (p instanceof TreeBin) {
p = ((TreeBin)p).first;
} else {
p = null;
}
}
if (stack == null) {
if ((index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
} else {
while(true) {
TableStack<V> s = stack;
int len;
if (stack == null || (index += len = stack.length) < n) {
if (stack == null && (index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
break;
}
n = len;
index = stack.index;
tab = stack.tab;
stack.tab = null;
TableStack<V> anext = stack.next;
stack.next = spare;
stack = anext;
spare = s;
}
}
}
next = null;
}
if (p == null) {
break;
}
action.accept(p.key, p.val, ii, x);
++count;
}
}
return count;
}
}
public <X> int forEachWithInt(DoubleBiObjIntConsumer<? super V, X> action, int ii, X x) {
if (action == null) {
throw new NullPointerException();
} else {
int count = 0;
Node<V>[] tt;
if ((tt = this.table) != null) {
Node<V>[] tab = tt;
Node<V> next = null;
TableStack<V> stack = null;
TableStack<V> spare = null;
int index = 0;
int baseIndex = 0;
int baseLimit = tt.length;
int baseSize = tt.length;
while(true) {
Node<V> p = null;
p = next;
if (next != null) {
p = next.next;
}
label80: {
while(true) {
if (p != null) {
next = p;
break label80;
}
if (baseIndex >= baseLimit) {
break;
}
Node<V>[] t = tab;
int n;
if (tab == null || (n = tab.length) <= index || index < 0) {
break;
}
if ((p = tabAt(tab, index)) != null && p.hash < 0) {
if (p instanceof ForwardingNode) {
tab = ((ForwardingNode)p).nextTable;
p = null;
TableStack<V> s = spare;
if (spare != null) {
spare = spare.next;
} else {
s = new TableStack<V>();
}
s.tab = t;
s.length = n;
s.index = index;
s.next = stack;
stack = s;
continue;
}
if (p instanceof TreeBin) {
p = ((TreeBin)p).first;
} else {
p = null;
}
}
if (stack == null) {
if ((index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
} else {
while(true) {
TableStack<V> s = stack;
int len;
if (stack == null || (index += len = stack.length) < n) {
if (stack == null && (index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
break;
}
n = len;
index = stack.index;
tab = stack.tab;
stack.tab = null;
TableStack<V> anext = stack.next;
stack.next = spare;
stack = anext;
spare = s;
}
}
}
next = null;
}
if (p == null) {
break;
}
action.accept(p.key, p.val, ii, x);
++count;
}
}
return count;
}
}
public <X> int forEachWithLong(DoubleBiObjLongConsumer<? super V, X> action, long ii, X x) {
if (action == null) {
throw new NullPointerException();
} else {
int count = 0;
Node<V>[] tt;
if ((tt = this.table) != null) {
Node<V>[] tab = tt;
Node<V> next = null;
TableStack<V> stack = null;
TableStack<V> spare = null;
int index = 0;
int baseIndex = 0;
int baseLimit = tt.length;
int baseSize = tt.length;
while(true) {
Node<V> p = null;
p = next;
if (next != null) {
p = next.next;
}
label80: {
while(true) {
if (p != null) {
next = p;
break label80;
}
if (baseIndex >= baseLimit) {
break;
}
Node<V>[] t = tab;
int n;
if (tab == null || (n = tab.length) <= index || index < 0) {
break;
}
if ((p = tabAt(tab, index)) != null && p.hash < 0) {
if (p instanceof ForwardingNode) {
tab = ((ForwardingNode)p).nextTable;
p = null;
TableStack<V> s = spare;
if (spare != null) {
spare = spare.next;
} else {
s = new TableStack<V>();
}
s.tab = t;
s.length = n;
s.index = index;
s.next = stack;
stack = s;
continue;
}
if (p instanceof TreeBin) {
p = ((TreeBin)p).first;
} else {
p = null;
}
}
if (stack == null) {
if ((index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
} else {
while(true) {
TableStack<V> s = stack;
int len;
if (stack == null || (index += len = stack.length) < n) {
if (stack == null && (index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
break;
}
n = len;
index = stack.index;
tab = stack.tab;
stack.tab = null;
TableStack<V> anext = stack.next;
stack.next = spare;
stack = anext;
spare = s;
}
}
}
next = null;
}
if (p == null) {
break;
}
action.accept(p.key, p.val, ii, x);
++count;
}
}
return count;
}
}
public <X> int forEachWithFloat(DoubleBiObjFloatConsumer<? super V, X> action, float ii, X x) {
if (action == null) {
throw new NullPointerException();
} else {
int count = 0;
Node<V>[] tt;
if ((tt = this.table) != null) {
Node<V>[] tab = tt;
Node<V> next = null;
TableStack<V> stack = null;
TableStack<V> spare = null;
int index = 0;
int baseIndex = 0;
int baseLimit = tt.length;
int baseSize = tt.length;
while(true) {
Node<V> p = null;
p = next;
if (next != null) {
p = next.next;
}
label80: {
while(true) {
if (p != null) {
next = p;
break label80;
}
if (baseIndex >= baseLimit) {
break;
}
Node<V>[] t = tab;
int n;
if (tab == null || (n = tab.length) <= index || index < 0) {
break;
}
if ((p = tabAt(tab, index)) != null && p.hash < 0) {
if (p instanceof ForwardingNode) {
tab = ((ForwardingNode)p).nextTable;
p = null;
TableStack<V> s = spare;
if (spare != null) {
spare = spare.next;
} else {
s = new TableStack<V>();
}
s.tab = t;
s.length = n;
s.index = index;
s.next = stack;
stack = s;
continue;
}
if (p instanceof TreeBin) {
p = ((TreeBin)p).first;
} else {
p = null;
}
}
if (stack == null) {
if ((index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
} else {
while(true) {
TableStack<V> s = stack;
int len;
if (stack == null || (index += len = stack.length) < n) {
if (stack == null && (index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
break;
}
n = len;
index = stack.index;
tab = stack.tab;
stack.tab = null;
TableStack<V> anext = stack.next;
stack.next = spare;
stack = anext;
spare = s;
}
}
}
next = null;
}
if (p == null) {
break;
}
action.accept(p.key, p.val, ii, x);
++count;
}
}
return count;
}
}
public <X> int forEachWithDouble(DoubleBiObjDoubleConsumer<? super V, X> action, double ii, X x) {
if (action == null) {
throw new NullPointerException();
} else {
int count = 0;
Node<V>[] tt;
if ((tt = this.table) != null) {
Node<V>[] tab = tt;
Node<V> next = null;
TableStack<V> stack = null;
TableStack<V> spare = null;
int index = 0;
int baseIndex = 0;
int baseLimit = tt.length;
int baseSize = tt.length;
while(true) {
Node<V> p = null;
p = next;
if (next != null) {
p = next.next;
}
label80: {
while(true) {
if (p != null) {
next = p;
break label80;
}
if (baseIndex >= baseLimit) {
break;
}
Node<V>[] t = tab;
int n;
if (tab == null || (n = tab.length) <= index || index < 0) {
break;
}
if ((p = tabAt(tab, index)) != null && p.hash < 0) {
if (p instanceof ForwardingNode) {
tab = ((ForwardingNode)p).nextTable;
p = null;
TableStack<V> s = spare;
if (spare != null) {
spare = spare.next;
} else {
s = new TableStack<V>();
}
s.tab = t;
s.length = n;
s.index = index;
s.next = stack;
stack = s;
continue;
}
if (p instanceof TreeBin) {
p = ((TreeBin)p).first;
} else {
p = null;
}
}
if (stack == null) {
if ((index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
} else {
while(true) {
TableStack<V> s = stack;
int len;
if (stack == null || (index += len = stack.length) < n) {
if (stack == null && (index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
break;
}
n = len;
index = stack.index;
tab = stack.tab;
stack.tab = null;
TableStack<V> anext = stack.next;
stack.next = spare;
stack = anext;
spare = s;
}
}
}
next = null;
}
if (p == null) {
break;
}
action.accept(p.key, p.val, ii, x);
++count;
}
}
return count;
}
}
public void replaceAll(Double2ObjectOperator<V> function) {
if (function == null) {
throw new NullPointerException();
} else {
Node<V>[] tt;
if ((tt = this.table) != null) {
Node<V>[] tab = tt;
Node<V> next = null;
TableStack<V> stack = null;
TableStack<V> spare = null;
int index = 0;
int baseIndex = 0;
int baseLimit = tt.length;
int baseSize = tt.length;
while(true) {
Node<V> p = null;
p = next;
if (next != null) {
p = next.next;
}
label88: {
while(true) {
if (p != null) {
next = p;
break label88;
}
if (baseIndex >= baseLimit) {
break;
}
Node<V>[] t = tab;
int n;
if (tab == null || (n = tab.length) <= index || index < 0) {
break;
}
if ((p = tabAt(tab, index)) != null && p.hash < 0) {
if (p instanceof ForwardingNode) {
tab = ((ForwardingNode)p).nextTable;
p = null;
TableStack<V> s = spare;
if (spare != null) {
spare = spare.next;
} else {
s = new TableStack<V>();
}
s.tab = t;
s.length = n;
s.index = index;
s.next = stack;
stack = s;
continue;
}
if (p instanceof TreeBin) {
p = ((TreeBin)p).first;
} else {
p = null;
}
}
if (stack == null) {
if ((index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
} else {
while(true) {
TableStack<V> s = stack;
int len;
if (stack == null || (index += len = stack.length) < n) {
if (stack == null && (index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
break;
}
n = len;
index = stack.index;
tab = stack.tab;
stack.tab = null;
TableStack<V> anext = stack.next;
stack.next = spare;
stack = anext;
spare = s;
}
}
}
next = null;
}
if (p == null) {
break;
}
V oldValue = p.val;
double key = p.key;
while(true) {
V newValue = function.apply(key, oldValue);
if (newValue == null) {
throw new NullPointerException();
}
if (this.replaceNode(key, newValue, oldValue) != null || (oldValue = (V)this.get(key)) == null) {
break;
}
}
}
}
}
}
public V computeIfAbsent(double key, DoubleFunction<? extends V> mappingFunction) {
if (key == this.EMPTY) {
throw new IllegalArgumentException("Key is EMPTY: " + this.EMPTY);
} else if (mappingFunction == null) {
throw new NullPointerException();
} else {
int h = spread(Double.hashCode(key));
V val = null;
int binCount = 0;
Node<V>[] tab = this.table;
while(true) {
int n;
while(tab == null || (n = tab.length) == 0) {
tab = this.initTable();
}
Node<V> f;
int i;
if ((f = tabAt(tab, i = n - 1 & h)) == null) {
Node<V> r = new ReservationNode<V>(this.EMPTY);
synchronized(r) {
if (casTabAt(tab, i, (Node)null, r)) {
binCount = 1;
Node<V> node = null;
try {
if ((val = mappingFunction.apply(key)) != null) {
node = new Node<V>(this.EMPTY, h, key, val, (Node)null);
}
} finally {
setTabAt(tab, i, node);
}
}
}
if (binCount != 0) {
break;
}
} else {
int fh;
if ((fh = f.hash) == -1) {
tab = this.helpTransfer(tab, f);
} else {
boolean added = false;
synchronized(f) {
if (tabAt(tab, i) == f) {
if (fh < 0) {
if (f instanceof TreeBin) {
binCount = 2;
TreeBin<V> t = (TreeBin)f;
TreeNode<V> p;
TreeNode<V> r;
if ((r = t.root) != null && (p = r.findTreeNode(h, key, (Class)null)) != null) {
val = p.val;
} else if ((val = mappingFunction.apply(key)) != null) {
added = true;
t.putTreeVal(h, key, val);
}
}
} else {
label274: {
binCount = 1;
Node<V> e;
double ek;
for(e = f; e.hash != h || (ek = e.key) != key && (ek == this.EMPTY || key != ek); ++binCount) {
Node<V> pred = e;
if ((e = e.next) == null) {
if ((val = mappingFunction.apply(key)) != null) {
added = true;
pred.next = new Node<V>(this.EMPTY, h, key, val, (Node)null);
}
break label274;
}
}
val = e.val;
}
}
}
}
if (binCount != 0) {
if (binCount >= 8) {
this.treeifyBin(tab, i);
}
if (!added) {
return val;
}
break;
}
}
}
}
if (val != null) {
this.addCount(1L, binCount);
}
return val;
}
}
public V computeIfPresent(double key, DoubleObjFunction<? super V, ? extends V> remappingFunction) {
if (key == this.EMPTY) {
throw new IllegalArgumentException("Key is EMPTY: " + this.EMPTY);
} else if (remappingFunction == null) {
throw new NullPointerException();
} else {
int h = spread(Double.hashCode(key));
V val = null;
int delta = 0;
int binCount = 0;
Node<V>[] tab = this.table;
while(true) {
int n;
while(tab == null || (n = tab.length) == 0) {
tab = this.initTable();
}
Node<V> f;
int i;
if ((f = tabAt(tab, i = n - 1 & h)) == null) {
break;
}
int fh;
if ((fh = f.hash) == -1) {
tab = this.helpTransfer(tab, f);
} else {
synchronized(f) {
if (tabAt(tab, i) == f) {
if (fh < 0) {
if (f instanceof TreeBin) {
binCount = 2;
TreeBin<V> t = (TreeBin)f;
TreeNode<V> r;
TreeNode<V> p;
if ((r = t.root) != null && (p = r.findTreeNode(h, key, (Class)null)) != null) {
val = remappingFunction.apply(key, p.val);
if (val != null) {
p.val = val;
} else {
delta = -1;
if (t.removeTreeNode(p)) {
setTabAt(tab, i, this.untreeify(t.first));
}
}
}
}
} else {
label111: {
binCount = 1;
Node<V> e = f;
Node<V> pred;
double ek;
for(pred = null; e.hash != h || (ek = e.key) != key && (ek == this.EMPTY || key != ek); ++binCount) {
pred = e;
if ((e = e.next) == null) {
break label111;
}
}
val = remappingFunction.apply(key, e.val);
if (val != null) {
e.val = val;
} else {
delta = -1;
Node<V> en = e.next;
if (pred != null) {
pred.next = en;
} else {
setTabAt(tab, i, en);
}
}
}
}
}
}
if (binCount != 0) {
break;
}
}
}
if (delta != 0) {
this.addCount((long)delta, binCount);
}
return val;
}
}
public V compute(double key, DoubleObjFunction<? super V, ? extends V> remappingFunction) {
if (key == this.EMPTY) {
throw new IllegalArgumentException("Key is EMPTY: " + this.EMPTY);
} else if (remappingFunction == null) {
throw new NullPointerException();
} else {
int h = spread(Double.hashCode(key));
V val = null;
int delta = 0;
int binCount = 0;
Node<V>[] tab = this.table;
while(true) {
int n;
while(tab == null || (n = tab.length) == 0) {
tab = this.initTable();
}
Node<V> f;
int i;
if ((f = tabAt(tab, i = n - 1 & h)) == null) {
Node<V> r = new ReservationNode<V>(this.EMPTY);
synchronized(r) {
if (casTabAt(tab, i, (Node)null, r)) {
binCount = 1;
Node<V> node = null;
try {
if ((val = remappingFunction.apply(key, (Object)null)) != null) {
delta = 1;
node = new Node<V>(this.EMPTY, h, key, val, (Node)null);
}
} finally {
setTabAt(tab, i, node);
}
}
}
if (binCount != 0) {
break;
}
} else {
int fh;
if ((fh = f.hash) == -1) {
tab = this.helpTransfer(tab, f);
} else {
synchronized(f) {
if (tabAt(tab, i) == f) {
if (fh < 0) {
if (f instanceof TreeBin) {
binCount = 1;
TreeBin<V> t = (TreeBin)f;
TreeNode<V> r;
TreeNode<V> p;
if ((r = t.root) != null) {
p = r.findTreeNode(h, key, (Class)null);
} else {
p = null;
}
V pv = (V)(p == null ? null : p.val);
val = remappingFunction.apply(key, pv);
if (val != null) {
if (p != null) {
p.val = val;
} else {
delta = 1;
t.putTreeVal(h, key, val);
}
} else if (p != null) {
delta = -1;
if (t.removeTreeNode(p)) {
setTabAt(tab, i, this.untreeify(t.first));
}
}
}
} else {
label301: {
binCount = 1;
Node<V> e = f;
Node<V> pred;
double ek;
for(pred = null; e.hash != h || (ek = e.key) != key && (ek == this.EMPTY || key != ek); ++binCount) {
pred = e;
if ((e = e.next) == null) {
val = remappingFunction.apply(key, (Object)null);
if (val != null) {
delta = 1;
pred.next = new Node<V>(this.EMPTY, h, key, val, (Node)null);
}
break label301;
}
}
val = remappingFunction.apply(key, e.val);
if (val != null) {
e.val = val;
} else {
delta = -1;
Node<V> en = e.next;
if (pred != null) {
pred.next = en;
} else {
setTabAt(tab, i, en);
}
}
}
}
}
}
if (binCount != 0) {
if (binCount >= 8) {
this.treeifyBin(tab, i);
}
break;
}
}
}
}
if (delta != 0) {
this.addCount((long)delta, binCount);
}
return val;
}
}
public V merge(double key, V value, BiFunction<? super V, ? super V, ? extends V> remappingFunction) {
if (key == this.EMPTY) {
throw new IllegalArgumentException("Key is EMPTY: " + this.EMPTY);
} else if (value != null && remappingFunction != null) {
int h = spread(Double.hashCode(key));
V val = null;
int delta = 0;
int binCount = 0;
Node<V>[] tab = this.table;
while(true) {
int n;
while(tab == null || (n = tab.length) == 0) {
tab = this.initTable();
}
Node<V> f;
int i;
if ((f = tabAt(tab, i = n - 1 & h)) == null) {
if (casTabAt(tab, i, (Node)null, new Node(this.EMPTY, h, key, value, (Node)null))) {
delta = 1;
val = value;
break;
}
} else {
int fh;
if ((fh = f.hash) == -1) {
tab = this.helpTransfer(tab, f);
} else {
synchronized(f) {
if (tabAt(tab, i) == f) {
if (fh < 0) {
if (f instanceof TreeBin) {
binCount = 2;
TreeBin<V> t = (TreeBin)f;
TreeNode<V> r = t.root;
TreeNode<V> p = r == null ? null : r.findTreeNode(h, key, (Class)null);
val = (V)(p == null ? value : remappingFunction.apply(p.val, value));
if (val != null) {
if (p != null) {
p.val = val;
} else {
delta = 1;
t.putTreeVal(h, key, val);
}
} else if (p != null) {
delta = -1;
if (t.removeTreeNode(p)) {
setTabAt(tab, i, this.untreeify(t.first));
}
}
}
} else {
label132: {
binCount = 1;
Node<V> e = f;
Node<V> pred;
double ek;
for(pred = null; e.hash != h || (ek = e.key) != key && (ek == this.EMPTY || key != ek); ++binCount) {
pred = e;
if ((e = e.next) == null) {
delta = 1;
val = value;
pred.next = new Node<V>(this.EMPTY, h, key, value, (Node)null);
break label132;
}
}
val = (V)remappingFunction.apply(e.val, value);
if (val != null) {
e.val = val;
} else {
delta = -1;
Node<V> en = e.next;
if (pred != null) {
pred.next = en;
} else {
setTabAt(tab, i, en);
}
}
}
}
}
}
if (binCount != 0) {
if (binCount >= 8) {
this.treeifyBin(tab, i);
}
break;
}
}
}
}
if (delta != 0) {
this.addCount((long)delta, binCount);
}
return val;
} else {
throw new NullPointerException();
}
}
public long mappingCount() {
long n = this.sumCount();
return n < 0L ? 0L : n;
}
public static DoubleSet newKeySet() {
return new KeySetView(new Double2ObjectConcurrentHashMap(), Boolean.TRUE);
}
public static KeySetView<Boolean> newKeySet(int initialCapacity) {
return new KeySetView<Boolean>(new Double2ObjectConcurrentHashMap(initialCapacity), Boolean.TRUE);
}
public KeySetView<V> keySet(V mappedValue) {
if (mappedValue == null) {
throw new NullPointerException();
} else {
return new KeySetView<V>(this, mappedValue);
}
}
protected static final int resizeStamp(int n) {
return Integer.numberOfLeadingZeros(n) | 1 << RESIZE_STAMP_BITS - 1;
}
protected final Node<V>[] initTable() {
Node<V>[] tab;
while((tab = this.table) == null || tab.length == 0) {
int sc;
if ((sc = this.sizeCtl) < 0) {
Thread.yield();
} else if (U.compareAndSwapInt(this, SIZECTL, sc, -1)) {
try {
if ((tab = this.table) == null || tab.length == 0) {
int n = sc > 0 ? sc : 16;
Node<V>[] nt = new Node[n];
tab = nt;
this.table = nt;
sc = n - (n >>> 2);
}
break;
} finally {
this.sizeCtl = sc;
}
}
}
return tab;
}
protected final void addCount(long x, int check) {
CounterCell[] as;
long b;
long s;
if ((as = this.counterCells) != null || !U.compareAndSwapLong(this, BASECOUNT, b = this.baseCount, s = b + x)) {
boolean uncontended = true;
CounterCell a;
long v;
int m;
if (as == null || (m = as.length - 1) < 0 || (a = as[TLRUtil.getProbe() & m]) == null || !(uncontended = U.compareAndSwapLong(a, CELLVALUE, v = a.value, v + x))) {
this.fullAddCount(x, uncontended);
return;
}
if (check <= 1) {
return;
}
s = this.sumCount();
}
int n;
Node<V>[] tab;
int sc;
if (check >= 0) {
for(; s >= (long)(sc = this.sizeCtl) && (tab = this.table) != null && (n = tab.length) < 1073741824; s = this.sumCount()) {
int rs = resizeStamp(n);
if (sc < 0) {
Node<V>[] nt;
if (sc >>> RESIZE_STAMP_SHIFT != rs || sc == rs + 1 || sc == rs + MAX_RESIZERS || (nt = this.nextTable) == null || this.transferIndex <= 0) {
break;
}
if (U.compareAndSwapInt(this, SIZECTL, sc, sc + 1)) {
this.transfer(tab, nt);
}
} else if (U.compareAndSwapInt(this, SIZECTL, sc, (rs << RESIZE_STAMP_SHIFT) + 2)) {
this.transfer(tab, (Node[])null);
}
}
}
}
protected final Node<V>[] helpTransfer(Node<V>[] tab, Node<V> f) {
Node<V>[] nextTab;
if (tab != null && f instanceof ForwardingNode && (nextTab = ((ForwardingNode)f).nextTable) != null) {
int rs = resizeStamp(tab.length);
int sc;
while(nextTab == this.nextTable && this.table == tab && (sc = this.sizeCtl) < 0 && sc >>> RESIZE_STAMP_SHIFT == rs && sc != rs + 1 && sc != rs + MAX_RESIZERS && this.transferIndex > 0) {
if (U.compareAndSwapInt(this, SIZECTL, sc, sc + 1)) {
this.transfer(tab, nextTab);
break;
}
}
return nextTab;
} else {
return this.table;
}
}
protected final void tryPresize(int size) {
int c = size >= 536870912 ? 1073741824 : tableSizeFor(size + (size >>> 1) + 1);
int sc;
while((sc = this.sizeCtl) >= 0) {
Node<V>[] tab = this.table;
int n;
if (tab != null && (n = tab.length) != 0) {
if (c <= sc || n >= 1073741824) {
break;
}
if (tab == this.table) {
int rs = resizeStamp(n);
if (sc < 0) {
Node<V>[] nt;
if (sc >>> RESIZE_STAMP_SHIFT != rs || sc == rs + 1 || sc == rs + MAX_RESIZERS || (nt = this.nextTable) == null || this.transferIndex <= 0) {
break;
}
if (U.compareAndSwapInt(this, SIZECTL, sc, sc + 1)) {
this.transfer(tab, nt);
}
} else if (U.compareAndSwapInt(this, SIZECTL, sc, (rs << RESIZE_STAMP_SHIFT) + 2)) {
this.transfer(tab, (Node[])null);
}
}
} else {
n = sc > c ? sc : c;
if (U.compareAndSwapInt(this, SIZECTL, sc, -1)) {
try {
if (this.table == tab) {
Node<V>[] nt = new Node[n];
this.table = nt;
sc = n - (n >>> 2);
}
} finally {
this.sizeCtl = sc;
}
}
}
}
}
protected final void transfer(Node<V>[] tab, Node<V>[] nextTab) {
int n = tab.length;
int stride;
if ((stride = NCPU > 1 ? (n >>> 3) / NCPU : n) < 16) {
stride = 16;
}
if (nextTab == null) {
try {
Node<V>[] nt = new Node[n << 1];
nextTab = nt;
} catch (Throwable var27) {
this.sizeCtl = 2147483647;
return;
}
this.nextTable = nextTab;
this.transferIndex = n;
}
int nextn = nextTab.length;
ForwardingNode<V> fwd = new ForwardingNode<V>(this.EMPTY, nextTab);
boolean advance = true;
boolean finishing = false;
int i = 0;
int bound = 0;
while(true) {
while(!advance) {
if (i >= 0 && i < n && i + n < nextn) {
Node<V> f;
if ((f = tabAt(tab, i)) == null) {
advance = casTabAt(tab, i, (Node)null, fwd);
} else {
int fh;
if ((fh = f.hash) == -1) {
advance = true;
} else {
synchronized(f) {
if (tabAt(tab, i) == f) {
if (fh >= 0) {
int runBit = fh & n;
Node<V> lastRun = f;
for(Node<V> p = f.next; p != null; p = p.next) {
int b = p.hash & n;
if (b != runBit) {
runBit = b;
lastRun = p;
}
}
Node<V> ln;
Node<V> hn;
if (runBit == 0) {
ln = lastRun;
hn = null;
} else {
hn = lastRun;
ln = null;
}
for(Node<V> p = f; p != lastRun; p = p.next) {
int ph = p.hash;
double pk = p.key;
V pv = p.val;
if ((ph & n) == 0) {
ln = new Node<V>(this.EMPTY, ph, pk, pv, ln);
} else {
hn = new Node<V>(this.EMPTY, ph, pk, pv, hn);
}
}
setTabAt(nextTab, i, ln);
setTabAt(nextTab, i + n, hn);
setTabAt(tab, i, fwd);
advance = true;
} else if (f instanceof TreeBin) {
TreeBin<V> t = (TreeBin)f;
TreeNode<V> lo = null;
TreeNode<V> loTail = null;
TreeNode<V> hi = null;
TreeNode<V> hiTail = null;
int lc = 0;
int hc = 0;
for(Node<V> e = t.first; e != null; e = e.next) {
int h = e.hash;
TreeNode<V> p = new TreeNode<V>(this.EMPTY, h, e.key, e.val, (Node)null, (TreeNode)null);
if ((h & n) == 0) {
if ((p.prev = loTail) == null) {
lo = p;
} else {
loTail.next = p;
}
loTail = p;
++lc;
} else {
if ((p.prev = hiTail) == null) {
hi = p;
} else {
hiTail.next = p;
}
hiTail = p;
++hc;
}
}
Node<V> ln = (Node<V>)(lc <= 6 ? this.untreeify(lo) : (hc != 0 ? new TreeBin(this.EMPTY, lo) : t));
Node<V> hn = (Node<V>)(hc <= 6 ? this.untreeify(hi) : (lc != 0 ? new TreeBin(this.EMPTY, hi) : t));
setTabAt(nextTab, i, ln);
setTabAt(nextTab, i + n, hn);
setTabAt(tab, i, fwd);
advance = true;
}
}
}
}
}
} else {
if (finishing) {
this.nextTable = null;
this.table = nextTab;
this.sizeCtl = (n << 1) - (n >>> 1);
return;
}
int sc;
if (U.compareAndSwapInt(this, SIZECTL, sc = this.sizeCtl, sc - 1)) {
if (sc - 2 != resizeStamp(n) << RESIZE_STAMP_SHIFT) {
return;
}
advance = true;
finishing = true;
i = n;
}
}
}
--i;
if (i < bound && !finishing) {
int nextIndex;
if ((nextIndex = this.transferIndex) <= 0) {
i = -1;
advance = false;
} else {
int nextBound;
if (U.compareAndSwapInt(this, TRANSFERINDEX, nextIndex, nextBound = nextIndex > stride ? nextIndex - stride : 0)) {
bound = nextBound;
i = nextIndex - 1;
advance = false;
}
}
} else {
advance = false;
}
}
}
protected final long sumCount() {
CounterCell[] as = this.counterCells;
long sum = this.baseCount;
if (as != null) {
for(int i = 0; i < as.length; ++i) {
CounterCell a;
if ((a = as[i]) != null) {
sum += a.value;
}
}
}
return sum;
}
protected final void fullAddCount(long x, boolean wasUncontended) {
int h;
if ((h = TLRUtil.getProbe()) == 0) {
TLRUtil.localInit();
h = TLRUtil.getProbe();
wasUncontended = true;
}
boolean collide = false;
while(true) {
CounterCell[] as;
int n;
if ((as = this.counterCells) != null && (n = as.length) > 0) {
CounterCell a;
if ((a = as[n - 1 & h]) == null) {
if (this.cellsBusy == 0) {
CounterCell r = new CounterCell(x);
if (this.cellsBusy == 0 && U.compareAndSwapInt(this, CELLSBUSY, 0, 1)) {
boolean created = false;
try {
CounterCell[] rs;
int m;
int j;
if ((rs = this.counterCells) != null && (m = rs.length) > 0 && rs[j = m - 1 & h] == null) {
rs[j] = r;
created = true;
}
} finally {
this.cellsBusy = 0;
}
if (created) {
break;
}
continue;
}
}
collide = false;
} else if (!wasUncontended) {
wasUncontended = true;
} else {
long v;
if (U.compareAndSwapLong(a, CELLVALUE, v = a.value, v + x)) {
break;
}
if (this.counterCells == as && n < NCPU) {
if (!collide) {
collide = true;
} else if (this.cellsBusy == 0 && U.compareAndSwapInt(this, CELLSBUSY, 0, 1)) {
try {
if (this.counterCells == as) {
CounterCell[] rs = new CounterCell[n << 1];
for(int i = 0; i < n; ++i) {
rs[i] = as[i];
}
this.counterCells = rs;
}
} finally {
this.cellsBusy = 0;
}
collide = false;
continue;
}
} else {
collide = false;
}
}
h = TLRUtil.advanceProbe(h);
} else if (this.cellsBusy == 0 && this.counterCells == as && U.compareAndSwapInt(this, CELLSBUSY, 0, 1)) {
boolean init = false;
try {
if (this.counterCells == as) {
CounterCell[] rs = new CounterCell[2];
rs[h & 1] = new CounterCell(x);
this.counterCells = rs;
init = true;
}
} finally {
this.cellsBusy = 0;
}
if (init) {
break;
}
} else {
long v;
if (U.compareAndSwapLong(this, BASECOUNT, v = this.baseCount, v + x)) {
break;
}
}
}
}
protected final void treeifyBin(Node<V>[] tab, int index) {
if (tab != null) {
int n;
if ((n = tab.length) < 64) {
this.tryPresize(n << 1);
} else {
Node<V> b;
if ((b = tabAt(tab, index)) != null && b.hash >= 0) {
synchronized(b) {
if (tabAt(tab, index) == b) {
TreeNode<V> hd = null;
TreeNode<V> tl = null;
for(Node<V> e = b; e != null; e = e.next) {
TreeNode<V> p = new TreeNode<V>(this.EMPTY, e.hash, e.key, e.val, (Node)null, (TreeNode)null);
if ((p.prev = tl) == null) {
hd = p;
} else {
tl.next = p;
}
tl = p;
}
setTabAt(tab, index, new TreeBin(this.EMPTY, hd));
}
}
}
}
}
}
protected <V> Node<V> untreeify(Node<V> b) {
Node<V> hd = null;
Node<V> tl = null;
for(Node<V> q = b; q != null; q = q.next) {
Node<V> p = new Node<V>(this.EMPTY, q.hash, q.key, q.val, (Node)null);
if (tl == null) {
hd = p;
} else {
tl.next = p;
}
tl = p;
}
return hd;
}
protected final int batchFor(long b) {
long n;
if (b != 9223372036854775807L && (n = this.sumCount()) > 1L && n >= b) {
int sp = ForkJoinPool.getCommonPoolParallelism() << 2;
long n;
return b > 0L && (n = n / b) < (long)sp ? (int)n : sp;
} else {
return 0;
}
}
public void forEach(long parallelismThreshold, DoubleObjConsumer<? super V> action) {
if (action == null) {
throw new NullPointerException();
} else {
(new ForEachMappingTask((BulkTask)null, this.batchFor(parallelismThreshold), 0, 0, this.table, action)).invoke();
}
}
public <U> void forEach(long parallelismThreshold, DoubleObjFunction<? super V, ? extends U> transformer, Consumer<? super U> action) {
if (transformer != null && action != null) {
(new ForEachTransformedMappingTask((BulkTask)null, this.batchFor(parallelismThreshold), 0, 0, this.table, transformer, action)).invoke();
} else {
throw new NullPointerException();
}
}
public <U> U search(long parallelismThreshold, DoubleObjFunction<? super V, ? extends U> searchFunction) {
if (searchFunction == null) {
throw new NullPointerException();
} else {
return (U)(new SearchMappingsTask((BulkTask)null, this.batchFor(parallelismThreshold), 0, 0, this.table, searchFunction, new AtomicReference())).invoke();
}
}
public <U> U search(DoubleObjFunction<? super V, ? extends U> searchFunction) {
if (searchFunction == null) {
throw new NullPointerException();
} else {
Node<V>[] tt;
if ((tt = this.table) != null) {
Node<V>[] tab = tt;
Node<V> next = null;
TableStack<V> stack = null;
TableStack<V> spare = null;
int index = 0;
int baseIndex = 0;
int baseLimit = tt.length;
int baseSize = tt.length;
while(true) {
Node<V> p = null;
p = next;
if (next != null) {
p = next.next;
}
label83: {
while(true) {
if (p != null) {
next = p;
break label83;
}
if (baseIndex >= baseLimit) {
break;
}
Node<V>[] t = tab;
int n;
if (tab == null || (n = tab.length) <= index || index < 0) {
break;
}
if ((p = tabAt(tab, index)) != null && p.hash < 0) {
if (p instanceof ForwardingNode) {
tab = ((ForwardingNode)p).nextTable;
p = null;
TableStack<V> s = spare;
if (spare != null) {
spare = spare.next;
} else {
s = new TableStack<V>();
}
s.tab = t;
s.length = n;
s.index = index;
s.next = stack;
stack = s;
continue;
}
if (p instanceof TreeBin) {
p = ((TreeBin)p).first;
} else {
p = null;
}
}
if (stack == null) {
if ((index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
} else {
while(true) {
TableStack<V> s = stack;
int len;
if (stack == null || (index += len = stack.length) < n) {
if (stack == null && (index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
break;
}
n = len;
index = stack.index;
tab = stack.tab;
stack.tab = null;
TableStack<V> anext = stack.next;
stack.next = spare;
stack = anext;
spare = s;
}
}
}
next = null;
}
if (p == null) {
break;
}
U u = searchFunction.apply(p.key, p.val);
if (u != null) {
return u;
}
}
}
return null;
}
}
public <U, X> U search(DoubleBiObjFunction<? super V, X, ? extends U> searchFunction, X x) {
if (searchFunction == null) {
throw new NullPointerException();
} else {
Node<V>[] tt;
if ((tt = this.table) != null) {
Node<V>[] tab = tt;
Node<V> next = null;
TableStack<V> stack = null;
TableStack<V> spare = null;
int index = 0;
int baseIndex = 0;
int baseLimit = tt.length;
int baseSize = tt.length;
while(true) {
Node<V> p = null;
p = next;
if (next != null) {
p = next.next;
}
label83: {
while(true) {
if (p != null) {
next = p;
break label83;
}
if (baseIndex >= baseLimit) {
break;
}
Node<V>[] t = tab;
int n;
if (tab == null || (n = tab.length) <= index || index < 0) {
break;
}
if ((p = tabAt(tab, index)) != null && p.hash < 0) {
if (p instanceof ForwardingNode) {
tab = ((ForwardingNode)p).nextTable;
p = null;
TableStack<V> s = spare;
if (spare != null) {
spare = spare.next;
} else {
s = new TableStack<V>();
}
s.tab = t;
s.length = n;
s.index = index;
s.next = stack;
stack = s;
continue;
}
if (p instanceof TreeBin) {
p = ((TreeBin)p).first;
} else {
p = null;
}
}
if (stack == null) {
if ((index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
} else {
while(true) {
TableStack<V> s = stack;
int len;
if (stack == null || (index += len = stack.length) < n) {
if (stack == null && (index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
break;
}
n = len;
index = stack.index;
tab = stack.tab;
stack.tab = null;
TableStack<V> anext = stack.next;
stack.next = spare;
stack = anext;
spare = s;
}
}
}
next = null;
}
if (p == null) {
break;
}
U u = searchFunction.apply(p.key, p.val, x);
if (u != null) {
return u;
}
}
}
return null;
}
}
public <U> U searchWithByte(DoubleObjByteFunction<? super V, ? extends U> searchFunction, byte x) {
if (searchFunction == null) {
throw new NullPointerException();
} else {
Node<V>[] tt;
if ((tt = this.table) != null) {
Node<V>[] tab = tt;
Node<V> next = null;
TableStack<V> stack = null;
TableStack<V> spare = null;
int index = 0;
int baseIndex = 0;
int baseLimit = tt.length;
int baseSize = tt.length;
while(true) {
Node<V> p = null;
p = next;
if (next != null) {
p = next.next;
}
label83: {
while(true) {
if (p != null) {
next = p;
break label83;
}
if (baseIndex >= baseLimit) {
break;
}
Node<V>[] t = tab;
int n;
if (tab == null || (n = tab.length) <= index || index < 0) {
break;
}
if ((p = tabAt(tab, index)) != null && p.hash < 0) {
if (p instanceof ForwardingNode) {
tab = ((ForwardingNode)p).nextTable;
p = null;
TableStack<V> s = spare;
if (spare != null) {
spare = spare.next;
} else {
s = new TableStack<V>();
}
s.tab = t;
s.length = n;
s.index = index;
s.next = stack;
stack = s;
continue;
}
if (p instanceof TreeBin) {
p = ((TreeBin)p).first;
} else {
p = null;
}
}
if (stack == null) {
if ((index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
} else {
while(true) {
TableStack<V> s = stack;
int len;
if (stack == null || (index += len = stack.length) < n) {
if (stack == null && (index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
break;
}
n = len;
index = stack.index;
tab = stack.tab;
stack.tab = null;
TableStack<V> anext = stack.next;
stack.next = spare;
stack = anext;
spare = s;
}
}
}
next = null;
}
if (p == null) {
break;
}
U u = searchFunction.apply(p.key, p.val, x);
if (u != null) {
return u;
}
}
}
return null;
}
}
public <U> U searchWithShort(DoubleObjShortFunction<? super V, ? extends U> searchFunction, short x) {
if (searchFunction == null) {
throw new NullPointerException();
} else {
Node<V>[] tt;
if ((tt = this.table) != null) {
Node<V>[] tab = tt;
Node<V> next = null;
TableStack<V> stack = null;
TableStack<V> spare = null;
int index = 0;
int baseIndex = 0;
int baseLimit = tt.length;
int baseSize = tt.length;
while(true) {
Node<V> p = null;
p = next;
if (next != null) {
p = next.next;
}
label83: {
while(true) {
if (p != null) {
next = p;
break label83;
}
if (baseIndex >= baseLimit) {
break;
}
Node<V>[] t = tab;
int n;
if (tab == null || (n = tab.length) <= index || index < 0) {
break;
}
if ((p = tabAt(tab, index)) != null && p.hash < 0) {
if (p instanceof ForwardingNode) {
tab = ((ForwardingNode)p).nextTable;
p = null;
TableStack<V> s = spare;
if (spare != null) {
spare = spare.next;
} else {
s = new TableStack<V>();
}
s.tab = t;
s.length = n;
s.index = index;
s.next = stack;
stack = s;
continue;
}
if (p instanceof TreeBin) {
p = ((TreeBin)p).first;
} else {
p = null;
}
}
if (stack == null) {
if ((index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
} else {
while(true) {
TableStack<V> s = stack;
int len;
if (stack == null || (index += len = stack.length) < n) {
if (stack == null && (index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
break;
}
n = len;
index = stack.index;
tab = stack.tab;
stack.tab = null;
TableStack<V> anext = stack.next;
stack.next = spare;
stack = anext;
spare = s;
}
}
}
next = null;
}
if (p == null) {
break;
}
U u = searchFunction.apply(p.key, p.val, x);
if (u != null) {
return u;
}
}
}
return null;
}
}
public <U> U searchWithInt(DoubleObjIntFunction<? super V, ? extends U> searchFunction, int x) {
if (searchFunction == null) {
throw new NullPointerException();
} else {
Node<V>[] tt;
if ((tt = this.table) != null) {
Node<V>[] tab = tt;
Node<V> next = null;
TableStack<V> stack = null;
TableStack<V> spare = null;
int index = 0;
int baseIndex = 0;
int baseLimit = tt.length;
int baseSize = tt.length;
while(true) {
Node<V> p = null;
p = next;
if (next != null) {
p = next.next;
}
label83: {
while(true) {
if (p != null) {
next = p;
break label83;
}
if (baseIndex >= baseLimit) {
break;
}
Node<V>[] t = tab;
int n;
if (tab == null || (n = tab.length) <= index || index < 0) {
break;
}
if ((p = tabAt(tab, index)) != null && p.hash < 0) {
if (p instanceof ForwardingNode) {
tab = ((ForwardingNode)p).nextTable;
p = null;
TableStack<V> s = spare;
if (spare != null) {
spare = spare.next;
} else {
s = new TableStack<V>();
}
s.tab = t;
s.length = n;
s.index = index;
s.next = stack;
stack = s;
continue;
}
if (p instanceof TreeBin) {
p = ((TreeBin)p).first;
} else {
p = null;
}
}
if (stack == null) {
if ((index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
} else {
while(true) {
TableStack<V> s = stack;
int len;
if (stack == null || (index += len = stack.length) < n) {
if (stack == null && (index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
break;
}
n = len;
index = stack.index;
tab = stack.tab;
stack.tab = null;
TableStack<V> anext = stack.next;
stack.next = spare;
stack = anext;
spare = s;
}
}
}
next = null;
}
if (p == null) {
break;
}
U u = searchFunction.apply(p.key, p.val, x);
if (u != null) {
return u;
}
}
}
return null;
}
}
public <U> U searchWithLong(DoubleObjLongFunction<? super V, ? extends U> searchFunction, long x) {
if (searchFunction == null) {
throw new NullPointerException();
} else {
Node<V>[] tt;
if ((tt = this.table) != null) {
Node<V>[] tab = tt;
Node<V> next = null;
TableStack<V> stack = null;
TableStack<V> spare = null;
int index = 0;
int baseIndex = 0;
int baseLimit = tt.length;
int baseSize = tt.length;
while(true) {
Node<V> p = null;
p = next;
if (next != null) {
p = next.next;
}
label83: {
while(true) {
if (p != null) {
next = p;
break label83;
}
if (baseIndex >= baseLimit) {
break;
}
Node<V>[] t = tab;
int n;
if (tab == null || (n = tab.length) <= index || index < 0) {
break;
}
if ((p = tabAt(tab, index)) != null && p.hash < 0) {
if (p instanceof ForwardingNode) {
tab = ((ForwardingNode)p).nextTable;
p = null;
TableStack<V> s = spare;
if (spare != null) {
spare = spare.next;
} else {
s = new TableStack<V>();
}
s.tab = t;
s.length = n;
s.index = index;
s.next = stack;
stack = s;
continue;
}
if (p instanceof TreeBin) {
p = ((TreeBin)p).first;
} else {
p = null;
}
}
if (stack == null) {
if ((index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
} else {
while(true) {
TableStack<V> s = stack;
int len;
if (stack == null || (index += len = stack.length) < n) {
if (stack == null && (index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
break;
}
n = len;
index = stack.index;
tab = stack.tab;
stack.tab = null;
TableStack<V> anext = stack.next;
stack.next = spare;
stack = anext;
spare = s;
}
}
}
next = null;
}
if (p == null) {
break;
}
U u = searchFunction.apply(p.key, p.val, x);
if (u != null) {
return u;
}
}
}
return null;
}
}
public <U> U searchWithFloat(DoubleObjFloatFunction<? super V, ? extends U> searchFunction, float x) {
if (searchFunction == null) {
throw new NullPointerException();
} else {
Node<V>[] tt;
if ((tt = this.table) != null) {
Node<V>[] tab = tt;
Node<V> next = null;
TableStack<V> stack = null;
TableStack<V> spare = null;
int index = 0;
int baseIndex = 0;
int baseLimit = tt.length;
int baseSize = tt.length;
while(true) {
Node<V> p = null;
p = next;
if (next != null) {
p = next.next;
}
label83: {
while(true) {
if (p != null) {
next = p;
break label83;
}
if (baseIndex >= baseLimit) {
break;
}
Node<V>[] t = tab;
int n;
if (tab == null || (n = tab.length) <= index || index < 0) {
break;
}
if ((p = tabAt(tab, index)) != null && p.hash < 0) {
if (p instanceof ForwardingNode) {
tab = ((ForwardingNode)p).nextTable;
p = null;
TableStack<V> s = spare;
if (spare != null) {
spare = spare.next;
} else {
s = new TableStack<V>();
}
s.tab = t;
s.length = n;
s.index = index;
s.next = stack;
stack = s;
continue;
}
if (p instanceof TreeBin) {
p = ((TreeBin)p).first;
} else {
p = null;
}
}
if (stack == null) {
if ((index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
} else {
while(true) {
TableStack<V> s = stack;
int len;
if (stack == null || (index += len = stack.length) < n) {
if (stack == null && (index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
break;
}
n = len;
index = stack.index;
tab = stack.tab;
stack.tab = null;
TableStack<V> anext = stack.next;
stack.next = spare;
stack = anext;
spare = s;
}
}
}
next = null;
}
if (p == null) {
break;
}
U u = searchFunction.apply(p.key, p.val, x);
if (u != null) {
return u;
}
}
}
return null;
}
}
public <U> U searchWithDouble(DoubleObjDoubleFunction<? super V, ? extends U> searchFunction, double x) {
if (searchFunction == null) {
throw new NullPointerException();
} else {
Node<V>[] tt;
if ((tt = this.table) != null) {
Node<V>[] tab = tt;
Node<V> next = null;
TableStack<V> stack = null;
TableStack<V> spare = null;
int index = 0;
int baseIndex = 0;
int baseLimit = tt.length;
int baseSize = tt.length;
while(true) {
Node<V> p = null;
p = next;
if (next != null) {
p = next.next;
}
label83: {
while(true) {
if (p != null) {
next = p;
break label83;
}
if (baseIndex >= baseLimit) {
break;
}
Node<V>[] t = tab;
int n;
if (tab == null || (n = tab.length) <= index || index < 0) {
break;
}
if ((p = tabAt(tab, index)) != null && p.hash < 0) {
if (p instanceof ForwardingNode) {
tab = ((ForwardingNode)p).nextTable;
p = null;
TableStack<V> s = spare;
if (spare != null) {
spare = spare.next;
} else {
s = new TableStack<V>();
}
s.tab = t;
s.length = n;
s.index = index;
s.next = stack;
stack = s;
continue;
}
if (p instanceof TreeBin) {
p = ((TreeBin)p).first;
} else {
p = null;
}
}
if (stack == null) {
if ((index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
} else {
while(true) {
TableStack<V> s = stack;
int len;
if (stack == null || (index += len = stack.length) < n) {
if (stack == null && (index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
break;
}
n = len;
index = stack.index;
tab = stack.tab;
stack.tab = null;
TableStack<V> anext = stack.next;
stack.next = spare;
stack = anext;
spare = s;
}
}
}
next = null;
}
if (p == null) {
break;
}
U u = searchFunction.apply(p.key, p.val, x);
if (u != null) {
return u;
}
}
}
return null;
}
}
public <U> U reduce(long parallelismThreshold, DoubleObjFunction<? super V, ? extends U> transformer, BiFunction<? super U, ? super U, ? extends U> reducer) {
if (transformer != null && reducer != null) {
return (U)(new MapReduceMappingsTask((BulkTask)null, this.batchFor(parallelismThreshold), 0, 0, this.table, (MapReduceMappingsTask)null, transformer, reducer)).invoke();
} else {
throw new NullPointerException();
}
}
public <U> U reduce(DoubleObjFunction<? super V, ? extends U> transformer, BiFunction<? super U, ? super U, ? extends U> reducer) {
if (transformer != null && reducer != null) {
Node<V>[] tt;
if ((tt = this.table) == null) {
return null;
} else {
Node<V>[] tab = tt;
Node<V> next = null;
TableStack<V> stack = null;
TableStack<V> spare = null;
int index = 0;
int baseIndex = 0;
int baseLimit = tt.length;
int baseSize = tt.length;
U r = null;
while(true) {
Node<V> p = null;
p = next;
if (next != null) {
p = next.next;
}
label90: {
while(true) {
if (p != null) {
next = p;
break label90;
}
if (baseIndex >= baseLimit) {
break;
}
Node<V>[] t = tab;
int n;
if (tab == null || (n = tab.length) <= index || index < 0) {
break;
}
if ((p = tabAt(tab, index)) != null && p.hash < 0) {
if (p instanceof ForwardingNode) {
tab = ((ForwardingNode)p).nextTable;
p = null;
TableStack<V> s = spare;
if (spare != null) {
spare = spare.next;
} else {
s = new TableStack<V>();
}
s.tab = t;
s.length = n;
s.index = index;
s.next = stack;
stack = s;
continue;
}
if (p instanceof TreeBin) {
p = ((TreeBin)p).first;
} else {
p = null;
}
}
if (stack == null) {
if ((index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
} else {
while(true) {
TableStack<V> s = stack;
int len;
if (stack == null || (index += len = stack.length) < n) {
if (stack == null && (index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
break;
}
n = len;
index = stack.index;
tab = stack.tab;
stack.tab = null;
TableStack<V> anext = stack.next;
stack.next = spare;
stack = anext;
spare = s;
}
}
}
next = null;
}
if (p == null) {
return r;
}
U u;
if ((u = transformer.apply(p.key, p.val)) != null) {
r = (U)(r == null ? u : reducer.apply(r, u));
}
}
}
} else {
throw new NullPointerException();
}
}
public double reduceToDouble(long parallelismThreshold, ToDoubleDoubleObjFunction<? super V> transformer, double basis, DoubleBinaryOperator reducer) {
if (transformer != null && reducer != null) {
return (new MapReduceMappingsToDoubleTask((BulkTask)null, this.batchFor(parallelismThreshold), 0, 0, this.table, (MapReduceMappingsToDoubleTask)null, transformer, basis, reducer)).invoke0();
} else {
throw new NullPointerException();
}
}
public long reduceToLong(long parallelismThreshold, ToLongDoubleObjFunction<? super V> transformer, long basis, LongBinaryOperator reducer) {
if (transformer != null && reducer != null) {
return (new MapReduceMappingsToLongTask((BulkTask)null, this.batchFor(parallelismThreshold), 0, 0, this.table, (MapReduceMappingsToLongTask)null, transformer, basis, reducer)).invoke0();
} else {
throw new NullPointerException();
}
}
public int reduceToInt(long parallelismThreshold, ToIntDoubleObjFunction<? super V> transformer, int basis, IntBinaryOperator reducer) {
if (transformer != null && reducer != null) {
return (new MapReduceMappingsToIntTask((BulkTask)null, this.batchFor(parallelismThreshold), 0, 0, this.table, (MapReduceMappingsToIntTask)null, transformer, basis, reducer)).invoke0();
} else {
throw new NullPointerException();
}
}
public void forEachKey(long parallelismThreshold, DoubleConsumer action) {
if (action == null) {
throw new NullPointerException();
} else {
(new ForEachKeyTask((BulkTask)null, this.batchFor(parallelismThreshold), 0, 0, this.table, action)).invoke();
}
}
public <U> void forEachKey(long parallelismThreshold, DoubleFunction<? extends U> transformer, Consumer<? super U> action) {
if (transformer != null && action != null) {
(new ForEachTransformedKeyTask((BulkTask)null, this.batchFor(parallelismThreshold), 0, 0, this.table, transformer, action)).invoke();
} else {
throw new NullPointerException();
}
}
public <U> U searchKeys(long parallelismThreshold, DoubleFunction<? extends U> searchFunction) {
if (searchFunction == null) {
throw new NullPointerException();
} else {
return (U)(new SearchKeysTask((BulkTask)null, this.batchFor(parallelismThreshold), 0, 0, this.table, searchFunction, new AtomicReference())).invoke();
}
}
public double reduceKeys(long parallelismThreshold, DoubleReduceTaskOperator reducer) {
if (reducer == null) {
throw new NullPointerException();
} else {
return (new ReduceKeysTask(this.EMPTY, (BulkTask)null, this.batchFor(parallelismThreshold), 0, 0, this.table, (ReduceKeysTask)null, reducer)).invoke0();
}
}
public <U> U reduceKeys(long parallelismThreshold, DoubleFunction<? extends U> transformer, BiFunction<? super U, ? super U, ? extends U> reducer) {
if (transformer != null && reducer != null) {
return (U)(new MapReduceKeysTask((BulkTask)null, this.batchFor(parallelismThreshold), 0, 0, this.table, (MapReduceKeysTask)null, transformer, reducer)).invoke();
} else {
throw new NullPointerException();
}
}
public double reduceKeysToDouble(long parallelismThreshold, DoubleToDoubleFunction transformer, double basis, DoubleBinaryOperator reducer) {
if (transformer != null && reducer != null) {
return (new MapReduceKeysToDoubleTask((BulkTask)null, this.batchFor(parallelismThreshold), 0, 0, this.table, (MapReduceKeysToDoubleTask)null, transformer, basis, reducer)).invoke0();
} else {
throw new NullPointerException();
}
}
public long reduceKeysToLong(long parallelismThreshold, DoubleToLongFunction transformer, long basis, LongBinaryOperator reducer) {
if (transformer != null && reducer != null) {
return (new MapReduceKeysToLongTask((BulkTask)null, this.batchFor(parallelismThreshold), 0, 0, this.table, (MapReduceKeysToLongTask)null, transformer, basis, reducer)).invoke0();
} else {
throw new NullPointerException();
}
}
public int reduceKeysToInt(long parallelismThreshold, DoubleToIntFunction transformer, int basis, IntBinaryOperator reducer) {
if (transformer != null && reducer != null) {
return (new MapReduceKeysToIntTask((BulkTask)null, this.batchFor(parallelismThreshold), 0, 0, this.table, (MapReduceKeysToIntTask)null, transformer, basis, reducer)).invoke0();
} else {
throw new NullPointerException();
}
}
public void forEachValue(long parallelismThreshold, Consumer<? super V> action) {
if (action == null) {
throw new NullPointerException();
} else {
(new ForEachValueTask((BulkTask)null, this.batchFor(parallelismThreshold), 0, 0, this.table, action)).invoke();
}
}
public <U> void forEachValue(long parallelismThreshold, Function<? super V, ? extends U> transformer, Consumer<? super U> action) {
if (transformer != null && action != null) {
(new ForEachTransformedValueTask((BulkTask)null, this.batchFor(parallelismThreshold), 0, 0, this.table, transformer, action)).invoke();
} else {
throw new NullPointerException();
}
}
public <U> U searchValues(long parallelismThreshold, Function<? super V, ? extends U> searchFunction) {
if (searchFunction == null) {
throw new NullPointerException();
} else {
return (U)(new SearchValuesTask((BulkTask)null, this.batchFor(parallelismThreshold), 0, 0, this.table, searchFunction, new AtomicReference())).invoke();
}
}
public V reduceValues(long parallelismThreshold, BiFunction<? super V, ? super V, ? extends V> reducer) {
if (reducer == null) {
throw new NullPointerException();
} else {
return (V)(new ReduceValuesTask((BulkTask)null, this.batchFor(parallelismThreshold), 0, 0, this.table, (ReduceValuesTask)null, reducer)).invoke();
}
}
public <U> U reduceValues(long parallelismThreshold, Function<? super V, ? extends U> transformer, BiFunction<? super U, ? super U, ? extends U> reducer) {
if (transformer != null && reducer != null) {
return (U)(new MapReduceValuesTask((BulkTask)null, this.batchFor(parallelismThreshold), 0, 0, this.table, (MapReduceValuesTask)null, transformer, reducer)).invoke();
} else {
throw new NullPointerException();
}
}
public double reduceValuesToDouble(long parallelismThreshold, ToDoubleFunction<? super V> transformer, double basis, DoubleBinaryOperator reducer) {
if (transformer != null && reducer != null) {
return (new MapReduceValuesToDoubleTask((BulkTask)null, this.batchFor(parallelismThreshold), 0, 0, this.table, (MapReduceValuesToDoubleTask)null, transformer, basis, reducer)).invoke0();
} else {
throw new NullPointerException();
}
}
public long reduceValuesToLong(long parallelismThreshold, ToLongFunction<? super V> transformer, long basis, LongBinaryOperator reducer) {
if (transformer != null && reducer != null) {
return (new MapReduceValuesToLongTask((BulkTask)null, this.batchFor(parallelismThreshold), 0, 0, this.table, (MapReduceValuesToLongTask)null, transformer, basis, reducer)).invoke0();
} else {
throw new NullPointerException();
}
}
public int reduceValuesToInt(long parallelismThreshold, ToIntFunction<? super V> transformer, int basis, IntBinaryOperator reducer) {
if (transformer != null && reducer != null) {
return (new MapReduceValuesToIntTask((BulkTask)null, this.batchFor(parallelismThreshold), 0, 0, this.table, (MapReduceValuesToIntTask)null, transformer, basis, reducer)).invoke0();
} else {
throw new NullPointerException();
}
}
public void forEachEntry(long parallelismThreshold, Consumer<? super Entry<V>> action) {
if (action == null) {
throw new NullPointerException();
} else {
(new ForEachEntryTask((BulkTask)null, this.batchFor(parallelismThreshold), 0, 0, this.table, action)).invoke();
}
}
public <U> void forEachEntry(long parallelismThreshold, Function<Entry<V>, ? extends U> transformer, Consumer<? super U> action) {
if (transformer != null && action != null) {
(new ForEachTransformedEntryTask((BulkTask)null, this.batchFor(parallelismThreshold), 0, 0, this.table, transformer, action)).invoke();
} else {
throw new NullPointerException();
}
}
public <U> U searchEntries(long parallelismThreshold, Function<Entry<V>, ? extends U> searchFunction) {
if (searchFunction == null) {
throw new NullPointerException();
} else {
return (U)(new SearchEntriesTask((BulkTask)null, this.batchFor(parallelismThreshold), 0, 0, this.table, searchFunction, new AtomicReference())).invoke();
}
}
public Entry<V> reduceEntries(long parallelismThreshold, BiFunction<Entry<V>, Entry<V>, ? extends Entry<V>> reducer) {
if (reducer == null) {
throw new NullPointerException();
} else {
return (Entry)(new ReduceEntriesTask((BulkTask)null, this.batchFor(parallelismThreshold), 0, 0, this.table, (ReduceEntriesTask)null, reducer)).invoke();
}
}
public <U> U reduceEntries(long parallelismThreshold, Function<Entry<V>, ? extends U> transformer, BiFunction<? super U, ? super U, ? extends U> reducer) {
if (transformer != null && reducer != null) {
return (U)(new MapReduceEntriesTask((BulkTask)null, this.batchFor(parallelismThreshold), 0, 0, this.table, (MapReduceEntriesTask)null, transformer, reducer)).invoke();
} else {
throw new NullPointerException();
}
}
public double reduceEntriesToDouble(long parallelismThreshold, ToDoubleFunction<Entry<V>> transformer, double basis, DoubleBinaryOperator reducer) {
if (transformer != null && reducer != null) {
return (new MapReduceEntriesToDoubleTask((BulkTask)null, this.batchFor(parallelismThreshold), 0, 0, this.table, (MapReduceEntriesToDoubleTask)null, transformer, basis, reducer)).invoke0();
} else {
throw new NullPointerException();
}
}
public long reduceEntriesToLong(long parallelismThreshold, ToLongFunction<Entry<V>> transformer, long basis, LongBinaryOperator reducer) {
if (transformer != null && reducer != null) {
return (new MapReduceEntriesToLongTask((BulkTask)null, this.batchFor(parallelismThreshold), 0, 0, this.table, (MapReduceEntriesToLongTask)null, transformer, basis, reducer)).invoke0();
} else {
throw new NullPointerException();
}
}
public int reduceEntriesToInt(long parallelismThreshold, ToIntFunction<Entry<V>> transformer, int basis, IntBinaryOperator reducer) {
if (transformer != null && reducer != null) {
return (new MapReduceEntriesToIntTask((BulkTask)null, this.batchFor(parallelismThreshold), 0, 0, this.table, (MapReduceEntriesToIntTask)null, transformer, basis, reducer)).invoke0();
} else {
throw new NullPointerException();
}
}
public V valueMatching(Predicate<V> predicate) {
Node<V> next = null;
TableStack<V> stack = null;
TableStack<V> spare = null;
int index = 0;
int baseIndex = 0;
Node<V>[] tab;
int f = (tab = this.table) == null ? 0 : tab.length;
int baseLimit = f;
int baseSize = f;
boolean b = false;
label86:
while(next != null || !b) {
b |= true;
Node<V> e = next;
if (next != null) {
e = next.next;
}
while(true) {
if (e != null) {
next = e;
if (predicate.test(e.val)) {
return e.val;
}
continue label86;
}
if (baseIndex >= baseLimit) {
break;
}
Node<V>[] t = tab;
int n;
if (tab == null || (n = tab.length) <= index || index < 0) {
break;
}
if ((e = tabAt(tab, index)) != null && e.hash < 0) {
if (e instanceof ForwardingNode) {
tab = ((ForwardingNode)e).nextTable;
e = null;
TableStack<V> s = spare;
if (spare != null) {
spare = spare.next;
} else {
s = new TableStack<V>();
}
s.tab = t;
s.length = n;
s.index = index;
s.next = stack;
stack = s;
continue;
}
if (e instanceof TreeBin) {
e = ((TreeBin)e).first;
} else {
e = null;
}
}
if (stack == null) {
if ((index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
} else {
while(true) {
TableStack<V> s = stack;
int len;
if (stack == null || (index += len = stack.length) < n) {
if (stack == null && (index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
break;
}
n = len;
index = stack.index;
tab = stack.tab;
stack.tab = null;
TableStack<V> next1 = stack.next;
stack.next = spare;
stack = next1;
spare = s;
}
}
}
next = null;
}
return null;
}
static {
MAX_RESIZERS = (1 << 32 - RESIZE_STAMP_BITS) - 1;
RESIZE_STAMP_SHIFT = 32 - RESIZE_STAMP_BITS;
NCPU = Runtime.getRuntime().availableProcessors();
try {
Field f = Unsafe.class.getDeclaredField("theUnsafe");
f.setAccessible(true);
U = (Unsafe)f.get((Object)null);
Class<?> k = Double2ObjectConcurrentHashMap.class;
SIZECTL = U.objectFieldOffset(k.getDeclaredField("sizeCtl"));
TRANSFERINDEX = U.objectFieldOffset(k.getDeclaredField("transferIndex"));
BASECOUNT = U.objectFieldOffset(k.getDeclaredField("baseCount"));
CELLSBUSY = U.objectFieldOffset(k.getDeclaredField("cellsBusy"));
Class<?> ck = CounterCell.class;
CELLVALUE = U.objectFieldOffset(ck.getDeclaredField("value"));
Class<?> ak = Node[].class;
ABASE = (long)U.arrayBaseOffset(ak);
int scale = U.arrayIndexScale(ak);
if ((scale & scale - 1) != 0) {
throw new Error("data type scale not a power of two");
} else {
ASHIFT = 31 - Integer.numberOfLeadingZeros(scale);
}
} catch (Exception e) {
throw new Error(e);
}
}
protected static class Node<V> implements Entry<V> {
public final double EMPTY;
public final int hash;
public final double key;
public volatile V val;
public volatile Node<V> next;
public Node(double empty, int hash, double key, V val, Node<V> next) {
this.EMPTY = empty;
this.hash = hash;
this.key = key;
this.val = val;
this.next = next;
}
public final boolean isEmpty() {
return this.key == this.EMPTY;
}
public final Double getKey() {
return this.key;
}
public final double getDoubleKey() {
return this.key;
}
public final V getValue() {
return this.val;
}
public final int hashCode() {
return Double.hashCode(this.key) ^ this.val.hashCode();
}
public final String toString() {
if (this.isEmpty()) {
return "EMPTY=" + String.valueOf(this.val);
} else {
double var10000 = this.key;
return var10000 + "=" + String.valueOf(this.val);
}
}
public final V setValue(V value) {
throw new UnsupportedOperationException();
}
public final boolean equals(Object o) {
boolean empty = this.isEmpty();
if (o instanceof Entry) {
if (empty != ((Entry)o).isEmpty()) {
return false;
} else if (!empty && this.key != ((Entry)o).getDoubleKey()) {
return false;
} else {
return this.val.equals(((Entry)o).getValue());
}
} else {
return false;
}
}
protected Node<V> find(int h, double k) {
Node<V> e = this;
if (k != this.EMPTY) {
do {
double ek;
if (e.hash == h && ((ek = e.key) == k || ek != this.EMPTY && k == ek)) {
return e;
}
} while((e = e.next) != null);
}
return null;
}
}
protected static class Segment<V> extends ReentrantLock implements Serializable {
public static final long serialVersionUID = 2249069246763182397L;
public final float loadFactor;
public Segment(float lf) {
this.loadFactor = lf;
}
}
protected static final class ForwardingNode<V> extends Node<V> {
public final Node<V>[] nextTable;
public ForwardingNode(double empty, Node<V>[] tab) {
super(empty, -1, empty, (Object)null, (Node)null);
this.nextTable = tab;
}
protected Node<V> find(int h, double k) {
Node<V>[] tab = this.nextTable;
label41:
while(true) {
Node<V> e;
int n;
if (k != this.EMPTY && tab != null && (n = tab.length) != 0 && (e = Double2ObjectConcurrentHashMap.<V>tabAt(tab, n - 1 & h)) != null) {
int eh;
double ek;
while((eh = e.hash) != h || (ek = e.key) != k && (ek == this.EMPTY || k != ek)) {
if (eh < 0) {
if (!(e instanceof ForwardingNode)) {
return e.find(h, k);
}
tab = ((ForwardingNode)e).nextTable;
continue label41;
}
if ((e = e.next) == null) {
return null;
}
}
return e;
}
return null;
}
}
}
protected static final class ReservationNode<V> extends Node<V> {
public ReservationNode(double empty) {
super(empty, -3, empty, (Object)null, (Node)null);
}
protected Node<V> find(int h, double k) {
return null;
}
}
protected static final class CounterCell {
public volatile long value;
public CounterCell(long x) {
this.value = x;
}
}
protected static final class TreeNode<V> extends Node<V> {
public TreeNode<V> parent;
public TreeNode<V> left;
public TreeNode<V> right;
public TreeNode<V> prev;
public boolean red;
public TreeNode(double empty, int hash, double key, V val, Node<V> next, TreeNode<V> parent) {
super(empty, hash, key, val, next);
this.parent = parent;
}
protected Node<V> find(int h, double k) {
return this.findTreeNode(h, k, (Class)null);
}
protected final TreeNode<V> findTreeNode(int h, double k, Class<?> kc) {
if (k != this.EMPTY) {
TreeNode<V> p = this;
do {
TreeNode<V> pl = p.left;
TreeNode<V> pr = p.right;
int ph;
if ((ph = p.hash) > h) {
p = pl;
} else if (ph < h) {
p = pr;
} else {
double pk;
if ((pk = p.key) == k || pk != this.EMPTY && k == pk) {
return p;
}
if (pl == null) {
p = pr;
} else if (pr == null) {
p = pl;
} else {
int dir;
if ((dir = Double.compare(k, pk)) != 0) {
p = dir < 0 ? pl : pr;
} else {
TreeNode<V> q;
if ((q = pr.findTreeNode(h, k, kc)) != null) {
return q;
}
p = pl;
}
}
}
} while(p != null);
}
return null;
}
}
protected static final class TreeBin<V> extends Node<V> {
public TreeNode<V> root;
public volatile TreeNode<V> first;
public volatile Thread waiter;
public volatile int lockState;
public static final int WRITER = 1;
public static final int WAITER = 2;
public static final int READER = 4;
protected static final Unsafe U;
protected static final long LOCKSTATE;
protected int tieBreakOrder(double a, double b) {
int comp = Double.compare(a, b);
return comp > 0 ? 1 : -1;
}
public TreeBin(double empty, TreeNode<V> b) {
super(empty, -2, empty, (Object)null, (Node)null);
this.first = b;
TreeNode<V> r = null;
TreeNode<V> next;
for(TreeNode<V> x = b; x != null; x = next) {
next = (TreeNode)x.next;
x.left = x.right = null;
if (r == null) {
x.parent = null;
x.red = false;
r = x;
} else {
double k = x.key;
int h = x.hash;
Class<?> kc = null;
TreeNode<V> p = r;
int dir;
TreeNode<V> xp;
do {
double pk = p.key;
int ph;
if ((ph = p.hash) > h) {
dir = -1;
} else if (ph < h) {
dir = 1;
} else if ((dir = Double.compare(k, pk)) == 0) {
dir = this.tieBreakOrder(k, pk);
}
xp = p;
} while((p = dir <= 0 ? p.left : p.right) != null);
x.parent = xp;
if (dir <= 0) {
xp.left = x;
} else {
xp.right = x;
}
r = this.<V>balanceInsertion(r, x);
}
}
this.root = r;
assert this.checkInvariants(this.root);
}
protected final void lockRoot() {
if (!U.compareAndSwapInt(this, LOCKSTATE, 0, 1)) {
this.contendedLock();
}
}
protected final void unlockRoot() {
this.lockState = 0;
}
protected final void contendedLock() {
boolean waiting = false;
int s;
do {
while(((s = this.lockState) & -3) != 0) {
if ((s & 2) == 0) {
if (U.compareAndSwapInt(this, LOCKSTATE, s, s | 2)) {
waiting = true;
this.waiter = Thread.currentThread();
}
} else if (waiting) {
LockSupport.park(this);
}
}
} while(!U.compareAndSwapInt(this, LOCKSTATE, s, 1));
if (waiting) {
this.waiter = null;
}
}
protected final Node<V> find(int h, double k) {
if (k != this.EMPTY) {
Node<V> e = this.first;
while(e != null) {
int s;
if (((s = this.lockState) & 3) != 0) {
double ek;
if (e.hash == h && ((ek = e.key) == k || ek != this.EMPTY && k == ek)) {
return e;
}
e = e.next;
} else if (U.compareAndSwapInt(this, LOCKSTATE, s, s + 4)) {
TreeNode<V> p;
try {
TreeNode<V> r;
p = (r = this.root) == null ? null : r.findTreeNode(h, k, (Class)null);
} finally {
Thread w;
if (U.getAndAddInt(this, LOCKSTATE, -4) == 6 && (w = this.waiter) != null) {
LockSupport.unpark(w);
}
}
return p;
}
}
}
return null;
}
protected final TreeNode<V> putTreeVal(int h, double k, V v) {
Class<?> kc = null;
boolean searched = false;
TreeNode<V> p = this.root;
while(true) {
if (p == null) {
this.first = this.root = new TreeNode<V>(this.EMPTY, h, k, v, (Node)null, (TreeNode)null);
} else {
int dir;
int ph;
if ((ph = p.hash) > h) {
dir = -1;
} else if (ph < h) {
dir = 1;
} else {
double pk;
if ((pk = p.key) == k || pk != this.EMPTY && k == pk) {
return p;
}
if ((dir = Double.compare(k, pk)) == 0) {
if (!searched) {
searched = true;
TreeNode<V> q;
TreeNode<V> ch;
if ((ch = p.left) != null && (q = ch.findTreeNode(h, k, kc)) != null || (ch = p.right) != null && (q = ch.findTreeNode(h, k, kc)) != null) {
return q;
}
}
dir = this.tieBreakOrder(k, pk);
}
}
TreeNode<V> xp = p;
if ((p = dir <= 0 ? p.left : p.right) != null) {
continue;
}
TreeNode<V> f = this.first;
TreeNode<V> x;
this.first = x = new TreeNode<V>(this.EMPTY, h, k, v, f, xp);
if (f != null) {
f.prev = x;
}
if (dir <= 0) {
xp.left = x;
} else {
xp.right = x;
}
if (!xp.red) {
x.red = true;
} else {
this.lockRoot();
try {
this.root = this.<V>balanceInsertion(this.root, x);
} finally {
this.unlockRoot();
}
}
}
assert this.checkInvariants(this.root);
return null;
}
}
protected final boolean removeTreeNode(TreeNode<V> p) {
TreeNode<V> next = (TreeNode)p.next;
TreeNode<V> pred = p.prev;
if (pred == null) {
this.first = next;
} else {
pred.next = next;
}
if (next != null) {
next.prev = pred;
}
if (this.first == null) {
this.root = null;
return true;
} else {
TreeNode<V> r;
TreeNode<V> rl;
if ((r = this.root) != null && r.right != null && (rl = r.left) != null && rl.left != null) {
this.lockRoot();
try {
TreeNode<V> pl = p.left;
TreeNode<V> pr = p.right;
TreeNode<V> replacement;
if (pl != null && pr != null) {
TreeNode<V> s;
TreeNode<V> sl;
for(s = pr; (sl = s.left) != null; s = sl) {
}
boolean c = s.red;
s.red = p.red;
p.red = c;
TreeNode<V> sr = s.right;
TreeNode<V> pp = p.parent;
if (s == pr) {
p.parent = s;
s.right = p;
} else {
TreeNode<V> sp = s.parent;
if ((p.parent = sp) != null) {
if (s == sp.left) {
sp.left = p;
} else {
sp.right = p;
}
}
if ((s.right = pr) != null) {
pr.parent = s;
}
}
p.left = null;
if ((p.right = sr) != null) {
sr.parent = p;
}
if ((s.left = pl) != null) {
pl.parent = s;
}
if ((s.parent = pp) == null) {
r = s;
} else if (p == pp.left) {
pp.left = s;
} else {
pp.right = s;
}
if (sr != null) {
replacement = sr;
} else {
replacement = p;
}
} else if (pl != null) {
replacement = pl;
} else if (pr != null) {
replacement = pr;
} else {
replacement = p;
}
if (replacement != p) {
TreeNode<V> pp = replacement.parent = p.parent;
if (pp == null) {
r = replacement;
} else if (p == pp.left) {
pp.left = replacement;
} else {
pp.right = replacement;
}
p.left = p.right = p.parent = null;
}
this.root = p.red ? r : this.balanceDeletion(r, replacement);
TreeNode<V> pp;
if (p == replacement && (pp = p.parent) != null) {
if (p == pp.left) {
pp.left = null;
} else if (p == pp.right) {
pp.right = null;
}
p.parent = null;
}
} finally {
this.unlockRoot();
}
assert this.checkInvariants(this.root);
return false;
} else {
return true;
}
}
}
protected <V> TreeNode<V> rotateLeft(TreeNode<V> root, TreeNode<V> p) {
TreeNode<V> r;
if (p != null && (r = p.right) != null) {
TreeNode<V> rl;
if ((rl = p.right = r.left) != null) {
rl.parent = p;
}
TreeNode<V> pp;
if ((pp = r.parent = p.parent) == null) {
root = r;
r.red = false;
} else if (pp.left == p) {
pp.left = r;
} else {
pp.right = r;
}
r.left = p;
p.parent = r;
}
return root;
}
protected <V> TreeNode<V> rotateRight(TreeNode<V> root, TreeNode<V> p) {
TreeNode<V> l;
if (p != null && (l = p.left) != null) {
TreeNode<V> lr;
if ((lr = p.left = l.right) != null) {
lr.parent = p;
}
TreeNode<V> pp;
if ((pp = l.parent = p.parent) == null) {
root = l;
l.red = false;
} else if (pp.right == p) {
pp.right = l;
} else {
pp.left = l;
}
l.right = p;
p.parent = l;
}
return root;
}
protected <V> TreeNode<V> balanceInsertion(TreeNode<V> root, TreeNode<V> x) {
x.red = true;
TreeNode<V> xp;
while((xp = x.parent) != null) {
TreeNode<V> xpp;
if (!xp.red || (xpp = xp.parent) == null) {
return root;
}
TreeNode<V> xppl;
if (xp == (xppl = xpp.left)) {
TreeNode<V> xppr;
if ((xppr = xpp.right) != null && xppr.red) {
xppr.red = false;
xp.red = false;
xpp.red = true;
x = xpp;
} else {
if (x == xp.right) {
x = xp;
root = this.<V>rotateLeft(root, xp);
xpp = (xp = xp.parent) == null ? null : xp.parent;
}
if (xp != null) {
xp.red = false;
if (xpp != null) {
xpp.red = true;
root = this.<V>rotateRight(root, xpp);
}
}
}
} else if (xppl != null && xppl.red) {
xppl.red = false;
xp.red = false;
xpp.red = true;
x = xpp;
} else {
if (x == xp.left) {
x = xp;
root = this.<V>rotateRight(root, xp);
xpp = (xp = xp.parent) == null ? null : xp.parent;
}
if (xp != null) {
xp.red = false;
if (xpp != null) {
xpp.red = true;
root = this.<V>rotateLeft(root, xpp);
}
}
}
}
x.red = false;
return x;
}
protected <V> TreeNode<V> balanceDeletion(TreeNode<V> root, TreeNode<V> x) {
while(x != null && x != root) {
TreeNode<V> xp;
if ((xp = x.parent) == null) {
x.red = false;
return x;
}
if (x.red) {
x.red = false;
return root;
}
TreeNode<V> xpl;
if ((xpl = xp.left) == x) {
TreeNode<V> xpr;
if ((xpr = xp.right) != null && xpr.red) {
xpr.red = false;
xp.red = true;
root = this.<V>rotateLeft(root, xp);
xpr = (xp = x.parent) == null ? null : xp.right;
}
if (xpr == null) {
x = xp;
} else {
TreeNode<V> sl = xpr.left;
TreeNode<V> sr = xpr.right;
if (sr != null && sr.red || sl != null && sl.red) {
if (sr == null || !sr.red) {
if (sl != null) {
sl.red = false;
}
xpr.red = true;
root = this.<V>rotateRight(root, xpr);
xpr = (xp = x.parent) == null ? null : xp.right;
}
if (xpr != null) {
xpr.red = xp == null ? false : xp.red;
if ((sr = xpr.right) != null) {
sr.red = false;
}
}
if (xp != null) {
xp.red = false;
root = this.<V>rotateLeft(root, xp);
}
x = root;
} else {
xpr.red = true;
x = xp;
}
}
} else {
if (xpl != null && xpl.red) {
xpl.red = false;
xp.red = true;
root = this.<V>rotateRight(root, xp);
xpl = (xp = x.parent) == null ? null : xp.left;
}
if (xpl == null) {
x = xp;
} else {
TreeNode<V> sl = xpl.left;
TreeNode<V> sr = xpl.right;
if (sl != null && sl.red || sr != null && sr.red) {
if (sl == null || !sl.red) {
if (sr != null) {
sr.red = false;
}
xpl.red = true;
root = this.<V>rotateLeft(root, xpl);
xpl = (xp = x.parent) == null ? null : xp.left;
}
if (xpl != null) {
xpl.red = xp == null ? false : xp.red;
if ((sl = xpl.left) != null) {
sl.red = false;
}
}
if (xp != null) {
xp.red = false;
root = this.<V>rotateRight(root, xp);
}
x = root;
} else {
xpl.red = true;
x = xp;
}
}
}
}
return root;
}
protected <V> boolean checkInvariants(TreeNode<V> t) {
TreeNode<V> tp = t.parent;
TreeNode<V> tl = t.left;
TreeNode<V> tr = t.right;
TreeNode<V> tb = t.prev;
TreeNode<V> tn = (TreeNode)t.next;
if (tb != null && tb.next != t) {
return false;
} else if (tn != null && tn.prev != t) {
return false;
} else if (tp != null && t != tp.left && t != tp.right) {
return false;
} else if (tl == null || tl.parent == t && tl.hash <= t.hash) {
if (tr == null || tr.parent == t && tr.hash >= t.hash) {
if (t.red && tl != null && tl.red && tr != null && tr.red) {
return false;
} else if (tl != null && !this.checkInvariants(tl)) {
return false;
} else {
return tr == null || this.checkInvariants(tr);
}
} else {
return false;
}
} else {
return false;
}
}
static {
try {
Field f = Unsafe.class.getDeclaredField("theUnsafe");
f.setAccessible(true);
U = (Unsafe)f.get((Object)null);
Class<?> k = TreeBin.class;
LOCKSTATE = U.objectFieldOffset(k.getDeclaredField("lockState"));
} catch (Exception e) {
throw new Error(e);
}
}
}
protected static final class TableStack<V> {
public int length;
public int index;
public Node<V>[] tab;
public TableStack<V> next;
public TableStack() {
}
}
protected static class Traverser<V> {
public Node<V>[] tab;
public Node<V> next;
public TableStack<V> stack;
public TableStack<V> spare;
public int index;
public int baseIndex;
public int baseLimit;
public final int baseSize;
public Traverser(Node<V>[] tab, int size, int index, int limit) {
this.tab = tab;
this.baseSize = size;
this.baseIndex = this.index = index;
this.baseLimit = limit;
this.next = null;
}
protected final Node<V> advance() {
Node<V> e;
if ((e = this.next) != null) {
e = e.next;
}
while(e == null) {
Node<V>[] t;
int i;
int n;
if (this.baseIndex >= this.baseLimit || (t = this.tab) == null || (n = t.length) <= (i = this.index) || i < 0) {
return this.next = null;
}
if ((e = Double2ObjectConcurrentHashMap.<V>tabAt(t, i)) != null && e.hash < 0) {
if (e instanceof ForwardingNode) {
this.tab = ((ForwardingNode)e).nextTable;
e = null;
this.pushState(t, i, n);
continue;
}
if (e instanceof TreeBin) {
e = ((TreeBin)e).first;
} else {
e = null;
}
}
if (this.stack != null) {
this.recoverState(n);
} else if ((this.index = i + this.baseSize) >= n) {
this.index = ++this.baseIndex;
}
}
return this.next = e;
}
protected void pushState(Node<V>[] t, int i, int n) {
TableStack<V> s = this.spare;
if (s != null) {
this.spare = s.next;
} else {
s = new TableStack<V>();
}
s.tab = t;
s.length = n;
s.index = i;
s.next = this.stack;
this.stack = s;
}
protected void recoverState(int n) {
TableStack<V> s;
int len;
while((s = this.stack) != null && (this.index += len = s.length) >= n) {
n = len;
this.index = s.index;
this.tab = s.tab;
s.tab = null;
TableStack<V> next = s.next;
s.next = this.spare;
this.stack = next;
this.spare = s;
}
if (s == null && (this.index += this.baseSize) >= n) {
this.index = ++this.baseIndex;
}
}
}
protected static class BaseIterator<V> extends Traverser<V> {
public final Double2ObjectConcurrentHashMap<V> map;
public Node<V> lastReturned;
public BaseIterator(Node<V>[] tab, int size, int index, int limit, Double2ObjectConcurrentHashMap<V> map) {
super(tab, size, index, limit);
this.map = map;
this.advance();
}
public final boolean hasNext() {
return this.next != null;
}
public final boolean hasMoreElements() {
return this.next != null;
}
public final void remove() {
Node<V> p;
if ((p = this.lastReturned) == null) {
throw new IllegalStateException();
} else {
this.lastReturned = null;
this.map.replaceNode(p.key, (Object)null, (Object)null);
}
}
}
protected static final class KeyIterator<V> implements DoubleIterator {
public Node<V>[] tab;
public Node<V> next;
public TableStack<V> stack;
public TableStack<V> spare;
public int index;
public int baseIndex;
public int baseLimit;
public final int baseSize;
public final Double2ObjectConcurrentHashMap<V> map;
public Node<V> lastReturned;
public KeyIterator(Node<V>[] tab, int size, int index, int limit, Double2ObjectConcurrentHashMap<V> map) {
this.tab = tab;
this.baseSize = size;
this.baseIndex = this.index = index;
this.baseLimit = limit;
this.next = null;
this.map = map;
this.advance();
}
protected final Node<V> advance() {
Node<V> e;
if ((e = this.next) != null) {
e = e.next;
}
while(e == null) {
Node<V>[] t;
int i;
int n;
if (this.baseIndex >= this.baseLimit || (t = this.tab) == null || (n = t.length) <= (i = this.index) || i < 0) {
return this.next = null;
}
if ((e = Double2ObjectConcurrentHashMap.<V>tabAt(t, i)) != null && e.hash < 0) {
if (e instanceof ForwardingNode) {
this.tab = ((ForwardingNode)e).nextTable;
e = null;
this.pushState(t, i, n);
continue;
}
if (e instanceof TreeBin) {
e = ((TreeBin)e).first;
} else {
e = null;
}
}
if (this.stack != null) {
this.recoverState(n);
} else if ((this.index = i + this.baseSize) >= n) {
this.index = ++this.baseIndex;
}
}
return this.next = e;
}
protected void pushState(Node<V>[] t, int i, int n) {
TableStack<V> s = this.spare;
if (s != null) {
this.spare = s.next;
} else {
s = new TableStack<V>();
}
s.tab = t;
s.length = n;
s.index = i;
s.next = this.stack;
this.stack = s;
}
protected void recoverState(int n) {
TableStack<V> s;
int len;
while((s = this.stack) != null && (this.index += len = s.length) >= n) {
n = len;
this.index = s.index;
this.tab = s.tab;
s.tab = null;
TableStack<V> next = s.next;
s.next = this.spare;
this.stack = next;
this.spare = s;
}
if (s == null && (this.index += this.baseSize) >= n) {
this.index = ++this.baseIndex;
}
}
public final boolean hasNext() {
return this.next != null;
}
public final boolean hasMoreElements() {
return this.next != null;
}
public final void remove() {
Node<V> p;
if ((p = this.lastReturned) == null) {
throw new IllegalStateException();
} else {
this.lastReturned = null;
this.map.replaceNode(p.key, (Object)null, (Object)null);
}
}
public final double nextDouble() {
Node<V> p;
if ((p = this.next) == null) {
throw new NoSuchElementException();
} else {
double k = p.key;
this.lastReturned = p;
this.advance();
return k;
}
}
}
protected static final class ValueIterator<V> extends BaseIterator<V> implements ObjectIterator<V>, Enumeration<V> {
public ValueIterator(Node<V>[] tab, int index, int size, int limit, Double2ObjectConcurrentHashMap<V> map) {
super(tab, index, size, limit, map);
}
public final V next() {
Node<V> p;
if ((p = this.next) == null) {
throw new NoSuchElementException();
} else {
V v = p.val;
this.lastReturned = p;
this.advance();
return v;
}
}
public final V nextElement() {
return (V)this.next();
}
}
protected static final class EntryIterator<V> extends BaseIterator<V> implements ObjectIterator<Double2ObjectMap.Entry<V>> {
public EntryIterator(Node<V>[] tab, int index, int size, int limit, Double2ObjectConcurrentHashMap<V> map) {
super(tab, index, size, limit, map);
}
public final Entry<V> next() {
Node<V> p;
if ((p = this.next) == null) {
throw new NoSuchElementException();
} else {
double k = p.key;
V v = p.val;
this.lastReturned = p;
this.advance();
return new MapEntry<V>(p.isEmpty(), k, v, this.map);
}
}
}
public interface Entry<V> extends Double2ObjectMap.Entry<V> {
boolean isEmpty();
@Deprecated
Double getKey();
double getDoubleKey();
V getValue();
int hashCode();
String toString();
boolean equals(Object var1);
V setValue(V var1);
}
protected static final class MapEntry<V> implements Entry<V> {
public final boolean empty;
public final double key;
public V val;
public final Double2ObjectConcurrentHashMap<V> map;
public MapEntry(boolean empty, double key, V val, Double2ObjectConcurrentHashMap<V> map) {
this.empty = empty;
this.key = key;
this.val = val;
this.map = map;
}
public boolean isEmpty() {
return this.empty;
}
public Double getKey() {
return this.key;
}
public double getDoubleKey() {
return this.key;
}
public V getValue() {
return this.val;
}
public String toString() {
if (this.empty) {
return "EMPTY=" + String.valueOf(this.val);
} else {
double var10000 = this.key;
return var10000 + "=" + String.valueOf(this.val);
}
}
public boolean equals(Object o) {
if (this == o) {
return true;
} else if (o instanceof Entry) {
if (this.empty != ((Entry)o).isEmpty()) {
return false;
} else if (!this.empty && this.key != ((Entry)o).getDoubleKey()) {
return false;
} else {
return this.val.equals(((Entry)o).getValue());
}
} else {
return false;
}
}
public int hashCode() {
int result = this.empty ? 1 : 0;
result = 31 * result + Double.hashCode(this.key);
result = 31 * result + this.val.hashCode();
return result;
}
public V setValue(V value) {
if (value == null) {
throw new NullPointerException();
} else {
V v = this.val;
this.val = value;
this.map.put(this.key, value);
return v;
}
}
}
protected static final class KeySpliterator<V> extends Traverser<V> implements DoubleSpliterator {
public long est;
public KeySpliterator(Node<V>[] tab, int size, int index, int limit, long est) {
super(tab, size, index, limit);
this.est = est;
}
public DoubleSpliterator trySplit() {
int i;
int f;
int h;
return (h = (i = this.baseIndex) + (f = this.baseLimit) >>> 1) <= i ? null : new KeySpliterator(this.tab, this.baseSize, this.baseLimit = h, f, this.est >>>= 1);
}
public boolean tryAdvance(Consumer<? super Double> action) {
return action instanceof DoubleConsumer ? this.tryAdvance((DoubleConsumer)action) : this.tryAdvance((DoubleConsumer)((value) -> action.accept(value)));
}
public void forEachRemaining(DoubleConsumer action) {
if (action == null) {
throw new NullPointerException();
} else {
Node<V> p;
while((p = this.advance()) != null) {
action.accept(p.key);
}
}
}
public boolean tryAdvance(DoubleConsumer action) {
if (action == null) {
throw new NullPointerException();
} else {
Node<V> p;
if ((p = this.advance()) == null) {
return false;
} else {
action.accept(p.key);
return true;
}
}
}
public long estimateSize() {
return this.est;
}
public int characteristics() {
return 4353;
}
}
protected static final class ValueSpliterator<V> extends Traverser<V> implements ObjectSpliterator<V> {
public long est;
public ValueSpliterator(Node<V>[] tab, int size, int index, int limit, long est) {
super(tab, size, index, limit);
this.est = est;
}
public ObjectSpliterator<V> trySplit() {
int i;
int f;
int h;
return (h = (i = this.baseIndex) + (f = this.baseLimit) >>> 1) <= i ? null : new ValueSpliterator(this.tab, this.baseSize, this.baseLimit = h, f, this.est >>>= 1);
}
public void forEachRemaining(Consumer<? super V> action) {
if (action == null) {
throw new NullPointerException();
} else {
Node<V> p;
while((p = this.advance()) != null) {
action.accept(p.val);
}
}
}
public boolean tryAdvance(Consumer<? super V> action) {
if (action == null) {
throw new NullPointerException();
} else {
Node<V> p;
if ((p = this.advance()) == null) {
return false;
} else {
action.accept(p.val);
return true;
}
}
}
public long estimateSize() {
return this.est;
}
public int characteristics() {
return 4352;
}
}
protected static final class EntrySpliterator<V> extends Traverser<V> implements ObjectSpliterator<Double2ObjectMap.Entry<V>> {
public final Double2ObjectConcurrentHashMap<V> map;
public long est;
public EntrySpliterator(Node<V>[] tab, int size, int index, int limit, long est, Double2ObjectConcurrentHashMap<V> map) {
super(tab, size, index, limit);
this.map = map;
this.est = est;
}
public ObjectSpliterator<Double2ObjectMap.Entry<V>> trySplit() {
int i;
int f;
int h;
return (h = (i = this.baseIndex) + (f = this.baseLimit) >>> 1) <= i ? null : new EntrySpliterator(this.tab, this.baseSize, this.baseLimit = h, f, this.est >>>= 1, this.map);
}
public void forEachRemaining(Consumer<? super Double2ObjectMap.Entry<V>> action) {
if (action == null) {
throw new NullPointerException();
} else {
Node<V> p;
while((p = this.advance()) != null) {
action.accept(new MapEntry(p.isEmpty(), p.key, p.val, this.map));
}
}
}
public boolean tryAdvance(Consumer<? super Double2ObjectMap.Entry<V>> action) {
if (action == null) {
throw new NullPointerException();
} else {
Node<V> p;
if ((p = this.advance()) == null) {
return false;
} else {
action.accept(new MapEntry(p.isEmpty(), p.key, p.val, this.map));
return true;
}
}
}
public long estimateSize() {
return this.est;
}
public int characteristics() {
return 4353;
}
}
protected abstract static class CollectionView<K, E> implements ObjectCollection<E>, Serializable {
public static final long serialVersionUID = 7249069246763182397L;
public final Double2ObjectConcurrentHashMap<K> map;
protected static final String oomeMsg = "Required array size too large";
public CollectionView(Double2ObjectConcurrentHashMap<K> map) {
this.map = map;
}
public Double2ObjectConcurrentHashMap<K> getMap() {
return this.map;
}
public final void clear() {
this.map.clear();
}
public final int size() {
return this.map.size();
}
public final boolean isEmpty() {
return this.map.isEmpty();
}
public abstract ObjectIterator<E> iterator();
public abstract boolean contains(Object var1);
public abstract boolean remove(Object var1);
public final Object[] toArray() {
long sz = this.map.mappingCount();
if (sz > 2147483639L) {
throw new OutOfMemoryError("Required array size too large");
} else {
int n = (int)sz;
Object[] r = new Object[n];
int i = 0;
for(E e : this) {
if (i == n) {
if (n >= 2147483639) {
throw new OutOfMemoryError("Required array size too large");
}
if (n >= 1073741819) {
n = 2147483639;
} else {
n += (n >>> 1) + 1;
}
r = Arrays.copyOf(r, n);
}
r[i++] = e;
}
return i == n ? r : Arrays.copyOf(r, i);
}
}
public final <T> T[] toArray(T[] a) {
long sz = this.map.mappingCount();
if (sz > 2147483639L) {
throw new OutOfMemoryError("Required array size too large");
} else {
int m = (int)sz;
T[] r = (T[])(a.length >= m ? a : (Object[])Array.newInstance(a.getClass().getComponentType(), m));
int n = r.length;
int i = 0;
for(E e : this) {
if (i == n) {
if (n >= 2147483639) {
throw new OutOfMemoryError("Required array size too large");
}
if (n >= 1073741819) {
n = 2147483639;
} else {
n += (n >>> 1) + 1;
}
r = (T[])Arrays.copyOf(r, n);
}
r[i++] = e;
}
if (a == r && i < n) {
r[i] = null;
return r;
} else {
return (T[])(i == n ? r : Arrays.copyOf(r, i));
}
}
}
public final String toString() {
StringBuilder sb = new StringBuilder();
sb.append('[');
Iterator<E> it = this.iterator();
if (it.hasNext()) {
while(true) {
Object e = it.next();
sb.append(e == this ? "(this Collection)" : e);
if (!it.hasNext()) {
break;
}
sb.append(',').append(' ');
}
}
return sb.append(']').toString();
}
public final boolean containsAll(Collection<?> c) {
if (c != this) {
for(Object e : c) {
if (e == null || !this.contains(e)) {
return false;
}
}
}
return true;
}
public final boolean removeAll(Collection<?> c) {
if (c == null) {
throw new NullPointerException();
} else {
boolean modified = false;
Iterator<E> it = this.iterator();
while(it.hasNext()) {
if (c.contains(it.next())) {
it.remove();
modified = true;
}
}
return modified;
}
}
public final boolean retainAll(Collection<?> c) {
if (c == null) {
throw new NullPointerException();
} else {
boolean modified = false;
Iterator<E> it = this.iterator();
while(it.hasNext()) {
if (!c.contains(it.next())) {
it.remove();
modified = true;
}
}
return modified;
}
}
}
public static class KeySetView<V> implements DoubleSet {
public static final long serialVersionUID = 7249069246763182397L;
public final Double2ObjectConcurrentHashMap<V> map;
public final V value;
public KeySetView(Double2ObjectConcurrentHashMap<V> map, V value) {
this.map = map;
this.value = value;
}
public V getMappedValue() {
return this.value;
}
public boolean contains(double o) {
return this.map.containsKey(o);
}
public boolean remove(double o) {
return this.map.remove(o) != null;
}
public DoubleIterator iterator() {
Double2ObjectConcurrentHashMap<V> m = this.map;
Node<V>[] t;
int f = (t = m.table) == null ? 0 : t.length;
return new KeyIterator(t, f, 0, f, m);
}
public boolean add(double e) {
V v;
if ((v = this.value) == null) {
throw new UnsupportedOperationException();
} else {
return this.map.putVal(e, v, true) == null;
}
}
public boolean addAll(DoubleCollection c) {
boolean added = false;
V v;
if ((v = this.value) == null) {
throw new UnsupportedOperationException();
} else {
DoubleIterator iter = c.iterator();
while(iter.hasNext()) {
double e = iter.nextDouble();
if (this.map.putVal(e, v, true) == null) {
added = true;
}
}
return added;
}
}
public int hashCode() {
int h = 0;
for(DoubleIterator iter = this.iterator(); iter.hasNext(); h += Double.hashCode(iter.nextDouble())) {
}
return h;
}
public boolean equals(Object o) {
DoubleSet c;
return o instanceof DoubleSet && ((c = (DoubleSet)o) == this || this.containsAll(c) && c.containsAll(this));
}
public double getNoEntryValue() {
return this.map.EMPTY;
}
public int size() {
return this.map.size();
}
public boolean isEmpty() {
return this.map.isEmpty();
}
public Object[] toArray() {
Object[] out = new Double[this.size()];
DoubleIterator iter = this.iterator();
int i;
for(i = 0; i < out.length && iter.hasNext(); ++i) {
out[i] = iter.nextDouble();
}
if (out.length > i + 1) {
out[i] = this.map.EMPTY;
}
return out;
}
public Object[] toArray(Object[] dest) {
DoubleIterator iter = this.iterator();
int i;
for(i = 0; i < dest.length && iter.hasNext() && i <= dest.length; ++i) {
dest[i] = iter.next();
}
if (dest.length > i + 1) {
dest[i] = this.map.EMPTY;
}
return dest;
}
public double[] toDoubleArray() {
double[] out = new double[this.size()];
DoubleIterator iter = this.iterator();
int i;
for(i = 0; i < out.length && iter.hasNext(); ++i) {
out[i] = iter.next();
}
if (out.length > i + 1) {
out[i] = this.map.EMPTY;
}
return out;
}
public double[] toArray(double[] dest) {
DoubleIterator iter = this.iterator();
int i;
for(i = 0; i < dest.length && iter.hasNext() && i <= dest.length; ++i) {
dest[i] = iter.next();
}
if (dest.length > i + 1) {
dest[i] = this.map.EMPTY;
}
return dest;
}
public double[] toDoubleArray(double[] dest) {
return this.toArray(dest);
}
public boolean containsAll(Collection<?> collection) {
for(Object element : collection) {
if (!(element instanceof Long)) {
return false;
}
double c = (Double)element;
if (!this.contains(c)) {
return false;
}
}
return true;
}
public boolean containsAll(DoubleCollection collection) {
DoubleIterator iter = collection.iterator();
while(iter.hasNext()) {
double element = iter.next();
if (!this.contains(element)) {
return false;
}
}
return true;
}
public boolean containsAll(double[] array) {
int i = array.length;
while(i-- > 0) {
if (!this.contains(array[i])) {
return false;
}
}
return true;
}
public boolean addAll(Collection<? extends Double> collection) {
boolean changed = false;
for(Double element : collection) {
double e = element;
if (this.add(e)) {
changed = true;
}
}
return changed;
}
public boolean addAll(double[] array) {
boolean changed = false;
int i = array.length;
while(i-- > 0) {
if (this.add(array[i])) {
changed = true;
}
}
return changed;
}
public boolean retainAll(Collection<?> collection) {
boolean modified = false;
DoubleIterator iter = this.iterator();
while(iter.hasNext()) {
if (!collection.contains(iter.next())) {
iter.remove();
modified = true;
}
}
return modified;
}
public boolean retainAll(DoubleCollection collection) {
if (this == collection) {
return false;
} else {
boolean modified = false;
DoubleIterator iter = this.iterator();
while(iter.hasNext()) {
if (!collection.contains(iter.next())) {
iter.remove();
modified = true;
}
}
return modified;
}
}
public boolean retainAll(double[] array) {
boolean modified = false;
DoubleIterator iter = this.iterator();
while(iter.hasNext()) {
if (Arrays.binarySearch(array, iter.next()) < 0) {
iter.remove();
modified = true;
}
}
return modified;
}
public boolean removeAll(Collection<?> collection) {
boolean changed = false;
for(Object element : collection) {
if (element instanceof Double) {
double c = (Double)element;
if (this.remove(c)) {
changed = true;
}
}
}
return changed;
}
public boolean removeAll(DoubleCollection collection) {
boolean changed = false;
DoubleIterator iter = collection.iterator();
while(iter.hasNext()) {
double element = iter.next();
if (this.remove(element)) {
changed = true;
}
}
return changed;
}
public boolean removeAll(double[] array) {
boolean changed = false;
int i = array.length;
while(i-- > 0) {
if (this.remove(array[i])) {
changed = true;
}
}
return changed;
}
public void clear() {
this.map.clear();
}
public DoubleSpliterator spliterator() {
Double2ObjectConcurrentHashMap<V> m = this.map;
long n = m.sumCount();
Node<V>[] t;
int f = (t = m.table) == null ? 0 : t.length;
return new KeySpliterator(t, f, 0, f, n < 0L ? 0L : n);
}
}
protected static final class ValuesView<V> extends CollectionView<V, V> implements FastCollection<V>, Serializable {
public static final long serialVersionUID = 2249069246763182397L;
public ValuesView(Double2ObjectConcurrentHashMap<V> map) {
super(map);
}
public final boolean contains(Object o) {
return this.map.containsValue(o);
}
public final boolean remove(Object o) {
if (o != null) {
Iterator<V> it = this.iterator();
while(it.hasNext()) {
if (o.equals(it.next())) {
it.remove();
return true;
}
}
}
return false;
}
public final ObjectIterator<V> iterator() {
Double2ObjectConcurrentHashMap<V> m = this.map;
Node<V>[] t;
int f = (t = m.table) == null ? 0 : t.length;
return new ValueIterator<V>(t, f, 0, f, m);
}
public final boolean add(V e) {
throw new UnsupportedOperationException();
}
public final boolean addAll(Collection<? extends V> c) {
throw new UnsupportedOperationException();
}
public ObjectSpliterator<V> spliterator() {
Double2ObjectConcurrentHashMap<V> m = this.map;
long n = m.sumCount();
Node<V>[] t;
int f = (t = m.table) == null ? 0 : t.length;
return new ValueSpliterator<V>(t, f, 0, f, n < 0L ? 0L : n);
}
public void forEach(Consumer<? super V> action) {
if (action == null) {
throw new NullPointerException();
} else {
Node<V>[] tt;
if ((tt = this.map.table) != null) {
Node<V>[] tab = tt;
Node<V> next = null;
TableStack<V> stack = null;
TableStack<V> spare = null;
int index = 0;
int baseIndex = 0;
int baseLimit = tt.length;
int baseSize = tt.length;
while(true) {
Node<V> p = null;
p = next;
if (next != null) {
p = next.next;
}
label80: {
while(true) {
if (p != null) {
next = p;
break label80;
}
if (baseIndex >= baseLimit) {
break;
}
Node<V>[] t = tab;
int n;
if (tab == null || (n = tab.length) <= index || index < 0) {
break;
}
if ((p = Double2ObjectConcurrentHashMap.<V>tabAt(tab, index)) != null && p.hash < 0) {
if (p instanceof ForwardingNode) {
tab = ((ForwardingNode)p).nextTable;
p = null;
TableStack<V> s = spare;
if (spare != null) {
spare = spare.next;
} else {
s = new TableStack<V>();
}
s.tab = t;
s.length = n;
s.index = index;
s.next = stack;
stack = s;
continue;
}
if (p instanceof TreeBin) {
p = ((TreeBin)p).first;
} else {
p = null;
}
}
if (stack == null) {
if ((index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
} else {
while(true) {
TableStack<V> s = stack;
int len;
if (stack == null || (index += len = stack.length) < n) {
if (stack == null && (index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
break;
}
n = len;
index = stack.index;
tab = stack.tab;
stack.tab = null;
TableStack<V> anext = stack.next;
stack.next = spare;
stack = anext;
spare = s;
}
}
}
next = null;
}
if (p == null) {
break;
}
action.accept(p.val);
}
}
}
}
public <A, B, C, D> void forEach(FastCollection.FastConsumerD9<? super V, A, B, C, D> consumer, A a, double d1, double d2, double d3, double d4, double d5, double d6, double d7, double d8, double d9, B b, C c, D d) {
if (consumer == null) {
throw new NullPointerException();
} else {
Node<V>[] tt;
if ((tt = this.map.table) != null) {
Node<V>[] tab = tt;
Node<V> next = null;
TableStack<V> stack = null;
TableStack<V> spare = null;
int index = 0;
int baseIndex = 0;
int baseLimit = tt.length;
int baseSize = tt.length;
while(true) {
Node<V> p = null;
p = next;
if (next != null) {
p = next.next;
}
label80: {
while(true) {
if (p != null) {
next = p;
break label80;
}
if (baseIndex >= baseLimit) {
break;
}
Node<V>[] t = tab;
int n;
if (tab == null || (n = tab.length) <= index || index < 0) {
break;
}
if ((p = Double2ObjectConcurrentHashMap.<V>tabAt(tab, index)) != null && p.hash < 0) {
if (p instanceof ForwardingNode) {
tab = ((ForwardingNode)p).nextTable;
p = null;
TableStack<V> s = spare;
if (spare != null) {
spare = spare.next;
} else {
s = new TableStack<V>();
}
s.tab = t;
s.length = n;
s.index = index;
s.next = stack;
stack = s;
continue;
}
if (p instanceof TreeBin) {
p = ((TreeBin)p).first;
} else {
p = null;
}
}
if (stack == null) {
if ((index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
} else {
while(true) {
TableStack<V> s = stack;
int len;
if (stack == null || (index += len = stack.length) < n) {
if (stack == null && (index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
break;
}
n = len;
index = stack.index;
tab = stack.tab;
stack.tab = null;
TableStack<V> anext = stack.next;
stack.next = spare;
stack = anext;
spare = s;
}
}
}
next = null;
}
if (p == null) {
break;
}
consumer.accept(p.val, a, d1, d2, d3, d4, d5, d6, d7, d8, d9, b, c, d);
}
}
}
}
public <A, B, C, D> void forEach(FastCollection.FastConsumerD6<? super V, A, B, C, D> consumer, A a, double d1, double d2, double d3, double d4, double d5, double d6, B b, C c, D d) {
if (consumer == null) {
throw new NullPointerException();
} else {
Node<V>[] tt;
if ((tt = this.map.table) != null) {
Node<V>[] tab = tt;
Node<V> next = null;
TableStack<V> stack = null;
TableStack<V> spare = null;
int index = 0;
int baseIndex = 0;
int baseLimit = tt.length;
int baseSize = tt.length;
while(true) {
Node<V> p = null;
p = next;
if (next != null) {
p = next.next;
}
label80: {
while(true) {
if (p != null) {
next = p;
break label80;
}
if (baseIndex >= baseLimit) {
break;
}
Node<V>[] t = tab;
int n;
if (tab == null || (n = tab.length) <= index || index < 0) {
break;
}
if ((p = Double2ObjectConcurrentHashMap.<V>tabAt(tab, index)) != null && p.hash < 0) {
if (p instanceof ForwardingNode) {
tab = ((ForwardingNode)p).nextTable;
p = null;
TableStack<V> s = spare;
if (spare != null) {
spare = spare.next;
} else {
s = new TableStack<V>();
}
s.tab = t;
s.length = n;
s.index = index;
s.next = stack;
stack = s;
continue;
}
if (p instanceof TreeBin) {
p = ((TreeBin)p).first;
} else {
p = null;
}
}
if (stack == null) {
if ((index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
} else {
while(true) {
TableStack<V> s = stack;
int len;
if (stack == null || (index += len = stack.length) < n) {
if (stack == null && (index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
break;
}
n = len;
index = stack.index;
tab = stack.tab;
stack.tab = null;
TableStack<V> anext = stack.next;
stack.next = spare;
stack = anext;
spare = s;
}
}
}
next = null;
}
if (p == null) {
break;
}
consumer.accept(p.val, a, d1, d2, d3, d4, d5, d6, b, c, d);
}
}
}
}
public void forEachWithFloat(FastCollection.FastConsumerF<? super V> consumer, float ii) {
if (consumer == null) {
throw new NullPointerException();
} else {
Node<V>[] tt;
if ((tt = this.map.table) != null) {
Node<V>[] tab = tt;
Node<V> next = null;
TableStack<V> stack = null;
TableStack<V> spare = null;
int index = 0;
int baseIndex = 0;
int baseLimit = tt.length;
int baseSize = tt.length;
while(true) {
Node<V> p = null;
p = next;
if (next != null) {
p = next.next;
}
label80: {
while(true) {
if (p != null) {
next = p;
break label80;
}
if (baseIndex >= baseLimit) {
break;
}
Node<V>[] t = tab;
int n;
if (tab == null || (n = tab.length) <= index || index < 0) {
break;
}
if ((p = Double2ObjectConcurrentHashMap.<V>tabAt(tab, index)) != null && p.hash < 0) {
if (p instanceof ForwardingNode) {
tab = ((ForwardingNode)p).nextTable;
p = null;
TableStack<V> s = spare;
if (spare != null) {
spare = spare.next;
} else {
s = new TableStack<V>();
}
s.tab = t;
s.length = n;
s.index = index;
s.next = stack;
stack = s;
continue;
}
if (p instanceof TreeBin) {
p = ((TreeBin)p).first;
} else {
p = null;
}
}
if (stack == null) {
if ((index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
} else {
while(true) {
TableStack<V> s = stack;
int len;
if (stack == null || (index += len = stack.length) < n) {
if (stack == null && (index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
break;
}
n = len;
index = stack.index;
tab = stack.tab;
stack.tab = null;
TableStack<V> anext = stack.next;
stack.next = spare;
stack = anext;
spare = s;
}
}
}
next = null;
}
if (p == null) {
break;
}
consumer.accept(p.val, ii);
}
}
}
}
public void forEachWithInt(FastCollection.FastConsumerI<? super V> consumer, int ii) {
if (consumer == null) {
throw new NullPointerException();
} else {
Node<V>[] tt;
if ((tt = this.map.table) != null) {
Node<V>[] tab = tt;
Node<V> next = null;
TableStack<V> stack = null;
TableStack<V> spare = null;
int index = 0;
int baseIndex = 0;
int baseLimit = tt.length;
int baseSize = tt.length;
while(true) {
Node<V> p = null;
p = next;
if (next != null) {
p = next.next;
}
label80: {
while(true) {
if (p != null) {
next = p;
break label80;
}
if (baseIndex >= baseLimit) {
break;
}
Node<V>[] t = tab;
int n;
if (tab == null || (n = tab.length) <= index || index < 0) {
break;
}
if ((p = Double2ObjectConcurrentHashMap.<V>tabAt(tab, index)) != null && p.hash < 0) {
if (p instanceof ForwardingNode) {
tab = ((ForwardingNode)p).nextTable;
p = null;
TableStack<V> s = spare;
if (spare != null) {
spare = spare.next;
} else {
s = new TableStack<V>();
}
s.tab = t;
s.length = n;
s.index = index;
s.next = stack;
stack = s;
continue;
}
if (p instanceof TreeBin) {
p = ((TreeBin)p).first;
} else {
p = null;
}
}
if (stack == null) {
if ((index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
} else {
while(true) {
TableStack<V> s = stack;
int len;
if (stack == null || (index += len = stack.length) < n) {
if (stack == null && (index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
break;
}
n = len;
index = stack.index;
tab = stack.tab;
stack.tab = null;
TableStack<V> anext = stack.next;
stack.next = spare;
stack = anext;
spare = s;
}
}
}
next = null;
}
if (p == null) {
break;
}
consumer.accept(p.val, ii);
}
}
}
}
public void forEachWithLong(FastCollection.FastConsumerL<? super V> consumer, long ii) {
if (consumer == null) {
throw new NullPointerException();
} else {
Node<V>[] tt;
if ((tt = this.map.table) != null) {
Node<V>[] tab = tt;
Node<V> next = null;
TableStack<V> stack = null;
TableStack<V> spare = null;
int index = 0;
int baseIndex = 0;
int baseLimit = tt.length;
int baseSize = tt.length;
while(true) {
Node<V> p = null;
p = next;
if (next != null) {
p = next.next;
}
label80: {
while(true) {
if (p != null) {
next = p;
break label80;
}
if (baseIndex >= baseLimit) {
break;
}
Node<V>[] t = tab;
int n;
if (tab == null || (n = tab.length) <= index || index < 0) {
break;
}
if ((p = Double2ObjectConcurrentHashMap.<V>tabAt(tab, index)) != null && p.hash < 0) {
if (p instanceof ForwardingNode) {
tab = ((ForwardingNode)p).nextTable;
p = null;
TableStack<V> s = spare;
if (spare != null) {
spare = spare.next;
} else {
s = new TableStack<V>();
}
s.tab = t;
s.length = n;
s.index = index;
s.next = stack;
stack = s;
continue;
}
if (p instanceof TreeBin) {
p = ((TreeBin)p).first;
} else {
p = null;
}
}
if (stack == null) {
if ((index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
} else {
while(true) {
TableStack<V> s = stack;
int len;
if (stack == null || (index += len = stack.length) < n) {
if (stack == null && (index += baseSize) >= n) {
++baseIndex;
index = baseIndex;
}
break;
}
n = len;
index = stack.index;
tab = stack.tab;
stack.tab = null;
TableStack<V> anext = stack.next;
stack.next = spare;
stack = anext;
spare = s;
}
}
}
next = null;
}
if (p == null) {
break;
}
consumer.accept(p.val, ii);
}
}
}
}
}
protected static final class EntrySetView<V> extends CollectionView<V, Double2ObjectMap.Entry<V>> implements ObjectSet<Double2ObjectMap.Entry<V>>, Serializable {
public static final long serialVersionUID = 2249069246763182397L;
public EntrySetView(Double2ObjectConcurrentHashMap<V> map) {
super(map);
}
public boolean contains(Object o) {
if (o instanceof Double2ObjectMap.Entry) {
Double2ObjectMap.Entry<?> e;
double k = (e = (Double2ObjectMap.Entry)o).getDoubleKey();
if (!((Entry)o).isEmpty()) {
Object v;
Object r;
return (r = this.map.get(k)) != null && (v = e.getValue()) != null && (v == r || v.equals(r));
}
}
return false;
}
public boolean remove(Object o) {
if (o instanceof Double2ObjectMap.Entry) {
Double2ObjectMap.Entry<?> e;
double k = (e = (Double2ObjectMap.Entry)o).getDoubleKey();
if (!((Entry)o).isEmpty()) {
Object v;
return (v = e.getValue()) != null && this.map.remove(k, v);
}
}
return false;
}
public ObjectIterator<Double2ObjectMap.Entry<V>> iterator() {
Double2ObjectConcurrentHashMap<V> m = this.map;
Node<V>[] t;
int f = (t = m.table) == null ? 0 : t.length;
return new EntryIterator<Double2ObjectMap.Entry<V>>(t, f, 0, f, m);
}
public boolean add(Double2ObjectMap.Entry<V> e) {
return this.map.putVal(e.getDoubleKey(), e.getValue(), false) == null;
}
public boolean addAll(Collection<? extends Double2ObjectMap.Entry<V>> c) {
boolean added = false;
for(Double2ObjectMap.Entry<V> e : c) {
if (this.add(e)) {
added = true;
}
}
return added;
}
public final int hashCode() {
int h = 0;
Node<V>[] t;
Node<V> p;
if ((t = this.map.table) != null) {
for(Traverser<V> it = new Traverser<V>(t, t.length, 0, t.length); (p = it.advance()) != null; h += p.hashCode()) {
}
}
return h;
}
public final boolean equals(Object o) {
Set<?> c;
return o instanceof Set && ((c = (Set)o) == this || this.containsAll(c) && c.containsAll(this));
}
public ObjectSpliterator<Double2ObjectMap.Entry<V>> spliterator() {
Double2ObjectConcurrentHashMap<V> m = this.map;
long n = m.sumCount();
Node<V>[] t;
int f = (t = m.table) == null ? 0 : t.length;
return new EntrySpliterator<Double2ObjectMap.Entry<V>>(t, f, 0, f, n < 0L ? 0L : n, m);
}
public void forEach(Consumer<? super Double2ObjectMap.Entry<V>> action) {
if (action == null) {
throw new NullPointerException();
} else {
Node<V>[] t;
if ((t = this.map.table) != null) {
Traverser<V> it = new Traverser<V>(t, t.length, 0, t.length);
Node<V> p;
while((p = it.advance()) != null) {
action.accept(new MapEntry(p.isEmpty(), p.key, p.val, this.map));
}
}
}
}
}
protected abstract static class BulkTask<V, R> extends CountedCompleter<R> {
public Node<V>[] tab;
public Node<V> next;
public TableStack<V> stack;
public TableStack<V> spare;
public int index;
public int baseIndex;
public int baseLimit;
public final int baseSize;
public int batch;
protected BulkTask(BulkTask<V, ?> par, int b, int i, int f, Node<V>[] t) {
super(par);
this.batch = b;
this.index = this.baseIndex = i;
if ((this.tab = t) == null) {
this.baseSize = this.baseLimit = 0;
} else if (par == null) {
this.baseSize = this.baseLimit = t.length;
} else {
this.baseLimit = f;
this.baseSize = par.baseSize;
}
}
protected final Node<V> advance() {
Node<V> e;
if ((e = this.next) != null) {
e = e.next;
}
while(e == null) {
Node<V>[] t;
int i;
int n;
if (this.baseIndex >= this.baseLimit || (t = this.tab) == null || (n = t.length) <= (i = this.index) || i < 0) {
return this.next = null;
}
if ((e = Double2ObjectConcurrentHashMap.<V>tabAt(t, i)) != null && e.hash < 0) {
if (e instanceof ForwardingNode) {
this.tab = ((ForwardingNode)e).nextTable;
e = null;
this.pushState(t, i, n);
continue;
}
if (e instanceof TreeBin) {
e = ((TreeBin)e).first;
} else {
e = null;
}
}
if (this.stack != null) {
this.recoverState(n);
} else if ((this.index = i + this.baseSize) >= n) {
this.index = ++this.baseIndex;
}
}
return this.next = e;
}
protected void pushState(Node<V>[] t, int i, int n) {
TableStack<V> s = this.spare;
if (s != null) {
this.spare = s.next;
} else {
s = new TableStack<V>();
}
s.tab = t;
s.length = n;
s.index = i;
s.next = this.stack;
this.stack = s;
}
protected void recoverState(int n) {
TableStack<V> s;
int len;
while((s = this.stack) != null && (this.index += len = s.length) >= n) {
n = len;
this.index = s.index;
this.tab = s.tab;
s.tab = null;
TableStack<V> next = s.next;
s.next = this.spare;
this.stack = next;
this.spare = s;
}
if (s == null && (this.index += this.baseSize) >= n) {
this.index = ++this.baseIndex;
}
}
}
protected abstract static class DoubleReturningBulkTask2<V> extends BulkTask<V, Double> {
public double result;
public DoubleReturningBulkTask2(BulkTask<V, ?> par, int b, int i, int f, Node<V>[] t) {
super(par, b, i, f, t);
}
protected double invoke0() {
this.quietlyInvoke();
Throwable exc = this.getException();
if (exc != null) {
throw SneakyThrow.sneakyThrow(exc);
} else {
return this.result;
}
}
}
protected abstract static class LongReturningBulkTask<V> extends BulkTask<V, Long> {
public long result;
public LongReturningBulkTask(BulkTask<V, ?> par, int b, int i, int f, Node<V>[] t) {
super(par, b, i, f, t);
}
protected long invoke0() {
this.quietlyInvoke();
Throwable exc = this.getException();
if (exc != null) {
throw SneakyThrow.sneakyThrow(exc);
} else {
return this.result;
}
}
}
protected abstract static class IntReturningBulkTask<V> extends BulkTask<V, Integer> {
public int result;
public IntReturningBulkTask(BulkTask<V, ?> par, int b, int i, int f, Node<V>[] t) {
super(par, b, i, f, t);
}
protected int invoke0() {
this.quietlyInvoke();
Throwable exc = this.getException();
if (exc != null) {
throw SneakyThrow.sneakyThrow(exc);
} else {
return this.result;
}
}
}
protected abstract static class DoubleReturningBulkTask<V> extends BulkTask<V, Double> {
public double result;
public DoubleReturningBulkTask(BulkTask<V, ?> par, int b, int i, int f, Node<V>[] t) {
super(par, b, i, f, t);
}
protected double invoke0() {
this.quietlyInvoke();
Throwable exc = this.getException();
if (exc != null) {
throw SneakyThrow.sneakyThrow(exc);
} else {
return this.result;
}
}
}
protected static final class ForEachKeyTask<V> extends BulkTask<V, Void> {
public final DoubleConsumer action;
public ForEachKeyTask(BulkTask<V, ?> p, int b, int i, int f, Node<V>[] t, DoubleConsumer action) {
super(p, b, i, f, t);
this.action = action;
}
public final void compute() {
DoubleConsumer action;
if ((action = this.action) != null) {
int i = this.baseIndex;
int f;
int h;
while(this.batch > 0 && (h = (f = this.baseLimit) + i >>> 1) > i) {
this.addToPendingCount(1);
(new ForEachKeyTask(this, this.batch >>>= 1, this.baseLimit = h, f, this.tab, action)).fork();
}
while((p = this.advance()) != null) {
action.accept(p.key);
}
this.propagateCompletion();
}
}
}
protected static final class ForEachValueTask<V> extends BulkTask<V, Void> {
public final Consumer<? super V> action;
public ForEachValueTask(BulkTask<V, ?> p, int b, int i, int f, Node<V>[] t, Consumer<? super V> action) {
super(p, b, i, f, t);
this.action = action;
}
public final void compute() {
Consumer<? super V> action;
if ((action = this.action) != null) {
int i = this.baseIndex;
int f;
int h;
while(this.batch > 0 && (h = (f = this.baseLimit) + i >>> 1) > i) {
this.addToPendingCount(1);
(new ForEachValueTask(this, this.batch >>>= 1, this.baseLimit = h, f, this.tab, action)).fork();
}
while((p = this.advance()) != null) {
action.accept(p.val);
}
this.propagateCompletion();
}
}
}
protected static final class ForEachEntryTask<V> extends BulkTask<V, Void> {
public final Consumer<? super Entry<V>> action;
public ForEachEntryTask(BulkTask<V, ?> p, int b, int i, int f, Node<V>[] t, Consumer<? super Entry<V>> action) {
super(p, b, i, f, t);
this.action = action;
}
public final void compute() {
Consumer<? super Entry<V>> action;
if ((action = this.action) != null) {
int i = this.baseIndex;
int f;
int h;
while(this.batch > 0 && (h = (f = this.baseLimit) + i >>> 1) > i) {
this.addToPendingCount(1);
(new ForEachEntryTask(this, this.batch >>>= 1, this.baseLimit = h, f, this.tab, action)).fork();
}
while((p = this.advance()) != null) {
action.accept(p);
}
this.propagateCompletion();
}
}
}
protected static final class ForEachMappingTask<V> extends BulkTask<V, Void> {
public final DoubleObjConsumer<? super V> action;
public ForEachMappingTask(BulkTask<V, ?> p, int b, int i, int f, Node<V>[] t, DoubleObjConsumer<? super V> action) {
super(p, b, i, f, t);
this.action = action;
}
public final void compute() {
DoubleObjConsumer<? super V> action;
if ((action = this.action) != null) {
int i = this.baseIndex;
int f;
int h;
while(this.batch > 0 && (h = (f = this.baseLimit) + i >>> 1) > i) {
this.addToPendingCount(1);
(new ForEachMappingTask(this, this.batch >>>= 1, this.baseLimit = h, f, this.tab, action)).fork();
}
while((p = this.advance()) != null) {
action.accept(p.key, p.val);
}
this.propagateCompletion();
}
}
}
protected static final class ForEachTransformedKeyTask<V, U> extends BulkTask<V, Void> {
public final DoubleFunction<? extends U> transformer;
public final Consumer<? super U> action;
public ForEachTransformedKeyTask(BulkTask<V, ?> p, int b, int i, int f, Node<V>[] t, DoubleFunction<? extends U> transformer, Consumer<? super U> action) {
super(p, b, i, f, t);
this.transformer = transformer;
this.action = action;
}
public final void compute() {
DoubleFunction<? extends U> transformer;
Consumer<? super U> action;
if ((transformer = this.transformer) != null && (action = this.action) != null) {
int i = this.baseIndex;
int f;
int h;
while(this.batch > 0 && (h = (f = this.baseLimit) + i >>> 1) > i) {
this.addToPendingCount(1);
(new ForEachTransformedKeyTask(this, this.batch >>>= 1, this.baseLimit = h, f, this.tab, transformer, action)).fork();
}
while((p = this.advance()) != null) {
U u;
if ((u = transformer.apply(p.key)) != null) {
action.accept(u);
}
}
this.propagateCompletion();
}
}
}
protected static final class ForEachTransformedValueTask<V, U> extends BulkTask<V, Void> {
public final Function<? super V, ? extends U> transformer;
public final Consumer<? super U> action;
public ForEachTransformedValueTask(BulkTask<V, ?> p, int b, int i, int f, Node<V>[] t, Function<? super V, ? extends U> transformer, Consumer<? super U> action) {
super(p, b, i, f, t);
this.transformer = transformer;
this.action = action;
}
public final void compute() {
Function<? super V, ? extends U> transformer;
Consumer<? super U> action;
if ((transformer = this.transformer) != null && (action = this.action) != null) {
int i = this.baseIndex;
int f;
int h;
while(this.batch > 0 && (h = (f = this.baseLimit) + i >>> 1) > i) {
this.addToPendingCount(1);
(new ForEachTransformedValueTask(this, this.batch >>>= 1, this.baseLimit = h, f, this.tab, transformer, action)).fork();
}
while((p = this.advance()) != null) {
U u;
if ((u = (U)transformer.apply(p.val)) != null) {
action.accept(u);
}
}
this.propagateCompletion();
}
}
}
protected static final class ForEachTransformedEntryTask<V, U> extends BulkTask<V, Void> {
public final Function<Entry<V>, ? extends U> transformer;
public final Consumer<? super U> action;
public ForEachTransformedEntryTask(BulkTask<V, ?> p, int b, int i, int f, Node<V>[] t, Function<Entry<V>, ? extends U> transformer, Consumer<? super U> action) {
super(p, b, i, f, t);
this.transformer = transformer;
this.action = action;
}
public final void compute() {
Function<Entry<V>, ? extends U> transformer;
Consumer<? super U> action;
if ((transformer = this.transformer) != null && (action = this.action) != null) {
int i = this.baseIndex;
int f;
int h;
while(this.batch > 0 && (h = (f = this.baseLimit) + i >>> 1) > i) {
this.addToPendingCount(1);
(new ForEachTransformedEntryTask(this, this.batch >>>= 1, this.baseLimit = h, f, this.tab, transformer, action)).fork();
}
while((p = this.advance()) != null) {
U u;
if ((u = (U)transformer.apply(p)) != null) {
action.accept(u);
}
}
this.propagateCompletion();
}
}
}
protected static final class ForEachTransformedMappingTask<V, U> extends BulkTask<V, Void> {
public final DoubleObjFunction<? super V, ? extends U> transformer;
public final Consumer<? super U> action;
public ForEachTransformedMappingTask(BulkTask<V, ?> p, int b, int i, int f, Node<V>[] t, DoubleObjFunction<? super V, ? extends U> transformer, Consumer<? super U> action) {
super(p, b, i, f, t);
this.transformer = transformer;
this.action = action;
}
public final void compute() {
DoubleObjFunction<? super V, ? extends U> transformer;
Consumer<? super U> action;
if ((transformer = this.transformer) != null && (action = this.action) != null) {
int i = this.baseIndex;
int f;
int h;
while(this.batch > 0 && (h = (f = this.baseLimit) + i >>> 1) > i) {
this.addToPendingCount(1);
(new ForEachTransformedMappingTask(this, this.batch >>>= 1, this.baseLimit = h, f, this.tab, transformer, action)).fork();
}
while((p = this.advance()) != null) {
U u;
if ((u = transformer.apply(p.key, p.val)) != null) {
action.accept(u);
}
}
this.propagateCompletion();
}
}
}
protected static final class SearchKeysTask<V, U> extends BulkTask<V, U> {
public final DoubleFunction<? extends U> searchFunction;
public final AtomicReference<U> result;
public SearchKeysTask(BulkTask<V, ?> p, int b, int i, int f, Node<V>[] t, DoubleFunction<? extends U> searchFunction, AtomicReference<U> result) {
super(p, b, i, f, t);
this.searchFunction = searchFunction;
this.result = result;
}
public final U getRawResult() {
return (U)this.result.get();
}
public final void compute() {
DoubleFunction<? extends U> searchFunction;
AtomicReference<U> result;
if ((searchFunction = this.searchFunction) != null && (result = this.result) != null) {
int i = this.baseIndex;
int f;
int h;
while(this.batch > 0 && (h = (f = this.baseLimit) + i >>> 1) > i) {
if (result.get() != null) {
return;
}
this.addToPendingCount(1);
(new SearchKeysTask(this, this.batch >>>= 1, this.baseLimit = h, f, this.tab, searchFunction, result)).fork();
}
while(result.get() == null) {
Node<V> p;
if ((p = this.advance()) == null) {
this.propagateCompletion();
break;
}
U u;
if ((u = searchFunction.apply(p.key)) != null) {
if (result.compareAndSet((Object)null, u)) {
this.quietlyCompleteRoot();
}
break;
}
}
}
}
}
protected static final class SearchValuesTask<V, U> extends BulkTask<V, U> {
public final Function<? super V, ? extends U> searchFunction;
public final AtomicReference<U> result;
public SearchValuesTask(BulkTask<V, ?> p, int b, int i, int f, Node<V>[] t, Function<? super V, ? extends U> searchFunction, AtomicReference<U> result) {
super(p, b, i, f, t);
this.searchFunction = searchFunction;
this.result = result;
}
public final U getRawResult() {
return (U)this.result.get();
}
public final void compute() {
Function<? super V, ? extends U> searchFunction;
AtomicReference<U> result;
if ((searchFunction = this.searchFunction) != null && (result = this.result) != null) {
int i = this.baseIndex;
int f;
int h;
while(this.batch > 0 && (h = (f = this.baseLimit) + i >>> 1) > i) {
if (result.get() != null) {
return;
}
this.addToPendingCount(1);
(new SearchValuesTask(this, this.batch >>>= 1, this.baseLimit = h, f, this.tab, searchFunction, result)).fork();
}
while(result.get() == null) {
Node<V> p;
if ((p = this.advance()) == null) {
this.propagateCompletion();
break;
}
U u;
if ((u = (U)searchFunction.apply(p.val)) != null) {
if (result.compareAndSet((Object)null, u)) {
this.quietlyCompleteRoot();
}
break;
}
}
}
}
}
protected static final class SearchEntriesTask<V, U> extends BulkTask<V, U> {
public final Function<Entry<V>, ? extends U> searchFunction;
public final AtomicReference<U> result;
public SearchEntriesTask(BulkTask<V, ?> p, int b, int i, int f, Node<V>[] t, Function<Entry<V>, ? extends U> searchFunction, AtomicReference<U> result) {
super(p, b, i, f, t);
this.searchFunction = searchFunction;
this.result = result;
}
public final U getRawResult() {
return (U)this.result.get();
}
public final void compute() {
Function<Entry<V>, ? extends U> searchFunction;
AtomicReference<U> result;
if ((searchFunction = this.searchFunction) != null && (result = this.result) != null) {
int i = this.baseIndex;
int f;
int h;
while(this.batch > 0 && (h = (f = this.baseLimit) + i >>> 1) > i) {
if (result.get() != null) {
return;
}
this.addToPendingCount(1);
(new SearchEntriesTask(this, this.batch >>>= 1, this.baseLimit = h, f, this.tab, searchFunction, result)).fork();
}
while(result.get() == null) {
Node<V> p;
if ((p = this.advance()) == null) {
this.propagateCompletion();
break;
}
U u;
if ((u = (U)searchFunction.apply(p)) != null) {
if (result.compareAndSet((Object)null, u)) {
this.quietlyCompleteRoot();
}
return;
}
}
}
}
}
protected static final class SearchMappingsTask<V, U> extends BulkTask<V, U> {
public final DoubleObjFunction<? super V, ? extends U> searchFunction;
public final AtomicReference<U> result;
public SearchMappingsTask(BulkTask<V, ?> p, int b, int i, int f, Node<V>[] t, DoubleObjFunction<? super V, ? extends U> searchFunction, AtomicReference<U> result) {
super(p, b, i, f, t);
this.searchFunction = searchFunction;
this.result = result;
}
public final U getRawResult() {
return (U)this.result.get();
}
public final void compute() {
DoubleObjFunction<? super V, ? extends U> searchFunction;
AtomicReference<U> result;
if ((searchFunction = this.searchFunction) != null && (result = this.result) != null) {
int i = this.baseIndex;
int f;
int h;
while(this.batch > 0 && (h = (f = this.baseLimit) + i >>> 1) > i) {
if (result.get() != null) {
return;
}
this.addToPendingCount(1);
(new SearchMappingsTask(this, this.batch >>>= 1, this.baseLimit = h, f, this.tab, searchFunction, result)).fork();
}
while(result.get() == null) {
Node<V> p;
if ((p = this.advance()) == null) {
this.propagateCompletion();
break;
}
U u;
if ((u = searchFunction.apply(p.key, p.val)) != null) {
if (result.compareAndSet((Object)null, u)) {
this.quietlyCompleteRoot();
}
break;
}
}
}
}
}
protected static final class ReduceKeysTask<V> extends DoubleReturningBulkTask2<V> {
public final double EMPTY;
public final DoubleReduceTaskOperator reducer;
public ReduceKeysTask<V> rights;
public ReduceKeysTask<V> nextRight;
public ReduceKeysTask(double EMPTY, BulkTask<V, ?> p, int b, int i, int f, Node<V>[] t, ReduceKeysTask<V> nextRight, DoubleReduceTaskOperator reducer) {
super(p, b, i, f, t);
this.nextRight = nextRight;
this.EMPTY = EMPTY;
this.reducer = reducer;
}
public final Double getRawResult() {
throw new UnsupportedOperationException();
}
public final void compute() {
DoubleReduceTaskOperator reducer;
if ((reducer = this.reducer) != null) {
int i = this.baseIndex;
int f;
int h;
while(this.batch > 0 && (h = (f = this.baseLimit) + i >>> 1) > i) {
this.addToPendingCount(1);
(this.rights = new ReduceKeysTask<V>(this.EMPTY, this, this.batch >>>= 1, this.baseLimit = h, f, this.tab, this.rights, reducer)).fork();
}
i = 0;
double r = this.EMPTY;
Node<V> p;
while((p = this.advance()) != null) {
double u = p.key;
if (!i) {
i = 1;
r = u;
} else if (!p.isEmpty()) {
i = 1;
r = reducer.reduce(this.EMPTY, r, u);
}
}
this.result = r;
for(CountedCompleter<?> c = this.firstComplete(); c != null; c = c.nextComplete()) {
ReduceKeysTask<V> t = (ReduceKeysTask)c;
for(ReduceKeysTask<V> s = t.rights; s != null; s = t.rights = s.nextRight) {
double sr;
if ((sr = s.result) != this.EMPTY) {
double tr;
t.result = (tr = t.result) == this.EMPTY ? sr : reducer.reduce(this.EMPTY, tr, sr);
}
}
}
}
}
}
protected static final class ReduceValuesTask<V> extends BulkTask<V, V> {
public final BiFunction<? super V, ? super V, ? extends V> reducer;
public V result;
public ReduceValuesTask<V> rights;
public ReduceValuesTask<V> nextRight;
public ReduceValuesTask(BulkTask<V, ?> p, int b, int i, int f, Node<V>[] t, ReduceValuesTask<V> nextRight, BiFunction<? super V, ? super V, ? extends V> reducer) {
super(p, b, i, f, t);
this.nextRight = nextRight;
this.reducer = reducer;
}
public final V getRawResult() {
return this.result;
}
public final void compute() {
BiFunction<? super V, ? super V, ? extends V> reducer;
if ((reducer = this.reducer) != null) {
int i = this.baseIndex;
int f;
int h;
while(this.batch > 0 && (h = (f = this.baseLimit) + i >>> 1) > i) {
this.addToPendingCount(1);
(this.rights = new ReduceValuesTask<V>(this, this.batch >>>= 1, this.baseLimit = h, f, this.tab, this.rights, reducer)).fork();
}
for(r = null; (p = this.advance()) != null; r = (V)(r == null ? v : reducer.apply(r, v))) {
v = p.val;
}
this.result = r;
for(CountedCompleter<?> c = this.firstComplete(); c != null; c = c.nextComplete()) {
ReduceValuesTask<V> t = (ReduceValuesTask)c;
for(ReduceValuesTask<V> s = t.rights; s != null; s = t.rights = s.nextRight) {
V sr;
if ((sr = s.result) != null) {
V tr;
t.result = (V)((tr = t.result) == null ? sr : reducer.apply(tr, sr));
}
}
}
}
}
}
protected static final class ReduceEntriesTask<V> extends BulkTask<V, Entry<V>> {
public final BiFunction<Entry<V>, Entry<V>, ? extends Entry<V>> reducer;
public Entry<V> result;
public ReduceEntriesTask<V> rights;
public ReduceEntriesTask<V> nextRight;
public ReduceEntriesTask(BulkTask<V, ?> p, int b, int i, int f, Node<V>[] t, ReduceEntriesTask<V> nextRight, BiFunction<Entry<V>, Entry<V>, ? extends Entry<V>> reducer) {
super(p, b, i, f, t);
this.nextRight = nextRight;
this.reducer = reducer;
}
public final Entry<V> getRawResult() {
return this.result;
}
public final void compute() {
BiFunction<Entry<V>, Entry<V>, ? extends Entry<V>> reducer;
if ((reducer = this.reducer) != null) {
int i = this.baseIndex;
int f;
int h;
while(this.batch > 0 && (h = (f = this.baseLimit) + i >>> 1) > i) {
this.addToPendingCount(1);
(this.rights = new ReduceEntriesTask<V>(this, this.batch >>>= 1, this.baseLimit = h, f, this.tab, this.rights, reducer)).fork();
}
for(r = null; (p = this.advance()) != null; r = (Entry<V>)(r == null ? p : (Entry)reducer.apply(r, p))) {
}
this.result = r;
for(CountedCompleter<?> c = this.firstComplete(); c != null; c = c.nextComplete()) {
ReduceEntriesTask<V> t = (ReduceEntriesTask)c;
for(ReduceEntriesTask<V> s = t.rights; s != null; s = t.rights = s.nextRight) {
Entry<V> sr;
if ((sr = s.result) != null) {
Entry<V> tr;
t.result = (tr = t.result) == null ? sr : (Entry)reducer.apply(tr, sr);
}
}
}
}
}
}
protected static final class MapReduceKeysTask<V, U> extends BulkTask<V, U> {
public final DoubleFunction<? extends U> transformer;
public final BiFunction<? super U, ? super U, ? extends U> reducer;
public U result;
public MapReduceKeysTask<V, U> rights;
public MapReduceKeysTask<V, U> nextRight;
public MapReduceKeysTask(BulkTask<V, ?> p, int b, int i, int f, Node<V>[] t, MapReduceKeysTask<V, U> nextRight, DoubleFunction<? extends U> transformer, BiFunction<? super U, ? super U, ? extends U> reducer) {
super(p, b, i, f, t);
this.nextRight = nextRight;
this.transformer = transformer;
this.reducer = reducer;
}
public final U getRawResult() {
return this.result;
}
public final void compute() {
DoubleFunction<? extends U> transformer;
BiFunction<? super U, ? super U, ? extends U> reducer;
if ((transformer = this.transformer) != null && (reducer = this.reducer) != null) {
int i = this.baseIndex;
int f;
int h;
while(this.batch > 0 && (h = (f = this.baseLimit) + i >>> 1) > i) {
this.addToPendingCount(1);
(this.rights = new MapReduceKeysTask<V, U>(this, this.batch >>>= 1, this.baseLimit = h, f, this.tab, this.rights, transformer, reducer)).fork();
}
U r = null;
while((p = this.advance()) != null) {
U u;
if ((u = transformer.apply(p.key)) != null) {
r = (U)(r == null ? u : reducer.apply(r, u));
}
}
this.result = r;
for(CountedCompleter<?> c = this.firstComplete(); c != null; c = c.nextComplete()) {
MapReduceKeysTask<V, U> t = (MapReduceKeysTask)c;
for(MapReduceKeysTask<V, U> s = t.rights; s != null; s = t.rights = s.nextRight) {
U sr;
if ((sr = s.result) != null) {
U tr;
t.result = (U)((tr = t.result) == null ? sr : reducer.apply(tr, sr));
}
}
}
}
}
}
protected static final class MapReduceValuesTask<V, U> extends BulkTask<V, U> {
public final Function<? super V, ? extends U> transformer;
public final BiFunction<? super U, ? super U, ? extends U> reducer;
public U result;
public MapReduceValuesTask<V, U> rights;
public MapReduceValuesTask<V, U> nextRight;
public MapReduceValuesTask(BulkTask<V, ?> p, int b, int i, int f, Node<V>[] t, MapReduceValuesTask<V, U> nextRight, Function<? super V, ? extends U> transformer, BiFunction<? super U, ? super U, ? extends U> reducer) {
super(p, b, i, f, t);
this.nextRight = nextRight;
this.transformer = transformer;
this.reducer = reducer;
}
public final U getRawResult() {
return this.result;
}
public final void compute() {
Function<? super V, ? extends U> transformer;
BiFunction<? super U, ? super U, ? extends U> reducer;
if ((transformer = this.transformer) != null && (reducer = this.reducer) != null) {
int i = this.baseIndex;
int f;
int h;
while(this.batch > 0 && (h = (f = this.baseLimit) + i >>> 1) > i) {
this.addToPendingCount(1);
(this.rights = new MapReduceValuesTask<V, U>(this, this.batch >>>= 1, this.baseLimit = h, f, this.tab, this.rights, transformer, reducer)).fork();
}
U r = null;
while((p = this.advance()) != null) {
U u;
if ((u = (U)transformer.apply(p.val)) != null) {
r = (U)(r == null ? u : reducer.apply(r, u));
}
}
this.result = r;
for(CountedCompleter<?> c = this.firstComplete(); c != null; c = c.nextComplete()) {
MapReduceValuesTask<V, U> t = (MapReduceValuesTask)c;
for(MapReduceValuesTask<V, U> s = t.rights; s != null; s = t.rights = s.nextRight) {
U sr;
if ((sr = s.result) != null) {
U tr;
t.result = (U)((tr = t.result) == null ? sr : reducer.apply(tr, sr));
}
}
}
}
}
}
protected static final class MapReduceEntriesTask<V, U> extends BulkTask<V, U> {
public final Function<Entry<V>, ? extends U> transformer;
public final BiFunction<? super U, ? super U, ? extends U> reducer;
public U result;
public MapReduceEntriesTask<V, U> rights;
public MapReduceEntriesTask<V, U> nextRight;
public MapReduceEntriesTask(BulkTask<V, ?> p, int b, int i, int f, Node<V>[] t, MapReduceEntriesTask<V, U> nextRight, Function<Entry<V>, ? extends U> transformer, BiFunction<? super U, ? super U, ? extends U> reducer) {
super(p, b, i, f, t);
this.nextRight = nextRight;
this.transformer = transformer;
this.reducer = reducer;
}
public final U getRawResult() {
return this.result;
}
public final void compute() {
Function<Entry<V>, ? extends U> transformer;
BiFunction<? super U, ? super U, ? extends U> reducer;
if ((transformer = this.transformer) != null && (reducer = this.reducer) != null) {
int i = this.baseIndex;
int f;
int h;
while(this.batch > 0 && (h = (f = this.baseLimit) + i >>> 1) > i) {
this.addToPendingCount(1);
(this.rights = new MapReduceEntriesTask<V, U>(this, this.batch >>>= 1, this.baseLimit = h, f, this.tab, this.rights, transformer, reducer)).fork();
}
U r = null;
while((p = this.advance()) != null) {
U u;
if ((u = (U)transformer.apply(p)) != null) {
r = (U)(r == null ? u : reducer.apply(r, u));
}
}
this.result = r;
for(CountedCompleter<?> c = this.firstComplete(); c != null; c = c.nextComplete()) {
MapReduceEntriesTask<V, U> t = (MapReduceEntriesTask)c;
for(MapReduceEntriesTask<V, U> s = t.rights; s != null; s = t.rights = s.nextRight) {
U sr;
if ((sr = s.result) != null) {
U tr;
t.result = (U)((tr = t.result) == null ? sr : reducer.apply(tr, sr));
}
}
}
}
}
}
protected static final class MapReduceMappingsTask<V, U> extends BulkTask<V, U> {
public final DoubleObjFunction<? super V, ? extends U> transformer;
public final BiFunction<? super U, ? super U, ? extends U> reducer;
public U result;
public MapReduceMappingsTask<V, U> rights;
public MapReduceMappingsTask<V, U> nextRight;
public MapReduceMappingsTask(BulkTask<V, ?> p, int b, int i, int f, Node<V>[] t, MapReduceMappingsTask<V, U> nextRight, DoubleObjFunction<? super V, ? extends U> transformer, BiFunction<? super U, ? super U, ? extends U> reducer) {
super(p, b, i, f, t);
this.nextRight = nextRight;
this.transformer = transformer;
this.reducer = reducer;
}
public final U getRawResult() {
return this.result;
}
public final void compute() {
DoubleObjFunction<? super V, ? extends U> transformer;
BiFunction<? super U, ? super U, ? extends U> reducer;
if ((transformer = this.transformer) != null && (reducer = this.reducer) != null) {
int i = this.baseIndex;
int f;
int h;
while(this.batch > 0 && (h = (f = this.baseLimit) + i >>> 1) > i) {
this.addToPendingCount(1);
(this.rights = new MapReduceMappingsTask<V, U>(this, this.batch >>>= 1, this.baseLimit = h, f, this.tab, this.rights, transformer, reducer)).fork();
}
U r = null;
while((p = this.advance()) != null) {
U u;
if ((u = transformer.apply(p.key, p.val)) != null) {
r = (U)(r == null ? u : reducer.apply(r, u));
}
}
this.result = r;
for(CountedCompleter<?> c = this.firstComplete(); c != null; c = c.nextComplete()) {
MapReduceMappingsTask<V, U> t = (MapReduceMappingsTask)c;
for(MapReduceMappingsTask<V, U> s = t.rights; s != null; s = t.rights = s.nextRight) {
U sr;
if ((sr = s.result) != null) {
U tr;
t.result = (U)((tr = t.result) == null ? sr : reducer.apply(tr, sr));
}
}
}
}
}
}
protected static final class MapReduceKeysToDoubleTask<V> extends DoubleReturningBulkTask<V> {
public final DoubleToDoubleFunction transformer;
public final DoubleBinaryOperator reducer;
public final double basis;
public MapReduceKeysToDoubleTask<V> rights;
public MapReduceKeysToDoubleTask<V> nextRight;
public MapReduceKeysToDoubleTask(BulkTask<V, ?> p, int b, int i, int f, Node<V>[] t, MapReduceKeysToDoubleTask<V> nextRight, DoubleToDoubleFunction transformer, double basis, DoubleBinaryOperator reducer) {
super(p, b, i, f, t);
this.nextRight = nextRight;
this.transformer = transformer;
this.basis = basis;
this.reducer = reducer;
}
public final Double getRawResult() {
throw new UnsupportedOperationException();
}
public final void compute() {
DoubleToDoubleFunction transformer;
DoubleBinaryOperator reducer;
if ((transformer = this.transformer) != null && (reducer = this.reducer) != null) {
double r = this.basis;
int i = this.baseIndex;
int f;
int h;
while(this.batch > 0 && (h = (f = this.baseLimit) + i >>> 1) > i) {
this.addToPendingCount(1);
(this.rights = new MapReduceKeysToDoubleTask<V>(this, this.batch >>>= 1, this.baseLimit = h, f, this.tab, this.rights, transformer, r, reducer)).fork();
}
while((p = this.advance()) != null) {
r = reducer.applyAsDouble(r, transformer.applyAsDouble(p.key));
}
this.result = r;
for(CountedCompleter<?> c = this.firstComplete(); c != null; c = c.nextComplete()) {
MapReduceKeysToDoubleTask<V> t = (MapReduceKeysToDoubleTask)c;
for(MapReduceKeysToDoubleTask<V> s = t.rights; s != null; s = t.rights = s.nextRight) {
t.result = reducer.applyAsDouble(t.result, s.result);
}
}
}
}
}
protected static final class MapReduceValuesToDoubleTask<V> extends DoubleReturningBulkTask<V> {
public final ToDoubleFunction<? super V> transformer;
public final DoubleBinaryOperator reducer;
public final double basis;
public MapReduceValuesToDoubleTask<V> rights;
public MapReduceValuesToDoubleTask<V> nextRight;
public MapReduceValuesToDoubleTask(BulkTask<V, ?> p, int b, int i, int f, Node<V>[] t, MapReduceValuesToDoubleTask<V> nextRight, ToDoubleFunction<? super V> transformer, double basis, DoubleBinaryOperator reducer) {
super(p, b, i, f, t);
this.nextRight = nextRight;
this.transformer = transformer;
this.basis = basis;
this.reducer = reducer;
}
public final Double getRawResult() {
throw new UnsupportedOperationException();
}
public final void compute() {
ToDoubleFunction<? super V> transformer;
DoubleBinaryOperator reducer;
if ((transformer = this.transformer) != null && (reducer = this.reducer) != null) {
double r = this.basis;
int i = this.baseIndex;
int f;
int h;
while(this.batch > 0 && (h = (f = this.baseLimit) + i >>> 1) > i) {
this.addToPendingCount(1);
(this.rights = new MapReduceValuesToDoubleTask<V>(this, this.batch >>>= 1, this.baseLimit = h, f, this.tab, this.rights, transformer, r, reducer)).fork();
}
while((p = this.advance()) != null) {
r = reducer.applyAsDouble(r, transformer.applyAsDouble(p.val));
}
this.result = r;
for(CountedCompleter<?> c = this.firstComplete(); c != null; c = c.nextComplete()) {
MapReduceValuesToDoubleTask<V> t = (MapReduceValuesToDoubleTask)c;
for(MapReduceValuesToDoubleTask<V> s = t.rights; s != null; s = t.rights = s.nextRight) {
t.result = reducer.applyAsDouble(t.result, s.result);
}
}
}
}
}
protected static final class MapReduceEntriesToDoubleTask<V> extends DoubleReturningBulkTask<V> {
public final ToDoubleFunction<Entry<V>> transformer;
public final DoubleBinaryOperator reducer;
public final double basis;
public MapReduceEntriesToDoubleTask<V> rights;
public MapReduceEntriesToDoubleTask<V> nextRight;
public MapReduceEntriesToDoubleTask(BulkTask<V, ?> p, int b, int i, int f, Node<V>[] t, MapReduceEntriesToDoubleTask<V> nextRight, ToDoubleFunction<Entry<V>> transformer, double basis, DoubleBinaryOperator reducer) {
super(p, b, i, f, t);
this.nextRight = nextRight;
this.transformer = transformer;
this.basis = basis;
this.reducer = reducer;
}
public final Double getRawResult() {
throw new UnsupportedOperationException();
}
public final void compute() {
ToDoubleFunction<Entry<V>> transformer;
DoubleBinaryOperator reducer;
if ((transformer = this.transformer) != null && (reducer = this.reducer) != null) {
double r = this.basis;
int i = this.baseIndex;
int f;
int h;
while(this.batch > 0 && (h = (f = this.baseLimit) + i >>> 1) > i) {
this.addToPendingCount(1);
(this.rights = new MapReduceEntriesToDoubleTask<V>(this, this.batch >>>= 1, this.baseLimit = h, f, this.tab, this.rights, transformer, r, reducer)).fork();
}
while((p = this.advance()) != null) {
r = reducer.applyAsDouble(r, transformer.applyAsDouble(p));
}
this.result = r;
for(CountedCompleter<?> c = this.firstComplete(); c != null; c = c.nextComplete()) {
MapReduceEntriesToDoubleTask<V> t = (MapReduceEntriesToDoubleTask)c;
for(MapReduceEntriesToDoubleTask<V> s = t.rights; s != null; s = t.rights = s.nextRight) {
t.result = reducer.applyAsDouble(t.result, s.result);
}
}
}
}
}
protected static final class MapReduceMappingsToDoubleTask<V> extends DoubleReturningBulkTask<V> {
public final ToDoubleDoubleObjFunction<? super V> transformer;
public final DoubleBinaryOperator reducer;
public final double basis;
public MapReduceMappingsToDoubleTask<V> rights;
public MapReduceMappingsToDoubleTask<V> nextRight;
public MapReduceMappingsToDoubleTask(BulkTask<V, ?> p, int b, int i, int f, Node<V>[] t, MapReduceMappingsToDoubleTask<V> nextRight, ToDoubleDoubleObjFunction<? super V> transformer, double basis, DoubleBinaryOperator reducer) {
super(p, b, i, f, t);
this.nextRight = nextRight;
this.transformer = transformer;
this.basis = basis;
this.reducer = reducer;
}
public final Double getRawResult() {
throw new UnsupportedOperationException();
}
public final void compute() {
ToDoubleDoubleObjFunction<? super V> transformer;
DoubleBinaryOperator reducer;
if ((transformer = this.transformer) != null && (reducer = this.reducer) != null) {
double r = this.basis;
int i = this.baseIndex;
int f;
int h;
while(this.batch > 0 && (h = (f = this.baseLimit) + i >>> 1) > i) {
this.addToPendingCount(1);
(this.rights = new MapReduceMappingsToDoubleTask<V>(this, this.batch >>>= 1, this.baseLimit = h, f, this.tab, this.rights, transformer, r, reducer)).fork();
}
while((p = this.advance()) != null) {
r = reducer.applyAsDouble(r, transformer.applyAsDouble(p.key, p.val));
}
this.result = r;
for(CountedCompleter<?> c = this.firstComplete(); c != null; c = c.nextComplete()) {
MapReduceMappingsToDoubleTask<V> t = (MapReduceMappingsToDoubleTask)c;
for(MapReduceMappingsToDoubleTask<V> s = t.rights; s != null; s = t.rights = s.nextRight) {
t.result = reducer.applyAsDouble(t.result, s.result);
}
}
}
}
}
protected static final class MapReduceKeysToLongTask<V> extends LongReturningBulkTask<V> {
public final DoubleToLongFunction transformer;
public final LongBinaryOperator reducer;
public final long basis;
public MapReduceKeysToLongTask<V> rights;
public MapReduceKeysToLongTask<V> nextRight;
public MapReduceKeysToLongTask(BulkTask<V, ?> p, int b, int i, int f, Node<V>[] t, MapReduceKeysToLongTask<V> nextRight, DoubleToLongFunction transformer, long basis, LongBinaryOperator reducer) {
super(p, b, i, f, t);
this.nextRight = nextRight;
this.transformer = transformer;
this.basis = basis;
this.reducer = reducer;
}
public final Long getRawResult() {
throw new UnsupportedOperationException();
}
public final void compute() {
DoubleToLongFunction transformer;
LongBinaryOperator reducer;
if ((transformer = this.transformer) != null && (reducer = this.reducer) != null) {
long r = this.basis;
int i = this.baseIndex;
int f;
int h;
while(this.batch > 0 && (h = (f = this.baseLimit) + i >>> 1) > i) {
this.addToPendingCount(1);
(this.rights = new MapReduceKeysToLongTask<V>(this, this.batch >>>= 1, this.baseLimit = h, f, this.tab, this.rights, transformer, r, reducer)).fork();
}
while((p = this.advance()) != null) {
r = reducer.applyAsLong(r, transformer.applyAsLong(p.key));
}
this.result = r;
for(CountedCompleter<?> c = this.firstComplete(); c != null; c = c.nextComplete()) {
MapReduceKeysToLongTask<V> t = (MapReduceKeysToLongTask)c;
for(MapReduceKeysToLongTask<V> s = t.rights; s != null; s = t.rights = s.nextRight) {
t.result = reducer.applyAsLong(t.result, s.result);
}
}
}
}
}
protected static final class MapReduceValuesToLongTask<V> extends LongReturningBulkTask<V> {
public final ToLongFunction<? super V> transformer;
public final LongBinaryOperator reducer;
public final long basis;
public MapReduceValuesToLongTask<V> rights;
public MapReduceValuesToLongTask<V> nextRight;
public MapReduceValuesToLongTask(BulkTask<V, ?> p, int b, int i, int f, Node<V>[] t, MapReduceValuesToLongTask<V> nextRight, ToLongFunction<? super V> transformer, long basis, LongBinaryOperator reducer) {
super(p, b, i, f, t);
this.nextRight = nextRight;
this.transformer = transformer;
this.basis = basis;
this.reducer = reducer;
}
public final Long getRawResult() {
throw new UnsupportedOperationException();
}
public final void compute() {
ToLongFunction<? super V> transformer;
LongBinaryOperator reducer;
if ((transformer = this.transformer) != null && (reducer = this.reducer) != null) {
long r = this.basis;
int i = this.baseIndex;
int f;
int h;
while(this.batch > 0 && (h = (f = this.baseLimit) + i >>> 1) > i) {
this.addToPendingCount(1);
(this.rights = new MapReduceValuesToLongTask<V>(this, this.batch >>>= 1, this.baseLimit = h, f, this.tab, this.rights, transformer, r, reducer)).fork();
}
while((p = this.advance()) != null) {
r = reducer.applyAsLong(r, transformer.applyAsLong(p.val));
}
this.result = r;
for(CountedCompleter<?> c = this.firstComplete(); c != null; c = c.nextComplete()) {
MapReduceValuesToLongTask<V> t = (MapReduceValuesToLongTask)c;
for(MapReduceValuesToLongTask<V> s = t.rights; s != null; s = t.rights = s.nextRight) {
t.result = reducer.applyAsLong(t.result, s.result);
}
}
}
}
}
protected static final class MapReduceEntriesToLongTask<V> extends LongReturningBulkTask<V> {
public final ToLongFunction<Entry<V>> transformer;
public final LongBinaryOperator reducer;
public final long basis;
public MapReduceEntriesToLongTask<V> rights;
public MapReduceEntriesToLongTask<V> nextRight;
public MapReduceEntriesToLongTask(BulkTask<V, ?> p, int b, int i, int f, Node<V>[] t, MapReduceEntriesToLongTask<V> nextRight, ToLongFunction<Entry<V>> transformer, long basis, LongBinaryOperator reducer) {
super(p, b, i, f, t);
this.nextRight = nextRight;
this.transformer = transformer;
this.basis = basis;
this.reducer = reducer;
}
public final Long getRawResult() {
throw new UnsupportedOperationException();
}
public final void compute() {
ToLongFunction<Entry<V>> transformer;
LongBinaryOperator reducer;
if ((transformer = this.transformer) != null && (reducer = this.reducer) != null) {
long r = this.basis;
int i = this.baseIndex;
int f;
int h;
while(this.batch > 0 && (h = (f = this.baseLimit) + i >>> 1) > i) {
this.addToPendingCount(1);
(this.rights = new MapReduceEntriesToLongTask<V>(this, this.batch >>>= 1, this.baseLimit = h, f, this.tab, this.rights, transformer, r, reducer)).fork();
}
while((p = this.advance()) != null) {
r = reducer.applyAsLong(r, transformer.applyAsLong(p));
}
this.result = r;
for(CountedCompleter<?> c = this.firstComplete(); c != null; c = c.nextComplete()) {
MapReduceEntriesToLongTask<V> t = (MapReduceEntriesToLongTask)c;
for(MapReduceEntriesToLongTask<V> s = t.rights; s != null; s = t.rights = s.nextRight) {
t.result = reducer.applyAsLong(t.result, s.result);
}
}
}
}
}
protected static final class MapReduceMappingsToLongTask<V> extends LongReturningBulkTask<V> {
public final ToLongDoubleObjFunction<? super V> transformer;
public final LongBinaryOperator reducer;
public final long basis;
public MapReduceMappingsToLongTask<V> rights;
public MapReduceMappingsToLongTask<V> nextRight;
public MapReduceMappingsToLongTask(BulkTask<V, ?> p, int b, int i, int f, Node<V>[] t, MapReduceMappingsToLongTask<V> nextRight, ToLongDoubleObjFunction<? super V> transformer, long basis, LongBinaryOperator reducer) {
super(p, b, i, f, t);
this.nextRight = nextRight;
this.transformer = transformer;
this.basis = basis;
this.reducer = reducer;
}
public final Long getRawResult() {
throw new UnsupportedOperationException();
}
public final void compute() {
ToLongDoubleObjFunction<? super V> transformer;
LongBinaryOperator reducer;
if ((transformer = this.transformer) != null && (reducer = this.reducer) != null) {
long r = this.basis;
int i = this.baseIndex;
int f;
int h;
while(this.batch > 0 && (h = (f = this.baseLimit) + i >>> 1) > i) {
this.addToPendingCount(1);
(this.rights = new MapReduceMappingsToLongTask<V>(this, this.batch >>>= 1, this.baseLimit = h, f, this.tab, this.rights, transformer, r, reducer)).fork();
}
while((p = this.advance()) != null) {
r = reducer.applyAsLong(r, transformer.applyAsLong(p.key, p.val));
}
this.result = r;
for(CountedCompleter<?> c = this.firstComplete(); c != null; c = c.nextComplete()) {
MapReduceMappingsToLongTask<V> t = (MapReduceMappingsToLongTask)c;
for(MapReduceMappingsToLongTask<V> s = t.rights; s != null; s = t.rights = s.nextRight) {
t.result = reducer.applyAsLong(t.result, s.result);
}
}
}
}
}
protected static final class MapReduceKeysToIntTask<V> extends IntReturningBulkTask<V> {
public final DoubleToIntFunction transformer;
public final IntBinaryOperator reducer;
public final int basis;
public MapReduceKeysToIntTask<V> rights;
public MapReduceKeysToIntTask<V> nextRight;
public MapReduceKeysToIntTask(BulkTask<V, ?> p, int b, int i, int f, Node<V>[] t, MapReduceKeysToIntTask<V> nextRight, DoubleToIntFunction transformer, int basis, IntBinaryOperator reducer) {
super(p, b, i, f, t);
this.nextRight = nextRight;
this.transformer = transformer;
this.basis = basis;
this.reducer = reducer;
}
public final Integer getRawResult() {
throw new UnsupportedOperationException();
}
public final void compute() {
DoubleToIntFunction transformer;
IntBinaryOperator reducer;
if ((transformer = this.transformer) != null && (reducer = this.reducer) != null) {
int r = this.basis;
int i = this.baseIndex;
int f;
int h;
while(this.batch > 0 && (h = (f = this.baseLimit) + i >>> 1) > i) {
this.addToPendingCount(1);
(this.rights = new MapReduceKeysToIntTask<V>(this, this.batch >>>= 1, this.baseLimit = h, f, this.tab, this.rights, transformer, r, reducer)).fork();
}
while((p = this.advance()) != null) {
r = reducer.applyAsInt(r, transformer.applyAsInt(p.key));
}
this.result = r;
for(CountedCompleter<?> c = this.firstComplete(); c != null; c = c.nextComplete()) {
MapReduceKeysToIntTask<V> t = (MapReduceKeysToIntTask)c;
for(MapReduceKeysToIntTask<V> s = t.rights; s != null; s = t.rights = s.nextRight) {
t.result = reducer.applyAsInt(t.result, s.result);
}
}
}
}
}
protected static final class MapReduceValuesToIntTask<V> extends IntReturningBulkTask<V> {
public final ToIntFunction<? super V> transformer;
public final IntBinaryOperator reducer;
public final int basis;
public MapReduceValuesToIntTask<V> rights;
public MapReduceValuesToIntTask<V> nextRight;
public MapReduceValuesToIntTask(BulkTask<V, ?> p, int b, int i, int f, Node<V>[] t, MapReduceValuesToIntTask<V> nextRight, ToIntFunction<? super V> transformer, int basis, IntBinaryOperator reducer) {
super(p, b, i, f, t);
this.nextRight = nextRight;
this.transformer = transformer;
this.basis = basis;
this.reducer = reducer;
}
public final Integer getRawResult() {
throw new UnsupportedOperationException();
}
public final void compute() {
ToIntFunction<? super V> transformer;
IntBinaryOperator reducer;
if ((transformer = this.transformer) != null && (reducer = this.reducer) != null) {
int r = this.basis;
int i = this.baseIndex;
int f;
int h;
while(this.batch > 0 && (h = (f = this.baseLimit) + i >>> 1) > i) {
this.addToPendingCount(1);
(this.rights = new MapReduceValuesToIntTask<V>(this, this.batch >>>= 1, this.baseLimit = h, f, this.tab, this.rights, transformer, r, reducer)).fork();
}
while((p = this.advance()) != null) {
r = reducer.applyAsInt(r, transformer.applyAsInt(p.val));
}
this.result = r;
for(CountedCompleter<?> c = this.firstComplete(); c != null; c = c.nextComplete()) {
MapReduceValuesToIntTask<V> t = (MapReduceValuesToIntTask)c;
for(MapReduceValuesToIntTask<V> s = t.rights; s != null; s = t.rights = s.nextRight) {
t.result = reducer.applyAsInt(t.result, s.result);
}
}
}
}
}
protected static final class MapReduceEntriesToIntTask<V> extends IntReturningBulkTask<V> {
public final ToIntFunction<Entry<V>> transformer;
public final IntBinaryOperator reducer;
public final int basis;
public MapReduceEntriesToIntTask<V> rights;
public MapReduceEntriesToIntTask<V> nextRight;
public MapReduceEntriesToIntTask(BulkTask<V, ?> p, int b, int i, int f, Node<V>[] t, MapReduceEntriesToIntTask<V> nextRight, ToIntFunction<Entry<V>> transformer, int basis, IntBinaryOperator reducer) {
super(p, b, i, f, t);
this.nextRight = nextRight;
this.transformer = transformer;
this.basis = basis;
this.reducer = reducer;
}
public final Integer getRawResult() {
throw new UnsupportedOperationException();
}
public final void compute() {
ToIntFunction<Entry<V>> transformer;
IntBinaryOperator reducer;
if ((transformer = this.transformer) != null && (reducer = this.reducer) != null) {
int r = this.basis;
int i = this.baseIndex;
int f;
int h;
while(this.batch > 0 && (h = (f = this.baseLimit) + i >>> 1) > i) {
this.addToPendingCount(1);
(this.rights = new MapReduceEntriesToIntTask<V>(this, this.batch >>>= 1, this.baseLimit = h, f, this.tab, this.rights, transformer, r, reducer)).fork();
}
while((p = this.advance()) != null) {
r = reducer.applyAsInt(r, transformer.applyAsInt(p));
}
this.result = r;
for(CountedCompleter<?> c = this.firstComplete(); c != null; c = c.nextComplete()) {
MapReduceEntriesToIntTask<V> t = (MapReduceEntriesToIntTask)c;
for(MapReduceEntriesToIntTask<V> s = t.rights; s != null; s = t.rights = s.nextRight) {
t.result = reducer.applyAsInt(t.result, s.result);
}
}
}
}
}
protected static final class MapReduceMappingsToIntTask<V> extends IntReturningBulkTask<V> {
public final ToIntDoubleObjFunction<? super V> transformer;
public final IntBinaryOperator reducer;
public final int basis;
public MapReduceMappingsToIntTask<V> rights;
public MapReduceMappingsToIntTask<V> nextRight;
public MapReduceMappingsToIntTask(BulkTask<V, ?> p, int b, int i, int f, Node<V>[] t, MapReduceMappingsToIntTask<V> nextRight, ToIntDoubleObjFunction<? super V> transformer, int basis, IntBinaryOperator reducer) {
super(p, b, i, f, t);
this.nextRight = nextRight;
this.transformer = transformer;
this.basis = basis;
this.reducer = reducer;
}
public final Integer getRawResult() {
throw new UnsupportedOperationException();
}
public final void compute() {
ToIntDoubleObjFunction<? super V> transformer;
IntBinaryOperator reducer;
if ((transformer = this.transformer) != null && (reducer = this.reducer) != null) {
int r = this.basis;
int i = this.baseIndex;
int f;
int h;
while(this.batch > 0 && (h = (f = this.baseLimit) + i >>> 1) > i) {
this.addToPendingCount(1);
(this.rights = new MapReduceMappingsToIntTask<V>(this, this.batch >>>= 1, this.baseLimit = h, f, this.tab, this.rights, transformer, r, reducer)).fork();
}
while((p = this.advance()) != null) {
r = reducer.applyAsInt(r, transformer.applyAsInt(p.key, p.val));
}
this.result = r;
for(CountedCompleter<?> c = this.firstComplete(); c != null; c = c.nextComplete()) {
MapReduceMappingsToIntTask<V> t = (MapReduceMappingsToIntTask)c;
for(MapReduceMappingsToIntTask<V> s = t.rights; s != null; s = t.rights = s.nextRight) {
t.result = reducer.applyAsInt(t.result, s.result);
}
}
}
}
}
@FunctionalInterface
public interface DoubleBiObjByteConsumer<V, X> {
void accept(double var1, V var3, byte var4, X var5);
}
@FunctionalInterface
public interface DoubleBiObjConsumer<V, X> {
void accept(double var1, V var3, X var4);
}
@FunctionalInterface
public interface DoubleBiObjDoubleConsumer<V, X> {
void accept(double var1, V var3, double var4, X var6);
}
@FunctionalInterface
public interface DoubleBiObjFloatConsumer<V, X> {
void accept(double var1, V var3, float var4, X var5);
}
@FunctionalInterface
public interface DoubleBiObjFunction<V, X, J> {
J apply(double var1, V var3, X var4);
}
@FunctionalInterface
public interface DoubleBiObjIntConsumer<V, X> {
void accept(double var1, V var3, int var4, X var5);
}
@FunctionalInterface
public interface DoubleBiObjLongConsumer<V, X> {
void accept(double var1, V var3, long var4, X var6);
}
@FunctionalInterface
public interface DoubleBiObjShortConsumer<V, X> {
void accept(double var1, V var3, short var4, X var5);
}
@FunctionalInterface
public interface DoubleFunction<R> {
R apply(double var1);
}
@FunctionalInterface
public interface DoubleObjByteConsumer<V> {
void accept(double var1, V var3, byte var4);
}
@FunctionalInterface
public interface DoubleObjByteFunction<V, J> {
J apply(double var1, V var3, byte var4);
}
@FunctionalInterface
public interface DoubleObjConsumer<V> {
void accept(double var1, V var3);
}
@FunctionalInterface
public interface DoubleObjDoubleConsumer<V> {
void accept(double var1, V var3, double var4);
}
@FunctionalInterface
public interface DoubleObjDoubleFunction<V, J> {
J apply(double var1, V var3, double var4);
}
@FunctionalInterface
public interface DoubleObjFloatConsumer<V> {
void accept(double var1, V var3, float var4);
}
@FunctionalInterface
public interface DoubleObjFloatFunction<V, J> {
J apply(double var1, V var3, float var4);
}
@FunctionalInterface
public interface DoubleObjFunction<V, J> {
J apply(double var1, V var3);
}
@FunctionalInterface
public interface DoubleObjIntConsumer<V> {
void accept(double var1, V var3, int var4);
}
@FunctionalInterface
public interface DoubleObjIntFunction<V, J> {
J apply(double var1, V var3, int var4);
}
@FunctionalInterface
public interface DoubleObjLongConsumer<V> {
void accept(double var1, V var3, long var4);
}
@FunctionalInterface
public interface DoubleObjLongFunction<V, J> {
J apply(double var1, V var3, long var4);
}
@FunctionalInterface
public interface DoubleObjShortConsumer<V> {
void accept(double var1, V var3, short var4);
}
@FunctionalInterface
public interface DoubleObjShortFunction<V, J> {
J apply(double var1, V var3, short var4);
}
@FunctionalInterface
public interface DoubleReduceTaskOperator {
double reduce(double var1, double var3, double var5);
}
@FunctionalInterface
public interface DoubleToDoubleFunction {
double applyAsDouble(double var1);
}
@FunctionalInterface
public interface DoubleToIntFunction {
int applyAsInt(double var1);
}
@FunctionalInterface
public interface DoubleToLongFunction {
long applyAsLong(double var1);
}
@FunctionalInterface
public interface DoubleTriObjConsumer<V, X, Y> {
void accept(double var1, V var3, X var4, Y var5);
}
@FunctionalInterface
public interface ToDoubleDoubleObjFunction<V> {
double applyAsDouble(double var1, V var3);
}
@FunctionalInterface
public interface ToDoubleFunction<T> {
double applyAsDouble(T var1);
}
@FunctionalInterface
public interface ToIntDoubleObjFunction<V> {
int applyAsInt(double var1, V var3);
}
@FunctionalInterface
public interface ToLongDoubleObjFunction<V> {
long applyAsLong(double var1, V var3);
}
}