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Fork of Esoteric Software's Kryo built by Nathan Sweet that replaces Minlog with slf4j as the logging facade. This contains the shaded reflectasm jar to prevent conflicts with other versions of asm.
The newest version!
/* Copyright (c) 2008, Nathan Sweet
* All rights reserved.
*
* Redistribution and use in source and binary forms, with or without modification, are permitted provided that the following
* conditions are met:
*
* - Redistributions of source code must retain the above copyright notice, this list of conditions and the following disclaimer.
* - Redistributions in binary form must reproduce the above copyright notice, this list of conditions and the following
* disclaimer in the documentation and/or other materials provided with the distribution.
* - Neither the name of Esoteric Software nor the names of its contributors may be used to endorse or promote products derived
* from this software without specific prior written permission.
*
* THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING,
* BUT NOT LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT
* SHALL THE COPYRIGHT HOLDER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL
* DAMAGES (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS
* INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING
* NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE. */
package com.esotericsoftware.kryo.io;
import com.esotericsoftware.kryo.KryoException;
import java.io.IOException;
import java.io.OutputStream;
/** An OutputStream that buffers data in a byte array and optionally flushes to another OutputStream. Utility methods are provided
* for efficiently writing primitive types and strings.
*
* Encoding of integers: BIG_ENDIAN is used for storing fixed native size integer values LITTLE_ENDIAN is used for a variable
* length encoding of integer values
*
* @author Nathan Sweet */
public class Output extends OutputStream {
protected int maxCapacity;
protected long total;
protected int position;
protected int capacity;
protected byte[] buffer;
protected OutputStream outputStream;
/** Creates an uninitialized Output. {@link #setBuffer(byte[], int)} must be called before the Output is used. */
public Output () {
}
/** Creates a new Output for writing to a byte array.
* @param bufferSize The initial and maximum size of the buffer. An exception is thrown if this size is exceeded. */
public Output (int bufferSize) {
this(bufferSize, bufferSize);
}
/** Creates a new Output for writing to a byte array.
* @param bufferSize The initial size of the buffer.
* @param maxBufferSize The buffer is doubled as needed until it exceeds maxBufferSize and an exception is thrown. Can be -1
* for no maximum. */
public Output (int bufferSize, int maxBufferSize) {
if (maxBufferSize < -1) throw new IllegalArgumentException("maxBufferSize cannot be < -1: " + maxBufferSize);
this.capacity = bufferSize;
this.maxCapacity = maxBufferSize == -1 ? Integer.MAX_VALUE : maxBufferSize;
buffer = new byte[bufferSize];
}
/** Creates a new Output for writing to a byte array.
* @see #setBuffer(byte[]) */
public Output (byte[] buffer) {
this(buffer, buffer.length);
}
/** Creates a new Output for writing to a byte array.
* @see #setBuffer(byte[], int) */
public Output (byte[] buffer, int maxBufferSize) {
if (buffer == null) throw new IllegalArgumentException("buffer cannot be null.");
setBuffer(buffer, maxBufferSize);
}
/** Creates a new Output for writing to an OutputStream. A buffer size of 4096 is used. */
public Output (OutputStream outputStream) {
this(4096, 4096);
if (outputStream == null) throw new IllegalArgumentException("outputStream cannot be null.");
this.outputStream = outputStream;
}
/** Creates a new Output for writing to an OutputStream. */
public Output (OutputStream outputStream, int bufferSize) {
this(bufferSize, bufferSize);
if (outputStream == null) throw new IllegalArgumentException("outputStream cannot be null.");
this.outputStream = outputStream;
}
public OutputStream getOutputStream () {
return outputStream;
}
/** Sets a new OutputStream. The position and total are reset, discarding any buffered bytes.
* @param outputStream May be null. */
public void setOutputStream (OutputStream outputStream) {
this.outputStream = outputStream;
position = 0;
total = 0;
}
/** Sets the buffer that will be written to. {@link #setBuffer(byte[], int)} is called with the specified buffer's length as the
* maxBufferSize. */
public void setBuffer (byte[] buffer) {
setBuffer(buffer, buffer.length);
}
/** Sets the buffer that will be written to. The position and total are reset, discarding any buffered bytes. The
* {@link #setOutputStream(OutputStream) OutputStream} is set to null.
* @param maxBufferSize The buffer is doubled as needed until it exceeds maxBufferSize and an exception is thrown. */
public void setBuffer (byte[] buffer, int maxBufferSize) {
if (buffer == null) throw new IllegalArgumentException("buffer cannot be null.");
if (maxBufferSize < -1) throw new IllegalArgumentException("maxBufferSize cannot be < -1: " + maxBufferSize);
this.buffer = buffer;
this.maxCapacity = maxBufferSize == -1 ? Integer.MAX_VALUE : maxBufferSize;
capacity = buffer.length;
position = 0;
total = 0;
outputStream = null;
}
/** Returns the buffer. The bytes between zero and {@link #position()} are the data that has been written. */
public byte[] getBuffer () {
return buffer;
}
/** Returns a new byte array containing the bytes currently in the buffer between zero and {@link #position()}. */
public byte[] toBytes () {
byte[] newBuffer = new byte[position];
System.arraycopy(buffer, 0, newBuffer, 0, position);
return newBuffer;
}
/** Returns the current position in the buffer. This is the number of bytes that have not been flushed. */
final public int position () {
return position;
}
/** Sets the current position in the buffer. */
public void setPosition (int position) {
this.position = position;
}
/** Returns the total number of bytes written. This may include bytes that have not been flushed. */
final public long total () {
return total + position;
}
/** Sets the position and total to zero. */
public void clear () {
position = 0;
total = 0;
}
/** @return true if the buffer has been resized. */
protected boolean require (int required) throws KryoException {
if (capacity - position >= required) return false;
if (required > maxCapacity)
throw new KryoException("Buffer overflow. Max capacity: " + maxCapacity + ", required: " + required);
flush();
while (capacity - position < required) {
if (capacity == maxCapacity)
throw new KryoException("Buffer overflow. Available: " + (capacity - position) + ", required: " + required);
// Grow buffer.
if (capacity == 0) capacity = 1;
capacity = Math.min(capacity * 2, maxCapacity);
if (capacity < 0) capacity = maxCapacity;
byte[] newBuffer = new byte[capacity];
System.arraycopy(buffer, 0, newBuffer, 0, position);
buffer = newBuffer;
}
return true;
}
// OutputStream
/** Writes the buffered bytes to the underlying OutputStream, if any. */
public void flush () throws KryoException {
if (outputStream == null) return;
try {
outputStream.write(buffer, 0, position);
} catch (IOException ex) {
throw new KryoException(ex);
}
total += position;
position = 0;
}
/** Flushes any buffered bytes and closes the underlying OutputStream, if any. */
public void close () throws KryoException {
flush();
if (outputStream != null) {
try {
outputStream.close();
} catch (IOException ignored) {
}
}
}
/** Writes a byte. */
public void write (int value) throws KryoException {
if (position == capacity) require(1);
buffer[position++] = (byte)value;
}
/** Writes the bytes. Note the byte[] length is not written. */
public void write (byte[] bytes) throws KryoException {
if (bytes == null) throw new IllegalArgumentException("bytes cannot be null.");
writeBytes(bytes, 0, bytes.length);
}
/** Writes the bytes. Note the byte[] length is not written. */
public void write (byte[] bytes, int offset, int length) throws KryoException {
writeBytes(bytes, offset, length);
}
// byte
public void writeByte (byte value) throws KryoException {
if (position == capacity) require(1);
buffer[position++] = value;
}
public void writeByte (int value) throws KryoException {
if (position == capacity) require(1);
buffer[position++] = (byte)value;
}
/** Writes the bytes. Note the byte[] length is not written. */
public void writeBytes (byte[] bytes) throws KryoException {
if (bytes == null) throw new IllegalArgumentException("bytes cannot be null.");
writeBytes(bytes, 0, bytes.length);
}
/** Writes the bytes. Note the byte[] length is not written. */
public void writeBytes (byte[] bytes, int offset, int count) throws KryoException {
if (bytes == null) throw new IllegalArgumentException("bytes cannot be null.");
int copyCount = Math.min(capacity - position, count);
while (true) {
System.arraycopy(bytes, offset, buffer, position, copyCount);
position += copyCount;
count -= copyCount;
if (count == 0) return;
offset += copyCount;
copyCount = Math.min(capacity, count);
require(copyCount);
}
}
// int
/** Writes a 4 byte int. Uses BIG_ENDIAN byte order. */
public void writeInt (int value) throws KryoException {
require(4);
byte[] buffer = this.buffer;
buffer[position++] = (byte)(value >> 24);
buffer[position++] = (byte)(value >> 16);
buffer[position++] = (byte)(value >> 8);
buffer[position++] = (byte)value;
}
/** Writes a 1-5 byte int. This stream may consider such a variable length encoding request as a hint. It is not guaranteed that
* a variable length encoding will be really used. The stream may decide to use native-sized integer representation for
* efficiency reasons.
*
* @param optimizePositive If true, small positive numbers will be more efficient (1 byte) and small negative numbers will be
* inefficient (5 bytes). */
public int writeInt (int value, boolean optimizePositive) throws KryoException {
return writeVarInt(value, optimizePositive);
}
/** Writes a 1-5 byte int. It is guaranteed that a varible length encoding will be used.
*
* @param optimizePositive If true, small positive numbers will be more efficient (1 byte) and small negative numbers will be
* inefficient (5 bytes). */
public int writeVarInt (int value, boolean optimizePositive) throws KryoException {
if (!optimizePositive) value = (value << 1) ^ (value >> 31);
if (value >>> 7 == 0) {
require(1);
buffer[position++] = (byte)value;
return 1;
}
if (value >>> 14 == 0) {
require(2);
buffer[position++] = (byte)((value & 0x7F) | 0x80);
buffer[position++] = (byte)(value >>> 7);
return 2;
}
if (value >>> 21 == 0) {
require(3);
buffer[position++] = (byte)((value & 0x7F) | 0x80);
buffer[position++] = (byte)(value >>> 7 | 0x80);
buffer[position++] = (byte)(value >>> 14);
return 3;
}
if (value >>> 28 == 0) {
require(4);
buffer[position++] = (byte)((value & 0x7F) | 0x80);
buffer[position++] = (byte)(value >>> 7 | 0x80);
buffer[position++] = (byte)(value >>> 14 | 0x80);
buffer[position++] = (byte)(value >>> 21);
return 4;
}
require(5);
buffer[position++] = (byte)((value & 0x7F) | 0x80);
buffer[position++] = (byte)(value >>> 7 | 0x80);
buffer[position++] = (byte)(value >>> 14 | 0x80);
buffer[position++] = (byte)(value >>> 21 | 0x80);
buffer[position++] = (byte)(value >>> 28);
return 5;
}
// string
/** Writes the length and string, or null. Short strings are checked and if ASCII they are written more efficiently, else they
* are written as UTF8. If a string is known to be ASCII, {@link #writeAscii(String)} may be used. The string can be read using
* {@link Input#readString()} or {@link Input#readStringBuilder()}.
* @param value May be null. */
public void writeString (String value) throws KryoException {
if (value == null) {
writeByte(0x80); // 0 means null, bit 8 means UTF8.
return;
}
int charCount = value.length();
if (charCount == 0) {
writeByte(1 | 0x80); // 1 means empty string, bit 8 means UTF8.
return;
}
// Detect ASCII.
boolean ascii = false;
if (charCount > 1 && charCount < 64) {
ascii = true;
for (int i = 0; i < charCount; i++) {
int c = value.charAt(i);
if (c > 127) {
ascii = false;
break;
}
}
}
if (ascii) {
if (capacity - position < charCount)
writeAscii_slow(value, charCount);
else {
value.getBytes(0, charCount, buffer, position);
position += charCount;
}
buffer[position - 1] |= 0x80;
} else {
writeUtf8Length(charCount + 1);
int charIndex = 0;
if (capacity - position >= charCount) {
// Try to write 8 bit chars.
byte[] buffer = this.buffer;
int position = this.position;
for (; charIndex < charCount; charIndex++) {
int c = value.charAt(charIndex);
if (c > 127) break;
buffer[position++] = (byte)c;
}
this.position = position;
}
if (charIndex < charCount) writeString_slow(value, charCount, charIndex);
}
}
/** Writes the length and CharSequence as UTF8, or null. The string can be read using {@link Input#readString()} or
* {@link Input#readStringBuilder()}.
* @param value May be null. */
public void writeString (CharSequence value) throws KryoException {
if (value == null) {
writeByte(0x80); // 0 means null, bit 8 means UTF8.
return;
}
int charCount = value.length();
if (charCount == 0) {
writeByte(1 | 0x80); // 1 means empty string, bit 8 means UTF8.
return;
}
writeUtf8Length(charCount + 1);
int charIndex = 0;
if (capacity - position >= charCount) {
// Try to write 8 bit chars.
byte[] buffer = this.buffer;
int position = this.position;
for (; charIndex < charCount; charIndex++) {
int c = value.charAt(charIndex);
if (c > 127) break;
buffer[position++] = (byte)c;
}
this.position = position;
}
if (charIndex < charCount) writeString_slow(value, charCount, charIndex);
}
/** Writes a string that is known to contain only ASCII characters. Non-ASCII strings passed to this method will be corrupted.
* Each byte is a 7 bit character with the remaining byte denoting if another character is available. This is slightly more
* efficient than {@link #writeString(String)}. The string can be read using {@link Input#readString()} or
* {@link Input#readStringBuilder()}.
* @param value May be null. */
public void writeAscii (String value) throws KryoException {
if (value == null) {
writeByte(0x80); // 0 means null, bit 8 means UTF8.
return;
}
int charCount = value.length();
switch (charCount) {
case 0:
writeByte(1 | 0x80); // 1 is string length + 1, bit 8 means UTF8.
return;
case 1:
writeByte(2 | 0x80); // 2 is string length + 1, bit 8 means UTF8.
writeByte(value.charAt(0));
return;
}
if (capacity - position < charCount)
writeAscii_slow(value, charCount);
else {
value.getBytes(0, charCount, buffer, position);
position += charCount;
}
buffer[position - 1] |= 0x80; // Bit 8 means end of ASCII.
}
/** Writes the length of a string, which is a variable length encoded int except the first byte uses bit 8 to denote UTF8 and
* bit 7 to denote if another byte is present. */
private void writeUtf8Length (int value) {
if (value >>> 6 == 0) {
require(1);
buffer[position++] = (byte)(value | 0x80); // Set bit 8.
} else if (value >>> 13 == 0) {
require(2);
byte[] buffer = this.buffer;
buffer[position++] = (byte)(value | 0x40 | 0x80); // Set bit 7 and 8.
buffer[position++] = (byte)(value >>> 6);
} else if (value >>> 20 == 0) {
require(3);
byte[] buffer = this.buffer;
buffer[position++] = (byte)(value | 0x40 | 0x80); // Set bit 7 and 8.
buffer[position++] = (byte)((value >>> 6) | 0x80); // Set bit 8.
buffer[position++] = (byte)(value >>> 13);
} else if (value >>> 27 == 0) {
require(4);
byte[] buffer = this.buffer;
buffer[position++] = (byte)(value | 0x40 | 0x80); // Set bit 7 and 8.
buffer[position++] = (byte)((value >>> 6) | 0x80); // Set bit 8.
buffer[position++] = (byte)((value >>> 13) | 0x80); // Set bit 8.
buffer[position++] = (byte)(value >>> 20);
} else {
require(5);
byte[] buffer = this.buffer;
buffer[position++] = (byte)(value | 0x40 | 0x80); // Set bit 7 and 8.
buffer[position++] = (byte)((value >>> 6) | 0x80); // Set bit 8.
buffer[position++] = (byte)((value >>> 13) | 0x80); // Set bit 8.
buffer[position++] = (byte)((value >>> 20) | 0x80); // Set bit 8.
buffer[position++] = (byte)(value >>> 27);
}
}
private void writeString_slow (CharSequence value, int charCount, int charIndex) {
for (; charIndex < charCount; charIndex++) {
if (position == capacity) require(Math.min(capacity, charCount - charIndex));
int c = value.charAt(charIndex);
if (c <= 0x007F) {
buffer[position++] = (byte)c;
} else if (c > 0x07FF) {
buffer[position++] = (byte)(0xE0 | c >> 12 & 0x0F);
require(2);
buffer[position++] = (byte)(0x80 | c >> 6 & 0x3F);
buffer[position++] = (byte)(0x80 | c & 0x3F);
} else {
buffer[position++] = (byte)(0xC0 | c >> 6 & 0x1F);
require(1);
buffer[position++] = (byte)(0x80 | c & 0x3F);
}
}
}
private void writeAscii_slow (String value, int charCount) throws KryoException {
byte[] buffer = this.buffer;
int charIndex = 0;
int charsToWrite = Math.min(charCount, capacity - position);
while (charIndex < charCount) {
value.getBytes(charIndex, charIndex + charsToWrite, buffer, position);
charIndex += charsToWrite;
position += charsToWrite;
charsToWrite = Math.min(charCount - charIndex, capacity);
if (require(charsToWrite)) buffer = this.buffer;
}
}
// float
/** Writes a 4 byte float. */
public void writeFloat (float value) throws KryoException {
writeInt(Float.floatToIntBits(value));
}
/** Writes a 1-5 byte float with reduced precision.
* @param optimizePositive If true, small positive numbers will be more efficient (1 byte) and small negative numbers will be
* inefficient (5 bytes). */
public int writeFloat (float value, float precision, boolean optimizePositive) throws KryoException {
return writeInt((int)(value * precision), optimizePositive);
}
// short
/** Writes a 2 byte short. Uses BIG_ENDIAN byte order. */
public void writeShort (int value) throws KryoException {
require(2);
buffer[position++] = (byte)(value >>> 8);
buffer[position++] = (byte)value;
}
// long
/** Writes an 8 byte long. Uses BIG_ENDIAN byte order. */
public void writeLong (long value) throws KryoException {
require(8);
byte[] buffer = this.buffer;
buffer[position++] = (byte)(value >>> 56);
buffer[position++] = (byte)(value >>> 48);
buffer[position++] = (byte)(value >>> 40);
buffer[position++] = (byte)(value >>> 32);
buffer[position++] = (byte)(value >>> 24);
buffer[position++] = (byte)(value >>> 16);
buffer[position++] = (byte)(value >>> 8);
buffer[position++] = (byte)value;
}
/** Writes a 1-9 byte long. This stream may consider such a variable length encoding request as a hint. It is not guaranteed
* that a variable length encoding will be really used. The stream may decide to use native-sized integer representation for
* efficiency reasons.
*
* @param optimizePositive If true, small positive numbers will be more efficient (1 byte) and small negative numbers will be
* inefficient (9 bytes). */
public int writeLong (long value, boolean optimizePositive) throws KryoException {
return writeVarLong(value, optimizePositive);
}
/** Writes a 1-9 byte long. It is guaranteed that a varible length encoding will be used.
* @param optimizePositive If true, small positive numbers will be more efficient (1 byte) and small negative numbers will be
* inefficient (9 bytes). */
public int writeVarLong (long value, boolean optimizePositive) throws KryoException {
if (!optimizePositive) value = (value << 1) ^ (value >> 63);
if (value >>> 7 == 0) {
require(1);
buffer[position++] = (byte)value;
return 1;
}
if (value >>> 14 == 0) {
require(2);
buffer[position++] = (byte)((value & 0x7F) | 0x80);
buffer[position++] = (byte)(value >>> 7);
return 2;
}
if (value >>> 21 == 0) {
require(3);
buffer[position++] = (byte)((value & 0x7F) | 0x80);
buffer[position++] = (byte)(value >>> 7 | 0x80);
buffer[position++] = (byte)(value >>> 14);
return 3;
}
if (value >>> 28 == 0) {
require(4);
buffer[position++] = (byte)((value & 0x7F) | 0x80);
buffer[position++] = (byte)(value >>> 7 | 0x80);
buffer[position++] = (byte)(value >>> 14 | 0x80);
buffer[position++] = (byte)(value >>> 21);
return 4;
}
if (value >>> 35 == 0) {
require(5);
buffer[position++] = (byte)((value & 0x7F) | 0x80);
buffer[position++] = (byte)(value >>> 7 | 0x80);
buffer[position++] = (byte)(value >>> 14 | 0x80);
buffer[position++] = (byte)(value >>> 21 | 0x80);
buffer[position++] = (byte)(value >>> 28);
return 5;
}
if (value >>> 42 == 0) {
require(6);
buffer[position++] = (byte)((value & 0x7F) | 0x80);
buffer[position++] = (byte)(value >>> 7 | 0x80);
buffer[position++] = (byte)(value >>> 14 | 0x80);
buffer[position++] = (byte)(value >>> 21 | 0x80);
buffer[position++] = (byte)(value >>> 28 | 0x80);
buffer[position++] = (byte)(value >>> 35);
return 6;
}
if (value >>> 49 == 0) {
require(7);
buffer[position++] = (byte)((value & 0x7F) | 0x80);
buffer[position++] = (byte)(value >>> 7 | 0x80);
buffer[position++] = (byte)(value >>> 14 | 0x80);
buffer[position++] = (byte)(value >>> 21 | 0x80);
buffer[position++] = (byte)(value >>> 28 | 0x80);
buffer[position++] = (byte)(value >>> 35 | 0x80);
buffer[position++] = (byte)(value >>> 42);
return 7;
}
if (value >>> 56 == 0) {
require(8);
buffer[position++] = (byte)((value & 0x7F) | 0x80);
buffer[position++] = (byte)(value >>> 7 | 0x80);
buffer[position++] = (byte)(value >>> 14 | 0x80);
buffer[position++] = (byte)(value >>> 21 | 0x80);
buffer[position++] = (byte)(value >>> 28 | 0x80);
buffer[position++] = (byte)(value >>> 35 | 0x80);
buffer[position++] = (byte)(value >>> 42 | 0x80);
buffer[position++] = (byte)(value >>> 49);
return 8;
}
require(9);
buffer[position++] = (byte)((value & 0x7F) | 0x80);
buffer[position++] = (byte)(value >>> 7 | 0x80);
buffer[position++] = (byte)(value >>> 14 | 0x80);
buffer[position++] = (byte)(value >>> 21 | 0x80);
buffer[position++] = (byte)(value >>> 28 | 0x80);
buffer[position++] = (byte)(value >>> 35 | 0x80);
buffer[position++] = (byte)(value >>> 42 | 0x80);
buffer[position++] = (byte)(value >>> 49 | 0x80);
buffer[position++] = (byte)(value >>> 56);
return 9;
}
// boolean
/** Writes a 1 byte boolean. */
public void writeBoolean (boolean value) throws KryoException {
if (position == capacity) require(1);
buffer[position++] = (byte)(value ? 1 : 0);
}
// char
/** Writes a 2 byte char. Uses BIG_ENDIAN byte order. */
public void writeChar (char value) throws KryoException {
require(2);
buffer[position++] = (byte)(value >>> 8);
buffer[position++] = (byte)value;
}
// double
/** Writes an 8 byte double. */
public void writeDouble (double value) throws KryoException {
writeLong(Double.doubleToLongBits(value));
}
/** Writes a 1-9 byte double with reduced precision.
* @param optimizePositive If true, small positive numbers will be more efficient (1 byte) and small negative numbers will be
* inefficient (9 bytes). */
public int writeDouble (double value, double precision, boolean optimizePositive) throws KryoException {
return writeLong((long)(value * precision), optimizePositive);
}
/** Returns the number of bytes that would be written with {@link #writeInt(int, boolean)}. */
static public int intLength (int value, boolean optimizePositive) {
if (!optimizePositive) value = (value << 1) ^ (value >> 31);
if (value >>> 7 == 0) return 1;
if (value >>> 14 == 0) return 2;
if (value >>> 21 == 0) return 3;
if (value >>> 28 == 0) return 4;
return 5;
}
/** Returns the number of bytes that would be written with {@link #writeLong(long, boolean)}. */
static public int longLength (long value, boolean optimizePositive) {
if (!optimizePositive) value = (value << 1) ^ (value >> 63);
if (value >>> 7 == 0) return 1;
if (value >>> 14 == 0) return 2;
if (value >>> 21 == 0) return 3;
if (value >>> 28 == 0) return 4;
if (value >>> 35 == 0) return 5;
if (value >>> 42 == 0) return 6;
if (value >>> 49 == 0) return 7;
if (value >>> 56 == 0) return 8;
return 9;
}
// Methods implementing bulk operations on arrays of primitive types
/** Bulk output of an int array. */
public void writeInts (int[] object, boolean optimizePositive) throws KryoException {
for (int i = 0, n = object.length; i < n; i++)
writeInt(object[i], optimizePositive);
}
/** Bulk output of an long array. */
public void writeLongs (long[] object, boolean optimizePositive) throws KryoException {
for (int i = 0, n = object.length; i < n; i++)
writeLong(object[i], optimizePositive);
}
/** Bulk output of an int array. */
public void writeInts (int[] object) throws KryoException {
for (int i = 0, n = object.length; i < n; i++)
writeInt(object[i]);
}
/** Bulk output of an long array. */
public void writeLongs (long[] object) throws KryoException {
for (int i = 0, n = object.length; i < n; i++)
writeLong(object[i]);
}
/** Bulk output of a float array. */
public void writeFloats (float[] object) throws KryoException {
for (int i = 0, n = object.length; i < n; i++)
writeFloat(object[i]);
}
/** Bulk output of a short array. */
public void writeShorts (short[] object) throws KryoException {
for (int i = 0, n = object.length; i < n; i++)
writeShort(object[i]);
}
/** Bulk output of a char array. */
public void writeChars (char[] object) throws KryoException {
for (int i = 0, n = object.length; i < n; i++)
writeChar(object[i]);
}
/** Bulk output of a double array. */
public void writeDoubles (double[] object) throws KryoException {
for (int i = 0, n = object.length; i < n; i++)
writeDouble(object[i]);
}
}