Format all dart dev compiler files

pkg/dev_compiler/tool/input_sdk/lib/typed_data/typed_data.dart

 // Copyright (c) 2013, the Dart project authors.  Please see the AUTHORS file
 // for details. All rights reserved. Use of this source code is governed by a
 // BSD-style license that can be found in the LICENSE file.
 
 /// Lists that efficiently handle fixed sized data
 /// (for example, unsigned 8 byte integers) and SIMD numeric types.
-/// 
+///
 /// To use this library in your code:
-/// 
+///
 ///     import 'dart:typed_data';
 library dart.typed_data;
 
 import 'dart:collection';
 
 /**
  * A sequence of bytes underlying a typed data object.
  *
  * Used to process large quantities of binary or numerical data
  * more efficiently using a typed view.
@@ skipping 332 matching lines @@
    *
    * The start index and length must describe a valid range of the buffer:
    *
    * * `offsetInBytes` must not be negative,
    * * `length` must not be negative, and
    * * `offsetInBytes + length` must not be greater than [lengthInBytes].
    */
   ByteData asByteData([int offsetInBytes = 0, int length]);
 }
 
-
 /**
  * A typed view of a sequence of bytes.
  */
 abstract class TypedData {
   /**
    * Returns the number of bytes in the representation of each element in this
    * list.
    */
   int get elementSizeInBytes;
 
   /**
    * Returns the offset in bytes into the underlying byte buffer of this view.
    */
   int get offsetInBytes;
 
   /**
    * Returns the length of this view, in bytes.
    */
   int get lengthInBytes;
 
   /**
    * Returns the byte buffer associated with this object.
    */
   ByteBuffer get buffer;
 }
 
-
 /**
  * Describes endianness to be used when accessing or updating a
  * sequence of bytes.
  */
 class Endianness {
   const Endianness._(this._littleEndian);
 
   static const Endianness BIG_ENDIAN = const Endianness._(false);
   static const Endianness LITTLE_ENDIAN = const Endianness._(true);
   static final Endianness HOST_ENDIAN =
-    (new ByteData.view(new Uint16List.fromList([1]).buffer)).getInt8(0) == 1 ?
-    LITTLE_ENDIAN : BIG_ENDIAN;
+      (new ByteData.view(new Uint16List.fromList([1]).buffer)).getInt8(0) == 1
+          ? LITTLE_ENDIAN
+          : BIG_ENDIAN;
 
   final bool _littleEndian;
 }
 
-
 /**
  * A fixed-length, random-access sequence of bytes that also provides random
  * and unaligned access to the fixed-width integers and floating point
  * numbers represented by those bytes.
  *
  * `ByteData` may be used to pack and unpack data from external sources
  * (such as networks or files systems), and to process large quantities
  * of numerical data more efficiently than would be possible
  * with ordinary [List] implementations.
  * `ByteData` can save space, by eliminating the need for object headers,
@@ skipping 23 matching lines @@
    * If the [offsetInBytes] index of the region is not specified,
    * it defaults to zero (the first byte in the byte buffer).
    * If the length is not specified, it defaults to `null`,
    * which indicates that the view extends to the end of the byte buffer.
    *
    * Throws [RangeError] if [offsetInBytes] or [length] are negative, or
    * if [offsetInBytes] + ([length] * elementSizeInBytes) is greater than
    * the length of [buffer].
    */
   factory ByteData.view(ByteBuffer buffer,
-                        [int offsetInBytes = 0, int length]) {
+      [int offsetInBytes = 0, int length]) {
     return buffer.asByteData(offsetInBytes, length);
   }
 
   /**
    * Returns the (possibly negative) integer represented by the byte at the
    * specified [byteOffset] in this object, in two's complement binary
    * representation.
    *
    * The return value will be between -128 and 127, inclusive.
    *
@@ skipping 54 matching lines @@
    * Sets the two bytes starting at the specified [byteOffset] in this
    * object to the two's complement binary representation of the specified
    * [value], which must fit in two bytes.
    *
    * In other words, [value] must lie
    * between 2<sup>15</sup> and 2<sup>15</sup> - 1, inclusive.
    *
    * Throws [RangeError] if [byteOffset] is negative, or
    * `byteOffset + 2` is greater than the length of this object.
    */
-  void setInt16(int byteOffset,
-                int value,
-                [Endianness endian = Endianness.BIG_ENDIAN]);
+  void setInt16(int byteOffset, int value,
+      [Endianness endian = Endianness.BIG_ENDIAN]);
 
   /**
    * Returns the positive integer represented by the two bytes starting
    * at the specified [byteOffset] in this object, in unsigned binary
    * form.
    *
    * The return value will be between 0 and  2<sup>16</sup> - 1, inclusive.
    *
    * Throws [RangeError] if [byteOffset] is negative, or
    * `byteOffset + 2` is greater than the length of this object.
    */
   int getUint16(int byteOffset, [Endianness endian = Endianness.BIG_ENDIAN]);
 
   /**
    * Sets the two bytes starting at the specified [byteOffset] in this object
    * to the unsigned binary representation of the specified [value],
    * which must fit in two bytes.
    *
    * In other words, [value] must be between
    * 0 and 2<sup>16</sup> - 1, inclusive.
    *
    * Throws [RangeError] if [byteOffset] is negative, or
    * `byteOffset + 2` is greater than the length of this object.
    */
-  void setUint16(int byteOffset,
-                 int value,
-                 [Endianness endian = Endianness.BIG_ENDIAN]);
+  void setUint16(int byteOffset, int value,
+      [Endianness endian = Endianness.BIG_ENDIAN]);
 
   /**
    * Returns the (possibly negative) integer represented by the four bytes at
    * the specified [byteOffset] in this object, in two's complement binary
    * form.
    *
    * The return value will be between 2<sup>31</sup> and 2<sup>31</sup> - 1,
    * inclusive.
    *
    * Throws [RangeError] if [byteOffset] is negative, or
    * `byteOffset + 4` is greater than the length of this object.
    */
   int getInt32(int byteOffset, [Endianness endian = Endianness.BIG_ENDIAN]);
 
   /**
    * Sets the four bytes starting at the specified [byteOffset] in this
    * object to the two's complement binary representation of the specified
    * [value], which must fit in four bytes.
    *
    * In other words, [value] must lie
    * between 2<sup>31</sup> and 2<sup>31</sup> - 1, inclusive.
    *
    * Throws [RangeError] if [byteOffset] is negative, or
    * `byteOffset + 4` is greater than the length of this object.
    */
-  void setInt32(int byteOffset,
-                int value,
-                [Endianness endian = Endianness.BIG_ENDIAN]);
+  void setInt32(int byteOffset, int value,
+      [Endianness endian = Endianness.BIG_ENDIAN]);
 
   /**
    * Returns the positive integer represented by the four bytes starting
    * at the specified [byteOffset] in this object, in unsigned binary
    * form.
    *
    * The return value will be between 0 and  2<sup>32</sup> - 1, inclusive.
    *
    * Throws [RangeError] if [byteOffset] is negative, or
    * `byteOffset + 4` is greater than the length of this object.
    */
   int getUint32(int byteOffset, [Endianness endian = Endianness.BIG_ENDIAN]);
 
   /**
    * Sets the four bytes starting at the specified [byteOffset] in this object
    * to the unsigned binary representation of the specified [value],
    * which must fit in four bytes.
    *
    * In other words, [value] must be between
    * 0 and 2<sup>32</sup> - 1, inclusive.
    *
    * Throws [RangeError] if [byteOffset] is negative, or
    * `byteOffset + 4` is greater than the length of this object.
    */
-  void setUint32(int byteOffset,
-                 int value,
-                 [Endianness endian = Endianness.BIG_ENDIAN]);
+  void setUint32(int byteOffset, int value,
+      [Endianness endian = Endianness.BIG_ENDIAN]);
 
   /**
    * Returns the (possibly negative) integer represented by the eight bytes at
    * the specified [byteOffset] in this object, in two's complement binary
    * form.
    *
    * The return value will be between 2<sup>63</sup> and 2<sup>63</sup> - 1,
    * inclusive.
    *
    * Throws [RangeError] if [byteOffset] is negative, or
    * `byteOffset + 8` is greater than the length of this object.
    */
   int getInt64(int byteOffset, [Endianness endian = Endianness.BIG_ENDIAN]);
 
   /**
    * Sets the eight bytes starting at the specified [byteOffset] in this
    * object to the two's complement binary representation of the specified
    * [value], which must fit in eight bytes.
    *
    * In other words, [value] must lie
    * between 2<sup>63</sup> and 2<sup>63</sup> - 1, inclusive.
    *
    * Throws [RangeError] if [byteOffset] is negative, or
    * `byteOffset + 8` is greater than the length of this object.
    */
-  void setInt64(int byteOffset,
-                int value,
-                [Endianness endian = Endianness.BIG_ENDIAN]);
+  void setInt64(int byteOffset, int value,
+      [Endianness endian = Endianness.BIG_ENDIAN]);
 
   /**
    * Returns the positive integer represented by the eight bytes starting
    * at the specified [byteOffset] in this object, in unsigned binary
    * form.
    *
    * The return value will be between 0 and  2<sup>64</sup> - 1, inclusive.
    *
    * Throws [RangeError] if [byteOffset] is negative, or
    * `byteOffset + 8` is greater than the length of this object.
    */
   int getUint64(int byteOffset, [Endianness endian = Endianness.BIG_ENDIAN]);
 
   /**
    * Sets the eight bytes starting at the specified [byteOffset] in this object
    * to the unsigned binary representation of the specified [value],
    * which must fit in eight bytes.
    *
    * In other words, [value] must be between
    * 0 and 2<sup>64</sup> - 1, inclusive.
    *
    * Throws [RangeError] if [byteOffset] is negative, or
    * `byteOffset + 8` is greater than the length of this object.
    */
-  void setUint64(int byteOffset,
-                 int value,
-                 [Endianness endian = Endianness.BIG_ENDIAN]);
+  void setUint64(int byteOffset, int value,
+      [Endianness endian = Endianness.BIG_ENDIAN]);
 
   /**
    * Returns the floating point number represented by the four bytes at
    * the specified [byteOffset] in this object, in IEEE 754
    * single-precision binary floating-point format (binary32).
    *
    * Throws [RangeError] if [byteOffset] is negative, or
    * `byteOffset + 4` is greater than the length of this object.
    */
   double getFloat32(int byteOffset,
-                    [Endianness endian = Endianness.BIG_ENDIAN]);
+      [Endianness endian = Endianness.BIG_ENDIAN]);
 
   /**
    * Sets the four bytes starting at the specified [byteOffset] in this
    * object to the IEEE 754 single-precision binary floating-point
    * (binary32) representation of the specified [value].
    *
    * **Note that this method can lose precision.** The input [value] is
    * a 64-bit floating point value, which will be converted to 32-bit
    * floating point value by IEEE 754 rounding rules before it is stored.
    * If [value] cannot be represented exactly as a binary32, it will be
    * converted to the nearest binary32 value.  If two binary32 values are
    * equally close, the one whose least significant bit is zero will be used.
    * Note that finite (but large) values can be converted to infinity, and
    * small non-zero values can be converted to zero.
    *
    * Throws [RangeError] if [byteOffset] is negative, or
    * `byteOffset + 4` is greater than the length of this object.
    */
-  void setFloat32(int byteOffset,
-                  double value,
-                  [Endianness endian = Endianness.BIG_ENDIAN]);
+  void setFloat32(int byteOffset, double value,
+      [Endianness endian = Endianness.BIG_ENDIAN]);
 
   /**
    * Returns the floating point number represented by the eight bytes at
    * the specified [byteOffset] in this object, in IEEE 754
    * double-precision binary floating-point format (binary64).
    *
    * Throws [RangeError] if [byteOffset] is negative, or
    * `byteOffset + 8` is greater than the length of this object.
    */
   double getFloat64(int byteOffset,
-                    [Endianness endian = Endianness.BIG_ENDIAN]);
+      [Endianness endian = Endianness.BIG_ENDIAN]);
 
   /**
    * Sets the eight bytes starting at the specified [byteOffset] in this
    * object to the IEEE 754 double-precision binary floating-point
    * (binary64) representation of the specified [value].
    *
    * Throws [RangeError] if [byteOffset] is negative, or
    * `byteOffset + 8` is greater than the length of this object.
    */
-  void setFloat64(int byteOffset,
-                  double value,
-                  [Endianness endian = Endianness.BIG_ENDIAN]);
+  void setFloat64(int byteOffset, double value,
+      [Endianness endian = Endianness.BIG_ENDIAN]);
 }
 
-
 /**
  * A fixed-length list of 8-bit signed integers.
  *
  * For long lists, this implementation can be considerably
  * more space- and time-efficient than the default [List] implementation.
  *
  * Integers stored in the list are truncated to their low eight bits,
  * interpreted as a signed 8-bit two's complement integer with values in the
  * range -128 to +127.
  */
@@ skipping 21 matching lines @@
    * If the [offsetInBytes] index of the region is not specified,
    * it defaults to zero (the first byte in the byte buffer).
    * If the length is not specified, it defaults to `null`,
    * which indicates that the view extends to the end of the byte buffer.
    *
    * Throws [RangeError] if [offsetInBytes] or [length] are negative, or
    * if [offsetInBytes] + ([length] * elementSizeInBytes) is greater than
    * the length of [buffer].
    */
   factory Int8List.view(ByteBuffer buffer,
-                        [int offsetInBytes = 0, int length]) {
+      [int offsetInBytes = 0, int length]) {
     return buffer.asInt8List(offsetInBytes, length);
   }
 
   static const int BYTES_PER_ELEMENT = 1;
 }
 
-
 /**
  * A fixed-length list of 8-bit unsigned integers.
  *
  * For long lists, this implementation can be considerably
  * more space- and time-efficient than the default [List] implementation.
  *
  * Integers stored in the list are truncated to their low eight bits,
  * interpreted as an unsigned 8-bit integer with values in the
  * range 0 to 255.
  */
@@ skipping 21 matching lines @@
    * If the [offsetInBytes] index of the region is not specified,
    * it defaults to zero (the first byte in the byte buffer).
    * If the length is not specified, it defaults to `null`,
    * which indicates that the view extends to the end of the byte buffer.
    *
    * Throws [RangeError] if [offsetInBytes] or [length] are negative, or
    * if [offsetInBytes] + ([length] * elementSizeInBytes) is greater than
    * the length of [buffer].
    */
   factory Uint8List.view(ByteBuffer buffer,
-                         [int offsetInBytes = 0, int length]) {
+      [int offsetInBytes = 0, int length]) {
     return buffer.asUint8List(offsetInBytes, length);
   }
 
   static const int BYTES_PER_ELEMENT = 1;
 }
 
-
 /**
  * A fixed-length list of 8-bit unsigned integers.
  *
  * For long lists, this implementation can be considerably
  * more space- and time-efficient than the default [List] implementation.
  *
  * Integers stored in the list are clamped to an unsigned eight bit value.
  * That is, all values below zero are stored as zero
  * and all values above 255 are stored as 255.
  */
@@ skipping 22 matching lines @@
    * If the [offsetInBytes] index of the region is not specified,
    * it defaults to zero (the first byte in the byte buffer).
    * If the length is not specified, it defaults to `null`,
    * which indicates that the view extends to the end of the byte buffer.
    *
    * Throws [RangeError] if [offsetInBytes] or [length] are negative, or
    * if [offsetInBytes] + ([length] * elementSizeInBytes) is greater than
    * the length of [buffer].
    */
   factory Uint8ClampedList.view(ByteBuffer buffer,
-                                [int offsetInBytes = 0, int length]) {
+      [int offsetInBytes = 0, int length]) {
     return buffer.asUint8ClampedList(offsetInBytes, length);
   }
 
   static const int BYTES_PER_ELEMENT = 1;
 }
 
-
 /**
  * A fixed-length list of 16-bit signed integers that is viewable as a
  * [TypedData].
  *
  * For long lists, this implementation can be considerably
  * more space- and time-efficient than the default [List] implementation.
  *
  * Integers stored in the list are truncated to their low 16 bits,
  * interpreted as a signed 16-bit two's complement integer with values in the
  * range -32768 to +32767.
@@ skipping 25 matching lines @@
    * which indicates that the view extends to the end of the byte buffer.
    *
    * Throws [RangeError] if [offsetInBytes] or [length] are negative, or
    * if [offsetInBytes] + ([length] * elementSizeInBytes) is greater than
    * the length of [buffer].
    *
    * Throws [ArgumentError] if [offsetInBytes] is not a multiple of
    * [BYTES_PER_ELEMENT].
    */
   factory Int16List.view(ByteBuffer buffer,
-                         [int offsetInBytes = 0, int length]) {
+      [int offsetInBytes = 0, int length]) {
     return buffer.asInt16List(offsetInBytes, length);
   }
 
   static const int BYTES_PER_ELEMENT = 2;
 }
 
-
 /**
  * A fixed-length list of 16-bit unsigned integers that is viewable as a
  * [TypedData].
  *
  * For long lists, this implementation can be considerably
  * more space- and time-efficient than the default [List] implementation.
  *
  * Integers stored in the list are truncated to their low 16 bits,
  * interpreted as an unsigned 16-bit integer with values in the
  * range 0 to 65536.
@@ skipping 26 matching lines @@
    * which indicates that the view extends to the end of the byte buffer.
    *
    * Throws [RangeError] if [offsetInBytes] or [length] are negative, or
    * if [offsetInBytes] + ([length] * elementSizeInBytes) is greater than
    * the length of [buffer].
    *
    * Throws [ArgumentError] if [offsetInBytes] is not a multiple of
    * [BYTES_PER_ELEMENT].
    */
   factory Uint16List.view(ByteBuffer buffer,
-                          [int offsetInBytes = 0, int length]) {
+      [int offsetInBytes = 0, int length]) {
     return buffer.asUint16List(offsetInBytes, length);
   }
 
   static const int BYTES_PER_ELEMENT = 2;
 }
 
-
 /**
  * A fixed-length list of 32-bit signed integers that is viewable as a
  * [TypedData].
  *
  * For long lists, this implementation can be considerably
  * more space- and time-efficient than the default [List] implementation.
  *
  * Integers stored in the list are truncated to their low 32 bits,
  * interpreted as a signed 32-bit two's complement integer with values in the
  * range -2147483648 to 2147483647.
@@ skipping 25 matching lines @@
    * which indicates that the view extends to the end of the byte buffer.
    *
    * Throws [RangeError] if [offsetInBytes] or [length] are negative, or
    * if [offsetInBytes] + ([length] * elementSizeInBytes) is greater than
    * the length of [buffer].
    *
    * Throws [ArgumentError] if [offsetInBytes] is not a multiple of
    * [BYTES_PER_ELEMENT].
    */
   factory Int32List.view(ByteBuffer buffer,
-                         [int offsetInBytes = 0, int length]) {
+      [int offsetInBytes = 0, int length]) {
     return buffer.asInt32List(offsetInBytes, length);
   }
 
   static const int BYTES_PER_ELEMENT = 4;
 }
 
-
 /**
  * A fixed-length list of 32-bit unsigned integers that is viewable as a
  * [TypedData].
  *
  * For long lists, this implementation can be considerably
  * more space- and time-efficient than the default [List] implementation.
  *
  * Integers stored in the list are truncated to their low 32 bits,
  * interpreted as an unsigned 32-bit integer with values in the
  * range 0 to 4294967295.
@@ skipping 26 matching lines @@
    * which indicates that the view extends to the end of the byte buffer.
    *
    * Throws [RangeError] if [offsetInBytes] or [length] are negative, or
    * if [offsetInBytes] + ([length] * elementSizeInBytes) is greater than
    * the length of [buffer].
    *
    * Throws [ArgumentError] if [offsetInBytes] is not a multiple of
    * [BYTES_PER_ELEMENT].
    */
   factory Uint32List.view(ByteBuffer buffer,
-                          [int offsetInBytes = 0, int length]) {
+      [int offsetInBytes = 0, int length]) {
     return buffer.asUint32List(offsetInBytes, length);
   }
 
   static const int BYTES_PER_ELEMENT = 4;
 }
 
-
 /**
  * A fixed-length list of 64-bit signed integers that is viewable as a
  * [TypedData].
  *
  * For long lists, this implementation can be considerably
  * more space- and time-efficient than the default [List] implementation.
  *
  * Integers stored in the list are truncated to their low 64 bits,
  * interpreted as a signed 64-bit two's complement integer with values in the
  * range -9223372036854775808 to +9223372036854775807.
@@ skipping 25 matching lines @@
    * which indicates that the view extends to the end of the byte buffer.
    *
    * Throws [RangeError] if [offsetInBytes] or [length] are negative, or
    * if [offsetInBytes] + ([length] * elementSizeInBytes) is greater than
    * the length of [buffer].
    *
    * Throws [ArgumentError] if [offsetInBytes] is not a multiple of
    * [BYTES_PER_ELEMENT].
    */
   factory Int64List.view(ByteBuffer buffer,
-                         [int offsetInBytes = 0, int length]) {
+      [int offsetInBytes = 0, int length]) {
     return buffer.asInt64List(offsetInBytes, length);
   }
 
   static const int BYTES_PER_ELEMENT = 8;
 }
 
-
 /**
  * A fixed-length list of 64-bit unsigned integers that is viewable as a
  * [TypedData].
  *
  * For long lists, this implementation can be considerably
  * more space- and time-efficient than the default [List] implementation.
  *
  * Integers stored in the list are truncated to their low 64 bits,
  * interpreted as an unsigned 64-bit integer with values in the
  * range 0 to 18446744073709551616.
@@ skipping 26 matching lines @@
    * which indicates that the view extends to the end of the byte buffer.
    *
    * Throws [RangeError] if [offsetInBytes] or [length] are negative, or
    * if [offsetInBytes] + ([length] * elementSizeInBytes) is greater than
    * the length of [buffer].
    *
    * Throws [ArgumentError] if [offsetInBytes] is not a multiple of
    * [BYTES_PER_ELEMENT].
    */
   factory Uint64List.view(ByteBuffer buffer,
-                          [int offsetInBytes = 0, int length]) {
+      [int offsetInBytes = 0, int length]) {
     return buffer.asUint64List(offsetInBytes, length);
   }
 
   static const int BYTES_PER_ELEMENT = 8;
 }
 
-
 /**
  * A fixed-length list of IEEE 754 single-precision binary floating-point
  * numbers that is viewable as a [TypedData].
  *
  * For long lists, this
  * implementation can be considerably more space- and time-efficient than
  * the default [List] implementation.
  *
  * Double values stored in the list are converted to the nearest
  * single-precision value. Values read are converted to a double
@@ skipping 26 matching lines @@
    * which indicates that the view extends to the end of the byte buffer.
    *
    * Throws [RangeError] if [offsetInBytes] or [length] are negative, or
    * if [offsetInBytes] + ([length] * elementSizeInBytes) is greater than
    * the length of [buffer].
    *
    * Throws [ArgumentError] if [offsetInBytes] is not a multiple of
    * [BYTES_PER_ELEMENT].
    */
   factory Float32List.view(ByteBuffer buffer,
-                           [int offsetInBytes = 0, int length]) {
+      [int offsetInBytes = 0, int length]) {
     return buffer.asFloat32List(offsetInBytes, length);
   }
 
   static const int BYTES_PER_ELEMENT = 4;
 }
 
-
 /**
  * A fixed-length list of IEEE 754 double-precision binary floating-point
  * numbers  that is viewable as a [TypedData].
  *
  * For long lists, this
  * implementation can be considerably more space- and time-efficient than
  * the default [List] implementation.
  */
 abstract class Float64List implements List<double>, TypedData {
   /**
@@ skipping 19 matching lines @@
    * which indicates that the view extends to the end of the byte buffer.
    *
    * Throws [RangeError] if [offsetInBytes] or [length] are negative, or
    * if [offsetInBytes] + ([length] * elementSizeInBytes) is greater than
    * the length of [buffer].
    *
    * Throws [ArgumentError] if [offsetInBytes] is not a multiple of
    * [BYTES_PER_ELEMENT].
    */
   factory Float64List.view(ByteBuffer buffer,
-                           [int offsetInBytes = 0, int length]) {
+      [int offsetInBytes = 0, int length]) {
     return buffer.asFloat64List(offsetInBytes, length);
   }
 
   static const int BYTES_PER_ELEMENT = 8;
 }
 
-
 /**
  * A fixed-length list of Float32x4 numbers that is viewable as a
  * [TypedData].
  *
  * For long lists, this implementation will be considerably more
  * space- and time-efficient than the default [List] implementation.
  */
 abstract class Float32x4List implements List<Float32x4>, TypedData {
   /**
    * Creates a [Float32x4List] of the specified length (in elements),
@@ skipping 18 matching lines @@
    * which indicates that the view extends to the end of the byte buffer.
    *
    * Throws [RangeError] if [offsetInBytes] or [length] are negative, or
    * if [offsetInBytes] + ([length] * elementSizeInBytes) is greater than
    * the length of [buffer].
    *
    * Throws [ArgumentError] if [offsetInBytes] is not a multiple of
    * [BYTES_PER_ELEMENT].
    */
   factory Float32x4List.view(ByteBuffer buffer,
-                             [int offsetInBytes = 0, int length]) {
+      [int offsetInBytes = 0, int length]) {
     return buffer.asFloat32x4List(offsetInBytes, length);
   }
 
   static const int BYTES_PER_ELEMENT = 16;
 }
 
-
 /**
  * A fixed-length list of Int32x4 numbers that is viewable as a
  * [TypedData].
  *
  * For long lists, this implementation will be considerably more
  * space- and time-efficient than the default [List] implementation.
  */
 abstract class Int32x4List implements List<Int32x4>, TypedData {
   /**
    * Creates a [Int32x4List] of the specified length (in elements),
@@ skipping 18 matching lines @@
    * which indicates that the view extends to the end of the byte buffer.
    *
    * Throws [RangeError] if [offsetInBytes] or [length] are negative, or
    * if [offsetInBytes] + ([length] * elementSizeInBytes) is greater than
    * the length of [buffer].
    *
    * Throws [ArgumentError] if [offsetInBytes] is not a multiple of
    * [BYTES_PER_ELEMENT].
    */
   factory Int32x4List.view(ByteBuffer buffer,
-                             [int offsetInBytes = 0, int length]) {
+      [int offsetInBytes = 0, int length]) {
     return buffer.asInt32x4List(offsetInBytes, length);
   }
 
   static const int BYTES_PER_ELEMENT = 16;
 }
 
-
 /**
  * A fixed-length list of Float64x2 numbers that is viewable as a
  * [TypedData].
  *
  * For long lists, this implementation will be considerably more
  * space- and time-efficient than the default [List] implementation.
  */
 abstract class Float64x2List implements List<Float64x2>, TypedData {
   /**
    * Creates a [Float64x2List] of the specified length (in elements),
@@ skipping 18 matching lines @@
    * which indicates that the view extends to the end of the byte buffer.
    *
    * Throws [RangeError] if [offsetInBytes] or [length] are negative, or
    * if [offsetInBytes] + ([length] * elementSizeInBytes) is greater than
    * the length of [buffer].
    *
    * Throws [ArgumentError] if [offsetInBytes] is not a multiple of
    * [BYTES_PER_ELEMENT].
    */
   factory Float64x2List.view(ByteBuffer buffer,
-                             [int offsetInBytes = 0, int length]) {
+      [int offsetInBytes = 0, int length]) {
     return buffer.asFloat64x2List(offsetInBytes, length);
   }
 
   static const int BYTES_PER_ELEMENT = 16;
 }
 
-
 /**
  * Float32x4 immutable value type and operations.
  *
  * Float32x4 stores 4 32-bit floating point values in "lanes".
  * The lanes are "x", "y", "z", and "w" respectively.
  */
 abstract class Float32x4 {
   external factory Float32x4(double x, double y, double z, double w);
   external factory Float32x4.splat(double v);
   external factory Float32x4.zero();
   external factory Float32x4.fromInt32x4Bits(Int32x4 x);
+
   /// Sets the x and y lanes to their respective values in [v] and sets the z
   /// and w lanes to 0.0.
   external factory Float32x4.fromFloat64x2(Float64x2 v);
 
   /// Addition operator.
-  Float32x4 operator+(Float32x4 other);
+  Float32x4 operator +(Float32x4 other);
+
   /// Negate operator.
-  Float32x4 operator-();
+  Float32x4 operator -();
+
   /// Subtraction operator.
-  Float32x4 operator-(Float32x4 other);
+  Float32x4 operator -(Float32x4 other);
+
   /// Multiplication operator.
-  Float32x4 operator*(Float32x4 other);
+  Float32x4 operator *(Float32x4 other);
+
   /// Division operator.
-  Float32x4 operator/(Float32x4 other);
+  Float32x4 operator /(Float32x4 other);
 
   /// Relational less than.
   Int32x4 lessThan(Float32x4 other);
+
   /// Relational less than or equal.
   Int32x4 lessThanOrEqual(Float32x4 other);
+
   /// Relational greater than.
   Int32x4 greaterThan(Float32x4 other);
+
   /// Relational greater than or equal.
   Int32x4 greaterThanOrEqual(Float32x4 other);
+
   /// Relational equal.
   Int32x4 equal(Float32x4 other);
+
   /// Relational not-equal.
   Int32x4 notEqual(Float32x4 other);
 
   /// Returns a copy of [this] each lane being scaled by [s].
   /// Equivalent to this * new Float32x4.splat(s)
   Float32x4 scale(double s);
+
   /// Returns the lane-wise absolute value of this [Float32x4].
   Float32x4 abs();
+
   /// Lane-wise clamp [this] to be in the range [lowerLimit]-[upperLimit].
   Float32x4 clamp(Float32x4 lowerLimit, Float32x4 upperLimit);
 
   /// Extracted x value.
   double get x;
+
   /// Extracted y value.
   double get y;
+
   /// Extracted z value.
   double get z;
+
   /// Extracted w value.
   double get w;
 
   /// Extract the sign bits from each lane return them in the first 4 bits.
   /// "x" lane is bit 0.
   /// "y" lane is bit 1.
   /// "z" lane is bit 2.
   /// "w" lane is bit 3.
   int get signMask;
 
@@ skipping 258 matching lines @@
   /// Shuffle the lane values. [mask] must be one of the 256 shuffle constants.
   Float32x4 shuffle(int mask);
 
   /// Shuffle the lane values in [this] and [other]. The returned
   /// Float32x4 will have XY lanes from [this] and ZW lanes from [other].
   /// Uses the same [mask] as [shuffle].
   Float32x4 shuffleMix(Float32x4 other, int mask);
 
   /// Returns a new [Float32x4] copied from [this] with a new x value.
   Float32x4 withX(double x);
+
   /// Returns a new [Float32x4] copied from [this] with a new y value.
   Float32x4 withY(double y);
+
   /// Returns a new [Float32x4] copied from [this] with a new z value.
   Float32x4 withZ(double z);
+
   /// Returns a new [Float32x4] copied from [this] with a new w value.
   Float32x4 withW(double w);
 
   /// Returns the lane-wise minimum value in [this] or [other].
   Float32x4 min(Float32x4 other);
 
   /// Returns the lane-wise maximum value in [this] or [other].
   Float32x4 max(Float32x4 other);
 
   /// Returns the square root of [this].
   Float32x4 sqrt();
 
   /// Returns the reciprocal of [this].
   Float32x4 reciprocal();
 
   /// Returns the square root of the reciprocal of [this].
   Float32x4 reciprocalSqrt();
 }
 
-
 /**
  * Int32x4 and operations.
  *
  * Int32x4 stores 4 32-bit bit-masks in "lanes".
  * The lanes are "x", "y", "z", and "w" respectively.
  */
 abstract class Int32x4 {
   external factory Int32x4(int x, int y, int z, int w);
   external factory Int32x4.bool(bool x, bool y, bool z, bool w);
   external factory Int32x4.fromFloat32x4Bits(Float32x4 x);
 
   /// The bit-wise or operator.
-  Int32x4 operator|(Int32x4 other);
+  Int32x4 operator |(Int32x4 other);
+
   /// The bit-wise and operator.
-  Int32x4 operator&(Int32x4 other);
+  Int32x4 operator &(Int32x4 other);
+
   /// The bit-wise xor operator.
-  Int32x4 operator^(Int32x4 other);
+  Int32x4 operator ^(Int32x4 other);
+
   /// Addition operator.
-  Int32x4 operator+(Int32x4 other);
+  Int32x4 operator +(Int32x4 other);
+
   /// Subtraction operator.
-  Int32x4 operator-(Int32x4 other);
+  Int32x4 operator -(Int32x4 other);
 
   /// Extract 32-bit mask from x lane.
   int get x;
+
   /// Extract 32-bit mask from y lane.
   int get y;
+
   /// Extract 32-bit mask from z lane.
   int get z;
+
   /// Extract 32-bit mask from w lane.
   int get w;
 
   /// Extract the top bit from each lane return them in the first 4 bits.
   /// "x" lane is bit 0.
   /// "y" lane is bit 1.
   /// "z" lane is bit 2.
   /// "w" lane is bit 3.
   int get signMask;
 
@@ skipping 258 matching lines @@
   /// Shuffle the lane values. [mask] must be one of the 256 shuffle constants.
   Int32x4 shuffle(int mask);
 
   /// Shuffle the lane values in [this] and [other]. The returned
   /// Int32x4 will have XY lanes from [this] and ZW lanes from [other].
   /// Uses the same [mask] as [shuffle].
   Int32x4 shuffleMix(Int32x4 other, int mask);
 
   /// Returns a new [Int32x4] copied from [this] with a new x value.
   Int32x4 withX(int x);
+
   /// Returns a new [Int32x4] copied from [this] with a new y value.
   Int32x4 withY(int y);
+
   /// Returns a new [Int32x4] copied from [this] with a new z value.
   Int32x4 withZ(int z);
+
   /// Returns a new [Int32x4] copied from [this] with a new w value.
   Int32x4 withW(int w);
 
   /// Extracted x value. Returns false for 0, true for any other value.
   bool get flagX;
+
   /// Extracted y value. Returns false for 0, true for any other value.
   bool get flagY;
+
   /// Extracted z value. Returns false for 0, true for any other value.
   bool get flagZ;
+
   /// Extracted w value. Returns false for 0, true for any other value.
   bool get flagW;
 
   /// Returns a new [Int32x4] copied from [this] with a new x value.
   Int32x4 withFlagX(bool x);
+
   /// Returns a new [Int32x4] copied from [this] with a new y value.
   Int32x4 withFlagY(bool y);
+
   /// Returns a new [Int32x4] copied from [this] with a new z value.
   Int32x4 withFlagZ(bool z);
+
   /// Returns a new [Int32x4] copied from [this] with a new w value.
   Int32x4 withFlagW(bool w);
 
   /// Merge [trueValue] and [falseValue] based on [this]' bit mask:
   /// Select bit from [trueValue] when bit in [this] is on.
   /// Select bit from [falseValue] when bit in [this] is off.
   Float32x4 select(Float32x4 trueValue, Float32x4 falseValue);
 }
 
 /**
  * Float64x2 immutable value type and operations.
  *
  * Float64x2 stores 2 64-bit floating point values in "lanes".
  * The lanes are "x" and "y" respectively.
  */
 abstract class Float64x2 {
   external factory Float64x2(double x, double y);
   external factory Float64x2.splat(double v);
   external factory Float64x2.zero();
+
   /// Uses the "x" and "y" lanes from [v].
   external factory Float64x2.fromFloat32x4(Float32x4 v);
 
   /// Addition operator.
-  Float64x2 operator+(Float64x2 other);
+  Float64x2 operator +(Float64x2 other);
+
   /// Negate operator.
-  Float64x2 operator-();
+  Float64x2 operator -();
+
   /// Subtraction operator.
-  Float64x2 operator-(Float64x2 other);
+  Float64x2 operator -(Float64x2 other);
+
   /// Multiplication operator.
-  Float64x2 operator*(Float64x2 other);
+  Float64x2 operator *(Float64x2 other);
+
   /// Division operator.
-  Float64x2 operator/(Float64x2 other);
+  Float64x2 operator /(Float64x2 other);
 
   /// Returns a copy of [this] each lane being scaled by [s].
   /// Equivalent to this * new Float64x2.splat(s)
   Float64x2 scale(double s);
+
   /// Returns the lane-wise absolute value of this [Float64x2].
   Float64x2 abs();
 
   /// Lane-wise clamp [this] to be in the range [lowerLimit]-[upperLimit].
-  Float64x2 clamp(Float64x2 lowerLimit,
-                  Float64x2 upperLimit);
+  Float64x2 clamp(Float64x2 lowerLimit, Float64x2 upperLimit);
 
   /// Extracted x value.
   double get x;
+
   /// Extracted y value.
   double get y;
 
   /// Extract the sign bits from each lane return them in the first 2 bits.
   /// "x" lane is bit 0.
   /// "y" lane is bit 1.
   int get signMask;
 
   /// Returns a new [Float64x2] copied from [this] with a new x value.
   Float64x2 withX(double x);
+
   /// Returns a new [Float64x2] copied from [this] with a new y value.
   Float64x2 withY(double y);
 
   /// Returns the lane-wise minimum value in [this] or [other].
   Float64x2 min(Float64x2 other);
 
   /// Returns the lane-wise maximum value in [this] or [other].
   Float64x2 max(Float64x2 other);
 
   /// Returns the lane-wise square root of [this].
   Float64x2 sqrt();
 }