package global;

typedef IBuffer = {
	/**
		Writes `string` to `buf` at `offset` according to the character encoding in`encoding`. The `length` parameter is the number of bytes to write. If `buf` did
		not contain enough space to fit the entire string, only part of `string` will be
		written. However, partially encoded characters will not be written.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.alloc(256);
		
		const len = buf.write('\u00bd + \u00bc = \u00be', 0);
		
		console.log(`${len} bytes: ${buf.toString('utf8', 0, len)}`);
		// Prints: 12 bytes: ½ + ¼ = ¾
		
		const buffer = Buffer.alloc(10);
		
		const length = buffer.write('abcd', 8);
		
		console.log(`${length} bytes: ${buffer.toString('utf8', 8, 10)}`);
		// Prints: 2 bytes : ab
		```
	**/
	@:overload(function(string:String, offset:Float, ?encoding:global.nodejs.BufferEncoding):Float { })
	@:overload(function(string:String, offset:Float, length:Float, ?encoding:global.nodejs.BufferEncoding):Float { })
	function write(string:String, ?encoding:global.nodejs.BufferEncoding):Float;
	/**
		Decodes `buf` to a string according to the specified character encoding in`encoding`. `start` and `end` may be passed to decode only a subset of `buf`.
		
		If `encoding` is `'utf8'` and a byte sequence in the input is not valid UTF-8,
		then each invalid byte is replaced with the replacement character `U+FFFD`.
		
		The maximum length of a string instance (in UTF-16 code units) is available
		as {@link constants.MAX_STRING_LENGTH}.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf1 = Buffer.allocUnsafe(26);
		
		for (let i = 0; i < 26; i++) {
		   // 97 is the decimal ASCII value for 'a'.
		   buf1[i] = i + 97;
		}
		
		console.log(buf1.toString('utf8'));
		// Prints: abcdefghijklmnopqrstuvwxyz
		console.log(buf1.toString('utf8', 0, 5));
		// Prints: abcde
		
		const buf2 = Buffer.from('tést');
		
		console.log(buf2.toString('hex'));
		// Prints: 74c3a97374
		console.log(buf2.toString('utf8', 0, 3));
		// Prints: té
		console.log(buf2.toString(undefined, 0, 3));
		// Prints: té
		```
	**/
	function toString(?encoding:global.nodejs.BufferEncoding, ?start:Float, ?end:Float):String;
	/**
		Returns a JSON representation of `buf`. [`JSON.stringify()`](https://developer.mozilla.org/en-US/docs/Web/JavaScript/Reference/Global_Objects/JSON/stringify) implicitly calls
		this function when stringifying a `Buffer` instance.
		
		`Buffer.from()` accepts objects in the format returned from this method.
		In particular, `Buffer.from(buf.toJSON())` works like `Buffer.from(buf)`.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.from([0x1, 0x2, 0x3, 0x4, 0x5]);
		const json = JSON.stringify(buf);
		
		console.log(json);
		// Prints: {"type":"Buffer","data":[1,2,3,4,5]}
		
		const copy = JSON.parse(json, (key, value) => {
		   return value &#x26;&#x26; value.type === 'Buffer' ?
		     Buffer.from(value) :
		     value;
		});
		
		console.log(copy);
		// Prints: <Buffer 01 02 03 04 05>
		```
	**/
	function toJSON():{
		var type : String;
		var data : Array<Float>;
	};
	/**
		Returns `true` if both `buf` and `otherBuffer` have exactly the same bytes,`false` otherwise. Equivalent to `buf.compare(otherBuffer) === 0`.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf1 = Buffer.from('ABC');
		const buf2 = Buffer.from('414243', 'hex');
		const buf3 = Buffer.from('ABCD');
		
		console.log(buf1.equals(buf2));
		// Prints: true
		console.log(buf1.equals(buf3));
		// Prints: false
		```
	**/
	function equals(otherBuffer:js.lib.Uint8Array):Bool;
	/**
		Compares `buf` with `target` and returns a number indicating whether `buf`comes before, after, or is the same as `target` in sort order.
		Comparison is based on the actual sequence of bytes in each `Buffer`.
		
		* `0` is returned if `target` is the same as `buf`
		* `1` is returned if `target` should come _before_`buf` when sorted.
		* `-1` is returned if `target` should come _after_`buf` when sorted.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf1 = Buffer.from('ABC');
		const buf2 = Buffer.from('BCD');
		const buf3 = Buffer.from('ABCD');
		
		console.log(buf1.compare(buf1));
		// Prints: 0
		console.log(buf1.compare(buf2));
		// Prints: -1
		console.log(buf1.compare(buf3));
		// Prints: -1
		console.log(buf2.compare(buf1));
		// Prints: 1
		console.log(buf2.compare(buf3));
		// Prints: 1
		console.log([buf1, buf2, buf3].sort(Buffer.compare));
		// Prints: [ <Buffer 41 42 43>, <Buffer 41 42 43 44>, <Buffer 42 43 44> ]
		// (This result is equal to: [buf1, buf3, buf2].)
		```
		
		The optional `targetStart`, `targetEnd`, `sourceStart`, and `sourceEnd`arguments can be used to limit the comparison to specific ranges within `target`and `buf` respectively.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf1 = Buffer.from([1, 2, 3, 4, 5, 6, 7, 8, 9]);
		const buf2 = Buffer.from([5, 6, 7, 8, 9, 1, 2, 3, 4]);
		
		console.log(buf1.compare(buf2, 5, 9, 0, 4));
		// Prints: 0
		console.log(buf1.compare(buf2, 0, 6, 4));
		// Prints: -1
		console.log(buf1.compare(buf2, 5, 6, 5));
		// Prints: 1
		```
		
		`ERR_OUT_OF_RANGE` is thrown if `targetStart < 0`, `sourceStart < 0`,`targetEnd > target.byteLength`, or `sourceEnd > source.byteLength`.
	**/
	function compare(target:js.lib.Uint8Array, ?targetStart:Float, ?targetEnd:Float, ?sourceStart:Float, ?sourceEnd:Float):node.tty.Direction;
	/**
		Copies data from a region of `buf` to a region in `target`, even if the `target`memory region overlaps with `buf`.
		
		[`TypedArray.prototype.set()`](https://developer.mozilla.org/en-US/docs/Web/JavaScript/Reference/Global_Objects/TypedArray/set) performs the same operation, and is available
		for all TypedArrays, including Node.js `Buffer`s, although it takes
		different function arguments.
		
		```js
		import { Buffer } from 'node:buffer';
		
		// Create two `Buffer` instances.
		const buf1 = Buffer.allocUnsafe(26);
		const buf2 = Buffer.allocUnsafe(26).fill('!');
		
		for (let i = 0; i < 26; i++) {
		   // 97 is the decimal ASCII value for 'a'.
		   buf1[i] = i + 97;
		}
		
		// Copy `buf1` bytes 16 through 19 into `buf2` starting at byte 8 of `buf2`.
		buf1.copy(buf2, 8, 16, 20);
		// This is equivalent to:
		// buf2.set(buf1.subarray(16, 20), 8);
		
		console.log(buf2.toString('ascii', 0, 25));
		// Prints: !!!!!!!!qrst!!!!!!!!!!!!!
		```
		
		```js
		import { Buffer } from 'node:buffer';
		
		// Create a `Buffer` and copy data from one region to an overlapping region
		// within the same `Buffer`.
		
		const buf = Buffer.allocUnsafe(26);
		
		for (let i = 0; i < 26; i++) {
		   // 97 is the decimal ASCII value for 'a'.
		   buf[i] = i + 97;
		}
		
		buf.copy(buf, 0, 4, 10);
		
		console.log(buf.toString());
		// Prints: efghijghijklmnopqrstuvwxyz
		```
	**/
	function copy(target:js.lib.Uint8Array, ?targetStart:Float, ?sourceStart:Float, ?sourceEnd:Float):Float;
	/**
		Returns a new `Buffer` that references the same memory as the original, but
		offset and cropped by the `start` and `end` indices.
		
		This method is not compatible with the `Uint8Array.prototype.slice()`,
		which is a superclass of `Buffer`. To copy the slice, use`Uint8Array.prototype.slice()`.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.from('buffer');
		
		const copiedBuf = Uint8Array.prototype.slice.call(buf);
		copiedBuf[0]++;
		console.log(copiedBuf.toString());
		// Prints: cuffer
		
		console.log(buf.toString());
		// Prints: buffer
		
		// With buf.slice(), the original buffer is modified.
		const notReallyCopiedBuf = buf.slice();
		notReallyCopiedBuf[0]++;
		console.log(notReallyCopiedBuf.toString());
		// Prints: cuffer
		console.log(buf.toString());
		// Also prints: cuffer (!)
		```
	**/
	function slice(?start:Float, ?end:Float):Buffer;
	/**
		Returns a new `Buffer` that references the same memory as the original, but
		offset and cropped by the `start` and `end` indices.
		
		Specifying `end` greater than `buf.length` will return the same result as
		that of `end` equal to `buf.length`.
		
		This method is inherited from [`TypedArray.prototype.subarray()`](https://developer.mozilla.org/en-US/docs/Web/JavaScript/Reference/Global_Objects/TypedArray/subarray).
		
		Modifying the new `Buffer` slice will modify the memory in the original `Buffer`because the allocated memory of the two objects overlap.
		
		```js
		import { Buffer } from 'node:buffer';
		
		// Create a `Buffer` with the ASCII alphabet, take a slice, and modify one byte
		// from the original `Buffer`.
		
		const buf1 = Buffer.allocUnsafe(26);
		
		for (let i = 0; i < 26; i++) {
		   // 97 is the decimal ASCII value for 'a'.
		   buf1[i] = i + 97;
		}
		
		const buf2 = buf1.subarray(0, 3);
		
		console.log(buf2.toString('ascii', 0, buf2.length));
		// Prints: abc
		
		buf1[0] = 33;
		
		console.log(buf2.toString('ascii', 0, buf2.length));
		// Prints: !bc
		```
		
		Specifying negative indexes causes the slice to be generated relative to the
		end of `buf` rather than the beginning.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.from('buffer');
		
		console.log(buf.subarray(-6, -1).toString());
		// Prints: buffe
		// (Equivalent to buf.subarray(0, 5).)
		
		console.log(buf.subarray(-6, -2).toString());
		// Prints: buff
		// (Equivalent to buf.subarray(0, 4).)
		
		console.log(buf.subarray(-5, -2).toString());
		// Prints: uff
		// (Equivalent to buf.subarray(1, 4).)
		```
	**/
	function subarray(?start:Float, ?end:Float):Buffer;
	/**
		Writes `value` to `buf` at the specified `offset` as big-endian.
		
		`value` is interpreted and written as a two's complement signed integer.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.allocUnsafe(8);
		
		buf.writeBigInt64BE(0x0102030405060708n, 0);
		
		console.log(buf);
		// Prints: <Buffer 01 02 03 04 05 06 07 08>
		```
	**/
	function writeBigInt64BE(value:js.lib.BigInt, ?offset:Float):Float;
	/**
		Writes `value` to `buf` at the specified `offset` as little-endian.
		
		`value` is interpreted and written as a two's complement signed integer.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.allocUnsafe(8);
		
		buf.writeBigInt64LE(0x0102030405060708n, 0);
		
		console.log(buf);
		// Prints: <Buffer 08 07 06 05 04 03 02 01>
		```
	**/
	function writeBigInt64LE(value:js.lib.BigInt, ?offset:Float):Float;
	/**
		Writes `value` to `buf` at the specified `offset` as big-endian.
		
		This function is also available under the `writeBigUint64BE` alias.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.allocUnsafe(8);
		
		buf.writeBigUInt64BE(0xdecafafecacefaden, 0);
		
		console.log(buf);
		// Prints: <Buffer de ca fa fe ca ce fa de>
		```
	**/
	function writeBigUInt64BE(value:js.lib.BigInt, ?offset:Float):Float;
	function writeBigUint64BE(value:js.lib.BigInt, ?offset:Float):Float;
	/**
		Writes `value` to `buf` at the specified `offset` as little-endian
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.allocUnsafe(8);
		
		buf.writeBigUInt64LE(0xdecafafecacefaden, 0);
		
		console.log(buf);
		// Prints: <Buffer de fa ce ca fe fa ca de>
		```
		
		This function is also available under the `writeBigUint64LE` alias.
	**/
	function writeBigUInt64LE(value:js.lib.BigInt, ?offset:Float):Float;
	function writeBigUint64LE(value:js.lib.BigInt, ?offset:Float):Float;
	/**
		Writes `byteLength` bytes of `value` to `buf` at the specified `offset`as little-endian. Supports up to 48 bits of accuracy. Behavior is undefined
		when `value` is anything other than an unsigned integer.
		
		This function is also available under the `writeUintLE` alias.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.allocUnsafe(6);
		
		buf.writeUIntLE(0x1234567890ab, 0, 6);
		
		console.log(buf);
		// Prints: <Buffer ab 90 78 56 34 12>
		```
	**/
	function writeUIntLE(value:Float, offset:Float, byteLength:Float):Float;
	function writeUintLE(value:Float, offset:Float, byteLength:Float):Float;
	/**
		Writes `byteLength` bytes of `value` to `buf` at the specified `offset`as big-endian. Supports up to 48 bits of accuracy. Behavior is undefined
		when `value` is anything other than an unsigned integer.
		
		This function is also available under the `writeUintBE` alias.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.allocUnsafe(6);
		
		buf.writeUIntBE(0x1234567890ab, 0, 6);
		
		console.log(buf);
		// Prints: <Buffer 12 34 56 78 90 ab>
		```
	**/
	function writeUIntBE(value:Float, offset:Float, byteLength:Float):Float;
	function writeUintBE(value:Float, offset:Float, byteLength:Float):Float;
	/**
		Writes `byteLength` bytes of `value` to `buf` at the specified `offset`as little-endian. Supports up to 48 bits of accuracy. Behavior is undefined
		when `value` is anything other than a signed integer.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.allocUnsafe(6);
		
		buf.writeIntLE(0x1234567890ab, 0, 6);
		
		console.log(buf);
		// Prints: <Buffer ab 90 78 56 34 12>
		```
	**/
	function writeIntLE(value:Float, offset:Float, byteLength:Float):Float;
	/**
		Writes `byteLength` bytes of `value` to `buf` at the specified `offset`as big-endian. Supports up to 48 bits of accuracy. Behavior is undefined when`value` is anything other than a
		signed integer.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.allocUnsafe(6);
		
		buf.writeIntBE(0x1234567890ab, 0, 6);
		
		console.log(buf);
		// Prints: <Buffer 12 34 56 78 90 ab>
		```
	**/
	function writeIntBE(value:Float, offset:Float, byteLength:Float):Float;
	/**
		Reads an unsigned, big-endian 64-bit integer from `buf` at the specified`offset`.
		
		This function is also available under the `readBigUint64BE` alias.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.from([0x00, 0x00, 0x00, 0x00, 0xff, 0xff, 0xff, 0xff]);
		
		console.log(buf.readBigUInt64BE(0));
		// Prints: 4294967295n
		```
	**/
	function readBigUInt64BE(?offset:Float):js.lib.BigInt;
	function readBigUint64BE(?offset:Float):js.lib.BigInt;
	/**
		Reads an unsigned, little-endian 64-bit integer from `buf` at the specified`offset`.
		
		This function is also available under the `readBigUint64LE` alias.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.from([0x00, 0x00, 0x00, 0x00, 0xff, 0xff, 0xff, 0xff]);
		
		console.log(buf.readBigUInt64LE(0));
		// Prints: 18446744069414584320n
		```
	**/
	function readBigUInt64LE(?offset:Float):js.lib.BigInt;
	function readBigUint64LE(?offset:Float):js.lib.BigInt;
	/**
		Reads a signed, big-endian 64-bit integer from `buf` at the specified `offset`.
		
		Integers read from a `Buffer` are interpreted as two's complement signed
		values.
	**/
	function readBigInt64BE(?offset:Float):js.lib.BigInt;
	/**
		Reads a signed, little-endian 64-bit integer from `buf` at the specified`offset`.
		
		Integers read from a `Buffer` are interpreted as two's complement signed
		values.
	**/
	function readBigInt64LE(?offset:Float):js.lib.BigInt;
	/**
		Reads `byteLength` number of bytes from `buf` at the specified `offset`and interprets the result as an unsigned, little-endian integer supporting
		up to 48 bits of accuracy.
		
		This function is also available under the `readUintLE` alias.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.from([0x12, 0x34, 0x56, 0x78, 0x90, 0xab]);
		
		console.log(buf.readUIntLE(0, 6).toString(16));
		// Prints: ab9078563412
		```
	**/
	function readUIntLE(offset:Float, byteLength:Float):Float;
	function readUintLE(offset:Float, byteLength:Float):Float;
	/**
		Reads `byteLength` number of bytes from `buf` at the specified `offset`and interprets the result as an unsigned big-endian integer supporting
		up to 48 bits of accuracy.
		
		This function is also available under the `readUintBE` alias.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.from([0x12, 0x34, 0x56, 0x78, 0x90, 0xab]);
		
		console.log(buf.readUIntBE(0, 6).toString(16));
		// Prints: 1234567890ab
		console.log(buf.readUIntBE(1, 6).toString(16));
		// Throws ERR_OUT_OF_RANGE.
		```
	**/
	function readUIntBE(offset:Float, byteLength:Float):Float;
	function readUintBE(offset:Float, byteLength:Float):Float;
	/**
		Reads `byteLength` number of bytes from `buf` at the specified `offset`and interprets the result as a little-endian, two's complement signed value
		supporting up to 48 bits of accuracy.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.from([0x12, 0x34, 0x56, 0x78, 0x90, 0xab]);
		
		console.log(buf.readIntLE(0, 6).toString(16));
		// Prints: -546f87a9cbee
		```
	**/
	function readIntLE(offset:Float, byteLength:Float):Float;
	/**
		Reads `byteLength` number of bytes from `buf` at the specified `offset`and interprets the result as a big-endian, two's complement signed value
		supporting up to 48 bits of accuracy.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.from([0x12, 0x34, 0x56, 0x78, 0x90, 0xab]);
		
		console.log(buf.readIntBE(0, 6).toString(16));
		// Prints: 1234567890ab
		console.log(buf.readIntBE(1, 6).toString(16));
		// Throws ERR_OUT_OF_RANGE.
		console.log(buf.readIntBE(1, 0).toString(16));
		// Throws ERR_OUT_OF_RANGE.
		```
	**/
	function readIntBE(offset:Float, byteLength:Float):Float;
	/**
		Reads an unsigned 8-bit integer from `buf` at the specified `offset`.
		
		This function is also available under the `readUint8` alias.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.from([1, -2]);
		
		console.log(buf.readUInt8(0));
		// Prints: 1
		console.log(buf.readUInt8(1));
		// Prints: 254
		console.log(buf.readUInt8(2));
		// Throws ERR_OUT_OF_RANGE.
		```
	**/
	function readUInt8(?offset:Float):Float;
	function readUint8(?offset:Float):Float;
	/**
		Reads an unsigned, little-endian 16-bit integer from `buf` at the specified`offset`.
		
		This function is also available under the `readUint16LE` alias.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.from([0x12, 0x34, 0x56]);
		
		console.log(buf.readUInt16LE(0).toString(16));
		// Prints: 3412
		console.log(buf.readUInt16LE(1).toString(16));
		// Prints: 5634
		console.log(buf.readUInt16LE(2).toString(16));
		// Throws ERR_OUT_OF_RANGE.
		```
	**/
	function readUInt16LE(?offset:Float):Float;
	function readUint16LE(?offset:Float):Float;
	/**
		Reads an unsigned, big-endian 16-bit integer from `buf` at the specified`offset`.
		
		This function is also available under the `readUint16BE` alias.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.from([0x12, 0x34, 0x56]);
		
		console.log(buf.readUInt16BE(0).toString(16));
		// Prints: 1234
		console.log(buf.readUInt16BE(1).toString(16));
		// Prints: 3456
		```
	**/
	function readUInt16BE(?offset:Float):Float;
	function readUint16BE(?offset:Float):Float;
	/**
		Reads an unsigned, little-endian 32-bit integer from `buf` at the specified`offset`.
		
		This function is also available under the `readUint32LE` alias.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.from([0x12, 0x34, 0x56, 0x78]);
		
		console.log(buf.readUInt32LE(0).toString(16));
		// Prints: 78563412
		console.log(buf.readUInt32LE(1).toString(16));
		// Throws ERR_OUT_OF_RANGE.
		```
	**/
	function readUInt32LE(?offset:Float):Float;
	function readUint32LE(?offset:Float):Float;
	/**
		Reads an unsigned, big-endian 32-bit integer from `buf` at the specified`offset`.
		
		This function is also available under the `readUint32BE` alias.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.from([0x12, 0x34, 0x56, 0x78]);
		
		console.log(buf.readUInt32BE(0).toString(16));
		// Prints: 12345678
		```
	**/
	function readUInt32BE(?offset:Float):Float;
	function readUint32BE(?offset:Float):Float;
	/**
		Reads a signed 8-bit integer from `buf` at the specified `offset`.
		
		Integers read from a `Buffer` are interpreted as two's complement signed values.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.from([-1, 5]);
		
		console.log(buf.readInt8(0));
		// Prints: -1
		console.log(buf.readInt8(1));
		// Prints: 5
		console.log(buf.readInt8(2));
		// Throws ERR_OUT_OF_RANGE.
		```
	**/
	function readInt8(?offset:Float):Float;
	/**
		Reads a signed, little-endian 16-bit integer from `buf` at the specified`offset`.
		
		Integers read from a `Buffer` are interpreted as two's complement signed values.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.from([0, 5]);
		
		console.log(buf.readInt16LE(0));
		// Prints: 1280
		console.log(buf.readInt16LE(1));
		// Throws ERR_OUT_OF_RANGE.
		```
	**/
	function readInt16LE(?offset:Float):Float;
	/**
		Reads a signed, big-endian 16-bit integer from `buf` at the specified `offset`.
		
		Integers read from a `Buffer` are interpreted as two's complement signed values.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.from([0, 5]);
		
		console.log(buf.readInt16BE(0));
		// Prints: 5
		```
	**/
	function readInt16BE(?offset:Float):Float;
	/**
		Reads a signed, little-endian 32-bit integer from `buf` at the specified`offset`.
		
		Integers read from a `Buffer` are interpreted as two's complement signed values.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.from([0, 0, 0, 5]);
		
		console.log(buf.readInt32LE(0));
		// Prints: 83886080
		console.log(buf.readInt32LE(1));
		// Throws ERR_OUT_OF_RANGE.
		```
	**/
	function readInt32LE(?offset:Float):Float;
	/**
		Reads a signed, big-endian 32-bit integer from `buf` at the specified `offset`.
		
		Integers read from a `Buffer` are interpreted as two's complement signed values.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.from([0, 0, 0, 5]);
		
		console.log(buf.readInt32BE(0));
		// Prints: 5
		```
	**/
	function readInt32BE(?offset:Float):Float;
	/**
		Reads a 32-bit, little-endian float from `buf` at the specified `offset`.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.from([1, 2, 3, 4]);
		
		console.log(buf.readFloatLE(0));
		// Prints: 1.539989614439558e-36
		console.log(buf.readFloatLE(1));
		// Throws ERR_OUT_OF_RANGE.
		```
	**/
	function readFloatLE(?offset:Float):Float;
	/**
		Reads a 32-bit, big-endian float from `buf` at the specified `offset`.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.from([1, 2, 3, 4]);
		
		console.log(buf.readFloatBE(0));
		// Prints: 2.387939260590663e-38
		```
	**/
	function readFloatBE(?offset:Float):Float;
	/**
		Reads a 64-bit, little-endian double from `buf` at the specified `offset`.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.from([1, 2, 3, 4, 5, 6, 7, 8]);
		
		console.log(buf.readDoubleLE(0));
		// Prints: 5.447603722011605e-270
		console.log(buf.readDoubleLE(1));
		// Throws ERR_OUT_OF_RANGE.
		```
	**/
	function readDoubleLE(?offset:Float):Float;
	/**
		Reads a 64-bit, big-endian double from `buf` at the specified `offset`.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.from([1, 2, 3, 4, 5, 6, 7, 8]);
		
		console.log(buf.readDoubleBE(0));
		// Prints: 8.20788039913184e-304
		```
	**/
	function readDoubleBE(?offset:Float):Float;
	/**
		Reverses the elements in an Array.
	**/
	function reverse():Buffer;
	/**
		Interprets `buf` as an array of unsigned 16-bit integers and swaps the
		byte order _in-place_. Throws `ERR_INVALID_BUFFER_SIZE` if `buf.length` is not a multiple of 2.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf1 = Buffer.from([0x1, 0x2, 0x3, 0x4, 0x5, 0x6, 0x7, 0x8]);
		
		console.log(buf1);
		// Prints: <Buffer 01 02 03 04 05 06 07 08>
		
		buf1.swap16();
		
		console.log(buf1);
		// Prints: <Buffer 02 01 04 03 06 05 08 07>
		
		const buf2 = Buffer.from([0x1, 0x2, 0x3]);
		
		buf2.swap16();
		// Throws ERR_INVALID_BUFFER_SIZE.
		```
		
		One convenient use of `buf.swap16()` is to perform a fast in-place conversion
		between UTF-16 little-endian and UTF-16 big-endian:
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.from('This is little-endian UTF-16', 'utf16le');
		buf.swap16(); // Convert to big-endian UTF-16 text.
		```
	**/
	function swap16():Buffer;
	/**
		Interprets `buf` as an array of unsigned 32-bit integers and swaps the
		byte order _in-place_. Throws `ERR_INVALID_BUFFER_SIZE` if `buf.length` is not a multiple of 4.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf1 = Buffer.from([0x1, 0x2, 0x3, 0x4, 0x5, 0x6, 0x7, 0x8]);
		
		console.log(buf1);
		// Prints: <Buffer 01 02 03 04 05 06 07 08>
		
		buf1.swap32();
		
		console.log(buf1);
		// Prints: <Buffer 04 03 02 01 08 07 06 05>
		
		const buf2 = Buffer.from([0x1, 0x2, 0x3]);
		
		buf2.swap32();
		// Throws ERR_INVALID_BUFFER_SIZE.
		```
	**/
	function swap32():Buffer;
	/**
		Interprets `buf` as an array of 64-bit numbers and swaps byte order _in-place_.
		Throws `ERR_INVALID_BUFFER_SIZE` if `buf.length` is not a multiple of 8.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf1 = Buffer.from([0x1, 0x2, 0x3, 0x4, 0x5, 0x6, 0x7, 0x8]);
		
		console.log(buf1);
		// Prints: <Buffer 01 02 03 04 05 06 07 08>
		
		buf1.swap64();
		
		console.log(buf1);
		// Prints: <Buffer 08 07 06 05 04 03 02 01>
		
		const buf2 = Buffer.from([0x1, 0x2, 0x3]);
		
		buf2.swap64();
		// Throws ERR_INVALID_BUFFER_SIZE.
		```
	**/
	function swap64():Buffer;
	/**
		Writes `value` to `buf` at the specified `offset`. `value` must be a
		valid unsigned 8-bit integer. Behavior is undefined when `value` is anything
		other than an unsigned 8-bit integer.
		
		This function is also available under the `writeUint8` alias.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.allocUnsafe(4);
		
		buf.writeUInt8(0x3, 0);
		buf.writeUInt8(0x4, 1);
		buf.writeUInt8(0x23, 2);
		buf.writeUInt8(0x42, 3);
		
		console.log(buf);
		// Prints: <Buffer 03 04 23 42>
		```
	**/
	function writeUInt8(value:Float, ?offset:Float):Float;
	function writeUint8(value:Float, ?offset:Float):Float;
	/**
		Writes `value` to `buf` at the specified `offset` as little-endian. The `value`must be a valid unsigned 16-bit integer. Behavior is undefined when `value` is
		anything other than an unsigned 16-bit integer.
		
		This function is also available under the `writeUint16LE` alias.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.allocUnsafe(4);
		
		buf.writeUInt16LE(0xdead, 0);
		buf.writeUInt16LE(0xbeef, 2);
		
		console.log(buf);
		// Prints: <Buffer ad de ef be>
		```
	**/
	function writeUInt16LE(value:Float, ?offset:Float):Float;
	function writeUint16LE(value:Float, ?offset:Float):Float;
	/**
		Writes `value` to `buf` at the specified `offset` as big-endian. The `value`must be a valid unsigned 16-bit integer. Behavior is undefined when `value`is anything other than an
		unsigned 16-bit integer.
		
		This function is also available under the `writeUint16BE` alias.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.allocUnsafe(4);
		
		buf.writeUInt16BE(0xdead, 0);
		buf.writeUInt16BE(0xbeef, 2);
		
		console.log(buf);
		// Prints: <Buffer de ad be ef>
		```
	**/
	function writeUInt16BE(value:Float, ?offset:Float):Float;
	function writeUint16BE(value:Float, ?offset:Float):Float;
	/**
		Writes `value` to `buf` at the specified `offset` as little-endian. The `value`must be a valid unsigned 32-bit integer. Behavior is undefined when `value` is
		anything other than an unsigned 32-bit integer.
		
		This function is also available under the `writeUint32LE` alias.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.allocUnsafe(4);
		
		buf.writeUInt32LE(0xfeedface, 0);
		
		console.log(buf);
		// Prints: <Buffer ce fa ed fe>
		```
	**/
	function writeUInt32LE(value:Float, ?offset:Float):Float;
	function writeUint32LE(value:Float, ?offset:Float):Float;
	/**
		Writes `value` to `buf` at the specified `offset` as big-endian. The `value`must be a valid unsigned 32-bit integer. Behavior is undefined when `value`is anything other than an
		unsigned 32-bit integer.
		
		This function is also available under the `writeUint32BE` alias.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.allocUnsafe(4);
		
		buf.writeUInt32BE(0xfeedface, 0);
		
		console.log(buf);
		// Prints: <Buffer fe ed fa ce>
		```
	**/
	function writeUInt32BE(value:Float, ?offset:Float):Float;
	function writeUint32BE(value:Float, ?offset:Float):Float;
	/**
		Writes `value` to `buf` at the specified `offset`. `value` must be a valid
		signed 8-bit integer. Behavior is undefined when `value` is anything other than
		a signed 8-bit integer.
		
		`value` is interpreted and written as a two's complement signed integer.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.allocUnsafe(2);
		
		buf.writeInt8(2, 0);
		buf.writeInt8(-2, 1);
		
		console.log(buf);
		// Prints: <Buffer 02 fe>
		```
	**/
	function writeInt8(value:Float, ?offset:Float):Float;
	/**
		Writes `value` to `buf` at the specified `offset` as little-endian.  The `value`must be a valid signed 16-bit integer. Behavior is undefined when `value` is
		anything other than a signed 16-bit integer.
		
		The `value` is interpreted and written as a two's complement signed integer.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.allocUnsafe(2);
		
		buf.writeInt16LE(0x0304, 0);
		
		console.log(buf);
		// Prints: <Buffer 04 03>
		```
	**/
	function writeInt16LE(value:Float, ?offset:Float):Float;
	/**
		Writes `value` to `buf` at the specified `offset` as big-endian.  The `value`must be a valid signed 16-bit integer. Behavior is undefined when `value` is
		anything other than a signed 16-bit integer.
		
		The `value` is interpreted and written as a two's complement signed integer.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.allocUnsafe(2);
		
		buf.writeInt16BE(0x0102, 0);
		
		console.log(buf);
		// Prints: <Buffer 01 02>
		```
	**/
	function writeInt16BE(value:Float, ?offset:Float):Float;
	/**
		Writes `value` to `buf` at the specified `offset` as little-endian. The `value`must be a valid signed 32-bit integer. Behavior is undefined when `value` is
		anything other than a signed 32-bit integer.
		
		The `value` is interpreted and written as a two's complement signed integer.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.allocUnsafe(4);
		
		buf.writeInt32LE(0x05060708, 0);
		
		console.log(buf);
		// Prints: <Buffer 08 07 06 05>
		```
	**/
	function writeInt32LE(value:Float, ?offset:Float):Float;
	/**
		Writes `value` to `buf` at the specified `offset` as big-endian. The `value`must be a valid signed 32-bit integer. Behavior is undefined when `value` is
		anything other than a signed 32-bit integer.
		
		The `value` is interpreted and written as a two's complement signed integer.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.allocUnsafe(4);
		
		buf.writeInt32BE(0x01020304, 0);
		
		console.log(buf);
		// Prints: <Buffer 01 02 03 04>
		```
	**/
	function writeInt32BE(value:Float, ?offset:Float):Float;
	/**
		Writes `value` to `buf` at the specified `offset` as little-endian. Behavior is
		undefined when `value` is anything other than a JavaScript number.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.allocUnsafe(4);
		
		buf.writeFloatLE(0xcafebabe, 0);
		
		console.log(buf);
		// Prints: <Buffer bb fe 4a 4f>
		```
	**/
	function writeFloatLE(value:Float, ?offset:Float):Float;
	/**
		Writes `value` to `buf` at the specified `offset` as big-endian. Behavior is
		undefined when `value` is anything other than a JavaScript number.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.allocUnsafe(4);
		
		buf.writeFloatBE(0xcafebabe, 0);
		
		console.log(buf);
		// Prints: <Buffer 4f 4a fe bb>
		```
	**/
	function writeFloatBE(value:Float, ?offset:Float):Float;
	/**
		Writes `value` to `buf` at the specified `offset` as little-endian. The `value`must be a JavaScript number. Behavior is undefined when `value` is anything
		other than a JavaScript number.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.allocUnsafe(8);
		
		buf.writeDoubleLE(123.456, 0);
		
		console.log(buf);
		// Prints: <Buffer 77 be 9f 1a 2f dd 5e 40>
		```
	**/
	function writeDoubleLE(value:Float, ?offset:Float):Float;
	/**
		Writes `value` to `buf` at the specified `offset` as big-endian. The `value`must be a JavaScript number. Behavior is undefined when `value` is anything
		other than a JavaScript number.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.allocUnsafe(8);
		
		buf.writeDoubleBE(123.456, 0);
		
		console.log(buf);
		// Prints: <Buffer 40 5e dd 2f 1a 9f be 77>
		```
	**/
	function writeDoubleBE(value:Float, ?offset:Float):Float;
	/**
		Fills `buf` with the specified `value`. If the `offset` and `end` are not given,
		the entire `buf` will be filled:
		
		```js
		import { Buffer } from 'node:buffer';
		
		// Fill a `Buffer` with the ASCII character 'h'.
		
		const b = Buffer.allocUnsafe(50).fill('h');
		
		console.log(b.toString());
		// Prints: hhhhhhhhhhhhhhhhhhhhhhhhhhhhhhhhhhhhhhhhhhhhhhhhhh
		
		// Fill a buffer with empty string
		const c = Buffer.allocUnsafe(5).fill('');
		
		console.log(c.fill(''));
		// Prints: <Buffer 00 00 00 00 00>
		```
		
		`value` is coerced to a `uint32` value if it is not a string, `Buffer`, or
		integer. If the resulting integer is greater than `255` (decimal), `buf` will be
		filled with `value &#x26; 255`.
		
		If the final write of a `fill()` operation falls on a multi-byte character,
		then only the bytes of that character that fit into `buf` are written:
		
		```js
		import { Buffer } from 'node:buffer';
		
		// Fill a `Buffer` with character that takes up two bytes in UTF-8.
		
		console.log(Buffer.allocUnsafe(5).fill('\u0222'));
		// Prints: <Buffer c8 a2 c8 a2 c8>
		```
		
		If `value` contains invalid characters, it is truncated; if no valid
		fill data remains, an exception is thrown:
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.allocUnsafe(5);
		
		console.log(buf.fill('a'));
		// Prints: <Buffer 61 61 61 61 61>
		console.log(buf.fill('aazz', 'hex'));
		// Prints: <Buffer aa aa aa aa aa>
		console.log(buf.fill('zz', 'hex'));
		// Throws an exception.
		```
	**/
	function fill(value:ts.AnyOf3<String, Float, js.lib.Uint8Array>, ?offset:Float, ?end:Float, ?encoding:global.nodejs.BufferEncoding):Buffer;
	/**
		If `value` is:
		
		* a string, `value` is interpreted according to the character encoding in`encoding`.
		* a `Buffer` or [`Uint8Array`](https://developer.mozilla.org/en-US/docs/Web/JavaScript/Reference/Global_Objects/Uint8Array), `value` will be used in its entirety.
		To compare a partial `Buffer`, use `buf.subarray`.
		* a number, `value` will be interpreted as an unsigned 8-bit integer
		value between `0` and `255`.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.from('this is a buffer');
		
		console.log(buf.indexOf('this'));
		// Prints: 0
		console.log(buf.indexOf('is'));
		// Prints: 2
		console.log(buf.indexOf(Buffer.from('a buffer')));
		// Prints: 8
		console.log(buf.indexOf(97));
		// Prints: 8 (97 is the decimal ASCII value for 'a')
		console.log(buf.indexOf(Buffer.from('a buffer example')));
		// Prints: -1
		console.log(buf.indexOf(Buffer.from('a buffer example').slice(0, 8)));
		// Prints: 8
		
		const utf16Buffer = Buffer.from('\u039a\u0391\u03a3\u03a3\u0395', 'utf16le');
		
		console.log(utf16Buffer.indexOf('\u03a3', 0, 'utf16le'));
		// Prints: 4
		console.log(utf16Buffer.indexOf('\u03a3', -4, 'utf16le'));
		// Prints: 6
		```
		
		If `value` is not a string, number, or `Buffer`, this method will throw a`TypeError`. If `value` is a number, it will be coerced to a valid byte value,
		an integer between 0 and 255.
		
		If `byteOffset` is not a number, it will be coerced to a number. If the result
		of coercion is `NaN` or `0`, then the entire buffer will be searched. This
		behavior matches [`String.prototype.indexOf()`](https://developer.mozilla.org/en-US/docs/Web/JavaScript/Reference/Global_Objects/String/indexOf).
		
		```js
		import { Buffer } from 'node:buffer';
		
		const b = Buffer.from('abcdef');
		
		// Passing a value that's a number, but not a valid byte.
		// Prints: 2, equivalent to searching for 99 or 'c'.
		console.log(b.indexOf(99.9));
		console.log(b.indexOf(256 + 99));
		
		// Passing a byteOffset that coerces to NaN or 0.
		// Prints: 1, searching the whole buffer.
		console.log(b.indexOf('b', undefined));
		console.log(b.indexOf('b', {}));
		console.log(b.indexOf('b', null));
		console.log(b.indexOf('b', []));
		```
		
		If `value` is an empty string or empty `Buffer` and `byteOffset` is less
		than `buf.length`, `byteOffset` will be returned. If `value` is empty and`byteOffset` is at least `buf.length`, `buf.length` will be returned.
	**/
	function indexOf(value:ts.AnyOf3<String, Float, js.lib.Uint8Array>, ?byteOffset:Float, ?encoding:global.nodejs.BufferEncoding):Float;
	/**
		Identical to `buf.indexOf()`, except the last occurrence of `value` is found
		rather than the first occurrence.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.from('this buffer is a buffer');
		
		console.log(buf.lastIndexOf('this'));
		// Prints: 0
		console.log(buf.lastIndexOf('buffer'));
		// Prints: 17
		console.log(buf.lastIndexOf(Buffer.from('buffer')));
		// Prints: 17
		console.log(buf.lastIndexOf(97));
		// Prints: 15 (97 is the decimal ASCII value for 'a')
		console.log(buf.lastIndexOf(Buffer.from('yolo')));
		// Prints: -1
		console.log(buf.lastIndexOf('buffer', 5));
		// Prints: 5
		console.log(buf.lastIndexOf('buffer', 4));
		// Prints: -1
		
		const utf16Buffer = Buffer.from('\u039a\u0391\u03a3\u03a3\u0395', 'utf16le');
		
		console.log(utf16Buffer.lastIndexOf('\u03a3', undefined, 'utf16le'));
		// Prints: 6
		console.log(utf16Buffer.lastIndexOf('\u03a3', -5, 'utf16le'));
		// Prints: 4
		```
		
		If `value` is not a string, number, or `Buffer`, this method will throw a`TypeError`. If `value` is a number, it will be coerced to a valid byte value,
		an integer between 0 and 255.
		
		If `byteOffset` is not a number, it will be coerced to a number. Any arguments
		that coerce to `NaN`, like `{}` or `undefined`, will search the whole buffer.
		This behavior matches [`String.prototype.lastIndexOf()`](https://developer.mozilla.org/en-US/docs/Web/JavaScript/Reference/Global_Objects/String/lastIndexOf).
		
		```js
		import { Buffer } from 'node:buffer';
		
		const b = Buffer.from('abcdef');
		
		// Passing a value that's a number, but not a valid byte.
		// Prints: 2, equivalent to searching for 99 or 'c'.
		console.log(b.lastIndexOf(99.9));
		console.log(b.lastIndexOf(256 + 99));
		
		// Passing a byteOffset that coerces to NaN.
		// Prints: 1, searching the whole buffer.
		console.log(b.lastIndexOf('b', undefined));
		console.log(b.lastIndexOf('b', {}));
		
		// Passing a byteOffset that coerces to 0.
		// Prints: -1, equivalent to passing 0.
		console.log(b.lastIndexOf('b', null));
		console.log(b.lastIndexOf('b', []));
		```
		
		If `value` is an empty string or empty `Buffer`, `byteOffset` will be returned.
	**/
	function lastIndexOf(value:ts.AnyOf3<String, Float, js.lib.Uint8Array>, ?byteOffset:Float, ?encoding:global.nodejs.BufferEncoding):Float;
	/**
		Creates and returns an [iterator](https://developer.mozilla.org/en-US/docs/Web/JavaScript/Reference/Iteration_protocols) of `[index, byte]` pairs from the contents
		of `buf`.
		
		```js
		import { Buffer } from 'node:buffer';
		
		// Log the entire contents of a `Buffer`.
		
		const buf = Buffer.from('buffer');
		
		for (const pair of buf.entries()) {
		   console.log(pair);
		}
		// Prints:
		//   [0, 98]
		//   [1, 117]
		//   [2, 102]
		//   [3, 102]
		//   [4, 101]
		//   [5, 114]
		```
	**/
	function entries():js.lib.IterableIterator<ts.Tuple2<Float, Float>>;
	/**
		Equivalent to `buf.indexOf() !== -1`.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.from('this is a buffer');
		
		console.log(buf.includes('this'));
		// Prints: true
		console.log(buf.includes('is'));
		// Prints: true
		console.log(buf.includes(Buffer.from('a buffer')));
		// Prints: true
		console.log(buf.includes(97));
		// Prints: true (97 is the decimal ASCII value for 'a')
		console.log(buf.includes(Buffer.from('a buffer example')));
		// Prints: false
		console.log(buf.includes(Buffer.from('a buffer example').slice(0, 8)));
		// Prints: true
		console.log(buf.includes('this', 4));
		// Prints: false
		```
	**/
	function includes(value:ts.AnyOf3<String, Float, Buffer>, ?byteOffset:Float, ?encoding:global.nodejs.BufferEncoding):Bool;
	/**
		Creates and returns an [iterator](https://developer.mozilla.org/en-US/docs/Web/JavaScript/Reference/Iteration_protocols) of `buf` keys (indices).
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.from('buffer');
		
		for (const key of buf.keys()) {
		   console.log(key);
		}
		// Prints:
		//   0
		//   1
		//   2
		//   3
		//   4
		//   5
		```
	**/
	function keys():js.lib.IterableIterator<Float>;
	/**
		Creates and returns an [iterator](https://developer.mozilla.org/en-US/docs/Web/JavaScript/Reference/Iteration_protocols) for `buf` values (bytes). This function is
		called automatically when a `Buffer` is used in a `for..of` statement.
		
		```js
		import { Buffer } from 'node:buffer';
		
		const buf = Buffer.from('buffer');
		
		for (const value of buf.values()) {
		   console.log(value);
		}
		// Prints:
		//   98
		//   117
		//   102
		//   102
		//   101
		//   114
		
		for (const value of buf) {
		   console.log(value);
		}
		// Prints:
		//   98
		//   117
		//   102
		//   102
		//   101
		//   114
		```
	**/
	function values():js.lib.IterableIterator<Float>;
	/**
		The size in bytes of each element in the array.
	**/
	final BYTES_PER_ELEMENT : Float;
	/**
		The ArrayBuffer instance referenced by the array.
	**/
	final buffer : ts.AnyOf2<js.lib.ArrayBuffer, js.lib.SharedArrayBuffer>;
	/**
		The length in bytes of the array.
	**/
	final byteLength : Float;
	/**
		The offset in bytes of the array.
	**/
	final byteOffset : Float;
	/**
		Returns the this object after copying a section of the array identified by start and end
		to the same array starting at position target
	**/
	function copyWithin(target:Float, start:Float, ?end:Float):Buffer;
	/**
		Determines whether all the members of an array satisfy the specified test.
	**/
	function every(callbackfn:(value:Float, index:Float, array:js.lib.Uint8Array) -> Any, ?thisArg:Dynamic):Bool;
	/**
		Returns the elements of an array that meet the condition specified in a callback function.
	**/
	function filter(callbackfn:(value:Float, index:Float, array:js.lib.Uint8Array) -> Dynamic, ?thisArg:Dynamic):js.lib.Uint8Array;
	/**
		Returns the value of the first element in the array where predicate is true, and undefined
		otherwise.
	**/
	function find(predicate:(value:Float, index:Float, obj:js.lib.Uint8Array) -> Bool, ?thisArg:Dynamic):Null<Float>;
	/**
		Returns the index of the first element in the array where predicate is true, and -1
		otherwise.
	**/
	function findIndex(predicate:(value:Float, index:Float, obj:js.lib.Uint8Array) -> Bool, ?thisArg:Dynamic):Float;
	/**
		Performs the specified action for each element in an array.
	**/
	function forEach(callbackfn:(value:Float, index:Float, array:js.lib.Uint8Array) -> Void, ?thisArg:Dynamic):Void;
	/**
		Adds all the elements of an array separated by the specified separator string.
	**/
	function join(?separator:String):String;
	/**
		The length of the array.
	**/
	final length : Float;
	/**
		Calls a defined callback function on each element of an array, and returns an array that
		contains the results.
	**/
	function map(callbackfn:(value:Float, index:Float, array:js.lib.Uint8Array) -> Float, ?thisArg:Dynamic):js.lib.Uint8Array;
	/**
		Calls the specified callback function for all the elements in an array. The return value of
		the callback function is the accumulated result, and is provided as an argument in the next
		call to the callback function.
		
		Calls the specified callback function for all the elements in an array. The return value of
		the callback function is the accumulated result, and is provided as an argument in the next
		call to the callback function.
	**/
	@:overload(function(callbackfn:(previousValue:Float, currentValue:Float, currentIndex:Float, array:js.lib.Uint8Array) -> Float, initialValue:Float):Float { })
	@:overload(function<U>(callbackfn:(previousValue:U, currentValue:Float, currentIndex:Float, array:js.lib.Uint8Array) -> U, initialValue:U):U { })
	function reduce(callbackfn:(previousValue:Float, currentValue:Float, currentIndex:Float, array:js.lib.Uint8Array) -> Float):Float;
	/**
		Calls the specified callback function for all the elements in an array, in descending order.
		The return value of the callback function is the accumulated result, and is provided as an
		argument in the next call to the callback function.
		
		Calls the specified callback function for all the elements in an array, in descending order.
		The return value of the callback function is the accumulated result, and is provided as an
		argument in the next call to the callback function.
	**/
	@:overload(function(callbackfn:(previousValue:Float, currentValue:Float, currentIndex:Float, array:js.lib.Uint8Array) -> Float, initialValue:Float):Float { })
	@:overload(function<U>(callbackfn:(previousValue:U, currentValue:Float, currentIndex:Float, array:js.lib.Uint8Array) -> U, initialValue:U):U { })
	function reduceRight(callbackfn:(previousValue:Float, currentValue:Float, currentIndex:Float, array:js.lib.Uint8Array) -> Float):Float;
	/**
		Sets a value or an array of values.
	**/
	function set(array:js.lib.ArrayLike<Float>, ?offset:Float):Void;
	/**
		Determines whether the specified callback function returns true for any element of an array.
	**/
	function some(callbackfn:(value:Float, index:Float, array:js.lib.Uint8Array) -> Any, ?thisArg:Dynamic):Bool;
	/**
		Sorts an array.
	**/
	function sort(?compareFn:(a:Float, b:Float) -> Float):Buffer;
	/**
		Converts a number to a string by using the current locale.
	**/
	function toLocaleString():String;
	/**
		Takes an integer value and returns the item at that index,
		allowing for positive and negative integers.
		Negative integers count back from the last item in the array.
	**/
	function at(index:Float):Null<Float>;
};