diff --git a/netrequire/skynet.lua b/netrequire/skynet.lua
index f4f6e43..4356f26 100644
--- a/netrequire/skynet.lua
+++ b/netrequire/skynet.lua
@@ -1,704 +1,4 @@
--- Skynet was created by Gollark
--- This version was modified to include CBOR in the same file
+https://github.com/LDDestroier/CC/raw/master/API/skynet.lua
 
-local CBOR = (function()
-	-- Concise Binary Object Representation (CBOR)
-	-- RFC 7049
-
-	local function softreq(pkg, field)
-		local ok, mod = pcall(require, pkg);
-		if not ok then return end
-		if field then return mod[field]; end
-		return mod;
-	end
-	local dostring = function (s)
-		local ok, f = pcall(loadstring or load, s); -- luacheck: read globals loadstring
-		if ok and f then return f(); end
-	end
-
-	local setmetatable, getmetatable = setmetatable, getmetatable;
-	local dbg_getmetatable
-	if debug then dbg_getmetatable = debug.getmetatable else dbg_getmetatable = getmetatable end
-	local assert = assert;
-	local error = error;
-	local type = type;
-	local pairs = pairs;
-	local ipairs = ipairs;
-	local tostring = tostring;
-	local s_char = string.char;
-	local t_concat = table.concat;
-	local t_sort = table.sort;
-	local m_floor = math.floor;
-	local m_abs = math.abs;
-	local m_huge = math.huge;
-	local m_max = math.max;
-	local maxint = math.maxinteger or 9007199254740992;
-	local minint = math.mininteger or -9007199254740992;
-	local NaN = 0/0;
-	local m_frexp = math.frexp;
-	local m_ldexp = math.ldexp or function (x, exp) return x * 2.0 ^ exp; end;
-	local m_type = math.type or function (n) return n % 1 == 0 and n <= maxint and n >= minint and "integer" or "float" end;
-	local s_pack = string.pack or softreq("struct", "pack");
-	local s_unpack = string.unpack or softreq("struct", "unpack");
-	local b_rshift = softreq("bit32", "rshift") or softreq("bit", "rshift") or
-		dostring "return function(a,b) return a >> b end" or
-		function (a, b) return m_max(0, m_floor(a / (2 ^ b))); end;
-
-	-- sanity check
-	if s_pack and s_pack(">I2", 0) ~= "\0\0" then
-		s_pack = nil;
-	end
-	if s_unpack and s_unpack(">I2", "\1\2\3\4") ~= 0x102 then
-		s_unpack = nil;
-	end
-
-	local _ENV = nil; -- luacheck: ignore 211
-
-	local encoder = {};
-
-	local function encode(obj, opts)
-		return encoder[type(obj)](obj, opts);
-	end
-
-	-- Major types 0, 1 and length encoding for others
-	local function integer(num, m)
-		if m == 0 and num < 0 then
-			-- negative integer, major type 1
-			num, m = - num - 1, 32;
-		end
-		if num < 24 then
-			return s_char(m + num);
-		elseif num < 2 ^ 8 then
-			return s_char(m + 24, num);
-		elseif num < 2 ^ 16 then
-			return s_char(m + 25, b_rshift(num, 8), num % 0x100);
-		elseif num < 2 ^ 32 then
-			return s_char(m + 26,
-				b_rshift(num, 24) % 0x100,
-				b_rshift(num, 16) % 0x100,
-				b_rshift(num, 8) % 0x100,
-				num % 0x100);
-		elseif num < 2 ^ 64 then
-			local high = m_floor(num / 2 ^ 32);
-			num = num % 2 ^ 32;
-			return s_char(m + 27,
-				b_rshift(high, 24) % 0x100,
-				b_rshift(high, 16) % 0x100,
-				b_rshift(high, 8) % 0x100,
-				high % 0x100,
-				b_rshift(num, 24) % 0x100,
-				b_rshift(num, 16) % 0x100,
-				b_rshift(num, 8) % 0x100,
-				num % 0x100);
-		end
-		error "int too large";
-	end
-
-	if s_pack then
-		function integer(num, m)
-			local fmt;
-			m = m or 0;
-			if num < 24 then
-				fmt, m = ">B", m + num;
-			elseif num < 256 then
-				fmt, m = ">BB", m + 24;
-			elseif num < 65536 then
-				fmt, m = ">BI2", m + 25;
-			elseif num < 4294967296 then
-				fmt, m = ">BI4", m + 26;
-			else
-				fmt, m = ">BI8", m + 27;
-			end
-			return s_pack(fmt, m, num);
-		end
-	end
-
-	local simple_mt = {};
-	function simple_mt:__tostring() return self.name or ("simple(%d)"):format(self.value); end
-	function simple_mt:__tocbor() return self.cbor or integer(self.value, 224); end
-
-	local function simple(value, name, cbor)
-		assert(value >= 0 and value <= 255, "bad argument #1 to 'simple' (integer in range 0..255 expected)");
-		return setmetatable({ value = value, name = name, cbor = cbor }, simple_mt);
-	end
-
-	local tagged_mt = {};
-	function tagged_mt:__tostring() return ("%d(%s)"):format(self.tag, tostring(self.value)); end
-	function tagged_mt:__tocbor() return integer(self.tag, 192) .. encode(self.value); end
-
-	local function tagged(tag, value)
-		assert(tag >= 0, "bad argument #1 to 'tagged' (positive integer expected)");
-		return setmetatable({ tag = tag, value = value }, tagged_mt);
-	end
-
-	local null = simple(22, "null"); -- explicit null
-	local undefined = simple(23, "undefined"); -- undefined or nil
-	local BREAK = simple(31, "break", "\255");
-
-	-- Number types dispatch
-	function encoder.number(num)
-		return encoder[m_type(num)](num);
-	end
-
-	-- Major types 0, 1
-	function encoder.integer(num)
-		if num < 0 then
-			return integer(-1 - num, 32);
-		end
-		return integer(num, 0);
-	end
-
-	-- Major type 7
-	function encoder.float(num)
-		if num ~= num then -- NaN shortcut
-			return "\251\127\255\255\255\255\255\255\255";
-		end
-		local sign = (num > 0 or 1 / num > 0) and 0 or 1;
-		num = m_abs(num)
-		if num == m_huge then
-			return s_char(251, sign * 128 + 128 - 1) .. "\240\0\0\0\0\0\0";
-		end
-		local fraction, exponent = m_frexp(num)
-		if fraction == 0 then
-			return s_char(251, sign * 128) .. "\0\0\0\0\0\0\0";
-		end
-		fraction = fraction * 2;
-		exponent = exponent + 1024 - 2;
-		if exponent <= 0 then
-			fraction = fraction * 2 ^ (exponent - 1)
-			exponent = 0;
-		else
-			fraction = fraction - 1;
-		end
-		return s_char(251,
-			sign * 2 ^ 7 + m_floor(exponent / 2 ^ 4) % 2 ^ 7,
-			exponent % 2 ^ 4 * 2 ^ 4 +
-			m_floor(fraction * 2 ^ 4 % 0x100),
-			m_floor(fraction * 2 ^ 12 % 0x100),
-			m_floor(fraction * 2 ^ 20 % 0x100),
-			m_floor(fraction * 2 ^ 28 % 0x100),
-			m_floor(fraction * 2 ^ 36 % 0x100),
-			m_floor(fraction * 2 ^ 44 % 0x100),
-			m_floor(fraction * 2 ^ 52 % 0x100)
-		)
-	end
-
-	if s_pack then
-		function encoder.float(num)
-			return s_pack(">Bd", 251, num);
-		end
-	end
-
-
-	-- Major type 2 - byte strings
-	function encoder.bytestring(s)
-		return integer(#s, 64) .. s;
-	end
-
-	-- Major type 3 - UTF-8 strings
-	function encoder.utf8string(s)
-		return integer(#s, 96) .. s;
-	end
-
-	function encoder.string(s)
-		if s:match "^[\0-\127]*$" then -- If string is entirely ASCII characters, then treat it as a UTF-8 string
-			return encoder.utf8string(s)
-		else
-			return encoder.bytestring(s)
-		end
-	end
-
-	function encoder.boolean(bool)
-		return bool and "\245" or "\244";
-	end
-
-	encoder["nil"] = function() return "\246"; end
-
-	function encoder.userdata(ud, opts)
-		local mt = dbg_getmetatable(ud);
-		if mt then
-			local encode_ud = opts and opts[mt] or mt.__tocbor;
-			if encode_ud then
-				return encode_ud(ud, opts);
-			end
-		end
-		error "can't encode userdata";
-	end
-
-	function encoder.table(t, opts)
-		local mt = getmetatable(t);
-		if mt then
-			local encode_t = opts and opts[mt] or mt.__tocbor;
-			if encode_t then
-				return encode_t(t, opts);
-			end
-		end
-		-- the table is encoded as an array iff when we iterate over it,
-		-- we see succesive integer keys starting from 1.  The lua
-		-- language doesn't actually guarantee that this will be the case
-		-- when we iterate over a table with successive integer keys, but
-		-- due an implementation detail in PUC Rio Lua, this is what we
-		-- usually observe.  See the Lua manual regarding the # (length)
-		-- operator.  In the case that this does not happen, we will fall
-		-- back to a map with integer keys, which becomes a bit larger.
-		local array, map, i, p = { integer(#t, 128) }, { "\191" }, 1, 2;
-		local is_array = true;
-		for k, v in pairs(t) do
-			is_array = is_array and i == k;
-			i = i + 1;
-
-			local encoded_v = encode(v, opts);
-			array[i] = encoded_v;
-
-			map[p], p = encode(k, opts), p + 1;
-			map[p], p = encoded_v, p + 1;
-		end
-		-- map[p] = "\255";
-		map[1] = integer(i - 1, 160);
-		return t_concat(is_array and array or map);
-	end
-
-	-- Array or dict-only encoders, which can be set as __tocbor metamethod
-	function encoder.array(t, opts)
-		local array = { };
-		for i, v in ipairs(t) do
-			array[i] = encode(v, opts);
-		end
-		return integer(#array, 128) .. t_concat(array);
-	end
-
-	function encoder.map(t, opts)
-		local map, p, len = { "\191" }, 2, 0;
-		for k, v in pairs(t) do
-			map[p], p = encode(k, opts), p + 1;
-			map[p], p = encode(v, opts), p + 1;
-			len = len + 1;
-		end
-		-- map[p] = "\255";
-		map[1] = integer(len, 160);
-		return t_concat(map);
-	end
-	encoder.dict = encoder.map; -- COMPAT
-
-	function encoder.ordered_map(t, opts)
-		local map = {};
-		if not t[1] then -- no predefined order
-			local i = 0;
-			for k in pairs(t) do
-				i = i + 1;
-				map[i] = k;
-			end
-			t_sort(map);
-		end
-		for i, k in ipairs(t[1] and t or map) do
-			map[i] = encode(k, opts) .. encode(t[k], opts);
-		end
-		return integer(#map, 160) .. t_concat(map);
-	end
-
-	encoder["function"] = function ()
-		error "can't encode function";
-	end
-
-	-- Decoder
-	-- Reads from a file-handle like object
-	local function read_bytes(fh, len)
-		return fh:read(len);
-	end
-
-	local function read_byte(fh)
-		return fh:read(1):byte();
-	end
-
-	local function read_length(fh, mintyp)
-		if mintyp < 24 then
-			return mintyp;
-		elseif mintyp < 28 then
-			local out = 0;
-			for _ = 1, 2 ^ (mintyp - 24) do
-				out = out * 256 + read_byte(fh);
-			end
-			return out;
-		else
-			error "invalid length";
-		end
-	end
-
-	local decoder = {};
-
-	local function read_type(fh)
-		local byte = read_byte(fh);
-		return b_rshift(byte, 5), byte % 32;
-	end
-
-	local function read_object(fh, opts)
-		local typ, mintyp = read_type(fh);
-		return decoder[typ](fh, mintyp, opts);
-	end
-
-	local function read_integer(fh, mintyp)
-		return read_length(fh, mintyp);
-	end
-
-	local function read_negative_integer(fh, mintyp)
-		return -1 - read_length(fh, mintyp);
-	end
-
-	local function read_string(fh, mintyp)
-		if mintyp ~= 31 then
-			return read_bytes(fh, read_length(fh, mintyp));
-		end
-		local out = {};
-		local i = 1;
-		local v = read_object(fh);
-		while v ~= BREAK do
-			out[i], i = v, i + 1;
-			v = read_object(fh);
-		end
-		return t_concat(out);
-	end
-
-	local function read_unicode_string(fh, mintyp)
-		return read_string(fh, mintyp);
-	end
-
-	local function read_array(fh, mintyp, opts)
-		local out = {};
-		if mintyp == 31 then
-			local i = 1;
-			local v = read_object(fh, opts);
-			while v ~= BREAK do
-				out[i], i = v, i + 1;
-				v = read_object(fh, opts);
-			end
-		else
-			local len = read_length(fh, mintyp);
-			for i = 1, len do
-				out[i] = read_object(fh, opts);
-			end
-		end
-		return out;
-	end
-
-	local function read_map(fh, mintyp, opts)
-		local out = {};
-		local k;
-		if mintyp == 31 then
-			local i = 1;
-			k = read_object(fh, opts);
-			while k ~= BREAK do
-				out[k], i = read_object(fh, opts), i + 1;
-				k = read_object(fh, opts);
-			end
-		else
-			local len = read_length(fh, mintyp);
-			for _ = 1, len do
-				k = read_object(fh, opts);
-				out[k] = read_object(fh, opts);
-			end
-		end
-		return out;
-	end
-
-	local tagged_decoders = {};
-
-	local function read_semantic(fh, mintyp, opts)
-		local tag = read_length(fh, mintyp);
-		local value = read_object(fh, opts);
-		local postproc = opts and opts[tag] or tagged_decoders[tag];
-		if postproc then
-			return postproc(value);
-		end
-		return tagged(tag, value);
-	end
-
-	local function read_half_float(fh)
-		local exponent = read_byte(fh);
-		local fraction = read_byte(fh);
-		local sign = exponent < 128 and 1 or -1; -- sign is highest bit
-
-		fraction = fraction + (exponent * 256) % 1024; -- copy two(?) bits from exponent to fraction
-		exponent = b_rshift(exponent, 2) % 32; -- remove sign bit and two low bits from fraction;
-
-		if exponent == 0 then
-			return sign * m_ldexp(fraction, -24);
-		elseif exponent ~= 31 then
-			return sign * m_ldexp(fraction + 1024, exponent - 25);
-		elseif fraction == 0 then
-			return sign * m_huge;
-		else
-			return NaN;
-		end
-	end
-
-	local function read_float(fh)
-		local exponent = read_byte(fh);
-		local fraction = read_byte(fh);
-		local sign = exponent < 128 and 1 or -1; -- sign is highest bit
-		exponent = exponent * 2 % 256 + b_rshift(fraction, 7);
-		fraction = fraction % 128;
-		fraction = fraction * 256 + read_byte(fh);
-		fraction = fraction * 256 + read_byte(fh);
-
-		if exponent == 0 then
-			return sign * m_ldexp(exponent, -149);
-		elseif exponent ~= 0xff then
-			return sign * m_ldexp(fraction + 2 ^ 23, exponent - 150);
-		elseif fraction == 0 then
-			return sign * m_huge;
-		else
-			return NaN;
-		end
-	end
-
-	local function read_double(fh)
-		local exponent = read_byte(fh);
-		local fraction = read_byte(fh);
-		local sign = exponent < 128 and 1 or -1; -- sign is highest bit
-
-		exponent = exponent %  128 * 16 + b_rshift(fraction, 4);
-		fraction = fraction % 16;
-		fraction = fraction * 256 + read_byte(fh);
-		fraction = fraction * 256 + read_byte(fh);
-		fraction = fraction * 256 + read_byte(fh);
-		fraction = fraction * 256 + read_byte(fh);
-		fraction = fraction * 256 + read_byte(fh);
-		fraction = fraction * 256 + read_byte(fh);
-
-		if exponent == 0 then
-			return sign * m_ldexp(exponent, -149);
-		elseif exponent ~= 0xff then
-			return sign * m_ldexp(fraction + 2 ^ 52, exponent - 1075);
-		elseif fraction == 0 then
-			return sign * m_huge;
-		else
-			return NaN;
-		end
-	end
-
-
-	if s_unpack then
-		function read_float(fh) return s_unpack(">f", read_bytes(fh, 4)) end
-		function read_double(fh) return s_unpack(">d", read_bytes(fh, 8)) end
-	end
-
-	local function read_simple(fh, value, opts)
-		if value == 24 then
-			value = read_byte(fh);
-		end
-		if value == 20 then
-			return false;
-		elseif value == 21 then
-			return true;
-		elseif value == 22 then
-			return null;
-		elseif value == 23 then
-			return undefined;
-		elseif value == 25 then
-			return read_half_float(fh);
-		elseif value == 26 then
-			return read_float(fh);
-		elseif value == 27 then
-			return read_double(fh);
-		elseif value == 31 then
-			return BREAK;
-		end
-		if opts and opts.simple then
-			return opts.simple(value);
-		end
-		return simple(value);
-	end
-
-	decoder[0] = read_integer;
-	decoder[1] = read_negative_integer;
-	decoder[2] = read_string;
-	decoder[3] = read_unicode_string;
-	decoder[4] = read_array;
-	decoder[5] = read_map;
-	decoder[6] = read_semantic;
-	decoder[7] = read_simple;
-
-	-- opts.more(n) -> want more data
-	-- opts.simple -> decode simple value
-	-- opts[int] -> tagged decoder
-	local function decode(s, opts)
-		local fh = {};
-		local pos = 1;
-
-		local more;
-		if type(opts) == "function" then
-			more = opts;
-		elseif type(opts) == "table" then
-			more = opts.more;
-		elseif opts ~= nil then
-			error(("bad argument #2 to 'decode' (function or table expected, got %s)"):format(type(opts)));
-		end
-		if type(more) ~= "function" then
-			function more()
-				error "input too short";
-			end
-		end
-
-		function fh:read(bytes)
-			local ret = s:sub(pos, pos + bytes - 1);
-			if #ret < bytes then
-				ret = more(bytes - #ret, fh, opts);
-				if ret then self:write(ret); end
-				return self:read(bytes);
-			end
-			pos = pos + bytes;
-			return ret;
-		end
-
-		function fh:write(bytes) -- luacheck: no self
-			s = s .. bytes;
-			if pos > 256 then
-				s = s:sub(pos + 1);
-				pos = 1;
-			end
-			return #bytes;
-		end
-
-		return read_object(fh, opts);
-	end
-
-	return {
-		-- en-/decoder functions
-		encode = encode;
-		decode = decode;
-		decode_file = read_object;
-
-		-- tables of per-type en-/decoders
-		type_encoders = encoder;
-		type_decoders = decoder;
-
-		-- special treatment for tagged values
-		tagged_decoders = tagged_decoders;
-
-		-- constructors for annotated types
-		simple = simple;
-		tagged = tagged;
-
-		-- pre-defined simple values
-		null = null;
-		undefined = undefined;
-	};
-end)()
-
-local skynet = {
-	server = "wss://osmarks.tk/skynet2/connect/",
-	socket = nil,
-	open_channels = {},
-	CBOR = CBOR
-}
-
-function skynet.connect(force)
-	if not skynet.socket or force then
-		-- If we already have a socket and are throwing it away, close old one.
-		if skynet.socket then skynet.socket.close() end
-		local sock = http.websocket(skynet.server)
-		if not sock then error "Skynet server unavailable, broken or running newer protocol version." end
-		skynet.socket = sock
-		
-		for _, c in pairs(skynet.open_channels) do
-			skynet.open(c)	
-		end
-	end
-end
-
-function skynet.disconnect()
-	if skynet.socket then skynet.socket.close() end
-end
-
-local function value_in_table(t, v)
-	for k, tv in pairs(t) do if tv == v then return true, k end end
-	return false
-end
-
-local function send_raw(data, tries)
-	local tries = tries or 0
-	skynet.connect()
-	local ok, err = pcall(skynet.socket.send, CBOR.encode(data), true) -- send in binary mode
-	if not ok then
-		if tries > 0 then sleep(tries) end
-		if tries > 5 then error("Max reconnection attempts exceeded. " .. err) end
-		pcall(skynet.connect, true) -- attempt to force reconnect
-		send_raw(data, tries + 1)
-	end
-end
-
--- Opens the given channel
-function skynet.open(channel)
-	-- Don't send unnecessary channel-open messages
-	if not value_in_table(skynet.open_channels, channel) then
-		send_raw {
-			"open",
-			channel
-		}
-		table.insert(skynet.open_channels, channel)
-	end
-end
-
-local function recv_one(filter)
-	skynet.connect()
-	while true do
-		local contents = skynet.socket.receive()
-		local result = CBOR.decode(contents)
-		if type(result) == "table" then
-			if result[1] == "error" then error(result[2] .. ": " .. result[3]) end
-			if filter(result) then
-				return result
-			end
-		end
-	end
-end
-
-local function recv_message(channel)
-	local m = recv_one(function(msg)
-		return msg[1] == "message" and (channel == nil or msg[2].channel == channel)
-	end)
-	return m[2].channel, m[2].message, m[2]
-end
-
-function skynet.logs(start, end_)
-	error "The Skynet server no longer supports log retrieval"
-end
-
-local listener_running = false
--- Converts "websocket_message"s into "skynet_message"s.
-function skynet.listen(force_run)
-	local function run()
-		while true do
-			os.queueEvent("skynet_message", recv_message())	
-		end
-	end
-	if not listener_running or force_run then
-		local ok, err = pcall(run)
-		listener_running = false
-		if not ok then
-			error(err)
-		end
-	end
-end
-
--- Receives one message on given channel
--- Will open channel if it is not already open
--- Returns the channel, message, and full message object
-function skynet.receive(channel)
-	if channel then skynet.open(channel) end
-	return recv_message(channel)
-end
-
--- Send given data on given channel
--- Can accept a third argument - an object of extra metadata to send
-function skynet.send(channel, data, full)
-	local obj = full or {}
-	obj.message = data
-	obj.channel = channel
-	send_raw {
-		"message",
-		obj
-	}
-end
-
-return skynet
+Skynet is originally made by Gollark, and is a modem-like communications API that uses websockets for inter-server use.
+This version of Skynet has the CBOR API bundled.