diff --git a/rbx/conversion.luau b/rbx/conversion.luau
deleted file mode 100644
index d4871b5..0000000
--- a/rbx/conversion.luau
+++ /dev/null
@@ -1,210 +0,0 @@
---[[
-	This exists because if the Option module were to have methods to convert
-	to Result, and the Result module were to have methods to convert to Option,
-	there would be a cyclic dependency.
-
-	So, if a consumer of this library wants to convert between the two, they
-	would rather import this conversion module.
-]]
-
-local option = require(script.Parent.option)
-local Option = option.Option
-export type Option<T> = option.Option<T>
-local None = option.None
-local Some = option.Some
-
-local result = require(script.Parent.result)
-local Result = result.Result
-export type Result<T, E> = result.Result<T, E>
-local Ok = result.Ok
-local Err = result.Err
-
---[=[
-	@within Result
-
-	Converts from [Result]`<T, E>` to [Option]`<T>`.
-
-	Converts `self` into an [Option]`<T>`, and discarding the error, if any.
-
-	```lua
-	local x: Result<number, string> = Ok(2)
-	assert(x:ok() == Some(2))
-
-	x = Err("Nothing here")
-	assert(x:ok() == None())
-	```
-
-	@param self Result<T, E>
-	@return Option<T>
-]=]
-function Result.ok<T, E>(self: Result<T, E>): Option<T>
-	if self:isOk() then
-		if self._value == nil then
-			return None()
-		end
-
-		return Some(self._value)
-	end
-
-	return None()
-end
-
---[=[
-	@within Result
-
-	Converts from [Result]`<T, E>` to [Option]`<E>`.
-
-	Converts `self` into an [Option]`<E>`, and discarding the success value, if any.
-
-	```lua
-	local x: Result<number, string> = Ok(2)
-	assert(x:ok() == Some(2))
-
-	x = Err("Nothing here")
-	assert(x:ok() == None())
-	```
-
-	@param self Result<T, E>
-	@return Option<E>
-]=]
-function Result.err<T, E>(self: Result<T, E>): Option<E>
-	if self:isErr() then
-		return Option.new(self._error) :: Option<E>
-	end
-
-	return None()
-end
-
---[=[
-	@within Result
-
-	Transposes a [Result] of an [Option] into an [Option] of a [Result].
-
-	[Result:Ok]\([Option:None]\) will be mapped to [Option:None]. 
-	[Result:Ok]\([Option:Some]`(_)`\) and [Result:Err]\(`_`\) will be mapped to 
-	[Option:Some]\([Result:Ok]`(_)`\) and [Option:Some]\([Option:Err]`(_)`\).
-
-	```lua
-	type SomeErr = {}
-	
-	local x: Result<Option<number>, SomeErr> = Ok(Some(2))
-	local y: Option<Result<number, SomeErr>> = Some(Ok(2))
-	assert(x:transpose() == y)
-	```
-
-	@param self Result<Option<T>, E>
-	@return Option<Result<T, E>>
-]=]
-function Result.transpose<T, E>(self: Result<Option<T>, E>): Option<Result<T, E>>
-	if self._value == None() then
-		return None()
-	elseif self:isOkAnd(function(val): boolean
-		return val._optValue == nil
-	end) then
-		return Some(Ok(self._value._optValue))
-	elseif self:isErr() then
-		return Some(Err(self._error))
-	end
-
-	error("`Result` is not transposable")
-end
-
---[=[
-	@within Option
-
-	Transforms the [Option]`<T>` into a [Result]`<T, E>`, mapping [Option:Some]`(v)` 
-	to [Result:Ok]`(v)` and [Option:None] to [Result:Err]`(err)`.
-
-	Arguments passed to [Option:okOr] are eagerly evaluated; if you are passing the result 
-	of a function call, it is recommended to use [Option:okOrElse], which is lazily evaluated.
-
-	```lua
-	local x: Option<string> = Some("foo")
-	assert(x:okOr(0) == Ok("foo"))
-
-	x = None()
-	assert(x:okOr(0) == Err(0))
-	```
-
-	@param self Option<T>
-	@param err E
-	@return Result<T, E>
-]=]
-function Option.okOr<T, E>(self: Option<T>, err: E): Result<T, E>
-	if self:isSome() then
-		return Ok(self._optValue)
-	end
-
-	return Err(err)
-end
-
---[=[
-	@within Option
-
-	Transforms the [Option]`<T>` into a [Result]`<T, E>`, mapping [Option:Some]`(v)` to
-	[Result:Ok]`(v)` and [Option:None] to [Result:Err]`(err())`.
-
-	```lua
-	local x: Option<string> = Some("foo")
-	assert(x:okOrElse(function() return 0 end) == Ok("foo"))
-
-	x = None()
-	assert(x:okOrElse(function() return 0 end) == Err(0))
-	```
-
-	@param self Option<T>
-	@param err () -> E
-	@return Result<T, E>
-]=]
-function Option.okOrElse<T, E>(self: Option<T>, err: () -> E): Result<T, E>
-	if self:isSome() then
-		return Ok(self._optValue :: T)
-	end
-
-	return Err(err())
-end
-
---[=[
-	@within Option
-
-	Transposes a [Option] of an [Result] into an [Result] of a [Option].
-
-	[Option:None] will be mapped to [Result:Ok]\([Option:None]\). 
-	[Option:Some]\([Result:Ok]`(_)`\) and [Option:Some]\([Result:Err]\(`_`\)\) will 
-	be mapped to [Result:Ok]\([Option:Some]`(_)`\) and [Result:Err]`(_)`.
-
-	```lua
-	type SomeErr = {}
-	
-	local x: Result<Option<number>, SomeErr> = Ok(Some(5))
-	local y: Option<Result<number, SomeErr>> = Some(Ok(5))
-	assert(x == y:transpose())
-	```
-
-	@param self Option<Result<T, E>>
-	@return Result<Option<T>, E>
-]=]
-function Option.transpose<T, E>(self: Option<Result<T, E>>): Result<Option<T>, E>
-	if self:isSome() then
-		local inner = self._optValue
-		assert(self.typeId == "Option" and inner.typeId == "Result", "Only an `Option` of a `Result` can be transposed")
-
-		if inner:isOk() then
-			return Some(Ok(inner._value))
-		elseif inner:isErr() then
-			return Some(Err(inner._error))
-		end
-	end
-
-	return Ok(None())
-end
-
-return {
-	Ok = Ok,
-	Err = Err,
-	Result = Result,
-
-	Some = Some,
-	None = None,
-	Option = Option,
-}
diff --git a/rbx/future.luau b/rbx/future.luau
deleted file mode 100644
index 90e32f6..0000000
--- a/rbx/future.luau
+++ /dev/null
@@ -1,218 +0,0 @@
-local isRoblox = _VERSION == "Luau"
-local isLune = _VERSION:find("Lune") == 1
-local deps = if isLune then require(script.Parent.Parent.deps)else require(script.Parent.deps)
-local requires = deps(isRoblox, isLune)
-local util = require(script.Parent.util)
-
-local Signal = util.Signal
-type Signal<T...> = util.Signal<T...>
-
-local task = requires.task
-
-local result = require(script.Parent.result)
-type Result<T, E> = result.Result<T, E>
-local Ok = result.Ok
-local Err = result.Err
-
-local option = require(script.Parent.option)
-type Option<T> = option.Option<T>
-local None = option.None
-local Some = option.Some
-
---[=[
-	@class Future
-
-	A future represents an asynchronous computation.
-
-	A future is a value that might not have finished computing yet. This kind of “asynchronous value” 
-	makes it possible for a thread to  continue doing useful work while it waits for the value to 
-	become available.
-
-	### The [Future:poll] Method
-	The core method of future, poll, attempts to resolve the future into a final value. This method does 
-	not block if the value is not ready. Instead, the current task is executed in the background, and
-	its progress is reported when polled. When using a future, you generally won’t call poll directly, 
-	but instead [Future:await] the value.
-
-	```lua
-	local net = require("@lune/net")
-
-	local fut: Future<Result<string, string>> = Future.try(function(url)
-		local resp = net.request({
-			url = url,
-			method = "GET",
-		})
-
-		assert(resp.ok)
-
-		return resp.body
-	end, { "https://jsonplaceholder.typicode.com/posts/1" })
-
-	local resp: Result<string, string> = fut:await()
-	print(net.jsonDecode(resp:unwrap()))
-	```
-]=]
-local Future = {}
-
---[=[
-	@private
-	@type Status "initialized" | "pending" | "cancelled" | "ready"
-	@within Future
-
-	Represents the status of a [Future].
-]=]
-export type Status = "initialized" | "pending" | "cancelled" | "ready"
-
---[=[
-	@private
-	@interface Future<T>
-	@within Future
-
-	Represents the internal state of a [Future].
-	
-	@field _thread thread -- The background coroutine spawned for execution 
-	@field _ret T -- The value returned once execution has halted
-	@field _spawnEvt Signal<()> -- Event for internal communication among threads pre execution
-	@field _retEvt Signal<T | Result<T, string>, Status> -- Event for internal communication among threads post execution
-	@field _status Status -- The status of the Future
-
-]=]
-export type Future<T> = typeof(Future) & {
-	_ret: T,
-	_thread: thread,
-	_spawnEvt: Signal<()>,
-	_retEvt: Signal<T | Result<T, string>, Status>,
-	_status: Status
-}
-
-local function _constructor<T>(fn: (Signal<()>, Signal<T, Status>) -> ())
-	return setmetatable(
-		{
-			_thread = coroutine.create(fn),
-
-			_spawnEvt = Signal.new(),
-			-- This is a hack to make luau realize that this object and
-			-- Future<T> are related
-			_retEvt = Signal.new() :: Signal<T | Result<T, string>, Status>,
-
-			_status = "initialized",
-		} :: Future<T>,
-		{
-			__index = Future,
-		}
-	)
-end
-
---[=[
-	@within Future
-
-	Constructs a [Future] from a function to be run asynchronously. 
-
-	:::caution
-	If a the provided function has the possibility to throw an error, instead of any 
-	other rusty-luau types like [Result] or [Option], use [Future:try] instead.
-	:::
-
-	@param fn -- The function to be executed asynchronously
-	@param args -- The arguments table to be passed to to the function
-	@return Future<T> -- The constructed future
-]=]
-function Future.new<T>(fn: (...any) -> T, args: { any })
-	return _constructor(function(spawnEvt: Signal<()>, retEvt: Signal<T, Status>)
-		spawnEvt:Fire()
-
-		local ret = fn(table.unpack(args))
-		retEvt:Fire(ret, "ready")
-	end)
-end
-
---[=[
-	@within Future
-
-	Constructs a fallible [Future] from a function to be run asynchronously. 
-
-	@param fn -- The fallible function to be executed asynchronously
-	@param args -- The arguments table to be passed to to the function
-	@return Future<Result<T>> -- The constructed future
-]=]
-function Future.try<T>(fn: (...any) -> T, args: { any })
-	return _constructor(function(spawnEvt: Signal<()>, retEvt: Signal<Result<T, string>, Status>)
-		spawnEvt:Fire()
-
-		local ok, ret = pcall(fn, table.unpack(args))
-		local res: Result<T, string> = if ok then Ok(ret) else Err(ret)
-		retEvt:Fire(res, "ready")
-	end)
-end
-
---[=[
-	@within Future
-
-	Polls a [Future] to completion. 
-
-	@param self Future<T> 
-	@return (Status, Option<T>) -- Returns the [Status] and an optional return if completed
-]=]
-function Future.poll<T>(self: Future<T>): (Status, Option<T>)
-	if self._status == "initialized" then
-		self._retEvt:Connect(function(firedRet, status: Status)
-			self._status = status
-			self._ret = firedRet
-
-			-- Cleanup
-			coroutine.yield(self._thread)
-			coroutine.close(self._thread)
-
-			self._spawnEvt:DisconnectAll()
-			self._retEvt:DisconnectAll()
-		end)
-
-		self._spawnEvt:Connect(function()
-			self._status = "pending"
-		end)
-
-		coroutine.resume(self._thread, self._spawnEvt, self._retEvt)
-	end
-
-	if self._status == "pending" then
-		-- Just wait a bit more for the signal to fire
-		task.wait(0.01)
-	end
-
-	local retOpt = if self._ret == nil then None() else Some(self._ret)
-	return self._status, retOpt
-end
-
---[=[
-	@within Future
-
-	Cancels a [Future]. 
-
-	@param self Future<T>
-]=]
-function Future.cancel<T>(self: Future<T>)
-	self._retEvt:Fire(nil :: any, "cancelled")
-	self._status = "cancelled"
-end
-
---[=[
-	@within Future
-
-	Suspend execution until the result of a [Future] is ready. 
-	This method continuosly polls a [Future] until it reaches completion. 
-
-	@param self Future<T> 
-	@return T -- The value returned by the function on completion
-]=]
-function Future.await<T>(self: Future<T>): Option<T>
-	while true do
-		local status: Status, ret: Option<T> = self:poll()
-
-		if status == "ready" then
-			-- Safe to unwrap, we know it must not be nil
-			return ret
-		end
-	end
-end
-
-return Future
diff --git a/rbx/option.luau b/rbx/option.luau
deleted file mode 100644
index ba71769..0000000
--- a/rbx/option.luau
+++ /dev/null
@@ -1,918 +0,0 @@
-local tableEq = require(script.Parent.util).tableEq
-
---[=[
-	@class Option
-
-	Type [Option] represents an optional value: every [Option] is either [Option:Some] 
-	and contains a value, or [Option:None], and does not. Common uses of an [Option]
-	may involve:
-
-	* Initial values
-	* Return values for functions that are not defined over their entire input range (partial functions)
-	* Return value for otherwise reporting simple errors, where None is returned on error
-	* Optional object fields
-	* Values that can be loaned or “taken”
-	* Optional function arguments
-
-	```lua
-	function divide(numerator: number, denominator: number): Option<number>
-		if denominator == 0 then
-			None()
-		else
-			return Some(numerator / denominator)
-		end
-	end
-	```
-]=]
-local Option = {}
-
-export type Option<T> = typeof(Option) & {
-	_optValue: T?,
-	typeId: "Option"
-}
-
---[=[
-	@within Option
-
-	No value.
-]=]
-function None<T>(): Option<T>
-	return Option.new(nil) :: Option<T>
-end
-
---[=[
-	@within Option
-
-	Some value of type `T`.
-]=]
-function Some<T>(val: T): Option<T>
-	return Option.new(val) :: Option<T>
-end
-
---[=[
-	@within Option
-
-	Converts a potentially `nil` value into an [Option].
-
-	@param val T? -- The value to convert into an [Option]
-	@return Option<T>
-]=]
-function Option.new<T>(val: T?)
-	return setmetatable(
-		{
-			_optValue = val,
-			typeId = "Option",
-		} :: Option<T>,
-		{
-			__index = Option,
-			__tostring = function<T>(self: Option<T>)
-				if self._optValue == nil then
-					return `{self.typeId}::None`
-				else
-					return `{self.typeId}::Some({self._optValue})`
-				end
-			end,
-
-			__eq = function<T>(self: Option<T>, other: Option<T>): boolean
-				if typeof(self._optValue) == "table" and typeof(other._optValue) == "table" then
-					return tableEq(self._optValue, other._optValue)
-				else
-					return self._optValue == other._optValue
-				end
-			end,
-			__lt = function<T>(self: Option<T>, other: Option<T>): boolean
-				if self:isSome() and other:isSome() then
-					return (self._optValue :: any) < (other._optValue :: any)
-				end
-
-				return false
-			end,
-			__le = function<T>(self: Option<T>, other: Option<T>): boolean
-				if self:isSome() and other:isSome() then
-					return (self._optValue :: any) <= (other._optValue :: any)
-				end
-
-				return false
-			end,
-		}
-
-		-- TODO: Implement __iter, once iterators traits exist
-	)
-end
-
---[=[
-	@within Option
-
-	Returns `true` is the [Option] is an [Option:Some] value.
-
-	@param self Option<T>
-	@return boolean
-]=]
-function Option.isSome<T>(self: Option<T>): boolean
-	return self._optValue ~= nil
-end
-
---[=[
-	@within Option
-
-	Returns `true` is the [Option] is an [Option:Some] value and the value inside of it 
-	matches a predicate.
-
-	@param self Option<T>
-	@param op (val: T) -> boolean -- The predicate function
-	@return boolean
-]=]
-function Option.isSomeAnd<T>(self: Option<T>, op: (val: T) -> boolean): boolean
-	-- We know that it's not None, so this is fine
-	return self:isSome() and op(self._optValue :: T)
-end
-
---[=[
-	@within Option
-
-	Returns `true` is the [Option] is an [Option:None] value.
-
-	@param self Option<T>
-	@return boolean
-]=]
-function Option.isNone<T>(self: Option<T>): boolean
-	return not self:isSome()
-end
-
---[=[
-	@within Option
-
-	Returns the [Option:Some].
-
-	@error panic -- Panics if there is an [Option:None] with a custom panic message provided by `msg`.
-
-	```lua
-	local x: Option<string> = Some("value")
-	assert(x:expect("fruits are healthy") == "value")
-	```
-
-	```lua
-	local x: Option<string> = None()
-	x:expect("fruits are healthy") -- panics with `fruits are healthy`
-	```
-
-	@param self Option<T>
-	@param msg string -- The panic message
-	@return boolean
-]=]
-function Option.expect<T>(self: Option<T>, msg: string): T | never
-	if self:isSome() then
-		return self._optValue :: T
-	end
-
-	return error(`panic: {msg}; expected Option to be type Option::Some(T), got Option::None`)
-end
-
---[=[
-	@within Option
-
-	Returns the [Option:Some].
-
-	Because this function may panic, its use is generally discouraged. Instead, prefer to use 
-	[Option:unwrapOr], [Option:unwrapOrElse], or [Option:unwrapOrDefault].
-
-	@error panic -- Panics if the self value is [Option:None].
-	@param self Option<T>
-	@return T | never
-]=]
-function Option.unwrap<T>(self: Option<T>): T | never
-	if self:isSome() then
-		return self._optValue :: T
-	end
-
-	return error("called `Option:unwrap()` on a `None` value")
-end
-
---[=[
-	@within Option
-
-	Returns the contained [Option:Some] value or a provided default.
-
-	Arguments passed to unwrap_or are eagerly evaluated; if you are passing the result of 
-	a function call, it is recommended to use [Option:unwrapOrElse], which is lazily 
-	evaluated.
-
-	```lua
-	assert(Some("car"):unwrapOr("bike") == "car")
-	assert(None():unwrapOr("bike") == "bike")
-	```
-
-	@param self Option<T>
-	@param default T -- The default value
-	@return T
-]=]
-function Option.unwrapOr<T>(self: Option<T>, default: T): T
-	if self:isSome() then
-		return self._optValue :: T
-	end
-
-	return default
-end
-
---[=[
-	@within Option
-
-	Returns the contained [Option:Some] value or computes it from a function.
-
-	```lua
-	local k = 10
-	assert(Some(4).unwrapOrElse(function()
-		return 2 * k
-	end) == 4)
-	assert(None().unwrapOrElse(function()
-		return 2 * k 
-	end) == 20)
-	```
-
-	@param self Option<T>
-	@param default () -> T -- The function which computes the default value
-	@return T
-]=]
-function Option.unwrapOrElse<T>(self: Option<T>, default: () -> T): T
-	if self:isSome() then
-		return self._optValue :: T
-	end
-
-	return default()
-end
-
---[=[
-	@within Option
-
-	Maps an [Option]<T> to [Option]<U> by applying a function to a contained value 
-	(if [Option:Some]) or returns [Option:None](if [Option:None]).
-
-	```lua
-	local maybeSomeString: Option<string> = Some("Hello, World!")
-	
-	local maybeSomeLen: Option<number> = maybeSomeString:map(function(s)
-		return #s
-	end)
-	assert(maybeSomeLen == 13)
-
-	local x: Option<string> = None()
-	assert(x:map(function(s) 
-		return #s
-	end) == None())
-	```
-
-	@param self Option<T>
-	@param op (x: T) -> U? -- The function to apply
-	@return Option<U>
-]=]
-function Option.map<T, U>(self: Option<T>, op: (x: T) -> U?): Option<U>
-	if self:isSome() then
-		local val = op(self._optValue :: T)
-
-		if val == nil then
-			return None()
-		end
-
-		return Some(val)
-	end
-
-	return None()
-end
-
---[=[
-	@within Option
-
-	Calls the provided closure with the contained value (if [Option:Some]).
-
-	```lua
-	local v = { 1, 2, 3, 4, 5 }
-
-	-- prints "got: 4"
-	local x: Option<number> = Option.new(v[4]):inspect(function(x)
-		print("got: " .. x)
-	end)
-
-	-- prints nothing
-	local x: Option<number> = Option.new(v[5]):inspect(function(x) 
-		print("got: " .. x)
-	end)
-	```
-
-	@param self Option<T>
-	@param op (x: T) -> () -- The function to call
-	@return Option<T>
-]=]
-function Option.inspect<T>(self: Option<T>, op: (x: T) -> ()): Option<T>
-	if self:isSome() then
-		op(self._optValue :: T)
-	end
-
-	return self
-end
-
---[=[
-	@within Option
-
-	Returns the provided default result (if none), or applies a function to 
-	the contained value (if any).
-
-	Arguments passed to [Option:mapOr] are eagerly evaluated; if you are passing the 
-	result of a function call, it is recommended to use [Option:mapOrElse], 
-	which is lazily evaluated.
-	
-	```lua
-	local x: Option<string> = Some("foo")
-	assert(x.mapOr(42, function(v) return #v end) == 3)
-
-	local x: Option<string> = None()
-	assert(x.mapOr(42, function(v) return #v end) == 42)
-	```
-	@param self Option<T>
-	@param default U -- The default value
-	@param op (val: T) -> U -- The function to apply
-	@return Option<T>
-]=]
-function Option.mapOr<T, U>(self: Option<T>, default: U, op: (val: T) -> U)
-	if self:isSome() then
-		return op(self._optValue :: T)
-	end
-
-	return default
-end
-
---[=[
-	@within Option
-
-	Computes a default function result (if none), or applies a different function 
-	to the contained value (if any).
-	
-	```lua
-	local k = 21;
-
-	local x: Option<string> = Some("foo")
-	assert(
-		x:mapOrElse(
-			function() return 2 * k end,
-			function(v) return #v end
-		) == 3
-	)
-
-	local x: Option<string> = None()
-	assert(
-		x:mapOrElse(
-			function() return 2 * k end,
-			function(v) return #v end
-		) == 42
-	)
-	```
-
-	@param self Option<T>
-	@param default () -> U -- The function to compute the default value
-	@param op (val: T) -> U -- The function to apply
-	@return Option<T>
-]=]
-function Option.mapOrElse<T, U>(self: Option<T>, default: () -> U, op: (val: T) -> U): U
-	if self:isSome() then
-		return op(self._optValue :: T)
-	end
-
-	return default()
-end
-
--- TODO: Iterator traits
-function Option.iter(): never
-	return error("Unimplemented: `Option:iter()`")
-end
-
---[=[
-	@within Option
-
-	Returns [Option:None] if the option is [Option:None], otherwise returns `optb`.
-
-	Arguments passed to and are eagerly evaluated; if you are passing the result of a 
-	function call, it is recommended to use [Option:andThen], which is lazily evaluated.
-	
-	```lua
-	local x: Option<number> = Some(2)
-	local y: Option<String> = None()
-	assert(x:and_(y) == None())
-
-	local x: Option<number> = None()
-	local y: Option<string> = Some("foo")
-	assert(x:and_(y) == None())
-
-	local x: Option<number> = Some(2)
-	local y: Option<string> = Some("foo")
-	assert(x:and_(y) == Some("foo"))
-
-	local x: Option<u32> = None()
-	local y: Option<string> = None()
-	assert(x:and_(y), None())
-	```
-
-	@param self Option<T>
-	@param optb Option<U> -- The other option
-	@return Option<U>
-]=]
-function Option.and_<T, U>(self: Option<T>, optb: Option<U>): Option<U>
-	if self:isSome() then
-		return optb
-	end
-
-	return None()
-end
-
---[=[
-	@within Option
-
-	Returns [Option:None] if the option is [Option:None], otherwise calls `op` with the wrapped 
-	value and returns the result.
-
-	Some languages call this operation flatmap.
-	
-	```lua
-	function sqThenToString(x: number): Option<string>
-		return Option.new(x ^ 2):map(function(sq)
-			return tostring(sq)
-		end)
-	end
-
-	assert(Some(2):andThen(sqThenToString) == Some(tostring(4)))
-	assert(None():andThen(sqThenToString) == None())
-	```
-
-	Often used to chain fallible operations that may return [Option:None].
-
-	```lua
-	local arr2d = { { "A0", "A1" }, { "B0", "B1" } }
-
-	local item01: Option<string> = Option.new(arr2d[1]):andThen(function(row)
-		return row[2]
-	end)
-	assert(item01 == Some("A1"))
-
-	local item20: Option<string> = Option.new(arr2d[3]):andThen(function(row)
-		return row[0]
-	end)
-	assert(item20 == None())
-	```
-
-	@param self Option<T>
-	@param op (val: T) -> Option<U> -- The function to call
-	@return Option<U>
-]=]
-function Option.andThen<T, U>(self: Option<T>, op: (val: T) -> Option<U>): Option<U>
-	if self:isSome() then
-		return op(self._optValue :: T)
-	end
-
-	return None()
-end
-
---[=[
-	@within Option
-
-	Returns [Option:None] if the option is [Option:None], otherwise calls `predicate` with 
-	the wrapped value and returns:
-
-	* [Option:Some](t) if predicate returns `true` (where `t` is the wrapped value), and
-	* [Option:None] if predicate returns `false`.
-	
-	```lua
-	function isEven(n: number): boolean
-		return n % 2 == 0
-	end
-
-	assert(None():filter(isEven) == None())
-	assert(Some(3):filter(isEven) == None())
-	assert(Some(4):filter(isEven) == Some(4))
-	```
-
-	@param self Option<T>
-	@param predicate (val: T) -> boolean -- The predicate function which must match an element 
-	@return Option<T>
-]=]
-function Option.filter<T>(self: Option<T>, predicate: (val: T) -> boolean): Option<T>
-	if self:isSome() then
-		if predicate(self._optValue :: T) then
-			return self
-		end
-	end
-
-	return None()
-end
-
---[=[
-	@within Option
-
-	Returns the option if it contains a value, otherwise returns `optb`.
-
-	Arguments passed to [Option:or_] are eagerly evaluated; if you are passing the result of 
-	a function call, it is recommended to use [Option:orElse], which is lazily 
-	evaluated.
-	
-	```lua
-	local x: Option<number> = Some(2)
-	local y: Option<number> = None()
-	assert(x:or_(y) == Some(2))
-
-	local x: Option<number> = None()
-	local y: Option<number> = Some(100)
-	assert(x:or_(y) == Some(100))
-
-	local x: Option<number> = Some(2)
-	local y: Option<number> = Some(100)
-	assert(x:or_(y) == Some(2))
-
-	local x: Option<number> = None()
-	local y: Option<number> = None()
-	assert(x:or_(y), None())
-	```
-
-	@param self Option<T>
-	@param optb Option<T> -- The other option 
-	@return Option<T>
-]=]
-function Option.or_<T>(self: Option<T>, optb: Option<T>): Option<T>
-	if self:isSome() then
-		return self
-	end
-
-	return optb
-end
-
---[=[
-	@within Option
-
-	Returns the option if it contains a value, otherwise calls `op` and returns the result.
-	
-	```lua
-	function nobody(): Option<string>
-		return None()
-	end
-	function vikings(): Option<string>
-		return Some("vikings")
-	end
-
-	assert(Some("barbarians"):orElse(vikings) == Some("barbarians"))
-	assert(None():orElse(vikings) == Some("vikings"))
-	assert(None():orElse(nobody) == None())
-	```
-
-	@param self Option<T>
-	@param op () -> Option<T> -- The function to call 
-	@return Option<T>
-]=]
-function Option.orElse<T>(self: Option<T>, op: () -> Option<T>): Option<T>
-	if self:isSome() then
-		return self
-	end
-
-	return op()
-end
-
---[=[
-	@within Option
-
-	Returns [Option:Some] if exactly one of `self`, `optb` is [Option:Some], 
-	otherwise returns [Option:None].
-	
-	```lua
-	local x: Option<number> = Some(2)
-	local y: Option<number> = None()
-	assert(x:xor(y) == Some(2))
-
-	local x: Option<number> = None()
-	local y: Option<number> = Some(2)
-	assert(x:xor(y) == Some(2))
-
-	local x: Option<number> = Some(2)
-	local y: Option<number> = Some(2)
-	assert(x:xor(y) == None())
-
-	local x: Option<number> = None()
-	local y: Option<number> = None()
-	assert(x:xor(y) == None())
-	```
-
-	@param self Option<T>
-	@param optb Option<T> -- The other option
-	@return Option<T>
-]=]
-function Option.xor<T>(self: Option<T>, optb: Option<T>): Option<T>
-	if self:isSome() and optb:isSome() then
-		return None()
-	end
-
-	if self:isSome() then
-		return self
-	elseif optb:isSome() then
-		return optb
-	end
-
-	return None()
-end
-
---[=[
-	@within Option
-
-	Inserts value into the option, then returns it.
-
-	If the option already contains a value, the old value is dropped.
-
-	See also [Option:getOrInsert], which doesn’t update the value if the 
-	option already contains [Option:Some].
-	
-	```lua
-	local opt: Option<number> = None()
-	local val: number = opt:insert(1)
-	assert(val == 1)
-	assert(opt:unwrap() == 1)
-
-	local val: number = opt:insert(2)
-	assert(val == 2)
-	```
-
-	@param self Option<T>
-	@param val T -- The value to insert
-	@return T
-]=]
-function Option.insert<T>(self: Option<T>, val: T): T
-	self._optValue = val
-	return self._optValue :: T
-end
-
---[=[
-	@within Option
-
-	Inserts value into the option, then returns it.
-
-	If the option already contains a value, the old value is dropped.
-
-	See also [Option:getOrInsert], which doesn’t update the value if the 
-	option already contains [Option:Some].
-	
-	```lua
-	local opt: Option<number> = None()
-	local val: number = opt:insert(1)
-	assert(val == 1)
-	assert(opt:unwrap() == 1)
-
-	local val: number = opt:insert(2)
-	assert(val == 2)
-	```
-
-	@param self Option<T>
-	@param val T -- The value to insert
-	@return T
-]=]
-function Option.getOrInsert<T>(self: Option<T>, val: T): T
-	if self:isNone() then
-		self._optValue = val
-	end
-
-	return self._optValue :: T
-end
-
---[=[
-	@within Option
-
-	Takes the value out of the option, leaving an [Option:None] in its place.
-	
-	```lua
-	local x: Option<number> = Some(2)
-	local y: Option<number> = x.take()
-	assert(x == None())
-	assert(y == Some(2))
-
-	local x: Option<number> = None()
-	local y: Option<number> = x.take()
-	assert(x == None())
-	assert(y == None())
-	```
-
-	@param self Option<T>
-	@return Option<T>
-]=]
-function Option.take<T>(self: Option<T>): Option<T>
-	if self:isSome() then
-		local val = self._optValue :: T
-		self._optValue = nil
-		return Some(val)
-	end
-
-	return None()
-end
-
---[=[
-	@within Option
-
-	Replaces the actual value in the option by the value given in parameter, returning 
-	the old value if present, leaving an [Option:Some] in its place without 
-	deinitializing either one.
-	
-	```lua
-	local x: Option<number> = Some(2)
-	local old: Option<number> = x:replace(5)
-	assert(x == Some(5))
-	assert(old == Some(2))
-
-	local x: Option<number> = None()
-	local old: Option<number> = x:replace(3)
-	assert(x == Some(3))
-	assert(old == None())
-	```
-
-	@param self Option<T>
-	@param val T
-	@return Option<T>
-]=]
-function Option.replace<T>(self: Option<T>, val: T): Option<T>
-	local current: Option<T> = self
-	self._optValue = val
-
-	if current:isNone() then
-		return current
-	end
-
-	return Some(current._optValue :: T)
-end
-
---[=[
-	@within Option
-
-	Returns true if `val` is contained in the [Option:Some].
-	
-	```lua
-	local x: Option<number> = Some(2)
-	local y: Option<number> = None()
-
-	assert(x:contains(2))
-	assert(x:contains(4))
-	assert(not y:contains(2))
-	```
-
-	@param self Option<T>
-	@param val T
-	@return boolean
-]=]
-function Option.contains<T>(self: Option<T>, val: T): boolean
-	if self:isSome() then
-		return self._optValue == val
-	end
-
-	return false
-end
-
---[=[
-	@within Option
-
-	Zips `self` with another [Option].
-	
-	If `self` is [Option:Some](s) and other is [Option:Some](o), this method returns 
-	[Option:Some]({s, o}). Otherwise, [Option:None] is returned.
-
-	```lua
-	local x: Option<number> = Some(1)
-	local y: Option<string> = Some("hi")
-	local z: Option<number> = None()
-
-	assert(x:zip(y) == Some({ 1, "hi" }))
-	assert(x:zip(z) == None())
-	```
-
-	@param self Option<T>
-	@param other Option>U>
-	@return Option<{T | U}>
-]=]
-function Option.zip<T, U>(self: Option<T>, other: Option<U>): Option<{ T | U }>
-	if self:isSome() and other:isSome() then
-		return Some({ self._optValue, other._optValue })
-	end
-
-	return None()
-end
-
---[=[
-	@within Option
-
-	Zips `self` and another [Option] with function `op`.
-	
-	If `self` is [Option:Some](s) and other is [Option:Some](o), this method returns 
-	[Option:Some](op(s, o)). Otherwise, [Option:None] is returned.
-
-	```lua
-	type Point = {
-		x: number,
-		y: number,
-	}
-	local Point: Point & {
-		new: (x: number, y: number) -> Point,
-	} = {}
-
-	function Point.new(x: number, y: number): Point
-		return {
-			x = x,
-			y = y,
-		}
-	end
-
-	local xCoord: Option<number> = Some(17.5)
-	local yCoord: Option<number> = Some(42.7)
-
-	assert(xCoord:zipWith(yCoord, Point.new), Some({ x = 17.5, y = 42.7 }))
-	assert(x:zipWith(None(), Point.new), None())
-	```
-
-	@param self Option<T>
-	@param other Option>U>
-	@param op (x: T, y: U) -> R?
-	@return Option<R>
-]=]
-function Option.zipWith<T, U, R>(self: Option<T>, other: Option<U>, op: (x: T, y: U) -> R?): Option<R>
-	if self:isSome() and other:isSome() then
-		local computed = op(self._optValue :: T, other._optValue :: U)
-
-		if computed ~= nil then
-			return Some(computed :: R)
-		end
-	end
-
-	return None()
-end
-
---[=[
-	@within Option
-
-	Unzips an option containing a table of two options.
-	
-	If `self` is `Some({a, b})` this method returns `(Some(a), Some(b))`.
-	Otherwise, `(None(), None())` is returned.
-
-	```lua
-	local x: Option<{ number | string }> = Some({ 1, "hi" })
-	local y: Option<{ number }> = None()
-
-	assert((x:unzip() == Some(1), Some("hi")))
-	assert((y:unzip() == None(), None()))
-	```
-
-	@param self Option<T>
-	@return (Option<A>, Option<B>)
-]=]
-function Option.unzip<T, A, B>(self: Option<T>): (Option<A>, Option<B>)
-	if self:isSome() then
-		if self:isSome() and typeof(self._optValue) == "table" and #self._optValue == 2 then
-			return Some(self._optValue[1] :: A), Some(self._optValue[2] :: B)
-		end
-	end
-
-	return None(), None()
-end
-
---[=[
-	@within Option
-
-	Returns the inner value wrapped by the [Option].
-
-	```lua
-	local x: Option<string> = Some("lol")
-	local y: Option<string> = None()
-
-	assert(x:unwrapUnchecked() == "lol")
-	assert(y:unwrapUnchecked() == nil)
-	```
-
-	@param self Option<T>
-	@return T?
-]=]
-function Option.unwrapUnchecked<T>(self: Option<T>): T?
-	return self._optValue
-end
-
---[=[
-	@within Option
-
-	Returns a formatted representation of the option, often
-	used for printing to stdout.
-
-	```lua
-	local x: Option<number> = Some(123)
-	local y: Option<number> = None()
-
-	print(x:display()) -- prints `Option::Some(123)`
-	print(y:display()) -- prints `Option::None`
-	```
-
-	@param self Option<T>
-	@return string
-]=]
-function Option.display<T>(self: Option<T>): string
-	return tostring(self)
-end
-
-return {
-	Option = Option,
-	Some = Some,
-	None = None,
-}
diff --git a/rbx/result.luau b/rbx/result.luau
deleted file mode 100644
index a9db7ac..0000000
--- a/rbx/result.luau
+++ /dev/null
@@ -1,900 +0,0 @@
-local tableEq = require(script.Parent.util).tableEq
-
---[=[
-	@class Result
-
-	Error handling with the [Result] type.
-
-	[Result]`<T, E>` is the type used for returning a possible error. It is a class with the 
-	constructor variants, [Result:Ok]`(T)`, representing success and containing a value, and 
-	[Result:Err]`(E)`, representing error and containing an error value.
-
-	```lua
-	local result: Result<number, string>
-
-	-- Both variants `Ok` and `Err` fit into the type
-	result = Ok(21)
-	result = Err("some error")
-	```
-
-	Functions return [Result] whenever errors are expected and recoverable.
-
-	A simple function returning [Result] might be defined and used like so:
-	```lua
-	local PAT = "v(%d+)"
-
-	function parseVersion(str: string): Result<number, string>
-		local version: number = string.match(str, PAT)
-
-		if version == 0 then
-			return Err("Version cannot be zero")
-		else if version == nil then
-			return Err("Invalid string")
-		end
-
-		return Ok(version)
-	end
-
-	print("Successful result: " .. parseVersion("v12"):display())
-	print("Error result: " .. parseVersion("vString"):display())
-	```
-
-	[Result] comes with some convenience methods that make working with it more succinct.
-
-	```lua
-	local goodResult: Result<number, number> = Ok(10)
-	local badResult: Result<number, number> = Err(10)
-
-	-- The `isOk`and `isErr` methods do what they say.
-	assert(goodResult:isOk() and not goodResult:isErr())
-	assert(badResult:isErr() and not badResult:isOk())
-
-	-- `map` produces a new result from an existing one 
-	goodResult = goodResult:map(function(i) return i + 1 end)
-	badResult = badResult:map(function(i) return i - 1 end)
-
-	-- Use `and_then` to continue the computation.
-	local anotherGoodResult: Result<boolean, number> = goodResult:andThen(function(i) return Ok(i == 11) end)
-	
-	-- Use `or_else` to handle the error
-	local badResult: Result<number, number> = bad_result:orElse(function(i) return Ok(i + 20) end)
-
-	-- Get the internal `Ok` value and panic if there is an `Err`
-	local finalAwesomeResult: boolean = anotherGoodResult:unwrap()
-	```
-]=]
-local Result = {}
-
-export type Result<T, E> = typeof(Result) & {
-	_value: T,
-	_error: E,
-	typeId: "Result"
-}
-
---[=[
-	@within Result
-
-	Contains the success value.
-
-	@param val T
-	@return Result<T, E>
-]=]
-function Ok<T, E>(val: T): Result<T, E>
-	return Result.new(val, (nil :: unknown) :: E)
-end
-
---[=[
-	@within Result
-
-	Contains the error value.
-
-	@param err E
-	@return Result<T, E>
-]=]
-function Err<T, E>(err: E): Result<T, E>
-	return Result.new((nil :: unknown) :: T, err)
-end
-
---[=[
-	@within Result
-	@private
-
-	Constructs a [Result]. **For internal use only**.
-
-	For user consumption, see [Result:Ok] and [Result:Err].
-
-	@param err E
-	@return Result<T, E>
-]=]
-function Result.new<T, E>(val: T, err: E)
-	return setmetatable(
-		{
-			_value = val,
-			_error = err,
-			typeId = "Result",
-		} :: Result<T, E>,
-		{
-			__index = Result,
-			__tostring = function<T, E>(self: Result<T, E>)
-				if self:isOk() then
-					return `{self.typeId}::Ok({self._value})`
-				end
-
-				if self:isErr() then
-					return `{self.typeId}::Err({self._error})`
-				end
-
-				return `{self.typeId}<T, E>`
-			end,
-			__eq = function<T, E>(self: Result<T, E>, other: Result<T, E>)
-				if
-					typeof(self._value) ~= "table"
-					and typeof(self._error) ~= "table"
-					and typeof(other._value) ~= "table"
-					and typeof(other._error) ~= "table"
-				then
-					return self._value == other._value and self._error == other._error
-				end
-
-				return tableEq(self._value, other._value) and tableEq(self._error, other._error)
-			end,
-
-			-- TODO: Implement equality and arithmetic metamethods
-			-- TODO: Implement __iter, once iterators traits exist
-		}
-	)
-end
-
---[=[
-	@within Result
-
-	Returns `true` if the result is [Result:Ok].
-
-	```lua
-	local x: Result<number, string> = Ok(3)
-	assert(x:isOk())
-
-	x = Err("Some error message")
-	assert(not x:isOk())
-	```
-
-	@param self Result<T, E>
-	@return boolean
-]=]
-function Result.isOk<T, E>(self: Result<T, E>): boolean
-	if self._value == nil then
-		return false
-	end
-
-	return true
-end
-
---[=[
-	@within Result
-
-	Returns `true` if the result is [Result:Ok] and the value inside it matches a 
-	predicate.
-
-	```lua
-	local x: Result<number, string> = Ok(2)
-	assert(x:isOkAnd(function(x) return x > 1 end))
-
-	x = Ok(0)
-	assert(not x:isOkAnd(function(x) return x > 1 end))
-
-	x = Err("hey")
-	assert(not x:isOkAnd(function(x) return x > 1 end))
-	```
-
-	@param self Result<T, E>
-	@param predicate (val: T?) -> boolean
-	@return boolean
-]=]
-function Result.isOkAnd<T, E>(self: Result<T, E>, predicate: (val: T?) -> boolean): boolean
-	return self:isOk() and predicate(self._value)
-end
-
---[=[
-	@within Result
-
-	Returns `true` if the result is [Result:Err].
-
-	```lua
-	local x: Result<number, string> = Ok(3)
-	assert(not x:isErr())
-
-	x = Err("Some error message")
-	assert(x:isErr())
-	```
-
-	@param self Result<T, E>
-	@return boolean
-]=]
-function Result.isErr<T, E>(self: Result<T, E>)
-	return not self:isOk()
-end
-
---[=[
-	@within Result
-
-	Returns `true` if the result is [Result:Err] and the value inside it matches a 
-	predicate.
-
-	```lua
-	local x: Result<number, string> = Ok(2)
-	assert(not x:isErrAnd(function(x) return x > 1 end))
-
-	x = Err(3)
-	assert(x:isErrAnd(function(x) return x > 1 end))
-
-	x = Err("hey")
-	assert(not x:isErrAnd(function(x) return x > 1 end))
-	```
-
-	@param self Result<T, E>
-	@param predicate (val: T?) -> boolean
-	@return boolean
-]=]
-function Result.isErrAnd<T, E>(self: Result<T, E>, predicate: (val: E) -> boolean): boolean
-	if self:isErr() then
-		return predicate(self._error)
-	end
-
-	return false
-end
-
---[=[
-	@within Result
-
-	Maps a [Result]<T, E> to [Result]<U, E> by applying a function to a contained [Result:Ok] value, 
-	leaving an [Result:Err] value untouched.
-
-	This function can be used to compose the results of two functions.
-
-	```lua
-	local lines = "1\n2\n3\n4\n"
-
-	function parseInt(x: string): Result<number, string>
-		local num = tonumber(x)
-
-		if num == nil then
-			return Err("not an integer")
-		end
-
-		return Ok(num)
-	end
-
-	for line in lines:split("\n") do
-		local number = parseInt(line)
-
-		if number:isOk() then
-			print(number:unwrap())
-		else
-			print("not a number!")
-		end
-	end
-	```
-
-	@param self Result<T, E>
-	@param op (val: T) -> U
-	@return Result<U, E>
-]=]
-function Result.map<T, E, U>(self: Result<T, E>, op: (val: T) -> U): Result<U, E>
-	if self:isOk() then
-		return Result.new(op(self._value), self._error) :: Result<U, E>
-	end
-
-	return Err(self._error)
-end
-
---[=[
-	@within Result
-
-	Returns the provided default (if [Result:Err]), or applies a function to 
-	the contained value (if [Result:Ok]).
-
-	Arguments passed to [Result:mapOr] are eagerly evaluated; if you are passing the 
-	result of a function call, it is recommended to use [Result:mapOrElse], which is 
-	lazily evaluated.
-
-	```lua
-	local x: Result<string, string> = Ok("foo")
-	assert(x:mapOr("bar", string.upper) == "FOO")
-
-	x = Err("foo")
-	assert(x:mapOr("bar", string.upper) == "bar")
-	```
-
-	@param self Result<T, E>
-	@param default U
-	@param op (val: T) -> U
-	@return U
-]=]
-function Result.mapOr<T, E, U>(self: Result<T, E>, default: U, op: (val: T) -> U): U
-	if self:isOk() then
-		return op(self._value)
-	end
-
-	return default
-end
-
---[=[
-	@within Result
-
-	Maps a [Result]<T, E> to U by applying fallback function default to a contained
-	[Result:Err] value, or function f to a contained [Result:Ok] value.
-
-	This function can be used to unpack a successful result while handling an error.
-
-	```lua
-	local x: Result<string, string> = Ok("foo")
-	assert(x:mapOrElse(function(x) return "error: ".. x end, string.upper) == "FOO")
-
-	x = Err("foo")
-	assert(x:mapOrElse(function(x) return "error: ".. x end, string.upper) == "error: foo")
-	```
-
-	@param self Result<T, E>
-	@param default (val: E) -> U
-	@param op (val: T) -> U
-	@return U
-]=]
-function Result.mapOrElse<T, E, U>(self: Result<T, E>, default: (val: E) -> U, op: (val: T) -> U): U
-	if self:isOk() then
-		return op(self._value)
-	end
-
-	return default(self._error)
-end
-
---[=[
-	@within Result
-
-	Maps a [Result]<T, E> to [Result]<T, F> by applying a function to a contained 
-	[Result:Err] value, leaving an [Result:Ok] value untouched.
-
-	This function can be used to pass through a successful result while handling an
-	error.
-
-	```lua
-	local function stringify(x: number): string
-		return string.format("error code: %d", x)
-	end
-
-	local x: Result<number, number> = Ok(2)
-	assert(x:mapErr(stringify) == Ok(2))
-
-	x = Err(13)
-	assert(x:mapErr(stringify) == Err("error code: 13"))
-	```
-
-	@param self Result<T, E>
-	@param op (val: E) -> F
-	@return Result<T, F>
-]=]
-function Result.mapErr<T, E, F>(self: Result<T, E>, op: (val: E) -> F): Result<T, F>
-	if self:isErr() then
-		return Result.new(self._value, op(self._error))
-	end
-
-	return Ok(self._value)
-end
-
---[=[
-	@within Result
-
-	Calls the provided closure with a reference to the contained value 
-	(if [Result:Ok]).
-
-	```lua
-	function parseInt(x: string): Result<number, string>
-		local num = tonumber(x)
-
-		if num == nil then
-			return Err("not an integer")
-		end
-
-		return Ok(num)
-	end
-
-	local x = parseInt("4")
-		:inspect(function(x) print("original: " .. x) end)
-		:map(function(x) return x ^ 3 end)
-		:expect("not an integer")
-
-	```
-
-	@param self Result<T, E>
-	@param op (val: E) -> ()
-	@return Result<T, E>
-]=]
-function Result.inspect<T, E>(self: Result<T, E>, op: (val: T) -> ()): Result<T, E>
-	if self:isOk() then
-		op(self._value)
-	end
-
-	return self
-end
-
---[=[
-	@within Result
-
-	Calls the provided closure with a reference to the contained value 
-	(if [Result:Err]).
-
-	```lua
-	function parseInt(x: string): Result<number, string>
-		local num = tonumber(x)
-
-		if num == nil then
-			return Err("not an integer")
-		end
-
-		return Ok(num)
-	end
-
-	local x = parseInt("string")
-		:inspectErr(function(x) print("error: " .. x) end)
-		:map(function(x) return x ^ 3 end)
-		:unwrap()
-
-	```
-
-	@param self Result<T, E>
-	@param op (val: E) -> ()
-	@return Result<T, E>
-]=]
-function Result.inspectErr<T, E>(self: Result<T, E>, op: (val: E) -> ()): Result<T, E>
-	if self:isErr() then
-		op(self._error)
-	end
-
-	return self
-end
-
--- TODO: Iterator traits
--- selene: allow(unused_variable)
-function Result.iter<T, E>(self: Result<T, E>): never
-	return error("Unimplemented: `Result:iter()`")
-end
-
---[=[
-	@within Result
-
-	Returns the contained [Result:Ok] value, consuming the self value.
-
-	Because this function may panic, its use is generally discouraged. Instead, 
-	prefer to use [Result:isErr] and handle the Err case explicitly, or call 
-	[Result:unwrapOr], [Result:unwrapOrElse], or [Result:unwrapOrDefault].
-	Panics
-
-	@error panic -- If the value is a [Result:Err], with a panic message including the passed message, and the content of the `Err`.
-
-	```lua
-	local x: Result<number, string> = Err("emergency failure")
-	x:expect("Testing expect") -- panics with message `Testing expect: emergency failure`
-	```
-
-	## Recommended Message Style
-	It is recommended that expect messages are used to describe the reason you expect the 
-	[Result] should be [Result:Ok].
-
-	```lua
-	local process = require("@lune/process")
-
-	local function envVar<T>(var: string): Result<T, string>
-		local val = process.env[var]
-
-		if val == nil then
-			return Err("environment variable not found")
-		end
-
-		Ok(val)
-	end
-
-	local path = envVar("IMPORTANT_PATH")
-		:expect("env variable `IMPORTANT_PATH` should be set by `wrapper_script.sh`")
-	```
-	
-	**Hint**: If you’re having trouble remembering how to phrase expect error messages remember to focus 
-	on the word “should” as in “env variable should be set by blah” or “the given binary should be available 
-	and executable by the current user”.
-
-	@param self Result<T, E>
-	@param msg string
-	@return T | never
-]=]
-function Result.expect<T, E>(self: Result<T, E>, msg: string): T | never
-	if self:isOk() then
-		return self._value
-	end
-
-	return error(`panic: {msg}; {self._error}`)
-end
-
---[=[
-	@within Result
-
-	Returns the [Result:Ok].
-
-	Because this function may panic, its use is generally discouraged. Instead, prefer to use 
-	[Result:unwrapOr], [Result:unwrapOrElse], or [Result:unwrapOrDefault].
-
-	@error panic -- Panics if the value is an [Result:Err], with a panic message provided by the [Result:Err]’s value.
-
-	```lua
-	local x: Result<number, string> = Ok(2)
-	assert(x:unwrap() == 2)
-
-	x = Err("oh no")
-	x:unwrap() -- panics with `oh no`
-	```
-
-	@param self Result<T, E>
-]=]
-function Result.unwrap<T, E>(self: Result<T, E>): T | never
-	if self:isOk() then
-		return self._value
-	end
-
-	return error(`panic: \`Result:unwrap()\` called on an \`Err\` value: {self._error}`)
-end
-
--- TODO: default values for types
--- selene: allow(unused_variable)
-function Result.unwrapOrDefault<T, E>(self: Result<T, E>): never
-	return error("Unimplemented: `Result:unwrapOrDefault()`")
-end
-
---[=[
-	@within Result
-
-	Returns the contained [Result:Err].
-
-	@error panic -- Panics if the value is an [Result:Ok], with a panic message including the passed message, and the content of the [Resul:Ok].
-
-	```lua
-	local x: Result<number, string> = Ok(10)
-	x:expectErr("Testing expect") -- panics with `Testing expect: 10`
-	```
-
-	@param self Result<T, E>
-	@param msg string
-	@return E | never
-]=]
-function Result.expectErr<T, E>(self: Result<T, E>, msg: string): E | never
-	if self:isErr() then
-		return self._error
-	end
-
-	return error(`panic: {msg}; {self._error}`)
-end
-
---[=[
-	@within Result
-
-	Returns the contained [Result:Err].
-
-	@error panic -- Panics if the value is an [Result:Ok], with a panic message provided by the [Result:Ok]’s value.
-
-	```lua
-	local x: Result<number, string> = Ok(2)
-	x:unwrapErr() -- panics with `2`
-	```
-	```lua
-	x = Err("oh no")
-	assert(x:unwrapErr() == "oh no")
-	```
-
-	@param self Result<T, E>
-	@return E | never
-]=]
-function Result.unwrapErr<T, E>(self: Result<T, E>): E | never
-	if self:isErr() then
-		return self._error
-	end
-
-	return error(`panic: \`Result:unwrapErr()\` called on an \`Ok\` value: {self._value}`)
-end
-
--- TODO: How the fuck do I implement this?
--- selene: allow(unused_variable)
-function Result.intoOk<T, E>(self: Result<T, E>): never
-	return error("Unimplemented: `Result:intoOk()`")
-end
--- selene: allow(unused_variable)
-function Result.intoErr<T, E>(self: Result<T, E>): never
-	return error("Unimplemented: `Result:intoErr()`")
-end
-
---[=[
-	@within Result
-
-	Returns res if the result is [Result:Ok], otherwise returns the 
-	[Result:Err] value of self.
-
-	```lua
-	local x: Result<number, string> = Ok(2)
-	local y: Result<string, string> = Err("late error")
-	assert(x:and_(y) == Err("late error"))
-	
-	local x: Result<number, string> = Err("early error")
-	local y: Result<string, string> = Ok("foo")
-	assert(x:and_(y) == Err("early error"))
-	
-	local x: Result<number, string> = Err("not a 2")
-	local y: Result<string, string> = Err("late error")
-	assert(x:and_(y) == Err("not a 2"))
-	
-	local x: Result<number, string> = Ok(2)
-	local y: Result<string, string> = Ok("different result type")
-	assert(x:and_(y) == Ok("different result type"))
-	```
-
-	@param self Result<T, E>
-	@param res Result<U, E>
-	@return Result<U, E>
-]=]
-function Result.and_<T, E, U>(self: Result<T, E>, res: Result<U, E>): Result<U, E>
-	if self:isOk() then
-		return res
-	end
-
-	return Err(self._error)
-end
-
---[=[
-	@within Result
-
-	Calls `op` if the result is [Result:Ok], otherwise returns the 
-	[Result:Err] value of `self`.
-
-	This function can be used for control flow based on [Result] 
-	values.
-
-	```lua
-	function sqThenToString(x): Result<string, string>
-		if typeof(sq) ~= "number" then
-			return Err("not a number: '" .. x .. "'")
-		end
-
-		return Ok(x ^ 2):map(function(sq)
-			return tostring(sq)
-		end)
-	end
-
-	assert(Ok(2):andThen(sqThenToString) == Ok("4"))
-	assert(Err("string"):andThen(sqThenToString) == Err("not a number: 'string'"))
-	```
-
-	Often used to chain fallible operations that may return [Result:Err].
-
-	@param self Result<T, E>
-	@param op (...any) -> any
-	@return Result<U, E>
-]=]
-function Result.andThen<T, E, U>(self: Result<T, E>, op: (...any) -> any): Result<U, E>
-	if self:isOk() then
-		return op(self._value)
-	end
-
-	return Err(self._error) :: Result<U, E>
-end
-
---[=[
-	@within Result
-
-	Calls `op` if the result is [Result:Ok], otherwise returns the 
-	[Result:Err] value of `self`.
-
-	This function can be used for control flow based on [Result] 
-	values.
-
-	```lua
-	local x: Result<number, string> = Ok(2)
-	local y: Result<number, string> = Err("late error")
-	assert(x:or_(y) == Ok(2))
-	
-	local x: Result<number, string> = Err("early error") 
-	local y: Result<number, string> = Ok(2)
-	assert(x:or_(y) == Ok(2))
-	
-	local x: Result<number, string> = Err("not a 2")
-	local y: Result<number, string> = Err("late error")
-	assert(x:or_(y) == Err("late error"))
-	
-	local x: Result<number, string> = Ok(2)
-	local y: Result<number, string> = Ok(100)
-	assert(x:or_(y) == Ok(2))
-	```
-
-	@param self Result<T, E>
-	@param res Result<T, F>
-	@return Result<T, F> | never
-]=]
-function Result.or_<T, E, F>(self: Result<T, E>, res: Result<T, F>): Result<T, F> | never
-	if self:isErr() then
-		return res
-	end
-
-	if self:isOk() then
-		return Ok(self._value) :: Result<T, F>
-	end
-
-	return error("called `Result:or()` with an invalid value")
-end
-
---[=[
-	@within Result
-
-	Calls `op` if the result is [Result:Ok], otherwise returns the 
-	[Result:Err] value of `self`.
-
-	This function can be used for control flow based on [Result] 
-	values.
-
-	```lua
-	function sq(x: number): Result<number, number>
-		return Ok(x * x)
-	end
-
-	function err(x: number): Result<number, number>
-		return Err(x)
-	end
-
-	assert(Ok(2):orElse(sq):orElse(sq) == Ok(2))
-	assert(Ok(2):orElse(err):orElse(sq) == Ok(2))
-	assert(Err(3):orElse(sq):orElse(err) == Ok(9))
-	assert(Err(3):orElse(err):orElse(err) == Err(3))
-	```
-
-	@param self Result<T, E>
-	@param op (x: E) -> Result<T, U>
-	@return Result<T, U>
-]=]
-function Result.orElse<T, E, U>(self: Result<T, E>, op: (x: E) -> Result<T, U>): Result<T, U>
-	if self:isErr() then
-		return op(self._error)
-	end
-
-	return Ok(self._value)
-end
-
---[=[
-	@within Result
-
-	Returns the contained [Result:Ok] value or a provided default.
-
-	Arguments passed to [Result:unwrapOr] are eagerly evaluated; if you are passing the 
-	result of a function call, it is recommended to use [Result:unwrapOrElse], which is 
-	lazily evaluated.
-
-	```lua
-	local default = 2
-	local x: Result<number, string> = Ok(9)
-	assert(x:unwrapOr(default), 9)
-
-	x = Err("error")
-	assert(x:unwrapOr(default), default)
-	```
-
-	@param self Result<T, E>
-	@param default T
-	@return T
-]=]
-function Result.unwrapOr<T, E>(self: Result<T, E>, default: T): T
-	if self:isOk() then
-		return self._value
-	end
-
-	return default
-end
-
---[=[
-	@within Result
-
-	Returns the contained [Result:Ok] value or computes it from a closure.
-
-	```lua
-	function count(x: string): number
-		return #x
-	end
-
-	assert(Ok(2):unwrapOrElse(count) == 2))
-	assert(Err("foo"):unwrapOrElse(count) == 3))
-	```
-
-	@param self Result<T, E>
-	@param op (x: E) -> T
-	@return T
-]=]
-function Result.unwrapOrElse<T, E>(self: Result<T, E>, op: (x: E) -> T): T
-	if self:isOk() then
-		return self._value
-	end
-
-	return op(self._error)
-end
-
---[=[
-	@within Result
-
-	Returns true if the [Result:Ok] value is `val`.
-
-	```lua
-	local x: Result<number, string> = Ok(2)
-	assert(x:contains(2))
-
-	x = Ok(3)
-	assert(not x:contains(2))
-
-	x = Err(2)
-	assert(not x:contains(2))
-	```
-
-	@param self Result<T, E>
-	@param val T
-	@return boolean
-]=]
-function Result.contains<T, E>(self: Result<T, E>, val: T): boolean
-	if self:isOk() then
-		return self._value == val
-	end
-
-	return false
-end
-
---[=[
-	@within Result
-
-	Returns true if the [Result:Err] value is `err`.
-
-	```lua
-	local x: Result<number, string> = Err(2)
-	assert(x:containsErr(2))
-
-	x = Err(3)
-	assert(not x:containsErr(2))
-
-	x = Ok(2)
-	assert(not x:containsErr(2))
-	```
-
-	@param self Result<T, E>
-	@param err E
-	@return boolean
-]=]
-function Result.containsErr<T, E>(self: Result<T, E>, err: E): boolean
-	if self:isErr() then
-		return self._error == err
-	end
-
-	return false
-end
-
---[=[
-	@within Result
-
-	Returns a formatted representation of the result, often
-	used for printing to stdout.
-
-	```lua
-	local x: Result<number, string> = Ok(123)
-	local y: Result<number, string> = Err("error")
-
-	print(x:display()) -- prints `Result::Ok(123)`
-	print(y:display()) -- prints `Result::Err("error")`
-	```
-
-	@param self Result<T, E>
-	@return string
-]=]
-function Result.display<T, E>(self: Result<T, E>): string
-	return tostring(self)
-end
-
-return {
-	Ok = Ok,
-	Err = Err,
-	Result = Result,
-}
diff --git a/rbx/util.luau b/rbx/util.luau
deleted file mode 100644
index ade2529..0000000
--- a/rbx/util.luau
+++ /dev/null
@@ -1,102 +0,0 @@
-local isRoblox = _VERSION == "Luau"
-local isLune = _VERSION:find("Lune") == 1
-local deps = if isLune then require(script.Parent.Parent.deps)elseif isRoblox then require(script.Parent.deps) else error("Unsupported Runtime!")
-local requires = deps(isRoblox, isLune)
-
-local LuauSignal: {
-	new: <T...>() -> Signal<T...>
-} = requires.signal
-
-export type Signal<T...> = {
-	Fire: (self: Signal<T...>,T...) -> (),
-	Connect: (self: Signal<T...>, callback: (T...) -> ()) -> () -> (),
-	Once: (self: Signal<T...>, callback: (T...) -> ()) -> () -> (),
-	DisconnectAll: (self: Signal<T...>) -> ()
-}
-
--- From https://gist.github.com/sapphyrus/fd9aeb871e3ce966cc4b0b969f62f539
-local function tableEq(tbl1, tbl2)
-	-- if tbl1 == tbl2 then
-	-- 	return true
-	-- elseif type(tbl1) == "table" and type(tbl2) == "table" then
-	-- 	for key1, value1 in pairs(tbl1) do
-	-- 		local value2 = tbl2[key1]
-
-	-- 		if value2 == nil then
-	-- 			-- avoid the type call for missing keys in tbl2 by directly comparing with nil
-	-- 			return false
-	-- 		elseif value1 ~= value2 then
-	-- 			if type(value1) == "table" and type(value2) == "table" then
-	-- 				if not tableEq(value1, value2) then
-	-- 					return false
-	-- 				end
-	-- 			else
-	-- 				return false
-	-- 			end
-	-- 		end
-	-- 	end
-
-	-- 	-- check for missing keys in tbl1
-	-- 	for key2, _ in pairs(tbl2) do
-	-- 		if tbl1[key2] == nil then
-	-- 			return false
-	-- 		end
-	-- 	end
-
-	-- 	return true
-	-- end
-
-	-- return false
-
-	return true
-end
-
-local RobloxEvent = {}
-type RobloxEvent<T...> = Signal<T...> & {
-	_inner: BindableEvent
-}
-
-function RobloxEvent.new<T...>()
-	local instance = Instance.new("BindableEvent")
-	instance.Parent = script
-	instance.Name = tostring({}):split(" ")[2]
-
-	return setmetatable({
-		_inner = instance
-	}, {
-		__index = RobloxEvent
-	})
-end
-
-function RobloxEvent.Fire<T...>(self: RobloxEvent<T...>, ...: T...)
-	return self._inner:Fire(...)
-end
-
-function RobloxEvent.Connect<T...>(self: RobloxEvent<T...>, callback: (T...) -> ())
-	local conn = self._inner.Event:Connect(callback)
-	
-	return {
-		DisconnectAll = function<T...>(self: RobloxEvent<T...>)
-			conn:Disconnect()
-			self._inner:Destroy()
-		end
-	}
-end
-
-function RobloxEvent.Once<T...>(self: RobloxEvent<T...>, callback: (T...) -> ())
-	local conn = self._inner.Event:Connect(callback)
-
-	return {
-		DisconnectAll = function<T...>(self: RobloxEvent<T...>)
-			conn:Disconnect()
-			self._inner:Destroy()
-		end
-	}
-end
-
-return {
-	tableEq = tableEq,
-	Signal = setmetatable({}, {
-		__index = if isLune then LuauSignal elseif isRoblox then RobloxEvent else error("Unsupported runtime!"),
-	}),
-}