experiments.im

a, b = produce

struct Complex {
  re, im Double
}

type Color {
  Rgb()
  Rbb()
}

type Person{
  name String
  age Bool
} impl {
  name String { // return name
  }
  name Bool { // return age
  }
}

type Point {x, y, z Int}

p = Point{x: 1, y: 2, z: 3}
z = p.{x: 2}

type Point(x, y, z Int) impl {

}

for a <- as, b <- bs {
  if c.break() {

  }
}


// if convenience constructors will be really needed
Complex.of(re, im Double) Complex {re: re; im: im}
Complex.zero Complex{re: 0; im: 0}

// OR??

type Complex {
  re, im Double

  impl {
    re()
  }
}

impl c Complex {
  func Double { c.re + c.im }
}

(c Complex).plus Double {c.re + c.im}

(c Complex).mult Double {c.re * c.im}

(c Complex).minus Double {c.re - c.im}

impl c Complex {
  plus Double { c.re + c.im }
  mult Double { c.re * c.im }
  minus Double { c.re - c.im }
}

(c Complex).minus Double {return c.re - c.im}

impl c Complex :: Decompose<(Double, Double)> {

}

impl l List(T) :: Iterable(T) {
  (l List<Optional<Y>>).resolve() Optional<List<Y>> {

  }
}
// round or anglular brackets?
impl l List<T> :: Iterable<T> {
  (l List<Optional<Y>>).resolve() Optional<List<Y>> {

  }
}

struct Complex {

}

static Complex {
  of(re, im Double) Complex {re: re; im: im}
  zero Complex {re: 0; im: 0}
}

class Intie(value E) :: E {

} static {
  when(value A) :: E == A {
    Intie(value)
  }
}

impl Complex c {
  a, x enum { Int | Double }
}

// Box/Slot encoding

type T~ (accessor SetGet<T> | value T) {

}

interface SetGet<T> {
  get T
  set(v T)
}

numbers Set<Int> {
  return Set<Int> {1, 2, 3, 4, 5}
}

type Cmx {
  re Double
  im Double
}

type Coord {
  Polar
  Caa
}

meth(i MyInt) {
  newMyInt = i + MyInt(12) // compile error MyInt + Int will not work
  a = 15
  meth(a) // compile error
  // sdsdada
}



meth(12)
meth(MyInt(12))



type MyInt Int // new type

Map<String, Int>

import MyMap Map<String, Int>  // alias


type Cmx { re, im Double } :: Decomposable<{ re, im Double }> {
  re Double {
    return re
  }
  decompose { re, im Double } {

  }
}



funMenthod3{ re Double, im Double: 2 } Return | Error  {

}

....{
  cmx = Cmp{ re: 1.0, im: 0.1 }
  rr = funMethod3(cmx) | return
}

a, b = (1, 2), 3

Cmx{re: 1, im: 2}

type Coordinates {
  Polar(r, f Double) {

  }
  Decart(x, y Double) {

  }
}

funFunction(a Int|String) Obj {

}

//@PleasantHill{ a: 1, b: 2 }
type Complex(re, im Double) {
  h = re + 17 * im

  addInts(a, b Int) { a + b }

  lazyInt = Lazy<Int> {
    get { a + b }
  }

  accessor Lazy<Int> { lazyInt }

  internalField := 0

  getAndSet Int~ {
    get { internalField } // return type is Int
    set(v Int) { internalField := v }
  }

  add(b Complex) Complex(re + b.re, im + b.im)

  val() Demo {
    a B~

    a := 1

    list [Int~]

    list []Int~

    string

    (a Int~, a Int~)
  }
}

/// Multinstanitation
/// Aka dependency injection
{
  ...CorrabelModule
  ...BluwishModule
  ...GoblinModule
  corralors: 1
  burrito: 2
}

 (Int, Int)

interface S {
  burrito Int
  corralors Int

  weight Int {
    burrito + corralors
  }
}

type Serializable<T> {

}

interface Serializable {

}

impl Complex<T> c {

}

enum Complex {
  | Covax
  | Gobo
}

projection {

}

impl Complex a {
  case a {
  | 1 | 2 | 3 -> "dobrivetchir"
  | "casablanka" -> gorobianka
  | Vorotiki -> varhammer
  | Govax -> flow
  | Mor -> rolex
  | Gobo -> rolexs
  } else error("problem")
}

b = a.{
  ...a
  a: 1
  b: 2
}


a*.call()

for {


}

{ ...a, b: 2 }

derivago(_ Int?) {
  | x? -> 1
  | _ -> 0
}

derivago<T>(list List<T>) List<T> {
  | [x, ...xs] -> [...xs, x]
  | [] -> []
}

enum List<T> {
  | Cons [head T, ...tail Cons<T>]
  | Nil []
}

derivago<T>([..., x, x]) {

}

decompose Option<T>() {

}

derivago<T>(list List<T>) {
  if [x, ...xs] = list {
    x
  } else {
    x
  }
}

impl Maybe<Covax> {

}

interface Serializable {

}

static Complex {
  varbrinder() {

  }

  gammatron() {

  }
}

enum Coin {

}

data Coin(num Integer) {
  | .Penny(0)
  | .Nickel(1)
  | .Dime(2)
}

export Symbols = {
  constant Rgb: 1
  constant Winter: 2
  constant Wiber: 4
}

data Avantador {

} impl {
  constant =

  Avantador.{
    constant = "1"
    constant = 2

    promiscuitos() {
      amputatedSoul = souls.amputate()
      combinedSoul = souls.combine(amputatedSoul)
      badSource = Soul {
        mood: "bad"
        vood: 1
        color: #111111
      }
    }
  }
}

enum Option<T> None | Some(v T) impl {}

c = Complex {
  re: 1
  im: 2
}

{
  kalo: 1
  ren: 2
  huy: buz
}

struct {

} impl Anabolic,

enum  {

}

{
  kalo: x Integer
  valo: y Warbringer
}

goro(a T, y T?) T where T : Name   {
  if T == Name {

  }
}

goro(a X, y Y?) => T where T, Z: Commutative<T, Z> {
}

min<T, Z>(a A, b A) -> A :: T, Commutative<T, Z>, T == A {

}

package <X> {

}

goro(a X, y X) => T where T, Z: _ {

}

robo(T) where T: Class<X>

boss() enum A | B

prett >>= aabb

fn functiona() Name {

}

functional() Name {

}

variadic = {

} func {
  goroscope(a, b Int) Int {

  }

  for () {
    new(a, b) Waterfal {

    }
  }

  procrustinator Facilitator { a + x }
  procrust Agilitator = 2
  progust Bughost = 1
}

fn futionale(robbie Name, williams Lastname) Name {
  r = robbie
  w = williams

  williams.connect

  if r == w {
    return w
  }

  x = nil

  if x? = pion {

  }

  case x {

  }

  a in aventador {
    a.forEach()
  }

  [Char]

  [1, 2, ...name*.beach*.beach, ...]

  [2, 2, ...a in x { a * a }, ...x in ]

  (1..<2)*.toString

  [1..<3].forJoin

  do a <- b; z <- c;


  abracadabra =
      for a <- b if a.z
          z <- c if c.full
          u <- w if z.empty {
        a * z * u
      }

  zippocus = (a * z * u
      for a <- b if a.z
          z <- c if c.full
          u <- w if z.empty).sub(5..)

  first = collection[0]

  [first,...] = collection


  deps = [
    ...deps
    ...lib_immutables
    ...lib_generator
    ...lib_test
    ': ' name
    ...test_deps
  ]

  deps1 = deps ++ lib_immutables

  abracadabra =
      for a in b if a.z
          z in c if c.full
          u in w if z.empty {
        a * z * u
      }

  cubaba = [for x <- xs if x % 2 == 0]

  cubaba = xs.map{ x Int -> x * 2 }
  cissd = xs.flatmap{ x Int -> [x * 2] }
  folded = xs.foldl(0, x -> x * 2)

  balabadu =
      for z <- abracadabra { z * z }

  hocuspocus =
      for a, i <- collect.indexed
          if i % 2 == 0
          b = a * c {
      }

  // | 1, 2, 3, 4, 5 |

  winners = [(p, p, x) for p <- players if p.score > 2]

  winners = p.filter{ p -> p.score > 2 }
  winners = p.{ *.score > 2 }

  winners = a ?? "oscilli"

  [for a <- b, z <- c {a * z}]

  a*.{ e -> e.empty }

  [1..2]

  that>..(1-2) {

  }

  x = xpress if {
    x * x
  }

  {{1, 2, 3}}

  {
    "" 1
    "" 2
    "" 3
  }

  "a"

  <- r
}

segunda(a Name, c Covax) Name {

}

// Ceylon
value result = parseJson(json);
if (is ParseError result) {
    throw AssertionError(result.message);
}

// Owlang
result = parseJson(json)
if r ParseError = result {
  throw AssertionError(r.message)
}

//
case parseJson(json) {
  | r ParseError -> throw AssertionError(r.message)
}

// scala
val (x, y) = object.point

// imlang ?
x, y = object.point

interface X(self S) {
  reverse S
}

for 0>..2 {
  println(1)
}

for x <- 0>..2 {
  println(1)
}

set = { e <- 1, 2, 3, 4, 5 } // ???

set1 = e for e <- (1, 2, 3, 4, 5)
set2 = x for x <- 1..2
set2 = e <- 1..2
set3 = Set(1, 2, 3, 4, 5)

chan.put(1)
chan.poll

list []int
list []int
set {}int
map [string]...int
map [string][]int

// set operation
a = a & b
b = a ~ c
b = a ^ b
c = a | c

a = a && b
b = a ~~ c
b = a ^^ b
c = a || c

a = opt ?? 1

struct Abacus {

  list []int&
  list [1..3]int
  list [int ..3]
  list [int]
  list (int, double)
  x, y, z int
  set {}int
  multimap [string: ...int]
  maptolist [string: [int]]

  map {}string:int
  set {}(string, int)
  map {string:int}
  multiset []string:...int
  multiset [string]...int

  multimap {string}int
  maptolist [string: [int]]
  inter Abacus
}

Abacus struct {
  list [Int]
  multimap [String: ...Int]
  maptolist [String: [Int]]
  inter Abacus
}

A<T, X> ::  {
  logvinov string,
  viskaric int: 2
}

Abacus impl ::  {

}

Set{1, 2, 3, 4, 5, 6, 7}

[]int{1, 2, 3, 4, 5, 6, 7}

[1, 2, 3, 4, 5, 6, 7]

{int}

{
  1
  2
  3
}

Mormorning {
  colors {}Color
}

[first, ...rest] =


a = (1, 2)

aaa = 1

aaa int = 1
aaa int~ = 1

aaa := 1

type Type111<S> :: Self<S> {
  method (param T) -> T :: T == Optional<S> {

  }
}

Optional<T> {

  flatten Optional<V> :: T == Optional<V> {

  }
}

a Optional<Optional<Int>>

a.flatten

array []int

mutableArray []int~

mutableArray [1..2]int~

{
  array (int)int

  array int, int {
    return 1, 2
  }
}

ab int {
  aaa.{a: 1, b: 2}
}

{
  as = {n <- 1, 2, 3}
  a = {a, b, c}
}


iterable ...int

iterable int, ...int

concept Aaa<T> :: Numerical<T> {
  (a T) + (b T) {
    a.blabalba()
  }
}

// this !
concept Numerical<E> :: self<E> {
  (a E) + (b E)
  (a E) - (b E)
  (a E) / (b E)
  (a E) * (b E)
}

concept Numerical {
  (a E) + (b E)
  (a E) - (b E)
  (a E) / (b E)
  (a E) * (b E)
}

impl a A :: Numerical {

}

concept Named {
  name string
}

type case Option<V> :: Named {
	Some(V a)
	None
}

type Option<V> {
  Some(V a)
  None
}

if value? = map[key] {
  value
}

if [a, b, ...cs] = some.run(a + 1) {
  return [...cs, b, a]
}

type Az {
  acapulko Aa
  badlands Bb
  smurfics Cc
}

// this !
case vaule.is {
  | Valicaterss -> a
  | [a] -> alternative
} else {

}

// this !

alka = stream.write() | err -> throw

// this !

if a = stream.write() {
  andWeSucceded(a)
} else case {
  err CannotFindIt -> return err
  err CannotLikeIt -> return err
}

case stream.write() {
	| a int -> andWeSucceded(a)
	| err CannotFindIt -> return err
  | err CannotLikeIt -> return err
}

case stream.write() {
	a int => andWeSucceded(a)
	err CannotFindIt => return err
  err CannotLikeIt => return err
}

case stream.write() {
	a int -> andWeSucceded(a)
	err CannotFindIt -> return err
  err CannotLikeIt -> return err
}

case stream.write() {
  a int: andWeSucceded(a)
	err CannotFindIt | CannotLikeIt: return err
}

case object.mopject() {
	[] -> 0
	[a, b int] -> a + b
	[a, b, c, ...d int] -> a + b + c + d.count
}

method case -> String {
	[] -> 0
	[a, b int] -> a + b
	[a, b, c, ...d int] -> a + b + c + d.count
}

if a == 2 { a } else { b }

return if a == 2 { a }
  else { b }

v = case object.mopject() {
| [] if true -> {
    abasc
  }
| [a, b] {
    a + b
  }
  [a, b, c, ...d] if a + b == 2 -> {
		a + b + c + d.count
	}
|	case
} else {

}

when {
  n <- actually abracadabra
} case <- timeout {

}

observable =
		for case <- actually || timeout(2.sec) {
			a Actually | Happened: 0
			a if true || false: korobel
			t Timeout: 1
		}

if a == 2 -> 1sss
else 2233

a = {1, 2, 3} ~ {2, 3}

if {c} = a {
	c
} else {
	a
}

impl A<>

// currying

a.currying->

a.currying->(a, b)

((a, b) -> a + b)

((a, b) -> a + b)

f (Accent)Int = Accent a -> a
f {String: Int} = 2
f {string: int} = 2
f [1..2]string = 1
f []string =
f [5]array = {1, 2, 3, 4, 5}
f (milla, ...vanilla)

f ...vanilla

StrMap(map {String}Int)

Asdadds {
  a int
  b int
}

type Point(x, y, z double)

concept A

abra { def } {

}

abra(1)

abra int { 1 }

type X(a int)


x ...Int = for { 1 }

a = [for x <- xs if x.abs]

type Years(v Int) {
	toString {

	}
}

type Person {
	name String
	age Years
	contacts []Contact: []
}

p = Person{name: "String", age: 1}
p1 = p.{ age: p.age + 1 }

p1 = Person{
	...p
	age: p.age + 1
	contacts: [...p.contacts, cnt]
}

p2 = Person::contact.append(p1, cnt)

Person::contact

p1 = p.{ a: 1, b: 2 }

p1 = { ...p, a: 2 }

import lens<Person>

l Person:>String = lens<Person>.name.toString

lens<Person>.name.append(lens<Name>.toString)

pn Lens<Person, Name> = Person.name
nm Lens<Name, String> = Name.toString


// Keywords

if else case for return break continue yield
package import export
type concept async impl

// Operators
+
-
*
/
%
||
~~
++
--
:=
&&
^^
->
<-
=
()
{}
[]
,.
: ::