update the changelog

1 files changed, 0 insertions, 432 deletions

diff --git a/tests/parser/tbraces.nim b/tests/parser/tbraces.nim
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-#? braces
-
-#
-#
-#            Nim's Runtime Library
-#        (c) Copyright 2015 Andreas Rumpf
-#
-#    See the file "copying.txt", included in this
-#    distribution, for details about the copyright.
-#
-
-## This module implements some common generic algorithms.
-
-type
-  SortOrder* = enum {  ## sort order
-    Descending, Ascending
-  }
-
-
-type(
-  DummyAlias = int
-  OtherAlias = distinct char
-
-  SomeObject = object of RootObj { ## declaration here
-    fieldA, fieldB: int
-    case order: SortOrder {
-      of Descending {a: string}
-      of Ascending {b: seq[char]}
-    }
-  }
-
-  MyConcept = concept x {
-     x is int
-  }
-)
-
-{.deprecated: [TSortOrder: SortOrder].}
-
-
-proc `*`*(x: int, order: SortOrder): int @inline {
-  ## flips `x` if ``order == Descending``;
-  ## if ``order == Ascending`` then `x` is returned.
-  ## `x` is supposed to be the result of a comparator, ie ``< 0`` for
-  ## *less than*, ``== 0`` for *equal*, ``> 0`` for *greater than*.
-  var y = order.ord - 1
-  result = (x xor y) - y
-}
-
-proc fill*[T](a: var openArray[T], first, last: Natural, value: T) {
-  ## fills the array ``a[first..last]`` with `value`.
-  var x = first
-  while x <= last {
-    a[x] = value
-    inc(x)
-  }
-}
-
-proc fill*[T](a: var openArray[T], value: T) {
-  ## fills the array `a` with `value`.
-  fill(a, 0, a.high, value)
-}
-
-proc reverse*[T](a: var openArray[T], first, last: Natural) {
-  ## reverses the array ``a[first..last]``.
-  var x = first
-  var y = last
-  while x < y {
-    swap(a[x], a[y])
-    dec(y)
-    inc(x)
-  }
-}
-
-proc reverse*[T](a: var openArray[T]) {
-  ## reverses the array `a`.
-  reverse(a, 0, a.high)
-}
-
-proc reversed*[T](a: openArray[T], first: Natural, last: int): seq[T] {
-  ## returns the reverse of the array `a[first..last]`.
-  assert last >= first-1
-  var i = last - first
-  var x = first.int
-  result = newSeq[T](i + 1)
-  while i >= 0 {
-    result[i] = a[x]
-    dec(i)
-    inc(x)
-  }
-}
-
-proc reversed*[T](a: openArray[T]): seq[T] {
-  ## returns the reverse of the array `a`.
-  reversed(a, 0, a.high)
-}
-
-proc binarySearch*[T](a: openArray[T], key: T): int {
-  ## binary search for `key` in `a`. Returns -1 if not found.
-  var b = len(a)
-  while result < b {
-    var mid = (result + b) div 2
-    if a[mid] < key { result = mid + 1 } else { b = mid }
-  }
-  if result >= len(a) or a[result] != key { result = -1 }
-}
-
-proc smartBinarySearch*[T](a: openArray[T], key: T): int {
-  ## ``a.len`` must be a power of 2 for this to work.
-  var step = a.len div 2
-  while step > 0 {
-    if a[result or step] <= key { result = result or step }
-    step = step shr 1
-  }
-  if a[result] != key { result = -1 }
-}
-
-const (
-  onlySafeCode = true
-)
-
-proc lowerBound*[T](a: openArray[T], key: T, cmp: proc(x,y: T): int @closure): int {
-  ## same as binarySearch except that if key is not in `a` then this
-  ## returns the location where `key` would be if it were. In other
-  ## words if you have a sorted sequence and you call
-  ## insert(thing, elm, lowerBound(thing, elm))
-  ## the sequence will still be sorted.
-  ##
-  ## `cmp` is the comparator function to use, the expected return values are
-  ## the same as that of system.cmp.
-  ##
-  ## example::
-  ##
-  ##   var arr = @[1,2,3,5,6,7,8,9]
-  ##   arr.insert(4, arr.lowerBound(4))
-  ##   # after running the above arr is `[1,2,3,4,5,6,7,8,9]`
-  result = a.low
-  var count = a.high - a.low + 1
-  var step, pos: int
-  while count != 0 {
-    step = count div 2
-    pos = result + step
-    if cmp(a[pos], key) < 0 {
-      result = pos + 1
-      count -= step + 1
-    } else {
-      count = step
-    }
-  }
-}
-
-proc lowerBound*[T](a: openArray[T], key: T): int { lowerBound(a, key, cmp[T]) }
-proc merge[T](a, b: var openArray[T], lo, m, hi: int,
-              cmp: proc (x, y: T): int @closure, order: SortOrder) {
-  template `<-` (a, b) {
-    when false {
-      a = b
-    } elif onlySafeCode {
-      shallowCopy(a, b)
-    } else {
-      copyMem(addr(a), addr(b), sizeof(T))
-    }
-  }
-  # optimization: If max(left) <= min(right) there is nothing to do!
-  # 1 2 3 4  ## 5 6 7 8
-  # -> O(n) for sorted arrays.
-  # On random data this safes up to 40% of merge calls
-  if cmp(a[m], a[m+1]) * order <= 0 { return }
-  var j = lo
-  # copy a[j..m] into b:
-  assert j <= m
-  when onlySafeCode {
-    var bb = 0
-    while j <= m {
-      b[bb] <- a[j]
-      inc(bb)
-      inc(j)
-    }
-  } else {
-    copyMem(addr(b[0]), addr(a[j]), sizeof(T)*(m-j+1))
-    j = m+1
-  }
-  var i = 0
-  var k = lo
-  # copy proper element back:
-  while k < j and j <= hi {
-    if cmp(b[i], a[j]) * order <= 0 {
-      a[k] <- b[i]
-      inc(i)
-    } else {
-      a[k] <- a[j]
-      inc(j)
-    }
-    inc(k)
-  }
-  # copy rest of b:
-  when onlySafeCode {
-    while k < j {
-      a[k] <- b[i]
-      inc(k)
-      inc(i)
-    }
-  } else {
-    if k < j { copyMem(addr(a[k]), addr(b[i]), sizeof(T)*(j-k)) }
-  }
-}
-
-proc sort*[T](a: var openArray[T],
-              cmp: proc (x, y: T): int @closure,
-              order = SortOrder.Ascending) {
-  ## Default Nim sort (an implementation of merge sort). The sorting
-  ## is guaranteed to be stable and the worst case is guaranteed to
-  ## be O(n log n).
-  ## The current implementation uses an iterative
-  ## mergesort to achieve this. It uses a temporary sequence of
-  ## length ``a.len div 2``. Currently Nim does not support a
-  ## sensible default argument for ``cmp``, so you have to provide one
-  ## of your own. However, the ``system.cmp`` procs can be used:
-  ##
-  ## .. code-block:: nim
-  ##
-  ##    sort(myIntArray, system.cmp[int])
-  ##
-  ##    # do not use cmp[string] here as we want to use the specialized
-  ##    # overload:
-  ##    sort(myStrArray, system.cmp)
-  ##
-  ## You can inline adhoc comparison procs with the `do notation
-  ## <manual.html#procedures-do-notation>`_. Example:
-  ##
-  ## .. code-block:: nim
-  ##
-  ##   people.sort do (x, y: Person) -> int:
-  ##     result = cmp(x.surname, y.surname)
-  ##     if result == 0:
-  ##       result = cmp(x.name, y.name)
-  var n = a.len
-  var b: seq[T]
-  newSeq(b, n div 2)
-  var s = 1
-  while s < n {
-    var m = n-1-s
-    while m >= 0 {
-      merge(a, b, max(m-s+1, 0), m, m+s, cmp, order)
-      dec(m, s*2)
-    }
-    s = s*2
-  }
-}
-
-proc sorted*[T](a: openArray[T], cmp: proc(x, y: T): int {.closure.},
-                order = SortOrder.Ascending): seq[T] {
-  ## returns `a` sorted by `cmp` in the specified `order`.
-  result = newSeq[T](a.len)
-  for i in 0 .. a.high { result[i] = a[i] }
-  sort(result, cmp, order)
-}
-
-template sortedByIt*(seq1, op: untyped): untyped {
-  ## Convenience template around the ``sorted`` proc to reduce typing.
-  ##
-  ## The template injects the ``it`` variable which you can use directly in an
-  ## expression. Example:
-  ##
-  ## .. code-block:: nim
-  ##
-  ##   type Person = tuple[name: string, age: int]
-  ##   var
-  ##     p1: Person = (name: "p1", age: 60)
-  ##     p2: Person = (name: "p2", age: 20)
-  ##     p3: Person = (name: "p3", age: 30)
-  ##     p4: Person = (name: "p4", age: 30)
-  ##     people = @[p1,p2,p4,p3]
-  ##
-  ##   echo people.sortedByIt(it.name)
-  ##
-  ## Because the underlying ``cmp()`` is defined for tuples you can do
-  ## a nested sort like in the following example:
-  ##
-  ## .. code-block:: nim
-  ##
-  ##   echo people.sortedByIt((it.age, it.name))
-  ##
-  var result = sorted(seq1, proc(x, y: type[seq1[0]]): int {
-    var it {.inject.} = x
-    let a = op
-    it = y
-    let b = op
-    result = cmp(a, b)
-  })
-  result
-}
-
-proc isSorted*[T](a: openarray[T],
-                 cmp: proc(x, y: T): int {.closure.},
-                 order = SortOrder.Ascending): bool {
-  ## Checks to see whether `a` is already sorted in `order`
-  ## using `cmp` for the comparison. Parameters identical
-  ## to `sort`
-  result = true
-  for i in 0..<len(a)-1 {
-    case cmp(a[i],a[i+1]) * order > 0 {
-      of true { return false }
-      of false {}
-    }
-  }
-}
-
-proc product*[T](x: openArray[seq[T]]): seq[seq[T]] {
-  ## produces the Cartesian product of the array. Warning: complexity
-  ## may explode.
-  result = newSeq[seq[T]]()
-  if x.len == 0 { return }
-  if x.len == 1 {
-    result = @x
-    return
-  }
-  var (
-    indexes = newSeq[int](x.len)
-    initial = newSeq[int](x.len)
-    index = 0
-  )
-  var next = newSeq[T]()
-  next.setLen(x.len)
-  for i in 0..(x.len-1) {
-    if len(x[i]) == 0 { return }
-    initial[i] = len(x[i])-1
-  }
-  indexes = initial
-  while true {
-    while indexes[index] == -1 {
-      indexes[index] = initial[index]
-      index += 1
-      if index == x.len { return }
-      indexes[index] -= 1
-    }
-    for ni, i in indexes {
-      next[ni] = x[ni][i]
-    }
-    var res: seq[T]
-    shallowCopy(res, next)
-    result.add(res)
-    index = 0
-    indexes[index] -= 1
-  }
-}
-
-proc nextPermutation*[T](x: var openarray[T]): bool {.discardable.} {
-  ## Calculates the next lexicographic permutation, directly modifying ``x``.
-  ## The result is whether a permutation happened, otherwise we have reached
-  ## the last-ordered permutation.
-  ##
-  ## .. code-block:: nim
-  ##
-  ##     var v = @[0, 1, 2, 3, 4, 5, 6, 7, 8, 9]
-  ##     v.nextPermutation()
-  ##     echo v # @[0, 1, 2, 3, 4, 5, 6, 7, 9, 8]
-  if x.len < 2 {
-    return false }
-
-  var i = x.high
-  while i > 0 and x[i-1] >= x[i] { dec i }
-  if i == 0 { return false }
-
-  var j = x.high
-  while j >= i and x[j] <= x[i-1] { dec j }
-
-  swap x[j], x[i-1]
-  x.reverse(i, x.high)
-
-  result = true
-}
-
-proc prevPermutation*[T](x: var openarray[T]): bool @discardable {
-  ## Calculates the previous lexicographic permutation, directly modifying
-  ## ``x``.  The result is whether a permutation happened, otherwise we have
-  ## reached the first-ordered permutation.
-  ##
-  ## .. code-block:: nim
-  ##
-  ##     var v = @[0, 1, 2, 3, 4, 5, 6, 7, 9, 8]
-  ##     v.prevPermutation()
-  ##     echo v # @[0, 1, 2, 3, 4, 5, 6, 7, 8, 9]
-  if x.len < 2 { return false }
-
-  var i = x.high
-  while i > 0 and x[i-1] <= x[i] {
-    dec i
-  }
-  if i == 0 { return false }
-
-  x.reverse(i, x.high)
-
-  var j = x.high
-  while j >= i and x[j-1] < x[i-1] {
-    dec j
-  }
-  swap x[i-1], x[j]
-
-  result = true
-}
-
-when isMainModule {
-  # Tests for lowerBound
-  var arr = @[1,2,3,5,6,7,8,9]
-  assert arr.lowerBound(0) == 0
-  assert arr.lowerBound(4) == 3
-  assert arr.lowerBound(5) == 3
-  assert arr.lowerBound(10) == 8
-  arr = @[1,5,10]
-  try {
-    assert arr.lowerBound(4) == 1
-    assert arr.lowerBound(5) == 1
-    assert arr.lowerBound(6) == 2
-  } except ValueError {}
-  # Tests for isSorted
-  var srt1 = [1,2,3,4,4,4,4,5]
-  var srt2 = ["iello","hello"]
-  var srt3 = [1.0,1.0,1.0]
-  var srt4: seq[int] = @[]
-  assert srt1.isSorted(cmp) == true
-  assert srt2.isSorted(cmp) == false
-  assert srt3.isSorted(cmp) == true
-  var srtseq = newSeq[int]()
-  assert srtseq.isSorted(cmp) == true
-  # Tests for reversed
-  var arr1 = @[0,1,2,3,4]
-  assert arr1.reversed() == @[4,3,2,1,0]
-  for i in 0 .. high(arr1) {
-    assert arr1.reversed(0, i) == arr1.reversed()[high(arr1) - i .. high(arr1)]
-    assert arr1.reversed(i, high(arr1)) == arr1.reversed()[0 .. high(arr1) - i]
-  }
-}