Fix indentation to follow guide rules

exercises/anagram/example.jl

@@ -1,43 +1,42 @@
 # Anagrams are two or more words that composed of the same characters but in a different order
 
 function is_anagram(s1::AbstractString, s2::AbstractString)
-  # Disable case sensitivity
-  s1 = lowercase(s1)
-  s2 = lowercase(s2)
+    # Disable case sensitivity
+    s1 = lowercase(s1)
+    s2 = lowercase(s2)
 
-  # Similar and different-length strings are not anagrams
-  if length(s1) != length(s2) || s1 == s2
-    return false
-  end
+    # Similar and different-length strings are not anagrams
+    if length(s1) != length(s2) || s1 == s2
+        return false
+    end
 
-  # Calculate count of every character in the first string
-  chr_count = Dict()
-  for c in s1
-    chr_count[c] = get(chr_count, c, 0) + 1
-  end
+    # Calculate count of every character in the first string
+    chr_count = Dict()
+    for c in s1
+        chr_count[c] = get(chr_count, c, 0) + 1
+    end
 
-  # Reduce the count by every character from the second string
-  for c in s2
-    t = get(chr_count, c, 0) - 1
-    if t < 0
-      # Got character that not exist in the first string
-      return false
-    else
-      chr_count[c] = t
+    # Reduce the count by every character from the second string
+    for c in s2
+        t = get(chr_count, c, 0) - 1
+        if t < 0
+            # Got character that not exist in the first string
+            return false
+        else
+            chr_count[c] = t
+        end
     end
-  end
 
-  # Check all counts to be zeroes
-  return all(i->(i==0), values(chr_count))
+    # Check all counts to be zeroes
+    return all(i->(i==0), values(chr_count))
 end
 
 function detect_anagrams(subject::AbstractString, candidates::AbstractArray)
-  result = []
-  for candidate = candidates
-    if is_anagram(subject, candidate)
-      push!(result, candidate)
+    result = []
+    for candidate = candidates
+        if is_anagram(subject, candidate)
+            push!(result, candidate)
+        end
     end
-  end
-  result
+    result
 end
-

exercises/anagram/runtests.jl

@@ -3,66 +3,65 @@ using Base.Test
 include("anagram.jl")
 
 @testset "no matches" begin
-  @test detect_anagrams("diasper", ["hello", "world", "zombies", "pants"]) == []
+    @test detect_anagrams("diasper", ["hello", "world", "zombies", "pants"]) == []
 end
 
 @testset "detects simple anagram" begin
-  @test detect_anagrams("ant", ["tan", "stand", "at"]) == ["tan"]
+    @test detect_anagrams("ant", ["tan", "stand", "at"]) == ["tan"]
 end
 
 @testset "does not detect false positives" begin
-  @test detect_anagrams("galea", ["eagle"]) == []
+    @test detect_anagrams("galea", ["eagle"]) == []
 end
 
 @testset "detects multiple anagrams" begin
-  @test detect_anagrams("master", ["stream", "pigeon", "maters"]) == ["stream", "maters"]
+    @test detect_anagrams("master", ["stream", "pigeon", "maters"]) == ["stream", "maters"]
 end
 
 @testset "does not detect anagram subsets" begin
-  @test detect_anagrams("good", ["dog", "goody"]) == []
+    @test detect_anagrams("good", ["dog", "goody"]) == []
 end
 
 @testset "detects anagram" begin
-  @test detect_anagrams("listen", ["enlists", "google", "inlets", "banana"]) == ["inlets"]
+    @test detect_anagrams("listen", ["enlists", "google", "inlets", "banana"]) == ["inlets"]
 end
 
 @testset "detects multiple anagrams" begin
-  @test detect_anagrams("allergy", ["gallery", "ballerina", "regally", "clergy", "largely", "leading"]) == ["gallery", "regally", "largely"]
+    @test detect_anagrams("allergy", ["gallery", "ballerina", "regally", "clergy", "largely", "leading"]) == ["gallery", "regally", "largely"]
 end
 
 @testset "does not detect identical words" begin
-  @test detect_anagrams("corn", ["corn", "dark", "Corn", "rank", "CORN", "cron", "park"]) == ["cron"]
+    @test detect_anagrams("corn", ["corn", "dark", "Corn", "rank", "CORN", "cron", "park"]) == ["cron"]
 end
 
 @testset "does not detect non-anagrams with identical checksum" begin
-  @test detect_anagrams("mass", ["last"]) == []
+    @test detect_anagrams("mass", ["last"]) == []
 end
 
 @testset "detects anagrams case-insensitively" begin
-  @test detect_anagrams("Orchestra", ["cashregister", "Carthorse", "radishes"]) == ["Carthorse"]
+    @test detect_anagrams("Orchestra", ["cashregister", "Carthorse", "radishes"]) == ["Carthorse"]
 end
 
 @testset "detects anagrams using case-insensitive subject" begin
-  @test detect_anagrams("Orchestra", ["cashregister", "carthorse", "radishes"]) == ["carthorse"] 
+    @test detect_anagrams("Orchestra", ["cashregister", "carthorse", "radishes"]) == ["carthorse"]
 end
 
 @testset "detects anagrams using case-insensitive possible matches" begin
-  @test detect_anagrams("orchestra", ["cashregister", "Carthorse", "radishes"]) == ["Carthorse"]
+    @test detect_anagrams("orchestra", ["cashregister", "Carthorse", "radishes"]) == ["Carthorse"]
 end
 
 @testset "does not detect a word as its own anagram" begin
-  @test detect_anagrams("banana", ["Banana"]) == []
+    @test detect_anagrams("banana", ["Banana"]) == []
 end
 
 @testset "does not detect a anagram if the original word is repeated" begin
-  @test detect_anagrams("go", ["go Go GO"]) == []
+    @test detect_anagrams("go", ["go Go GO"]) == []
 end
 
 @testset "anagrams must use all letters exactly once" begin
-  @test detect_anagrams("tapper", ["patter"]) == []
+    @test detect_anagrams("tapper", ["patter"]) == []
 end
 
 @testset "capital word is not own anagram" begin
-  @test detect_anagrams("BANANA", ["Banana"]) == []
+    @test detect_anagrams("BANANA", ["Banana"]) == []
 end
-

exercises/bob/example.jl

@@ -25,6 +25,6 @@ function isshouting(stimulus::AbstractString)
             return false
         end
     end
-    
+
     return true
 end

exercises/hamming/example.jl

@@ -1,5 +1,4 @@
 function distance(s1::AbstractString, s2::AbstractString)
     length(s1) != length(s2) && throw(ArgumentError("Sequences must have the same length"))
-
     reduce(+, 0, a != b for (a, b) in zip(s1, s2))
 end

exercises/leap/runtests.jl

@@ -3,18 +3,17 @@ using Base.Test
 include("leap.jl")
 
 @testset "Year not divisible by 4: common year" begin
-  @test !is_leap_year(2015)
+    @test !is_leap_year(2015)
 end
 
 @testset "Year divisible by 4, not divisible by 100: leap year" begin
-  @test is_leap_year(2016)
+    @test is_leap_year(2016)
 end
 
 @testset "Year divisible by 100, not divisible by 400: common year" begin
-  @test !is_leap_year(2100)
+    @test !is_leap_year(2100)
 end
 
 @testset "Year divisible by 400: leap year" begin
-  @test is_leap_year(2000)
+    @test is_leap_year(2000)
 end
-

exercises/raindrops/example.jl

@@ -4,13 +4,13 @@
 # If the number does not have 3, 5, or 7 as a factor, just pass the number's digits straight through.
 
 function raindrops(number::Int)
-  drops = []
-  number % 3 == 0 && push!(drops, "Pling")
-  number % 5 == 0 && push!(drops, "Plang")
-  number % 7 == 0 && push!(drops, "Plong")
-  if size(drops, 1) == 0
-    repr(number)
-  else
-    join(drops)
-  end
+    drops = []
+    number % 3 == 0 && push!(drops, "Pling")
+    number % 5 == 0 && push!(drops, "Plang")
+    number % 7 == 0 && push!(drops, "Plong")
+    if size(drops, 1) == 0
+      repr(number)
+    else
+      join(drops)
+    end
 end

exercises/raindrops/runtests.jl

@@ -3,70 +3,70 @@ using Base.Test
 include("raindrops.jl")
 
 @testset "detect numbers" begin
-  @testset "the sound for 1 is 1" begin
-    @test raindrops(1) == "1"
-  end
-  @testset "2 to the power 3 does not make a raindrop sound as 3 is the exponent not the base" begin
-    @test raindrops(8) == "8"
-  end
-  @testset "the sound for 52 is 52" begin
-    @test raindrops(52) == "52"
-  end
+    @testset "the sound for 1 is 1" begin
+      @test raindrops(1) == "1"
+    end
+    @testset "2 to the power 3 does not make a raindrop sound as 3 is the exponent not the base" begin
+      @test raindrops(8) == "8"
+    end
+    @testset "the sound for 52 is 52" begin
+      @test raindrops(52) == "52"
+    end
 end
 
 @testset "detect pling" begin
-  @testset "the sound for 3 is Pling" begin
-    @test raindrops(3) == "Pling"
-  end
-  @testset "the sound for 6 is Pling as it has a factor 3" begin
-    @test raindrops(6) == "Pling"
-  end
-  @testset "the sound for 9 is Pling as it has a factor 3" begin
-    @test raindrops(9) == "Pling"
-  end
-  @testset "the sound for 27 is Pling as it has a factor 3" begin
-    @test raindrops(27) == "Pling"
-  end
+    @testset "the sound for 3 is Pling" begin
+      @test raindrops(3) == "Pling"
+    end
+    @testset "the sound for 6 is Pling as it has a factor 3" begin
+      @test raindrops(6) == "Pling"
+    end
+    @testset "the sound for 9 is Pling as it has a factor 3" begin
+      @test raindrops(9) == "Pling"
+    end
+    @testset "the sound for 27 is Pling as it has a factor 3" begin
+      @test raindrops(27) == "Pling"
+    end
 end
 
 @testset "detect plang" begin
-  @testset "the sound for 5 is Plang" begin
-    @test raindrops(5) == "Plang"
-  end
-  @testset "the sound for 10 is Plang as it has a factor 5" begin
-    @test raindrops(10) == "Plang"
-  end
-  @testset "the sound for 25 is Plang as it has a factor 5" begin
-    @test raindrops(25) == "Plang"
-  end
-  @testset "the sound for 3125 is Plang as it has a factor 5" begin
-    @test raindrops(3125) == "Plang"
-  end
+    @testset "the sound for 5 is Plang" begin
+      @test raindrops(5) == "Plang"
+    end
+    @testset "the sound for 10 is Plang as it has a factor 5" begin
+      @test raindrops(10) == "Plang"
+    end
+    @testset "the sound for 25 is Plang as it has a factor 5" begin
+      @test raindrops(25) == "Plang"
+    end
+    @testset "the sound for 3125 is Plang as it has a factor 5" begin
+      @test raindrops(3125) == "Plang"
+    end
 end
 
 @testset "detect plong" begin
-  @testset "the sound for 7 is Plong" begin
-    @test raindrops(7) == "Plong"
-  end
-  @testset "the sound for 14 is Plong as it has a factor of 7" begin
-    @test raindrops(14) == "Plong"
-  end
-  @testset "the sound for 49 is Plong as it has a factor 7" begin
-    @test raindrops(49) == "Plong"
-  end
+    @testset "the sound for 7 is Plong" begin
+      @test raindrops(7) == "Plong"
+    end
+    @testset "the sound for 14 is Plong as it has a factor of 7" begin
+      @test raindrops(14) == "Plong"
+    end
+    @testset "the sound for 49 is Plong as it has a factor 7" begin
+      @test raindrops(49) == "Plong"
+    end
 end
 
 @testset "detect multiple sounds" begin
-  @testset "the sound for 15 is PlingPlang as it has factors 3 and 5" begin
-    @test raindrops(15) == "PlingPlang"
-  end
-  @testset "the sound for 21 is PlingPlong as it has factors 3 and 7" begin
-    @test raindrops(21) == "PlingPlong"
-  end
-  @testset "the sound for 35 is PlangPlong as it has factors 5 and 7" begin
-    @test raindrops(35) == "PlangPlong"
-  end
-  @testset "the sound for 105 is PlingPlangPlong as it has factors 3, 5 and 7" begin
-    @test raindrops(105) == "PlingPlangPlong"
-  end
+    @testset "the sound for 15 is PlingPlang as it has factors 3 and 5" begin
+      @test raindrops(15) == "PlingPlang"
+    end
+    @testset "the sound for 21 is PlingPlong as it has factors 3 and 7" begin
+      @test raindrops(21) == "PlingPlong"
+    end
+    @testset "the sound for 35 is PlangPlong as it has factors 5 and 7" begin
+      @test raindrops(35) == "PlangPlong"
+    end
+    @testset "the sound for 105 is PlingPlangPlong as it has factors 3, 5 and 7" begin
+      @test raindrops(105) == "PlingPlangPlong"
+    end
 end

exercises/rna-transcription/example.jl

@@ -1,10 +1,9 @@
 # Given a DNA strand, its transcribed RNA strand is formed by replacing each nucleotide with its complement:
 # G -> C, C -> G, T -> A, A -> U
 function to_rna(dna::AbstractString)
-  typeof(match(r"^[GCTA]+$", dna)) == Void && error("Invalid RNA strand")
-  # Define character associations
-  a_nucleotides = Dict('G'=>'C', 'C'=>'G', 'T'=>'A', 'A'=>'U')
-  # Replace characters using dictionary
-  map((x)->a_nucleotides[x], dna)
+    typeof(match(r"^[GCTA]+$", dna)) == Void && error("Invalid RNA strand")
+    # Define character associations
+    a_nucleotides = Dict('G'=>'C', 'C'=>'G', 'T'=>'A', 'A'=>'U')
+    # Replace characters using dictionary
+    map((x)->a_nucleotides[x], dna)
 end
-