Commit for first assignment

julia/dowhile.jl

@@ -4,6 +4,9 @@ macro doWhile(block, cond)
   println("block ", block)
   res = quote
     error("TODO: Your code here")
+
+    
+
   end
   println(res) # Should not print any lines referencing dowhile.jl
   res

julia/run.jl

 """Template programming is a sort of metaprogramming where you fill
 in the blanks, but most parts of the code are very similar."""
+function add(x,y)
+
+end
+
 
 for (name,op) in [(:add, :+), (:sub, :-), (:mul, :*)]
   # Create a function that is named for example add and returns the
   # sum of its two arguments
 
-
-  #name = eval(Expr(:call, op, 1, 1))
-  function temp(x,y)
-      return eval(Expr(:call,op,x,y))
-  end
-  print(name)
-  name = temp
-  println(" for 1 and 1")
-  println(name(1,1))
-
 end
 
 
-@assert 3 == add(1, 2)
-@assert -1.0 == sub(1.0, 2.0)
-@assert "abc" == mul("ab", "c")
+#@assert 3 == add(1, 2)
+#@assert -1.0 == sub(1.0, 2.0)
+#@assert "abc" == mul("ab", "c")
 
 """Reflective programming often has to do with accessing or creating functions
 at runtime, but it is so similar to template programming that you could
@@ -31,8 +25,12 @@ module Problem1
   f(a::Any) = 2
 end
 # TODO: Delete the method f(a::Int) so that f(1) returns the value 2 instead of 1
+#println(methods(Problem1.f))
+#m = Base.which(Problem1.f, [Int])
+m = Base.methods(Problem1.f, [Int])
+Base.delete_method(m.ms[1])
 @assert 2 == Problem1.f(1)
-
+println(Problem1.f(1))
 # TODO: Make an until block for Julia, similar to do {} while (cond); in C
 #
 # Make sure that any assertions and error-messages refer to lines in the original code.