Refine the link_args that are propagated

doc/rust.md

@@ -889,10 +889,10 @@ declared, in an angle-bracket-enclosed, comma-separated list following
 the function name.
 
 ~~~~ {.xfail-test}
-fn iter<T>(seq: &[T], f: fn(T)) {
+fn iter<T>(seq: &[T], f: &fn(T)) {
     for seq.each |elt| { f(elt); }
 }
-fn map<T, U>(seq: &[T], f: fn(T) -> U) -> ~[U] {
+fn map<T, U>(seq: &[T], f: &fn(T) -> U) -> ~[U] {
     let mut acc = ~[];
     for seq.each |elt| { acc.push(f(elt)); }
     acc
@@ -1198,7 +1198,7 @@ These appear after the trait name, using the same syntax used in [generic functi
 trait Seq<T> {
    fn len() -> uint;
    fn elt_at(n: uint) -> T;
-   fn iter(fn(T));
+   fn iter(&fn(T));
 }
 ~~~~
 
@@ -2074,7 +2074,7 @@ and moving values from the environment into the lambda expression's captured env
 An example of a lambda expression:
 
 ~~~~
-fn ten_times(f: fn(int)) {
+fn ten_times(f: &fn(int)) {
     let mut i = 0;
     while i < 10 {
         f(i);
@@ -2177,7 +2177,7 @@ If the `expr` is a [field expression](#field-expressions), it is parsed as thoug
 In this example, both calls to `f` are equivalent:
 
 ~~~~
-# fn f(f: fn(int)) { }
+# fn f(f: &fn(int)) { }
 # fn g(i: int) { }
 
 f(|j| g(j));
@@ -2755,7 +2755,7 @@ and the cast expression in `main`.
 Within the body of an item that has type parameter declarations, the names of its type parameters are types:
 
 ~~~~~~~
-fn map<A: Copy, B: Copy>(f: fn(A) -> B, xs: &[A]) -> ~[B] {
+fn map<A: Copy, B: Copy>(f: &fn(A) -> B, xs: &[A]) -> ~[B] {
    if xs.len() == 0 { return ~[]; }
    let first: B = f(xs[0]);
    let rest: ~[B] = map(f, xs.slice(1, xs.len()));

doc/tutorial.md

@@ -681,45 +681,6 @@ the value of `North` is 0, `East` is 1, `South` is 2, and `West` is 3.
 When an enum is C-like, you can apply the `as` cast operator to
 convert it to its discriminator value as an `int`.
 
-<a name="single_variant_enum"></a>
-
-There is a special case for enums with a single variant, which are
-sometimes called "newtype-style enums" (after Haskell's "newtype"
-feature). These are used to define new types in such a way that the
-new name is not just a synonym for an existing type, but its own
-distinct type: `type` creates a structural synonym, while this form of
-`enum` creates a nominal synonym. If you say:
-
-~~~~
-enum GizmoId = int;
-~~~~
-
-That is a shorthand for this:
-
-~~~~
-enum GizmoId { GizmoId(int) }
-~~~~
-
-You can extract the contents of such an enum type with the
-dereference (`*`) unary operator:
-
-~~~~
-# enum GizmoId = int;
-let my_gizmo_id: GizmoId = GizmoId(10);
-let id_int: int = *my_gizmo_id;
-~~~~
-
-Types like this can be useful to differentiate between data that have
-the same type but must be used in different ways.
-
-~~~~
-enum Inches = int;
-enum Centimeters = int;
-~~~~
-
-The above definitions allow for a simple way for programs to avoid
-confusing numbers that correspond to different units.
-
 For enum types with multiple variants, destructuring is the only way to
 get at their contents. All variant constructors can be used as
 patterns, as in this definition of `area`:
@@ -789,10 +750,10 @@ match mytup {
 
 ## Tuple structs
 
-Rust also has _nominal tuples_, which behave like both structs and tuples,
-except that nominal tuple types have names
-(so `Foo(1, 2)` has a different type from `Bar(1, 2)`),
-and nominal tuple types' _fields_ do not have names.
+Rust also has _tuple structs_, which behave like both structs and tuples,
+except that, unlike tuples, tuple structs have names (so `Foo(1, 2)` has a
+different type from `Bar(1, 2)`), and tuple structs' _fields_ do not have
+names.
 
 For example:
 ~~~~
@@ -803,6 +764,37 @@ match mytup {
 }
 ~~~~
 
+<a name="newtype"></a>
+
+There is a special case for tuple structs with a single field, which are
+sometimes called "newtypes" (after Haskell's "newtype" feature). These are
+used to define new types in such a way that the new name is not just a
+synonym for an existing type but is rather its own distinct type.
+
+~~~~
+struct GizmoId(int);
+~~~~
+
+For convenience, you can extract the contents of such a struct with the
+dereference (`*`) unary operator:
+
+~~~~
+# struct GizmoId(int);
+let my_gizmo_id: GizmoId = GizmoId(10);
+let id_int: int = *my_gizmo_id;
+~~~~
+
+Types like this can be useful to differentiate between data that have
+the same type but must be used in different ways.
+
+~~~~
+struct Inches(int);
+struct Centimeters(int);
+~~~~
+
+The above definitions allow for a simple way for programs to avoid
+confusing numbers that correspond to different units.
+
 # Functions
 
 We've already seen several function definitions. Like all other static
@@ -1369,7 +1361,7 @@ the enclosing scope.
 
 ~~~~
 # use println = core::io::println;
-fn call_closure_with_ten(b: fn(int)) { b(10); }
+fn call_closure_with_ten(b: &fn(int)) { b(10); }
 
 let captured_var = 20;
 let closure = |arg| println(fmt!("captured_var=%d, arg=%d", captured_var, arg));
@@ -1455,7 +1447,7 @@ should almost always declare the type of that argument as `fn()`. That way,
 callers may pass any kind of closure.
 
 ~~~~
-fn call_twice(f: fn()) { f(); f(); }
+fn call_twice(f: &fn()) { f(); f(); }
 let closure = || { "I'm a closure, and it doesn't matter what type I am"; };
 fn function() { "I'm a normal function"; }
 call_twice(closure);
@@ -1475,7 +1467,7 @@ Consider this function that iterates over a vector of
 integers, passing in a pointer to each integer in the vector:
 
 ~~~~
-fn each(v: &[int], op: fn(v: &int)) {
+fn each(v: &[int], op: &fn(v: &int)) {
    let mut n = 0;
    while n < v.len() {
        op(&v[n]);
@@ -1496,7 +1488,7 @@ argument, we can write it in a way that has a pleasant, block-like
 structure.
 
 ~~~~
-# fn each(v: &[int], op: fn(v: &int)) { }
+# fn each(v: &[int], op: &fn(v: &int)) { }
 # fn do_some_work(i: &int) { }
 each([1, 2, 3], |n| {
     do_some_work(n);
@@ -1507,7 +1499,7 @@ This is such a useful pattern that Rust has a special form of function
 call that can be written more like a built-in control structure:
 
 ~~~~
-# fn each(v: &[int], op: fn(v: &int)) { }
+# fn each(v: &[int], op: &fn(v: &int)) { }
 # fn do_some_work(i: &int) { }
 do each([1, 2, 3]) |n| {
     do_some_work(n);
@@ -1554,7 +1546,7 @@ Consider again our `each` function, this time improved to
 break early when the iteratee returns `false`:
 
 ~~~~
-fn each(v: &[int], op: fn(v: &int) -> bool) {
+fn each(v: &[int], op: &fn(v: &int) -> bool) {
    let mut n = 0;
    while n < v.len() {
        if !op(&v[n]) {
@@ -1778,7 +1770,7 @@ vector consisting of the result of applying `function` to each element
 of `vector`:
 
 ~~~~
-fn map<T, U>(vector: &[T], function: fn(v: &T) -> U) -> ~[U] {
+fn map<T, U>(vector: &[T], function: &fn(v: &T) -> U) -> ~[U] {
     let mut accumulator = ~[];
     for vec::each(vector) |element| {
         accumulator.push(function(element));
@@ -1977,12 +1969,12 @@ types might look like the following:
 ~~~~
 trait Seq<T> {
     fn len(&self) -> uint;
-    fn iter(&self, b: fn(v: &T));
+    fn iter(&self, b: &fn(v: &T));
 }
 
 impl<T> Seq<T> for ~[T] {
     fn len(&self) -> uint { vec::len(*self) }
-    fn iter(&self, b: fn(v: &T)) {
+    fn iter(&self, b: &fn(v: &T)) {
         for vec::each(*self) |elt| { b(elt); }
     }
 }
@@ -2294,7 +2286,7 @@ struct level. Note that fields and methods are _public_ by default.
 pub mod farm {
 # pub type Chicken = int;
 # type Cow = int;
-# enum Human = int;
+# struct Human(int);
 # impl Human { fn rest(&self) { } }
 # pub fn make_me_a_farm() -> Farm { Farm { chickens: ~[], cows: ~[], farmer: Human(0) } }
     pub struct Farm {

src/compiletest/header.rs

@@ -103,7 +103,7 @@ pub fn is_test_ignored(config: config, testfile: &Path) -> bool {
     }
 }
 
-fn iter_header(testfile: &Path, it: fn(~str) -> bool) -> bool {
+fn iter_header(testfile: &Path, it: &fn(~str) -> bool) -> bool {
     let rdr = io::file_reader(testfile).get();
     while !rdr.eof() {
         let ln = rdr.read_line();

src/compiletest/runtest.rs

@@ -530,7 +530,7 @@ fn compose_and_run(config: config, testfile: &Path,
 }
 
 fn make_compile_args(config: config, props: TestProps, extras: ~[~str],
-                     xform: fn(config, (&Path)) -> Path,
+                     xform: &fn(config, (&Path)) -> Path,
                      testfile: &Path) -> ProcArgs {
     let prog = config.rustc_path;
     let mut args = ~[testfile.to_str(),

src/etc/emacs/rust-mode.el

@@ -7,6 +7,7 @@
 
 (require 'cm-mode)
 (require 'cc-mode)
+(eval-when-compile (require 'cl))
 
 (defun rust-electric-brace (arg)
   (interactive "*P")

src/etc/kate/rust.xml

@@ -17,7 +17,6 @@
 	</list>
 	<list name="keywords">
 		<item> as </item>
-		<item> assert </item>
 		<item> break </item>
 		<item> const </item>
 		<item> copy </item>
@@ -69,6 +68,7 @@
 		<item> Shl </item>
 		<item> Shr </item>
 		<item> Index </item>
+		<item> Not </item>
 	</list>
 	<list name="types">
 		<item> bool </item>

src/libcore/at_vec.rs

@@ -61,7 +61,7 @@ pub pure fn capacity<T>(v: @[const T]) -> uint {
  */
 #[inline(always)]
 pub pure fn build_sized<A>(size: uint,
-                           builder: &fn(push: pure fn(v: A))) -> @[A] {
+                           builder: &fn(push: &pure fn(v: A))) -> @[A] {
     let mut vec: @[const A] = @[];
     unsafe { raw::reserve(&mut vec, size); }
     builder(|+x| unsafe { raw::push(&mut vec, x) });
@@ -79,7 +79,7 @@ pub pure fn build_sized<A>(size: uint,
  *             onto the vector being constructed.
  */
 #[inline(always)]
-pub pure fn build<A>(builder: &fn(push: pure fn(v: A))) -> @[A] {
+pub pure fn build<A>(builder: &fn(push: &pure fn(v: A))) -> @[A] {
     build_sized(4, builder)
 }
 
@@ -97,7 +97,7 @@ pub pure fn build<A>(builder: &fn(push: pure fn(v: A))) -> @[A] {
  */
 #[inline(always)]
 pub pure fn build_sized_opt<A>(size: Option<uint>,
-                               builder: &fn(push: pure fn(v: A))) -> @[A] {
+                               builder: &fn(push: &pure fn(v: A))) -> @[A] {
     build_sized(size.get_or_default(4), builder)
 }
 

src/libcore/bool.rs

@@ -67,7 +67,7 @@ pub pure fn to_str(v: bool) -> ~str { if v { ~"true" } else { ~"false" } }
  * Iterates over all truth values by passing them to `blk` in an unspecified
  * order
  */
-pub fn all_values(blk: fn(v: bool)) {
+pub fn all_values(blk: &fn(v: bool)) {
     blk(true);
     blk(false);
 }

src/libcore/cell.rs

@@ -15,6 +15,7 @@ use prelude::*;
 ///
 /// Similar to a mutable option type, but friendlier.
 
+#[deriving_eq]
 pub struct Cell<T> {
     mut value: Option<T>
 }
@@ -54,7 +55,7 @@ pub impl<T> Cell<T> {
     }
 
     // Calls a closure with a reference to the value.
-    fn with_ref<R>(&self, op: fn(v: &T) -> R) -> R {
+    fn with_ref<R>(&self, op: &fn(v: &T) -> R) -> R {
         let v = self.take();
         let r = op(&v);
         self.put_back(v);

src/libcore/cleanup.rs

@@ -124,7 +124,7 @@ struct AnnihilateStats {
     n_bytes_freed: uint
 }
 
-unsafe fn each_live_alloc(f: fn(box: *mut BoxRepr, uniq: bool) -> bool) {
+unsafe fn each_live_alloc(f: &fn(box: *mut BoxRepr, uniq: bool) -> bool) {
     use managed;
 
     let task: *Task = transmute(rustrt::rust_get_task());

src/libcore/clone.rs

@@ -19,3 +19,31 @@ impl Clone for () {
     #[inline(always)]
     fn clone(&self) -> () { () }
 }
+
+macro_rules! clone_impl(
+    ($t:ty) => {
+        impl Clone for $t {
+            #[inline(always)]
+            fn clone(&self) -> $t { *self }
+        }
+    }
+)
+
+clone_impl!(int)
+clone_impl!(i8)
+clone_impl!(i16)
+clone_impl!(i32)
+clone_impl!(i64)
+
+clone_impl!(uint)
+clone_impl!(u8)
+clone_impl!(u16)
+clone_impl!(u32)
+clone_impl!(u64)
+
+clone_impl!(float)
+clone_impl!(f32)
+clone_impl!(f64)
+
+clone_impl!(bool)
+clone_impl!(char)