Reflow comments to use the full width.

src/README.SIMD.rst

Index: src/README.SIMD.rst
diff --git a/src/README.SIMD.rst b/src/README.SIMD.rst
index 58f25d96b1fa4285267267eaa56434df0afe31f0..f8cf08f3c3a107c10b348e14f86dd8bfe4e316ae 100644
--- a/src/README.SIMD.rst
+++ b/src/README.SIMD.rst
@@ -1,13 +1,14 @@
 Missing support
 ===============
 
-* The PNaCl LLVM backend expands shufflevector operations into
-  sequences of insertelement and extractelement operations. For
-  instance:
+* The PNaCl LLVM backend expands shufflevector operations into sequences of
+  insertelement and extractelement operations. For instance:
 
     define <4 x i32> @shuffle(<4 x i32> %arg1, <4 x i32> %arg2) {
     entry:
-      %res = shufflevector <4 x i32> %arg1, <4 x i32> %arg2, <4 x i32> <i32 4, i32 5, i32 0, i32 1>
+      %res = shufflevector <4 x i32> %arg1,
+                           <4 x i32> %arg2,
+                           <4 x i32> <i32 4, i32 5, i32 0, i32 1>
       ret <4 x i32> %res
     }
 
@@ -30,38 +31,34 @@ Missing support
   shuffle operations where appropriate.
 
 * Add support for vector constants in the backend. The current code
-  materializes the vector constants it needs (eg. for performing icmp
-  on unsigned operands) using register operations, but this should be
-  changed to loading them from a constant pool if the register
-  initialization is too complicated (such as in
-  TargetX8632::makeVectorOfHighOrderBits()).
+  materializes the vector constants it needs (eg. for performing icmp on
+  unsigned operands) using register operations, but this should be changed to
+  loading them from a constant pool if the register initialization is too
+  complicated (such as in TargetX8632::makeVectorOfHighOrderBits()).
 
-* [x86 specific] llvm-mc does not allow lea to take a mem128 memory
-  operand when assembling x86-32 code. The current
-  InstX8632Lea::emit() code uses Variable::asType() to convert any
-  mem128 Variables into a compatible memory operand type. However, the
-  emit code does not do any conversions of OperandX8632Mem, so if an
-  OperandX8632Mem is passed to lea as mem128 the resulting code will
-  not assemble.  One way to fix this is by implementing
+* [x86 specific] llvm-mc does not allow lea to take a mem128 memory operand
+  when assembling x86-32 code. The current InstX8632Lea::emit() code uses
+  Variable::asType() to convert any mem128 Variables into a compatible memory
+  operand type. However, the emit code does not do any conversions of
+  OperandX8632Mem, so if an OperandX8632Mem is passed to lea as mem128 the
+  resulting code will not assemble.  One way to fix this is by implementing
   OperandX8632Mem::asType().
 
-* [x86 specific] Lower shl with <4 x i32> using some clever float
-  conversion:
+* [x86 specific] Lower shl with <4 x i32> using some clever float conversion:
 http://lists.cs.uiuc.edu/pipermail/llvm-commits/Week-of-Mon-20100726/105087.html
 
-* [x86 specific] Add support for using aligned mov operations
-  (movaps). This will require passing alignment information to loads
-  and stores.
+* [x86 specific] Add support for using aligned mov operations (movaps). This
+  will require passing alignment information to loads and stores.
 
 x86 SIMD Diversification
 ========================
 
-* Vector "bitwise" operations have several variant instructions: the
-  AND operation can be implemented with pand, andpd, or andps. This
-  pattern also holds for ANDN, OR, and XOR.
+* Vector "bitwise" operations have several variant instructions: the AND
+  operation can be implemented with pand, andpd, or andps. This pattern also
+  holds for ANDN, OR, and XOR.
 
-* Vector "mov" instructions can be diversified (eg. movdqu instead of
-  movups) at the cost of a possible performance penalty.
+* Vector "mov" instructions can be diversified (eg. movdqu instead of movups)
+  at the cost of a possible performance penalty.
 
-* Scalar FP arithmetic can be diversified by performing the operations
-  with the vector version of the instructions.
+* Scalar FP arithmetic can be diversified by performing the operations with the
+  vector version of the instructions.