---

yaml
---
r: 236189
b: refs/heads/stable
c: 3dfab40
h: refs/heads/master
i:
  236187: 19c17e2
v: v3

Author: esclear

[refs]

@@ -29,7 +29,7 @@ refs/heads/tmp: afae2ff723393b3ab4ccffef6ac7c6d1809e2da0
 refs/tags/1.0.0-alpha.2: 4c705f6bc559886632d3871b04f58aab093bfa2f
 refs/tags/homu-tmp: f859507de8c410b648d934d8f5ec1c52daac971d
 refs/tags/1.0.0-beta: 8cbb92b53468ee2b0c2d3eeb8567005953d40828
-refs/heads/stable: 832e5a02cd41b3a20d1142b47867da4aa5033f03
+refs/heads/stable: 3dfab40bbca155e7bda34050886dac2682fa5d09
 refs/tags/1.0.0: 55bd4f8ff2b323f317ae89e254ce87162d52a375
 refs/tags/1.1.0: bc3c16f09287e5545c1d3f76b7abd54f2eca868b
 refs/tags/1.2.0: f557861f822c34f07270347b94b5280de20a597e

branches/stable/src/doc/trpl/the-stack-and-the-heap.md

@@ -73,7 +73,7 @@ frame. But before we can show what happens when `foo()` is called, we need to
 visualize what’s going on with memory. Your operating system presents a view of
 memory to your program that’s pretty simple: a huge list of addresses, from 0
 to a large number, representing how much RAM your computer has. For example, if
-you have a gigabyte of RAM, your addresses go from `0` to `1,073,741,824`. That
+you have a gigabyte of RAM, your addresses go from `0` to `1,073,741,823`. That
 number comes from 2<sup>30</sup>, the number of bytes in a gigabyte.
 
 This memory is kind of like a giant array: addresses start at zero and go
@@ -551,7 +551,7 @@ is a great introduction.
 
 [wilson]: http://www.cs.northwestern.edu/~pdinda/icsclass/doc/dsa.pdf
 
-## Semantic impact 
+## Semantic impact
 
 Stack-allocation impacts the Rust language itself, and thus the developer’s
 mental model. The LIFO semantics is what drives how the Rust language handles