diff --git a/doc/Memory.md b/doc/Memory.md
index 6d3c452a3dd64bdbd1800e013cbbf71317ac37b8..ed503e252f2605f4b511b9a316c6ece9941eef27 100644
--- a/doc/Memory.md
+++ b/doc/Memory.md
@@ -85,30 +85,24 @@ Thus, only for cases when *true* random access is desired/required, raw indexing
 In short, the complilation process can be broken down to the following steps:
 
 1. Parsing input
-
-    * this processes the .rs files and produces the AST       ("abstract syntax tree")
+    * this processes the .rs files and produces the AST ("abstract syntax tree")
 
     * the AST is defined in syntax/ast.rs. It is intended to match the lexical syntax of the Rust language quite closely.
 2. Name resolution, macro expansion, and configuration
-
     * once parsing is complete, we process the AST recursively,     resolving paths and expanding macros. This same process         also processes `#[cfg]` nodes, and hence may strip thingsout of the AST as well.
 3. Lowering to HIR
     * Once name resolution completes, we convert the AST into the HIR, or "high-level IR". 
 
     * The HIR is a lightly desugared variant of the AST. It is more processed than the AST and more suitable for the analyses that follow. 
 4. Type-checking and subsequent analyses
-
     * An important step in processing the HIR is to perform type checking. This process assigns types to every HIR expression, and also is responsible for resolving some "type-dependent" paths, such as field accesses (`x.f`)
 5. Lowering to MIR and post-processing
-
     * Once type-checking is done, we can lower the HIR into MIR ("middle IR"), which is a very desugared version of Rust.
     Here is where the borrow checking is done!!!!
 6. Translation to LLVM and LLVM optimizations
-
     * From MIR, we can produce LLVM IR.
     LLVM then runs its various optimizations, which produces a number of .o files (one for each "codegen unit").
 7. Linking
-
     Finally, those .o files are linked together.
 
 ### LLVM