Add some backticks to flux docs

examples/todomvc-flux/readme.md

@@ -34,7 +34,7 @@ Views ---> (actions) ----> Dispatcher ---> (registerd callback) ---> Stores ----
 
 A unidirectional data flow is central to the Flux pattern, and in fact Flux takes its name from the Latin word for flow. In the above diagram, the ___dispatcher___, ___stores___ and ___views___ are independent nodes with distinct inputs and outputs. The ___actions___ are simply discrete, semantic helper functions that facilitate passing data to the ___dispatcher___. 
 
-All data flows through the ___dispatcher___ as a central hub.  ___Actions___ most often originate from user interactions with the ___views___, and are nothing more than a call into the ___dispatcher___.  The ___dispatcher___ then invokes the callbacks that the ___stores___ have registered with it, effectively dispatching the data payload contained in the ___actions___ to all ___stores___.  Within their registered callbacks, ___stores___ determine which ___actions___ they are interested in, and respond accordingly.  The ___stores___ then emit a "change" event to alert the ___controller-views___ that a change to the data layer has occurred.  ___Controller-Views___ listen for these events and retrieve data from the ___stores___ in an event handler.  The ___controller-views___ call their own render() method via setState() or forceUpdate(), updating themselves and all of their children.
+All data flows through the ___dispatcher___ as a central hub.  ___Actions___ most often originate from user interactions with the ___views___, and are nothing more than a call into the ___dispatcher___.  The ___dispatcher___ then invokes the callbacks that the ___stores___ have registered with it, effectively dispatching the data payload contained in the ___actions___ to all ___stores___.  Within their registered callbacks, ___stores___ determine which ___actions___ they are interested in, and respond accordingly.  The ___stores___ then emit a "change" event to alert the ___controller-views___ that a change to the data layer has occurred.  ___Controller-Views___ listen for these events and retrieve data from the ___stores___ in an event handler.  The ___controller-views___ call their own `render()` method via `setState()` or `forceUpdate()`, updating themselves and all of their children.
 
 This structure allows us to reason easily about our application in a way that is reminiscent of functional reactive programming, or more specifically data-flow programming or flow-based programming, where data flows through the application in a single direction — there are no two-way bindings. Application state is maintained only in the ___stores___, allowing the different parts of the application to remain highly decoupled. Where dependencies do occur between ___stores___, they are kept in a strict hierarchy, with synchronous updates managed by the ___dispatcher___. 
 
@@ -54,7 +54,7 @@ As an application grows, the dispatcher becomes more vital, as it can manage dep
 
 Stores contain the application state and logic. Their role is somewhat similar to a model in a traditional MVC, but they manage the state of many objects — they are not instances of one object. Nor are they the same as Backbone's collections. More than simply managing a collection of ORM-style objects, stores manage the application state for a particular __domain__ within the application. 
 
-For example, Facebook's [Lookback Video Editor](https://facebook.com/lookback/edit) utilized a TimeStore that kept track of the playback time position and the playback state. On the other hand, the same application's ImageStore kept track of a collection of images.  The TodoStore in our the TodoMVC example is similar in that it manages a collection of to-do items.  A store exhibits characteristics of both a collection of models and a singleton model of a logical domain. 
+For example, Facebook's [Lookback Video Editor](https://facebook.com/lookback/edit) utilized a TimeStore that kept track of the playback time position and the playback state. On the other hand, the same application's ImageStore kept track of a collection of images.  The TodoStore in our TodoMVC example is similar in that it manages a collection of to-do items.  A store exhibits characteristics of both a collection of models and a singleton model of a logical domain. 
 
 As mentioned above, a store registers itself with the dispatcher and provides it with a callback. This callback receives the action's data payload as a parameter. The payload contains a type attribute, identifying the action's type. Within the store's registered callback, a switch statement based on the action's type is used to interpret the payload and to provide the proper hooks into the Store's internal methods. This allows an action to result in an update to the state of the store, via the dispatcher. After the stores are updated, they broadcast an event declaring that their state has changed, so the views may query the new state and update themselves. 
 
@@ -63,7 +63,7 @@ As mentioned above, a store registers itself with the dispatcher and provides it
  
 React provides the kind of composable views we need for the view layer. Close to the top of the nested view hierarchy, a special kind of view listens for events that are broadcast by the stores that it depends on. One could call this a ___controller-view___, as it provides the glue code to get the data from the stores and to pass this data down the chain of its descendants. We might have one of these controller-views governing any significant section of the page.  
 
-When it receives the event from the store, it first requests the new data it needs via the stores' public getter methods. It then calls its own setState() or forceUpdate() methods, causing its render() method and the render() method of all its descendants to run. 
+When it receives the event from the store, it first requests the new data it needs via the stores' public getter methods. It then calls its own `setState()` or `forceUpdate()` methods, causing its `render()` method and the `render()` method of all its descendants to run. 
 
 We often pass the entire state of the store down the chain of views in a single object, allowing different descendants to use what they need. In addition to keeping the controller-like behavior at the top of the hierarchy, and thus keeping our descendant views as functionally pure as possible, passing down the entire state of the store in a single object also has the effect of reducing the number of props we need to manage. 
 
@@ -72,7 +72,7 @@ Occasionally we may need to add additional controller-views deeper in the hierar
 
 ### Actions 
 
-The dispatcher exposes a method that allows a view to trigger a dispatch to the stores, and to include a payload of data, or an action. The action construction may be wrapped into a semantic helper method which sends the payload to the dispatcher. For example, we may want to change the text of a to-do item in a to-do list application. We would create an action with a function signature like updateText(todoId, newText) in our TodoActions module. This method may be invoked from within our views' event handlers, so we can call it in response to a user action. This action method also adds the action type to the payload, so that when the payload is interpreted in the store, it can respond appropriately to a payload with a particular action type. In our example, this type might be named something like TODO_UPDATE_TEXT. 
+The dispatcher exposes a method that allows a view to trigger a dispatch to the stores, and to include a payload of data, or an action. The action construction may be wrapped into a semantic helper method which sends the payload to the dispatcher. For example, we may want to change the text of a to-do item in a to-do list application. We would create an action with a function signature like `updateText(todoId, newText)` in our `TodoActions` module. This method may be invoked from within our views' event handlers, so we can call it in response to a user action. This action method also adds the action type to the payload, so that when the payload is interpreted in the store, it can respond appropriately to a payload with a particular action type. In our example, this type might be named something like `TODO_UPDATE_TEXT`. 
 
 Actions may also come from other places, such as the server. This happens, for example, during data initialization. It may also happen when the server returns an error code or when the server has updates to provide to the application. We'll talk more about server actions in a future article. In this post we're only concerned with the basics of the data flow.