Changed inline code syntax

Changed from :code:`<inline>` to ``<inline>``

1 files changed, 60 insertions, 60 deletions

diff --git a/docs/contracts.rst b/docs/contracts.rst
index c148d55c..c94f8d99 100644
--- a/docs/contracts.rst
+++ b/docs/contracts.rst
@@ -20,7 +20,7 @@ Contracts can be created "from outside" or from Solidity contracts.
 When a contract is created, its constructor (a function with the same
 name as the contract) is executed once.
 
-From :code:`web3.js`, i.e. the JavaScript
+From ``web3.js``, i.e. the JavaScript
 API, this is done as follows::
 
     // The json abi array generated by the compiler
@@ -53,7 +53,7 @@ API, this is done as follows::
 
 Internally, constructor arguments are passed after the code of
 the contract itself, but you do not have to care about this
-if you use :code:`web3.js`.
+if you use ``web3.js``.
 
 If a contract wants to create another contract, the source code
 (and the binary) of the created contract has to be known to the creator.
@@ -143,38 +143,38 @@ a "message call") and external
 ones that do), there are four types of visibilities for
 functions and state variables.
 
-Functions can be specified as being :code:`external`,
-:code:`public`, :code:`internal` or :code:`private`, where the default is
-:code:`public`. For state variables, :code:`external` is not possible
-and the default is :code:`internal`.
+Functions can be specified as being ``external``,
+``public``, ``internal`` or ``private``, where the default is
+``public``. For state variables, ``external`` is not possible
+and the default is ``internal``.
 
-:code:`external`:
+``external``:
     External functions are part of the contract
     interface, which means they can be called from other contracts and
-    via transactions. An external function :code:`f` cannot be called
-    internally (i.e. :code:`f()` does not work, but :code:`this.f()` works).
+    via transactions. An external function ``f`` cannot be called
+    internally (i.e. ``f()`` does not work, but ``this.f()`` works).
     External functions are sometimes more efficient when
     they receive large arrays of data.
 
-:code:`public`:
+``public``:
     Public functions are part of the contract
     interface and can be either called internally or via
     messages. For public state variables, an automatic accessor
     function (see below) is generated.
 
-:code:`internal`:
+``internal``:
     Those functions and state variables can only be
     accessed internally (i.e. from within the current contract
-    or contracts deriving from it), without using :code:`this`.
+    or contracts deriving from it), without using ``this``.
 
-:code:`private`:
+``private``:
     Private functions and state variables are only
     visible for the contract they are defined in and not in
     derived contracts.
 
 .. note::
     Everything that is inside a contract is visible to
-    all external observers. Making something :code:`private`
+    all external observers. Making something ``private``
     only prevents other contract from accessing and modifying
     the information, but it will still be visible to the
     whole world outside of the blockchain.
@@ -191,9 +191,9 @@ return parameter list for functions.
         uint public data;
     }
 
-Other contracts can call :code:`c.data()` to retrieve the value of data in state
-storage, but are not able to call :code:`f`. Contracts derived from :code:`c` can call
-:code:`setData` to alter the value of :code:`data` (but only in their own state).
+Other contracts can call ``c.data()`` to retrieve the value of data in state
+storage, but are not able to call ``f``. Contracts derived from ``c`` can call
+``setData`` to alter the value of ``data`` (but only in their own state).
 
 .. index:: ! accessor;function, ! function;accessor
 
@@ -202,15 +202,15 @@ Accessor Functions
 
 The compiler automatically creates accessor functions for
 all public state variables. The contract given below will
-have a function called :code:`data` that does not take any
+have a function called ``data`` that does not take any
 arguments and returns a uint, the value of the state
-variable :code:`data`. The initialization of state variables can
+variable ``data``. The initialization of state variables can
 be done at declaration.
 
 The accessor functions have external visibility. If the
-symbol is accessed internally (i.e. without :code:`this.`),
+symbol is accessed internally (i.e. without ``this.``),
 it is a state variable and if it is accessed externally
-(i.e. with :code:`this.`), it is a function.
+(i.e. with ``this.``), it is a function.
 
 ::
 
@@ -414,15 +414,15 @@ ultimately, also the block headers have to be supplied because
 the contract can only see the last 256 block hashes).
 
 Up to three parameters can
-receive the attribute :code:`indexed` which will cause the respective arguments
+receive the attribute ``indexed`` which will cause the respective arguments
 to be searched for: It is possible to filter for specific values of
 indexed arguments in the user interface.
 
-If arrays (including :code:`string` and :code:`bytes`) are used as indexed arguments, the
+If arrays (including ``string`` and ``bytes``) are used as indexed arguments, the
 sha3-hash of it is stored as topic instead.
 
 The hash of the signature of the event is one of the topics except if you
-declared the event with :code:`anonymous` specifier. This means that it is
+declared the event with ``anonymous`` specifier. This means that it is
 not possible to filter for specific anonymous events by name.
 
 All non-indexed arguments will be stored in the data part of the log.
@@ -475,8 +475,8 @@ Low-Level Interface to Logs
 ===========================
 
 It is also possible to access the low-level interface to the logging
-mechanism via the functions :code:`log0`, :code:`log1`, :code:`log2`, :code:`log3` and :code:`log4`.
-:code:`logi` takes :code:`i + 1` parameter of type :code:`bytes32`, where the first
+mechanism via the functions ``log0``, ``log1``, ``log2``, ``log3`` and ``log4``.
+``logi`` takes ``i + 1`` parameter of type ``bytes32``, where the first
 argument will be used for the data part of the log and the others
 as topics. The event call above can be performed in the same way as
 
@@ -490,7 +490,7 @@ as topics. The event call above can be performed in the same way as
     );
 
 where the long hexadecimal number is equal to
-:code:`sha3("Deposit(address,hash256,uint256)")`, the signature of the event.
+``sha3("Deposit(address,hash256,uint256)")``, the signature of the event.
 
 Additional Resources for Understanding Events
 ==============================================
@@ -591,7 +591,7 @@ Details are given in the following example.
        uint info;
     }
 
-Note that above, we call :code:`mortal.kill()` to "forward" the
+Note that above, we call ``mortal.kill()`` to "forward" the
 destruction request. The way this is done is problematic, as
 seen in the following example::
 
@@ -615,10 +615,10 @@ seen in the following example::
     contract Final is Base1, Base2 {
     }
 
-A call to :code:`Final.kill()` will call :code:`Base2.kill` as the most
+A call to ``Final.kill()`` will call ``Base2.kill`` as the most
 derived override, but this function will bypass
-:code:`Base1.kill`, basically because it does not even know about
-:code:`Base1`.  The way around this is to use :code:`super`::
+``Base1.kill``, basically because it does not even know about
+``Base1``.  The way around this is to use ``super``::
 
     contract mortal is owned {
         function kill() {
@@ -640,10 +640,10 @@ derived override, but this function will bypass
     contract Final is Base2, Base1 {
     }
 
-If :code:`Base1` calls a function of :code:`super`, it does not simply
+If ``Base1`` calls a function of ``super``, it does not simply
 call this function on one of its base contracts, it rather
 calls this function on the next base contract in the final
-inheritance graph, so it will call :code:`Base2.kill()` (note that
+inheritance graph, so it will call ``Base2.kill()`` (note that
 the final inheritance sequence is -- starting with the most
 derived contract: Final, Base1, Base2, mortal, owned).
 The actual function that is called when using super is
@@ -670,9 +670,9 @@ the base constructors. This can be done at two places::
         }
     }
 
-Either directly in the inheritance list (:code:`is Base(7)`) or in
+Either directly in the inheritance list (``is Base(7)``) or in
 the way a modifier would be invoked as part of the header of
-the derived constructor (:code:`Base(_y * _y)`). The first way to
+the derived constructor (``Base(_y * _y)``). The first way to
 do it is more convenient if the constructor argument is a
 constant and defines the behaviour of the contract or
 describes it. The second way has to be used if the
@@ -691,7 +691,7 @@ Solidity follows the path of Python and uses "`C3 Linearization <https://en.wiki
 to force a specific order in the DAG of base classes. This
 results in the desirable property of monotonicity but
 disallows some inheritance graphs. Especially, the order in
-which the base classes are given in the :code:`is` directive is
+which the base classes are given in the ``is`` directive is
 important. In the following code, Solidity will give the
 error "Linearization of inheritance graph impossible".
 
@@ -701,9 +701,9 @@ error "Linearization of inheritance graph impossible".
     contract A is X {}
     contract C is A, X {}
 
-The reason for this is that :code:`C` requests :code:`X` to override :code:`A`
-(by specifying :code:`A, X` in this order), but :code:`A` itself
-requests to override :code:`X`, which is a contradiction that
+The reason for this is that ``C`` requests ``X`` to override ``A``
+(by specifying ``A, X`` in this order), but ``A`` itself
+requests to override ``X``, which is a contradiction that
 cannot be resolved.
 
 A simple rule to remember is to specify the base classes in
@@ -715,7 +715,7 @@ the order from "most base-like" to "most derived".
 Abstract Contracts
 ******************
 
-Contract functions can lack an implementation as in the following example (note that the function declaration header is terminated by :code:`;`)::
+Contract functions can lack an implementation as in the following example (note that the function declaration header is terminated by ``;``)::
 
     contract Feline {
         function utterance() returns (bytes32);
@@ -738,10 +738,10 @@ Libraries
 ************
 
 Libraries are similar to contracts, but their purpose is that they are deployed
-only once at a specific address and their code is reused using the :code:`DELEGATECALL`
-(:code:`CALLCODE` until Homestead)
+only once at a specific address and their code is reused using the ``DELEGATECALL``
+(``CALLCODE`` until Homestead)
 feature of the EVM. This means that if library functions are called, their code
-is executed in the context of the calling contract, i.e. :code:`this` points to the
+is executed in the context of the calling contract, i.e. ``this`` points to the
 calling contract and especially the storage from the calling contract can be
 accessed. As a library is an isolated piece of source code, it can only access
 state variables of the calling contract if they are explicitly supplied (it
@@ -750,14 +750,14 @@ would have to way to name them, otherwise).
 Libraries can be seen as implicit base contracts of the contracts that use them.
 They will not be explicitly visible in the inheritance hierarchy, but calls
 to library functions look just like calls to functions of explicit base
-contracts (:code:`L.f()` if :code:`L` is the name of the library). Furthermore,
-:code:`internal` functions of libraries are visible in all contracts, just as
+contracts (``L.f()`` if ``L`` is the name of the library). Furthermore,
+``internal`` functions of libraries are visible in all contracts, just as
 if the library were a base contract. Of course, calls to internal functions
 use the internal calling convention, which means that all internal types
 can be passed and memory types will be passed by reference and not copied.
 In order to realise this in the EVM, code of internal library functions
 (and all functions called from therein) will be pulled into the calling
-contract and a regular :code:`JUMP` call will be used instead of a :code:`DELEGATECALL`.
+contract and a regular ``JUMP`` call will be used instead of a ``DELEGATECALL``.
 
 .. index:: using for, set
 
@@ -823,13 +823,13 @@ data types, functions also work without any storage
 reference parameters, can have multiple storage reference
 parameters and in any position.
 
-The calls to :code:`Set.contains`, :code:`Set.insert` and :code:`Set.remove`
-are all compiled as calls (:code:`DELEGATECALL`) to an external
+The calls to ``Set.contains``, ``Set.insert`` and ``Set.remove``
+are all compiled as calls (``DELEGATECALL``) to an external
 contract/library. If you use libraries, take care that an
 actual external function call is performed.
-:code:`msg.sender`, :code:`msg.value` and :code:`this` will retain their values
-in this call, though (prior to Homestead, :code:`msg.sender` and
-:code:`msg.value` changed, though).
+``msg.sender``, ``msg.value`` and ``this`` will retain their values
+in this call, though (prior to Homestead, ``msg.sender`` and
+``msg.value`` changed, though).
 
 The following example shows how to use memory types and
 internal functions in libraries in order to implement
@@ -895,8 +895,8 @@ final bytecode by a linker
 (see :ref:`commandline-compiler`) on how to use the
 commandline compiler for linking). If the addresses are not
 given as arguments to the compiler, the compiled hex code
-will contain placeholders of the form :code:`__Set______` (where
-:code:`Set` is the name of the library). The address can be filled
+will contain placeholders of the form ``__Set______`` (where
+``Set`` is the name of the library). The address can be filled
 manually by replacing all those 40 symbols by the hex
 encoding of the address of the library contract.
 
@@ -915,14 +915,14 @@ Restrictions for libraries in comparison to contracts:
 Using For
 *********
 
-The directive :code:`using A for B;` can be used to attach library
-functions (from the library :code:`A`) to any type (:code:`B`).
+The directive ``using A for B;`` can be used to attach library
+functions (from the library ``A``) to any type (``B``).
 These functions will receive the object they are called on
-as their first parameter (like the :code:`self` variable in
+as their first parameter (like the ``self`` variable in
 Python).
 
-The effect of :code:`using A for *;` is that the functions from
-the library :code:`A` are attached to any type.
+The effect of ``using A for *;`` is that the functions from
+the library ``A`` are attached to any type.
 
 In both situations, all functions, even those where the
 type of the first parameter does not match the type of
@@ -930,7 +930,7 @@ the object, are attached. The type is checked at the
 point the function is called and function overload
 resolution is performed.
 
-The :code:`using A for B;` directive is active for the current
+The ``using A for B;`` directive is active for the current
 scope, which is limited to a contract for now but will
 be lifted to the global scope later, so that by including
 a module, its data types including library functions are
@@ -1014,5 +1014,5 @@ It is also possible to extend elementary types in that way::
 
 Note that all library calls are actual EVM function calls. This means that
 if you pass memory or value types, a copy will be performed, even of the
-:code:`self` variable. The only situation where no copy will be performed
+``self`` variable. The only situation where no copy will be performed
 is when storage reference variables are used.