Update live with current master

docs/csharp/deconstruct.md

@@ -19,7 +19,7 @@ A tuple provides a light-weight way to retrieve multiple values from a method ca
 
 Retrieving multiple field and property values from an object can be equally cumbersome: you have to assign a field or property value to a variable on a member-by-member basis. 
 
-Starting with C# 7, you can retrieve multiple elements from a tuple or retrieve multiple field, property, and computed values from an object in a single *deconstruct* operation. When you deconstruct a tuple, you assign its elements to individual variables. When you deconstruct an object, you assign selected values to individual variables. 
+Starting with C# 7.0, you can retrieve multiple elements from a tuple or retrieve multiple field, property, and computed values from an object in a single *deconstruct* operation. When you deconstruct a tuple, you assign its elements to individual variables. When you deconstruct an object, you assign selected values to individual variables. 
 
 ## Deconstructing a tuple
 
@@ -58,7 +58,7 @@ Note that you cannot mix declarations and assignments to existing variables on t
 
 ## Deconstructing tuple elements with discards
 
-Often when deconstructing a tuple, you're interested in the values of only some elements. Starting with C# 7, you can take advantage of C#'s support for *discards*, which are write-only variables whose values you've chosen to ignore. A discard is designated by an underscore character ("\_") in an assignment. You can discard as many values as you like; all are represented by the single discard, `_`.
+Often when deconstructing a tuple, you're interested in the values of only some elements. Starting with C# 7.0, you can take advantage of C#'s support for *discards*, which are write-only variables whose values you've chosen to ignore. A discard is designated by an underscore character ("\_") in an assignment. You can discard as many values as you like; all are represented by the single discard, `_`.
 
 The following example illustrates the use of tuples with discards. The `QueryCityDataForYears` method returns a 6-tuple with the name of a city, its area, a year, the city's population for that year, a second year, and the city's population for that second year. The example shows the change in population between those two years. Of the data available from the tuple, we're unconcerned with the city area, and we know the city name and the two dates at design-time. As a result, we're only interested in the two population values stored in the tuple, and can handle its remaining values as discards.  
 

docs/csharp/discards.md

@@ -12,15 +12,15 @@ ms.devlang: csharp
 ---
 # Discards - C# Guide
 
-Starting with C# 7, C# supports discards, which are temporary, dummy variables that are intentionally unused in application code. Discards are equivalent to unassigned variables; they do not have a value. Because there is only a single discard variable, and that variable may not even be allocated storage, discards can reduce memory allocations. Because they make the intent of your code clear, they enhance its readability and maintainability.
+Starting with C# 7.0, C# supports discards, which are temporary, dummy variables that are intentionally unused in application code. Discards are equivalent to unassigned variables; they do not have a value. Because there is only a single discard variable, and that variable may not even be allocated storage, discards can reduce memory allocations. Because they make the intent of your code clear, they enhance its readability and maintainability.
 
 You indicate that a variable is a discard by assigning it the underscore (`_`) as its name. For example, the following method call returns a 3-tuple in which the first and second values are discards and *area* is a previously declared variable to be set to the corresponding third component returned by *GetCityInformation*:
 
 ```csharp
 (_, _, area) = city.GetCityInformation(cityName);
 ```
 
-In C# 7, discards are supported in assignments in the following contexts:
+In C# 7.0, discards are supported in assignments in the following contexts:
 
 - Tuple and object [deconstruction](deconstruct.md).
 - Pattern matching with [is](language-reference/keywords/is.md) and [switch](language-reference/keywords/switch.md).

docs/csharp/getting-started/introduction-to-the-csharp-language-and-the-net-framework.md

@@ -18,7 +18,7 @@ ms.author: "wiwagn"
 C# is an elegant and type-safe object-oriented language that enables developers to build a variety of secure and robust applications that run on the [!INCLUDE[dnprdnshort](~/includes/dnprdnshort-md.md)]. You can use C# to create Windows client applications, XML Web services, distributed components, client-server applications, database applications, and much, much more. Visual C# provides an advanced code editor, convenient user interface designers, integrated debugger, and many other tools to make it easier to develop applications based on the C# language and the [!INCLUDE[dnprdnshort](~/includes/dnprdnshort-md.md)].  
 
 > [!NOTE]
-> The [!INCLUDE[csprcs](~/includes/csprcs-md.md)] documentation assumes that you have an understanding of basic programming concepts. If you are a complete beginner, you might want to explore [!INCLUDE[csprcsxpr](~/includes/csprcsxpr-md.md)], which is available on the Web. You can also take advantage of books and Web resources about C# to learn practical programming skills.  
+> The [!INCLUDE[csprcs](~/includes/csprcs-md.md)] documentation assumes that you have an understanding of basic programming concepts. If you are a complete beginner, you might want to explore Visual C# Express, which is available on the Web. You can also take advantage of books and Web resources about C# to learn practical programming skills.  
 
 ## C# Language  
  C# syntax is highly expressive, yet it is also simple and easy to learn. The curly-brace syntax of C# will be instantly recognizable to anyone familiar with C, C++ or Java. Developers who know any of these languages are typically able to begin to work productively in C# within a very short time. C# syntax simplifies many of the complexities of C++ and provides powerful features such as nullable value types, enumerations, delegates, lambda expressions and direct memory access, which are not found in Java. C# supports generic methods and types, which provide increased type safety and performance, and iterators, which enable implementers of collection classes to define custom iteration behaviors that are simple to use by client code. [!INCLUDE[vbteclinqext](~/includes/vbteclinqext-md.md)] expressions make the strongly-typed query a first-class language construct.  

docs/csharp/language-reference/compiler-options/win32manifest-compiler-option.md

@@ -30,7 +30,7 @@ Use the **-win32manifest** option to specify a user-defined Win32 application ma
  The name and location of the custom manifest file.  
 
 ## Remarks  
- By default, the [!INCLUDE[csharp_current_short](~/includes/csharp-current-short-md.md)] compiler embeds an application manifest that specifies a requested execution level of "asInvoker." It creates the manifest in the same folder in which the executable is built, typically the bin\Debug or bin\Release folder when you use Visual Studio. If you want to supply a custom manifest, for example to specify a requested execution level of "highestAvailable" or "requireAdministrator," use this option to specify the name of the file.  
+ By default, the Visual C# compiler embeds an application manifest that specifies a requested execution level of "asInvoker." It creates the manifest in the same folder in which the executable is built, typically the bin\Debug or bin\Release folder when you use Visual Studio. If you want to supply a custom manifest, for example to specify a requested execution level of "highestAvailable" or "requireAdministrator," use this option to specify the name of the file.  
 
 > [!NOTE]
 >  This option and the [-win32res (C# Compiler Options)](../../../csharp/language-reference/compiler-options/win32res-compiler-option.md) option are mutually exclusive. If you try to use both options in the same command line you will get a build error.  

docs/csharp/language-reference/keywords/async.md

@@ -71,15 +71,15 @@ An async method can have the following return types:
 - <xref:System.Threading.Tasks.Task>
 - <xref:System.Threading.Tasks.Task%601>
 - [void](../../../csharp/language-reference/keywords/void.md), which should only be used for event handlers.
-- Starting with C# 7, any type that has an accessible `GetAwaiter` method. The `System.Threading.Tasks.ValueTask<TResult>` type is one such implementation. It is available by adding the NuGet package `System.Threading.Tasks.Extensions`. 
+- Starting with C# 7.0, any type that has an accessible `GetAwaiter` method. The `System.Threading.Tasks.ValueTask<TResult>` type is one such implementation. It is available by adding the NuGet package `System.Threading.Tasks.Extensions`. 
 
 The async method can't declare any [in](../../../csharp/language-reference/keywords/in-parameter-modifier.md), [ref](../../../csharp/language-reference/keywords/ref.md) or [out](../../../csharp/language-reference/keywords/out-parameter-modifier.md) parameters, nor can it have a [reference return value](../../programming-guide/classes-and-structs/ref-returns.md), but it can call methods that have such parameters.  
 
 You specify `Task<TResult>` as the return type of an async method if the [return](../../../csharp/language-reference/keywords/return.md) statement of the method specifies an operand of type `TResult`. You use `Task` if no meaningful value is returned when the method is completed. That is, a call to the method returns a `Task`, but when the `Task` is completed, any `await` expression that's awaiting the `Task` evaluates to `void`.  
 
 You use the `void` return type primarily to define event handlers, which require that return type. The caller of a `void`-returning async method can't await it and can't catch exceptions that the method throws.  
 
-Starting with C# 7, you return another type, typically a value type, that has a `GetAwaiter` method to miminize memory allocations in performance-critical sections of code. 
+Starting with C# 7.0, you return another type, typically a value type, that has a `GetAwaiter` method to miminize memory allocations in performance-critical sections of code. 
 
 For more information and examples, see [Async Return Types](../../../csharp/programming-guide/concepts/async/async-return-types.md).  
 

docs/csharp/language-reference/keywords/byte.md

@@ -25,7 +25,7 @@ ms.author: "wiwagn"
 
 ## Literals  
 
- You can declare and initialize a `byte` variable by assigning a decimal literal, a hexadecimal literal, or (starting with C# 7) a binary literal to it. If the integer literal is outside the range of `byte` (that is, if it is less than <xref:System.Byte.MinValue?displayProperty=nameWithType> or greater than <xref:System.Byte.MaxValue?displayProperty=nameWithType>), a compilation error occurs.
+ You can declare and initialize a `byte` variable by assigning a decimal literal, a hexadecimal literal, or (starting with C# 7.0) a binary literal to it. If the integer literal is outside the range of `byte` (that is, if it is less than <xref:System.Byte.MinValue?displayProperty=nameWithType> or greater than <xref:System.Byte.MaxValue?displayProperty=nameWithType>), a compilation error occurs.
 
 In the following example, integers equal to 201 that are represented as decimal, hexadecimal, and binary literals are implicitly converted from [int](../../../csharp/language-reference/keywords/int.md) to `byte` values.    
 
@@ -34,7 +34,7 @@ In the following example, integers equal to 201 that are represented as decimal,
 > [!NOTE] 
 > You use the prefix `0x` or `0X` to denote a hexadecimal literal and the prefix `0b` or `0B` to denote a binary literal. Decimal literals have no prefix.
 
-Starting with C# 7, a couple of features have been added to enhance readability. 
+Starting with C# 7.0, a couple of features have been added to enhance readability. 
  - C# 7.0 allows the usage of the underscore character, `_`, as a digit separator.
  - C# 7.2 allows `_` to be used as a digit separator for a binary or hexadecimal literal, after the prefix. A decimal literal isn't permitted to have a leading underscore.
 

docs/csharp/language-reference/keywords/get.md

@@ -23,7 +23,7 @@ The following example defines both a `get` and a `set` accessor for a property n
 
  [!code-csharp[get#1](../../../../samples/snippets/csharp/language-reference/keywords/get/get-1.cs)]  
 
-Often, the `get` accessor consists of a single statement that returns a value, as it did in the previous example. Starting with C# 7, you can implement the `get` accessor as an expression-bodied member. The following example implements both the `get` and the `set` accessor as expression-bodied members.
+Often, the `get` accessor consists of a single statement that returns a value, as it did in the previous example. Starting with C# 7.0, you can implement the `get` accessor as an expression-bodied member. The following example implements both the `get` and the `set` accessor as expression-bodied members.
 
  [!code-csharp[get#3](../../../../samples/snippets/csharp/language-reference/keywords/get/get-3.cs)]   
 

docs/csharp/language-reference/keywords/int.md

@@ -25,7 +25,7 @@ ms.author: "wiwagn"
 
 ## Literals  
 
-You can declare and initialize an `int` variable by assigning a decimal literal, a hexadecimal literal, or (starting with C# 7) a binary literal to it.  If the integer literal is outside the range of `int` (that is, if it is less than <xref:System.Int32.MinValue?displayProperty=nameWithType> or greater than <xref:System.Int32.MaxValue?displayProperty=nameWithType>), a compilation error occurs. 
+You can declare and initialize an `int` variable by assigning a decimal literal, a hexadecimal literal, or (starting with C# 7.0) a binary literal to it.  If the integer literal is outside the range of `int` (that is, if it is less than <xref:System.Int32.MinValue?displayProperty=nameWithType> or greater than <xref:System.Int32.MaxValue?displayProperty=nameWithType>), a compilation error occurs. 
 
 In the following example, integers equal to 90,946 that are represented as decimal, hexadecimal, and binary literals are assigned to `int` values.  
 
@@ -34,7 +34,7 @@ In the following example, integers equal to 90,946 that are represented as decim
 > [!NOTE] 
 > You use the prefix `0x` or `0X` to denote a hexadecimal literal and the prefix `0b` or `0B` to denote a binary literal. Decimal literals have no prefix. 
 
-Starting with C# 7, a couple of features have been added to enhance readability. 
+Starting with C# 7.0, a couple of features have been added to enhance readability. 
  - C# 7.0 allows the usage of the underscore character, `_`, as a digit separator.
  - C# 7.2 allows `_` to be used as a digit separator for a binary or hexadecimal literal, after the prefix. A decimal literal isn't permitted to have a leading underscore.
 

docs/csharp/language-reference/keywords/is.md

@@ -18,7 +18,7 @@ ms.author: "wiwagn"
 ---
 # is (C# Reference) #
 
-Checks if an object is compatible with a given type, or (starting with C# 7) tests an expression against a pattern.
+Checks if an object is compatible with a given type, or (starting with C# 7.0) tests an expression against a pattern.
 
 ## Testing for type compatibility ##
 
@@ -55,11 +55,11 @@ The `is` keyword generates a compile-time warning if the expression is known to
 `expr` can be any expression that returns a value, with the exception of anonymous methods and lambda expressions. The following example uses  `is` to evaluate the return value of a method call.   
 [!code-csharp[is#4](../../../../samples/snippets/csharp/language-reference/keywords/is/is4.cs#4)]
 
-Starting with C# 7, you can use pattern matching with the [type pattern](#type) to write more concise code that uses the `is` statement.
+Starting with C# 7.0, you can use pattern matching with the [type pattern](#type) to write more concise code that uses the `is` statement.
 
 ## Pattern matching with `is` ##
 
-Starting with C# 7, the `is` and [switch](../../../csharp/language-reference/keywords/switch.md) statements support pattern matching. The `is` keyword supports the following patterns:
+Starting with C# 7.0, the `is` and [switch](../../../csharp/language-reference/keywords/switch.md) statements support pattern matching. The `is` keyword supports the following patterns:
 
 - [Type pattern](#type),  which tests whether an expression can be converted to a specified type and, if it can be, casts it to a variable of that type.
 
@@ -107,7 +107,7 @@ The equivalent code without pattern matching requires a separate assignment that
 
 ### <a name="constant" /> Constant pattern ###
 
-When performing pattern matching with the constant pattern, `is` tests whether an expression equals a specified constant. In C# 6 and earlier versions, the constant pattern is supported by the [switch](switch.md) statement. Starting with C# 7, it is supported by the `is` statement as well. Its syntax is:
+When performing pattern matching with the constant pattern, `is` tests whether an expression equals a specified constant. In C# 6 and earlier versions, the constant pattern is supported by the [switch](switch.md) statement. Starting with C# 7.0, it is supported by the `is` statement as well. Its syntax is:
 
 ```csharp
    expr is constant

docs/csharp/language-reference/keywords/long.md

@@ -25,7 +25,7 @@ ms.author: "wiwagn"
 
 ## Literals 
 
-You can declare and initialize a `long` variable by assigning a decimal literal, a hexadecimal literal, or (starting with C# 7) a binary literal to it. 
+You can declare and initialize a `long` variable by assigning a decimal literal, a hexadecimal literal, or (starting with C# 7.0) a binary literal to it. 
 
 In the following example, integers equal to 4,294,967,296 that are represented as decimal, hexadecimal, and binary literals are assigned to `long` values.  
 
@@ -34,7 +34,7 @@ In the following example, integers equal to 4,294,967,296 that are represented a
 > [!NOTE] 
 > You use the prefix `0x` or `0X` to denote a hexadecimal literal and the prefix `0b` or `0B` to denote a binary literal. Decimal literals have no prefix. 
 
-Starting with C# 7, a couple of features have been added to enhance readability. 
+Starting with C# 7.0, a couple of features have been added to enhance readability. 
  - C# 7.0 allows the usage of the underscore character, `_`, as a digit separator.
  - C# 7.2 allows `_` to be used as a digit separator for a binary or hexadecimal literal, after the prefix. A decimal literal isn't permitted to have a leading underscore.
 

docs/csharp/language-reference/keywords/out-parameter-modifier.md

@@ -63,7 +63,7 @@ In C# 6 and earlier, you must declare a variable in a separate statement before
 
 [!code-csharp-interactive[cs-out-keyword](../../../../samples/snippets/csharp/language-reference/keywords/in-ref-out-modifier/OutParameterModifier.cs#4)]  
 
-Starting with C# 7, you can declare the `out` variable in the argument list of the method call, rather than in a separate variable declaration. This produces more compact, readable code, and also prevents you from inadvertently assigning a value to the variable before the method call. The following example is like the previous example, except that it defines the `number` variable in the call to the [Int32.TryParse](xref:System.Int32.TryParse(System.String,System.Int32@)) method.
+Starting with C# 7.0, you can declare the `out` variable in the argument list of the method call, rather than in a separate variable declaration. This produces more compact, readable code, and also prevents you from inadvertently assigning a value to the variable before the method call. The following example is like the previous example, except that it defines the `number` variable in the call to the [Int32.TryParse](xref:System.Int32.TryParse(System.String,System.Int32@)) method.
 
 [!code-csharp-interactive[cs-out-keyword](../../../../samples/snippets/csharp/language-reference/keywords/in-ref-out-modifier/OutParameterModifier.cs#5)]