Add space between anchor element close and backtick

Author: Rageking8

docs/mfc/reference/cdc-class.md

@@ -2999,7 +2999,7 @@ The function stores the values in the buffer pointed to by *`lpBuffer`*. This bu
 
 If a character in the consecutive group of characters doesn't exist in a particular font, it will be assigned the width value of the default character.
 
-## <a name="getoutputtabbedtextextent"></a>`CDC::GetOutputTabbedTextExtent`
+## <a name="getoutputtabbedtextextent"></a> `CDC::GetOutputTabbedTextExtent`
 
 Call this member function to compute the width and height of a character string using [`m_hDC`](#m_hdc), the output device context.
 

docs/mfc/reference/ctabctrl-class.md

@@ -80,7 +80,7 @@ For more information about `CTabCtrl`, see [Controls](../../mfc/controls-mfc.md)
 
 **Header:** `afxcmn.h`
 
-## <a name="adjustrect"></a>`CTabCtrl::AdjustRect`
+## <a name="adjustrect"></a> `CTabCtrl::AdjustRect`
 
 Calculates a tab control's display area given a window rectangle, or calculates the window rectangle that would correspond to a given display area.
 

docs/standard-library/bit-functions.md

@@ -24,7 +24,7 @@ The `<bit>` header includes the following non-member template functions:
 |[`rotl`](#rotl) | Compute the result of a bitwise left rotation. |
 |[`rotr`](#rotr) | Compute the result of a bitwise right rotation. |
 
-## <a name="bit_cast"></a>`bit_cast`
+## <a name="bit_cast"></a> `bit_cast`
 
 Copy a bit pattern from an object of type `From` to a new object of type `To`.
 
@@ -92,7 +92,7 @@ This function template is `constexpr` if and only if `To`, `From`, and the types
 - Not volatile-qualified
 - Have no non-static data member that is a reference type
 
-## <a name="bit_ceil"></a>`bit_ceil`
+## <a name="bit_ceil"></a> `bit_ceil`
 
 Find the smallest power of two greater than or equal to a value. For example, given `3`, returns `4`.
 
@@ -142,7 +142,7 @@ bit_ceil(0b0101) = 0b1000
 
 This template function only participates in overload resolution if `T` is an unsigned integer type. For example: `unsigned int`, `unsigned long`, `unsigned short`, `unsigned char`, and so on.
 
-## <a name="bit_floor"></a>`bit_floor`
+## <a name="bit_floor"></a> `bit_floor`
 
 Find the largest power of two not greater than a value. For example, given `5`, returns `4`.
 
@@ -193,7 +193,7 @@ bit_floor(0b0101) = 0b0100
 
 This template function only participates in overload resolution if `T` is an unsigned integer type. For example: `unsigned int`, `unsigned long`, `unsigned short`, `unsigned char`, and so on.
 
-## <a name="bit_width"></a>`bit_width`
+## <a name="bit_width"></a> `bit_width`
 
 Find the smallest number of bits needed to represent a value.
 
@@ -247,7 +247,7 @@ bit_width(8) = 4
 
 This template function only participates in overload resolution if `T` is an unsigned integer type. For example: `unsigned int`, `unsigned long`, `unsigned short`, `unsigned char`, and so on.
 
-## <a name="countl_zero"></a>`countl_zero`
+## <a name="countl_zero"></a> `countl_zero`
 
 Count the number of consecutive bits set to zero, starting from the most significant bit.
 
@@ -300,7 +300,7 @@ countl_zero(0b10000000) = 0
 
 This template function only participates in overload resolution if `T` is an unsigned integer type. For example: `unsigned int`, `unsigned long`, `unsigned short`, `unsigned char`, and so on.
 
-## <a name="countl_one"></a>`countl_one`
+## <a name="countl_one"></a> `countl_one`
 
 Count the number of consecutive bits set to one, starting from the most significant bit.
 
@@ -353,7 +353,7 @@ countl_one(0b11111111) = 8
 
 This template function only participates in overload resolution if `T` is an unsigned integer type. For example: `unsigned int`, `unsigned long`, `unsigned short`, `unsigned char`, and so on.
 
-## <a name="countr_zero"></a>`countr_zero`
+## <a name="countr_zero"></a> `countr_zero`
 
 Count the number of consecutive bits set to zero, starting from the least significant bit.
 
@@ -407,7 +407,7 @@ countr_zero(0b10000000) = 7
 
 This template function only participates in overload resolution if `T` is an unsigned integer type. For example: `unsigned int`, `unsigned long`, `unsigned short`, `unsigned char`, and so on.
 
-## <a name="countr_one"></a>`countr_one`
+## <a name="countr_one"></a> `countr_one`
 
 Count the number of consecutive bits set to one, starting from the least significant bit.
 
@@ -460,7 +460,7 @@ countr_one(0b11111111) = 8
 
 This template function only participates in overload resolution if `T` is an unsigned integer type. For example: `unsigned int`, `unsigned long`, `unsigned short`, `unsigned char`, and so on.
 
-## <a name="has_single_bit"></a>`has_single_bit`
+## <a name="has_single_bit"></a> `has_single_bit`
 
 Check if a value has only one bit set.This is the same as testing whether a value is a power of two.
 
@@ -514,7 +514,7 @@ has_single_bit(0b1001) = false
 
 This template function only participates in overload resolution if `T` is an unsigned integer type. For example: `unsigned int`, `unsigned long`, `unsigned short`, `unsigned char`, and so on.
 
-## <a name="popcount"></a>`popcount`
+## <a name="popcount"></a> `popcount`
 
 Count the number of bits set to one in an unsigned integer value.
 
@@ -573,7 +573,7 @@ popcount(0b1111) = 4
 
 This template function only participates in overload resolution if `T` is an unsigned integer type. For example: `unsigned int`, `unsigned long`, `unsigned short`, `unsigned char`, and so on.
 
-## <a name="rotl"></a>`rotl`
+## <a name="rotl"></a> `rotl`
 
 Rotates the bits of  an unsigned integer value left the specified number of times. Bits that "fall out" of the leftmost bit are rotated into the rightmost bit.
 
@@ -635,7 +635,7 @@ rotl(0b00000001,-1) = 0b10000000
 
 This template function only participates in overload resolution if `T` is an unsigned integer type. For example: `unsigned int`, `unsigned long`, `unsigned short`, `unsigned char`, and so on.
 
-## <a name="rotr"></a>`rotr`
+## <a name="rotr"></a> `rotr`
 
 Rotates the bits of `value` right the specified number of times. Bits that 'fall out' of the rightmost bit are rotated back into the leftmost bit.
 

docs/standard-library/range-functions.md

@@ -482,7 +482,7 @@ int main()
 }
 ```
 
-## <a name="rend"></a>`rend`
+## <a name="rend"></a> `rend`
 
 Get a reverse iterator to the sentinel at the end of a reversed view of the range.
 A reverse iterator returns the elements of the range in reverse order.
@@ -571,7 +571,7 @@ int main()
 }
 ```
 
-## <a name="ssize"></a>`ssize`
+## <a name="ssize"></a> `ssize`
 
 Get the size of the range as a signed value.
 

docs/standard-library/span-functions.md

@@ -15,7 +15,7 @@ The `<span>` header includes the following non-member functions that operate on
 |[`as_bytes`](#as_bytes) | Get a read-only view of the object representation of the elements in the span. |
 |[`as_writable_bytes`](#as_writable_bytes) | Get a read/write view of the object representation of the elements in the span. |
 
-## <a name="as_bytes"></a>`as_bytes`
+## <a name="as_bytes"></a> `as_bytes`
 
 Get a read-only view of the object representation of the elements in the span.
 
@@ -55,7 +55,7 @@ int main()
 }
 ```
 
-## <a name="as_writable_bytes"></a>`as_writable_bytes`
+## <a name="as_writable_bytes"></a> `as_writable_bytes`
 
 If `T` isn't **`const`**, gets a read/write view of the raw byte representation of the elements in the span.
 

docs/standard-library/system-clock-structure.md

@@ -66,7 +66,7 @@ A clock is *steady* if it is *monotonic* and if the time between clock ticks is
 
 **Namespace:** `std::chrono`
 
-## <a name="from_time_t"></a>`from_time_t`
+## <a name="from_time_t"></a> `from_time_t`
 
 Static method that returns a [time_point](../standard-library/time-point-class.md) that most closely approximates the time that is represented by *Tm*.
 
@@ -79,7 +79,7 @@ static time_point from_time_t(time_t Tm) noexcept;
 *`Tm`*\
 A [time_t](../c-runtime-library/standard-types.md) object.
 
-## <a name="is_steady_constant"></a>`is_steady`
+## <a name="is_steady_constant"></a> `is_steady`
 
 A static value that specifies whether the clock type is *steady*. Because the `system_clock` isn't steady, you can't use this clock to take the time before an event, the time after an event, and reliably subtract them to get the duration of the event because the clock may be adjusted during the timing interval.