build/config/c++/libc++.natvis - cobalt - Git at Google

 <?xml version="1.0" encoding="utf-8" ?>
 <AutoVisualizer
   xmlns="http://schemas.microsoft.com/vstudio/debugger/natvis/2010">

   <!-- libc++'s __compressed_pair is an internal type used pervasively for
        doing the empty base class optimization.

        __compressed_pair<U,V> derives from __compressed_pair_elem<U,0> and
        __compressed_pair_elem<V,1>. __compressed_pair_elem<T> is specialized on
        a 3rd template parameter:
        * if T is empty and non-final the 3rd param is 1 and it derives from T
        * else it has a member variable __value_ of type T
   -->
   <Type Name="std::__1::__compressed_pair_elem&lt;*,*,0&gt;">
     <DisplayString>{__value_}</DisplayString>
     <Expand>
       <ExpandedItem>__value_</ExpandedItem>
     </Expand>
   </Type>
   <Type Name="std::__1::__compressed_pair_elem&lt;*,*,1&gt;">
     <DisplayString>{*($T1*)this}</DisplayString>
     <Expand>
       <ExpandedItem>*($T1*)this</ExpandedItem>
     </Expand>
   </Type>

   <Type Name="std::__1::array&lt;*,*&gt;">
     <DisplayString>{{ size={$T2} }}</DisplayString>
     <Expand>
       <ArrayItems>
         <Size>$T2</Size>
         <ValuePointer>__elems_</ValuePointer>
       </ArrayItems>
     </Expand>
   </Type>

   <!--libc++'s short string optimization:
       A basic_string is 3 size_t words long. In the "alternate string layout"
       that we use, they are: pointer to data, size, capacity.
       (In the normal layout, it's capacity, size, data instead.)
       If a string is short enough that it fits in these three size_ts instead,
       the string data is stored inline in these 3 words, with the last byte of
       the storage storing the length of the string.
       The highest bit of the "capacity" word is set for normal, "long" strings,
       and that bit needs to be masked out to know the real capacity.
       If this bit is not set, the string data is stored inline.
       (In the normal layout, if the lowest bit in the first byte is set,
       it's a "long" string, requiring a long string to always have even
       capacity. A short string here stores its length in the first byte
       and the inline data in the remaining storage.)
   -->

   <Type Name="std::__1::basic_string&lt;char,*&gt;">
     <!--<Intrinsic Name="is_long"
             Expression="((__rep*)&amp;__r_)-&gt;__s.__size_ &amp; 0x80" />-->
     <!-- The above doesn't work because of https://llvm.org/PR41615
          TODO(thakis): Now that we have clang r362038, try the above approach
                        again.
          The below assumes the alternate string layout and little endianness :/
     -->
     <Intrinsic Name="is_long"
         Expression="*(((char*)this) + 3*sizeof(size_t) - 1) &amp; 0x80" />
     <DisplayString Condition="is_long()">{*(char**)this}</DisplayString>
     <DisplayString Condition="!is_long()">{(char*)this}</DisplayString>
     <StringView Condition="is_long()">*(char**)this</StringView>
     <StringView Condition="!is_long()">(char*)this</StringView>
     <Expand>
       <Item Name="[size]" Condition="is_long()"
           ExcludeView="simple">((size_t*)this)[1]</Item>
       <Item Name="[size]" Condition="!is_long()"
           ExcludeView="simple">*(((char*)this) + 3*sizeof(size_t) - 1)</Item>
       <Item Name="[capacity]" Condition="is_long()" ExcludeView="simple">
         ((size_t*)this)[2] &amp; (~((size_t)0) &gt;&gt; 1)
       </Item>
       <Item Name="[capacity]" Condition="!is_long()"
           ExcludeView="simple">22</Item>
       <ArrayItems>
         <Size Condition="is_long()">((size_t*)this)[1]</Size>
         <Size Condition="!is_long()">
           *(((char*)this) + 3*sizeof(size_t) - 1)
         </Size>
         <ValuePointer Condition="is_long()">*(char**)this</ValuePointer>
         <ValuePointer Condition="!is_long()">(char*)this</ValuePointer>
       </ArrayItems>
     </Expand>
   </Type>

   <Type Name="std::__1::basic_string&lt;wchar_t,*&gt;">
     <Intrinsic Name="is_long"
         Expression="*(((char*)this) + 3*sizeof(size_t) - 1) &amp; 0x80" />
     <DisplayString Condition="is_long()">{*(wchar_t**)this}</DisplayString>
     <DisplayString Condition="!is_long()">{(wchar_t*)this}</DisplayString>
     <StringView Condition="is_long()">*(wchar_t**)this</StringView>
     <StringView Condition="!is_long()">(wchar_t*)this</StringView>
     <Expand>
       <Item Name="[size]" Condition="is_long()"
           ExcludeView="simple">((size_t*)this)[1]</Item>
       <Item Name="[size]" Condition="!is_long()"
           ExcludeView="simple">*(((char*)this) + 3*sizeof(size_t) - 1)</Item>
       <Item Name="[capacity]" Condition="is_long()" ExcludeView="simple">
         ((size_t*)this)[2] &amp; (~((size_t)0) &gt;&gt; 1)
       </Item>
       <Item Name="[capacity]" Condition="!is_long()"
           ExcludeView="simple">10</Item>
       <ArrayItems>
         <Size Condition="is_long()">((size_t*)this)[1]</Size>
         <Size Condition="!is_long()">
           *(((char*)this) + 3*sizeof(size_t) - 1)
         </Size>
         <ValuePointer Condition="is_long()">*(wchar_t**)this</ValuePointer>
         <ValuePointer Condition="!is_long()">(wchar_t*)this</ValuePointer>
       </ArrayItems>
     </Expand>
   </Type>

   <Type Name="std::__1::deque&lt;*,*&gt;">
     <Intrinsic Name="size" Expression="*(size_type*)&amp;__size_" />
     <Intrinsic Name="block_size"
         Expression="sizeof($T1) &lt; 256 ? 4096 / sizeof($T1) : 16" />
     <DisplayString>{{ size={size()} }}</DisplayString>
     <Expand>
       <IndexListItems>
         <Size>size()</Size>
         <ValueNode>
           *(*(__map_.__begin_ + ($i + __start_) / block_size()) +
                                 ($i + __start_) % block_size())
         </ValueNode>
       </IndexListItems>
     </Expand>
   </Type>

   <Type Name="std::__1::forward_list&lt;*&gt;">
     <Intrinsic Name="head"
         Expression="((__node_pointer)&amp;__before_begin_)-&gt;__next_" />
     <DisplayString Condition="head() == 0">empty</DisplayString>
     <DisplayString Condition="head() != 0">non-empty</DisplayString>
     <Expand>
       <LinkedListItems>
         <HeadPointer>head()</HeadPointer>
         <NextPointer>__next_</NextPointer>
         <ValueNode>__value_</ValueNode>
       </LinkedListItems>
     </Expand>
   </Type>

   <!-- Note: Not in __1! But will win over the one in stl.natvis -->
   <Type Name="std::initializer_list&lt;*&gt;">
     <DisplayString>{{ size={__size_} }}</DisplayString>
     <Expand>
       <ArrayItems>
         <Size>__size_</Size>
         <ValuePointer>__begin_</ValuePointer>
       </ArrayItems>
     </Expand>
   </Type>

   <Type Name="std::__1::list&lt;*&gt;">
     <Intrinsic Name="size" Expression="*(size_type*)&amp;__size_alloc_" />
     <DisplayString>{{ size={size()} }}</DisplayString>
     <Expand>
       <LinkedListItems>
         <Size>size()</Size>
         <HeadPointer>__end_.__next_</HeadPointer>
         <NextPointer>__next_</NextPointer>
         <ValueNode>
           ((std::__1::list&lt;$T1,$T2&gt;::__node_pointer)this)
               -&gt;__value_
         </ValueNode>
       </LinkedListItems>
     </Expand>
   </Type>

   <Type Name="std::__1::map&lt;*&gt;">
     <Intrinsic Name="size" Expression="*(size_type*)&amp;__tree_.__pair3_" />
     <DisplayString>{{ size={size()} }}</DisplayString>
     <Expand>
       <Item Name="[size]">size()</Item>
       <TreeItems>
         <Size>size()</Size>
         <HeadPointer>
           ((__node_pointer)&amp;__tree_.__pair1_)-&gt;__left_
         </HeadPointer>
         <LeftPointer>
           ((std::__1::map&lt;$T1,$T2,$T3,$T4&gt;::__node_pointer)this)
               -&gt;__left_
         </LeftPointer>
         <RightPointer>
           ((std::__1::map&lt;$T1,$T2,$T3,$T4&gt;::__node_pointer)this)
               -&gt;__right_
         </RightPointer>
         <ValueNode>
           ((std::__1::map&lt;$T1,$T2,$T3,$T4&gt;::__node_pointer)this)
               -&gt;__value_.__cc
         </ValueNode>
       </TreeItems>
     </Expand>
   </Type>

   <Type Name="std::__1::multimap&lt;*&gt;">
     <Intrinsic Name="size" Expression="*(size_type*)&amp;__tree_.__pair3_" />
     <DisplayString>{{ size={size()} }}</DisplayString>
     <Expand>
       <Item Name="[size]">size()</Item>
       <TreeItems>
         <Size>size()</Size>
         <HeadPointer>
           ((__node_pointer)&amp;__tree_.__pair1_)-&gt;__left_
         </HeadPointer>
         <LeftPointer>
           ((std::__1::multimap&lt;$T1,$T2,$T3,$T4&gt;::__node_pointer)this)
               -&gt;__left_
         </LeftPointer>
         <RightPointer>
           ((std::__1::multimap&lt;$T1,$T2,$T3,$T4&gt;::__node_pointer)this)
               -&gt;__right_
         </RightPointer>
         <ValueNode>
           ((std::__1::multimap&lt;$T1,$T2,$T3,$T4&gt;::__node_pointer)this)
               -&gt;__value_.__cc
         </ValueNode>
       </TreeItems>
     </Expand>
   </Type>

   <Type Name="std::__1::multiset&lt;*&gt;">
     <Intrinsic Name="size" Expression="*(size_type*)&amp;__tree_.__pair3_" />
     <DisplayString>{{ size={size()} }}</DisplayString>
     <Expand>
       <Item Name="[size]">size()</Item>
       <TreeItems>
         <Size>size()</Size>
         <HeadPointer>
           ((__base::__node_pointer)&amp;__tree_.__pair1_)-&gt;__left_
         </HeadPointer>
         <LeftPointer>
           ((std::__1::multiset&lt;$T1,$T2,$T3&gt;::__base::__node_pointer)this)
               -&gt;__left_
         </LeftPointer>
         <RightPointer>
           ((std::__1::multiset&lt;$T1,$T2,$T3&gt;::__base::__node_pointer)this)
               -&gt;__right_
         </RightPointer>
         <ValueNode>
           ((std::__1::multiset&lt;$T1,$T2,$T3&gt;::__base::__node_pointer)this)
               -&gt;__value_
         </ValueNode>
       </TreeItems>
     </Expand>
   </Type>

   <Type Name="std::__1::priority_queue&lt;*&gt;">
     <DisplayString>{c}</DisplayString>
     <Expand>
       <ExpandedItem>c</ExpandedItem>
       <Item Name="[comp]">comp</Item>
     </Expand>
   </Type>

   <Type Name="std::__1::set&lt;*&gt;">
     <Intrinsic Name="size" Expression="*(size_type*)&amp;__tree_.__pair3_" />
     <DisplayString>{{ size={size()} }}</DisplayString>
     <Expand>
       <Item Name="[size]">size()</Item>
       <TreeItems>
         <Size>size()</Size>
         <HeadPointer>
           ((__base::__node_pointer)&amp;__tree_.__pair1_)-&gt;__left_
         </HeadPointer>
         <LeftPointer>
           ((std::__1::set&lt;$T1,$T2,$T3&gt;::__base::__node_pointer)this)
               -&gt;__left_
         </LeftPointer>
         <RightPointer>
           ((std::__1::set&lt;$T1,$T2,$T3&gt;::__base::__node_pointer)this)
               -&gt;__right_
         </RightPointer>
         <ValueNode>
           ((std::__1::set&lt;$T1,$T2,$T3&gt;::__base::__node_pointer)this)
               -&gt;__value_
         </ValueNode>
       </TreeItems>
     </Expand>
   </Type>

   <Type Name="std::__1::stack&lt;*&gt;">
     <AlternativeType Name="std::__1::queue&lt;*&gt;" />
     <DisplayString>{c}</DisplayString>
     <Expand>
       <ExpandedItem>c</ExpandedItem>
     </Expand>
   </Type>

   <Type Name="std::__1::__tuple_leaf&lt;*,*,0&gt;">
     <DisplayString>{__value_}</DisplayString>
   </Type>

   <Type Name="std::__1::tuple&lt;&gt;">
     <DisplayString>()</DisplayString>
   </Type>

   <Type Name="std::__1::tuple&lt;*&gt;">
     <DisplayString>({(std::__1::__tuple_leaf&lt;0,$T1,0&gt;)__base_})</DisplayString>
       <Expand>
           <Item Name="[0]">(std::__1::__tuple_leaf&lt;0,$T1,0&gt;)__base_</Item>
       </Expand>
   </Type>

   <Type Name="std::__1::tuple&lt;*,*&gt;">
     <DisplayString>({(std::__1::__tuple_leaf&lt;0,$T1,0&gt;)__base_}, {(std::__1::__tuple_leaf&lt;1,$T2,0&gt;)__base_})</DisplayString>
     <Expand>
       <Item Name="[0]">(std::__1::__tuple_leaf&lt;0,$T1,0&gt;)__base_</Item>
       <Item Name="[1]">(std::__1::__tuple_leaf&lt;1,$T2,0&gt;)__base_</Item>
     </Expand>
   </Type>

   <Type Name="std::__1::tuple&lt;*,*,*&gt;">
     <DisplayString>({(std::__1::__tuple_leaf&lt;0,$T1,0&gt;)__base_}, {(std::__1::__tuple_leaf&lt;1,$T2,0&gt;)__base_}, {(std::__1::__tuple_leaf&lt;2,$T3,0&gt;)__base_})</DisplayString>
     <Expand>
       <Item Name="[0]">(std::__1::__tuple_leaf&lt;0,$T1,0&gt;)__base_</Item>
       <Item Name="[1]">(std::__1::__tuple_leaf&lt;1,$T2,0&gt;)__base_</Item>
       <Item Name="[2]">(std::__1::__tuple_leaf&lt;2,$T3,0&gt;)__base_</Item>
     </Expand>
   </Type>

   <Type Name="std::__1::tuple&lt;*,*,*,*&gt;">
     <DisplayString>({(std::__1::__tuple_leaf&lt;0,$T1,0&gt;)__base_}, {(std::__1::__tuple_leaf&lt;1,$T2,0&gt;)__base_}, {(std::__1::__tuple_leaf&lt;2,$T3,0&gt;)__base_}, {(std::__1::__tuple_leaf&lt;3,$T4,0&gt;)__base_})</DisplayString>
     <Expand>
       <Item Name="[0]">(std::__1::__tuple_leaf&lt;0,$T1,0&gt;)__base_</Item>
       <Item Name="[1]">(std::__1::__tuple_leaf&lt;1,$T2,0&gt;)__base_</Item>
       <Item Name="[2]">(std::__1::__tuple_leaf&lt;2,$T3,0&gt;)__base_</Item>
       <Item Name="[3]">(std::__1::__tuple_leaf&lt;3,$T4,0&gt;)__base_</Item>
     </Expand>
   </Type>

   <Type Name="std::__1::tuple&lt;*,*,*,*,*&gt;">
     <DisplayString>({(std::__1::__tuple_leaf&lt;0,$T1,0&gt;)__base_}, {(std::__1::__tuple_leaf&lt;1,$T2,0&gt;)__base_}, {(std::__1::__tuple_leaf&lt;2,$T3,0&gt;)__base_}, {(std::__1::__tuple_leaf&lt;3,$T4,0&gt;)__base_}, {(std::__1::__tuple_leaf&lt;4,$T5,0&gt;)__base_})</DisplayString>
     <Expand>
       <Item Name="[0]">(std::__1::__tuple_leaf&lt;0,$T1,0&gt;)__base_</Item>
       <Item Name="[1]">(std::__1::__tuple_leaf&lt;1,$T2,0&gt;)__base_</Item>
       <Item Name="[2]">(std::__1::__tuple_leaf&lt;2,$T3,0&gt;)__base_</Item>
       <Item Name="[3]">(std::__1::__tuple_leaf&lt;3,$T4,0&gt;)__base_</Item>
       <Item Name="[4]">(std::__1::__tuple_leaf&lt;4,$T5,0&gt;)__base_</Item>
     </Expand>
   </Type>

   <Type Name="std::__1::tuple&lt;*,*,*,*,*,*&gt;">
     <DisplayString>({(std::__1::__tuple_leaf&lt;0,$T1,0&gt;)__base_}, {(std::__1::__tuple_leaf&lt;1,$T2,0&gt;)__base_}, {(std::__1::__tuple_leaf&lt;2,$T3,0&gt;)__base_}, {(std::__1::__tuple_leaf&lt;3,$T4,0&gt;)__base_}, {(std::__1::__tuple_leaf&lt;4,$T5,0&gt;)__base_}, {(std::__1::__tuple_leaf&lt;5,$T6,0&gt;)__base_})</DisplayString>
     <Expand>
       <Item Name="[0]">(std::__1::__tuple_leaf&lt;0,$T1,0&gt;)__base_</Item>
       <Item Name="[1]">(std::__1::__tuple_leaf&lt;1,$T2,0&gt;)__base_</Item>
       <Item Name="[2]">(std::__1::__tuple_leaf&lt;2,$T3,0&gt;)__base_</Item>
       <Item Name="[3]">(std::__1::__tuple_leaf&lt;3,$T4,0&gt;)__base_</Item>
       <Item Name="[4]">(std::__1::__tuple_leaf&lt;4,$T5,0&gt;)__base_</Item>
       <Item Name="[5]">(std::__1::__tuple_leaf&lt;5,$T6,0&gt;)__base_</Item>
     </Expand>
   </Type>

   <Type Name="std::__1::tuple&lt;*,*,*,*,*,*,*&gt;">
     <DisplayString>({(std::__1::__tuple_leaf&lt;0,$T1,0&gt;)__base_}, {(std::__1::__tuple_leaf&lt;1,$T2,0&gt;)__base_}, {(std::__1::__tuple_leaf&lt;2,$T3,0&gt;)__base_}, {(std::__1::__tuple_leaf&lt;3,$T4,0&gt;)__base_}, {(std::__1::__tuple_leaf&lt;4,$T5,0&gt;)__base_}, {(std::__1::__tuple_leaf&lt;5,$T6,0&gt;)__base_}, {(std::__1::__tuple_leaf&lt;6,$T7,0&gt;)__base_})</DisplayString>
     <Expand>
       <Item Name="[0]">(std::__1::__tuple_leaf&lt;0,$T1,0&gt;)__base_</Item>
       <Item Name="[1]">(std::__1::__tuple_leaf&lt;1,$T2,0&gt;)__base_</Item>
       <Item Name="[2]">(std::__1::__tuple_leaf&lt;2,$T3,0&gt;)__base_</Item>
       <Item Name="[3]">(std::__1::__tuple_leaf&lt;3,$T4,0&gt;)__base_</Item>
       <Item Name="[4]">(std::__1::__tuple_leaf&lt;4,$T5,0&gt;)__base_</Item>
       <Item Name="[5]">(std::__1::__tuple_leaf&lt;5,$T6,0&gt;)__base_</Item>
       <Item Name="[6]">(std::__1::__tuple_leaf&lt;6,$T7,0&gt;)__base_</Item>
     </Expand>
   </Type>

   <Type Name="std::__1::unique_ptr&lt;*&gt;">
     <Intrinsic Name="value" Expression="*($T1**)&amp;__ptr_" />
     <SmartPointer Usage="Minimal">value()</SmartPointer>
       <DisplayString Condition="value() == 0">empty</DisplayString>
       <DisplayString Condition="value() != 0">
         unique_ptr {value()}</DisplayString>
       <Expand>
         <Item Condition="value() != 0" Name="[ptr]">value()</Item>
       </Expand>
   </Type>

 <Type Name="std::__1::unordered_map&lt;*&gt;">
     <AlternativeType Name="std::__1::unordered_multimap&lt;*&gt;" />
     <AlternativeType Name="std::__1::unordered_multiset&lt;*&gt;" />
     <AlternativeType Name="std::__1::unordered_set&lt;*&gt;" />
     <Intrinsic Name="size" Expression="*(size_type*)&amp;__table_.__p2_" />
     <Intrinsic Name="bucket_count"
         Expression="*(size_type*)&amp;
                     ((__table::__bucket_list_deleter*)
                         ((void**)&amp;__table_.__bucket_list_ + 1))
                         -&gt;__data_" />
     <DisplayString>{{ size={size()} }}</DisplayString>
     <Expand>
       <Item Name="[bucket_count]">bucket_count()</Item>
       <Item Name="[load_factor]">
         bucket_count() != 0 ? (float)size() / bucket_count() : 0.f</Item>
       <Item Name="[max_load_factor]">*(float*)&amp;__table_.__p3_</Item>
       <!-- Use CustomListItems instead of LinkedListItems because we
         need to cast to __table::__node_pointer and LinkedListItems
         evaluates <Value> in the context of the node, not of the container,
         so we'd have to say std::unordered_map<$T1,...>::__table::__node_pointer
         and then we couldn't share this <Type> between unordered_(multi)map
         and unordered_(multi)set. -->
       <CustomListItems>
         <Variable Name="node"
             InitialValue="*(__table::__next_pointer*)&amp;__table_.__p1_" />
         <Size>size()</Size>
         <Loop>
           <Item>(*(__table::__node_pointer*)&amp;node)-&gt;__value_</Item>
           <Exec>node = node-&gt;__next_</Exec>
         </Loop>
       </CustomListItems>
     </Expand>
   </Type>
   <!-- This is the node __value_ of an unordered_(multi)map. Expand it through
     a separate formatter instead of in the <Item> expression above so that the
     same <Type> works for unordered_(multi)set and unordered_(multi)map. -->
   <Type Name="std::__1::__hash_value_type&lt;*&gt;">
     <DisplayString>{__cc}</DisplayString>
     <Expand>
       <ExpandedItem>__cc</ExpandedItem>
     </Expand>
   </Type>

   <Type Name="std::__1::vector&lt;*&gt;">
     <Intrinsic Name="size" Expression="__end_ - __begin_" />
     <DisplayString>{{ size={size()} }}</DisplayString>
     <Expand>
       <ArrayItems>
         <Size>size()</Size>
         <ValuePointer>__begin_</ValuePointer>
       </ArrayItems>
     </Expand>
   </Type>
 </AutoVisualizer>
	<?xml version="1.0" encoding="utf-8" ?>
	<AutoVisualizer
	xmlns="http://schemas.microsoft.com/vstudio/debugger/natvis/2010">

	<!-- libc++'s __compressed_pair is an internal type used pervasively for
	doing the empty base class optimization.

	__compressed_pair<U,V> derives from __compressed_pair_elem<U,0> and
	__compressed_pair_elem<V,1>. __compressed_pair_elem<T> is specialized on
	a 3rd template parameter:
	* if T is empty and non-final the 3rd param is 1 and it derives from T
	* else it has a member variable __value_ of type T
	-->
	<Type Name="std::__1::__compressed_pair_elem<,,0>">
	<DisplayString>{__value_}</DisplayString>
	<Expand>
	<ExpandedItem>__value_</ExpandedItem>
	</Expand>
	</Type>
	<Type Name="std::__1::__compressed_pair_elem<,,1>">
	<DisplayString>{($T1)this}</DisplayString>
	<Expand>
	<ExpandedItem>($T1)this</ExpandedItem>
	</Expand>
	</Type>

	<Type Name="std::__1::array<,>">
	<DisplayString>{{ size={$T2} }}</DisplayString>
	<Expand>
	<ArrayItems>
	<Size>$T2</Size>
	<ValuePointer>__elems_</ValuePointer>
	</ArrayItems>
	</Expand>
	</Type>

	<!--libc++'s short string optimization:
	A basic_string is 3 size_t words long. In the "alternate string layout"
	that we use, they are: pointer to data, size, capacity.
	(In the normal layout, it's capacity, size, data instead.)
	If a string is short enough that it fits in these three size_ts instead,
	the string data is stored inline in these 3 words, with the last byte of
	the storage storing the length of the string.
	The highest bit of the "capacity" word is set for normal, "long" strings,
	and that bit needs to be masked out to know the real capacity.
	If this bit is not set, the string data is stored inline.
	(In the normal layout, if the lowest bit in the first byte is set,
	it's a "long" string, requiring a long string to always have even
	capacity. A short string here stores its length in the first byte
	and the inline data in the remaining storage.)
	-->

	<Type Name="std::__1::basic_string<char,*>">
	<!--<Intrinsic Name="is_long"
	Expression="((__rep*)&__r_)->__s.__size_ & 0x80" />-->
	<!-- The above doesn't work because of https://llvm.org/PR41615
	TODO(thakis): Now that we have clang r362038, try the above approach
	again.
	The below assumes the alternate string layout and little endianness :/
	-->
	<Intrinsic Name="is_long"
	Expression="(((char)this) + 3*sizeof(size_t) - 1) & 0x80" />
	<DisplayString Condition="is_long()">{(char*)this}</DisplayString>
	<DisplayString Condition="!is_long()">{(char*)this}</DisplayString>
	<StringView Condition="is_long()">(char*)this</StringView>
	<StringView Condition="!is_long()">(char*)this</StringView>
	<Expand>
	<Item Name="[size]" Condition="is_long()"
	ExcludeView="simple">((size_t*)this)[1]</Item>
	<Item Name="[size]" Condition="!is_long()"
	ExcludeView="simple">(((char)this) + 3*sizeof(size_t) - 1)</Item>
	<Item Name="[capacity]" Condition="is_long()" ExcludeView="simple">
	((size_t*)this)[2] & (~((size_t)0) >> 1)
	</Item>
	<Item Name="[capacity]" Condition="!is_long()"
	ExcludeView="simple">22</Item>
	<ArrayItems>
	<Size Condition="is_long()">((size_t*)this)[1]</Size>
	<Size Condition="!is_long()">
	(((char)this) + 3*sizeof(size_t) - 1)
	</Size>
	<ValuePointer Condition="is_long()">(char*)this</ValuePointer>
	<ValuePointer Condition="!is_long()">(char*)this</ValuePointer>
	</ArrayItems>
	</Expand>
	</Type>

	<Type Name="std::__1::basic_string<wchar_t,*>">
	<Intrinsic Name="is_long"
	Expression="(((char)this) + 3*sizeof(size_t) - 1) & 0x80" />
	<DisplayString Condition="is_long()">{(wchar_t*)this}</DisplayString>
	<DisplayString Condition="!is_long()">{(wchar_t*)this}</DisplayString>
	<StringView Condition="is_long()">(wchar_t*)this</StringView>
	<StringView Condition="!is_long()">(wchar_t*)this</StringView>
	<Expand>
	<Item Name="[size]" Condition="is_long()"
	ExcludeView="simple">((size_t*)this)[1]</Item>
	<Item Name="[size]" Condition="!is_long()"
	ExcludeView="simple">(((char)this) + 3*sizeof(size_t) - 1)</Item>
	<Item Name="[capacity]" Condition="is_long()" ExcludeView="simple">
	((size_t*)this)[2] & (~((size_t)0) >> 1)
	</Item>
	<Item Name="[capacity]" Condition="!is_long()"
	ExcludeView="simple">10</Item>
	<ArrayItems>
	<Size Condition="is_long()">((size_t*)this)[1]</Size>
	<Size Condition="!is_long()">
	(((char)this) + 3*sizeof(size_t) - 1)
	</Size>
	<ValuePointer Condition="is_long()">(wchar_t*)this</ValuePointer>
	<ValuePointer Condition="!is_long()">(wchar_t*)this</ValuePointer>
	</ArrayItems>
	</Expand>
	</Type>

	<Type Name="std::__1::deque<,>">
	<Intrinsic Name="size" Expression="(size_type)&__size_" />
	<Intrinsic Name="block_size"
	Expression="sizeof($T1) < 256 ? 4096 / sizeof($T1) : 16" />
	<DisplayString>{{ size={size()} }}</DisplayString>
	<Expand>
	<IndexListItems>
	<Size>size()</Size>
	<ValueNode>
	((__map_.__begin_ + ($i + __start_) / block_size()) +
	($i + __start_) % block_size())
	</ValueNode>
	</IndexListItems>
	</Expand>
	</Type>

	<Type Name="std::__1::forward_list<*>">
	<Intrinsic Name="head"
	Expression="((__node_pointer)&__before_begin_)->__next_" />
	<DisplayString Condition="head() == 0">empty</DisplayString>
	<DisplayString Condition="head() != 0">non-empty</DisplayString>
	<Expand>
	<LinkedListItems>
	<HeadPointer>head()</HeadPointer>
	<NextPointer>__next_</NextPointer>
	<ValueNode>__value_</ValueNode>
	</LinkedListItems>
	</Expand>
	</Type>

	<!-- Note: Not in __1! But will win over the one in stl.natvis -->
	<Type Name="std::initializer_list<*>">
	<DisplayString>{{ size={__size_} }}</DisplayString>
	<Expand>
	<ArrayItems>
	<Size>__size_</Size>
	<ValuePointer>__begin_</ValuePointer>
	</ArrayItems>
	</Expand>
	</Type>

	<Type Name="std::__1::list<*>">
	<Intrinsic Name="size" Expression="(size_type)&__size_alloc_" />
	<DisplayString>{{ size={size()} }}</DisplayString>
	<Expand>
	<LinkedListItems>
	<Size>size()</Size>
	<HeadPointer>__end_.__next_</HeadPointer>
	<NextPointer>__next_</NextPointer>
	<ValueNode>
	((std::__1::list<$T1,$T2>::__node_pointer)this)
	->__value_
	</ValueNode>
	</LinkedListItems>
	</Expand>
	</Type>

	<Type Name="std::__1::map<*>">
	<Intrinsic Name="size" Expression="(size_type)&__tree_.__pair3_" />
	<DisplayString>{{ size={size()} }}</DisplayString>
	<Expand>
	<Item Name="[size]">size()</Item>
	<TreeItems>
	<Size>size()</Size>
	<HeadPointer>
	((__node_pointer)&__tree_.__pair1_)->__left_
	</HeadPointer>
	<LeftPointer>
	((std::__1::map<$T1,$T2,$T3,$T4>::__node_pointer)this)
	->__left_
	</LeftPointer>
	<RightPointer>
	((std::__1::map<$T1,$T2,$T3,$T4>::__node_pointer)this)
	->__right_
	</RightPointer>
	<ValueNode>
	((std::__1::map<$T1,$T2,$T3,$T4>::__node_pointer)this)
	->__value_.__cc
	</ValueNode>
	</TreeItems>
	</Expand>
	</Type>

	<Type Name="std::__1::multimap<*>">
	<Intrinsic Name="size" Expression="(size_type)&__tree_.__pair3_" />
	<DisplayString>{{ size={size()} }}</DisplayString>
	<Expand>
	<Item Name="[size]">size()</Item>
	<TreeItems>
	<Size>size()</Size>
	<HeadPointer>
	((__node_pointer)&__tree_.__pair1_)->__left_
	</HeadPointer>
	<LeftPointer>
	((std::__1::multimap<$T1,$T2,$T3,$T4>::__node_pointer)this)
	->__left_
	</LeftPointer>
	<RightPointer>
	((std::__1::multimap<$T1,$T2,$T3,$T4>::__node_pointer)this)
	->__right_
	</RightPointer>
	<ValueNode>
	((std::__1::multimap<$T1,$T2,$T3,$T4>::__node_pointer)this)
	->__value_.__cc
	</ValueNode>
	</TreeItems>
	</Expand>
	</Type>

	<Type Name="std::__1::multiset<*>">
	<Intrinsic Name="size" Expression="(size_type)&__tree_.__pair3_" />
	<DisplayString>{{ size={size()} }}</DisplayString>
	<Expand>
	<Item Name="[size]">size()</Item>
	<TreeItems>
	<Size>size()</Size>
	<HeadPointer>
	((__base::__node_pointer)&__tree_.__pair1_)->__left_
	</HeadPointer>
	<LeftPointer>
	((std::__1::multiset<$T1,$T2,$T3>::__base::__node_pointer)this)
	->__left_
	</LeftPointer>
	<RightPointer>
	((std::__1::multiset<$T1,$T2,$T3>::__base::__node_pointer)this)
	->__right_
	</RightPointer>
	<ValueNode>
	((std::__1::multiset<$T1,$T2,$T3>::__base::__node_pointer)this)
	->__value_
	</ValueNode>
	</TreeItems>
	</Expand>
	</Type>

	<Type Name="std::__1::priority_queue<*>">
	<DisplayString>{c}</DisplayString>
	<Expand>
	<ExpandedItem>c</ExpandedItem>
	<Item Name="[comp]">comp</Item>
	</Expand>
	</Type>

	<Type Name="std::__1::set<*>">
	<Intrinsic Name="size" Expression="(size_type)&__tree_.__pair3_" />
	<DisplayString>{{ size={size()} }}</DisplayString>
	<Expand>
	<Item Name="[size]">size()</Item>
	<TreeItems>
	<Size>size()</Size>
	<HeadPointer>
	((__base::__node_pointer)&__tree_.__pair1_)->__left_
	</HeadPointer>
	<LeftPointer>
	((std::__1::set<$T1,$T2,$T3>::__base::__node_pointer)this)
	->__left_
	</LeftPointer>
	<RightPointer>
	((std::__1::set<$T1,$T2,$T3>::__base::__node_pointer)this)
	->__right_
	</RightPointer>
	<ValueNode>
	((std::__1::set<$T1,$T2,$T3>::__base::__node_pointer)this)
	->__value_
	</ValueNode>
	</TreeItems>
	</Expand>
	</Type>

	<Type Name="std::__1::stack<*>">
	<AlternativeType Name="std::__1::queue<*>" />
	<DisplayString>{c}</DisplayString>
	<Expand>
	<ExpandedItem>c</ExpandedItem>
	</Expand>
	</Type>

	<Type Name="std::__1::__tuple_leaf<,,0>">
	<DisplayString>{__value_}</DisplayString>
	</Type>

	<Type Name="std::__1::tuple<>">
	<DisplayString>()</DisplayString>
	</Type>

	<Type Name="std::__1::tuple<*>">
	<DisplayString>({(std::__1::__tuple_leaf<0,$T1,0>)__base_})</DisplayString>
	<Expand>
	<Item Name="[0]">(std::__1::__tuple_leaf<0,$T1,0>)__base_</Item>
	</Expand>
	</Type>

	<Type Name="std::__1::tuple<,>">
	<DisplayString>({(std::__1::__tuple_leaf<0,$T1,0>)__base_}, {(std::__1::__tuple_leaf<1,$T2,0>)__base_})</DisplayString>
	<Expand>
	<Item Name="[0]">(std::__1::__tuple_leaf<0,$T1,0>)__base_</Item>
	<Item Name="[1]">(std::__1::__tuple_leaf<1,$T2,0>)__base_</Item>
	</Expand>
	</Type>

	<Type Name="std::__1::tuple<,,*>">
	<DisplayString>({(std::__1::__tuple_leaf<0,$T1,0>)__base_}, {(std::__1::__tuple_leaf<1,$T2,0>)__base_}, {(std::__1::__tuple_leaf<2,$T3,0>)__base_})</DisplayString>
	<Expand>
	<Item Name="[0]">(std::__1::__tuple_leaf<0,$T1,0>)__base_</Item>
	<Item Name="[1]">(std::__1::__tuple_leaf<1,$T2,0>)__base_</Item>
	<Item Name="[2]">(std::__1::__tuple_leaf<2,$T3,0>)__base_</Item>
	</Expand>
	</Type>

	<Type Name="std::__1::tuple<,,,>">
	<DisplayString>({(std::__1::__tuple_leaf<0,$T1,0>)__base_}, {(std::__1::__tuple_leaf<1,$T2,0>)__base_}, {(std::__1::__tuple_leaf<2,$T3,0>)__base_}, {(std::__1::__tuple_leaf<3,$T4,0>)__base_})</DisplayString>
	<Expand>
	<Item Name="[0]">(std::__1::__tuple_leaf<0,$T1,0>)__base_</Item>
	<Item Name="[1]">(std::__1::__tuple_leaf<1,$T2,0>)__base_</Item>
	<Item Name="[2]">(std::__1::__tuple_leaf<2,$T3,0>)__base_</Item>
	<Item Name="[3]">(std::__1::__tuple_leaf<3,$T4,0>)__base_</Item>
	</Expand>
	</Type>

	<Type Name="std::__1::tuple<,,,,*>">
	<DisplayString>({(std::__1::__tuple_leaf<0,$T1,0>)__base_}, {(std::__1::__tuple_leaf<1,$T2,0>)__base_}, {(std::__1::__tuple_leaf<2,$T3,0>)__base_}, {(std::__1::__tuple_leaf<3,$T4,0>)__base_}, {(std::__1::__tuple_leaf<4,$T5,0>)__base_})</DisplayString>
	<Expand>
	<Item Name="[0]">(std::__1::__tuple_leaf<0,$T1,0>)__base_</Item>
	<Item Name="[1]">(std::__1::__tuple_leaf<1,$T2,0>)__base_</Item>
	<Item Name="[2]">(std::__1::__tuple_leaf<2,$T3,0>)__base_</Item>
	<Item Name="[3]">(std::__1::__tuple_leaf<3,$T4,0>)__base_</Item>
	<Item Name="[4]">(std::__1::__tuple_leaf<4,$T5,0>)__base_</Item>
	</Expand>
	</Type>

	<Type Name="std::__1::tuple<,,,,,>">
	<DisplayString>({(std::__1::__tuple_leaf<0,$T1,0>)__base_}, {(std::__1::__tuple_leaf<1,$T2,0>)__base_}, {(std::__1::__tuple_leaf<2,$T3,0>)__base_}, {(std::__1::__tuple_leaf<3,$T4,0>)__base_}, {(std::__1::__tuple_leaf<4,$T5,0>)__base_}, {(std::__1::__tuple_leaf<5,$T6,0>)__base_})</DisplayString>
	<Expand>
	<Item Name="[0]">(std::__1::__tuple_leaf<0,$T1,0>)__base_</Item>
	<Item Name="[1]">(std::__1::__tuple_leaf<1,$T2,0>)__base_</Item>
	<Item Name="[2]">(std::__1::__tuple_leaf<2,$T3,0>)__base_</Item>
	<Item Name="[3]">(std::__1::__tuple_leaf<3,$T4,0>)__base_</Item>
	<Item Name="[4]">(std::__1::__tuple_leaf<4,$T5,0>)__base_</Item>
	<Item Name="[5]">(std::__1::__tuple_leaf<5,$T6,0>)__base_</Item>
	</Expand>
	</Type>

	<Type Name="std::__1::tuple<,,,,,,*>">
	<DisplayString>({(std::__1::__tuple_leaf<0,$T1,0>)__base_}, {(std::__1::__tuple_leaf<1,$T2,0>)__base_}, {(std::__1::__tuple_leaf<2,$T3,0>)__base_}, {(std::__1::__tuple_leaf<3,$T4,0>)__base_}, {(std::__1::__tuple_leaf<4,$T5,0>)__base_}, {(std::__1::__tuple_leaf<5,$T6,0>)__base_}, {(std::__1::__tuple_leaf<6,$T7,0>)__base_})</DisplayString>
	<Expand>
	<Item Name="[0]">(std::__1::__tuple_leaf<0,$T1,0>)__base_</Item>
	<Item Name="[1]">(std::__1::__tuple_leaf<1,$T2,0>)__base_</Item>
	<Item Name="[2]">(std::__1::__tuple_leaf<2,$T3,0>)__base_</Item>
	<Item Name="[3]">(std::__1::__tuple_leaf<3,$T4,0>)__base_</Item>
	<Item Name="[4]">(std::__1::__tuple_leaf<4,$T5,0>)__base_</Item>
	<Item Name="[5]">(std::__1::__tuple_leaf<5,$T6,0>)__base_</Item>
	<Item Name="[6]">(std::__1::__tuple_leaf<6,$T7,0>)__base_</Item>
	</Expand>
	</Type>

	<Type Name="std::__1::unique_ptr<*>">
	<Intrinsic Name="value" Expression="($T1*)&__ptr_" />
	<SmartPointer Usage="Minimal">value()</SmartPointer>
	<DisplayString Condition="value() == 0">empty</DisplayString>
	<DisplayString Condition="value() != 0">
	unique_ptr {value()}</DisplayString>
	<Expand>
	<Item Condition="value() != 0" Name="[ptr]">value()</Item>
	</Expand>
	</Type>

	<Type Name="std::__1::unordered_map<*>">
	<AlternativeType Name="std::__1::unordered_multimap<*>" />
	<AlternativeType Name="std::__1::unordered_multiset<*>" />
	<AlternativeType Name="std::__1::unordered_set<*>" />
	<Intrinsic Name="size" Expression="(size_type)&__table_.__p2_" />
	<Intrinsic Name="bucket_count"
	Expression="(size_type)&
	((__table::__bucket_list_deleter*)
	((void**)&__table_.__bucket_list_ + 1))
	->__data_" />
	<DisplayString>{{ size={size()} }}</DisplayString>
	<Expand>
	<Item Name="[bucket_count]">bucket_count()</Item>
	<Item Name="[load_factor]">
	bucket_count() != 0 ? (float)size() / bucket_count() : 0.f</Item>
	<Item Name="[max_load_factor]">(float)&__table_.__p3_</Item>
	<!-- Use CustomListItems instead of LinkedListItems because we
	need to cast to __table::__node_pointer and LinkedListItems
	evaluates <Value> in the context of the node, not of the container,
	so we'd have to say std::unordered_map<$T1,...>::__table::__node_pointer
	and then we couldn't share this <Type> between unordered_(multi)map
	and unordered_(multi)set. -->
	<CustomListItems>
	<Variable Name="node"
	InitialValue="(__table::__next_pointer)&__table_.__p1_" />
	<Size>size()</Size>
	<Loop>
	<Item>((__table::__node_pointer)&node)->__value_</Item>
	<Exec>node = node->__next_</Exec>
	</Loop>
	</CustomListItems>
	</Expand>
	</Type>
	<!-- This is the node __value_ of an unordered_(multi)map. Expand it through
	a separate formatter instead of in the <Item> expression above so that the
	same <Type> works for unordered_(multi)set and unordered_(multi)map. -->
	<Type Name="std::__1::__hash_value_type<*>">
	<DisplayString>{__cc}</DisplayString>
	<Expand>
	<ExpandedItem>__cc</ExpandedItem>
	</Expand>
	</Type>

	<Type Name="std::__1::vector<*>">
	<Intrinsic Name="size" Expression="__end_ - __begin_" />
	<DisplayString>{{ size={size()} }}</DisplayString>
	<Expand>
	<ArrayItems>
	<Size>size()</Size>
	<ValuePointer>__begin_</ValuePointer>
	</ArrayItems>
	</Expand>
	</Type>
	</AutoVisualizer>