Respond to PR feedback

Author: tannergooding

xml/System.Runtime.Intrinsics/Vector128.xml

@@ -2632,9 +2632,9 @@
         <Parameter Name="vector" Type="System.Runtime.Intrinsics.Vector128&lt;System.Double&gt;" Index="0" FrameworkAlternate="net-10.0;net-9.0" />
       </Parameters>
       <Docs>
-        <param name="vector">The vector that will have its Cos computed.</param>
-        <summary>Computes the cos of each element in a vector.</summary>
-        <returns>A vector whose elements are the cos of the elements in <paramref name="vector" />.</returns>
+        <param name="vector">The vector that will have its cosine computed.</param>
+        <summary>Computes the cosine of each element in a vector.</summary>
+        <returns>A vector whose elements are the cosine of the elements in <paramref name="vector" />.</returns>
         <remarks>To be added.</remarks>
       </Docs>
     </Member>
@@ -2658,9 +2658,9 @@
         <Parameter Name="vector" Type="System.Runtime.Intrinsics.Vector128&lt;System.Single&gt;" Index="0" FrameworkAlternate="net-10.0;net-9.0" />
       </Parameters>
       <Docs>
-        <param name="vector">The vector that will have its Cos computed.</param>
-        <summary>Computes the cos of each element in a vector.</summary>
-        <returns>A vector whose elements are the cos of the elements in <paramref name="vector" />.</returns>
+        <param name="vector">The vector that will have its cosine computed.</param>
+        <summary>Computes the cosine of each element in a vector.</summary>
+        <returns>A vector whose elements are the cosine of the elements in <paramref name="vector" />.</returns>
         <remarks>To be added.</remarks>
       </Docs>
     </Member>
@@ -5887,9 +5887,9 @@ On x86, this method corresponds to __m128i _mm_setr_epi8
         <Parameter Name="vector" Type="System.Runtime.Intrinsics.Vector128&lt;System.Double&gt;" Index="0" FrameworkAlternate="net-10.0;net-9.0" />
       </Parameters>
       <Docs>
-        <param name="vector">The vector that will have its Exp computed.</param>
-        <summary>Computes the exp of each element in a vector.</summary>
-        <returns>A vector whose elements are the exp of the elements in <paramref name="vector" />.</returns>
+        <param name="vector">The vector that will have its exponential computed.</param>
+        <summary>Computes the exponential of each element in a vector.</summary>
+        <returns>A vector whose elements are the exponential of the elements in <paramref name="vector" />.</returns>
         <remarks>To be added.</remarks>
       </Docs>
     </Member>
@@ -5913,9 +5913,9 @@ On x86, this method corresponds to __m128i _mm_setr_epi8
         <Parameter Name="vector" Type="System.Runtime.Intrinsics.Vector128&lt;System.Single&gt;" Index="0" FrameworkAlternate="net-10.0;net-9.0" />
       </Parameters>
       <Docs>
-        <param name="vector">The vector that will have its exp computed.</param>
-        <summary>Computes the exp of each element in a vector.</summary>
-        <returns>A vector whose elements are the exp of the elements in <paramref name="vector" />.</returns>
+        <param name="vector">The vector that will have its exponential computed.</param>
+        <summary>Computes the exponential of each element in a vector.</summary>
+        <returns>A vector whose elements are the exponential of the elements in <paramref name="vector" />.</returns>
         <remarks>To be added.</remarks>
       </Docs>
     </Member>
@@ -6056,8 +6056,8 @@ On x86, this method corresponds to __m128i _mm_setr_epi8
         <summary>Computes (<paramref name="left" /> * <paramref name="right" />) + <paramref name="addend" />, rounded as one ternary operation.</summary>
         <returns>(<paramref name="left" /> * <paramref name="right" />) + <paramref name="addend" />, rounded as one ternary operation.</returns>
         <remarks>
-          <para>This computes (<paramref name="left" /> * <paramref name="right" />) as if to infinite precision, adds <paramref name="addend" /> to that result as if to infinite precision, and finally rounds to the nearest representable value.</para>
-          <para>This differs from the non-fused sequence, which would compute (<paramref name="left" /> * <paramref name="right" />) as if to infinite precision, round the result to the nearest representable value, add <paramref name="addend" /> to the rounded result as if to infinite precision, and finally round to the nearest representable value.</para>
+          <para>This method computes (<paramref name="left" /> * <paramref name="right" />) as if to infinite precision, adds <paramref name="addend" /> to that result as if to infinite precision, and finally rounds to the nearest representable value.</para>
+          <para>This calculation differs from the non-fused sequence, which would compute (<paramref name="left" /> * <paramref name="right" />) as if to infinite precision, round the result to the nearest representable value, add <paramref name="addend" /> to the rounded result as if to infinite precision, and finally round to the nearest representable value.</para>
         </remarks>
       </Docs>
     </Member>
@@ -6089,8 +6089,8 @@ On x86, this method corresponds to __m128i _mm_setr_epi8
         <summary>Computes (<paramref name="left" /> * <paramref name="right" />) + <paramref name="addend" />, rounded as one ternary operation.</summary>
         <returns>(<paramref name="left" /> * <paramref name="right" />) + <paramref name="addend" />, rounded as one ternary operation.</returns>
         <remarks>
-          <para>This computes (<paramref name="left" /> * <paramref name="right" />) as if to infinite precision, adds <paramref name="addend" /> to that result as if to infinite precision, and finally rounds to the nearest representable value.</para>
-          <para>This differs from the non-fused sequence, which would compute (<paramref name="left" /> * <paramref name="right" />) as if to infinite precision, round the result to the nearest representable value, add <paramref name="addend" /> to the rounded result as if to infinite precision, and finally round to the nearest representable value.</para>
+          <para>This method computes (<paramref name="left" /> * <paramref name="right" />) as if to infinite precision, adds <paramref name="addend" /> to that result as if to infinite precision, and finally rounds to the nearest representable value.</para>
+          <para>This calculation differs from the non-fused sequence, which would compute (<paramref name="left" /> * <paramref name="right" />) as if to infinite precision, round the result to the nearest representable value, add <paramref name="addend" /> to the rounded result as if to infinite precision, and finally round to the nearest representable value.</para>
         </remarks>
       </Docs>
     </Member>
@@ -6783,8 +6783,8 @@ On x86, this method corresponds to __m128i _mm_setr_epi8
         <summary>Determines which elements in a vector are even integral values.</summary>
         <returns>A vector whose elements are all-bits-set or zero, depending on if the corresponding elements in <paramref name="vector" /> were even integral values.</returns>
         <remarks>
-          <para>This correctly handles floating-point values and so <c>2.0</c> will return <c>all-bits-set</c> while <c>2.2</c> will return <c>zero</c>.</para>
-          <para>This function returning <c>zero</c> for a corresponding element does not imply that <c>IsOddInteger</c> will return <c>all-bits-set</c> for that element. A number with a fractional portion, <c>3.3</c>, is neither even nor odd.</para>
+          <para>This method correctly handles floating-point values, and so <c>2.0</c> returns <c>all-bits-set</c> while <c>2.2</c> returns <c>zero</c>.</para>
+          <para>If this method returns <c>zero</c> for a corresponding element, it doesn't imply that <c>IsOddInteger</c> will return <c>all-bits-set</c> for that element. A number with a fractional portion, <c>3.3</c>, is neither even nor odd.</para>
         </remarks>
       </Docs>
     </Member>
@@ -6827,7 +6827,7 @@ On x86, this method corresponds to __m128i _mm_setr_epi8
         <param name="vector">The vector to be checked.</param>
         <summary>Determines which elements in a vector are finite.</summary>
         <returns>A vector whose elements are all-bits-set or zero, depending on if the corresponding elements in <paramref name="vector" /> were finite.</returns>
-        <remarks>This function returning <c>zero</c> for a corresponding element does not imply that <c>IsInfinity</c> will return <c>all-bits-set</c> for that element. <c>NaN</c> is not finite nor infinite.</remarks>
+        <remarks>If this method returns <c>zero</c> for a corresponding element, it doesn't imply that <c>IsInfinity</c> will return <c>all-bits-set</c> for that element. <c>NaN</c> isn't finite or infinite.</remarks>
       </Docs>
     </Member>
     <Member MemberName="IsHardwareAccelerated">
@@ -6902,7 +6902,7 @@ On x86, this method corresponds to __m128i _mm_setr_epi8
         <param name="vector">The vector to be checked.</param>
         <summary>Determines which elements in a vector are infinity.</summary>
         <returns>A vector whose elements are all-bits-set or zero, depending on if the corresponding elements in <paramref name="vector" /> were infinity.</returns>
-        <remarks>This function returning <c>zero</c> for a corresponding element does not imply that <c>IsFinite</c> will return <c>all-bits-set</c> for that element. <c>NaN</c> is not finite nor infinite.</remarks>
+        <remarks>If this method returns <c>zero</c> for a corresponding element, it doesn't imply that <c>IsFinite</c> will return <c>all-bits-set</c> for that element. <c>NaN</c> isn't finite or infinite.</remarks>
       </Docs>
     </Member>
     <Member MemberName="IsInteger&lt;T&gt;">
@@ -6944,7 +6944,7 @@ On x86, this method corresponds to __m128i _mm_setr_epi8
         <param name="vector">The vector to be checked.</param>
         <summary>Determines which elements in a vector are integral values.</summary>
         <returns>A vector whose elements are all-bits-set or zero, depending on if the corresponding elements in <paramref name="vector" /> were integral values.</returns>
-        <remarks>This correctly handles floating-point values and so <c>2.0</c> and <c>3.0</c> will return <c>all-bits-set</c> for a corresponding element while <c>2.2</c> and <c>3.3</c> will return <c>zero</c>.</remarks>
+        <remarks>This method correctly handles floating-point values, and so <c>2.0</c> and <c>3.0</c> return <c>all-bits-set</c> for a corresponding element, while <c>2.2</c> and <c>3.3</c> return <c>zero</c>.</remarks>
       </Docs>
     </Member>
     <Member MemberName="IsNaN&lt;T&gt;">
@@ -7157,8 +7157,8 @@ On x86, this method corresponds to __m128i _mm_setr_epi8
         <summary>Determines which elements in a vector are odd integral values.</summary>
         <returns>A vector whose elements are all-bits-set or zero, depending on if the corresponding elements in <paramref name="vector" /> were odd integral values.</returns>
         <remarks>
-          <para>This correctly handles floating-point values and so <c>3.0</c> will return <c>all-bits-set</c> for a corresponding element while <c>3.3</c> will return <c>zero</c>.</para>
-          <para>This function returning <c>zero</c> for a corresponding element does not imply that <c>IsEvenInteger</c> will return <c>all-bits-set</c> for that element. A number with a fractional portion, <c>3.3</c>, is neither even nor odd.</para>
+          <para>This method correctly handles floating-point values, and so <c>3.0</c> returns <c>all-bits-set</c> for a corresponding element, while <c>3.3</c> returns <c>zero</c>.</para>
+          <para>If this method returns <c>zero</c> for a corresponding element, it doesn't imply that <c>IsEvenInteger</c> will return <c>all-bits-set</c> for that element. A number with a fractional portion, for example, <c>3.3</c>, is neither even nor odd.</para>
         </remarks>
       </Docs>
     </Member>
@@ -8969,8 +8969,8 @@ This method may bypass the cache on certain platforms.
         <summary>Computes an estimate of (<paramref name="left" /> * <paramref name="right" />) + <paramref name="addend" />.</summary>
         <returns>An estimate of (<paramref name="left" /> * <paramref name="right" />) + <paramref name="addend" />.</returns>
         <remarks>
-          <para>On hardware that natively supports <see cref="M:System.Runtime.Intrinsics.Vector64.FusedMultiplyAdd(System.Runtime.Intrinsics.Vector64{System.Double},System.Runtime.Intrinsics.Vector64{System.Double},System.Runtime.Intrinsics.Vector64{System.Double})" />, this may return a result that was rounded as one ternary operation.</para>
-          <para>On hardware without specialized support, this may just return (<paramref name="left" /> * <paramref name="right" />) + <paramref name="addend" />.</para>
+          <para>On hardware that natively supports <see cref="M:System.Runtime.Intrinsics.Vector128.FusedMultiplyAdd(System.Runtime.Intrinsics.Vector128{System.Double},System.Runtime.Intrinsics.Vector128{System.Double},System.Runtime.Intrinsics.Vector128{System.Double})" />, this method might return a result that was rounded as one ternary operation.</para>
+          <para>On hardware without specialized support, this method might just return (<paramref name="left" /> * <paramref name="right" />) + <paramref name="addend" />.</para>
         </remarks>
       </Docs>
     </Member>
@@ -9002,8 +9002,8 @@ This method may bypass the cache on certain platforms.
         <summary>Computes an estimate of (<paramref name="left" /> * <paramref name="right" />) + <paramref name="addend" />.</summary>
         <returns>An estimate of (<paramref name="left" /> * <paramref name="right" />) + <paramref name="addend" />.</returns>
         <remarks>
-          <para>On hardware that natively supports <see cref="M:System.Runtime.Intrinsics.Vector64.FusedMultiplyAdd(System.Runtime.Intrinsics.Vector64{System.Double},System.Runtime.Intrinsics.Vector64{System.Double},System.Runtime.Intrinsics.Vector64{System.Double})" />, this may return a result that was rounded as one ternary operation.</para>
-          <para>On hardware without specialized support, this may just return (<paramref name="left" /> * <paramref name="right" />) + <paramref name="addend" />.</para>
+          <para>On hardware that natively supports <see cref="M:System.Runtime.Intrinsics.Vector128.FusedMultiplyAdd(System.Runtime.Intrinsics.Vector128{System.Single},System.Runtime.Intrinsics.Vector128{System.Single},System.Runtime.Intrinsics.Vector128{System.Single})" />, this method might return a result that was rounded as one ternary operation.</para>
+          <para>On hardware without specialized support, this method might just return (<paramref name="left" /> * <paramref name="right" />) + <paramref name="addend" />.</para>
         </remarks>
       </Docs>
     </Member>
@@ -11265,9 +11265,9 @@ This method may bypass the cache on certain platforms.
         <Parameter Name="vector" Type="System.Runtime.Intrinsics.Vector128&lt;System.Double&gt;" Index="0" FrameworkAlternate="net-10.0;net-9.0" />
       </Parameters>
       <Docs>
-        <param name="vector">The vector that will have its Sin computed.</param>
-        <summary>Computes the sin of each element in a vector.</summary>
-        <returns>A vector whose elements are the sin of the elements in <paramref name="vector" />.</returns>
+        <param name="vector">The vector that will have its sine computed.</param>
+        <summary>Computes the sine of each element in a vector.</summary>
+        <returns>A vector whose elements are the sine of the elements in <paramref name="vector" />.</returns>
         <remarks>To be added.</remarks>
       </Docs>
     </Member>
@@ -11291,9 +11291,9 @@ This method may bypass the cache on certain platforms.
         <Parameter Name="vector" Type="System.Runtime.Intrinsics.Vector128&lt;System.Single&gt;" Index="0" FrameworkAlternate="net-10.0;net-9.0" />
       </Parameters>
       <Docs>
-        <param name="vector">The vector that will have its Sin computed.</param>
-        <summary>Computes the sin of each element in a vector.</summary>
-        <returns>A vector whose elements are the sin of the elements in <paramref name="vector" />.</returns>
+        <param name="vector">The vector that will have its sine computed.</param>
+        <summary>Computes the sine of each element in a vector.</summary>
+        <returns>A vector whose elements are the sine of the elements in <paramref name="vector" />.</returns>
         <remarks>To be added.</remarks>
       </Docs>
     </Member>
@@ -11323,9 +11323,9 @@ This method may bypass the cache on certain platforms.
         <Parameter Name="vector" Type="System.Runtime.Intrinsics.Vector128&lt;System.Double&gt;" Index="0" FrameworkAlternate="net-10.0;net-9.0" />
       </Parameters>
       <Docs>
-        <param name="vector">The vector that will have its SinCos computed.</param>
-        <summary>Computes the sincos of each element in a vector.</summary>
-        <returns>A vector whose elements are the sincos of the elements in <paramref name="vector" />.</returns>
+        <param name="vector">The vector that will have its sine and cosine computed.</param>
+        <summary>Computes the sine and cosine of each element in a vector.</summary>
+        <returns>A vector whose elements are the sine and cosine of the elements in <paramref name="vector" />.</returns>
         <remarks>To be added.</remarks>
       </Docs>
     </Member>
@@ -11355,9 +11355,9 @@ This method may bypass the cache on certain platforms.
         <Parameter Name="vector" Type="System.Runtime.Intrinsics.Vector128&lt;System.Single&gt;" Index="0" FrameworkAlternate="net-10.0;net-9.0" />
       </Parameters>
       <Docs>
-        <param name="vector">The vector that will have its SinCos computed.</param>
-        <summary>Computes the sincos of each element in a vector.</summary>
-        <returns>A vector whose elements are the sincos of the elements in <paramref name="vector" />.</returns>
+        <param name="vector">The vector that will have its sine and cosine computed.</param>
+        <summary>Computes the sine and cosine of each element in a vector.</summary>
+        <returns>A vector whose elements are the sine and cosine of the elements in <paramref name="vector" />.</returns>
         <remarks>To be added.</remarks>
       </Docs>
     </Member>