@@ -31,13 +31,13 @@ vfindminmax(f, op, init, A, dims::Int) = vfindminmax(f, op, init, A, (dims,))
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Return the value and the index of the argument which maximizes `f` over the
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dimensions `dims`, which may be `::Int`, `::NTuple{M, Int} where {M}` or `::Colon`.
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- Expands upon the functionality provided in Julia Base.
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+ Expands upon the functionality provided in Julia (v1.8) Base.
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# Additional Notes
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Due to the current limitations of LoopVectorization, searches over the first dimension
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of an array are not well-supported. A workaround is possible by reshaping `A` but
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the resultant performance is often only on par with `findmax`. As a temporary convenience,
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- `findmax1 ` is provided for explicit uses of the re-shaping strategy, though the user
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+ `vfindmax1 ` is provided for explicit uses of the re-shaping strategy, though the user
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is cautioned as to the performance problems.
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# Warning
@@ -50,13 +50,13 @@ vfindmax(f::F, A, dims) where {F<:Function} = vfindminmax(f, >, typemin, A, dims
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Return the value and the index of the argument which minimizes `f` over the
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dimensions `dims`, which may be `::Int`, `::NTuple{M, Int} where {M}` or `::Colon`.
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- Expands upon the functionality provided in Julia Base.
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+ Expands upon the functionality provided in Julia (v1.8) Base.
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# Additional Notes
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Due to the current limitations of LoopVectorization, searches over the first dimension
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of an array are not well-supported. A workaround is possible by reshaping `A` but
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the resultant performance is often only on par with `findmin`. As a temporary convenience,
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- `findmin1 ` is provided for explicit uses of the re-shaping strategy, though the user
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+ `vfindmin1 ` is provided for explicit uses of the re-shaping strategy, though the user
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is cautioned as to the performance problems.
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# Warning
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