@@ -54,15 +54,16 @@ most of the FFTW library [@fftw05] and provide support for
5454complex-to-complex, real-to-complex, complex-to-real and real-to-real
5555transforms.
5656
57- `` mpi4py-fft `` is highly configurable in how it distributes and redistributes
58- arrays. Large arrays may be globally redistributed for alignement
59- along any given axis, whenever needed by the user. This
57+ `` mpi4py-fft `` is highly configurable in how it distributes and
58+ redistributes arrays. Large arrays may be globally redistributed for
59+ alignement along any given axis, whenever needed by the user. This
6060flexibility has enabled the development of `` shenfun ``
61- [ @mortensen_joss,@mortensen17 ] , which is a computing platform
62- for solving partial differential equations (PDEs) by the spectral Galerkin method.
63- In `` shenfun `` it is possible to solve PDEs of any given dimensionality, by creating
64- tensor product bases as outer products of one-dimensional bases. This leads to
65- large multidimensional arrays that are distributed effortlessly through `` mpi4py-fft `` .
61+ [ @mortensen_joss,@mortensen17 ] , which is a Python framework for
62+ solving partial differential equations (PDEs) by the spectral Galerkin
63+ method. `` shenfun `` is able to solve PDEs of any given dimensionality
64+ by creating tensor product bases as outer products of one-dimensional
65+ bases. This leads to large multidimensional arrays that are
66+ distributed effortlessly through `` mpi4py-fft `` .
6667
6768`` mpi4py-fft `` can be utilized by anyone that needs to perform FFTs on large
6869multidimensional arrays. Through its distributed array interface it can also be
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