Apply JuliaFormatter to fix code formatting

- Applied JuliaFormatter with SciML style guide
- Formatted 3 files

🤖 Generated by OrgMaintenanceScripts.jl

Author: SciML Bot

src/KLU/klu.jl

@@ -14,7 +14,8 @@ import Base: (\), size, getproperty, setproperty!, propertynames, show,
              copy, eachindex, view, sortperm, unsafe_load, zeros, convert, eltype,
              length, parent, stride, finalizer, Complex, complex, imag, real, map!,
              summary, println, oneunit, sizeof, isdefined, setfield!, getfield,
-             OutOfMemoryError, ArgumentError, OverflowError, ErrorException, DimensionMismatch
+             OutOfMemoryError, ArgumentError, OverflowError, ErrorException,
+             DimensionMismatch
 
 # Convert from 1-based to 0-based indices
 function decrement!(A::AbstractArray{T}) where {T <: Integer}
@@ -166,6 +167,7 @@ function _free_symbolic(K::AbstractKLUFactorization{Tv, Ti}) where {Ti <: KLUITy
 end
 
 for Ti in KLUIndexTypes, Tv in KLUValueTypes
+
     klufree = _klu_name("free_numeric", Tv, Ti)
     ptr = _klu_name("numeric", :Float64, Ti)
     @eval begin
@@ -218,6 +220,7 @@ end
 # Certain sets of inputs must be non-null *together*:
 # [Lp, Li, Lx], [Up, Ui, Ux], [Fp, Fi, Fx]
 for Tv in KLUValueTypes, Ti in KLUIndexTypes
+
     extract = _klu_name("extract", Tv, Ti)
     sort = _klu_name("sort", Tv, Ti)
     if Tv === :ComplexF64
@@ -436,6 +439,7 @@ function klu_analyze!(K::KLUFactorization{Tv, Ti}, P::Vector{Ti},
 end
 
 for Tv in KLUValueTypes, Ti in KLUIndexTypes
+
     factor = _klu_name("factor", Tv, Ti)
     @eval begin
         function klu_factor!(
@@ -464,6 +468,7 @@ for Tv in KLUValueTypes, Ti in KLUIndexTypes
 end
 
 for Tv in KLUValueTypes, Ti in KLUIndexTypes
+
     rgrowth = _klu_name("rgrowth", Tv, Ti)
     rcond = _klu_name("rcond", Tv, Ti)
     condest = _klu_name("condest", Tv, Ti)
@@ -639,6 +644,7 @@ See also: [`klu`](@ref)
 klu!
 
 for Tv in KLUValueTypes, Ti in KLUIndexTypes
+
     refactor = _klu_name("refactor", Tv, Ti)
     @eval begin
         function klu!(K::KLUFactorization{$Tv, $Ti}, nzval::Vector{$Tv};
@@ -676,8 +682,8 @@ function klu!(K::KLUFactorization{U}, S::SparseMatrixCSC{U};
     # what should happen here when check = false? This is not really a KLU error code.
     K.colptr == S.colptr && K.rowval == S.rowval ||
         (decrement!(K.colptr);
-        decrement!(K.rowval);
-        throw(ArgumentError("The pattern of the original matrix must match the pattern of the refactor."))
+            decrement!(K.rowval);
+            throw(ArgumentError("The pattern of the original matrix must match the pattern of the refactor."))
         )
     decrement!(K.colptr)
     decrement!(K.rowval)
@@ -710,6 +716,7 @@ This function overwrites `B` with the solution `X`, for a new solution vector `X
 """
 solve!
 for Tv in KLUValueTypes, Ti in KLUIndexTypes
+
     solve = _klu_name("solve", Tv, Ti)
     @eval begin
         function solve!(klu::AbstractKLUFactorization{$Tv, $Ti},
@@ -726,6 +733,7 @@ for Tv in KLUValueTypes, Ti in KLUIndexTypes
 end
 
 for Tv in KLUValueTypes, Ti in KLUIndexTypes
+
     tsolve = _klu_name("tsolve", Tv, Ti)
     if Tv === :ComplexF64
         call = :($tsolve(

src/LinearSolve.jl

@@ -176,9 +176,10 @@ include("adjoint.jl")
     end
 end
 
-@inline function _notsuccessful(F::LinearAlgebra.QRCompactWY{T, A}) where {T,A<:GPUArraysCore.AnyGPUArray}
+@inline function _notsuccessful(F::LinearAlgebra.QRCompactWY{
+        T, A}) where {T, A <: GPUArraysCore.AnyGPUArray}
     hasmethod(LinearAlgebra.issuccess, (typeof(F),)) ?
-                            !LinearAlgebra.issuccess(F) : false
+    !LinearAlgebra.issuccess(F) : false
 end
 
 @inline function _notsuccessful(F::LinearAlgebra.QRCompactWY)

src/factorization.jl

@@ -861,8 +861,8 @@ patterns with “more structure”.
 !!! note
 
     By default, the SparseArrays.jl are implemented for efficiency by caching the
-    symbolic factorization. If the sparsity pattern of `A` may change between solves, set `reuse_symbolic=false`. 
-    If the pattern is assumed or known to be constant, set `reuse_symbolic=true` to avoid 
+    symbolic factorization. If the sparsity pattern of `A` may change between solves, set `reuse_symbolic=false`.
+    If the pattern is assumed or known to be constant, set `reuse_symbolic=true` to avoid
     unnecessary recomputation. To further reduce computational overhead, you can disable
     pattern checks entirely by setting `check_pattern = false`. Note that this may error
     if the sparsity pattern does change unexpectedly.
@@ -887,8 +887,8 @@ A fast sparse LU-factorization which specializes on sparsity patterns with “le
 !!! note
 
     By default, the SparseArrays.jl are implemented for efficiency by caching the
-    symbolic factorization. If the sparsity pattern of `A` may change between solves, set `reuse_symbolic=false`. 
-    If the pattern is assumed or known to be constant, set `reuse_symbolic=true` to avoid 
+    symbolic factorization. If the sparsity pattern of `A` may change between solves, set `reuse_symbolic=false`.
+    If the pattern is assumed or known to be constant, set `reuse_symbolic=true` to avoid
     unnecessary recomputation. To further reduce computational overhead, you can disable
     pattern checks entirely by setting `check_pattern = false`. Note that this may error
     if the sparsity pattern does change unexpectedly.