style: apply julia formatter

src/corona/models/extended.jl

@@ -125,9 +125,9 @@ function _calculate_ring_arms(
             m,
             d,
             v,
-            gps[1:min_ρ_index-1],
-            ρs[1:min_ρ_index-1],
-            δs_filtered[1:min_ρ_index-1],
+            gps[1:(min_ρ_index-1)],
+            ρs[1:(min_ρ_index-1)],
+            δs_filtered[1:(min_ρ_index-1)],
         )
         right = @views _process_ring_traces(
             setup,
@@ -175,7 +175,7 @@ function _process_ring_traces(setup::EmissivityProfileSetup, m, d, v, gps, rs, 
     points = gps[J]
     δs_sorted = δs[J]
     r, ε = _point_source_emissivity(m, d, setup.spectrum, v, rs[J], δs_sorted, points)
-    t = [i.x[1] for i in @views(points[1:end-1])]
+    t = [i.x[1] for i in @views(points[1:(end-1)])]
     (; t, r, ε = abs.(ε))
 end
 
@@ -189,7 +189,7 @@ function _integrate_transfer_problem!(
     t_grid;
     g_scale = 1,
 ) where {T,Profile<:Union{<:RingCoronaProfile,DiscCoronaProfile}}
-    g_grid_view = @views g_grid[1:end-1]
+    g_grid_view = @views g_grid[1:(end-1)]
 
     r_itterator = collect(Grids._geometric_grid(r_limits..., setup.n_radii))
     r2 = first(iterate(r_itterator, 2))

src/corona/models/lamp-post.jl

@@ -106,7 +106,7 @@ function _point_source_symmetric_emissivity_profile(
     δs = δs[J]
 
     r, ε = _point_source_emissivity(m, d, setup.spectrum, v, rs_sorted, δs, points)
-    t = [i.x[1] for i in @views(points[1:end-1])]
+    t = [i.x[1] for i in @views(points[1:(end-1)])]
 
     RadialDiscProfile(r, t, ε)
 end
@@ -124,7 +124,7 @@ function _point_source_emissivity(
     _disc_velocity = _keplerian_velocity_projector(m, d)
 
     # radial bin size
-    _points = @views(points[1:end-1])
+    _points = @views(points[1:(end-1)])
 
     ε = map(enumerate(_points)) do (i, p)
         v_disc = _disc_velocity(p.x)
@@ -136,7 +136,7 @@ function _point_source_emissivity(
         point_source_equatorial_disc_emissivity(spec, δs[i], gs, A, γ)
     end
 
-    r = r[1:end-1]
+    r = r[1:(end-1)]
     r, ε
 end
 

src/corona/profiles/voronoi.jl

@@ -162,7 +162,7 @@ function _cut_polygon(radius, poly; inner = true)
     clines = getcycliclines(poly)
     (i1, t1) = _circ_path_intersect(radius, clines)
     if t1 > 0
-        (i2, t2) = _circ_path_intersect(radius, @view(clines[i1+1:end]))
+        (i2, t2) = _circ_path_intersect(radius, @view(clines[(i1+1):end]))
         if inner
             _circ_cut(radius, clines, i1, t1, i2 + i1, t2; outer = false)
         else
@@ -187,12 +187,12 @@ function _circ_cut(radius, clines, i1, t1, i2, t2; outer = true)
         points = first.(@view(clines[1:i1]))
         push!(points, A)
         push!(points, B)
-        points = vcat(points, first.(@view(clines[i2+1:end])))
+        points = vcat(points, first.(@view(clines[(i2+1):end])))
 
         return GeometryBasics.Polygon(points)
     else
         # outside circle
-        points = first.(@view(clines[i1+1:i2]))
+        points = first.(@view(clines[(i1+1):i2]))
         push!(points, B)
         push!(points, A)
 

src/plotting-recipes.jl

@@ -149,12 +149,12 @@ end
     xscale --> :log10
     yscale --> :log10
 
-    y = p.ε[2:end-1]
+    y = p.ε[2:(end-1)]
 
     if !isnothing(normalize)
         y = normalize(y)
     end
-    p.radii[2:end-1], y
+    p.radii[2:(end-1)], y
 end
 
 @recipe function f(ctf::CunninghamTransferData; h = 1e-4)
@@ -184,5 +184,5 @@ end
     y = y[2:end]
     em_index = @. dydx * x / y
 
-    x[1:end-1], -em_index[1:end-1]
+    x[1:(end-1)], -em_index[1:(end-1)]
 end

src/transfer-functions/integration.jl

@@ -304,17 +304,16 @@ function _integrate_transfer_problem!(
     g_grid;
     g_scale = 1,
 ) where {T}
-    g_grid_view = @views g_grid[1:end-1]
+    g_grid_view = @views g_grid[1:(end-1)]
 
     r_itterator = Grids._inverse_grid(r_limits..., setup.n_radii)
     r2 = first(iterate(r_itterator, 2))
     # prime the first r_prev so that the bin width is r2 - r1
     r_prev = r_limits[1] - (r2 - r_limits[1])
 
-    @inbounds for rₑ in r_itterator
+    for rₑ in r_itterator
         branch = transfer_function_radial_interpolation(rₑ)
         S = _both_branches(setup, branch)
-
         Δrₑ = rₑ - r_prev
         # integration weight for this annulus
         θ = Δrₑ * rₑ * radial_component(setup, rₑ) * π / (branch.gmax - branch.gmin)
@@ -347,7 +346,7 @@ function _integrate_transfer_problem!(
     t_grid;
     g_scale = 1,
 ) where {T}
-    g_grid_view = @views g_grid[1:end-1]
+    g_grid_view = @views g_grid[1:(end-1)]
 
     r_itterator = Grids._geometric_grid(r_limits..., setup.n_radii)
     r2 = first(iterate(r_itterator, 2))

src/transfer-functions/utils.jl

@@ -127,7 +127,7 @@ end
 
 function _normalize!(flux::AbstractVector{T}, grid) where {T}
     Σflux = zero(T)
-    @inbounds for i = 1:length(grid)-1
+    @inbounds for i = 1:(length(grid)-1)
         ḡ = (grid[i+1] + grid[i])
         flux[i] = flux[i] / ḡ
         Σflux += flux[i]
@@ -140,7 +140,7 @@ end
 
 function _normalize!(flux::AbstractMatrix{T}, grid) where {T}
     Σflux = zero(T)
-    @views @inbounds for i = 1:length(grid)-1
+    @views @inbounds for i = 1:(length(grid)-1)
         ḡ = (grid[i+1] + grid[i])
         @. flux[i, :] = flux[i, :] / ḡ
         Σflux += sum(flux[i, :])

test/unit/orthonormalization.jl

@@ -69,7 +69,7 @@ function numerical_lnrframe(m, u)
     reduce(hcat, vecs)
 end
 
-for M = 0.2:0.8:2.0, a = -M:0.5:M
+for M = 0.2:0.8:2.0, a = (-M):0.5:M
     m = KerrMetric(M, a)
     r = Gradus.inner_radius(m) + 4.2
     for θ in angles
@@ -101,7 +101,7 @@ function numerical_lnrbasis(m, u)
     reduce(hcat, vecs)
 end
 
-for M = 0.2:0.8:2.0, a = -M:0.5:M
+for M = 0.2:0.8:2.0, a = (-M):0.5:M
     m = KerrMetric(M, a)
     r = Gradus.inner_radius(m) + 0.3
     for θ in angles