Should be fixed now

julia/test/inner_loop/phase.jl

@@ -7,7 +7,7 @@
   # First we'll test an Earth case
   # Initial Setup
   T = rand( 8hour : second : day )
-  revs = 3
+  revs = 8
   n = 10 * revs
   start_mass = 10_000.
 
@@ -39,19 +39,20 @@
 
   # Now the sun case
   T = rand( 0.5year : hour : 1.5year )
+  tof = 0.7T
   n = 20
   start_mass = 12_000.
 
   # A simple orbit raising again, to keep things simple
   start = gen_orbit(T, start_mass)
-  thrust = spiral(0.6, n, start, bepi, revs*T)
-  final = prop(thrust, start, bepi, revs*T)[2]
+  thrust = spiral(0.6, n, start, bepi, tof)
+  final = prop(thrust, start, bepi, tof)[2]
   new_T = 2π * √( xyz_to_oe(final, Sun.μ)[1]^3 / Sun.μ )
 
   # This should be close enough to converge
-  thrust_guess = spiral(0.55, n, start, bepi, revs*T)
-  result = solve_phase(start, final, bepi, revs*T, thrust_guess)
-  calc_path, calc_final = prop(result.zero, start, bepi, revs*T, interpolate=true)
+  thrust_guess = spiral(0.55, n, start, bepi, tof)
+  result = solve_phase(start, final, bepi, tof, thrust_guess)
+  calc_path, calc_final = prop(result.zero, start, bepi, tof, interpolate=true)
 
   # Test
   @test converged(result)

julia/test/runtests.jl

@@ -4,7 +4,6 @@ using LinearAlgebra
 using SPICE
 using Thesis
 
-# Tests
 @testset "All Tests" begin
   include("plotting.jl")
   include("inner_loop/laguerre-conway.jl")
@@ -12,5 +11,3 @@ using Thesis
   include("inner_loop/phase.jl")
   # include("inner_loop/monotonic_basin_hopping.jl")
 end
-
-print()