Update KomaMRICore/src/simulation/Bloch/BlochVoxelDictSimulation.jl

KomaMRICore/src/simulation/Bloch/BlochVoxelDictSimulation.jl

@@ -48,27 +48,3 @@ function run_spin_precession!(p::Phantom{T}, seq::DiscreteSequence{T}, sig::Abst
 
     return nothing
 end
-
-
-function run_spin_excitation!(p::Phantom{T}, seq::DiscreteSequence{T}, sig::AbstractArray{Complex{T}},
-    M::Mag{T}, sim_method::BlochVoxelDict) where {T<:Real}
-    #Simulation
-    for s ∈ seq #This iterates over seq, "s = seq[i,:]"
-        #Motion
-        xt = p.x .+ p.ux(p.x, p.y, p.z, s.t)
-        yt = p.y .+ p.uy(p.x, p.y, p.z, s.t)
-        zt = p.z .+ p.uz(p.x, p.y, p.z, s.t)
-        #Effective field
-        ΔBz = p.Δw ./ T(2π * γ) .- s.Δf ./ T(γ) # ΔB_0 = (B_0 - ω_rf/γ), Need to add a component here to model scanner's dB0(xt,yt,zt)
-        Bz = (s.Gx .* xt .+ s.Gy .* yt .+ s.Gz .* zt) .+ ΔBz
-        B = sqrt.(abs.(s.B1) .^ 2 .+ abs.(Bz) .^ 2)
-        B[B .== 0] .= eps(T)
-        #Spinor Rotation
-        φ = T(-2π * γ) * (B .* s.Δt) # TODO: Use trapezoidal integration here (?),  this is just Forward Euler
-        mul!( Q(φ, s.B1 ./ B, Bz ./ B), M )
-        #Relaxation
-        M.xy .= M.xy .* exp.(-s.Δt ./ p.T2)
-        M.z  .= M.z  .* exp.(-s.Δt ./ p.T1) .+ p.ρ .* (1 .- exp.(-s.Δt ./ p.T1))
-    end
-    return nothing
-end