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Get rid of masks

This commit is contained in:
Nuwan Yapa 2024-12-11 17:21:57 -05:00
parent 9f363d2ff1
commit 63392d3bc3
6 changed files with 23 additions and 22 deletions
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4
calculations/2in3body_HO_B2R_EC.jl
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@ -23,8 +23,8 @@ n_max = max(maximum(basis.n1s), maximum(basis.n2s))
println("Basis size = ", basis.dim) println("Basis size = ", basis.dim)
@time "T1" T1 = get_sp_T_matrix(basis.n1s, basis.l1s; mask=mask1(basis), μω_gen=μ1ω1, μ=μ1) @time "T1" T1 = get_sp_T_matrix(basis.n1s, basis.l1s, [basis.n2s, basis.l2s]; μω_gen=μ1ω1, μ=μ1)
@time "T2" T2 = get_sp_T_matrix(basis.n2s, basis.l2s; mask=mask2(basis), μω_gen=μ2ω2, μ=μ2) @time "T2" T2 = get_sp_T_matrix(basis.n2s, basis.l2s, [basis.n1s, basis.l1s]; μω_gen=μ2ω2, μ=μ2)
@time "V" Vb = get_jacobi_V_matrix(V_of_r, basis, μ1ω1, μω_global) @time "V" Vb = get_jacobi_V_matrix(V_of_r, basis, μ1ω1, μω_global)

4
calculations/3body_HO_B2R_EC.jl
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@ -24,8 +24,8 @@ n_max = max(maximum(basis.n1s), maximum(basis.n2s))
println("Basis size = ", basis.dim) println("Basis size = ", basis.dim)
@time "T1" T1 = get_sp_T_matrix(basis.n1s, basis.l1s; mask=mask1(basis), μω_gen=μ1ω1, μ=μ1) @time "T1" T1 = get_sp_T_matrix(basis.n1s, basis.l1s, [basis.n2s, basis.l2s]; μω_gen=μ1ω1, μ=μ1)
@time "T2" T2 = get_sp_T_matrix(basis.n2s, basis.l2s; mask=mask2(basis), μω_gen=μ2ω2, μ=μ2) @time "T2" T2 = get_sp_T_matrix(basis.n2s, basis.l2s, [basis.n1s, basis.l1s]; μω_gen=μ2ω2, μ=μ2)
@time "Va" Va = get_jacobi_V_matrix(Va_of_r, basis, μ1ω1, μω_global) @time "Va" Va = get_jacobi_V_matrix(Va_of_r, basis, μ1ω1, μω_global)
@time "Vb" Vb = get_jacobi_V_matrix(Vb_of_r, basis, μ1ω1, μω_global) @time "Vb" Vb = get_jacobi_V_matrix(Vb_of_r, basis, μ1ω1, μω_global)

4
calculations/3body_dis_HO_EC.jl
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@ -26,8 +26,8 @@ n_max = max(maximum(basis.n1s), maximum(basis.n2s))
println("Basis size = ", basis.dim) println("Basis size = ", basis.dim)
@time "T1" T1 = get_sp_T_matrix(basis.n1s, basis.l1s; mask=mask1(basis), μω_gen=μ1ω1, μ=μ1) @time "T1" T1 = get_sp_T_matrix(basis.n1s, basis.l1s, [basis.n2s, basis.l2s]; μω_gen=μ1ω1, μ=μ1)
@time "T2" T2 = get_sp_T_matrix(basis.n2s, basis.l2s; mask=mask2(basis), μω_gen=μ2ω2, μ=μ2) @time "T2" T2 = get_sp_T_matrix(basis.n2s, basis.l2s, [basis.n1s, basis.l1s]; μω_gen=μ2ω2, μ=μ2)
@time "Va" Va = get_jacobi_V1_matrix(Va_of_r, basis, μ1ω1) @time "Va" Va = get_jacobi_V1_matrix(Va_of_r, basis, μ1ω1)
@time "Vb" Vb = get_jacobi_V2_matrix(Vb_of_r, basis, μω_global) @time "Vb" Vb = get_jacobi_V2_matrix(Vb_of_r, basis, μω_global)

25
ho_basis.jl
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@ -68,9 +68,6 @@ struct ho_basis_2B
end end
end end
mask1(basis::ho_basis_2B) = (basis.n2s .== basis.n2s') .&& (basis.l2s .== basis.l2s')
mask2(basis::ho_basis_2B) = (basis.n1s .== basis.n1s') .&& (basis.l1s .== basis.l1s')
function V_numerical(V_of_r, l, n1, n2; μω_gen=1.0, atol=0, maxevals=10^7) function V_numerical(V_of_r, l, n1, n2; μω_gen=1.0, atol=0, maxevals=10^7)
const_part = sqrt(μω_gen) * ho_basis_const(l, n1) * ho_basis_const(l, n2) const_part = sqrt(μω_gen) * ho_basis_const(l, n1) * ho_basis_const(l, n2)
integrand(r) = ho_basis_func(l, n1, sqrt(μω_gen) * r) * ho_basis_func(l, n2, sqrt(μω_gen) * r) * V_of_r(r) integrand(r) = ho_basis_func(l, n1, sqrt(μω_gen) * r) * ho_basis_func(l, n2, sqrt(μω_gen) * r) * V_of_r(r)
@ -78,11 +75,13 @@ function V_numerical(V_of_r, l, n1, n2; μω_gen=1.0, atol=0, maxevals=10^7)
return const_part * integral return const_part * integral
end end
function get_sp_T_matrix(ns, ls; mask=trues(length(ns),length(ns)), μω_gen=1.0, μ=1.0) "KE matrix for a single DOF. Set kron_deltas=[other quantum numbers] for other DOFs which the operator does not act on.
E.g. get_sp_T_matrix(n1s, l1s, kron_deltas=[n2s l2s])"
function get_sp_T_matrix(ns, ls, kron_deltas=[]; μω_gen=1.0, μ=1.0)
mat = spzeros(length(ns), length(ns)) mat = spzeros(length(ns), length(ns))
for idx in CartesianIndices(mat) for idx in CartesianIndices(mat)
if !mask[idx]; continue; end
(i, j) = Tuple(idx) (i, j) = Tuple(idx)
all(arr -> arr[i]==arr[j], kron_deltas) || continue # check if all Kronecker deltas are non-zero
if ls[i] == ls[j] if ls[i] == ls[j]
if ns[i] == ns[j] if ns[i] == ns[j]
mat[idx] = ns[j] + ls[i]/2 + 3/4 mat[idx] = ns[j] + ls[i]/2 + 3/4
@ -95,11 +94,13 @@ function get_sp_T_matrix(ns, ls; mask=trues(length(ns),length(ns)), μω_gen=1.0
return (μω_gen / μ) .* mat return (μω_gen / μ) .* mat
end end
function get_sp_V_matrix(V_l, ns, ls; mask=trues(length(ns),length(ns)), dtype=Float64, cache=LRU{Tuple{UInt8, UInt8, UInt8}, dtype}(maxsize=(1+maximum(ns))^2)) "PE matrix for a single DOF. Set kron_deltas=[other quantum numbers] for other DOFs which the operator does not act on.
E.g. get_sp_V_matrix(n1s, l1s, kron_deltas=[n2s l2s])"
function get_sp_V_matrix(V_l, ns, ls, kron_deltas=[]; dtype=Float64, cache=LRU{Tuple{UInt8, UInt8, UInt8}, dtype}(maxsize=(1+maximum(ns))^2))
mat = zeros(dtype, length(ns), length(ns)) mat = zeros(dtype, length(ns), length(ns))
Threads.@threads for idx in CartesianIndices(mat) Threads.@threads for idx in CartesianIndices(mat)
if !mask[idx]; continue; end
(i, j) = Tuple(idx) (i, j) = Tuple(idx)
all(arr -> arr[i]==arr[j], kron_deltas) || continue # check if all Kronecker deltas are non-zero
if ls[i] == ls[j] if ls[i] == ls[j]
l = UInt8(ls[i]) l = UInt8(ls[i])
n1, n2 = UInt8.(minmax(ns[i], ns[j])) # assuming transpose symmetry n1, n2 = UInt8.(minmax(ns[i], ns[j])) # assuming transpose symmetry
@ -160,7 +161,7 @@ function get_jacobi_V1_matrix(V_of_r, basis::ho_basis_2B, μ1ω1; atol=10^-6, ma
V1_elem(l, n1, n2) = V_numerical(V_of_r, l, n1, n2; μω_gen=μ1ω1, atol=atol, maxevals=maxevals) V1_elem(l, n1, n2) = V_numerical(V_of_r, l, n1, n2; μω_gen=μ1ω1, atol=atol, maxevals=maxevals)
V1_cache = LRU{Tuple{UInt8, UInt8, UInt8}, ComplexF64}(maxsize=(1+l_max)*(1+n_max)^2) V1_cache = LRU{Tuple{UInt8, UInt8, UInt8}, ComplexF64}(maxsize=(1+l_max)*(1+n_max)^2)
V1 = get_sp_V_matrix(V1_elem, basis.n1s, basis.l1s; mask=mask1(basis), dtype=ComplexF64, cache=V1_cache) V1 = get_sp_V_matrix(V1_elem, basis.n1s, basis.l1s, [basis.n2s, basis.l2s]; dtype=ComplexF64, cache=V1_cache)
return V1 return V1
end end
@ -172,7 +173,7 @@ function get_jacobi_V2_matrix(V_of_r, basis::ho_basis_2B, μω_global; atol=10^-
V_relative_elem(l, n1, n2) = V_numerical(V_of_r, l, n1, n2; μω_gen=μω_global, atol=atol, maxevals=maxevals) V_relative_elem(l, n1, n2) = V_numerical(V_of_r, l, n1, n2; μω_gen=μω_global, atol=atol, maxevals=maxevals)
V_relative_cache = LRU{Tuple{UInt8, UInt8, UInt8}, ComplexF64}(maxsize=(1+l_max)*(1+n_max)^2) V_relative_cache = LRU{Tuple{UInt8, UInt8, UInt8}, ComplexF64}(maxsize=(1+l_max)*(1+n_max)^2)
V_relative = get_sp_V_matrix(V_relative_elem, basis.n1s, basis.l1s; mask=mask1(basis), dtype=ComplexF64, cache=V_relative_cache) + get_sp_V_matrix(V_relative_elem, basis.n2s, basis.l2s; mask=mask2(basis), dtype=ComplexF64, cache=V_relative_cache) V_relative = get_sp_V_matrix(V_relative_elem, basis.n1s, basis.l1s, [basis.n2s, basis.l2s]; dtype=ComplexF64, cache=V_relative_cache) + get_sp_V_matrix(V_relative_elem, basis.n2s, basis.l2s, [basis.n1s, basis.l1s]; dtype=ComplexF64, cache=V_relative_cache)
U = Moshinsky_transform(basis) U = Moshinsky_transform(basis)
V2 = U' * V_relative * U V2 = U' * V_relative * U
@ -200,8 +201,8 @@ function get_src_V_matrix(V_of_r, basis::ho_basis_2B, μω, μω_global; atol=10
V_elem(l, n1, n2) = V_numerical(V_of_r, l, n1, n2; μω_gen=μω, atol=atol, maxevals=maxevals) V_elem(l, n1, n2) = V_numerical(V_of_r, l, n1, n2; μω_gen=μω, atol=atol, maxevals=maxevals)
V_cache = LRU{Tuple{UInt8, UInt8, UInt8}, ComplexF64}(maxsize=(1+l_max)*(1+n_max)^2) V_cache = LRU{Tuple{UInt8, UInt8, UInt8}, ComplexF64}(maxsize=(1+l_max)*(1+n_max)^2)
V1 = get_sp_V_matrix(V_elem, basis.n1s, basis.l1s; mask=mask1(basis), dtype=ComplexF64, cache=V_cache) V1 = get_sp_V_matrix(V_elem, basis.n1s, basis.l1s, [basis.n2s, basis.l2s]; dtype=ComplexF64, cache=V_cache)
V2 = get_sp_V_matrix(V_elem, basis.n2s, basis.l2s; mask=mask2(basis), dtype=ComplexF64, cache=V_cache) V2 = get_sp_V_matrix(V_elem, basis.n2s, basis.l2s, [basis.n1s, basis.l1s]; dtype=ComplexF64, cache=V_cache)
V12 = get_src_V12_matrix(V_of_r, basis, μω_global; atol=atol, maxevals=maxevals) V12 = get_src_V12_matrix(V_of_r, basis, μω_global; atol=atol, maxevals=maxevals)
@ -215,7 +216,7 @@ function get_src_V12_matrix(V_of_r, basis::ho_basis_2B, μω_global; atol=10^-6,
V_relative_elem(l, n1, n2) = V_numerical(V_of_r, l, n1, n2; μω_gen=μω_global, atol=atol, maxevals=maxevals) V_relative_elem(l, n1, n2) = V_numerical(V_of_r, l, n1, n2; μω_gen=μω_global, atol=atol, maxevals=maxevals)
V_relative_cache = LRU{Tuple{UInt8, UInt8, UInt8}, ComplexF64}(maxsize=(1+l_max)*(1+n_max)^2) V_relative_cache = LRU{Tuple{UInt8, UInt8, UInt8}, ComplexF64}(maxsize=(1+l_max)*(1+n_max)^2)
V_relative = get_sp_V_matrix(V_relative_elem, basis.n1s, basis.l1s; mask=mask1(basis), dtype=ComplexF64, cache=V_relative_cache) V_relative = get_sp_V_matrix(V_relative_elem, basis.n1s, basis.l1s, [basis.n2s, basis.l2s]; dtype=ComplexF64, cache=V_relative_cache)
U = Moshinsky_transform(basis) U = Moshinsky_transform(basis)
V12 = U' * V_relative * U V12 = U' * V_relative * U

4
ho_basis_3body.jl
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@ -20,8 +20,8 @@ println("No of threads = ", Threads.nthreads())
println("Basis size = ", basis.dim) println("Basis size = ", basis.dim)
println("Constructing KE matrices") println("Constructing KE matrices")
@time "T1" T1 = get_sp_T_matrix(basis.n1s, basis.l1s; mask=mask1(basis), μω_gen=μω, μ=μ) @time "T1" T1 = get_sp_T_matrix(basis.n1s, basis.l1s, [basis.n2s, basis.l2s]; μω_gen=μω, μ=μ)
@time "T2" T2 = get_sp_T_matrix(basis.n2s, basis.l2s; mask=mask2(basis), μω_gen=μω, μ=μ) @time "T2" T2 = get_sp_T_matrix(basis.n2s, basis.l2s, [basis.n1s, basis.l1s]; μω_gen=μω, μ=μ)
@time "T_cross" T_cross = get_2p_p1p2_matrix(basis, μω, μω) ./ (2*μ) @time "T_cross" T_cross = get_2p_p1p2_matrix(basis, μω, μω) ./ (2*μ)
println("Constructing PE matrices") println("Constructing PE matrices")

4
ho_basis_3body_resonance.jl
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@ -20,8 +20,8 @@ println("Basis size = ", basis.dim)
println("Constructing KE matrices") println("Constructing KE matrices")
@time "T1" T1 = get_sp_T_matrix(basis.n1s, basis.l1s; mask=mask1(basis), μω_gen=μω, μ=μ) @time "T1" T1 = get_sp_T_matrix(basis.n1s, basis.l1s, [basis.n2s, basis.l2s]; μω_gen=μω, μ=μ)
@time "T2" T2 = get_sp_T_matrix(basis.n2s, basis.l2s; mask=mask2(basis), μω_gen=μω, μ=μ) @time "T2" T2 = get_sp_T_matrix(basis.n2s, basis.l2s, [basis.n1s, basis.l1s]; μω_gen=μω, μ=μ)
@time "T_cross" T_cross = get_2p_p1p2_matrix(basis, μω, μω; dtype=ComplexF64) ./ (2*μ) @time "T_cross" T_cross = get_2p_p1p2_matrix(basis, μω, μω; dtype=ComplexF64) ./ (2*μ)
println("Constructing PE matrices") println("Constructing PE matrices")