/
caches.jl
281 lines (233 loc) · 10.3 KB
/
caches.jl
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###############################################################################
#
# Initialize CFCache
#
###############################################################################
"""
create_cf_cache(FT, rt_dim::RTDimensions)
Create a [`CFCache`](@ref) type struct, given
- `FT` Floating number type
- `rt_dim` [`RTDimensions`](@ref) type struct
"""
function create_cf_cache(FT, rt_dim::RTDimensions)
@unpack nAzi, nLayer, nPAR, nWL = rt_dim;
abs_wave = zeros(FT, nWL );
absfs_lidf = zeros(FT, nAzi );
E_all = zeros(FT, nWL );
E_iPAR = zeros(FT, nPAR );
lPs = zeros(FT, nLayer);
kChlrel = zeros(FT, nPAR );
PAR_diff = zeros(FT, nPAR );
PAR_diffCab = zeros(FT, nPAR );
PAR_dir = zeros(FT, nPAR );
PAR_dirCab = zeros(FT, nPAR );
return CFCache{FT}(abs_wave = abs_wave ,
absfs_lidf = absfs_lidf ,
E_all = E_all ,
E_iPAR = E_iPAR ,
lPs = lPs ,
kChlrel = kChlrel ,
PAR_diff = PAR_diff ,
PAR_diffCab = PAR_diffCab,
PAR_dir = PAR_dir ,
PAR_dirCab = PAR_dirCab )
end
###############################################################################
#
# Initialize CGCache
#
###############################################################################
"""
create_cg_cache(FT, rt_dim::RTDimensions)
Create a [`CGCache`](@ref) type struct, given
- `FT` Floating number type
- `rt_dim` [`RTDimensions`](@ref) type struct
"""
function create_cg_cache(FT, rt_dim::RTDimensions)
@unpack nAzi, nIncl = rt_dim;
_Co = zeros(FT, nIncl);
_Cs = zeros(FT, nIncl);
_So = zeros(FT, nIncl);
_Ss = zeros(FT, nIncl);
_1s = ones(FT, (1 , nAzi));
_2d = zeros(FT, (nIncl, nAzi));
_cdo = zeros(FT, (nIncl, nAzi));
_cds = zeros(FT, (nIncl, nAzi));
return CGCache{FT}(_Co = _Co ,
_Cs = _Cs ,
_So = _So ,
_Ss = _Ss ,
_1s = _1s ,
_2d = _2d ,
_cdo = _cdo,
_cds = _cds)
end
###############################################################################
#
# Initialize SWCache
#
###############################################################################
"""
create_sf_cache(FT, rt_dim::RTDimensions)
Create a [`SFCache`](@ref) type struct, given
- `FT` Floating number type
- `rt_dim` [`RTDimensions`](@ref) type struct
"""
function create_sf_cache(FT, rt_dim::RTDimensions)
@unpack nAzi, nIncl, nLayer, nLevel, nWLE, nWLF = rt_dim;
τ_dd = zeros(FT, (nWLF,nLayer));
Xdd = zeros(FT, (nWLF,nLayer));
Rdd = zeros(FT, (nWLF,nLevel));
Y = zeros(FT, (nWLF,nLayer));
U = zeros(FT, (nWLF,nLevel));
dnorm = zeros(FT, nWLF);
ρ_dd = zeros(FT, (nWLF,nLayer));
S⁻ = zeros(FT, (nWLF,nLayer));
S⁺ = zeros(FT, (nWLF,nLayer));
piLs = zeros(FT, (nWLF,nLayer));
piLd = zeros(FT, (nWLF,nLayer));
Fsmin = zeros(FT, (nWLF,nLayer));
Fsplu = zeros(FT, (nWLF,nLayer));
Fdmin = zeros(FT, (nWLF,nLayer));
Fdplu = zeros(FT, (nWLF,nLayer));
Femo = zeros(FT, (nWLF,nLayer));
M⁺ = zeros(FT, (nWLF,nWLE));
M⁻ = zeros(FT, (nWLF,nWLE));
M⁻_sun = zeros(FT, nWLF);
M⁺_sun = zeros(FT, nWLF);
wfEs = zeros(FT, nWLF);
sfEs = zeros(FT, nWLF);
sbEs = zeros(FT, nWLF);
M⁺⁻ = zeros(FT, nWLF);
M⁺⁺ = zeros(FT, nWLF);
M⁻⁺ = zeros(FT, nWLF);
M⁻⁻ = zeros(FT, nWLF);
sun_dwl_iWlE = zeros(FT, nWLE);
tmp_dwl_iWlE = zeros(FT, nWLE);
ϕ_cosΘ = zeros(FT, (nIncl,nAzi));
ϕ_cosΘ_lidf = zeros(FT, nAzi);
vfEplu_shade = zeros(FT, nWLF);
vbEmin_shade = zeros(FT, nWLF);
vfEplu_sun = zeros(FT, nWLF);
vbEmin_sun = zeros(FT, nWLF);
sigfEmin_shade = zeros(FT, nWLF);
sigbEmin_shade = zeros(FT, nWLF);
sigfEmin_sun = zeros(FT, nWLF);
sigbEmin_sun = zeros(FT, nWLF);
sigfEplu_shade = zeros(FT, nWLF);
sigbEplu_shade = zeros(FT, nWLF);
sigfEplu_sun = zeros(FT, nWLF);
sigbEplu_sun = zeros(FT, nWLF);
zeroB = zeros(FT, nWLF);
F⁻ = zeros(FT, (nWLF,nLevel));
F⁺ = zeros(FT, (nWLF,nLevel));
net_diffuse = zeros(FT, (nWLF,nLayer));
tmp_1d_nWlF = zeros(FT, nWLF);
tmp_1d_nLayer = zeros(FT, nLayer);
tmp_2d_nWlF_nLayer = zeros(FT, (nWLF,nLayer));
tmp_2d_nWlF_nLayer_2 = zeros(FT, (nWLF,nLayer));
return SFCache{FT}(τ_dd = τ_dd ,
Xdd = Xdd ,
Rdd = Rdd ,
Y = Y ,
U = U ,
dnorm = dnorm ,
ρ_dd = ρ_dd ,
S⁻ = S⁻ ,
S⁺ = S⁺ ,
piLs = piLs ,
piLd = piLd ,
Fsmin = Fsmin ,
Fsplu = Fsplu ,
Fdmin = Fdmin ,
Fdplu = Fdplu ,
Femo = Femo ,
M⁺ = M⁺ ,
M⁻ = M⁻ ,
M⁻_sun = M⁻_sun ,
M⁺_sun = M⁺_sun ,
wfEs = wfEs ,
sfEs = sfEs ,
sbEs = sbEs ,
M⁺⁻ = M⁺⁻ ,
M⁺⁺ = M⁺⁺ ,
M⁻⁺ = M⁻⁺ ,
M⁻⁻ = M⁻⁻ ,
sun_dwl_iWlE = sun_dwl_iWlE ,
tmp_dwl_iWlE = tmp_dwl_iWlE ,
ϕ_cosΘ = ϕ_cosΘ ,
ϕ_cosΘ_lidf = ϕ_cosΘ_lidf ,
vfEplu_shade = vfEplu_shade ,
vbEmin_shade = vbEmin_shade ,
vfEplu_sun = vfEplu_sun ,
vbEmin_sun = vbEmin_sun ,
sigfEmin_shade = sigfEmin_shade ,
sigbEmin_shade = sigbEmin_shade ,
sigfEmin_sun = sigfEmin_sun ,
sigbEmin_sun = sigbEmin_sun ,
sigfEplu_shade = sigfEplu_shade ,
sigbEplu_shade = sigbEplu_shade ,
sigfEplu_sun = sigfEplu_sun ,
sigbEplu_sun = sigbEplu_sun ,
zeroB = zeroB ,
F⁻ = F⁻ ,
F⁺ = F⁺ ,
net_diffuse = net_diffuse ,
tmp_1d_nWlF = tmp_1d_nWlF ,
tmp_1d_nLayer = tmp_1d_nLayer ,
tmp_2d_nWlF_nLayer = tmp_2d_nWlF_nLayer ,
tmp_2d_nWlF_nLayer_2 = tmp_2d_nWlF_nLayer_2)
end
###############################################################################
#
# Initialize SWCache
#
###############################################################################
"""
create_sw_cache(FT, rt_dim::RTDimensions)
Create a [`CGCache`](@ref) type struct, given
- `FT` Floating number type
- `rt_dim` [`RTDimensions`](@ref) type struct
"""
function create_sw_cache(FT, rt_dim::RTDimensions)
@unpack nLayer, nWL = rt_dim;
dnorm = zeros(FT, nWL);
piLo = zeros(FT, nWL);
piLoc = zeros(FT, nWL);
piLos = zeros(FT, nWL);
piLoc2 = zeros(FT, (nWL,nLayer));
ρ_dd = zeros(FT, (nWL,nLayer));
ρ_sd = zeros(FT, (nWL,nLayer));
τ_dd = zeros(FT, (nWL,nLayer));
τ_sd = zeros(FT, (nWL,nLayer));
return SWCache{FT}(dnorm = dnorm ,
piLo = piLo ,
piLoc = piLoc ,
piLos = piLos ,
piLoc2 = piLoc2,
ρ_dd = ρ_dd ,
ρ_sd = ρ_sd ,
τ_dd = τ_dd ,
τ_sd = τ_sd )
end
###############################################################################
#
# Initialize RTCache
#
###############################################################################
"""
create_rt_cache(FT, rt_dim::RTDimensions)
Create an [`RTCache`](@ref), given
- `FT` Floating number type
- `rt_dim` [`RTDimensions`](@ref) type struct
"""
function create_rt_cache(FT, rt_dim::RTDimensions)
cf_con = create_cf_cache(FT, rt_dim);
cg_con = create_cg_cache(FT, rt_dim);
sf_con = create_sf_cache(FT, rt_dim);
sw_con = create_sw_cache(FT, rt_dim);
return RTCache{FT}(cf_con = cf_con,
cg_con = cg_con,
sf_con = sf_con,
sw_con = sw_con)
end