% Config file for scenario "3GPP_3D_UMi_LOS_O2I"
% 3GPP 3D Urban Micro-Cell Line Of Sight Outdoor to Indoor
% See: 3GPP TR 36.873 V12.2.0 (2015-06)

% ==================================================================================================
% Channel model parameters
% See: 3GPP TR 36.873 V12.1.0 (2015-03) p31 Table 7.3-6
% ==================================================================================================
DS_mu = 			-6.62		% Delay Spread (DS) / [log10([s])]  mu
DS_sigma = 			0.32		% Delay Spread (DS) / [log10([s])] sig

AS_D_mu = 			1.25		% Azimuth Angle of Departure Spread (ASD) / [log10([degrees])] mu
AS_D_sigma = 		0.42		% Azimuth Angle of Departure Spread (ASD) / [log10([degrees])] sig

AS_A_mu = 			1.76		% Azimuth Angle of Arrival Spread (ASA) / [log10([degrees])] mu
AS_A_sigma = 		0.16		% Azimuth Angle of Arrival Spread (ASA) / [log10([degrees])] sig

ES_A_mu = 			1.01		% Elevation Angle of Arrival Spread (ESA) / [log10([degrees])] mu
ES_A_sigma = 		0.43		% Elevation Angle of Arrival Spread (ESA) / [log10([degrees])] sig

SF_sigma =			7			% Shadow fading (SF) / [dB] sig

KF_mu = 			-100		% K-factor (KF) / [dB] mu
KF_sigma = 			0			% K-factor (KF) / [dB] sig

% Cross-Correlations

asD_ds = 			0.4			% ASD vs DS
asA_ds = 			0.4			% ASA vs DS
asA_sf = 			0			% ASA vs SF
asD_sf = 			0.2			% ASD vs SF
ds_sf = 			-0.5		% DS vs SF
asD_asA = 			0			% ASD vs ASA
asD_kf = 			0			% ASD vs KF
asA_kf = 			0			% ASA vs KF
ds_kf = 			0			% DS vs KF
sf_kf = 			0			% SF vs KF

esD_sf = 			0			% ESD vs SF
esA_sf = 			0			% ESA vs SF
esD_kf = 			0			% ESD vs KF
esA_kf = 			0			% ESA vs KF
esD_ds = 			-0.6		% ESD vs DS
esA_ds = 			-0.2		% ESA vs DS
esD_asD = 			-0.2		% ESD vs ASD
esA_asD = 			0			% ESA vs ASD
esD_asA = 			0			% ESD vs ASA
esA_asA = 			0.5			% ESA vs ASA
esD_esA =			0.5			% ESD vs ESA

% Delay distribution: exponential
% AoD and AoA distribution: Wrapped Gaussian

r_DS = 				2.2			% Delay scaling parameter rTau

xpr_mu = 			9			% XPR / [dB] mu
xpr_sigma = 		5			% XPR / [dB] sig

NumClusters = 		13			% Number of clusters (1 extra for LOS path)

PerClusterAS_D = 	5			% Cluster ASD / [deg]
PerClusterAS_A = 	8			% Cluster ASA / [deg]

PerClusterES_A = 	3			% Cluster ESA / [deg]
PerClusterES_D = 	3			% Cluster ESD / [deg] -> value from Winner+

LNS_ksi = 			4			% Per cluster shadowing std / [dB]

% Correlation distance in the horizontal plane

DS_lambda = 		10			% DS correlation distance / [m]
AS_D_lambda = 		11			% ASD correlation distance / [m]
AS_A_lambda = 		17			% ASA correlation distance / [m]
SF_lambda = 		7			% SF correlation distance / [m]
KF_lambda = 		15			% KF correlation distance / [m] - Irrelevant, but needs to be set
ES_A_lambda = 		25			% ESA correlation distance / [m]
ES_D_lambda = 		25			% ESD correlation distance / [m]

% ==================================================================================================
% Elevation-related parameters for generic models
% See: 3GPP TR 36.873 V12.1.0 (2015-03) p31 Table 7.3-6, 7.3-7
% ==================================================================================================
%
% The parameter ESD mu must be set according to the equation
%	max(-0.5, -2.1*(d/1000) - 0.01(h_UT - 1.5) + 0.75).
% Height-dependency of UT and BS are not implemented.

ES_D_mu = 			0.8 		% 0.75 + 0.05 (average indoor-height offset)
ES_D_mu_A = 		-2.1        % -2.1*(d/1000) / [log10([degrees])] mu
ES_D_mu_min = 		-0.5		% Minimum ESD mu
ES_D_sigma = 		0.4			% Elevation Angle of Departure Spread (ESD) / [log10([degrees])] sig

% ==================================================================================================
% Path Loss Model
% See 3GPP TR 36.873 V12.1.0 (2015-03) p20 Table 7.2-1
% ==================================================================================================
% valid frequency range:  		 [GHz]
% valid distance range: 		10 < d < 5000 [m]
% valid BS antenna height:		10 m
% valid MS antenna height: 		1.5 < d < 22.5 [m]
% valid mobility range: 		 [km/h]

% Formula:
% PL = A*log10(d) + B + C*log10(fc) + D*log10(bp^2 +(hBS - hMS)^2)
% B_indoor: B_outdoor + 20 + A*log10(ISD/2-12.5) - A*log10(ISD/2) + 0.5*12.5

% Path loss is split into two segments. The first goes from 10 m to a breakpoint, the second goes
% from the breakpoint to maximal 5 km. Both segments have different values for the SF-Std.
% The breakpoint is calculated by the model.

% The path loss model is the same as for UMa LOS, so use these formulas...
PL_model = 3gpp_3d_uma_los

PL_A1   = 22
PL_B1   = 53
PL_C1   = 20
PL_D1   = 0

PL_sig1 = 7

PL_A2   = 40
PL_B2   = 51.9
PL_C2   = 20
PL_D2   = -9

PL_sig2 = 7
% ==================================================================================================
