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author | Eugeniy Mikhailov <evgmik@gmail.com> | 2012-01-12 13:10:58 -0500 |
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committer | Eugeniy Mikhailov <evgmik@gmail.com> | 2012-01-12 13:10:58 -0500 |
commit | 4318279d6329bee3db6484e1c8771b87c7d8ab63 (patch) | |
tree | e5d03bc69b1030864a509a70be3ea09ecb80fa30 | |
parent | 9a48d51435fccbe66579b4d6e465205cb7ef8e61 (diff) | |
download | Nresonances-4318279d6329bee3db6484e1c8771b87c7d8ab63.tar.gz Nresonances-4318279d6329bee3db6484e1c8771b87c7d8ab63.zip |
moved experimental files
Nlevels_no_dopler_with_z_4wm_for_irina_pqe -> Nlevels_no_dopler_with_z_4wm
22 files changed, 54 insertions, 859 deletions
diff --git a/xmds2/Nlevels_no_dopler_with_z_4wm/Nlevels_no_dopler_with_z_4wm.xmds b/xmds2/Nlevels_no_dopler_with_z_4wm/Nlevels_no_dopler_with_z_4wm.xmds index 44b13f7..5102c46 100644 --- a/xmds2/Nlevels_no_dopler_with_z_4wm/Nlevels_no_dopler_with_z_4wm.xmds +++ b/xmds2/Nlevels_no_dopler_with_z_4wm/Nlevels_no_dopler_with_z_4wm.xmds @@ -112,7 +112,7 @@ <geometry> <propagation_dimension> z </propagation_dimension> <transverse_dimensions> - <dimension name="t" lattice="1000" domain="(-14.0e-7, 4.0e-7)" /> + <dimension name="t" lattice="1000" domain="(-0.2e-6, 0.4e-6)" /> </transverse_dimensions> </geometry> @@ -310,7 +310,7 @@ </group> <group> - <sampling basis="t(100)" initial_sample="yes"> + <sampling basis="t(1000)" initial_sample="yes"> <dependencies>density_matrix</dependencies> <moments> r11_out r22_out r33_out r44_out diff --git a/xmds2/Nlevels_no_dopler_with_z_4wm/fast_to_slow_switch/Makefile b/xmds2/Nlevels_no_dopler_with_z_4wm/fast_to_slow_switch/Makefile index 697fd27..9c65fd6 100644 --- a/xmds2/Nlevels_no_dopler_with_z_4wm/fast_to_slow_switch/Makefile +++ b/xmds2/Nlevels_no_dopler_with_z_4wm/fast_to_slow_switch/Makefile @@ -9,11 +9,16 @@ GNUPLOT_FILES = $(wildcard *.gp) XSIL2GRAPHICS = xsil2graphics # fast light -# PARAMS = --delta1=0 --delta2=0 --delta3=0 --E1o=1.9e7 --E2o=3.1e5 --E3o=3.8e7 --E4o=6.3e4 +PARAMS = \ + --Ndens=1e15 \ + --Lcell=10.0e-2 \ + --Temperature=1e-9 \ + --delta1=0 --delta2=0 --delta3=0 \ + --E1o=1.9e7 --E2o=3.1e5 --E3o=3.8e7 --E4o=0 + + # slow light EIT #PARAMS = --delta1=0 --delta2=0 --delta3=0 --E1o=1.9e7 --E2o=3.1e5 --E3o=0 --E4o=0 -#Fast light to Slow light switch -PARAMS = --delta1=0 --delta2=0 --delta3=0 --E1o=2e7 --E2o=3e3 --E3o=6e6 --E4o=3e3 all: $(XSIL_FILES) Nlevels_no_dopler_with_z_4wm.xsil $(M_FILES) plot png diff --git a/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/fast_to_slow_switch/README b/xmds2/Nlevels_no_dopler_with_z_4wm/fast_to_slow_switch/README index ec7d200..ec7d200 100644 --- a/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/fast_to_slow_switch/README +++ b/xmds2/Nlevels_no_dopler_with_z_4wm/fast_to_slow_switch/README diff --git a/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/fast_to_slow_switch/plot_fields_propagation_I4.gp b/xmds2/Nlevels_no_dopler_with_z_4wm/fast_to_slow_switch/plot_fields_propagation_I4.gp index 134a380..134a380 120000 --- a/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/fast_to_slow_switch/plot_fields_propagation_I4.gp +++ b/xmds2/Nlevels_no_dopler_with_z_4wm/fast_to_slow_switch/plot_fields_propagation_I4.gp diff --git a/xmds2/Nlevels_no_dopler_with_z_4wm/fast_to_slow_switch/pp_I2.m b/xmds2/Nlevels_no_dopler_with_z_4wm/fast_to_slow_switch/pp_I2.m index 73487e0..4a1ed9b 100644..120000 --- a/xmds2/Nlevels_no_dopler_with_z_4wm/fast_to_slow_switch/pp_I2.m +++ b/xmds2/Nlevels_no_dopler_with_z_4wm/fast_to_slow_switch/pp_I2.m @@ -1,67 +1 @@ -Nlevels_no_dopler_with_z_4wm - -%% field propagation -z_1=z_1*100; % z in cm -t_1=t_1*1e6; % time now measured in uS -figure(1) -set(gca,'fontsize',20); -imagesc(z_1, t_1, I2_out_1); colorbar -xlabel('z (cm)') -ylabel('t (uS)') -zlabel('I_2') -title('I_2') - -xskip=1; -yskip=10; -map2dat('I2.dat',z_1,t_1, I2_out_1, xskip, yskip); - - - -print('-color','fields_propagation_I2.eps') - - - -%% fields before and after the cell -figure(2) -%set(gca,'fontsize',30); -plot( ... - t_1,I2_out_1(:,1),'.-;before;', "linewidth", 4, ... - t_1,I2_out_1(:,end), '-;after;', "linewidth", 4 ... - ) -xlabel('t (uS)') -ylabel('I_2 (1/s)^2') -title('I_2 before and after cell') -legend('location', 'southwest'); - -[b, a]=butter(3, 0.05); -I2_out_after=I2_out_1(:,end); -I2_out_after_filtered=filtfilt(b,a,I2_out_after); -settling_time=0.8; %uS -t_good_indx=t_1> min(t_1 + settling_time); -[m,max_pos_before]=max(I2_out_1(t_good_indx,1) ); [m,max_pos_after]=max(I2_out_after_filtered(t_good_indx)); -delay_time=t_1(max_pos_after)-t_1(max_pos_before); -printf('Second field delay time = %f uS\n',delay_time); - -%set(gca,'fontsize',40); -set (gcf,'paperposition',[0.5 0 2.5,1.5]); % IMPORTANT to shrink eps size for readable fonts -print('-color','fields_before_after_cell_I2.eps') - -figure(4) -I2_max_in=max(I2_out_1(t_good_indx,1)); -I2_max_out=max(I2_out_1(t_good_indx,end)); -I2_in_norm=(I2_out_1(:,1))/I2_max_in; -I2_out_norm=(I2_out_1(:,end))/I2_max_out; -tmin=-0.05; -tmax=0.05; -indx=(t_1>=tmin & t_1<=tmax); % soom in in time to this region -plot( ... - t_1(indx),I2_in_norm(indx),'.-;before;', "linewidth", 4, ... - t_1(indx),I2_out_norm(indx), '-;after;', "linewidth", 4 ... - ) -xlim([tmin,tmax],'manual'); -xlabel('t (uS)') -ylabel('I_2') -title('I_2 before and after cell normalized') -set (gcf,'paperposition',[0.5 0 2.5,1.5]); % IMPORTANT to shrink eps size for readable fonts -print('-color','probe_before_after_cell_I2_normalized.eps') - +../pp_I2.m
\ No newline at end of file diff --git a/xmds2/Nlevels_no_dopler_with_z_4wm/plot_fields_propagation_I2.gp b/xmds2/Nlevels_no_dopler_with_z_4wm/plot_fields_propagation_I2.gp index b6721d4..77b4870 100644 --- a/xmds2/Nlevels_no_dopler_with_z_4wm/plot_fields_propagation_I2.gp +++ b/xmds2/Nlevels_no_dopler_with_z_4wm/plot_fields_propagation_I2.gp @@ -12,4 +12,4 @@ set ylabel "t ({/Symbol m}S)" set zlabel "I_2 (1/S)" set nokey #set view map -splot [0:1.5][-0.4:0.4] 'I2.dat' +splot [0:][-0.2:0.2] 'I2.dat' diff --git a/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/plot_fields_propagation_I4.gp b/xmds2/Nlevels_no_dopler_with_z_4wm/plot_fields_propagation_I4.gp index 3849e2f..3849e2f 100644 --- a/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/plot_fields_propagation_I4.gp +++ b/xmds2/Nlevels_no_dopler_with_z_4wm/plot_fields_propagation_I4.gp diff --git a/xmds2/Nlevels_no_dopler_with_z_4wm/pp_I2.m b/xmds2/Nlevels_no_dopler_with_z_4wm/pp_I2.m index 45d4913..ea75b38 100644 --- a/xmds2/Nlevels_no_dopler_with_z_4wm/pp_I2.m +++ b/xmds2/Nlevels_no_dopler_with_z_4wm/pp_I2.m @@ -1,6 +1,6 @@ -Nlevels_no_dopler_with_z_4wm +Nlevels_no_dopler_with_z_4wm; -%% field propagation +%% field I2 propagation z_1=z_1*100; % z in cm t_1=t_1*1e6; % time now measured in uS figure(1) @@ -13,33 +13,50 @@ xlabel('z (cm)') ylabel('t (uS)') zlabel('I_2') title('I_2') +print('-color','-depsc2', '-tight', '-S200,120', 'fields_propagation_I2.eps') -xskip=1; -yskip=10; -%map2dat('I2.dat',z_1,t_1, I2_out_1, xskip, yskip); +desired_x_size=200; +desired_y_size=200; +xskip=ceil(length(z_1)/desired_x_size); +yskip=ceil(length(t_1)/desired_y_size); +map2dat('I2.dat',z_1,t_1, I2_out_1, xskip, yskip); +%% field I4 propagation +figure(2) + +imagesc(z_1, t_1, I4_out_1); colorbar +tmin=-0.4; +tmax= 0.4; +ylim([tmin,tmax],'manual'); +xlabel('z (cm)') +ylabel('t (uS)') +zlabel('I_2') +title('I_2') +print('-color','-depsc2', '-tight', '-S200,120', 'fields_propagation_I4.eps') +map2dat('I4.dat',z_1,t_1, I4_out_1, xskip, yskip); + -print('-color','-depsc2', '-tight', '-S200,120', 'fields_propagation_I2.eps') %% fields before and after the cell -figure(2) +figure(3) %set(gca,'fontsize',30); plot( ... - t_1,I2_out_1(:,1),'.-;before;', "linewidth", 4, ... - t_1,I2_out_1(:,end), '-;after;', "linewidth", 4 ... + t_1,I2_out_1(:,1),'.-;I_2 before;', "linewidth", 4 ... + ,t_1,I2_out_1(:,end), '-;I_2 after;', "linewidth", 4 ... + ,t_1,I4_out_1(:,end), '-;I_4 after;', "linewidth", 4 ... ) xlabel('t (uS)') -ylabel('I_2 (1/s)^2') -title('I_2 before and after cell') -legend('location', 'southwest'); +ylabel('I (1/s)^2') +title('Fields before and after cell') +legend('location', 'northeast'); [b, a]=butter(3, 0.05); I2_out_after=I2_out_1(:,end); I2_out_after_filtered=filtfilt(b,a,I2_out_after); -settling_time=0.8; %uS +settling_time=0.01; %uS t_good_indx=t_1> min(t_1 + settling_time); [m,max_pos_before]=max(I2_out_1(t_good_indx,1) ); [m,max_pos_after]=max(I2_out_after_filtered(t_good_indx)); delay_time=t_1(max_pos_after)-t_1(max_pos_before); @@ -47,25 +64,29 @@ printf('Second field delay time = %f uS\n',delay_time); %set(gca,'fontsize',40); %set (gcf,'paperposition',[0.5 0 2.5,1.5]); % IMPORTANT to shrink eps size for readable fonts -print('-color','-depsc2', '-tight','-S200,120', 'fields_before_after_cell_I2.eps') +print('-color','-depsc2', '-tight','-S200,120', 'fields_before_after_cell.eps') figure(4) I2_max_in=max(I2_out_1(t_good_indx,1)); I2_max_out=max(I2_out_1(t_good_indx,end)); +I4_max_out=max(I4_out_1(t_good_indx,end)); I2_in_norm=(I2_out_1(:,1))/I2_max_in; I2_out_norm=(I2_out_1(:,end))/I2_max_out; -tmin=-0.05; -tmax=0.05; +I4_out_norm=(I4_out_1(:,end))/I4_max_out; +tmin=-.05; +tmax=.05; indx=(t_1>=tmin & t_1<=tmax); % soom in in time to this region plot( ... - t_1(indx),I2_in_norm(indx),'.-;before;', "linewidth", 4, ... - t_1(indx),I2_out_norm(indx), '-;after;', "linewidth", 4 ... + t_1(indx),I2_in_norm(indx),'.-;I_2 before;', "linewidth", 4, ... + t_1(indx),I2_out_norm(indx), '-;I_2 after;', "linewidth", 4 ... + ,t_1(indx),I4_out_norm(indx), '-;I_4 after;', "linewidth", 4 ... ) legend('location', 'southeast'); xlim([tmin,tmax],'manual'); +ylim([0.5,1],'manual'); xlabel('t (uS)') -ylabel('I_2') -title('I_2 before and after cell normalized') +ylabel('I normalized') +title('Fields before and after cell normalized') %set (gcf,'paperposition',[0.5 0 2.5,1.5]); % IMPORTANT to shrink eps size for readable fonts -print('-color','-depsc2', '-tight','-S200,120', 'probe_before_after_cell_I2_normalized.eps') +print('-color','-depsc2', '-tight','-S200,120', 'fields_before_after_cell_normalized.eps') diff --git a/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/pulse_split/Makefile b/xmds2/Nlevels_no_dopler_with_z_4wm/pulse_split/Makefile index 95ebb0a..95ebb0a 100644 --- a/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/pulse_split/Makefile +++ b/xmds2/Nlevels_no_dopler_with_z_4wm/pulse_split/Makefile diff --git a/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/fast_to_slow_switch/map2dat.m b/xmds2/Nlevels_no_dopler_with_z_4wm/pulse_split/map2dat.m index 14fae30..14fae30 120000 --- a/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/fast_to_slow_switch/map2dat.m +++ b/xmds2/Nlevels_no_dopler_with_z_4wm/pulse_split/map2dat.m diff --git a/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/pulse_split/plot_fields_propagation_I2.gp b/xmds2/Nlevels_no_dopler_with_z_4wm/pulse_split/plot_fields_propagation_I2.gp index a0cd31f..a0cd31f 100644 --- a/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/pulse_split/plot_fields_propagation_I2.gp +++ b/xmds2/Nlevels_no_dopler_with_z_4wm/pulse_split/plot_fields_propagation_I2.gp diff --git a/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/pulse_split/pp_I2.m b/xmds2/Nlevels_no_dopler_with_z_4wm/pulse_split/pp_I2.m index ecfdbbb..ecfdbbb 100644 --- a/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/pulse_split/pp_I2.m +++ b/xmds2/Nlevels_no_dopler_with_z_4wm/pulse_split/pp_I2.m diff --git a/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/Makefile b/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/Makefile deleted file mode 100644 index 578f2b0..0000000 --- a/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/Makefile +++ /dev/null @@ -1,54 +0,0 @@ -### -*- make -*- -### This file is part of the Debian xmds package -### Copyright (C) 2006 Rafael Laboissiere -### This file is relased under the GNU General Public License -### NO WARRANTIES! - -### This makefile can be used to build and run the XMDS examples - -XMDS_FILES = $(shell ls *.xmds) -RUN_FILES = $(patsubst %.xmds,%.run,$(XMDS_FILES)) -CC_FILES = $(patsubst %.xmds,%.cc,$(XMDS_FILES)) -XSIL_FILES = $(patsubst %.xmds,%.xsil,$(XMDS_FILES)) -M_FILES = $(patsubst %.xmds,%.m,$(XMDS_FILES)) - -XMDS = xmds2 -XSIL2GRAPHICS = xsil2graphics - -all: $(M_FILES) - -%.run: %.xmds - $(XMDS) $< - mv $(patsubst %.xmds,%,$<) $@ - -%.xsil: %.run - ./$< - -%.m: %.xsil - $(XSIL2GRAPHICS) $< - -plot: $(M_FILES) - octave pp.m - -clean: - rm -f $(CC_FILES) $(RUN_FILES) $(M_FILES) $(XSIL_FILES) *.wisdom.fftw3 *.dat octave-core *.wisdom *.pdf - rm -f $(png_targets) - -eps_targets = $(wildcard *.eps) -pdf_targets = $(eps_targets:%.eps=%.pdf) -png_targets = $(pdf_targets:%.pdf=%.png) - -png: pdf $(png_targets) - -$(png_targets): %.png : %.pdf - convert -density 300 $< $@ - -pdf: $(pdf_targets) - -$(pdf_targets): %.pdf : %.eps - cat $< | ps2eps -B > __tt.eps - epspdf __tt.eps $@ - rm -f __tt.eps - #ps2eps -B $< | epspdf $< $@ -.PRECIOUS: %.run %.xsil %.m -.PHONY: all clean diff --git a/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/Nlevels_no_dopler_with_z_4wm.xmds b/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/Nlevels_no_dopler_with_z_4wm.xmds deleted file mode 100644 index 5102c46..0000000 --- a/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/Nlevels_no_dopler_with_z_4wm.xmds +++ /dev/null @@ -1,349 +0,0 @@ -<?xml version="1.0"?> -<simulation xmds-version="2"> - - <name>Nlevels_no_dopler_with_z_4wm</name> - - <author>Eugeniy Mikhailov</author> - <description> - License GPL. - - Solving 4 level atom in N-field configuration, - with field propagation along spatial axis Z - no Doppler broadening - - We assume four-wave mixing condition when w3-w4=w2-w1 i.e. fields E3 and E4 drive the same - resonance as fields E2 and E1. - - - * --------------- |4> - * \ \ - * \ E3 \ -------- |3> - * \ E4 \ / \ - * \ \ / E2 \ - * \ / \ E1 - * |2> -------------- \ - * \ \ - * \ \ - * ------------- |1> - * - - - We are solving - dE/dz+(1/c)*dE/dt=i*eta*rho_ij, where j level is higher then i. - Note that E is actually a Rabi frequency of electromagnetic field not the EM field - in xmds terms it looks like - dE_dz = i*eta*rhoij - 1/c*L[E], here we moved t dependence to Fourier space - - VERY IMPORTANT: all Rabi frequency should be given in [1/s], if you want to - normalize it to something else look drho/dt equation. - No need to renormalizes eta as long as its express through i - the upper level decay rate in the same units as Rabi frequency. - </description> - - <features> - <globals> - <![CDATA[ - const double pi = M_PI; - const double c=3.e8; - const double k_boltzmann= 1.3806505e-23; // Boltzmann knostant in [J/K] - const double lambda=794.7e-9; //wavelength in m - const double Kvec = 2*M_PI/lambda; // k-vector - const double Gamma_super=6*(2*M_PI*1e6); // characteristic decay rate of upper level used for eta calculations expressed in [1/s] - const double eta = 3*lambda*lambda*Ndens*Gamma_super/8.0/M_PI; // eta constant in the wave equation for Rabi frequency. Units are [1/(m s)] - - // --------- Atom and cell properties ------------------------- - // range of Maxwell distribution atomic velocities - const double mass = (86.909180527 * 1.660538921e-27); // atom mass in [kg] - // above mass expression is written as (expression is isotopic_mass * atomic_mass_unit) - - // Average sqrt(v^2) in Maxwell distribution for one dimension - const double v_thermal_averaged=sqrt(k_boltzmann*Temperature/mass); - // Maxwell distribution velocities range to take in account in [m/s] - const double V_maxwell_min = -4*v_thermal_averaged, V_maxwell_max = -V_maxwell_min; // there is almost zero probability for higher velocity p(4*v_av) = 3.3e-04 * p(0) - - // repopulation rate (atoms flying in/out the laser beam) in [1/s] - const double gt=0.01 *(2*M_PI*1e6); - // Natural linewidth of j's level in [1/s] - const double G3=3.0 *(2*M_PI*1e6); - const double G4=3.0 *(2*M_PI*1e6); - - // total decay of i-th level branching ratios. Rij branching of i-th level to j-th - const double R41=0.5, R42=0.5; - const double R31=0.5, R32=0.5; - - - complex E1c, E2c, E3c, E4c; // Complex conjugated Rabi frequencies - - complex r21, r31, r41, r32, r42, r43, r44; // density matrix elements - ]]> - </globals> - <validation kind="run-time"/> <!--allows to put ranges as variables--> - <benchmark /> - <arguments> - <!-- Rabi frequency divided by 2 in [1/s] --> - <argument name="E1o" type="real" default_value="2*1.5*(2*M_PI*1e6)" /> - <argument name="E2o" type="real" default_value="0.05*(2*M_PI*1e6)" /> - <argument name="E3o" type="real" default_value="2*3.0*(2*M_PI*1e6)" /> - <argument name="E4o" type="real" default_value=".01*(2*M_PI*1e6)" /> - <!-- Fields detuning in [1/s] --> - <argument name="delta1" type="real" default_value="0.0" /> - <argument name="delta2" type="real" default_value="0.0" /> - <argument name="delta3" type="real" default_value="0.0" /> - <!--Pulse duration/width [s] --> - <argument name="Pwidth" type="real" default_value="0.1e-6" /> - <!-- Atom and cell properties --> - <!--Cell length [m] --> - <argument name="Lcell" type="real" default_value="1.5e-2" /> - <!--Density of atoms [1/m^3] --> - <argument name="Ndens" type="real" default_value="1e15" /> - <!--Atoms temperature [K] --> - <!--TODO: looks like Temperature > 10 K knocks solver, - I am guessing detunings are too large and thus it became a stiff equation--> - <!--! make sure it is not equal to zero!--> - <argument name="Temperature" type="real" default_value="5" /> - </arguments> - <bing /> - <fftw plan="patient" /> - <openmp /> - <auto_vectorise /> - </features> - - <!-- 'z' and 't' to have dimensions [m] and [s] --> - <geometry> - <propagation_dimension> z </propagation_dimension> - <transverse_dimensions> - <dimension name="t" lattice="1000" domain="(-0.2e-6, 0.4e-6)" /> - </transverse_dimensions> - </geometry> - - <!-- Rabi frequency --> - <vector name="E_field" type="complex" initial_space="t"> - <components>E1 E2 E3 E4</components> - <initialisation> - <![CDATA[ - // Initial (at starting 'z' position) electromagnetic field does not depend on detuning - // as well as time - E1=E1o; - E2=E2o*exp(-pow( ((t-0.0)/Pwidth),2) ); - E3=E3o; - E4=E4o; - ]]> - </initialisation> - </vector> - - <vector name="density_matrix" type="complex" initial_space="t"> - <!--<components>r11 r22 r33 r44 r12 r13 r14 r23 r24 r34 r21 r31 r41 r32 r42 r43</components>--> - <!--<components>r11 r22 r33 r44 r12 r13 r14 r23 r24 r34</components>--> - <components>r11 r22 r33 r12 r13 r14 r23 r24 r34 r44</components> - <!-- - note one of the level population is redundant since - r11+r22+r33+r44=1 - so r11 is missing - --> - <initialisation> - <!--This sets boundary condition at all times and left border of z (i.e. z=0)--> - <!-- Comment out no light field initial conditions - <![CDATA[ - // Note: - // convergence is really slow if all populations concentrated at the bottom level |1> - // this is because if r11=1, everything else is 0 and then every small increment - // seems to be huge and adaptive solver makes smaller and smaller steps. - // As quick and dirty fix I reshuffle initial population - // so some of the population sits at the second ground level |2> - // TODO: Fix above. Make the equation of motion for r11 - // and express other level, let's say r44 - // through population normalization - r11 = 1; - r22 = 0; r33 = 0; r44 = 0; - r12 = 0; r13 = 0; r14 = 0; - r23 = 0; r24 = 0; - r34 = 0; - ]]> - --> - <!-- Below initialization assumes strong E1 and E3 which were shining for long time before - we even start to look at the problem --> - <!-- Precalculated by Nate via Mathematica steady state solver --> - <dependencies>E_field</dependencies> - <![CDATA[ - E1c = conj(E1); - E2c = conj(E2); - E3c = conj(E3); - E4c = conj(E4); - - // IMPORTANT: assumes no detunings - r11 = (gt*(4*mod2(E1) + (G3 + gt)*(G3 + 2*gt))*((G4 + - 2*gt)*(4*mod2(E3) + gt*(G4 + gt)) + 4*mod2(E3)*G4*(R41 - - R42)))/(2.*(-16*mod2(E1)*mod2(E3)*G3*G4*R32*R41 + (G3 + - 2*gt)*(4*mod2(E1) + gt*(G3 + gt))*((G4 + 2*gt)*(4*mod2(E3) + - gt*(G4 + gt)) - 4*mod2(E3)*G4*R42) + 4*mod2(E1)*G3*R31*(-((G4 + - 2*gt)*(4*mod2(E3) + gt*(G4 + gt))) + 4*mod2(E3)*G4*R42))); - - r13 = -((E1c*gt*(G3 + gt)*i*((G4 + 2*gt)*(4*mod2(E3) + gt*(G4 + gt)) - + 4*mod2(E3)*G4*(R41 - - R42)))/(-16*mod2(E1)*mod2(E3)*G3*G4*R32*R41 + (G3 + - 2*gt)*(4*mod2(E1) + gt*(G3 + gt))*((G4 + 2*gt)*(4*mod2(E3) + - gt*(G4 + gt)) - 4*mod2(E3)*G4*R42) + 4*mod2(E1)*G3*R31*(-((G4 + - 2*gt)*(4*mod2(E3) + gt*(G4 + gt))) + 4*mod2(E3)*G4*R42))); - - r22 = (gt*(4*mod2(E3) + (G4 + gt)*(G4 + 2*gt))*((G3 + - 2*gt)*(4*mod2(E1) + gt*(G3 + gt)) + 4*mod2(E1)*G3*(-R31 + - R32)))/(2.*(-16*mod2(E1)*mod2(E3)*G3*G4*R32*R41 + (G3 + - 2*gt)*(4*mod2(E1) + gt*(G3 + gt))*((G4 + 2*gt)*(4*mod2(E3) + - gt*(G4 + gt)) - 4*mod2(E3)*G4*R42) + 4*mod2(E1)*G3*R31*(-((G4 + - 2*gt)*(4*mod2(E3) + gt*(G4 + gt))) + 4*mod2(E3)*G4*R42))); - - r24 = -((E3c*gt*(G4 + gt)*i*((G3 + 2*gt)*(4*mod2(E1) + gt*(G3 + gt)) - + 4*mod2(E1)*G3*(-R31 + - R32)))/(-16*mod2(E1)*mod2(E3)*G3*G4*R32*R41 + (G3 + - 2*gt)*(4*mod2(E1) + gt*(G3 + gt))*((G4 + 2*gt)*(4*mod2(E3) + - gt*(G4 + gt)) - 4*mod2(E3)*G4*R42) + 4*mod2(E1)*G3*R31*(-((G4 + - 2*gt)*(4*mod2(E3) + gt*(G4 + gt))) + 4*mod2(E3)*G4*R42))); - - r33 = (2*mod2(E1)*gt*((G4 + 2*gt)*(4*mod2(E3) + gt*(G4 + gt)) + - 4*mod2(E3)*G4*(R41 - - R42)))/(-16*mod2(E1)*mod2(E3)*G3*G4*R32*R41 + (G3 + - 2*gt)*(4*mod2(E1) + gt*(G3 + gt))*((G4 + 2*gt)*(4*mod2(E3) + - gt*(G4 + gt)) - 4*mod2(E3)*G4*R42) + 4*mod2(E1)*G3*R31*(-((G4 + - 2*gt)*(4*mod2(E3) + gt*(G4 + gt))) + 4*mod2(E3)*G4*R42)); - - r44 = (2*mod2(E3)*gt*((G3 + 2*gt)*(4*mod2(E1) + gt*(G3 + gt)) + - 4*mod2(E1)*G3*(-R31 + - R32)))/(-16*mod2(E1)*mod2(E3)*G3*G4*R32*R41 + (G3 + - 2*gt)*(4*mod2(E1) + gt*(G3 + gt))*((G4 + 2*gt)*(4*mod2(E3) + - gt*(G4 + gt)) - 4*mod2(E3)*G4*R42) + 4*mod2(E1)*G3*R31*(-((G4 + - 2*gt)*(4*mod2(E3) + gt*(G4 + gt))) + 4*mod2(E3)*G4*R42)); - - ]]> - </initialisation> - </vector> - - <sequence> - <!--For this set of conditions ARK45 is faster than ARK89--> - <!--ARK45 is good for small detuning when all frequency like term are close to zero--> - <integrate algorithm="ARK45" tolerance="1e-5" interval="Lcell"> - <!--RK4 is good for large detunings when frequency like term are big, it does not try to be too smart about adaptive step which ARK seems to make too small--> - <!--When ARK45 works it about 3 times faster then RK4 with 1000 steps--> - <!--<integrate algorithm="RK4" steps="100" interval="1.5e-2">--> - <!--SIC algorithm seems to be much slower and needs fine 'z' step tuning and much finer time grid--> - <!--For example I had to quadruple the time grid from 1000 to 4000 when increased z distance from 0.02 to 0.04--> - - <!--<integrate algorithm="SIC" interval="4e-2" steps="200">--> - <samples>200 200</samples> - <operators> - <operator kind="cross_propagation" algorithm="SI" propagation_dimension="t"> - <integration_vectors>density_matrix</integration_vectors> - <dependencies>E_field</dependencies> - <boundary_condition kind="left"> - <!--This set boundary condition at all 'z' and left border of 't' (i.e. min(t))--> - <!-- - <![CDATA[ - r11 = 0; r22 = 1; r33 = 0; r44 = 0; - r12 = 0; r13 = 0; r14 = 0; - r23 = 0; r24 = 0; - r34 = 0; - printf("z= %g, t= %g\n", z, t); - ]]> - --> - </boundary_condition> - <![CDATA[ - E1c = conj(E1); - E2c = conj(E2); - E3c = conj(E3); - E4c = conj(E4); - - r21=conj(r12); - r31=conj(r13); - r41=conj(r14); - r32=conj(r23); - r42=conj(r24); - r43=conj(r34); - //r44=1- r11 - r22 - r33; - - // Equations of motions according to Nate's mathematica code - dr11_dt = gt/2 - gt*r11 + i*(-(E1*r13) - E4*r14 + E1c*r31 + E4c*r41) + G3*r33*R31 + G4*r44*R41; - dr12_dt = -(gt*r12) + i*((-delta1 + delta2)*r12 - E2*r13 - E3*r14 + E1c*r32 + E4c*r42); - dr13_dt = -((G3 + 2*gt)*r13)/2. + i*(-(E1c*r11) - E2c*r12 - delta1*r13 + E1c*r33 + E4c*r43); - dr14_dt = -((G4 + 2*gt)*r14)/2. + i*(-(E4c*r11) - E3c*r12 - (delta1 - delta2 + delta3)*r14 + E1c*r34 + E4c*r44); - dr22_dt = gt/2 - gt*r22 + i*(-(E2*r23) - E3*r24 + E2c*r32 + E3c*r42) + G3*r33*R32 + G4*r44*R42; - dr23_dt = -((G3 + 2*gt)*r23)/2. + i*(-(E1c*r21) - E2c*r22 - delta2*r23 + E2c*r33 + E3c*r43); - dr24_dt = -((G4 + 2*gt)*r24)/2. + i*(-(E4c*r21) - E3c*r22 - delta3*r24 + E2c*r34 + E3c*r44); - dr33_dt = i*(E1*r13 + E2*r23 - E1c*r31 - E2c*r32) - (G3 + gt)*r33; - - dr34_dt = -((G3 + G4 + 2*gt)*r34)/2. + i*(E1*r14 + E2*r24 - E4c*r31 - E3c*r32 + (delta2 - delta3)*r34); - dr44_dt = i*(E4*r14 + E3*r24 - E4c*r41 - E3c*r42) - (G4 + gt)*r44; - ]]> - </operator> - <operator kind="ex" constant="yes"> - <operator_names>Lt</operator_names> - <![CDATA[ - Lt = i*1./c*kt; - ]]> - </operator> - <integration_vectors>E_field</integration_vectors> - <dependencies>density_matrix</dependencies> - <![CDATA[ - dE1_dz = i*eta*conj(r13) -Lt[E1] ; - dE2_dz = i*eta*conj(r23) -Lt[E2] ; - dE3_dz = i*eta*conj(r24) -Lt[E3] ; - dE4_dz = i*eta*conj(r14) -Lt[E4] ; - ]]> - </operators> - </integrate> - </sequence> - - - - - <!-- The output to generate --> - <output format="binary" filename="Nlevels_no_dopler_with_z_4wm.xsil"> - <group> - <sampling basis="t(1000)" initial_sample="yes"> - <dependencies>E_field</dependencies> - <moments>I1_out I2_out I3_out I4_out</moments> - <![CDATA[ - I1_out = mod2(E1); - I2_out = mod2(E2); - I3_out = mod2(E3); - I4_out = mod2(E4); - ]]> - </sampling> - </group> - - <group> - <sampling basis="t(1000)" initial_sample="yes"> - <dependencies>density_matrix</dependencies> - <moments> - r11_out r22_out r33_out r44_out - r12_re_out r12_im_out r13_re_out r13_im_out r14_re_out r14_im_out - r23_re_out r23_im_out r24_re_out r24_im_out - r34_re_out r34_im_out - </moments> - <![CDATA[ - // populations output - r11_out = r11.Re(); - r22_out = r22.Re(); - r33_out = r33.Re(); - r44_out = r44.Re(); - // coherences output - r12_re_out = r12.Re(); - r12_im_out = r12.Im(); - r13_re_out = r13.Re(); - r13_im_out = r13.Im(); - r14_re_out = r14.Re(); - r14_im_out = r14.Im(); - r23_re_out = r23.Re(); - r23_im_out = r23.Im(); - r24_re_out = r24.Re(); - r24_im_out = r24.Im(); - r34_re_out = r34.Re(); - r34_im_out = r34.Im(); - ]]> - </sampling> - </group> - </output> - -</simulation> - -<!-- -vim: ts=2 sw=2 foldmethod=indent: ---> diff --git a/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/fast_to_slow_switch/Makefile b/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/fast_to_slow_switch/Makefile deleted file mode 100644 index 9c65fd6..0000000 --- a/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/fast_to_slow_switch/Makefile +++ /dev/null @@ -1,61 +0,0 @@ -### -*- make -*- -### This makefile can be used to build and run the XMDS examples - - -XSIL_FILES = Nlevels_no_dopler_with_z_4wm.xsil -M_FILES = $(patsubst %.xsil,%.m,$(XSIL_FILES)) -GNUPLOT_FILES = $(wildcard *.gp) - -XSIL2GRAPHICS = xsil2graphics - -# fast light -PARAMS = \ - --Ndens=1e15 \ - --Lcell=10.0e-2 \ - --Temperature=1e-9 \ - --delta1=0 --delta2=0 --delta3=0 \ - --E1o=1.9e7 --E2o=3.1e5 --E3o=3.8e7 --E4o=0 - - -# slow light EIT -#PARAMS = --delta1=0 --delta2=0 --delta3=0 --E1o=1.9e7 --E2o=3.1e5 --E3o=0 --E4o=0 - -all: $(XSIL_FILES) Nlevels_no_dopler_with_z_4wm.xsil $(M_FILES) plot png - -Nlevels_no_dopler_with_z_4wm.xsil: ../Nlevels_no_dopler_with_z_4wm.run - $< $(PARAMS) | grep "Time elapsed for simulation is:" > exact_analysis_execution_time.txt - -%.m: %.xsil - $(XSIL2GRAPHICS) $< - -plot: $(M_FILES) $(GNUPLOT_FILES) - octave pp_I2.m - gnuplot plot_fields_propagation_I2.gp - -clean: - rm -f $(CC_FILES) $(RUN_FILES) $(M_FILES) $(XSIL_FILES) *.wisdom.fftw3 *.dat octave-core *.wisdom *.pdf - rm -f $(pdf_targets) - rm -f $(eps_targets) - -real_clean: clean - rm -f $(png_targets) - -eps_targets = $(wildcard *.eps) -pdf_targets = $(eps_targets:%.eps=%.pdf) -png_targets = $(pdf_targets:%.pdf=%.png) - -pdf: $(pdf_targets) - -$(pdf_targets): %.pdf : %.eps - cat $< | ps2eps -B > __tt.eps - epspdf __tt.eps $@ - rm -f __tt.eps - #ps2eps -B $< | epspdf $< $@ - -png: pdf $(png_targets) - -$(png_targets): %.png : %.pdf - convert -density 300 $< $@ - -.PRECIOUS: %.run %.xsil %.m -.PHONY: all clean diff --git a/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/fast_to_slow_switch/plot_fields_propagation_I2.gp b/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/fast_to_slow_switch/plot_fields_propagation_I2.gp deleted file mode 120000 index e11c569..0000000 --- a/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/fast_to_slow_switch/plot_fields_propagation_I2.gp +++ /dev/null @@ -1 +0,0 @@ -../plot_fields_propagation_I2.gp
\ No newline at end of file diff --git a/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/fast_to_slow_switch/pp_I2.m b/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/fast_to_slow_switch/pp_I2.m deleted file mode 120000 index 4a1ed9b..0000000 --- a/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/fast_to_slow_switch/pp_I2.m +++ /dev/null @@ -1 +0,0 @@ -../pp_I2.m
\ No newline at end of file diff --git a/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/map2dat.m b/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/map2dat.m deleted file mode 120000 index 90fc33d..0000000 --- a/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/map2dat.m +++ /dev/null @@ -1 +0,0 @@ -../../matlab_helper_files/map2dat.m
\ No newline at end of file diff --git a/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/plot_fields_propagation_I2.gp b/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/plot_fields_propagation_I2.gp deleted file mode 100644 index 77b4870..0000000 --- a/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/plot_fields_propagation_I2.gp +++ /dev/null @@ -1,15 +0,0 @@ -set terminal postscript portrait enhanced color solid size 5,3.5 -set output 'fields_propagation_I2.eps' -set dgrid3d 100,100 qnorm 4 -set pm3d map -#set contour -set hidden3d -set palette rgb 10,13,31 negative - - -set xlabel "z (cm)" -set ylabel "t ({/Symbol m}S)" -set zlabel "I_2 (1/S)" -set nokey -#set view map -splot [0:][-0.2:0.2] 'I2.dat' diff --git a/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/pp.m b/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/pp.m deleted file mode 100644 index b88fa6e..0000000 --- a/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/pp.m +++ /dev/null @@ -1,190 +0,0 @@ -Nlevels_no_dopler_with_z_4wm - -%% field propagation -z_1=z_1*100; % z in cm -t_1=t_1*1e6; % time now measured in uS -figure(1) -subplot(2,2,1); imagesc(z_1, t_1, I1_out_1); colorbar -xlabel('z (cm)') -ylabel('t (uS)') -zlabel('I_1') -title('I_1') -subplot(2,2,2); imagesc(z_1, t_1, I2_out_1); colorbar -xlabel('z (cm)') -ylabel('t (uS)') -zlabel('I_2') -title('I_2') -subplot(2,2,3); imagesc(z_1, t_1, I3_out_1); colorbar -xlabel('z (cm)') -ylabel('t (uS)') -zlabel('I_3') -title('I_3') -subplot(2,2,4); imagesc(z_1, t_1, I4_out_1); colorbar -xlabel('z (cm)') -ylabel('t (uS)') -zlabel('I_4') -title('I_4') - - -print('-color','fields_propagation.eps') - - - -%% fields before and after the cell -figure(2) -subplot(2,2,1); -plot( ... - t_1,I1_out_1(:,1),'-;before;', "linewidth", 4, ... - t_1,I1_out_1(:,end), '-;after;', "linewidth", 4 ... - ) -xlabel('t (uS)') -ylabel('I_1 (1/s)^2') -title('I_1 before and after cell') -subplot(2,2,2); -plot( ... - t_1,I2_out_1(:,1),'-;before;', "linewidth", 4, ... - t_1,I2_out_1(:,end), '-;after;', "linewidth", 4 ... - ) -xlabel('t (uS)') -ylabel('I_2 (1/s)^2') -title('I_2 before and after cell') -subplot(2,2,3); -plot( ... - t_1,I3_out_1(:,1),'-;before;', "linewidth", 4, ... - t_1,I3_out_1(:,end), '-;after;', "linewidth", 4 ... - ) -xlabel('t (uS)') -ylabel('I_3 (1/s)^2') -title('I_3 before and after cell') - -[b, a]=butter(3, 0.05); -I2_out_after=I2_out_1(:,end); -I2_out_after_filtered=filtfilt(b,a,I2_out_after); -settling_time=0.8; %uS -t_good_indx=t_1> min(t_1 + settling_time); -[m,max_pos_before]=max(I2_out_1(t_good_indx,1) ); [m,max_pos_after]=max(I2_out_after_filtered(t_good_indx)); -delay_time=t_1(max_pos_after)-t_1(max_pos_before); -printf('Second field delay time = %f uS\n',delay_time); - -print('-color','fields_before_after_cell.eps') - -subplot(2,2,4); -plot( ... - t_1,I4_out_1(:,1),'-;before;', "linewidth", 4, ... - t_1,I4_out_1(:,end), '-;after;', "linewidth", 4 ... - ) -xlabel('t (uS)') -ylabel('I_3 (1/s)^2') -title('I_3 before and after cell') - -figure(4) -I2_max_in=max(I2_out_1(t_good_indx,1)); -I2_max_out=max(I2_out_1(t_good_indx,end)); -I2_in_norm=(I2_out_1(:,1))/I2_max_in; -I2_out_norm=(I2_out_1(:,end))/I2_max_out; -tmin=-0.05; -tmax=0.05; -indx=(t_1>=tmin & t_1<=tmax); % soom in in time to this region -plot( ... - t_1(indx),I2_in_norm(indx),'-;before;', "linewidth", 4, ... - t_1(indx),I2_out_norm(indx), '-;after;', "linewidth", 4 ... - ) -xlim([tmin,tmax],'manual'); -xlabel('t (uS)') -ylabel('I_2') -title('I_2 before and after cell normalized') -print('-color','probe_before_after_cell.eps') - -return; - -%% all density matrix elements in one plot -% diagonal populations, -% upper triangle real part of coherences, -% lower diagonal imaginary part of coherences -z_2=z_2*100; % z in cm -t_2=t_2*1e6; % time now measured in uS -figure(3) -subplot(4,4,1); imagesc (z_2, t_2, r11_out_2); caxis([0,1]); colorbar -xlabel('z (cm)') -ylabel('t (uS)') -zlabel('rho_{11}') -title('rho_{11}') -subplot(4,4,6); imagesc (z_2, t_2, r22_out_2); caxis([0,1]); colorbar -xlabel('z (cm)') -ylabel('t (uS)') -zlabel('rho_{22}') -title('rho_{22}') -subplot(4,4,11); imagesc (z_2, t_2, r33_out_2); caxis([0,1]); colorbar -xlabel('z (cm)') -ylabel('t (uS)') -zlabel('rho_{33}') -title('rho_{33}') -subplot(4,4,16); imagesc (z_2, t_2, r44_out_2); caxis([0,1]); colorbar -xlabel('z (cm)') -ylabel('t (uS)') -zlabel('rho_{44}') -title('rho_{44}') -% real parts of coherences -subplot(4,4,2); imagesc(z_2, t_2, r12_re_out_2); colorbar -xlabel('z (cm)') -ylabel('t (uS)') -zlabel('Real(rho_{12})') -title('Real(rho_{12})') -subplot(4,4,3); imagesc(z_2, t_2, r13_re_out_2); colorbar -xlabel('z (cm)') -ylabel('t (uS)') -zlabel('Real(rho_{13})') -title('Real(rho_{13})') -subplot(4,4,4); imagesc(z_2, t_2, r14_re_out_2); colorbar -xlabel('z (cm)') -ylabel('t (uS)') -zlabel('Real(rho_{14})') -title('Real(rho_{14})') -subplot(4,4,7); imagesc(z_2, t_2, r23_re_out_2); colorbar -xlabel('z (cm)') -ylabel('t (uS)') -zlabel('Real(rho_{23})') -title('Real(rho_{23})') -subplot(4,4,8); imagesc(z_2, t_2, r24_re_out_2); colorbar -xlabel('z (cm)') -ylabel('t (uS)') -zlabel('Real(rho_{24})') -title('Real(rho_{24})') -subplot(4,4,12); imagesc(z_2, t_2, r34_re_out_2); colorbar -xlabel('z (cm)') -ylabel('t (uS)') -zlabel('Real(rho_{34})') -title('Real(rho_{34})') -% imaginary parts of coherences -subplot(4,4,5); imagesc(z_2, t_2, r12_im_out_2); colorbar -xlabel('z (cm)') -ylabel('t (uS)') -zlabel('Imag(rho_{12})') -title('Imag(rho_{12})') -subplot(4,4,9); imagesc(z_2, t_2, r13_im_out_2); colorbar -xlabel('z (cm)') -ylabel('t (uS)') -zlabel('Imag(rho_{13})') -title('Imag(rho_{13})') -subplot(4,4,10); imagesc(z_2, t_2, r23_im_out_2); colorbar -xlabel('z (cm)') -ylabel('t (uS)') -zlabel('Imag(rho_{23})') -title('Imag(rho_{23})') -subplot(4,4,13); imagesc(z_2, t_2, r14_im_out_2); colorbar -xlabel('z (cm)') -ylabel('t (uS)') -zlabel('Imag(rho_{14})') -title('Imag(rho_{14})') -subplot(4,4,14); imagesc(z_2, t_2, r24_im_out_2); colorbar -xlabel('z (cm)') -ylabel('t (uS)') -zlabel('Imag(rho_{24})') -title('Imag(rho_{24})') -subplot(4,4,15); imagesc(z_2, t_2, r34_im_out_2); colorbar -xlabel('z (cm)') -ylabel('t (uS)') -zlabel('Imag(rho_{34})') -title('Imag(rho_{34})') - - diff --git a/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/pp_I2.m b/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/pp_I2.m deleted file mode 100644 index ea75b38..0000000 --- a/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/pp_I2.m +++ /dev/null @@ -1,92 +0,0 @@ -Nlevels_no_dopler_with_z_4wm; - -%% field I2 propagation -z_1=z_1*100; % z in cm -t_1=t_1*1e6; % time now measured in uS -figure(1) -%set(gca,'fontsize',20); -imagesc(z_1, t_1, I2_out_1); colorbar -tmin=-0.4; -tmax= 0.4; -ylim([tmin,tmax],'manual'); -xlabel('z (cm)') -ylabel('t (uS)') -zlabel('I_2') -title('I_2') -print('-color','-depsc2', '-tight', '-S200,120', 'fields_propagation_I2.eps') - -desired_x_size=200; -desired_y_size=200; -xskip=ceil(length(z_1)/desired_x_size); -yskip=ceil(length(t_1)/desired_y_size); -map2dat('I2.dat',z_1,t_1, I2_out_1, xskip, yskip); - - -%% field I4 propagation -figure(2) - -imagesc(z_1, t_1, I4_out_1); colorbar -tmin=-0.4; -tmax= 0.4; -ylim([tmin,tmax],'manual'); -xlabel('z (cm)') -ylabel('t (uS)') -zlabel('I_2') -title('I_2') -print('-color','-depsc2', '-tight', '-S200,120', 'fields_propagation_I4.eps') -map2dat('I4.dat',z_1,t_1, I4_out_1, xskip, yskip); - - - - - -%% fields before and after the cell -figure(3) -%set(gca,'fontsize',30); -plot( ... - t_1,I2_out_1(:,1),'.-;I_2 before;', "linewidth", 4 ... - ,t_1,I2_out_1(:,end), '-;I_2 after;', "linewidth", 4 ... - ,t_1,I4_out_1(:,end), '-;I_4 after;', "linewidth", 4 ... - ) -xlabel('t (uS)') -ylabel('I (1/s)^2') -title('Fields before and after cell') -legend('location', 'northeast'); - -[b, a]=butter(3, 0.05); -I2_out_after=I2_out_1(:,end); -I2_out_after_filtered=filtfilt(b,a,I2_out_after); -settling_time=0.01; %uS -t_good_indx=t_1> min(t_1 + settling_time); -[m,max_pos_before]=max(I2_out_1(t_good_indx,1) ); [m,max_pos_after]=max(I2_out_after_filtered(t_good_indx)); -delay_time=t_1(max_pos_after)-t_1(max_pos_before); -printf('Second field delay time = %f uS\n',delay_time); - -%set(gca,'fontsize',40); -%set (gcf,'paperposition',[0.5 0 2.5,1.5]); % IMPORTANT to shrink eps size for readable fonts -print('-color','-depsc2', '-tight','-S200,120', 'fields_before_after_cell.eps') - -figure(4) -I2_max_in=max(I2_out_1(t_good_indx,1)); -I2_max_out=max(I2_out_1(t_good_indx,end)); -I4_max_out=max(I4_out_1(t_good_indx,end)); -I2_in_norm=(I2_out_1(:,1))/I2_max_in; -I2_out_norm=(I2_out_1(:,end))/I2_max_out; -I4_out_norm=(I4_out_1(:,end))/I4_max_out; -tmin=-.05; -tmax=.05; -indx=(t_1>=tmin & t_1<=tmax); % soom in in time to this region -plot( ... - t_1(indx),I2_in_norm(indx),'.-;I_2 before;', "linewidth", 4, ... - t_1(indx),I2_out_norm(indx), '-;I_2 after;', "linewidth", 4 ... - ,t_1(indx),I4_out_norm(indx), '-;I_4 after;', "linewidth", 4 ... - ) -legend('location', 'southeast'); -xlim([tmin,tmax],'manual'); -ylim([0.5,1],'manual'); -xlabel('t (uS)') -ylabel('I normalized') -title('Fields before and after cell normalized') -%set (gcf,'paperposition',[0.5 0 2.5,1.5]); % IMPORTANT to shrink eps size for readable fonts -print('-color','-depsc2', '-tight','-S200,120', 'fields_before_after_cell_normalized.eps') - diff --git a/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/pulse_split/map2dat.m b/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/pulse_split/map2dat.m deleted file mode 120000 index 14fae30..0000000 --- a/xmds2/Nlevels_no_dopler_with_z_4wm_for_irina_pqe/pulse_split/map2dat.m +++ /dev/null @@ -1 +0,0 @@ -../map2dat.m
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