diff options
Diffstat (limited to 'examples')
| -rw-r--r-- | examples/answ.Diabolo2OPO_seed_profile.txt | 32 | ||||
| -rw-r--r-- | examples/answ.txt | 32 | ||||
| -rw-r--r-- | examples/answ.txt.example | 14 | ||||
| -rw-r--r-- | examples/answ.txt.example_with_coupling_mirror_taken_in_account | 32 |
4 files changed, 110 insertions, 0 deletions
diff --git a/examples/answ.Diabolo2OPO_seed_profile.txt b/examples/answ.Diabolo2OPO_seed_profile.txt new file mode 100644 index 0000000..5e6488a --- /dev/null +++ b/examples/answ.Diabolo2OPO_seed_profile.txt @@ -0,0 +1,32 @@ +source("abcd.m") +########################################## +lambda= 1.064E-6 +Ltot= 0.55 +r0= 1e100 +w0= 0.00675 +f1=0.1526 +lns1.abcd=abcd_lens( f1) +lns1.x= 0.2 +f2=0.019 +lns2.abcd=abcd_lens( f2) +lns2.x= lns1.x+ f1 + f2 +lns3.abcd=abcd_lens( 0.0629) +lns3.x= 0.500 +# befrore we calculate final waste we need to take in account propagation through the thick mirror +# since we try to match to the waste right in front of front coupling mirror +r_at_mirror=.01 +w_at_mirror=83.729e-6 +q_at_mirror=waste_r2q(w_at_mirror, r_at_mirror, lambda) +n_fused_cilica=1.44968 +R_of_mirror=.01 +mirror_thickness=6.35e-3 +f_of_mirrr_formed_lense=1/((n_fused_cilica-1)*(1/(-R_of_mirror))) +abcd_of_mirrr_formed_lense=abcd_lens(f_of_mirrr_formed_lense) +abcd_of_propagation_through_mirror=abcd_free_space(mirror_thickness/n_fused_cilica) +abcd_of_thick_mirror=abcd_of_propagation_through_mirror*abcd_of_mirrr_formed_lense +# q right in front of front coupling mirror of the cavity +q_infront_of_mirror=q_afteer_element(q_at_mirror, abcd_of_thick_mirror) +wf=q2waste(q_infront_of_mirror,lambda) +# we need minus for rf since we will solve injection to the cavity problem +rf= - q2radius(q_infront_of_mirror,lambda) +########################################## diff --git a/examples/answ.txt b/examples/answ.txt new file mode 100644 index 0000000..c1036f8 --- /dev/null +++ b/examples/answ.txt @@ -0,0 +1,32 @@ +source("abcd.m") +########################################## +lambda= 1.064E-6 +Ltot= 0.55 +r0= 1e100 +w0= 0.00675 +f1=0.1526; +lns1.abcd=abcd_lens( f1) ; +lns1.x= 0.2; +f2=0.019; +lns2.abcd=abcd_lens( f2) ; +lns2.x= lns1.x+ f1 + f2; +lns3.abcd=abcd_lens( 0.0629) ; +lns3.x= 0.500; +# befrore we calculate final waste we need to take in account propagation through the thick mirror +# since we try to match to the waste right in front of front coupling mirror +r_at_mirror=.01; +w_at_mirror=83.729e-6; +q_at_mirror=waste_r2q(w_at_mirror, r_at_mirror, lambda); +n_fused_cilica=1.44968; +R_of_mirror=.01; +mirror_thickness=6.35e-3; +f_of_mirrr_formed_lense=1/((n_fused_cilica-1)*(1/(-R_of_mirror))); +abcd_of_mirrr_formed_lense=abcd_lens(f_of_mirrr_formed_lense); +abcd_of_propagation_through_mirror=abcd_free_space(mirror_thickness/n_fused_cilica); +abcd_of_thick_mirror=abcd_of_propagation_through_mirror*abcd_of_mirrr_formed_lense; +# q right in front of front coupling mirror of the cavity +q_infront_of_mirror=q_afteer_element(q_at_mirror, abcd_of_thick_mirror); +wf=q2waste(q_infront_of_mirror,lambda) +# we need minus for rf since we will solve injection to the cavity problem +rf= - q2radius(q_infront_of_mirror,lambda) +########################################## diff --git a/examples/answ.txt.example b/examples/answ.txt.example new file mode 100644 index 0000000..37ba2ee --- /dev/null +++ b/examples/answ.txt.example @@ -0,0 +1,14 @@ +########################################## +lambda= 1.064E-6 +Ltot= 1.010675025828971 +r0= 1.0E+100 +w0= 2.563E-5 +lns1.abcd=abcd_lens( 0.075 ) +lns1.x= 0.21358727296049 +lns2.abcd=abcd_lens( 0.075 ) +lns2.x= 0.40361319425309 +lns3.abcd=abcd_lens( 0.203 ) +lns3.x= 0.80361319425309 +wf= 3.709E-5 +rf= 1.0E+100 +########################################## diff --git a/examples/answ.txt.example_with_coupling_mirror_taken_in_account b/examples/answ.txt.example_with_coupling_mirror_taken_in_account new file mode 100644 index 0000000..5e6488a --- /dev/null +++ b/examples/answ.txt.example_with_coupling_mirror_taken_in_account @@ -0,0 +1,32 @@ +source("abcd.m") +########################################## +lambda= 1.064E-6 +Ltot= 0.55 +r0= 1e100 +w0= 0.00675 +f1=0.1526 +lns1.abcd=abcd_lens( f1) +lns1.x= 0.2 +f2=0.019 +lns2.abcd=abcd_lens( f2) +lns2.x= lns1.x+ f1 + f2 +lns3.abcd=abcd_lens( 0.0629) +lns3.x= 0.500 +# befrore we calculate final waste we need to take in account propagation through the thick mirror +# since we try to match to the waste right in front of front coupling mirror +r_at_mirror=.01 +w_at_mirror=83.729e-6 +q_at_mirror=waste_r2q(w_at_mirror, r_at_mirror, lambda) +n_fused_cilica=1.44968 +R_of_mirror=.01 +mirror_thickness=6.35e-3 +f_of_mirrr_formed_lense=1/((n_fused_cilica-1)*(1/(-R_of_mirror))) +abcd_of_mirrr_formed_lense=abcd_lens(f_of_mirrr_formed_lense) +abcd_of_propagation_through_mirror=abcd_free_space(mirror_thickness/n_fused_cilica) +abcd_of_thick_mirror=abcd_of_propagation_through_mirror*abcd_of_mirrr_formed_lense +# q right in front of front coupling mirror of the cavity +q_infront_of_mirror=q_afteer_element(q_at_mirror, abcd_of_thick_mirror) +wf=q2waste(q_infront_of_mirror,lambda) +# we need minus for rf since we will solve injection to the cavity problem +rf= - q2radius(q_infront_of_mirror,lambda) +########################################## |