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25 | 25 |
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26 | 26 | # High and low levels of theory |
27 | 27 | # Available: "CCSD_T_TZ", "CCSD_T_DZ", "B3LYP_6-31G_2df,p_" |
28 | | -h_theory = ["CCSD_T_aTZ"] |
29 | | -# h_theory = ["CCSD_T_TZ"] |
| 28 | +# h_theory = ["CCSD_T_aTZ"] |
| 29 | +h_theory = ["CCSD_T_TZ"] |
30 | 30 | # l_theory = ["MP2_haTZ"] |
31 | 31 | # l_theory = ["MP2_haDZ"] |
32 | 32 | # l_theory = ["MP2_aTZ"] |
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37 | 37 | # l_theory = ["CCSD_T_haDZ"] |
38 | 38 | # l_theory = ["CCSD_T_aDZ"] |
39 | 39 | # l_theory = ["CCSD_haTZ"] |
40 | | -l_theory = ["CCSD_T_TZ"] |
41 | | -# l_theory = ["CCSD_T_DZ"] |
| 40 | +# l_theory = ["CCSD_T_TZ"] |
| 41 | +l_theory = ["CCSD_T_DZ"] |
42 | 42 | # l_theory = [ |
43 | 43 | # # "CCSD_aTZ", |
44 | 44 | # # "CCSD_haTZ", |
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75 | 75 | # "MP2_TZ"] |
76 | 76 |
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77 | 77 | # cma1_energy_regexes = ["CCSD\s*t?o?t?a?l? energy\s+(\-\d+\.\d+)"] |
| 78 | +cma1_gradient_regex = [] |
78 | 79 | # cma1_gradient_regex = ["\s*virial=\S\S+\.\d+E\S\d+\S\>\s+"] |
79 | 80 | # cma1_energy_regexes = ["\(T\)\s*t?o?t?a?l? energy\s+(\-\d+\.\d+)","Grab this energy (\-\d+\.\d+)"] |
80 | 81 | # cma1_energy_regexes = ["\(T\)\s*t?o?t?a?l? energy\s+(\-\d+\.\d+)",[r"Total Gradient",r"tstop"]] |
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111 | 112 | # paths = ['/1*','/2*'] |
112 | 113 | # job_list = ["4.31"] |
113 | 114 | # job_list = ["1.104"] |
114 | | -job_list = ["3.4"] |
| 115 | +job_list = ["0.1"] |
115 | 116 |
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116 | 117 | # Various output control statements |
117 | 118 | n = 0 # Number of CMA2 corrections (n = 0 -> CMA0) |
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128 | 129 | # compute_all = True # run calculations for all or a select few |
129 | 130 | off_diag_bands = False # (CMA2/3 ONLY) If set to true, "n" off-diag bands selected, if false, "n" largest fc will be selected |
130 | 131 | deriv_level = 0 # (CMA1) if 0, compute initial hessian by singlepoints. If 1, compute initial hessian with findif of gradients |
131 | | -second_order = True # If True, read in cartesian gradient and force constant info to be converted to internal coordinates. |
132 | | -# second_order = False # If False, generate displacements to manually compute the CMA-0A internal coord force constants. |
| 132 | +# second_order = True # If True, read in cartesian gradient and force constant info to be converted to internal coordinates. |
| 133 | +second_order = False # If False, generate displacements to manually compute the CMA-0A internal coord force constants. |
133 | 134 |
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134 | 135 |
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135 | 136 | # ===================== |
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