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    Multiwfn official website: http://www.shanxitv.org/multiwfn. Multiwfn forum in Chinese: http://bbs.keinsci.com/wfn. E-mail of admin: sobereva[at]sina.com

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    #1 Re: Multiwfn and wavefunction analysis Mulliken analysis 2022-09-12 13:18:33

    Dear Tian,
    Thanks for your response and the guidelines.
    I used the latest version of multiwfn and I did all my calculations again; all are correct now.
    Sorry, I had only checked the name of my multiwfn version which was Multiwfn_3.8_dev. I see the new version has the same name "Multiwfn_3.8_dev" but has been updated this month.
    I will keep the software updated for my calculations in the future.
    I really appreciate your help,
    Lili

    #2 Re: Multiwfn and wavefunction analysis Mulliken analysis 2022-09-08 17:31:20

    Dear Tian,
    I just wanted to inform you that I sent an email to you on Sunday, and to make sure you have received it.
    I know you are so busy these days, but I would really appreciate it if you check my files whenever you have time.
    Thank you,
    Lili

    #3 Re: Multiwfn and wavefunction analysis Mulliken analysis 2022-08-31 13:13:38

    Dear Tian,
    1- I set ADDED_MOS = 9999 with diagonalization and I have the information of all occupied and unoccupied orbitals in the molden file from cp2k. But when I use this file as an input file in multiwfn, mulliken analysis doesn't print the information of unoccupied orbitals.

    2- Yes I have added [Cell] and [Nval] into molden file.
    I am using the Multiwfn_3.8_dev version which is the latest version.

    3- Can I send the results and input files by email?

    Thank you,
    Lili

    #4 Multiwfn and wavefunction analysis Mulliken analysis 2022-08-30 21:36:03

    lilirass
    Replies: 6

    Dear Sobereva,
    I have some questions about the Mulliken analysis of MOs and NTOs. I work on Fe2O3 (periodic solid state).

    1- I used cp2k to create the molden file, and with that, I could calculate the Mullikenn analysis for MOs. However, the occupied orbitals are only printed and unoccupied orbitals are not printed. I want to check how electrons go to the unoccupied orbital after photoexcitation. So I need the information of HOMO-10 to LUMO+10 (as I calculated via TDDFT). I think if I change the occupation of unoccupied orbital to 1 in the molden file, it forces multiwfn to print these orbitals too. I checked this, and I could print the unoccupied orbitals. And it showed the results as I expected. I want to check if it is the correct approach.

    2- I also did the Mulliken analysis with cp2k, and I checked the population of atoms (Alpha pop. Beta pop, spin pop). The difference between the results from cp2k and multiwfn is up to 0.5. Why is it the case? 

    3- I want to do the Mulliken analysis of NTO, I  generated natural transition orbitals (NTOs) with multiwfn and printed NTO orbitals to a molden, fch, and mwfn files. When I used these files as an input file for Mulliken analysis, it gave the same results as when I did analysis of MOs. While I expected another results. 

    Can you please help me to do Mulliken analysis for occupied and unoccupied orbitals for MOs and NTOs.

    I really appreciate your help,
    Best regards,
    Lili

    #5 Re: Multiwfn and wavefunction analysis Input file for NTO calculation 2022-03-04 13:43:59

    Thanks for your response and guidance. I am currently working on hole-electron analysis and its theory. I will let you know if I have questions about this analysis.
    Thank you again,
    Lili

    #6 Re: Multiwfn and wavefunction analysis Input file for NTO calculation 2022-02-27 17:05:39

    Dear Tian,
    I could create a .mwfn file for the first excited state. As you see in the pictures, the NTO eigenvalues are consistent with CP2K results.
    But when I try to visualize them, nothing is shown, specifically for LUMO-beta (-601 orbital(2785)). I changed isosurface quality to 1500k points (perfect quality), but still, there is no electron density (even with 0.002 isovalue)
    After Booting up Multiwfn, I upload S1_log.mwfn file, and then I choose 0 (Show molecular structure and view orbitals) from the main menu. But I  cannot see the electron density as I expect.
    When I visualize molecular orbital cube files of the first excited state:
           600B -> 601B       
           598A -> 602A         
           600A -> 603A       
           598B -> 602B       
           599B -> 603B       
           597B -> 603B       
    All follow the same pattern (Electron density is around oxygen atoms in HOMO, and it goes to Fe atoms in LUMO). But I cannot see the same pattern in NTOs. And there is even no electron density on some NTOs.
    Can you please help me to visualize NTOs correctly?
    Sincerely,
    Lili
    CP2K-NTO.png

    MULTIWFN-NTO.png

    #7 Re: Multiwfn and wavefunction analysis Input file for NTO calculation 2022-02-14 22:53:20

    Dear Tian,
    Thank you for sending me this information. It was exactly what I needed.

    #8 Re: Multiwfn and wavefunction analysis Input file for NTO calculation 2022-02-14 16:32:39

    Thank you, It is awesome.
    I had some questions, but I think my first and second questions are solved with this new function.
    1- Can I give the information of a specific number of occupied and unoccupied orbitals to be considered in NTO calculation? Or should the molden file have the information of all occupied and all unoccupied orbitals?
    2- Is there any function in Multiwfn to convert a .MOLog file (a file with the information of the occupied and unoccupied orbitals in Cp2k) to a .molden file?
    3- Why did you assign the multiplicity equal to 0 instead of 1 in the input file?
    I really appreciate your help.
    Best regards,
    Lili

    #10 Multiwfn and wavefunction analysis Input file for NTO calculation 2022-02-11 14:39:16

    lilirass
    Replies: 11

    I want to write a plain text file containing configuration coefficients of excited states as the input file for NTO calculation. I use CP2K for TDDFT calculation. 
    I checked the Gaussian output file and tried to create an identical format. But I received this error:

    forrtl: severe (59): list-directed I/O syntax error.
    Image              PC                Routine            Line        Source
    Multiwfn.exe       00007FF625A4BC7F  Unknown               Unknown  Unknown
    Multiwfn.exe       00007FF625A06F1C  Unknown               Unknown  Unknown
    Multiwfn.exe       00007FF62532BAC4  Unknown               Unknown  Unknown
    Multiwfn.exe       00007FF62534BB63  Unknown               Unknown  Unknown
    Multiwfn.exe       00007FF6253135C8  Unknown               Unknown  Unknown
    Multiwfn.exe       00007FF6255E8808  Unknown               Unknown  Unknown
    Multiwfn.exe       00007FF6263C2B4E  Unknown               Unknown  Unknown
    Multiwfn.exe       00007FF62668FCD4  Unknown               Unknown  Unknown
    KERNEL32.DLL       00007FF92EF07034  Unknown               Unknown  Unknown
    ntdll.dll          00007FF930242651  Unknown               Unknown  Unknown


    You can find some versions of my input file in the following. Can you please help me to understand the problem?
    I tried to find a sample of a plain text file containing configuration coefficients of excited states in the examples folder, but I could not find it. Can you please guide me to the right path to find a sample of this input file?
    Best regards,
    Lili

    Version 1:
    Excited State   1:      Singlet-A     2.07774 eV  596.72 nm  f=0.000  <S**2>=0.000   
           598A -> 602A         0.454805
           600A -> 603A         0.416875
           598B -> 602B        -0.298488
           599B -> 603B        -0.250645
           597B -> 603B        -0.070004
           600B -> 601B        -0.676085

    Excited State   2:      Singlet-A     2.07792 eV  596.67 nm  f=0.000  <S**2>=0.000
           598A -> 601A         0.496762
           599A -> 602A         0.435484
           596A -> 602A        -0.079478
           599B -> 601B         0.561757
           600B -> 603B         0.468381
           597B -> 601B         0.120320
           
       
    Version 2:
    Excited State   1:      Singlet-A     2.07774 eV  596.72 nm  f=0.000  <S**2>=0.000
           600B -> 601B        -0.676085
           598A -> 602A         0.454805
           600A -> 603A         0.416875
           598B -> 602B        -0.298488
           599B -> 603B        -0.250645
           597B -> 603B        -0.070004

    Excited State   2:      Singlet-A     2.07792 eV  596.67 nm  f=0.000  <S**2>=0.000
           599B -> 601B         0.561757
           598A -> 601A         0.496762
           600B -> 603B         0.468381
           599A -> 602A         0.435484
           597B -> 601B         0.120320
           596A -> 602A        -0.079478
       
    Version 3:
    Excited State 1 1 2.07774              // Label, index, multiplicity and excitation energy (eV)
           600 -> 601        -0.676085     // MO pairs and configuration coefficients
           598 -> 602         0.454805
           600 -> 603         0.416875
           598 -> 602        -0.298488
           599 -> 603        -0.250645
           597 -> 603        -0.070004
                                                      // Use a blank line to separate each excited state
    Excited State 1 1 2.07792
           599 -> 601         0.561757
           598 -> 601         0.496762
           600 -> 603         0.468381
           599 -> 602         0.435484
           597 -> 601         0.120320
           596 -> 602        -0.079478

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