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  • 96 Topics
    433 Posts
    job314
    So I am getting this conducting state on a simple insulating slab and double zeta basis set. Smearing also does not work, first step show insulating behavior and the next step simply sloshes back into conducting state. LEVSHIFT also does not work. I increased tolerances - still does not work... thank you for suggestions Jb TTTTTTTTTTTTTTTTTTTTTTTTTTTTTT MOQGAD TELAPSE 38.68 TCPU 27.82 TTTTTTTTTTTTTTTTTTTTTTTTTTTTTT SHELLXN TELAPSE 210.11 TCPU 197.17 TTTTTTTTTTTTTTTTTTTTTTTTTTTTTT MONMO3 TELAPSE 211.16 TCPU 198.21 NUMERICALLY INTEGRATED DENSITY 520.0000665560 TTTTTTTTTTTTTTTTTTTTTTTTTTTTTT NUMDFT TELAPSE 214.45 TCPU 201.47 CYC 0 ETOT(AU) -5.433092205173E+03 DETOT -5.43E+03 tst 0.00E+00 PX 1.00E+00 TTTTTTTTTTTTTTTTTTTTTTTTTTTTTT DIIS TELAPSE 214.55 TCPU 201.57 TTTTTTTTTTTTTTTTTTTTTTTTTTTTTT FDIK TELAPSE 223.51 TCPU 210.13 INSULATING STATE TOP OF VALENCE BANDS - BAND 260; K 4; EIG -3.6459029E-01 AU TOP OF VALENCE BANDS - BAND 260; K 1; EIG -3.6561618E-01 AU BOTTOM OF VIRTUAL BANDS - BAND 261; K 1; EIG -5.4169990E-02 AU INDIRECT ENERGY BAND GAP: 8.4470 eV TTTTTTTTTTTTTTTTTTTTTTTTTTTTTT PDIG TELAPSE 223.93 TCPU 210.55 TTTTTTTTTTTTTTTTTTTTTTTTTTTTTT MOQGAD TELAPSE 223.95 TCPU 210.57 TTTTTTTTTTTTTTTTTTTTTTTTTTTTTT SHELLXN TELAPSE 400.73 TCPU 385.75 TTTTTTTTTTTTTTTTTTTTTTTTTTTTTT MONMO3 TELAPSE 401.80 TCPU 386.81 NUMERICALLY INTEGRATED DENSITY 520.0000608459 TTTTTTTTTTTTTTTTTTTTTTTTTTTTTT NUMDFT TELAPSE 405.15 TCPU 390.13 CYC 1 ETOT(AU) -5.425598620573E+03 DETOT 7.49E+00 tst 0.00E+00 PX 1.00E+00 TTTTTTTTTTTTTTTTTTTTTTTTTTTTTT DIIS TELAPSE 406.19 TCPU 391.17 DIIS TEST: 0.14136E+02 AT SCF CYCLE 1 - MIX 30 % TTTTTTTTTTTTTTTTTTTTTTTTTTTTTT FDIK TELAPSE 408.41 TCPU 393.36 INSULATING STATE TOP OF VALENCE BANDS - BAND 260; K 3; EIG -2.2132709E-01 AU TOP OF VALENCE BANDS - BAND 260; K 1; EIG -2.2385187E-01 AU BOTTOM OF VIRTUAL BANDS - BAND 261; K 3; EIG -2.2027347E-01 AU DIRECT ENERGY BAND GAP: 0.0287 eV BOTTOM OF VIRTUAL BANDS - BAND 261; K 1; EIG -2.1783865E-01 AU TTTTTTTTTTTTTTTTTTTTTTTTTTTTTT PDIG TELAPSE 408.82 TCPU 393.77 TTTTTTTTTTTTTTTTTTTTTTTTTTTTTT MOQGAD TELAPSE 408.85 TCPU 393.79 TTTTTTTTTTTTTTTTTTTTTTTTTTTTTT SHELLXN TELAPSE 589.22 TCPU 572.52 TTTTTTTTTTTTTTTTTTTTTTTTTTTTTT MONMO3 TELAPSE 590.29 TCPU 573.58 NUMERICALLY INTEGRATED DENSITY 520.0000793911 TTTTTTTTTTTTTTTTTTTTTTTTTTTTTT NUMDFT TELAPSE 593.60 TCPU 576.86 CYC 2 ETOT(AU) 1.309897924868E+04 DETOT 1.85E+04 tst 1.99E-01 PX 1.92E+02 TTTTTTTTTTTTTTTTTTTTTTTTTTTTTT DIIS TELAPSE 594.50 TCPU 577.75 DIIS TEST: 0.59042E+05 AT SCF CYCLE 2 - DIIS ACTIVE - HISTORY: 2 CYCLES TTTTTTTTTTTTTTTTTTTTTTTTTTTTTT FDIK TELAPSE 597.39 TCPU 580.62 POSSIBLY CONDUCTING STATE - EFERMI(AU) -2.0063335E-01 (RES. CHARGE 0.00E+00;IT. TTTTTTTTTTTTTTTTTTTTTTTTTTTTTT PDIG TELAPSE 597.80 TCPU 581.03 TTTTTTTTTTTTTTTTTTTTTTTTTTTTTT MOQGAD TELAPSE 597.82 TCPU 581.05 24kaw25, Wheeler B3LYP-D3/pob2-TZVP SLAB 1 6.941300000000 6.048800000000 90.0000000000 116 12 0.000000000000 0.635070000000 7.673917144000 12 0.500000000000 0.364930000000 2.071943048000 7 0.000000000000 0.609540000000 3.622984158000 7 0.500000000000 0.390460000000 9.224958254000 1 0.000000000000 0.759940000000 3.094427258000 1 0.500000000000 0.240060000000 8.696401354000 1 0.000000000000 0.632050000000 4.646197412000 1 0.500000000000 0.367950000000 10.248171508000 1 0.879320000000 0.513920000000 3.398074084000 1 0.620680000000 0.486080000000 9.000048180000 1 0.379320000000 0.486080000000 9.000048180000 1 0.120680000000 0.513920000000 3.398074084000 1 0.000000000000 0.279550000000 9.554850664000 1 0.500000000000 0.720450000000 3.952876568000 1 0.000000000000 0.182760000000 8.058852376000 1 0.500000000000 0.817240000000 2.457242802000 1 0.882340000000 0.018940000000 6.340131146000 1 0.617660000000 0.981060000000 0.738157050000 1 0.382340000000 0.981060000000 0.738157050000 1 0.117660000000 0.018940000000 6.340131146000 1 0.795870000000 0.798940000000 9.837719736000 1 0.704130000000 0.201060000000 4.235745640000 1 0.295870000000 0.201060000000 4.235745640000 1 0.204130000000 0.798940000000 9.837719736000 1 0.677570000000 0.842940000000 8.468575104000 1 0.822430000000 0.157060000000 2.866601008000 1 0.177570000000 0.157060000000 2.866601008000 1 0.322430000000 0.842940000000 8.468575104000 1 0.751930000000 0.380470000000 6.186667384000 1 0.748070000000 0.619530000000 0.584693288000 1 0.251930000000 0.619530000000 0.584693288000 1 0.248070000000 0.380470000000 6.186667384000 1 0.680690000000 0.630540000000 6.048513546000 1 0.819310000000 0.369460000000 0.446539450000 1 0.180690000000 0.369460000000 0.446539450000 1 0.319310000000 0.630540000000 6.048513546000 15 0.000000000000 0.992450000000 0.635361846000 15 0.500000000000 0.007550000000 6.237335942000 8 0.000000000000 0.009990000000 2.188225566000 8 0.500000000000 0.990010000000 7.790199662000 8 0.000000000000 0.227470000000 0.000000000000 8 0.500000000000 0.772530000000 5.601974096000 8 0.815480000000 0.869250000000 0.164399422000 8 0.684520000000 0.130750000000 5.766373518000 8 0.315480000000 0.130750000000 5.766373518000 8 0.184520000000 0.869250000000 0.164399422000 8 0.000000000000 0.321630000000 8.585586666000 8 0.500000000000 0.678370000000 2.983612570000 8 0.000000000000 0.961380000000 6.819842098000 8 0.500000000000 0.038620000000 1.217868002000 8 0.775010000000 0.741730000000 8.897617498000 8 0.724990000000 0.258270000000 3.295643402000 8 0.275010000000 0.258270000000 3.295643402000 8 0.224990000000 0.741730000000 8.897617498000 8 0.795320000000 0.537080000000 6.309146776000 8 0.704680000000 0.462920000000 0.707172680000 8 0.295320000000 0.462920000000 0.707172680000 8 0.204680000000 0.537080000000 6.309146776000 12 0.000055181143 0.642423246648 18.952805694939 12 0.499968712070 0.359091331327 13.316951631404 7 0.999972419819 0.607922549871 14.811931178503 7 0.500032820915 0.374493259165 20.607875452763 1 0.999967775128 0.761035687659 14.285224372371 1 0.500024408367 0.231282387067 19.980070581145 1 0.000049335267 0.630999080449 15.834297557834 1 0.500035578757 0.323113627197 21.592895058969 1 0.878965402060 0.512403220987 14.584972088385 1 0.621417580147 0.473429110408 20.448901068640 1 0.378637955989 0.473419664325 20.449096362978 1 0.120958490217 0.512389524338 14.584662707152 1 0.000038262428 0.286971264697 20.839026174200 1 0.499976846001 0.719030459798 15.208615937423 1 0.000031652857 0.183720331388 19.368757970078 1 0.499962587461 0.812393898264 13.708071297047 1 0.881129385187 0.025384175065 17.701709365846 1 0.618303319337 0.976323476423 12.023082502655 1 0.381680681554 0.976326416490 12.023029151635 1 0.118902081576 0.025399879088 17.701715179654 1 0.808205372618 0.815305089745 21.141212571392 1 0.705829500597 0.198701057668 15.514284350783 1 0.294143703130 0.198674577330 15.514249459923 1 0.191805105872 0.815194713566 21.140381020646 1 0.673115382056 0.844941364529 19.846899953099 1 0.823923510617 0.151506479347 14.146206321119 1 0.176023131841 0.151469318362 14.146216910114 1 0.327023452141 0.845010844051 19.846534283710 1 0.750367862943 0.386439470346 17.517960498796 1 0.749049653505 0.616905692785 11.854132909652 1 0.250894103625 0.616910590766 11.854150510245 1 0.249431259009 0.386569920248 17.514616398008 1 0.679248141518 0.637305821880 17.359340307128 1 0.820585570635 0.365779754992 11.718391108508 1 0.179348008233 0.365782935954 11.718380956392 1 0.320603511775 0.637411081575 17.355827105892 15 0.999982619790 0.989769973894 11.912791195026 15 0.500034066777 0.010109737474 17.586160551526 8 0.999977130250 0.008378372796 13.482219637594 8 0.500051774355 0.985803116254 19.155427625100 8 0.999972597569 0.224666739494 11.289761779305 8 0.500062864578 0.777524735121 16.932581966277 8 0.815197855894 0.866439171059 11.462825873575 8 0.684945889534 0.134772823386 17.153151542429 8 0.315114506494 0.134773647764 17.153214140889 8 0.184779657134 0.866458207976 11.462864231870 8 0.000168617074 0.326193905357 19.885342783193 8 0.499945718642 0.674248819743 14.254174402631 8 0.000017024920 0.969882792128 18.193667353551 8 0.499990453186 0.031286049422 12.518851429605 8 0.773875725590 0.744231064657 20.285639546306 8 0.725152330839 0.252886404241 14.580031105178 8 0.274798811878 0.252853533207 14.580022853290 8 0.226270437836 0.744208214236 20.284780629094 8 0.793051733553 0.543556473262 17.649841236387 8 0.707489281917 0.460063723256 12.013962650601 8 0.292446148266 0.460065205509 12.013963248493 8 0.206746930953 0.543696608054 17.645732574538 FREQCALC PREOPTGEOM ATOMONLY FRAGMENT 58 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 26 27 28 29 30 31 32 33 34 35 36 37 38 39 40 41 42 43 44 45 46 47 48 49 50 51 52 53 54 55 56 57 58 ENDOPT END BASISSET POB-DZVP-REV2 DFT B3LYP-D3 XLGRID END TOLINTEG 8 8 8 10 20 MAXCYCLE 200 SHRINK 2 2 LEVSHIFT 5 1 BIPOSIZE 60202400 EXCHSIZE 60202400 TOLDEE 10 END
  • 29 Topics
    101 Posts
    fbodo
    Dear @drmajouri2025, Could you provide us your .d3, .outp, and eventually the .f9 or the related .d12, so that we can try to find the issue?
  • Seek assistance, discuss troubleshooting tips for any technical problem you encounter and report bugs

    19 91
    19 Topics
    91 Posts
    Marco_Saccone
    Dear CRYSTAL developers, I would appreciate your help on the numerical DFT integration in a periodic calculation on an Einsteinium compound. I am using CRYSTAL23 public 1.0.1 (October 2022), PcrystalOMP, with unrestricted PBEsol and no SOC. The primitive cell contains 2 Es and 6 Cl atoms, with 180 explicit electrons. The basis sets are Es_ERD_SMALL_CORE_PP_4F_IN_VALENCE_NO_G_2017 and Cl_pob_TZVP_rev2, which were downloaded from the CRYSTAL website. Es uses the scalar ECP60MWB, replacing 60 core electrons per atom. Gaussian exponents, contractions and ECP terms are unchanged; CHE occupations were set for an Es3+/Cl− initial guess. The analytical/Mulliken electron count is 180, but the DFT parameters report: ATOM ELECTRONS NET CHARGE R(ANGSTROM) 1 299 QC 36.0000 0.0000 0.00000529 3 17 CL 18.0000 -1.0000 1.81000000 Earlier RADIUS attempts with selectors 299 and 99 did not change the printed Es radius. I have also performed three controlled GUESSP restarts using the same checkpoint and MAXCYCLE = 1. The following values refer to the initial density, before its first SCF update: he following values refer to the initial density, before its first SCF update: Configuration Earlier XLGRID reference Numerically integrated electrons 230.5302349807 Configuration T1: XLGRID, RADIUS 39 1.30 and Cl control 17 1.50 Numerically integrated electrons 225.2419084303 Configuration T2: dense grid, 4 MPI × 5 OMP Numerically integrated electrons 183.1163944507 Configuration T3: identical dense input, 1 MPI × 1 OMP Numerically integrated electrons 183.1163944507 In T1, the Cl radius correctly changes to 1.50 Å, while the Es radius remains unchanged. Selector 39 was only a diagnostic hypothesis. T2/T3 use 150 radial points, an unpruned angular grid with Lebedev level 18 (1454 points), TOLLDENS 10 and TOLLGRID 18. Their initial analytical count and spin remain 180 and 8, respectively. The cycle 0 energy changes from −4481.917602872 Eh with the reference grid to −4251.426787439 Eh with the dense grid. T2 and T3 agree in both numerical electron count and cycle 0 energy. An ATOSCF warning occurred during the earlier Es atomic guess calculation, but is absent from these GUESSP diagnostics. The SCF cycle-limit termination is intentional. What I would like to understand: Is the 299 QC entry and its very small DFT radius expected for Es with this official basis/ECP? Such a small radius (well below the proton radius) looks suspicious What is the supported way to control the integration radius or grid for this center? Is this behavior associated with a known limitation of this build, and what numerical settings or correction would you recommend? Exact inputs and complete outputs are attached. T2 and T3 share the same dense-grid input; the corresponding restart checkpoint is available if needed for reproduction. Thanks in advance for your time -MS- [email protected] EsCl3_reference_XLGRID.out EsCl3_T3_dense_1MPI_1OMP.out EsCl3_T2_dense_4MPI_5OMP.out EsCl3_T1_radius39.out EsCl3_T1_radius39.d12 EsCl3_dense_grid.d12
  • Discuss tools and techniques for visualizing simulated data

    6 20
    6 Topics
    20 Posts
    dmitoli
    Dear CRYSTAL community, We would like to introduce the beta release of CRYSTALLine, a new desktop app to display and edit structures for CRYSTAL, to animate phonon modes, and to plot the properties a calculation returns. It's cross-platform: it runs on Linux, macOS and Windows. It is built on CRYSTALClear, and is free software under the GNU GPL v3. CRYSTALLine follows in the tradition of MOLDRAW, written by Prof. Piero Ugliengo, which served this community for over twenty years: a program on your own machine for looking at a structure and editing it. [image: screen3.png] What it does Handling of CRYSTAL outputs, .gui/.f34 and CIF files, each in a tab of its own, with crystallographic and calculation data beside it. Automated live detection of symmetry (through spglib). Easy structure editing through drag-and-drop: add, move, delete or change atoms, build supercells, switch between primitive and crystallographic settings. Animation of vibrational modes of a frequency calculation, including out-of-Γ phonons with several exporting options. Input builder for CRYSTAL (.d12) and PROPERTIES (.d3) from the structure on screen. First Brillouin Zone visualiser and k-path selection. Advanced plotting tools (from CRYSTALClear): electronic and phonon band structure, densities of states, IR and Raman spectra (harmonic and anharmonic), elastic surfaces and sections, equations of state, and simulated XRD patterns. Most plots have their options beside them and are redrawn as these are changed. Visualisation of crystalline orbitals, charge density and electrostatic potential over the structure as isosurfaces or as slices along a lattice plane. Installing It needs Python 3.11 or newer, best in an environment of its own: conda create --name crystal python=3.12 conda activate crystal pip install CRYSTALLine crystalline The documentation has a small MgO example to try it, with a band structure and a phonon dispersion. This is a beta Accidents may take place. We would be grateful for reports of anything that fails or looks wrong, either in reply to this post or at github.com/crystaldevs/CRYSTALLine/issues. Suggestions for what to add next are more than welcome too. Links Documentation: crystaldevs.github.io/CRYSTALLine Source code: github.com/crystaldevs/CRYSTALLine PyPI: pypi.org/project/CRYSTALLine Give it a try!
  • Communications for the community and updates on upcoming events

    8 10
    8 Topics
    10 Posts
    GiacomoAmbrogio
    The Department of Chemistry and the Thomas Young Centre at Imperial College London and the Theoretical Chemistry Group of the University of Torino , in collaboration with the Computational Materials Science Group of the Science and Technology Facilities Council (STFC), are organising the [image: logo0.png] MSSC2026 Summer School on Ab initio Modelling in Solid State Chemistry The School is designed for Master and Ph.D. students, as well as for post-docs and researchers who have an interest in getting or strengthening a background in: ️ Computational Solid State Chemistry 🧠 Physics 🧱 Materials Science Surface- and Nano-Science The week-long School consists of morning lectures and afternoon hands-on tutorial sessions, where the formal framework and functionalities of the CRYSTAL electronic structure package will be explored. While we strongly encourage in-person participation, we also offer the possibility to attend remotely through streaming of morning lectures and afternoon hands-on tutorials. Participants will have the opportunity to present their research at a poster session. You can register here! Friday 8 May - Deadline for payment of early bird fees. See the School website for further details.
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  • CRYSTALClear

    CRYSTALClear is an open source project that provides an easy Python interface with CRYSTAL. The package allows you to quickly extract information from the CRYSTAL output files and to easily generate customizable plots...


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