([sp_pixsiz],[r2],[alignsh],[prj-radius],[iter1],[iter-end],[sphdecon],[smallang-yn],[qsub],[incore-yn],[gold-std],[bp-type]) ; ;
; ; SOURCE: spider/docs/techs/recon1/Procs/refine_settings.spi ; New ArDean Leith Jul 2002 ; [] variables ArDean Leith Dec 2005 ; Rewritten, more stacks ArDean Leith Dec 2006 ; Variable assignment ArDean Leith Jan 2010 ; Even-odd replaced ArDean Leith Jan 2011 ; Dala removal ArDean Leith Jan 2012 ; [pixsiz] returned, fsc, ofsc... ArDean Leith Aug 2012 ; Skip 3.3,3... ArDean Leith Sep 2012 ; For CTF corrected images ArDean Leith Oct 2013 ; For gold standard reconstruction ArDean Leith May 2014 ; Added spherical deconvolution ArDean Leith Jan 2016 ; Inlined params, changed dirs ArDean Leith Mar 2016 ; ; INPUT REGISTERS: None ; ; OUTPUT REGISTERS: ; [sp_pixsiz] Pixel size (A) ; [r2] Object alignment radius (pixels) ; [alignsh] Alignment shift +- allowed (pixels) ; [prj-radius] Object projection radius (pixels) ; [iter1] Starting iteration ; [iter-end] Ending iteration ; [sphdecon] Spherical deconvolution angle (degrees) ; [smallang-yn] Small angle refinement flag (1 == True) ; [qsub] Specifies que type (1 == use PBS) ; [incore-yn] Incore files (1 == true) ; [gold-std] Use 'gold-standard' work-flow (1 == True) ; [bp-type] Backprojection method (2 == 'BP 3F') ; ; ; ------------- Adjust these parameters for your project --------------- EDIT ----- [qsub] = 1 ; Specifies que (1 == use PBS, 2 == PBS with memory estimate, 0 == use PubSub, <0 == none) [diam] = 420 ; Diameter of the object (A), used to find radius for alignment. [sp_pixsiz] = 1.68 ; Pixel size from 'params.spi' file (A) [sp_winsiz] = 280 ; Window size from 'params.spi' file (pixels) [win-frac] = 0.95 ; Fraction of window diameter used in projection (0.95 == 95%) [incore-yn] = 1 ; Load input images into incore stack (>0 == yes we have enough memory) [alignsh] = 8 ; Alignment shift (pixels) searched is +- this value [iter1] = 1 ; Starting alignment step (iteration) [iter-end] = 12 ; Ending alignment step (iteration) [bp-type] = 2 ; Backprojection method (1=='BP CG', 2=='BP 3F', 3=='BP RP', 4=='BP 3N') [sphdecon] = 0 ; Spherical deconvolution angle in degreees (0 == Do not deconvolve) [gold-std] = 1 ; Use 'gold-standard resolution' work-flow (1 == use gold, 0 == use legacy) ; Following two string variables are used during usual refinement (one value / iteration) (Set for up to: 20 iterations) !GLO [ang-steps] = '15,10,3.3,3,2, 2,2,1.5,1.5,1.5, 1.5,1.5,1.5,1.5,1.5, 1.5,1.5,1.5,1.5,1.5' ; Angular separation (degrees) GLO [ang-steps] = '15,3.3,3, 2,2, 2,1.5,1.5,1.5,1.5, 1.5,1.5,1.5,1.5,1.5, 1.5,1.5,1.5,1.5,1.5' ; Angular separation (degrees) !GLO [ang-limits] = '0,0,0, 0,15, 8,6,5,5,5, 5,5,5,5,5, 5,5,5,5,5' ; Angular separation limits (degrees) GLO [ang-limits] = '0,0,0, 15,8, 6,5,5,5,5, 5,5,5,5,5, 5,5,5,5,5,5' ; Angular separation limits (degrees) ; Following string variable is used to activate OPTIONAL amplitude enhancement (Set for up to: 20 iterations) GLO [amp-enhance-flags] = '0,0,0,0,0, 0,0,0,0,0, 0,0,0,0,0, 0,0,0,0,0' ; Amplitude enhancement selector [smallang-yn] = 0 ; Use small angle refinement instead of regular (1 == Yes) ; Following two global register variables are only used during 'small angle refinement' GLO [ang-step-sm] = 5 ; Angular degree step GLO [theta-sm] = 2.0 ; Theta range ; ----------------- Original input files --- May have to EDIT these names, These files must exist ------ GLO [in_dir] = '../win_1' ; Dir. for starting selection files GLO [out_dir] = '../final_1/' ; Dir. for significant output files GLO [sel_group] = '[in_dir]/sel_group' ; Group selection doc file (one) GLO [sel_parts] = '[in_dir]/sel_part_{***[grp]}' ; Particle selection doc files (one/group) GLO [vol_orig] = '[in_dir]/reference_volume_fqnp' ; Initial reference volume (one) ; This variable: [unaligned_images] must be an absolute path to images or a link to an absolute path! GLO [unaligned_images] = '[in_dir]/data_{***[grp]}' ; Original unaligned images stack (one/group) ; OPTIONAL files needed if using amplitude enhancement GLO [scattering_doc] = '[in_dir]/scattering' ; OPTIONAL enhancement doc file (one) GLO [mask] = '[in_dir]/mask' ; OPTIONAL mask for enhancement (one) ; OPTIONAL local dir for speeding up parallel use GLO [local_work_dir] = '/scratch' ; OPTIONAL local scratch dir for parallel use (one) ; OPTIONAL doc file needed if using symmetry GLO [symmetry_doc] = '*' ; OPTIONAL symmetry doc file for 'back projection' (one) ; OPTIONAL initial alignment parameter doc file if starting from reconstruction !GLO [group_align_orig] = '[in_dir]/align_{**[iter]}_{***[grp]}' ; OPTIONAL Initial alignment parameter file (one/group) GLO [group_align_orig] = '*' ; OPTIONAL Initial alignment parameter file (one/group) ; -------------- Output files -- Usually no need to edit for default refinement --------------------- GLO [work_dir] = 'work/' ; Work dir (one) GLO [sel_parts_s] = '[sel_parts]_s{*[s]}' ; Particle subset selection doc file (two/group) GLO [vol] = '[out_dir]/vol_{**[iter]}' ; Current volume GLO [vol_s] = '[vol]_s{*[s]}' ; Current subset volume (two/iter) GLO [next_vol] = '[out_dir]/vol_{**[next-iter]}' ; Next volume (one/iter) GLO [next_vol_s] = '[next_vol]_s{*[s]}' ; Next subset volume (two/iter) GLO [group_vol_stem] = '[work_dir]/vol_{**[iter]}_{***[grp]}_***' ; Current group volume (one/group/iter) GLO [group_vol_s] = '[work_dir]/vol_{**[iter]}_{***[grp]}_s{*[s]'; Current group subset volumes (two/group/iter) GLO [next_group_vol] = '[work_dir]/vol_{**[next-iter]}_{***[grp]}' ; Next group volume (one/group/iter) GLO [next_group_vol_stem] = '[work_dir]/vol_{**[next-iter]}_***_s{*[s]}' ; Next subset group volume stem GLO [next_group_vol_s] = '[next_group_vol]_s{*[s]}' ; Next subset group volume (two/group/iter) GLO [group_align] = '[out_dir]/align_{**[iter]}_{***[grp]}' ; Group alignment doc file GLO [group_align_s] = '[group_align]_s{*[s]}' ; Group subset alignment doc files (two/group/iter) GLO [next_group_align] = '[out_dir]/align_{**[next-iter]}_{***[grp]}' ; Next group alignment doc file GLO [next_group_align_s] = '[next_group_align]_s{*[s]}' ; Next group subset alignment doc file (one/group/iter) GLO [iter_refangs] = '[work_dir]/ref_angs_{**[iter]}' ; Reference angle file (one/iter) GLO [iter_refangs_grp] = '[work_dir]/ref_angs_{**[iter]}_{***[grp]}' ; Reference projection angles doc file (one/group/iter) (deleted) GLO [ref_projs_s] = '[work_dir]/ref_projs_{**[iter]}_s{*[s]}' ; Subset reference projections (one/iter) GLO [ref_projs_s_grp] = '[ref_projs_s]_{***[grp]}@' ; Subset group reference projections (two/group/iter) (deleted) GLO [fsc_mask] = '[out_dir]/fsc_mask' ; Mask for FSC (one) GLO [next_u_fsc] = '[out_dir]/fscdoc_u_{**[next-iter]}' ; Unmasked FSC curve doc file (one/iter) GLO [next_m_fsc] = '[out_dir]/fscdoc_m_{**[next-iter]}' ; Masked FSC curve doc file (one/iter) GLO [m_fsc] = '[out_dir]/fscdoc_m_{**[iter]}' ; Masked FSC curve doc file (one/iter) GLO [fsc_plots] = 'fsc_iter.gpl' ; Gnuplot script for FSC plotting (one) GLO [iter_resol] = '[out_dir]/resolutions' ; Overall resolution doc file (one) GLO [ang_voea] = '[out_dir]/angvoea' ; OPTIONAL, Small angle refinement ref. angles (one/group/iter) GLO [ang_vora] = '[out_dir]/angvora_{**[iter]}_{***[grp]}' ; OPTIONAL, Small angle refinement ref. angles (one/group/iter) GLO [temp_ref_projs] = '_5@' ; OPTIONAL, Small angle refinement local scratch file (deleted) GLO [enhance_doc] = '[work_dir]/enhance_doc_{**[next-iter]}' ; OPTIONAL, Enhancement doc file output (one/iter) GLO [ref_rings] = '[work_dir]/SCR_{**[iter]}_{***[grp]}' ; OPTIONAL, Reference rings files output (one/group/iter) GLO [wait_file] = 'jnk_waited_***' ; OPTIONAL, Created when local copy finished (one/group) GLO [finished_file] = 'jnk_sync_{****[rn]}_' ; OPTIONAL, Created when parallel segment finished (one/group) GLO [temp_in_images] = '_8@' ; OPTIONAL, Used by alignment & back projection internally GLO [temp_out_images] = '[work_dir]/dala_{***[grp]}@' ; OPTIONAL, Used if [incore-yn] == 0 or small angle ref. (deleted) ; ----------------- END BATCH HEADER --------------------------------- ; ---- Should not need to adjust following parameters -------------------------- [r2] = INT([diam]/(2.0*[sp_pixsiz])) ; Alignment radius (pixels) used in alignment search ; Ensure that sum of alignment radius + translation is within window dimensions [ring-sh] = [r2] + [alignsh] ; Last ring + translation step [maxrad] = INT([sp_winsiz]/2) - 1 ; Max radius of object in window IF ( [ring-sh] >= [maxrad] ) THEN ; Must reduce radius of outer ring, not translation step [r2] = [maxrad] - [alignsh] - 2 ; Reduces rotational search radius ENDIF [prj-radius] = INT(([win-frac]*[sp_winsiz])/2.0 ) ; Convert fraction to pixel radius RE ;