Exemplo n.º 1
0
  def spectrum_cb(self, name):

    spectrum = sputil.name_to_spectrum(name, self.session)
    if spectrum and spectrum.dimension == 2:
      for a in range(2):
        self.matrix_size.variables[a].set(spectrum.data_size[a])
      self.save_path.set(spectrum.data_path + '.corma')
Exemplo n.º 2
0
    def spectrum_cb(self, name):

        spectrum = sputil.name_to_spectrum(name, self.session)
        if spectrum == None:
            return

        if spectrum.dimension == 3:
            self.w3_range_widget.pack(side='left', anchor='w')
            self.line_format = '%20s %5s %7s %s'
        else:
            self.w3_range_widget.pack_forget()
            self.line_format = '%15s %5s %7s %s'

        default_ppm_range = {'1H': .02, '13C': .2, '15N': .2}
        for a in range(spectrum.dimension):
            nucleus = spectrum.nuclei[a]
            if default_ppm_range.has_key(nucleus):
                ppm_range = default_ppm_range[nucleus]
            else:
                ppm_range = .02
            self.ppm_range[a].set('%.2f' % ppm_range)
Exemplo n.º 3
0
  def spectrum_cb(self, name):

    spectrum = sputil.name_to_spectrum(name, self.session)
    if spectrum == None:
      return

    if spectrum.dimension == 3:
      self.w3_range_widget.pack(side = 'left', anchor = 'w')
      self.line_format = '%20s %s %7s %s'
    else:
      self.w3_range_widget.pack_forget()
      self.line_format = '%15s %s %7s %s'

    default_ppm_range = {'1H':.02, '13C':.2, '15N':.2}
    for a in range(spectrum.dimension):
      nucleus = spectrum.nuclei[a]
      if default_ppm_range.has_key(nucleus):
        ppm_range = default_ppm_range[nucleus]
      else:
        ppm_range = .02
      self.ppm_range[a].set('%.2f' % ppm_range)
Exemplo n.º 4
0
                      '15380') # this bmrb code is GB1 from Rienstra group
elif idx == 2: # SHIFTX
  reference_shift = \
    s.show_inputdialog('SHIFTX2', 
                  'Paste SHIFTX2 CSV URL path or drop the file.', 
                  'http://www.shiftx2.ca/wkdir/1611508737/2KQ4.cs')
        # this shiftx2 url is my prediction with 2KQ4 PDB (also GB1)
else: # use pacsy chemical shift database prediction (default)
  reference_shift = 'pacsy' 

# use existing assignments
use_resonances = True

# spectrum to be simulated
from sputil import name_to_spectrum
spec = name_to_spectrum(spec_name, s)
if spec == None:
  s.show_message('Error', 'Spectrum is not set properly.')
  raise SystemExit

exp_list = ['2D-NCA', '2D-NCACB', '2D-NCO', '2D-CC', 'NCACB', 'NCACX', 
  'NCACO', 'NCOCA', 'NCOCACB', 'NCOCX', 'CANCO', 'CAN(CO)CX']
if spec.dimension == 2:
  avail_exp_list = exp_list[0:4]
elif spec.dimension == 3:
  avail_exp_list = exp_list[4:]
else:
  s.show_message('Error', '4D spectrum is not set supported.')
  raise SystemExit

idx = s.show_selectionexdialog('Experiment', 
Exemplo n.º 5
0
# To run this script:
#   In Poky Notepad,
#     File -> Run Python Module
#
#

import numpy as np
import nmrglue as ng
from skimage.restoration import denoise_tv_bregman
from sputil import name_to_spectrum
# POKY libraries
import __main__

s = __main__.main_session
specname = s.show_spectrumselectiondialog('Select a spectrum', 0)
sp = name_to_spectrum(specname, s)

if sp == None:
    raise SystemError

import os.path

noisy_path = s.save_filedialog('Provide a name for saving the noisy spectrum',
                               'UCSF (*.ucsf);; Any (*)',
                               os.path.dirname(sp.data_path))
if noisy_path == '':
    raise SystemError

denoise_path = s.save_filedialog(
    'Provide a name for saving the de-noised spectrum',
    'UCSF (*.ucsf);; Any (*)', os.path.dirname(sp.data_path))
Exemplo n.º 6
0
    return a * np.exp(-1 * x / b)


from sputil import name_to_spectrum, sort_peaks_by_assignment
import numpy as np
import matplotlib.pyplot as plt
from scipy.optimize import curve_fit
from matplotlib import use as matplotlib_use
matplotlib_use('TkAgg')

# (time) parameters
xdataT1 = np.array(list(map(lambda sp: sp[1], T1_spec_list)))
xdataT2 = np.array(list(map(lambda sp: sp[1], T2_spec_list)))

# get spectrum instances first
spT1_list = list(map(lambda sp: name_to_spectrum(sp[0], s), T1_spec_list))
spT2_list = list(map(lambda sp: name_to_spectrum(sp[0], s), T2_spec_list))

if None in spT1_list:
    none_name = T1_spec_list[spT1_list.index(None)][0]
    print('T1 experiment (' + none_name +
          ') does not exist in your spectrum list.')
    raise SystemExit

if None in spT2_list:
    none_name = T2_spec_list[spT2_list.index(None)][0]
    print('T2 experiment (' + none_name +
          ') does not exist in your spectrum list.')
    raise SystemExit

Exemplo n.º 7
0
# Exclude from cond_list using excl_cond_list
cond_list = [x for x in cond_list if x not in excl_cond_list]

# define function for making ROI list
# this can be replaced by custom definition like above
# we can use view name. we do not cluster by view names here
# however, it can be considered to make a rule to do that.
def make_ROIs(spec):
  ROI_list = []
  for view in s.project.view_list():
    if view.spectrum == spec and view.name != spec.name:
      ROI_list.append([view.name, view.name])
  return ROI_list

# for unit conversion
ref_spec = name_to_spectrum(ref_specname, s)
ppm_per_pt = (ref_spec.spectrum_width[0] / (ref_spec.data_size[0] - 1),
              ref_spec.spectrum_width[1] / (ref_spec.data_size[1] - 1))

# define function for boxing integration
# spec is a spectrum to analyze
from itertools import product
def box_sum(spec, region):
  npoints = (int((region[1][0] - region[0][0]) / ppm_per_pt[0]),
            int((region[1][1] - region[0][1]) / ppm_per_pt[1]))
  
  it_list = list(product(range(npoints[0]), range(npoints[1])))
  hts = []
  for i in range(npoints[0]):
    x = region[1][0] - ppm_per_pt[0] * i
    for j in range(npoints[1]):
Exemplo n.º 8
0
exp_func = t_exp_func
#exp_func = sea_exp_func # if sea-hsqc experiments

from sputil import name_to_spectrum
import numpy as np
import matplotlib.pyplot as plt
from scipy.optimize import curve_fit
from matplotlib import use as matplotlib_use
matplotlib_use('TkAgg')

# (time) parameters
xdata = np.array(list(map(lambda sp: sp[1], spec_list)))

# get spectrum instances first
sp_list = list(map(lambda sp: name_to_spectrum(sp[0], s), spec_list))

if None in sp_list:
  none_name = spec_list[sp_list.index(None)][0]
  print(none_name + ' does not exist in your spectrum list.')
  raise SystemExit

# collect reference peaks and positions from the first spectrum
# assignment needed!
ref_peaks = sp_list[0].peak_list()
# ref_peaks = sp_list[0].selected_peaks() # if only selected peaks preferred

# sort peaks by assignment
from sputil import sort_peaks_by_assignment
sorted_peaks = sort_peaks_by_assignment(ref_peaks, False)
Exemplo n.º 9
0
outName = s.save_filedialog('Save your new restraint file as...',
            'DIANA UPL file (*.upl);; XPLOR TBL file (*.tbl);; Any (*)', '')

# Processing start
from sputil import name_to_spectrum, sort_peaks_by_assignment, parse_assignment_entirely
import numpy as np

A_dict = {'C': 'CYS', 'D': 'ASP', 'S': 'SER', 'Q': 'GLN', 'K': 'LYS',
     'I': 'ILE', 'P': 'PRO', 'T': 'THR', 'F': 'PHE', 'N': 'ASN',
     'G': 'GLY', 'H': 'HIS', 'L': 'LEU', 'R': 'ARG', 'W': 'TRP',
     'A': 'ALA', 'V':'VAL', 'E': 'GLU', 'Y': 'TYR', 'M': 'MET'}

import nomenclature
upl_list = []
for sp in spec_list:
  spec = name_to_spectrum(sp, s)
  if spec == None:
    print('%s spectrum does not exist.' % (sp))
    raise SystemError

  dMin, dMax = 10**13, -10**13
  peaks = spec.spectrum().peak_list()
  if len(peaks) == 0: continue

  peak_list = []

  for peak in peaks:
    nuc = spec.nuclei
    freq = peak.frequency
    if peak.is_assigned == 0 or peak.data_height == None: continue
    if no_diagonal and abs(freq[0] - freq[1]) < res[nuc[0]]: continue
Exemplo n.º 10
0
print('------------------------------------------------------')

import __main__
s = __main__.main_session
proj = s.project

# Parameters
ref_spec_name = s.show_spectrumselectiondialog('Reference spectrum', 0).strip()
noe_spec_name = s.show_spectrumselectiondialog('NOE spectrum', 0).strip()
only_selected = False  # Use all assigned peaks if False
error_bar = True  # Draw error bar if True

# Processing start
from sputil import name_to_spectrum, sort_peaks_by_assignment

ref_spec = name_to_spectrum(ref_spec_name, s)
noe_spec = name_to_spectrum(noe_spec_name, s)

if ref_spec == None:
    print('Reference spectrum name %s is wrong.' % ref_spec_name)
    raise SystemExit
if noe_spec == None:
    print('NOE spectrum name %s is wrong.' % ref_spec_name)
    raise SystemExit

# collect peaks and sort by number
temp_peaks = []
for p in ref_spec.peak_list():
    if only_selected and p.selected == 0:
        continue
    if None not in p.resonances() and p.is_assigned == 1:
Exemplo n.º 11
0
# To run this script:
#   In Poky Notepad,
#     File -> Run Python Module
#
#

import numpy as np
import nmrglue as ng
from sputil import name_to_spectrum

# POKY libraries
import __main__
s = __main__.main_session

specname = s.show_spectrumselectiondialog('Select spectrum one', 0)
sp = name_to_spectrum(specname, s)

if sp == None:
    raise SystemError

specname2 = s.show_spectrumselectiondialog('Select spectrum two', 0)
sp2 = name_to_spectrum(specname2, s)

if sp2 == None:
    raise SystemError

scale_offset = np.array(sp.scale_offset) - np.array(sp2.scale_offset)

import os.path
new_path = s.save_filedialog('New spectrum name', 'UCSF (*.ucsf);; Any (*)',
                             os.path.dirname(sp.data_path))
Exemplo n.º 12
0
  def spectrum(self):

    return sputil.name_to_spectrum(self.get(), self.session)