Update to support i18n & logging

- Add --log-file option
- Add internationalization support with gettext
- Add logging featur
- Remove verbosity flag
- Update string formatting
- Fix Plate::set_border method
This commit is contained in:
linarphy 2023-08-25 17:24:12 +02:00
parent d51bd3ec9c
commit 8b604d8ae2
No known key found for this signature in database
GPG key ID: 3D4AAAC3AD16E79C

View file

@ -1,7 +1,13 @@
from numpy import ndarray, argmax, max, quantile, arange, where, convolve, ones
from numpy import ndarray, gradient, ones, argmax, arange, arctan, tan
from scipy.optimize import curve_fit
from scipy.signal import convolve
from cv2 import getRotationMatrix2D, warpAffine, INTER_NEAREST
from classes.science.border import Border
from function.utils import find_point, fill
from function.fit import linear
from logging import getLogger
from gettext import gettext as _
class Plate:
"""
@ -10,15 +16,17 @@ class Plate:
def __init__( self , data ):
if not isinstance( data , ndarray ):
raise TypeError( 'data must be a ndarray' )
raise TypeError( _( 'data must be a ndarray' ) )
if len( data.shape ) != 2:
raise ValueError( _( 'data must be a 2d matrix' ) )
self.data = data
self.set_border()
def set_border( self , factor = 10 ):
def set_border( self ):
"""
Set current border (without area outside the plate)
"""
compressed = self.compress( factor )
compressed , factor = self.compress()
points = self.get_points( compressed )
self.border = Border()
@ -39,24 +47,45 @@ class Plate:
taken_points = fill(
compressed,
point ,
1000 , # intensity threshold
2000 , # intensity threshold
)
x = [ taken_point[1] for taken_point in taken_points ]
y = [ taken_point[0] for taken_point in taken_points ]
if max( x ) < x_half:
if self.border.x.min < max( x ):
self.border.x.min = max( x ) # biggest min
elif min( x ) > x_half: # elif to only accept one side
if self.border.x.max > min( x ):
self.border.x.max = min( x ) # smallest max
elif max( y ) < y_half:
if self.border.y.min < max( y ):
self.border.y.min = max( y ) # same
elif min( y ) > y_half:
if self.border.y.max > min( y ):
self.border.y.max = min( y ) # same
"""
matrix = ones( compressed.shape )
for taken_point in taken_points:
matrix[ taken_point[0] , taken_point[1] ] = 0
import matplotlib.pyplot as plt
plt.plot(
[ point[1] ] ,
[ point[0] ] ,
linestyle = '' ,
marker = 'x' ,
markersize = 15 ,
markeredgecolor = 'red',
markeredgewidth = 5 ,
)
plt.imshow( compressed , aspect = 'auto' )
plt.imshow( matrix , aspect = 'auto' , alpha = 0.5 )
plt.show()
"""
if len( x ) > 5 and len( y ) > 5:
if max( x ) < x_half:
if self.border.x.min < max( x ):
self.border.x.min = max( x ) # biggest min
elif min( x ) > x_half:
# elif to only accept one side
if self.border.x.max > min( x ):
self.border.x.max = min( x ) # smallest max
elif max( y ) < y_half:
if self.border.y.min < max( y ):
self.border.y.min = max( y ) # same
elif min( y ) > y_half:
if self.border.y.max > min( y ):
self.border.y.max = min( y ) # same
offset = 3
@ -116,36 +145,93 @@ class Plate:
return first_column + last_column + first_line + last_line
def compress( self , factor ):
def compress( self ):
"""
Compress the plate data to fit the biggest dimension in a 1000
pixels axis and the smallest in a 100 pixels axis at minimum.
Return the compressed data and the compression factor used.
"""
min_factor = max( self.data.shape ) // 1000 # min factor to have a side
# with a maximum of 1000 pixels
max_factor = min( self.data.shape ) // 100 # max factor to have
# a side with a minimum of 100 pixel
if min_factor < max_factor:
factor = int( mean( ( max_factor , min_factor ) ) )
else: # the smallest side will be less than 100 pixels with the
# minimum compression factor
logger = getLogger( 'naroo reader' )
logger.warning(
_( (
'slow compression: ratio between height and width'
' is greater than 10 ({ratio:.2f})'
) ).format(
ratio = max( self.size() ) / min( self.size() )
)
)
factor = max_factor
return self.data[
: : factor,
: : factor,
]
] , factor
def middle( self ):
"""
Get coordinate of center
"""
return (
self.size()[0] // 2,
self.size()[1] // 2,
)
def rotate( self ):
"""
Auto-rotate to be vertically and horizontally aligned
"""
maxes = max(
self.data[ self.border.slice() ],
axis = 0 ,
)
indexes = where(
maxes > quantile( maxes , 0.5 )
indexes_max = argmax(
convolve(
self.data[
1 * self.border.y.size() // 4:
3 * self.border.y.size() // 4,
1 * self.border.x.size() // 4:
3 * self.border.x.size() // 4
] ,
ones( ( 500 , 1 ) ),
'valid' ,
) ,
axis = 0,
)
abciss = arange(
self.border.x.min,
self.border.x.max
)[ indexes ]
indexes_max = argmax(
self.data[ self.border.slice() ],
axis = 0 ,
)[ indexes ]
indexes_max = convolve(
indexes_max ,
ones( 100 ) ,
'same' ,
) / 100
import matplotlib.pyplot as plt
plt.plot( abciss , indexes_max )
plt.show()
1 * self.border.x.size() // 4,
3 * self.border.x.size() // 4
)
fit_result = curve_fit(
linear ,
abciss ,
indexes_max,
)[0]
angle = arctan( fit_result[0] ) # rad
diff = int( # adjust height border
tan( angle ) * ( self.border.x.size() )
)
rotation_matrix = getRotationMatrix2D(
self.middle(),
angle ,
1 ,
)
self.data = warpAffine(
self.data ,
rotation_matrix,
self.size() ,
flags = INTER_NEAREST,
)
self.border.y.min -= diff
self.border.y.max -= diff
def size( self ):
"""
get plate size
"""
return self.data.shape