def char_table_data(text, modulo = 9):
# initialize data dictionary, split text to columns: #, letter, translit, num, sum, mod, word
data = dict([key, []] for key in ['letter', 'transliteration', 'isopsephy', 'word'])
# character chart
# split words
for word in _init_text(text).split():
# split letters
for idx, letter in enumerate(word):
#data['index'].append(idx)
data['letter'].append(letter)
data['transliteration'].append(to_roman(letter.encode('utf-8')))
data['isopsephy'].append(isopsephy(letter.encode('utf-8')))
data['word'].append(word)
data = pd.DataFrame(data)
# word summary from character chart
gb = data.groupby('word')
data2 = gb.sum()
data2['characters'] = gb['word'].apply(len)
data2['digital_sum'] = data2['isopsephy'].apply(digital_sum)
data2['digital_root'] = data2['isopsephy'].apply(digital_root)
# phrase summary from word summary
s = data2.sum()
data3 = pd.DataFrame({'digital_root': [digital_root(s.isopsephy)],
'characters': [s.characters],
'digital_sum': [digital_sum(s.isopsephy)],
'isopsephy': [s.isopsephy],
'phrase': text})
return (data, data2, data3)
def char_table_data(text, modulo=9):
# initialize data dictionary, split text to columns: #, letter, translit, num, sum, mod, word
data = dict([key, []]
for key in ['letter', 'transliteration', 'isopsephy', 'word'])
# character chart
# split words
for word in _init_text(text).split():
# split letters
for idx, letter in enumerate(word):
#data['index'].append(idx)
data['letter'].append(letter)
data['transliteration'].append(to_roman(letter.encode('utf-8')))
data['isopsephy'].append(isopsephy(letter.encode('utf-8')))
data['word'].append(word)
data = pd.DataFrame(data)
# word summary from character chart
gb = data.groupby('word')
data2 = gb.sum()
data2['characters'] = gb['word'].apply(len)
data2['digital_sum'] = data2['isopsephy'].apply(digital_sum)
data2['digital_root'] = data2['isopsephy'].apply(digital_root)
# phrase summary from word summary
s = data2.sum()
data3 = pd.DataFrame({
'digital_root': [digital_root(s.isopsephy)],
'characters': [s.characters],
'digital_sum': [digital_sum(s.isopsephy)],
'isopsephy': [s.isopsephy],
'phrase': text
})
return (data, data2, data3)
def char_table(text, modulo=9):
# initialize html table
tbl = table(Class="char-table")
# add caption / table title
tbl.addCaption(text)
# add data rows
tr1 = h.tr() # greek letters
tr2 = h.tr() # roman letters
tr3 = h.tr() # isopsephy number
tr4 = h.tr() # summary
i = 0
text = unicode(text, encoding="utf-8")
for word in text.split():
if i > 0:
# add empty cells for word separation
tr1 << h.th(" ") + h.th(" ")
tr2 << h.td() + h.td(Class="empty-cell")
tr3 << h.td() + h.td(Class="empty-cell")
tr4 << h.td() + h.td()
num = unicode_isopsephy(word)
tr4 << h.td("%s %s" % (num, h.sub(digital_root(num))),
colspan=len(word))
i = i + 1
# add each letter on own cell
for letter in word:
tr1 << h.th(letter.encode('utf-8'))
tr2 << h.td(to_roman(letter.encode('utf-8')))
tr3 << h.td(unicode_isopsephy(letter))
# add rows to table
tbl.addHeadRow(tr1)
tbl.addBodyRow(tr2)
tbl.addBodyRow(tr3)
tbl.addFootRow(tr4)
# add summary footer for table
num = unicode_isopsephy(text)
tbl.addFootRow(
h.tr(
h.td("%s %s" %
(num, h.sub(digital_sum(num), " / ", digital_root(
num, modulo))),
colspan=len(text) + len(text.split()),
style="border-top: solid 1px #ddd")))
return tbl
def char_table(text, modulo = 9):
# initialize html table
tbl = table(Class="char-table")
# add caption / table title
tbl.addCaption(text)
# add data rows
tr1 = h.tr() # hebrew letters
tr2 = h.tr() # roman letters
tr3 = h.tr() # gematria number
tr4 = h.tr() # summary
i = 0
text = unicode(text, encoding="utf-8")
for word in text.split():
if i > 0:
# add empty cells for word separation
tr1 += h.th(" ")
tr1 += h.th(" ")
tr2 += h.td()
tr2 += h.td(Class="empty-cell")
tr3 += h.td()
tr3 += h.td(Class="empty-cell")
tr4 += h.td()
tr4 += h.td()
num = unicode_gematria(word)
tr4 += h.td("%s %s" % (num, h.sub(digital_root(num))), colspan=len(word))
i = i+1
# add each letter on own cell
for letter in word:
tr1 += h.th(letter.encode('utf-8'))
tr2 += h.td(to_roman(letter.encode('utf-8')))
tr3 += h.td(unicode_gematria(letter))
# add rows to table
tbl.addHeadRow(tr1)
tbl.addBodyRow(tr2)
tbl.addBodyRow(tr3)
tbl.addFootRow(tr4)
# add summary footer for table
num = unicode_gematria(text)
tbl.addFootRow(h.tr(h.td("%s %s" % (num, h.sub(digital_sum(num), " / ", digital_root(num, modulo))),
colspan=len(text)+len(text.split()),
style="border-top: solid 1px #ddd")))
return tbl
def test_convert_2_to_roman(self):
self.assertEquals("II",main.to_roman(2))
def test_convert_1_to_roman(self):
self.assertEquals("I", main.to_roman(1))
def test_convert_48_to_roman(self):
self.assertEquals("XXXXVIII",main.to_roman(48))
def test_convert_44_to_roman(self):
self.assertEquals("XXXXIV",main.to_roman(44))
def test_convert_25_to_roman(self):
self.assertEquals("XXV",main.to_roman(25))
def test_convert_14_to_roman(self):
self.assertEquals("XIV",main.to_roman(14))
def test_convert_12_to_roman(self):
self.assertEquals("XII",main.to_roman(12))
def test_convert_9_to_roman(self):
self.assertEquals("IX",main.to_roman(9))
def test_convert_8_to_roman(self):
self.assertEquals("VIII",main.to_roman(8))
def test_convert_5_to_roman(self):
self.assertEquals("V",main.to_roman(5))
