Beispiel #1
0
import readDocx

print readDocx.getText('./Worldfile/demo.docx')
import readDocx

print(readDocx.getText('demo.docx'))
Beispiel #3
0
#def getParagraphs(doc):


def other():
    doc = docx.Document(invTempFilename)
    doc.add_paragraph("Hello World!")
    paraObj1 = doc.add_paragraph("This is a second paragraph")
    paraObj2 = doc.add_paragraph("This is a yet another paragraph")
    paraObj1.add_run("This text is being added to the second paragraph")

    doc.save("helloworld_multipleParagraphs.docx")


if __name__ == "__main__":
    logging.debug(readDocx.getText(invTempFilename))
    gl = getGuestList(guestListFilename)
    logging.debug("Guest List:")
    logging.debug(gl)

    templateDocList = []
    doc = docx.Document(invTempFilename)

    # Build Document Items
    for i, para in enumerate(doc.paragraphs):
        logging.debug("Index number: " + str(i))
        logging.debug(para.style.name)
        logging.debug(para.text)
        templateDocList.append({
            "text": para.text,
            "style": para.style.name,
Beispiel #4
0
def excel(filename):

	#Imports	
	import xlsxwriter
	import docx
	from docx.api import Document
	import readDocx
	import re
	import unicodedata
	
	#Progress Bar
	#from progressbar import ProgressBar
	#pbar = ProgressBar()

	#Determining the names of files as list 
	filename_ = filename[0:len(filename)-5]
	#Number of files
	num_files = list(range(len(filename)))
	
	#Creating a .xml file for every .docx
	#Initializing table data sync 
	date = []
	for i in num_files:
		for find in re.finditer('Log', filename):
			if find:
				span = find.span()
				leng = len(filename)
				dates = filename[span[1]+1:leng-5]
				date.append(dates)

	workbook = xlsxwriter.Workbook('C:/Users'+str(filename_)+"_spreadsheet.xlsx")

	worksheet = workbook.add_worksheet()

	# Create a format to use in title cells.
	cell_format_title = workbook.add_format({
     	'font_size': '22',
     	'bg_color': '#f3a030',
     	'underline':'true',
     	'border': 2,
     	'align': 'center',
     	'valign': 'vcenter',
     	'bold': 'True' })
    

	# Create a format to use in populated cells.
	cell_format_pop = workbook.add_format({
    	'bold': 1,
    	'border': 1,
    	'align': 'center',
    	'font_color': '#000000',
    	'font_size': '24',
    	'valign': 'vcenter'})

	# Create a format to use in block cells.
	cell_format_info = workbook.add_format({
	    'bold': 1,
	    'border': 1,
	    'align': 'center',
	    'font_color': '#000000',
	    'font_size': '34',
	    'valign': 'vcenter',
	    'text_wrap': 'vjustify'})


	#Setting widths of columns 
	worksheet.set_column('A:A', 62)
	worksheet.set_column('B:B', 64)
	worksheet.set_column('C:C', 60)
	worksheet.set_column('D:D', 60)
	worksheet.set_column('E:E', 62)
	worksheet.set_column('F:F', 70)
	worksheet.set_column('G:G', 68)
	worksheet.set_column('H:H', 70)
	worksheet.set_column('I:I', 64)
	worksheet.set_column('J:J', 64)
	worksheet.set_column('K:K', 74)
	worksheet.set_column('L:L', 60)
	worksheet.set_column('M:M', 64)
	worksheet.set_column('N:N', 64)
	worksheet.set_column('O:O', 70)
	worksheet.set_column('Q:Q', 76)

	#Setting column titles
	worksheet.write('A6', 'Delay #',cell_format_title)
	worksheet.write('B6', 'Date',cell_format_title)
	worksheet.write('C6', 'DIN',cell_format_title)
	worksheet.write('D6', 'Year',cell_format_title)
	worksheet.write('E6', 'Series',cell_format_title)
	worksheet.write('F6', 'Reactor Face',cell_format_title)
	worksheet.write('G6', 'Latice Site',cell_format_title)
	worksheet.write('H6', 'OPN Affected',cell_format_title)
	worksheet.write('I6', 'Start Time',cell_format_title)
	worksheet.write('J6', 'End Time',cell_format_title)
	worksheet.write('K6', 'Critical Path (Y/N)',cell_format_title)
	worksheet.write('L6', 'Duration',cell_format_title)
	worksheet.write('M6', 'Delay Type',cell_format_title)
	worksheet.write('N6', 'Issue Group',cell_format_title)
	worksheet.write('O6', 'Tool Impacted',cell_format_title)
	worksheet.write('P6', 'Issue Description',cell_format_title)
	worksheet.write('Q6', 'Cumulative Delay(hrs)',cell_format_title)


	#Setting row heights, **row numbers pushed forward 1(ie, 1=2)**
	worksheet.set_row(0, 30)
	worksheet.set_row(1, 15)
	worksheet.set_row(2, 15)
	worksheet.set_row(3, 0)
	worksheet.set_row(4, 0)
	worksheet.set_row(5, 80)
	for i in range(10000):
		worksheet.set_row(i+6,120)
	exit

	# Create a format to use in the merged range.
	merge_format = workbook.add_format({
    	'bold': 1,
    	'border': 1,
    	'align': 'center',
   	 'valign': 'vcenter',
    	'fg_color': ' #FFA500'})
    	
    

										#WORD DOCX PARSER

	document = Document(filename)

		#Finds and counts all tables in .docx
	tables_counter = document.tables

		#Make list of how many tables in .docx
	table_quantity = len(tables_counter)
	table_list = list(range(table_quantity))

		#Variables to populate
	data = []
	t_titles = []
	sub_sections = []
	sub_sections_ref = []
		
		#Loop through each TABLE and save text
	for x in table_list:
			#Calling on Word .docx Table
		table = document.tables[x]
		keys = None

		for i, row in enumerate(table.rows):
    			text = (cell.text for cell in row.cells)

    			if i == 0:
					#Keys are the title cells of each table
        			keys = tuple(text)			
        			continue
					#Saving Keys not working right now_ still(no further explanation
			
				#Saving text as data
    			row_data = tuple(text)
    			data.append(row_data)

			#Amount of subsections
		sub_section = len(data)
			#Subsections refural list
		sub_sections_ref.append(sub_section)	
	
			#Sub_sections is the amount of sub section each table has 
		if x < 1:
			sub_sections.append(sub_section)	
	
		if x >= 1:
			sub_section = len(data) - sub_sections_ref[x-1]
			sub_sections.append(sub_section)	
	exit

				#Excel cell population
	count_num = []
	main_sites = []	
	count = 6
	coun = 0		 
	for i in table_list:
			#Information in First Table
	
		find = re.match("\AEast|West|RAB|RFRISA|RCC", data[i][0])
		subsub_section = list(range(1,len(data[i])))
	
			#Reactor face cell popuation
		if find:		
			span = find.span()
		
				#Reactor Face cell
			r_face = data[i][0][span[0]:span[1]]
			count += 1
			count_num.append(count)
		
				#Issue Description cell
			for x in subsub_section:
				count += 1
				coun += 1
				count_num.append(count)
				issue_d = data[i][x]
		
				loc_x = str('P'+str(count))
				loc_i = str('F'+str(count))
				loc_d = str('A'+str(count))

				worksheet.write(loc_x,issue_d,cell_format_info)
				worksheet.write(loc_i,r_face,cell_format_pop)
				worksheet.write(loc_d,coun,cell_format_info)
			exit	
		
 	
		else:

				#Turn tuple data into string array set and replace the line indicators
			me = str(data[i])
			#Had to replace the '\\n' indicator to 'mmm' because regEx was not identifying the indicators 	
			me = me.replace("\\n","mmm")

				#Variables to populate
			cell_data = []
			reactor_face = []
			span_list = []
			s_list = []
			if count_num == []:
				count = 6 
			else:
				count = max(count_num)
			#Find Selected words from Headings	
			for new_data in re.finditer("mmmEastmmm|mmmEast mmm|mmmEASTmmm|mmmEAST:mmm|mmmEAST mmm|mmmWestmmm|mmmWest mmm|mmmWESTmmm|mmmWEST:mmm|mmmWEST mmm", me):
				if new_data:
					span = new_data.span()
					span_list.append(span)
		
						#Reactor Face cell
					r_face = me[span[0]+3:span[1]-3] 
					reactor_face.append(r_face)
					s = list(range(len(span_list)))
					s_list.append(s)
				exit

			s_list2 = list(range(len(s_list)))
			sub_para = []
		
			#Locate how many sub-paragraphs are in each table
			for x in s_list2:
			
 
				if x == max(s_list2):
					count +=1
					sub_paragraphs = me[span_list[x][1]-3:len(me)]
					sub_para.append(str(sub_paragraphs)) 			

				else:
					sub_paragraphs = me[span_list[x][1]-3:span_list[x+1][0]]
					sub_para.append(str(sub_paragraphs))
				exit	
		
		
			span2_list = []
			s2_list = []
			sub_para_str = str(sub_para)

			#Split all the sub-paragraph data into sentences
			for sentence in re.finditer("m{3,}", sub_para_str):
				if sentence: 
					span2 = sentence.span()		
					span2_list.append(span2)
					s2 = list(range(len(span2_list)))
					s2_list.append(s2)
				exit
		
			s2_list2 = list(range(len(s2_list)))
			count_2 = 0		
			loc = []
			col_size = []
			sub_sentences = []
			
			#Spilt all senteces into separate strings 
			for z in s2_list2:	
			
				if z == max(s2_list2):

					sub_sentence = sub_para_str[span2_list[z][1]:len(me)]
					sub_sentences.append(sub_sentence)
			
				else:
					sub_sentence = sub_para_str[span2_list[z][1]:span2_list[z+1][0]]
					sub_sentence = sub_sentence.replace(u'\\xa0', u'')
					sub_sentences.append(sub_sentence)

			#Search for line punctures  
					if re.search("', '|', \"", sub_sentence):

							count += 1
							count_2 += 1						

					else:
						count += 1
						coun += 1

			#List each cell
						loc_i = str('F'+str(count))
						loc_x = str('P'+str(count))
						loc_d = str('A'+str(count))
					
						worksheet.write(loc_i,reactor_face[count_2],cell_format_pop)
						worksheet.write(loc_x,sub_sentence,cell_format_info)
						worksheet.write(loc_d,coun,cell_format_info)


						length = len(sub_sentence)
						col_size.append(length)
						worksheet.set_column('P:P', max(col_size)-100)
			#Variables to populate
						location =[]
						times = [] 

			#Find the time and date 
						for time in re.finditer("\d{1,2}:\d\dam|\d{1,2}:\d\dpm|\d{1,2}:\d\d|\d{1,2} oclock|\d{4}h|\d{1,2}noon", sub_sentence):
						
							if time:
								location.append(z)
								span3 = time.span()
								time = sub_sentence[span3[0]:span3[1]]	
								times.append(time)
								if len(location) == 2:
								
			#Populate cell with time&date data 
									loc_t = str('J'+str(count))
									worksheet.write(loc_t,time,cell_format_info)

							else:	
								loc_t = str('I'+str(count))
								worksheet.write(loc_t,time,cell_format_info)

						exit


			#Variables to populate
					location = []
					latice_sites = []
					
			#Find latice sites  
					for latice_site in re.finditer("[A-Z]{1}[0-9]{1,2} |[A-Z]{1}[0-9]{1,2}| [A-Z]{1}[0-9]{2} |[A-Z]{1}[0-9]{2},|[A-Z]{1}[0-9]{1},|[A-Z]{1}[0-9]{1,2}-|[A-Z]{1}[0-9]{1,2}-|[A-Z]{1}[0-9]{2}W|[A-Z]{1}[0-9]{1,2}E|[A-Z]{1}[0-9]{2}W:|[A-Z]{1}[0-9]{2}E:", sub_sentence):
	
						if latice_site:
							location.append(z)
							span4 = latice_site.span()
							latice_site = sub_sentence[span4[0]:span4[1]]
							latice_sites.append(latice_site)
							
							
							if len(location) == 1:
								main_sites.append(latice_site)
								loc_s = str('G'+str(count))
								worksheet.write(loc_s,latice_site,cell_format_info)
								#print(latice_site,"'First Site'")

							else:
								main = main_sites
								main.append(latice_site)
								cell_text = ','.join(main)
								#print(latice_site,"'More Site'")
								#print(cell_text)
								
			#Populate cell with latice sites data
								loc_c = str('G'+str(count))
								worksheet.write(loc_c,cell_text,cell_format_info)

	
			#Find OPN(###) 
						for opn in re.finditer("opn\d{3}", sub_sentence):
							if opn:
								span = opn.span()
								opn = sub_sentence[span[0]:span[1]]	
			#Populate cell with OPN(###) data	
								loc_o = str('H'+str(count))
								worksheet.write(loc_o,opn,cell_format_info)

			#Find Critical_path_delay(Y/N) sites 
						for crit_path in re.finditer("Critical path delay ~", sub_sentence):
							if crit_path:
								ans = 'Y'
								loc_c = str('K'+str(count))
								worksheet.write(loc_c,ans,cell_format_info)

			#Variables to populate
				count_lists = []
				count_numb = [] 
				main_sites = []		
				
			#Find Dates(MM/DD/YY) 		
				for date in re.finditer(r"\w+\s\d+\s\d{4}|\w+\s\d+th|\w+\s\d+\sDay|\w+\s\d+\sday|\w+\s\d+\s(Day)|\w+\s\d+\s(day)|\w+\s\d+\sDAY|\w+\s\d+\sNight|\w+\s\d+\snight|\w+\s\d+\s(Night)|\w+\s\d+\s(night)|\w+\s\d+\sNIGHT|\w+\s\d[1,2],",sub_sentence):

					if date:
						span = date.span()
						
			#Find Dates(/DD)		
					for day in re.finditer(r"\w+\s\d+\s|\w+\s\d+,|\w+\s\d+t", sub_sentence):
						if day:
							span2 = day.span()
							date = sub_sentence[span2[0]:span2[1]-1]
							count_numb.append(count)
							loc_d = str('B'+str(count))
							worksheet.write(loc_d,date,cell_format_info)

			#Find Dates(/YY)
					for year in re.finditer('\d{4}', sub_sentence):
						if year:
							span3 = year.span()
							year = sub_sentence[span3[0]:span3[1]]
							loc_y = str('D'+str(count)) 
							worksheet.write(loc_y,year,cell_format_info)

			#Find Dates(Nights)
					for shift_n in re.finditer('Night|night|NIGHT', sub_sentence):
						if shift_n:
							shift = "N"
							loc_s = str('C'+str(count)) 
							worksheet.write(loc_s,shift,cell_format_info)					

			#Find Dates(Day)
					for shift_d in re.finditer('Day|day|DAY', sub_sentence):
						if shift_d:
							shift = "D"
							loc_s = str('C'+str(count)) 
							worksheet.write(loc_s,shift,cell_format_info)


		exit				

				
#Same procedures for more than two table  
	if len(sub_sections) <= 20:

			print("Less than 2 tables")
			data = readDocx.getText(filename)
			me = data.replace("\\g","mmm")

			cell_data = []
			reactor_face = []
			span_list = []
			s_list = []
			if count_num == []:
				count = 6 
			else:
				count = max(count_num)
			for new_data in re.finditer("mmmEastmmm|mmmEast mmm|mmmEASTmmm|mmmEAST:mmm|mmmEAST mmm|mmmWestmmm|mmmWest mmm|mmmWESTmmm|mmmWEST:mmm|mmmWEST mmm", me):
				if new_data:
					span = new_data.span()
					span_list.append(span)
		
						#Reactor Face cell
					r_face = me[span[0]+3:span[1]-3] 
					reactor_face.append(r_face)
					s = list(range(len(span_list)))
					s_list.append(s)
				exit

			s_list2 = list(range(len(s_list)))
			sub_para = []
		
			for x in s_list2:
			
 
				if x == max(s_list2):
					count +=1
					sub_paragraphs = me[span_list[x][1]-3:len(me)]
					sub_para.append(str(sub_paragraphs)) 
									

				else:
					sub_paragraphs = me[span_list[x][1]-3:span_list[x+1][0]]
					sub_para.append(str(sub_paragraphs))
				exit	
		
		
			span2_list = []
			s2_list = []
			sub_para_str = str(sub_para)

			for sentence in re.finditer("m{3,}", sub_para_str):
				if sentence: 
					span2 = sentence.span()		
					span2_list.append(span2)
					s2 = list(range(len(span2_list)))
					s2_list.append(s2)
				exit
		
			s2_list2 = list(range(len(s2_list)))
			count_2 = 0		
			loc = []
			col_size = []
			sub_sentences = []
			for z in s2_list2:	
			
				if z == max(s2_list2):

					sub_sentence = sub_para_str[span2_list[z][1]:len(me)]
					sub_sentences.append(sub_sentence)
			
				else:
					sub_sentence = sub_para_str[span2_list[z][1]:span2_list[z+1][0]]
					sub_sentence = sub_sentence.replace(u'\\xa0', u'')
					sub_sentences.append(sub_sentence)

					if re.search("', '|', \"", sub_sentence):

							count += 1
							count_2 += 1						

					else:
						count += 1
						coun += 1
						loc_i = str('F'+str(count))
						loc_x = str('P'+str(count))
						loc_d = str('A'+str(count))
					
						worksheet.write(loc_i,reactor_face[count_2],cell_format_pop)
						worksheet.write(loc_x,sub_sentence,cell_format_info)
						worksheet.write(loc_d,coun,cell_format_info)

						length = len(sub_sentence)
						col_size.append(length)
						worksheet.set_column('P:P', max(col_size)-100)

						location =[]
						times = [] 
						for time in re.finditer("\d{1,2}:\d\dam|\d{1,2}:\d\dpm|\d{1,2}:\d\d|\d{1,2} oclock|\d{4}h|\d{1,2}noon", sub_sentence):
						
							if time:
								location.append(z)
								span3 = time.span()
								time = sub_sentence[span3[0]:span3[1]]	
								times.append(time)
								if len(location) == 2:
									loc_t = str('J'+str(count))
									worksheet.write(loc_t,time,cell_format_info)
							else:
								loc_t = str('I'+str(count))
								worksheet.write(loc_t,time,cell_format_info)
						exit

					location = []
					latice_sites = []
					for latice_site in re.finditer("[A-Z]{1}[0-9]{1,2} |[A-Z]{1}[0-9]{1,2}| [A-Z]{1}[0-9]{2} |[A-Z]{1}[0-9]{2},|[A-Z]{1}[0-9]{1},|[A-Z]{1}[0-9]{1,2}-|[A-Z]{1}[0-9]{1,2}-|[A-Z]{1}[0-9]{2}W|[A-Z]{1}[0-9]{1,2}E|[A-Z]{1}[0-9]{2}W:|[A-Z]{1}[0-9]{2}E:", sub_sentence):
	
						if latice_site:
							location.append(z)
							span4 = latice_site.span()
							latice_site = sub_sentence[span4[0]:span4[1]]
							latice_sites.append(latice_site)
							
							
							if len(location) == 1:
								main_sites.append(latice_site)
								loc_s = str('G'+str(count))
								worksheet.write(loc_s,latice_site,cell_format_info)
								#print(latice_site,"'First Site'")

							else:
								main = main_sites
								main.append(latice_site)
								cell_text = ','.join(main)
								loc_c = str('G'+str(count))
								worksheet.write(loc_c,cell_text,cell_format_info)

					
						for opn in re.finditer("opn\d+.\d+", sub_sentence):
							if opn:
								span = opn.span()
								opn = sub_sentence[span[0]:span[1]]	
								loc_o = str('H'+str(count))
								worksheet.write(loc_o,opn,cell_format_info)
						

						for crit_path in re.finditer("Critical path delay ~", sub_sentence):
							if crit_path:
								ans = 'Y'
								loc_c = str('K'+str(count))
								worksheet.write(loc_c,ans,cell_format_info)


				count_lists = []
				count_numb = [] 
				main_sites = []			
				for date in re.finditer(r"\w+\s\d+\s\d{4}|\w+\s\d+th|\w+\s\d+\sDay|\w+\s\d+\sday|\w+\s\d+\s(Day)|\w+\s\d+\s(day)|\w+\s\d+\sDAY|\w+\s\d+\sNight|\w+\s\d+\snight|\w+\s\d+\s(Night)|\w+\s\d+\s(night)|\w+\s\d+\sNIGHT|\w+\s\d[1,2],",sub_sentence):

					if date:
						span = date.span()
						

						for day in re.finditer(r"\w+\s\d+\s|\w+\s\d+,|\w+\s\d+t", sub_sentence):
							if day:
								span2 = day.span()
								date = sub_sentence[span2[0]:span2[1]-1]
								count_numb.append(count)
								loc_d = str('B'+str(count))
								worksheet.write(loc_d,date,cell_format_info)

						for year in re.finditer('\d{4}', sub_sentence):
							if year:
								span3 = year.span()
								year = sub_sentence[span3[0]:span3[1]]
								loc_y = str('D'+str(count)) 
								worksheet.write(loc_y,year,cell_format_info)

						for shift_n in re.finditer('Night|night|NIGHT', sub_sentence):
							if shift_n:
								shift = "N"
								loc_s = str('C'+str(count)) 
								worksheet.write(loc_s,shift,cell_format_info)					


						for shift_d in re.finditer('Day|day|DAY', sub_sentence):
							if shift_d:
								shift = "D"
								loc_s = str('C'+str(count)) 
								worksheet.write(loc_s,shift,cell_format_info)


				exit
	workbook.close()
Beispiel #5
0
For each file, remove punctuation and stop words
Produce a single .dat file containing the name of the file in quotes, a colon, 
then a list of words separated by commas. 
The list of words per file should be unique. Do not include URLs or phone numbers.
"""
import os
import numpy as np
import nltk
from nltk.corpus import stopwords
import readDocx
import zipfile
import re
with zipfile.ZipFile("week_8_documents.zip","r") as zip_ref:
    zip_ref.extractall()
fileword = open('week_8_document1.docx', 'r')
fileword1 = readDocx.getText('week_8_document1.docx')
filetxt = open('week_8_document2.txt', 'r')
filetxt1 = filetxt.read().replace('\n', '')
punctuations = '''!()-[]{};:'"\,<>./?@#$%^&*_~—–’“”'''
filewordnohttp = re.sub(r'(https|http)?:\/\/(\w|\.|\/|\?|\=|\&|\%)*\b', '', fileword1, flags=re.MULTILINE)
filetxtnohttp = re.sub(r'(https|http)?:\/\/(\w|\.|\/|\?|\=|\&|\%)*\b', '', filetxt1, flags=re.MULTILINE)
filewordnohttp1 = re.sub(r'((1-\d{3}-\d{3}-\d{4})|(\(\d{3}\) \d{3}-\d{4})|(\d{3}-\d{3}-\d{4}))$', '', filewordnohttp,flags=re.MULTILINE)
filetxtnohttp1 = re.sub(r'(https|http)?:\/\/(\w|\.|\/|\?|\=|\&|\%)*\b', '', filetxtnohttp, flags=re.MULTILINE)
file1nopunc = ''.join(c for c in filewordnohttp1 if c not in punctuations).lower()
file2nopunc = ''.join(c for c in filetxtnohttp1 if c not in punctuations).lower()
stopword = stopwords.words('english')
word_tokensdocx = nltk.word_tokenize(file1nopunc)
removing_stopwordsdocx = [word for word in word_tokensdocx if word not in stopword]
word_tokenstext = nltk.word_tokenize(file2nopunc)
removing_stopwordstext = [word for word in word_tokenstext if word not in stopword]
answerdocx = np.array(removing_stopwordsdocx)
Beispiel #6
0
Datei: pyDocx.py Projekt: udz/py
import readDocx

print(readDocx.getText('Doc/Mail Template.docx'))