[Windows shell] Inkscape convert .wmf to .svg 批量

hbghlyj

使用Johannski写的batch 脚本即可
What file type do you want touse as a source?
输入wmf
What file type do you want to convert to?
输入svg

等待转换完毕

hbghlyj

Batch script 使用SVGO批量对当前目录下svg进行优化: 直接在命令行输入

1. for %i in (*.svg) do svgo "%i"

复制代码

使用 下面的 python 将svg转换为tikz并去除多余换行

1. from svg2tikz import convert_svg
2. from re import sub
3. import glob,os
4. for file in glob.glob("*.svg"):
5.     code = convert_svg(file,codeoutput="figonly",texmode="math")
6.     code = sub(r'\n+',r'\n',code)
7.     code = code.replace('\n\\definecolor{c010101}{RGB}{1,1,1}','').replace(r'yscale=\globalscale, xscale=\globalscale',r'scale=\globalscale')
8.     code = sub(r"\\path\[draw=c010101,dash[^]]*\]",r'\\draw[dashed]',code)
9.     code = sub(r"\\path\[draw=c010101[^]]*\]",r'\\draw',code)
10.     with open(os.path.splitext(file)[0]+'.txt', "w") as file:
11.         file.write(code.strip())

复制代码

效果:

hbghlyj

1. # Open the input file and read its contents
2. with open('large_file.html', 'r') as input_file:
3.     contents = input_file.readlines()
5. # Create a list to store the lines for each output file
6. output_lists = [[]]
8. # Loop through the lines of the input file
9. for line in contents:
10.     # If the line starts with "<li>", create a new output file
11.     if line.startswith('<li>'):
12.         output_lists.append([])
13.     # Add the line to the current output list
14.     output_lists[-1].append(line)
16. # Loop through the output lists and write them to separate files
17. for i, output_list in enumerate(output_lists):
18.     with open(f'{i+1}.html', 'w') as output_file:
19.         # Write all the lines in the output list except the "<li>" lines
20.         output_file.writelines(line for line in output_list if not line.startswith('<li>'))

复制代码

输出:

hbghlyj

remove all occurrences of the string y=1cm, x=1cm, from all .txt files in the current working directory:

1. import os
2. import re
4. # Set the search string
5. search_str = r'y=1cm, x=1cm, '
7. # Loop through all files in the current directory
8. for filename in os.listdir(os.getcwd()):
9.     # Check if the file is a txt file
10.     if filename.endswith('.txt'):
11.         # Open the file and read its contents
12.         with open(filename, 'r') as f:
13.             contents = f.read()
14.         
15.         # Replace all occurrences of the search string with an empty string
16.         new_contents = re.sub(search_str, '', contents)
17.         
18.         # Write the new contents back to the file
19.         with open(filename, 'w') as f:
20.             f.write(new_contents)

复制代码

hbghlyj

Installing for use with Inkscape
Inkscape extension: Export to Tikz path

In Known Problems of tikz2svg:

Grouped elements will not work. So ungroup everything

Inkscape ungroup everything from windows command line

1. @echo off
2. for %%i in ("%~dp0*.svg") do (
3.     "D:\Inkscape\bin\inkscape.exe" -f "%%i" --verb EditSelectAll --verb SelectionUnGroup --verb FileSave --verb FileQuit
4. )

复制代码

hbghlyj

1. import os
2. import re
4. def process_tex_file(file_path):
5. # Open the file and read its contents
6. with open(file_path, 'r') as f:
7. contents = f.readlines()
9. # Loop through the lines in the file
10. i = 0
11. while i < len(contents):
12. line = contents[i]
13. # Search for the pattern
14. match = re.search(r'\[(shift=\{.+?\}),fill=black\]', line)
15. if match:
16. # Insert the scope before the matched line
17. scope = match.group(1)
18. contents.insert(i, f'\\begin{{scope}}[{scope}]\n')
19. # Delete the pattern from the line
20. contents[i+1] = re.sub(r'\[(shift=\{.+?\}),fill=black\]', '', contents[i+1])
21. i += 1 # Advance to the next line
22. # Keep replacing the pattern till the end of the file
23. while i < len(contents):
24. line = contents[i]
25. contents[i] = re.sub(r'\[(shift=\{.+?\}),fill=black\]', '', line)
26. i += 1
27. break # Stop searching after the first match
29. i += 1 # Advance to the next line
31. # Insert the \end{scope} command before the last line
32. contents.insert(-1, r'\end{scope}'+'\n')
34. # Write the modified contents back to the file
35. with open('converted/'+file_path, 'w') as f:
36. f.writelines(contents)
38. # Loop through all .txt files in the current directory
39. for file_name in os.listdir('.'):
40. if file_name.endswith('.txt'):
41. file_path = os.path.join('.', file_name)
42. process_tex_file(file_path)

复制代码

This code processes all .txt files in the current directory by searching for the first occurrence of the pattern [shift={something},fill=black] in each file. If a match is found, it inserts a \begin{scope} command before the matched line and deletes the pattern from that line. It then continues to replace the pattern with an empty string until the end of the file. After this, it inserts an \end{scope} command before the last line in the file. The modified contents are then written a file in converted/ folder of the same name. This process is repeated for each .txt file in the directory.

Example

The original file

The converted file

\begin{tikzpicture}[scale=.2, inner sep=0pt, outer sep=0pt] \draw (1.1000,2.8000) -- (17.3000,2.8000)(17.3000,2.8000) -- (9.0000,24.9000)(9.0000,24.9000) -- (1.1000,2.8000); \draw (9.1500,8.4500) circle (0.1623cm); \draw (9.0000,24.9000) -- (9.0000,2.8000)(3.8000,10.5000) -- (14.5000,10.5000)(1.1000,2.8000) -- (15.4000,8.0000)(17.3000,2.8000) -- (2.9000,8.0000)(2.9000,8.0000) -- (15.4000,8.0000)(9.0000,2.8000) -- (4.7000,13.0000)(9.0000,2.8000) -- (3.8000,10.5000)(9.0000,2.8000) -- (2.9000,8.0000)(4.7000,12.9000) -- (13.5000,12.9000)(10.4000,12.9000) -- (16.3000,12.9000)(5.4000,11.3000) -- (3.2000,16.7000); \path[shift={(2.2,8.100000000000001)},fill=black] (0.0000,26.3980) node[above right] () {3}; \path[shift={(2.2,8.100000000000001)},fill=black] (0.8000,31.9416) node[above right] () {K}; \path[shift={(2.2,8.100000000000001)},fill=black] (8.3000,20.2416) node[above right] () {K}; \path[shift={(2.2,8.100000000000001)},fill=black] (6.5000,44.6416) node[above right] () {A}; \path[shift={(2.2,8.100000000000001)},fill=black] (9.1000,20.0980) node[above right] () {1}; \path[shift={(2.2,8.100000000000001)},fill=black] (6.7000,20.0980) node[above right] () {1}; \path[shift={(2.2,8.100000000000001)},fill=black] (5.3000,20.0980) node[above right] () {1}; \path[shift={(2.2,8.100000000000001)},fill=black] (15.0000,20.5416) node[above right] () {C}; \path[shift={(2.2,8.100000000000001)},fill=black] (12.6000,29.2416) node[above right] () {T}; \path[shift={(2.2,8.100000000000001)},fill=black] (0.0000,29.6416) node[above right] () {T}; \path[shift={(2.2,8.100000000000001)},fill=black] (6.2000,20.3416) node[above right] () {T}; \path[shift={(2.2,8.100000000000001)},fill=black] (4.4000,20.3416) node[above right] () {H}; \path[shift={(2.2,8.100000000000001)},fill=black] (7.3000,25.6416) node[above right] () {I}; \path[shift={(2.2,8.100000000000001)},fill=black] (-1.7000,20.5416) node[above right] () {B}; \path[shift={(2.2,8.100000000000001)},fill=black] (8.0000,20.4416) node[above right] () {( )}; \path[shift={(2.2,8.100000000000001)},fill=black] (5.8000,20.4416) node[above right] () {( )}; \path[shift={(2.2,8.100000000000001)},fill=black] (13.5000,26.5416) node[above right] () {H}; \path[shift={(2.2,8.100000000000001)},fill=black] (-0.8000,26.6416) node[above right] () {H}; \path[shift={(2.2,8.100000000000001)},fill=black] (1.9000,34.9980) node[above right] () {2}; \path[shift={(2.2,8.100000000000001)},fill=black] (13.3000,28.8980) node[above right] () {2}; \path[shift={(2.2,8.100000000000001)},fill=black] (14.4000,26.1980) node[above right] () {2}; \path[shift={(2.2,8.100000000000001)},fill=black] (14.4000,32.1980) node[above right] () {1}; \path[shift={(2.2,8.100000000000001)},fill=black] (1.8000,31.8980) node[above right] () {3}; \path[shift={(2.2,8.100000000000001)},fill=black] (0.8000,29.3980) node[above right] () {3}; \path[shift={(2.2,8.100000000000001)},fill=black] (13.9000,32.4416) node[above right] () {l}; \path[shift={(2.2,8.100000000000001)},fill=black] (1.5000,35.2416) node[above right] () {l}; \end{tikzpicture}

\begin{tikzpicture}[scale=.2, inner sep=0pt, outer sep=0pt] \draw (1.1000,2.8000) -- (17.3000,2.8000)(17.3000,2.8000) -- (9.0000,24.9000)(9.0000,24.9000) -- (1.1000,2.8000); \draw (9.1500,8.4500) circle (0.1623cm); \draw (9.0000,24.9000) -- (9.0000,2.8000)(3.8000,10.5000) -- (14.5000,10.5000)(1.1000,2.8000) -- (15.4000,8.0000)(17.3000,2.8000) -- (2.9000,8.0000)(2.9000,8.0000) -- (15.4000,8.0000)(9.0000,2.8000) -- (4.7000,13.0000)(9.0000,2.8000) -- (3.8000,10.5000)(9.0000,2.8000) -- (2.9000,8.0000)(4.7000,12.9000) -- (13.5000,12.9000)(10.4000,12.9000) -- (16.3000,12.9000)(5.4000,11.3000) -- (3.2000,16.7000); \begin{scope}[shift={(2.2,8.100000000000001)}] \path (0.0000,26.3980) node[above right] () {3}; \path (0.8000,31.9416) node[above right] () {K}; \path (8.3000,20.2416) node[above right] () {K}; \path (6.5000,44.6416) node[above right] () {A}; \path (9.1000,20.0980) node[above right] () {1}; \path (6.7000,20.0980) node[above right] () {1}; \path (5.3000,20.0980) node[above right] () {1}; \path (15.0000,20.5416) node[above right] () {C}; \path (12.6000,29.2416) node[above right] () {T}; \path (0.0000,29.6416) node[above right] () {T}; \path (6.2000,20.3416) node[above right] () {T}; \path (4.4000,20.3416) node[above right] () {H}; \path (7.3000,25.6416) node[above right] () {I}; \path (-1.7000,20.5416) node[above right] () {B}; \path (8.0000,20.4416) node[above right] () {( )}; \path (5.8000,20.4416) node[above right] () {( )}; \path (13.5000,26.5416) node[above right] () {H}; \path (-0.8000,26.6416) node[above right] () {H}; \path (1.9000,34.9980) node[above right] () {2}; \path (13.3000,28.8980) node[above right] () {2}; \path (14.4000,26.1980) node[above right] () {2}; \path (14.4000,32.1980) node[above right] () {1}; \path (1.8000,31.8980) node[above right] () {3}; \path (0.8000,29.3980) node[above right] () {3}; \path (13.9000,32.4416) node[above right] () {l}; \path (1.5000,35.2416) node[above right] () {l}; \end{scope} \end{tikzpicture}

hbghlyj

1. import os
2. import re
4. def process_tex_file(file_path):
5.     # Open the file and read its contents
6.     with open(file_path, 'r') as f:
7.         contents = f.readlines()
9.     # Loop through the lines in the file
10.     i = 0
11.     while i < len(contents):
12.         line = contents[i]
13.         # Search for the pattern
14.         match = re.search(r'^\\path', line)
15.         if match:
16.             # Insert the scope before the matched line
17.             contents[i]=re.sub('node','',contents[i])
18.             contents[i]=re.sub(r'path','node at',contents[i])
19.             contents[i]=re.sub(r' \(\) ','',contents[i])
20.         i += 1  # Advance to the next line
22.     # Write the modified contents back to the file
23.     with open('converted/'+file_path, 'w') as f:
24.         f.writelines(contents)
26. # Loop through all .txt files in the current directory
27. for file_name in os.listdir('.'):
28.     if file_name.endswith('.txt'):
29.         file_path = os.path.join('.', file_name)
30.         process_tex_file(file_path)

复制代码

hbghlyj

1. import os
3. # loop through all .txt files in the current directory
4. for filename in os.listdir():
5.     if filename.endswith('.txt'):
6.         # open the original file for reading
7.         with open(filename, 'r') as original_file:
8.             # create a new file in the 'converted' directory for writing
9.             with open(os.path.join('converted', filename), 'w') as converted_file:
10.                 # loop through each line in the original file
11.                 for line in original_file:
12.                     # if the line contains '$\bullet$' and '[above right]', replace '[above right]' with an empty string
13.                     if r'$\bullet$' in line and '[above right]' in line:
14.                         line = line.replace('[above right]', '')
15.                     # write the modified line to the new file
16.                     converted_file.write(line)

复制代码