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Python 使用坐标(基因)文件的脚本_Python_Bash_Awk - Fatal编程技术网

Python 使用坐标(基因)文件的脚本

Python 使用坐标(基因)文件的脚本,python,bash,awk,Python,Bash,Awk,我有一个变体表(variation.txt),它是一个非常大的文件。染色体数目的第一列,第二列是变异的位置。我还有第二个文件annotation.txt,其中有37000个基因(1st column),它们的染色体数(2nd column),它们的起始和结束坐标(3rd column),以及一些细节 我必须将变异(基于染色体数目和位置)分配给基因。首先,它应该在两个文件中寻找匹配的染色体数目,如果匹配,变异的坐标应该在(包括)基因的起始和结束位置之内。我曾尝试在python中使用它,但它花费了很

我有一个变体表(variation.txt),它是一个非常大的文件。染色体数目的第一列,第二列是变异的位置。我还有第二个文件annotation.txt,其中有37000个基因(1st column),它们的染色体数(2nd column),它们的起始和结束坐标(3rd column),以及一些细节

我必须将变异(基于染色体数目和位置)分配给基因。首先,它应该在两个文件中寻找匹配的染色体数目,如果匹配,变异的坐标应该在(包括)基因的起始和结束位置之内。我曾尝试在python中使用它,但它花费了很长时间。此外,我希望有一个修改后的输出,如下所示。基因可以有重叠坐标,一个给定的变异可以是多个重叠基因的一部分。请帮忙

variation.txt

SL3.0ch02   702679  C   A   -   -   -   -   -   -   -   -
SL3.0ch01   711131  A   G   -   -   -   -   -   -   -   -
SL3.0ch00   715124  G   A   -   -   -   -   -   -   -   -
SL3.0ch00   719289  C   T   -   -   -   -   -   -   -   -
SL3.0ch00   720926  A   C   -   -   -   -   -   -   -   -
SL3.0ch00   723860  A   C   Solyc00g005060.1    CDS     NONSYNONYMOUS   W/G     52  0   novel   DELETERIOUS (*WARNING! Low confidence)
SL3.0ch00   723867  A   C   Solyc00g005060.1    CDS     SYNONYMOUS  G/G     49  1   novel   TOLERATED
SL3.0ch00   723903  T   C   Solyc00g005060.1    CDS     SYNONYMOUS  G/G     37  1   novel   TOLERATED
Solyc00g005000.3.1  SL3.0ch02   702600  702900  +   Eukaryotic aspartyl protease family protein
Solyc00g005040.3.1  SL3.0ch01   715100  715200  +   Potassium channel
Solyc00g005050.3.1  SL3.0ch00   715150  715300  -   UPF0664 stress-induced protein C29B12.11c
Solyc00g005060.1.1  SL3.0ch00   723741  724013  -   LOW QUALITY:Cyclin/Brf1-like TBP-binding protein
Solyc00g005080.2.1  SL3.0ch00   723800  723900  -   LOW QUALITY:Protein Ycf2
Solyc00g005084.1.1  SL3.0ch05   809593  813633  +   UDP-Glycosyltransferase superfamily protein
Solyc00g005090.1.1  SL3.0ch07   1061632 1061916 -   LOW QUALITY:DYNAMIN-like 1B
Solyc00g005092.1.1  SL3.0ch01   1127794 1144385 +   Serine/threonine phosphatase-like protein
Solyc00g005094.1.1  SL3.0ch00   1144958 1146952 -   Glucose-6-phosphate 1-dehydrogenase 3, chloroplastic
Solyc00g005096.1.1  SL3.0ch00   1734562 1736567 +   RWP-RK domain-containing protein
annotation.txt

SL3.0ch02   702679  C   A   -   -   -   -   -   -   -   -
SL3.0ch01   711131  A   G   -   -   -   -   -   -   -   -
SL3.0ch00   715124  G   A   -   -   -   -   -   -   -   -
SL3.0ch00   719289  C   T   -   -   -   -   -   -   -   -
SL3.0ch00   720926  A   C   -   -   -   -   -   -   -   -
SL3.0ch00   723860  A   C   Solyc00g005060.1    CDS     NONSYNONYMOUS   W/G     52  0   novel   DELETERIOUS (*WARNING! Low confidence)
SL3.0ch00   723867  A   C   Solyc00g005060.1    CDS     SYNONYMOUS  G/G     49  1   novel   TOLERATED
SL3.0ch00   723903  T   C   Solyc00g005060.1    CDS     SYNONYMOUS  G/G     37  1   novel   TOLERATED
Solyc00g005000.3.1  SL3.0ch02   702600  702900  +   Eukaryotic aspartyl protease family protein
Solyc00g005040.3.1  SL3.0ch01   715100  715200  +   Potassium channel
Solyc00g005050.3.1  SL3.0ch00   715150  715300  -   UPF0664 stress-induced protein C29B12.11c
Solyc00g005060.1.1  SL3.0ch00   723741  724013  -   LOW QUALITY:Cyclin/Brf1-like TBP-binding protein
Solyc00g005080.2.1  SL3.0ch00   723800  723900  -   LOW QUALITY:Protein Ycf2
Solyc00g005084.1.1  SL3.0ch05   809593  813633  +   UDP-Glycosyltransferase superfamily protein
Solyc00g005090.1.1  SL3.0ch07   1061632 1061916 -   LOW QUALITY:DYNAMIN-like 1B
Solyc00g005092.1.1  SL3.0ch01   1127794 1144385 +   Serine/threonine phosphatase-like protein
Solyc00g005094.1.1  SL3.0ch00   1144958 1146952 -   Glucose-6-phosphate 1-dehydrogenase 3, chloroplastic
Solyc00g005096.1.1  SL3.0ch00   1734562 1736567 +   RWP-RK domain-containing protein
所需输出:

SL3.0ch02   702679  C   A   -   -   -   -   -   -   -   -   Solyc00g005000.3.1  
SL3.0ch00   715124  G   A   -   -   -   -   -   -   -   -   Solyc00g005040.3.1  
SL3.0ch00   723860  A   C   Solyc00g005060.1    CDS NONSYNONYMOUS   W/G 52  0   novel   DELETERIOUS (*WARNING! Low confidence)  Solyc00g005060.1.1  
SL3.0ch00   723860  A   C   Solyc00g005060.1    CDS NONSYNONYMOUS   W/G 52  0   novel   DELETERIOUS (*WARNING! Low confidence)  Solyc00g005080.2.1  
SL3.0ch00   723867  A   C   Solyc00g005060.1    CDS SYNONYMOUS  G/G 49  1   novel   TOLERATED   Solyc00g005060.1.1  
SL3.0ch00   723867  A   C   Solyc00g005060.1    CDS SYNONYMOUS  G/G 49  1   novel   TOLERATED   Solyc00g005080.2.1  
SL3.0ch00   723903  T   C   Solyc00g005060.1    CDS SYNONYMOUS  G/G 37  1   novel   TOLERATED   Solyc00g005060.1.1  
import re
file1 = open("variation", "r")
file2 = open("annotation.txt", "r")
probe_id = file1.read().splitlines()
loc_id = file2.read().splitlines()

for i in probe_id:
    i=i.rstrip()
    probe_info=i.split('\t')
    probe_info[1]=probe_info[1].strip()
    probe_info[0]=probe_info[0].strip()
    #print probe_info[1]
    gene_list=[]
    for j in loc_id:
        loc_info=j.split('\t')
        loc_info[2]=loc_info[2].strip()
        loc_info[3]=loc_info[3].strip()
        if loc_info[1]==probe_info[0]:
            if (int(probe_info[1]) >= int(loc_info[2])):
                 if (int(probe_info[1]) <=int(loc_info[3])):
                    gene_list.append(loc_info[0])
    if len(gene_list)!=0:
        print i+"\t"+str(gene_list)
SL3.0ch02   702679  C   A   -   -   -   -   -   -   -   -   ['Solyc00g005000.3.1']  
SL3.0ch00   715124  G   A   -   -   -   -   -   -   -   -   ['Solyc00g005040.3.1']  
SL3.0ch00   723860  A   C   Solyc00g005060.1    CDS NONSYNONYMOUS   W/G 52  0   novel   DELETERIOUS (*WARNING! Low confidence)  ['Solyc00g005060.1.1', 'Solyc00g005080.2.1']    
SL3.0ch00   723867  A   C   Solyc00g005060.1    CDS SYNONYMOUS  G/G 49  1   novel   TOLERATED   ['Solyc00g005060.1.1', 'Solyc00g005080.2.1']    
SL3.0ch00   723903  T   C   Solyc00g005060.1    CDS SYNONYMOUS  G/G 37  1   novel   TOLERATED   ['Solyc00g005060.1.1']  
代码:

SL3.0ch02   702679  C   A   -   -   -   -   -   -   -   -   Solyc00g005000.3.1  
SL3.0ch00   715124  G   A   -   -   -   -   -   -   -   -   Solyc00g005040.3.1  
SL3.0ch00   723860  A   C   Solyc00g005060.1    CDS NONSYNONYMOUS   W/G 52  0   novel   DELETERIOUS (*WARNING! Low confidence)  Solyc00g005060.1.1  
SL3.0ch00   723860  A   C   Solyc00g005060.1    CDS NONSYNONYMOUS   W/G 52  0   novel   DELETERIOUS (*WARNING! Low confidence)  Solyc00g005080.2.1  
SL3.0ch00   723867  A   C   Solyc00g005060.1    CDS SYNONYMOUS  G/G 49  1   novel   TOLERATED   Solyc00g005060.1.1  
SL3.0ch00   723867  A   C   Solyc00g005060.1    CDS SYNONYMOUS  G/G 49  1   novel   TOLERATED   Solyc00g005080.2.1  
SL3.0ch00   723903  T   C   Solyc00g005060.1    CDS SYNONYMOUS  G/G 37  1   novel   TOLERATED   Solyc00g005060.1.1  
import re
file1 = open("variation", "r")
file2 = open("annotation.txt", "r")
probe_id = file1.read().splitlines()
loc_id = file2.read().splitlines()

for i in probe_id:
    i=i.rstrip()
    probe_info=i.split('\t')
    probe_info[1]=probe_info[1].strip()
    probe_info[0]=probe_info[0].strip()
    #print probe_info[1]
    gene_list=[]
    for j in loc_id:
        loc_info=j.split('\t')
        loc_info[2]=loc_info[2].strip()
        loc_info[3]=loc_info[3].strip()
        if loc_info[1]==probe_info[0]:
            if (int(probe_info[1]) >= int(loc_info[2])):
                 if (int(probe_info[1]) <=int(loc_info[3])):
                    gene_list.append(loc_info[0])
    if len(gene_list)!=0:
        print i+"\t"+str(gene_list)
SL3.0ch02   702679  C   A   -   -   -   -   -   -   -   -   ['Solyc00g005000.3.1']  
SL3.0ch00   715124  G   A   -   -   -   -   -   -   -   -   ['Solyc00g005040.3.1']  
SL3.0ch00   723860  A   C   Solyc00g005060.1    CDS NONSYNONYMOUS   W/G 52  0   novel   DELETERIOUS (*WARNING! Low confidence)  ['Solyc00g005060.1.1', 'Solyc00g005080.2.1']    
SL3.0ch00   723867  A   C   Solyc00g005060.1    CDS SYNONYMOUS  G/G 49  1   novel   TOLERATED   ['Solyc00g005060.1.1', 'Solyc00g005080.2.1']    
SL3.0ch00   723903  T   C   Solyc00g005060.1    CDS SYNONYMOUS  G/G 37  1   novel   TOLERATED   ['Solyc00g005060.1.1']  

这是GNU awk的一个开始,它与染色体数目和范围内的位置相匹配:

$ awk '
NR==FNR {
    a[$2][$3 " " $4]=$0                     # store the annotations
    next
}
($1 in a){                                  # if chromosome found
    for(i in a[$1])                         # process all the ranges
        if(split(i,t)&&$2>=t[1]&&$2<=t[2])  # if there is a match
            print                           # output
}' anno vari

这是GNU awk的一个开始,它与染色体数目和范围内的位置相匹配:

$ awk '
NR==FNR {
    a[$2][$3 " " $4]=$0                     # store the annotations
    next
}
($1 in a){                                  # if chromosome found
    for(i in a[$1])                         # process all the ranges
        if(split(i,t)&&$2>=t[1]&&$2<=t[2])  # if there is a match
            print                           # output
}' anno vari

预处理“annotation.txt”并提前创建字典以减少循环中的计算将非常有效。
请尝试以下操作:

#!/usr/bin/python

import re
file1 = open("variation.txt", "r")
file2 = open("annotation.txt", "r")
probe_id = file1.read().splitlines()
loc_id = file2.read().splitlines()
annotation = {}

for i in loc_id:
    loc_info=i.split('\t')
    gene = loc_info[0].strip()
    chromosome = loc_info[1].strip()
    start = int(loc_info[2].strip())
    end = int(loc_info[3].strip())
    if (chromosome in annotation.keys()):
        annotation[chromosome].append([start, end, gene])
    else:
        annotation[chromosome] = [[start, end, gene]]

for i in probe_id:
    i = i.rstrip()
    probe_info = i.split('\t')
    position = int(probe_info[1].strip())
    chromosome = probe_info[0].strip()

    if (chromosome in annotation.keys()):
        for j in annotation[chromosome]:
            if (j[0] <= position and position <= j[1]):
                print i + '\t' + j[2]
我想算法基本上接近于@James Brown的答案。

希望这会有所帮助。

预先处理“annotation.txt”并创建字典以减少循环中的计算将非常有效。
请尝试以下操作:

#!/usr/bin/python

import re
file1 = open("variation.txt", "r")
file2 = open("annotation.txt", "r")
probe_id = file1.read().splitlines()
loc_id = file2.read().splitlines()
annotation = {}

for i in loc_id:
    loc_info=i.split('\t')
    gene = loc_info[0].strip()
    chromosome = loc_info[1].strip()
    start = int(loc_info[2].strip())
    end = int(loc_info[3].strip())
    if (chromosome in annotation.keys()):
        annotation[chromosome].append([start, end, gene])
    else:
        annotation[chromosome] = [[start, end, gene]]

for i in probe_id:
    i = i.rstrip()
    probe_info = i.split('\t')
    position = int(probe_info[1].strip())
    chromosome = probe_info[0].strip()

    if (chromosome in annotation.keys()):
        for j in annotation[chromosome]:
            if (j[0] <= position and position <= j[1]):
                print i + '\t' + j[2]
我想算法基本上接近于@James Brown的答案。

希望这能有所帮助。

将整个大文件读入内存,这样您就可以一次循环一行,这当然是一种反模式,在这里应该很容易修复。类似地,您正在循环使用
loc\u id
并将行处理成一个结构,然后将其丢弃,并在下一次迭代中再次执行相同的工作。所需输出中的第二条记录是否为错误(
SL3.0ch00 715124…
)?将整个大文件读入内存,以便一次循环一行,这当然是一种反模式,在这里应该很容易修复。类似地,您正在循环使用
loc_id
并将行处理成一个结构,然后将其丢弃,并在下一次迭代中再次执行相同的工作。所需输出中的第二条记录是否为错误(
SL3.0ch00 715124…
)?