def maf5list(self, ws, book):
from analyzer import dataframe_to_rows
from pandas import merge
infolog("writing list of data")
P0, merged = None, None
dumascol = [book.col_GenomeStructure, book.col_RepeatRegion, book.col_ORF, book.col_DumaPosition, book.col_DumaSeq]
for i in range(book.nsheets):
book.BP35[i]['maf'] = divide(book.BP35[i][['minor']], book.BP35[i][['sum']]) * 100
if merged is not None:
merged = merge(merged, book.BP35[i][ book.BP35[i]['maf']>=5.0], on=dumascol, how='outer', right_index=True, left_index=True)
else:
merged = book.BP35[i][ book.BP35[i]['maf']>= 5.0 ]
merged = merged[book.col_DumaPosition].values.tolist()
for i in range(book.nsheets):
if P0 is not None:
P0 = merge(P0, book.BP35[i][ book.BP35[i][book.col_DumaPosition].isin(merged) ], on=dumascol, how='outer',
left_index=True, right_index=True)
else:
P0 = book.BP35[i][ book.BP35[i][book.col_DumaPosition].isin(merged) ]
# P0.to_excel('a.xlsx')
# bp = bp[ self.dumascol + []]
rows = dataframe_to_rows(P0, index=False)
for r_idx, row in enumerate(rows, 1):
for c_idx, value in enumerate(row, 1):
if str(value) != 'nan':
ws.cell(row=r_idx, column=c_idx, value=value)
def sheet6(self,ws, book):
infolog("Start sheet6")
col = 'B'
for i in range(0, len(self.s1)):
ws[col+'2'] = str(self.s1[i]) + '~' + str(self.s2[i]) +'%' # if self.s2[i] != 51.0 else str(self.s1[i]) + '%~'
# get basepair between s1 and s2
mxr = []
for n in range(0, book.nsheets):
_, _, minor_ = book.get_Number_of_GPS(book.BP35[n], self.s1[i], self.s2[i])
mxr.append(book.BP35[n].loc[minor_.index])
for x in range(-1, book.nsheets):
ws[col+'3'] = book.sheet_list[x] if x != -1 else "Major/Minor"
rows = 4
for a in range(0, len(book.col_basepair)):
for b in range(0, len(book.col_basepair)):
if a==b:
continue
ws[col+str(rows)] = len(mxr[x][logical_and( mxr[x]['major_idx']==a,
mxr[x]['minor_idx']==b )]) if x != -1 else book.col_basepair[a] + '/' + book.col_basepair[b]
rows = rows + 1
col = next_col(col)
col = next_col(col)
infolog("End sheet6")
def mergesequence(self):
from analyzer import infolog
from pandas import merge
infolog("mergesequence start")
# print(type(self.sheet_list), len(self.sheet_list))
for sheet in self.sheets:
# sheet = self.xls.parse(x)
# print(type(sheet))
if self.P0 is None:
self.P0 = sheet
else:
self.P0 = merge(self.P0,
sheet,
how='outer',
on=[
self.col_GenomeStructure,
self.col_RepeatRegion, self.col_ORF,
self.col_DumaPosition, self.col_DumaSeq
])
sheet = sheet[sheet[self.col_Sequence] != '-']
self.BPRaw.append(sheet)
self.BPRawLength.append(len(sheet))
self.Dumas = self.P0[self.P0[self.col_DumaSeq] != '-']
infolog("mergesequence end")
def BaseComp(self, ws, types_, book):
"""
major가 같은 것, minor도 같은 것만 추출
minor x -> 증가 포함
1. major_idx_x == major_idx_y - 치환 제거
2. (minor_idx_x == minor_idx_y) or ((minor_idx_x != minor_idx_y) and minor_x == 0)
"""
infolog("lowhigh BaseComp start")
ws.merge_cells(start_row=1, start_column=1, end_row=2, end_column=1)
ws['B1'], ws['B2'] = 'Major', 'Minor'
ws['D1'], ws['H1'], ws['L1'], ws['P1'] = 'A', 'G', 'C', 'T'
ws['G2'], ws['K2'], ws['O2'] = 'a', 'a', 'a'
ws['C2'], ws['L2'], ws['P2'] = 'g', 'g', 'g'
ws['D2'], ws['H2'], ws['Q2'] = 'c', 'c', 'c'
ws['E2'], ws['I2'], ws['M2'] = 't', 't', 't'
cols = ['A','G','C','T']
bp = self.BPmergedinc if types_ is "INC" else self.BPmergeddec
for r in range(book.nsheets):
ws['A'+str(r+3)] = book.sheet_list[r]
for r in range(book.nsheets):
col = 'C'
cond1 = bp[r]['major_idx_x'] == bp[r]['major_idx_y']
cond2 = bp[r]['minor_idx_x'] == bp[r]['minor_idx_y']
cond3 = logical_and( bp[r]['minor_idx_x'] != bp[r]['minor_idx_y'], bp[r]['minor_x'] == 0 )
idx = logical_and(cond1, logical_or(cond2, cond3))
tmp = bp[r][ idx.values ]
for a in range(len(cols)):
for b in range(len(cols)):
if a == b:
continue
# major는 _x, _y 가 이미 같고, minor는 _y기준으로 하면 _x에서 minor가 0이던값 무시됨
ws[col+str(r+3)] = len(tmp[ logical_and(tmp['major_idx_y'] == a, tmp['minor_idx_y'] == b).values ])
col = next_col(col)
col = next_col(col)
infolog("lowhigh BaseComp end")
def Init_Individual(self, book):
infolog("lowhigh init start")
sheet_names = []
BPmaf = []
for bp in book.BP35:
#get maf 5%
infolog("bp 5.0 ~ 50.0")
s, l, minor_ = book.get_Number_of_GPS(bp, 5.0, 51.0)
BPmaf.append(bp.loc[minor_.index])
for i, x in enumerate(BPmaf):
for j, y in enumerate(BPmaf):
if i >= j:
continue
infolog("{0} -> {1}".format(i,j))
sheet_names.append(book.sheet_list[i]+'->'+book.sheet_list[j])
# low의 maf5%이상과 high의 maf5%이상 값을 병합
# 둘 중 하나라도 sum >= 35.0 and maf 5% 이상인 값에서 분석을 진행
dumaspos = pd.merge(x,y, how='outer', on=self.dumascol, suffixes=('_x', '_y'), right_index=True, left_index=True)[[book.col_DumaPosition]]
# dumas position 기준으로 양쪽 위치 추출
x1 = book.BP35[i][ book.BP35[i][book.col_DumaPosition].isin(dumaspos[book.col_DumaPosition].values.tolist())] if len(dumaspos) is not 0 else pd.DataFrame()
y1 = book.BP35[j][ book.BP35[j][book.col_DumaPosition].isin(dumaspos[book.col_DumaPosition].values.tolist())] if len(dumaspos) is not 0 else pd.DataFrame()
merged = pd.merge(x1,y1, how='outer', on=self.dumascol, suffixes=('_x', '_y'), right_index=True, left_index=True)
if(len(x1) is 0 or len(y1) is 0):
self.BPmergedinc.append(pd.DataFrame())
self.BPmergeddec.append(pd.DataFrame())
continue
x_maf = divide(x1[['minor']], x1[['sum']]) * 100
y_maf = divide(y1[['minor']], y1[['sum']]) * 100
# 증가하는 위치와 감소하는 위치
## 양쪽에 서로 없는 index가 있으면 Error - 한쪽에 값이 없으면 NaN : dropna함수로 제거
merged['diffofinc'] = y_maf - x_maf
merged['diffofdec'] = x_maf - y_maf
cond1 = merged['major_idx_x'] == merged['major_idx_y']
cond2 = merged['diffofinc'] >= 5.0
cond3 = merged['diffofdec'] >= 5.0
# 한쪽에 값이 없으면 drop되기 때문에 어디쪽에 해도 상관은 없음
self.BPmergedinc.append(pd.DataFrame.dropna(merged[ logical_and(cond1, cond2).values ], how='all'))
self.BPmergeddec.append(pd.DataFrame.dropna(merged[ logical_and(cond1, cond3).values ], how='all'))
book.sheet_list = sheet_names
book.nsheets = len(sheet_names)
infolog("lowhigh init end")
def sheet2(self, ws, book):
infolog("Start Sheet2")
ws['A1'] = "strain"
ws.merge_cells(start_row=1, start_column=1, end_row=2, end_column=2)
ws['C1'] = "Genome length (bp)"
ws.merge_cells(start_row=1, start_column=3, end_row=2, end_column=3)
ws['D1'] = "Range of minor allele frequency(%)"
ws.merge_cells(start_row=1, start_column=4, end_row=1, end_column=4+len(self.s1))
col = 'D'
for ss1, ss2 in zip(self.s1, self.s2):
ws[col+'2'] = str(ss1) + '≤f<' + str(ss2)
col = next_col(col)
for i in range(book.nsheets):
infolog("Writing {0} sheet".format(book.sheet_list[i]))
ws['A' + str(i+3)] = book.sheet_list[i]
ws['C' + str(i+3)] = book.BPRawLength[i]
ws.merge_cells(start_row=3+i, start_column=1, end_row=3+i, end_column=2)
col = 'D'
for r1, r2 in zip(self.s1, self.s2):
s, l, _ = book.get_Number_of_GPS(book.BP35[i], r1, r2) if len(book.BPxMinor[i])!=0 else (0,0)
ws[col + str(i+3)] = str(round(s/l, 3))+'%' if l is not 0 else '-'
col = next_col(col)
infolog("End Sheet2")
def PolymorphicSite(self, ws, types_, book):
infolog("lowhigh PolymorphicSite start")
ws.title = "INC-Polymorphic site"
# A col
ws['A1'] = types_
ws.merge_cells(start_row=1, start_column=1, end_row=2, end_column=2)
# C col
ws['C1'] = "Increase in genetic polymrphism (%)"
ws.merge_cells(start_row=1, start_column=3, end_row=1, end_column=6)
from numpy import logical_and
for i in range(book.nsheets):
ws['A' + str(i+3)] = book.sheet_list[i]
ws.merge_cells(start_row=i+3, start_column=1, end_row=i+3, end_column=2)
col = 'C'
bp = self.BPmergedinc[i][['diffofinc']] if types_ == 'INC' else self.BPmergeddec[i][['diffofdec']]
for s1_, s2_ in zip(self.s1, self.s2):
ws[col+'2'] = str(s1_) + '≤n<' + str(s2_) # 'Sum' if s1_ == 5.0 and s2_ == 51.0 else str(s1_) + '≤n<' + str(s2_)
ws[col+str(i+3)] = len(bp[ logical_and(bp >= s1_, bp < s2_).values]) if len(bp) is not 0 else 0
col = next_col(col)
infolog("lowhigh PolymorphicSite end")
def preprocessing(self):
from analyzer import infolog
from pandas import DataFrame
infolog("preprocessing start")
for bp in self.BPRaw:
self.BPRawLength.append(len(bp))
# 염기 A, G, C, T의 합계 컬럼 추가
bp["sum"] = bp[self.col_basepair].sum(axis=1)
# 35bp
bp = bp[[
self.col_GenomeStructure, self.col_RepeatRegion,
self.col_DumaPosition, self.col_DumaSeq, self.col_ORF,
self.col_Sequence, "sum"
] + self.col_basepair]
# sum 값이 35 이상인 데이터 추출
# constraions = 35.0
bp = bp[bp["sum"] >= self.constraints]
pmajor, pminor = self.get_major_minor(bp[self.col_basepair])
# major, minor의 값을 추출
self.BPxMajor.append(pmajor)
self.BPxMinor.append(pminor)
# pminor, pmajor가 값을 가지지 않을 때 에러 발생
bp['minor'] = pminor if len(pminor) is not 0 else 0
bp['major'] = pmajor if len(pmajor) is not 0 else 0
self.BP35.append(bp)
# major, minor의 인덱스 컬럼 추가
for bp in self.BP35:
argx = -bp[self.col_basepair] # A, G, C, T의 순으로 우선순위를 위해 음수로 정렬
bps = argx.values.argsort(axis=1)
bp['minor_idx'] = DataFrame(bps[:, 1], index=bp.index)
bp['major_idx'] = DataFrame(bps[:, 0], index=bp.index)
infolog("preprocessing end")
def sheet1(self,ws, book):
infolog("Start Sheet1")
ws.title = "Polymorphic site"
ws['A1'] = "strain"
ws['C1'] = "Genome length (bp)"
ws['D1'] = "Average of MAF"
ws['E1'] = "Number of polymorphic site"
ws.merge_cells(start_row=1, start_column=5, end_row=1, end_column=5+len(self.s1))
ws.merge_cells(start_row=1, start_column=1, end_row=2, end_column=2)
ws.merge_cells(start_row=1, start_column=3, end_row=2, end_column=3)
ws.merge_cells(start_row=1, start_column=4, end_row=2, end_column=4)
col = 'E'
for ci in range(len(self.s1)):
ws[col+'2'] = str(self.s1[ci]) + '≤n<' + str(self.s2[ci])
col = next_col(col)
for ni in range(book.nsheets):
infolog("Writing {} sheet".format(book.sheet_list[ni]))
ws['A' + str(ni+3)] = book.sheet_list[ni]
ws.merge_cells(start_row=3+ni, start_column=1, end_row=3+ni, end_column=2)
ws['C' + str(ni+3)] = book.BPRawLength[ni]
s, l, _ = book.get_Number_of_GPS(book.BP35[ni], 5.0, 51.0)
ws['D' + str(ni+3)] = str(round(s / l, 3)) + '%'
col = 'E'
for ss1, ss2 in zip(self.s1, self.s2):
ws[col + str(ni+3)] = book.get_Number_of_GPS(book.BP35[ni], ss1, ss2)[1]
col = next_col(col)
# ws['E2'] = "2.5≤f<5"
# ws['F2'] = "5≤f<15"
# ws['G2'] = "15≤f<25"
# ws['H2'] = "25≤f"
# ws['I2'] = "sum"
# # A col
# for i in range(book.nsheets):
# infolog("{0} Writing {1} sheet".format(time.time(), book.sheet_list[i]))
# ws['A' + str(i+3)] = book.sheet_list[i]
# ws.merge_cells(start_row=3+i, start_column=1, end_row=3+i, end_column=2)
# ws['C' + str(i+3)] = book.BPRawLength[i]
# s, l, _ = book.get_Number_of_GPS(book.BP35[i], 5.0, 51.0)
# ws['D' + str(i+3)] = str(round(s / l, 3)) + '%'
# ws['E' + str(i+3)] = book.get_Number_of_GPS(book.BP35[i], 2.5, 5.0)[1]
# ws["F" + str(i+3)] = book.get_Number_of_GPS(book.BP35[i], 5.0, 15.0)[1]
# ws["G" + str(i+3)] = book.get_Number_of_GPS(book.BP35[i], 15.0, 25.0)[1]
# ws["H" + str(i+3)] = book.get_Number_of_GPS(book.BP35[i], 25.0, 51.0)[1]
# ws["I" + str(i+3)] = book.get_Number_of_GPS(book.BP35[i], 5.0, 51.0)[1]
infolog("End Sheet1")
def sheet4_5(self, ws, title, book):
infolog("Start sheet {0}".format(4 if title is "ORF" else 5))
ws['B2'] = book.filename
ws["C2"] = "(BP_full)Length"
ws.merge_cells(start_row=2, start_column=3, end_row=2, end_column=3+book.nsheets-1)
ws["B3"] = title
col = 'C'
for i in range(0, book.nsheets):
ws[col + str(3)] = book.sheet_list[i]
col = next_col(col)
# Full - 35이하 포함
col = 'B'
orf_ = book.ORF if title is 'ORF' else book.NCR
rows = list(range(4, len(orf_) + 4))
for c in range(0, book.nsheets+1):
cnt_ = 0
for i in range(0, len(orf_)):
if c is 0:
ws[col+str(rows[i])] = orf_[i]
else:
tmp = len(book.BPRaw[c-1][ book.BPRaw[c-1][book.col_ORF] == orf_[i] ])
ws[col+str(rows[i])] = tmp
cnt_ += tmp
ws[col + str(4+len(orf_))] = cnt_ if c is not 0 else 'total'
col = next_col(col)
# s1~s2 범위
col = chr(ord('A')+3+book.nsheets)
for i in range(0, len(self.s1)):
co = (5+3*book.nsheets) * i + (5+book.nsheets)
ws[col+str(2)] = str(self.s1[i]) + '~' + str(self.s2[i]) +'%' if self.s2[i] != 51.0 else str(self.s1[i]) + '%~'
ws[col+str(3)] = title # NCR or ORF
for ix in range(0, len(orf_)):
ws[col+str(rows[ix])] = orf_[ix]
ws[col+str(len(orf_) + 4)] = 'total'
# Number of GPS of each sheets
gps = list()
col = next_col(col)
ws[col+str(2)] = "Number of GPS"
ws.merge_cells(start_row=2, start_column=co, end_row=2, end_column=co+book.nsheets)
dcol = next_n_col(col, book.nsheets)
for n in range(0, book.nsheets):
ws[col+str(3)] = book.sheet_list[n]
_, _, tx_minor = book.get_Number_of_GPS(book.BP35[n], self.s1[i], self.s2[i])
tx_rows = book.BP35[n].loc[ tx_minor.index ]
g = []
cnt_ = 0
for ix in range(0, len(orf_)):
mrows = tx_rows[ tx_rows[book.col_ORF] == orf_[ix] ]
ws[col+str(rows[ix])] = len(mrows)
cnt_ += len(mrows)
g.append(len(mrows))
# 180612
ws[dcol+str(rows[ix])] = float(ws[dcol+str(rows[ix])].value) + len(mrows) if ws[dcol+str(rows[ix])].value != None else len(mrows)
ws[col+str(len(orf_) + 4)] = cnt_
ws[dcol+str(len(orf_) + 4)] = float(ws[dcol+str(len(orf_) + 4)].value) + cnt_ if ws[dcol+str(len(orf_) + 4)].value != None else cnt_
g.append(cnt_)
gps.append(g)
col = next_col(col)
col = next_col(col)
gcol = next_n_col(col, book.nsheets)
# Average MAF at GPS of each sheets
ws[col+str(2)] = "Average MAF at GPS"
ws.merge_cells(start_row=2, start_column=co+book.nsheets+1, end_row=2, end_column=co+2*book.nsheets+1)
for n in range(0, book.nsheets):
val, cnt_ = 0, 0
ws[col+str(3)] = book.sheet_list[n]
_, _, tx_minor = book.get_Number_of_GPS(book.BP35[n], self.s1[i], self.s2[i])
tx_rows = book.BP35[n].loc[ tx_minor.index ]
for ix in range(0, len(orf_)):
mrows = tx_rows[ tx_rows[book.col_ORF] == orf_[ix] ]
if len(mrows) is 0:
ws[col+str(rows[ix])] = '-'
# 180612
ws[gcol+str(rows[ix])] = ws[gcol+str(rows[ix])].value if ws[gcol+str(rows[ix])].value != None else 0
else:
maf_ = divide(mrows[["minor"]], mrows[["sum"]]) * 100
val += maf_.sum()[0]
cnt_ += len(maf_)
ws[col+str(rows[ix])] = str(round(maf_.sum()[0] / len(maf_), 3)) + '%'
# 180612
ws[gcol+str(rows[ix])] = float(ws[gcol+str(rows[ix])].value) + maf_.sum()[0] if ws[gcol+str(rows[ix])].value != None else maf_.sum()[0]
# total
ws[col+str(len(orf_)+4)] = str(round(val / cnt_, 3)) + '%' if cnt_ is not 0 else '-'
ws[gcol+str(len(orf_)+4)] = float(ws[gcol+str(len(orf_)+4)].value) + val if ws[gcol+str(len(orf_)+4)].value != None else val
col = next_col(col)
col = next_col(col)
# "Number of GPS / Length" of each sheets
ws[col+str(2)] = "Number of GPS / Length * 100"
ws.merge_cells(start_row=2, start_column=co+2*book.nsheets+2, end_row=2, end_column=co+3*book.nsheets+2)
ncol = 'C'
d2col = next_n_col(col, book.nsheets)
for n in range(0, book.nsheets):
ws[col+str(3)] = book.sheet_list[n]
for ix in range(0, len(orf_)):
l_ = int(str(ws[ncol+str(rows[ix])].value))
ws[col+str(rows[ix])] = (gps[n][ix] / l_)*100 if l_ is not 0 else '-'
ws[d2col+str(rows[ix])] = float(ws[d2col+str(rows[ix])].value) + l_ if ws[d2col+str(rows[ix])].value != None else l_
# total
l_ = int(str(ws[ncol+str(len(orf_)+4)].value))
ws[col+str(len(orf_)+4)] = (gps[n][-1] / l_)*100 if l_ is not 0 else '-'
ws[d2col+str(len(orf_)+4)] = float(ws[d2col+str(len(orf_)+4)].value) + l_ if ws[d2col+str(len(orf_)+4)].value != None else l_
ncol = next_col(ncol)
col = next_col(col)
for row_ in range(4, len(orf_)+5):
ws[dcol+str(row_)] = float(ws[dcol+str(row_)].value) / book.nsheets if float(ws[dcol+str(row_)].value) != 0 else 0
ws[gcol+str(row_)] = str(round(float(ws[gcol+str(row_)].value) / float(ws[dcol+str(row_)].value), 3)) + '%' if float(ws[dcol+str(row_)].value) != 0 else '-'
ws[d2col+str(row_)] = float(ws[dcol+str(row_)].value) / (float(ws[d2col+str(row_)].value) / 3) * 100 if float(ws[d2col+str(row_)].value) != 0 else 0
# end for s1
col = next_col(next_col(col))
infolog("End sheet {0}".format( 4 if title is "ORF" else 5))
def Init_Average(self, book):
# book.save_data(book, 'Average_book_vaccine.pkl')
for sn in book.sheet_list:
assert sn[0] == 'A' or sn[0] == 'B', "sheet name"
# for i in range(0,len(book.nsheets)):
# book.BPRaw[i]['sum_'+ book.sheet_list[i]] = book.BPRaw[i][book.basepair].sum(axis=1)
# A & B 위치별 MAF 평균
# Avg(A) ~ Avg(B)의 변화 분석
infolog("Init_Average")
# # 필요 최종 column : dumacol(5), diffofdec, diffofinc, minor_idx_x, minor_idx_y, ->major(2) / minor..
# # 필요 값 : any maf 5% 이상, all maf 5% 이상, 값이 있는 곳
## 정한 값 : minor_idx_x -> A의 가장 마지막.. / minor_idx_y -> B의 가장 마지막
## minor_x -> A의 minor 평균 / minor_y -> B의 minor 평균
##
for j, i in enumerate(book.BP35):
i['maf_'+book.sheet_list[j]] = divide(i[['minor']], i[['sum']]) * 100
i[book.sheet_list[j][0].upper()+'_minor_idx'] = i[['minor_idx']]
book.BP35[j] = i.drop(columns='minor_idx')
merged = book.BP35[0].drop(columns=['seq', 'sum', 'A', 'G', 'C', 'T', 'major'])
merged['maf_'+book.sheet_list[0][0].upper()] = book.BP35[0]['maf_'+book.sheet_list[0]]
for i in range(1, book.nsheets):
book.BP35[i] = book.BP35[i].drop(columns=['seq', 'sum', 'A', 'G', 'C', 'T', 'major'])
grp = book.sheet_list[i][0].upper()
col_maf = 'maf_' + grp
col_minor_idx = grp+'_minor_idx'
merged = pd.merge(merged, book.BP35[i], on=self.dumascol, how='outer')
if not merged.columns.contains(col_maf):
merged[col_maf] = merged['maf_' + book.sheet_list[i] ]
else :
merged[col_maf] = merged[[col_maf, 'maf_'+book.sheet_list[i]]].sum(axis=1)
if merged.columns.contains(col_minor_idx+'_x'):
merged[col_minor_idx] = merged[col_minor_idx+'_y']
merged = merged.drop(columns=col_minor_idx+'_x').rename(index=str, columns={col_minor_idx+'_y' : col_minor_idx})
merged = merged[ merged['major_idx_x'] == merged['major_idx_y'] ]
merged = merged.drop(columns = 'major_idx_x').rename(index=str, columns={"major_idx_y": "major_idx"})
Acol, Bcol = [], []
for i in range(len(book.sheet_list)):
if book.sheet_list[i][0].upper() == 'A':
Acol.append('maf_'+book.sheet_list[i])
else:
Bcol.append('maf_'+book.sheet_list[i])
merged['maf_A'] = merged['maf_A'] / len(Acol)
merged['maf_B'] = merged['maf_B'] / len(Bcol)
A_all, A_any = True, False
B_all, B_any = True, False
for i in Acol:
A_all = logical_and( A_all, merged[i] >= 5.0 )
A_any = logical_or( A_any, merged[i] >= 5.0 )
for i in Bcol:
B_all = logical_and( B_all, merged[i] >= 5.0 )
B_any = logical_or( B_any, merged[i] >= 5.0 )
# A, B = [], []
merged['minor_idx_x'] = merged['A_minor_idx'].T[-1:].T
merged['minor_idx_y'] = merged['B_minor_idx'].T[-1:].T
merged['major_idx_x'] = merged['major_idx']
merged['major_idx_y'] = merged['major_idx']
merged = merged.drop(columns = ['A_minor_idx', 'B_minor_idx'])
tmpx = merged['minor_x'].sum(axis=1) / len(Acol)
tmpy = merged['minor_y'].sum(axis=1) / len(Bcol)
merged = merged.drop(columns=['minor_x', 'minor_y'])
merged['minor_x'] = tmpx
merged['minor_y'] = tmpy
merged['diffofinc'] = merged['maf_B'] - merged['maf_A']
merged['diffofdec'] = merged['maf_A'] - merged['maf_B']
cond2 = merged['diffofinc'] >= 5.0
cond3 = merged['diffofdec'] >= 5.0
maf_5_all = merged[ logical_and(A_all, B_all).values ]
maf_5_any = merged[ logical_or(A_any, B_any).values ]
merged.to_excel('{}_merged.xlsx'.format(book.filename))
maf_5_all.to_excel('{}_maf_5_all.xlsx'.format(book.filename))
maf_5_any.to_excel('{}_maf_5_any.xlsx'.format(book.filename))
# print(len(merged), len(maf_5_all), len(maf_5_any))
self.BPmergedinc.append( merged)
self.BPmergedinc.append(maf_5_all)
self.BPmergedinc.append(maf_5_any)
self.BPmergeddec.append( merged)
self.BPmergeddec.append(maf_5_all)
self.BPmergeddec.append(maf_5_any)
book.sheet_list = ['All', 'All_5', 'Any_5']
book.nsheets = len(book.sheet_list)
infolog("End Init_Average")
def ORFNCR(self, ws, types_, title, book):
infolog("lowhigh {0} start".format(title))
ws['A1'] = title
ws.merge_cells(start_row=1, start_column=1, end_row=2, end_column=1)
ws['B1'] = 'Length'
ws.merge_cells(start_row=1, start_column=2, end_row=2, end_column=2)
orfncr = book.ORF if title is 'ORF' else book.NCR
col_diff = "diffofinc" if types_ == 'INC' else "diffofdec"
bp = self.BPmergedinc if types_ == 'INC' else self.BPmergeddec
sum_, col = 0, 'B'
for si in range(-1, book.nsheets):
sum_ = 0
if si != -1:
ws[col+'2'] = book.sheet_list[si]
for r in range(len(orfncr)):
if si == -1:
ws['A'+str(r+3)] = orfncr[r]
cnt = len(book.Dumas[ book.Dumas[book.col_ORF] == orfncr[r] ])
ws[col+str(r+3)] = cnt
sum_ += cnt
else:
cnt = len( bp[si][ bp[si][book.col_ORF] == orfncr[r] ] )
ws[col+str(r+3)] = cnt
sum_ += cnt
ws[col+str(3+len(orfncr))] = sum_
col = next_col(col)
ws['A'+str(3+len(orfncr))] = 'Total'
col = next_col(col)
for i in range(len(self.s1)):
# ORF or CNR 종류
ws[col+'1'] = str(self.s1[i])+'~'+str(self.s2[i]) #if self.s2[i]!=51.0 else str(self.s1[i])+'~'
for r in range(len(orfncr)):
ws[col+str(r+3)] = orfncr[r]
col = next_col(col)
col_GPS = col
ws[col+'1'] = '{0} in genetic polymorphism'.format("Increase" if types_ == 'INC' else "Decrease")
for s in range(book.nsheets):
ws[col+'2'] = book.sheet_list[s]
bpx = bp[s][ logical_and(bp[s][col_diff] >= self.s1[i], bp[s][col_diff] < self.s2[i]).values ]
sum_ = 0
for r in range(3, 3+len(orfncr)):
cnt = len(bpx[ bpx[book.col_ORF] == orfncr[r-3]])
ws[col+str(r)] = cnt
sum_ += cnt
ws[col+str(3+len(orfncr))] = sum_
col = next_col(col)
ws[col+'1'] = 'Average {0}'.format("Increase" if types_ == 'INC' else "Decrease")
for s in range(book.nsheets):
ws[col+'2'] = book.sheet_list[s]
bpx = bp[s][ logical_and(bp[s][col_diff] >= self.s1[i], bp[s][col_diff] < self.s2[i]).values ]
sum_ = 0
for r in range(3, 3+len(orfncr)):
cnt = bpx[ bpx[book.col_ORF] == orfncr[r-3]][[col_diff]]
ws[col+str(r)] = str(round(cnt.sum()[0] / len(cnt), 3))+'%' if len(cnt) is not 0 else 'N/A'
sum_ += cnt.sum()[0]
col = next_col(col)
ws[col+'1'] = 'Number of GPS / Length'
for s in range(book.nsheets):
ws[col+'2'] = book.sheet_list[s]
for r in range(3, 3+len(orfncr)):
s, l = float(ws[col_GPS+str(r)].value), float(ws['B'+str(r)].value)
ws[col+str(r)] = str( round(s/l, 6) ) if l != 0 else 'N/A'
col_GPS = next_col(col_GPS)
col = next_col(col)
col = next_col(col)
infolog("lowhigh {0} end".format(title))
def GenomeStr(self, ws, types_, book):
infolog("lowhigh GenomeStr start")
bp = self.BPmergedinc if types_ == 'INC' else self.BPmergeddec
col_diff = "diffofinc" if types_ == 'INC' else "diffofdec"
# s1 ~ s2
for i in range(len(self.s1)):
rows = i*(14+len(book.GenomeStructure) + len(book.RepeatRegion))+ 1
ws['A'+str(rows)] = 'Region'
ws.merge_cells(start_row=rows, start_column=1, end_row=rows+1, end_column=1)
ws['B'+str(rows)] = 'Dumas Length'
ws.merge_cells(start_row=rows, start_column=2, end_row=rows+1, end_column=2)
for r in range(2, 2+len(book.GenomeStructure)):
ws['A' + str(rows+r)] = book.GenomeStructure[r-2]
ws['B' + str(rows+r)] = len(book.Dumas[ book.Dumas[book.col_GenomeStructure] == book.GenomeStructure[r-2] ])
ws['A' + str(rows+2+len(book.GenomeStructure))] = 'Total'
ws['B' + str(rows+2+len(book.GenomeStructure))] = len(book.Dumas)
sum_ = 0
for r in range(len(book.RepeatRegion)):
row = rows+r+3+len(book.GenomeStructure)
ws['A' + str(row)] = book.RepeatRegion[r]
cnt = len(book.Dumas[ book.Dumas[book.col_RepeatRegion] == book.RepeatRegion[r] ])
ws['B' + str(row)] = cnt
sum_ += cnt
leng = rows+ len(book.GenomeStructure) + len(book.RepeatRegion)
ws['A' + str(leng+3)] = 'Total'
ws['B' + str(leng+3)] = sum_
ws['A' + str(leng+4)] = 'ORF'
ws['B' + str(leng+4)] = len(book.Dumas[ book.Dumas[book.col_ORF].isin(book.ORF)])
ws['A' + str(leng+5)] = 'NCR'
ws['B' + str(leng+5)] = len(book.Dumas[ book.Dumas[book.col_ORF].isin(book.NCR)])
col = 'C'
ws[col+str(rows)] = '{0} in genetic polymorphism'.format("Increase" if types_ is 'INC' else "Decrease")
ws.merge_cells(start_row=rows, start_column=3, end_row=rows, end_column=2+book.nsheets)
ws[chr(ord(col)+book.nsheets)+str(rows)] = "Average {0}".format("Increase" if types_ is 'INC' else "Decrease")
ws.merge_cells(start_row=rows, start_column=3+book.nsheets, end_row=rows, end_column=2+2*book.nsheets)
for s in range(book.nsheets):
idx = logical_and( bp[s][col_diff] >= self.s1[i], bp[s][col_diff] < self.s2[i] )
bpx = bp[s][idx.values]
ncol = chr(ord(col)+book.nsheets)
ws[col+str(rows+1)] = book.sheet_list[s]
ws[chr(ord(col)+book.nsheets)+str(rows+1)] = book.sheet_list[s]
sum_, avg_ = 0, 0
for r in range(2, 2+len(book.GenomeStructure)):
cnt = bpx[ bpx[book.col_GenomeStructure] == book.GenomeStructure[r-2]][[col_diff]]
ws[col+str(rows+r)] = len(cnt)
ws[ncol+str(rows+r)] = str(round((cnt.sum()[0] / len(cnt)), 3))+'%' if len(cnt) is not 0 else 'N/A'
avg_ += cnt.sum()[0]
sum_ += len(cnt)
# Total
ws[col+str(rows+2+len(book.GenomeStructure))] = sum_
ws[chr(ord(col)+book.nsheets)+str(rows+2+len(book.GenomeStructure))] = str(round(avg_/sum_, 3))+'%' if sum_ is not 0 else 'N/A'
sum_, avg_ = 0, 0
for r in range(len(book.RepeatRegion)):
row = rows+r+3+len(book.GenomeStructure)
cnt = bpx[ bpx[book.col_RepeatRegion] == book.RepeatRegion[r]][[col_diff]]
ws[col+str(row)] = len(cnt)
ws[ncol+str(row)] = str(round((cnt.sum()[0] / len(cnt)),3))+'%' if len(cnt) is not 0 else 'N/A'
sum_ += len(cnt)
avg_ += cnt.sum()[0]
ws[col+str(3+leng)] = sum_
ws[ncol+str(3+leng)] = str(round(avg_/sum_,3))+'%' if sum_ is not 0 else 'N/A'
# ORF & NCR
cnt = bpx[ bpx[book.col_ORF].isin(book.ORF)][[col_diff]]
ws[col+str(4+leng)] = len(cnt)
ws[ncol+str(4+leng)] = str(round(cnt.sum()[0] / len(cnt), 3))+'%' if len(cnt) is not 0 else 'N/A'
cnt = bpx[ bpx[book.col_ORF].isin(book.NCR)][[col_diff]]
ws[col+str(5+leng)] = len(cnt)
ws[ncol+str(5+leng)] = str(round(cnt.sum()[0] / len(cnt), 3))+'%' if len(cnt) is not 0 else 'N/A'
col = next_col(col)
ncol = chr(ord(ncol)+book.nsheets)
ws[ncol+str(rows+2)] = str(self.s1[i])+"~"+str(self.s2[i]) #if self.s2[i] != 51.0 else str(self.s1[i])+"~"
infolog("lowhigh GenomeStr end")
def sheet7(self, ws, book):
infolog("Start sheet7")
for i in range(0, len(self.s1)):
r = i * (book.nsheets + 12) + 2
ws["A"+str(r)] = str(self.s1[i]) + "~" + str(self.s2[i]) + "%" #if self.s2[i] != 51.0 else str(self.s1[i]) + "%~"
ws["B"+str(r)] = "Virus"
ws.merge_cells(start_row=r, start_column=2, end_row=r+2, end_column=2)
ws["C"+str(r)] = "Number of GPS"
ws.merge_cells(start_row=r, start_column=3, end_row=r+2, end_column=3)
ws["D"+str(r)] = "GPS Mean"
ws.merge_cells(start_row=r, start_column=4, end_row=r+2, end_column=4)
ws["E"+str(r)] = "Major"
ws.merge_cells(start_row=r, start_column=5, end_row=r+1, end_column=5)
ws["E"+str(r+2)] = "Minor"
ws['F'+str(r)] = 'A'
ws.merge_cells(start_row=r, start_column=6, end_row=r+1, end_column=8)
ws['I'+str(r)] = 'G'
ws.merge_cells(start_row=r, start_column=9, end_row=r+1, end_column=11)
ws['L'+str(r)] = 'C'
ws.merge_cells(start_row=r, start_column=12, end_row=r+1, end_column=14)
ws['O'+str(r)] = 'T'
ws.merge_cells(start_row=r, start_column=15, end_row=r+1, end_column=17)
ws['E'+str(r+3+book.nsheets)] = 'sum'
for x in range(0, book.nsheets):
row, mafrow = r+x+3, r+book.nsheets+x+5
s, l, minor_ = book.get_Number_of_GPS(book.BP35[x], self.s1[i], self.s2[i])
mxr = book.BP35[x].loc[minor_.index]
# s, l = self.book.get_Number_of_GPS(self.PxMinor[x], self.PxSum[x], self.s1[i], self.s2[i]) if len(self.PxMinor[x])!=0 else (0,0)
ws["B"+str(row)] = book.sheet_list[x]
ws['C'+str(row)] = len(minor_)
ws['D'+str(row)] = str(round(s/l, 3)) + '%' if l != 0 else '-'
col = 'F'
for a in range(0, 4):
for b in range(0, 4):
if a == b:
continue
else:
ws[col+str(r+2)] = book.col_basepair[b].lower()
ext_ = mxr[logical_and( mxr['major_idx']==a, mxr['minor_idx']==b )]
ws[col+str(row)] = len(ext_)
if len(ext_) is not 0:
# maf들의 평균
maf_ = (divide( ext_[['minor']], ext_[['sum']]) * 100).sum()[0]
ws[col+str(mafrow)] = str(round( maf_ / len(ext_), 3)) + '%'
else:
ws[col+str(mafrow)] = 'N/A'
# 전체 개수의 maf
if ws[col+str(r+3+book.nsheets)].value == None:
ws[col+str(r+3+book.nsheets)] = len(ext_)
else:
ws[col+str(r+3+book.nsheets)].value += len(ext_)
if ws[col+str(r+5+ 2*book.nsheets)].value == None:
ws[col+str(r+5+ 2*book.nsheets)] = maf_
# ws[col+str(r+5+ 2*book.nsheets+1)] = ext_[['sum']].sum()[0]
else:
# print(i, "mj ", a, "mn ", b, ext_[['minor']].sum()[0])
ws[col+str(r+5+ 2*book.nsheets)].value += maf_
# ws[col+str(r+5+ 2*book.nsheets+1)].value += ext_[['sum']].sum()[0]
col = next_col(col)
# total maf
col = 'F'
numrow, mnrow = r+3+book.nsheets, r+5+2*book.nsheets
for c in range(0, 12):
ws[col+str(mnrow)] = str(round( float(ws[col+str(mnrow)].value) / float(ws[col+str(numrow)].value), 3))+'%' if ws[col+str(numrow)].value != 0 else 'N/A'
col = next_col(col)
infolog("End sheet7")
def get_Number_of_GPS(self, BP, s1, s2):
"""
s1, s2 범위의 maf값을 갖는 base pair의 수, 길이, minor 값을
"""
from analyzer import infolog
infolog("before import")
from numpy import divide, logical_and
infolog("before divide")
infolog(BP.columns)
maf_ = divide(BP[['minor']], BP[['sum']]) * 100
infolog("before and")
idx = logical_and(maf_ >= s1, maf_ < s2)
idx = idx.values.tolist()
infolog("before return")
infolog(maf_[idx].sum()[0])
return maf_[idx].sum()[0], len(BP[idx]), BP[['minor']][idx]
def sheet3(self,ws, book):
infolog("Start sheet3")
for i in range(0, len(self.s1)):
infolog("Writing {0} ~ {1}".format(self.s1[i], self.s2[i]))
# r : (s1,s2)의 범위 별 데이터의 row 변수
r = i*(15+len(book.GenomeStructure) + len(book.RepeatRegion))+ 1
ws['A'+str(r)] = "Region"
ws.merge_cells(start_row=r, start_column=1, end_row=r+2, end_column=2)
ws['C'+str(r)] = "Dumas Length (bp)"
ws.merge_cells(start_row=r, start_column=3, end_row=r+2, end_column=3)
ws['A'+str(r+3)] = "Genome Structure"
ws.merge_cells(start_row=r+3, start_column=1, end_row=r+3+len(book.GenomeStructure), end_column=1)
ws['A'+str(r+10)] = "Repeat region"
ws.merge_cells(start_row=r+4+len(book.GenomeStructure), start_column=1, end_row=r+4+len(book.GenomeStructure)+len(book.RepeatRegion), end_column=1)
# B, C 컬럼 데이터 : GenomeStructure, RepeatRegion 종류와 길이
# G_rows : GenomeStructure데이터를 넣기 위한 row 범위
# R_rows : RepeatRegion데이터를 넣기 위한 row 범위
G_rows = list(range(r+3, r+3+len(book.GenomeStructure)))
cnt_num = 0
for ix in range(0, len(book.GenomeStructure)):
ws['B' + str(G_rows[ix])] = book.GenomeStructure[ix]
nlen = len(book.Dumas[ book.Dumas[ book.col_GenomeStructure ] == book.GenomeStructure[ix]]) # dumas length 기준
ws['C' + str(G_rows[ix])] = nlen
cnt_num += nlen
ws['B' + str(r+3+len(book.GenomeStructure))] = "Total"
ws['C' + str(r+3+len(book.GenomeStructure))] = cnt_num
cnt_num = 0
nr = r+4+len(book.GenomeStructure)+len(book.RepeatRegion)
R_rows = list(range(r+4+len(book.GenomeStructure), nr))
for ix in range(0, len(book.RepeatRegion)):
ws['B' + str(R_rows[ix])] = book.RepeatRegion[ix]
nlen = len(book.Dumas[ book.Dumas[ book.col_RepeatRegion ] == book.RepeatRegion[ix]])
ws['C'+str(R_rows[ix])] = nlen
cnt_num += nlen
ws['B'+str(nr)] = 'Total'
ws['C' + str(nr)] = cnt_num
## ORF NCR
ws["A"+str(nr+1)] = "ORF"
ws["A"+str(nr+2)] = "NCR"
# ORF NCR Full Length
ws['C'+str(nr+1)] = len(book.Dumas[ book.Dumas[book.col_ORF].isin(book.ORF)])
ws['C'+str(nr+2)] = len(book.Dumas[ book.Dumas[book.col_ORF].isin(book.NCR)])
# end B, C columns
# ncol = 'D'
# ncol : Column of 'Number of GPS' is need when calculating 'Number of GPS / Length'
ncol = col = 'D'
ws[col+str(r)] = "Number of GPS"
gcol = next_n_col(col, book.nsheets)
for c in range(0, book.nsheets):
ws[col+str(r+2)] = book.sheet_list[c]
# 35 이상
s, l, minor_ = book.get_Number_of_GPS(book.BP35[c], self.s1[i], self.s2[i])
# maf_ = str(round(s/l, 3)) + '%' if l is not 0 else '-'
tx_rows = book.BP35[c].loc[ minor_.index ]
tx_orf = tx_rows[ tx_rows[ book.col_ORF ].isin(book.ORF)]
tx_ncr = tx_rows[ tx_rows[ book.col_ORF ].isin(book.NCR)]
ws.merge_cells(start_row=r, start_column=4, end_row=r, end_column=4 + book.nsheets)
ws[col+str(r+1)] = book.filename
ws.merge_cells(start_row=r+1, start_column=4, end_row=r+1, end_column=4 + book.nsheets)
self.insert_value_in_cell(ws, book, G_rows, col, gcol, book.BP35[c], minor_, book.col_GenomeStructure , "GPS")
self.insert_value_in_cell(ws, book, R_rows, col, gcol, book.BP35[c], minor_, book.col_RepeatRegion , "GPS")
ws[col+str(nr+1)] = len(tx_orf)
ws[col+str(nr+2)] = len(tx_ncr)
#180612
ws[gcol+str(nr+1)] = float(ws[gcol+str(nr+1)].value) + len(tx_orf) if ws[gcol+str(nr+1)].value != None else len(tx_orf)
ws[gcol+str(nr+2)] = float(ws[gcol+str(nr+2)].value) + len(tx_ncr) if ws[gcol+str(nr+2)].value != None else len(tx_ncr)
col = next_col(col)
col = next_col(col)
# "Average MAF at GPS"
ws[col+str(r)] = "Average MAF at GPS"
dcol = next_n_col(col, book.nsheets)
for c in range(0, book.nsheets):
ws[col+str(r+2)] = book.sheet_list[c]
ws.merge_cells(start_row=r, start_column=5 + book.nsheets, end_row=r, end_column=5 + 2 * book.nsheets)
ws[col+str(r+1)] = book.filename
ws.merge_cells(start_row=r+1, start_column=5 + book.nsheets, end_row=r+1, end_column=5 + 2 * book.nsheets)
s, l, minor_ = book.get_Number_of_GPS(book.BP35[c], self.s1[i], self.s2[i])
# maf_ = str(round(s/l, 3)) + '%' if l is not 0 else '-'
tx_rows = book.BP35[c].loc[ minor_.index ]
tx_orf = tx_rows[ tx_rows[ book.col_ORF ].isin(book.ORF)]
tx_ncr = tx_rows[ tx_rows[ book.col_ORF ].isin(book.NCR)]
self.insert_value_in_cell(ws, book, G_rows, col, dcol, book.BP35[c], minor_, book.col_GenomeStructure , "MAF")
self.insert_value_in_cell(ws, book, R_rows, col, dcol, book.BP35[c], minor_, book.col_RepeatRegion , "MAF")
# 180612
maf_ = (divide(tx_orf[["minor"]], book.BP35[c][['sum']].loc[ tx_orf.index]) * 100).sum()[0]
ws[col+str(nr+1)] = str(round( maf_ /len(tx_orf), 3)) +'%' if len(tx_orf) is not 0 else '-'
ws[dcol+str(nr+1)] = float(ws[dcol+str(nr+1)].value) + maf_ if ws[dcol+str(nr+1)].value != None else maf_
maf_ = (divide(tx_ncr[["minor"]], book.BP35[c][['sum']].loc[ tx_ncr.index]) * 100).sum()[0]
ws[col+str(nr+2)] = str(round( maf_ /len(tx_ncr), 3)) +'%' if len(tx_ncr) is not 0 else '-'
ws[dcol+str(nr+2)] = float(ws[dcol+str(nr+2)].value) + maf_ if ws[dcol+str(nr+2)].value != None else maf_
col = next_col(col)
col = next_col(col)
# "Number of GPS / length"
d2col = next_n_col(col, book.nsheets)
ws[col+str(r)] = "Number of GPS / length * 100"
for c in range(0, book.nsheets):
ws[col+str(r+2)] = book.sheet_list[c]
ws.merge_cells(start_row=r, start_column=6 + 2 *book.nsheets, end_row=r, end_column=6 + 3 *book.nsheets)
ws[col+str(r+1)] = book.filename
ws.merge_cells(start_row=r+1, start_column=6 + 2 *book.nsheets, end_row=r+1, end_column=6 + 3 *book.nsheets)
ridx = sum_ = 0
for rs in range(r+3, r+5+len(book.GenomeStructure)+len(book.RepeatRegion)):
if ridx < len(book.GenomeStructure):
llen_ = len(book.BP35[c][ book.BP35[c][ book.col_GenomeStructure] == book.GenomeStructure[ridx]])
sum_ += llen_
elif ridx == len(book.GenomeStructure):
llen_ = sum_
sum_ = 0
elif len(book.GenomeStructure) < ridx and ridx < len(book.GenomeStructure)+1+len(book.RepeatRegion):
llen_ = len(book.BP35[c][ book.BP35[c][ book.col_RepeatRegion] == book.RepeatRegion[ridx-1-len(book.GenomeStructure)]])
sum_ += llen_
else:
llen_ = sum_
ws[col + str(rs)] = (ws[ncol+str(rs)].value / llen_) * 100 if llen_ is not 0 else '-'
ridx = ridx + 1
# 180612 강제지정
ws[d2col + str(rs)] = ws[d2col + str(rs)].value + llen_ if ws[d2col + str(rs)].value != None else llen_
# ORF & NCR
for rs in range(2):
tmp, rs_ = 0, r+5+len(book.GenomeStructure)+len(book.RepeatRegion) + rs
if rs == 0:
tmp = len(book.BP35[c][ book.BP35[c][book.col_ORF].isin(book.ORF)])
ws[col+str(rs_)] = (ws[ncol+str(rs_)].value / tmp) * 100 if tmp != 0 else '-'
else:
tmp = len(book.BP35[c][ book.BP35[c][book.col_ORF].isin(book.NCR)])
ws[col+str(rs_)] = (ws[ncol+str(rs_)].value / tmp) * 100 if tmp != 0 else '-'
# 180612 강제지정
ws[d2col + str(rs_)] = ws[d2col + str(rs_)].value + tmp if ws[d2col + str(rs_)].value != None else tmp
ncol = next_col(ncol)
col = next_col(col)
# 180612 강제지정
for rs in range(r+3, r+7+len(book.GenomeStructure)+len(book.RepeatRegion)):
# 수정 : 위치를 올림, 원래 위치 [수정2]
ws[dcol+str(rs)] = str(round(float(ws[dcol+str(rs)].value) / float(ws[gcol+str(rs)].value), 3)) + '%' if float(ws[dcol+str(rs)].value) != 0 else '-'
ws[gcol+str(rs)].value = float(ws[gcol+str(rs)].value) / book.nsheets
# 수정2 : ws[dcol+str(rs)] = str(round(float(ws[dcol+str(rs)].value) / float(ws[gcol+str(rs)].value), 3)) + '%' if float(ws[dcol+str(rs)].value) != 0 else '-'
ws[d2col + str(rs)] = (float(ws[gcol + str(rs)].value) / ( float(ws[d2col + str(rs)].value) / book.nsheets)) * 100 if float(ws[d2col + str(rs)].value) != 0.0 else 0
col = next_col(col)
ws[col+str(r+3)] = str(self.s1[i]) + "~" + str(self.s2[i]) + "%" #if self.s2[i] != 51.0 else str(self.s1[i]) + "% 이상"
infolog("finished writing GenomeStructure & RepeatRegion")
#### Full Sequence
col = next_col(next_col(next_col(col)))
self.Full_Seq_in_sheet3(ws, col, book)
infolog("End sheet3")
def Full_Seq_in_sheet3(self, ws, col, book):
infolog("Start Full_Seq_in_sheet3")
# Writing list of GenomeStructure & RepeatRegion, NCR & ORF
for r in range(4, 4+len(book.GenomeStructure)):
ws[col+str(r)] = book.GenomeStructure[r-4]
ws[col+str(4+len(book.GenomeStructure))] = 'Total'
for r in range(0, len(book.RepeatRegion)):
row = r+5+len(book.GenomeStructure)
ws[col+str(row)] = book.RepeatRegion[r]
ws[col+str(5+len(book.GenomeStructure)+len(book.RepeatRegion))] = 'Total'
rs_ = 5+len(book.GenomeStructure)+len(book.RepeatRegion)
ws[col+str(rs_+1)], ws[col+str(rs_+2)] = 'ORF', 'NCR'
# Writing the count of each sheets
col = next_col(col)
for i in range(0, book.nsheets):
infolog("{0} Writing {1} sheet".format(time.time(), i))
ws[col+str(2)] = book.sheet_list[i]
# 35 이하 포함
ws[col+str(3)] = '(BP_full)Length'
sum_ = 0
for r in range(4, 4+len(book.GenomeStructure)):
tmp = len(book.BPRaw[i][ book.BPRaw[i][ book.col_GenomeStructure] == book.GenomeStructure[r-4]]) if len(book.BPRaw[i])!=0 else 0
ws[col+str(r)] = tmp
sum_ += tmp
ws[col+str(4+len(book.GenomeStructure))] = sum_
sum_=0
for r in range(0, len(book.RepeatRegion)):
row = r+5+len(book.GenomeStructure)
tmp = len(book.BPRaw[i][ book.BPRaw[i][ book.col_RepeatRegion] == book.RepeatRegion[r]]) if len(book.BPRaw[i])!=0 else 0
ws[col+str(row)] = tmp
sum_ += tmp
ws[col+str(5+len(book.GenomeStructure)+len(book.RepeatRegion))] = sum_
# ORF & NCR
ws[col+str(rs_+1)] = len(book.BPRaw[i][ book.BPRaw[i][ book.col_ORF].isin(book.ORF)]) if len(book.BPRaw[i])!=0 else 0
ws[col+str(rs_+2)] = len(book.BPRaw[i][ book.BPRaw[i][ book.col_ORF].isin(book.NCR)]) if len(book.BPRaw[i])!=0 else 0
# sum of basepair 35 이상
col = next_col(col)
ws[col+str(3)] = '(BP_35이상)Length'
sum_ = 0
for r in range(4, 4+len(book.GenomeStructure)):
tmp = len(book.BP35[i][ book.BP35[i][ book.col_GenomeStructure] == book.GenomeStructure[r-4]]) if len(book.BPRaw[i])!=0 else 0
ws[col+str(r)] = tmp
sum_ += tmp
ws[col+str(4+len(book.GenomeStructure))] = sum_
sum_=0
for r in range(0, len(book.RepeatRegion)):
row = r+5+len(book.GenomeStructure)
tmp = len(book.BP35[i][ book.BP35[i][ book.col_RepeatRegion] == book.RepeatRegion[r]]) if len(book.BP35[i])!=0 else 0
ws[col+str(row)] = tmp
sum_ += tmp
ws[col+str(5+len(book.GenomeStructure)+len(book.RepeatRegion))] = sum_
ws[col+str(rs_+1)] = len(book.BP35[i][ book.BP35[i][ book.col_ORF ].isin(book.ORF)]) if len(book.BP35[i])!=0 else 0
ws[col+str(rs_+2)] = len(book.BP35[i][ book.BP35[i][ book.col_ORF ].isin(book.NCR)]) if len(book.BP35[i])!=0 else 0
col = next_col(col)
infolog("End Full_Seq_in_sheet3")