BiCopSim(N, family, par, par2=0)
0
= independence copula
1
= Gaussian copula
2
= Student t copula (t-copula)
3
= Clayton copula
4
= Gumbel copula
5
= Frank copula
6
= Joe copula
7
= BB1 copula
8
= BB6 copula
9
= BB7 copula
10
= BB8 copula
13
= rotated Clayton copula (180 degrees; ``survival Clayton'')
14
= rotated Gumbel copula (180 degrees; ``survival Gumbel'')
16
= rotated Joe copula (180 degrees; ``survival Joe'')
17
= rotated BB1 copula (180 degrees; ``survival BB1'')
18
= rotated BB6 copula (180 degrees; ``survival BB6'')
19
= rotated BB7 copula (180 degrees; ``survival BB7'')
20
= rotated BB8 copula (180 degrees; ``survival BB8'')
23
= rotated Clayton copula (90 degrees)
24
= rotated Gumbel copula (90 degrees)
26
= rotated Joe copula (90 degrees)
27
= rotated BB1 copula (90 degrees)
28
= rotated BB6 copula (90 degrees)
29
= rotated BB7 copula (90 degrees)
30
= rotated BB8 copula (90 degrees)
33
= rotated Clayton copula (270 degrees)
34
= rotated Gumbel copula (270 degrees)
36
= rotated Joe copula (270 degrees)
37
= rotated BB1 copula (270 degrees)
38
= rotated BB6 copula (270 degrees)
39
= rotated BB7 copula (270 degrees)
40
= rotated BB8 copula (270 degrees)
par2 = 0
).N
x 2 matrix of data simulated from the bivariate copula.
BiCopCDF
, BiCopPDF
, CDVineSim
# simulate from a bivariate t-copula
simdata = BiCopSim(300,2,-0.7,par2=4)
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