pirouette examples.
In the pirouette
article, one DD tree is used, from example 30.
For the supplementary materials, certain parameters have been investigated:
30: Use one DD tree
28: use a distribution of DD trees (instead of just one)
31 use multiple artifical trees (instead of just one)
20: the effect of the number of taxa
21: the effect of DNA sequence length
19: the effect of halving a DNA sequence length (that is, from 1k to 500 nucleotides)
34: the effect of double the DNA sequence length (that is, from 1k to 2k nucleotides)
27: the effect of non-clock like models
22: The effect of assuming a Yule tree prior on a Yule tree
26: The effect of assuming a Yule tree prior on a BD tree
23: The effect of differently common diversity-dependent trees
18: The effect of equal or equalized mutation rate in the twin alignment
24: The effect of mutation rate
25: the effect of RNG in the alignment for the error distribution
29: the effect of MCMC chain length on ESS
32 use DD tree with 12 taxa (instead of 6)
33 use 24 taxa (instead of 6)
35 use a mutation rate of
0.25 / crown_age
(instead of1.0 / crown_age
)36 use a mutation rate of
0.50 / crown_age
(instead of1.0 / crown_age
)37 use a mutation rate of
0.75 / crown_age
(instead of1.0 / crown_age
)38 use a mutation rate of
1.25 / crown_age
(instead of1.0 / crown_age
)39 use a mutation rate of
1.50 / crown_age
(instead of1.0 / crown_age
)40 use a mutation rate of
2.00 / crown_age
(instead of1.0 / crown_age
)41 use 32 taxa (instead of 6)
42 use 40 taxa (instead of 6)
43: Use 10x shorter MCMC chain length (from 10M to 1M), sample 1k times
44: Use 100x shorter MCMC chain length (from 10M to 100k), sample 1k times
45: Use 10x longer MCMC chain length (from 10M to 100M), sample 1k times
These are all runs based on one phylogeny. Each of these examples serves as a high-level test.
Example | Phylogeny | Gen | Cand | Twin | TTM | DSL | STRAF | STWAF | Err | ![]() |
![]() |
---|---|---|---|---|---|---|---|---|---|---|---|
1 | Yule | Y | N | N | - | 1k | STD | - | nLTT | ||
2 | Yule | Y | Y | N | - | 1k | STD | - | nLTT | ||
3 | Fict | Y | Y | Y | BD | 1k | STD | STDEQ | nLTT | ||
4 | Fict | Y | N | N | - | 1k | STD | - | nLTT | ||
5 | Fict | Y | Y | N | - | 1k | STD | - | nLTT | ||
6 | Yule | Y | Y | Y | BD | 1k | STD | STDEQ | nLTT | ||
7 | Yule | Y | N | Y | BD | 1k | STD | STDEQ | nLTT | ||
8 | Yule | N | Y | Y | BD | 1k | STD | STDEQ | nLTT | ||
9 | Fict | Y | N | Y | BD | 1k | STD | STDEQ | nLTT | ||
10 | Fict | N | Y | Y | BD | 1k | STD | STDEQ | nLTT | ||
11 | Yule | N | Y | N | - | 1k | STD | - | nLTT | ||
12 | Fict | N | Y | N | - | 1k | STD | - | nLTT | ||
13 | Fict | Y | Y | Y | BD | 1k | STD | STDEQ | ADG | ||
14 | Fict | Y | Y | Y | BD | 1k | STD | STDEQ | LTN | ||
15 | Fict | Y | N | Y | CT | 1k | STD | STDEQ | nLTT | ||
16 | Fict | Y | N | Y | CT | 1k | NSL | STDEQ | nLTT | ||
17 | Fict | Y | N | Y | CT | 1k | NSU | STDEQ | nLTT | ||
18 | Fict | Y | Y | Y | BD | 1k | STD | STD | nLTT | ||
34 | Fict | Y | Y | Y | BD | 10k | STD | STDEQ | nLTT | ||
30 | DD | Y | Y | Y | BD | 10k | STD | STDEQ | nLTT |
Column | Value | Description |
---|---|---|
Phylogeny | Yule | The true phylogeny is created from a Yule (pure-birth) model |
Phylogeny | Fict | The true phylogeny is completely fictious and artificial. If any, it follows both a multiple-birth and a protracted speciation model |
Gen | Y/N | A generative model is yes/no hand-picked for this experiment |
Cand | Y/N | A set of candidate models is yes/no used in this experiment |
Twin | Y/N | The background noise is measured yes/no by using twinning |
TTM | BD,CT | Twin tree method, BD=birth_death , Y=yule , CT=copy_true |
DSL | [1,->> | DNA Sequence Length in number of nucleotides |
STRAF | STD,NSL,NSU | Simulate TRue Alignment function: STD: standard , NSL: node_sub_linked and NSU: node_sub_unlinked |
STWAF | STD,STDEQ | Simulate TWin Alignment function, STD: standard , STEQ: standard with equal number of mutations |
Err | nLTT,ADG,LTN | The error statistic used is nLTT, ADG: absolute delta gamma, LTN: Log-transformed nLTT statistic |
If there is no twinning (Twin = N
), one cannot specify a TTM
('Twin Tree Model'),
nor a STWAF
('Simulate TWin Alignment Function').
These are empty when there are candidate models (Cand = T
),
because model comparison is unsupported on Windows.
See the table, or use this figure: