Awesome
pirouette_examples
pirouette examples.
Overview
Experiments for the pirouette
article supplementary material
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
Other published experiments
Combinations of pirouette
functionality
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 |
Legend
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 |
FAQ
Why are some TTM
and STWAF
values empty?
If there is no twinning (Twin = N
), one cannot specify a TTM
('Twin Tree Model'),
nor a STWAF
('Simulate TWin Alignment Function').
Why are some AppVeyor values empty?
These are empty when there are candidate models (Cand = T
),
because model comparison is unsupported on Windows.
How are the examples related?
See the table, or use this figure: