@ARTICLE{TreeBASE2Ref21805,
author = {Liliana M Davalos and Paul M Velazco and Omar Warsi and Peter D Smits and Nancy B. Simmons},
title = {Integrating Incomplete Fossils by Isolating Conflicting Signal in Saturated and Non-Independent Morphological Characters},
year = {2014},
keywords = {Chiroptera; conflict; dentition; morphology; Phyllostomidae; saturation; scaffold; systematic error},
doi = {10.1093/sysbio/syu022},
url = {http://sysbio.oxfordjournals.org/content/early/2014/04/28/sysbio.syu022.abstract},
pmid = {},
journal = {Systematic Biology},
volume = {},
number = {},
pages = {},
abstract = {Morphological characters are indispensable in phylogenetic analyses for understanding the pattern, process, and tempo of evolution. If characters are independent and free of systematic errors, then combining as many different kinds of characters as are available will result in the best-supported phylogenetic hypotheses. But since morphological characters are subject to natural selection for function and arise from the expression of developmental pathways, they may not be independent, a situation that may amplify any underlying homoplasy. Here, we use new dental and multi-locus genetic data from bats (Mammalia: Chiroptera) to quantify saturation and similarity in morphological characters and introduce two likelihood-based approaches to identify strongly conflicting characters and integrate morphological and molecular data. We implement these methods to analyze the phylogeny of incomplete Miocene fossils in the radiation of Phyllostomidae (New World Leaf-nosed Bats), perhaps the most ecologically diverse family of living mammals. Morphological characters produced trees incongruent with molecular phylogenies, were saturated, and showed rates of change higher than most molecular substitution rates. Dental characters encoded variation similar to that in other morphological characters, while molecular characters encoded highly dissimilar variation in comparison. Saturation and high rates of change indicate randomization of phylogenetic signal in the morphological data, and extensive similarity suggests characters are non-independent and errors are amplified. To integrate the morphological data into tree building while accounting for homoplasy, we used statistical molecular scaffolds and combined phylogenetic analyses excluding a small subset of strongly conflicting dental characters. The phylogenies revealed the Miocene nectar-feeding ?Palynephyllum nests within the crown nectar-feeding South American subfamily Lonchophyllinae, while the Miocene genus ?Notonycteris is sister to the extant carnivorous Vampyrum. These relationships imply new calibration points for timing of radiation of the ecologically diverse Phyllostomidae.}
}
Matrix 10443 of Study 13970

Citation title:
"Integrating Incomplete Fossils by Isolating Conflicting Signal in Saturated and Non-Independent Morphological Characters".

Study name:
"Integrating Incomplete Fossils by Isolating Conflicting Signal in Saturated and Non-Independent Morphological Characters".

This study is part of submission 13970
(Status: Published).
Matrices
Title: Tarsiidae Based on 12S mtDNA Alignment 1
Download all Row Segment Metadata
Rows
Taxon Label |
Row Segments |
Characters 1?–30 |
Cebus albifrons NC 002763 |
(none)
|
GCATCTACTATCCTGTGAGAATGCCCTCTA |
Cynocephalus variegatus AF460846 |
View
|
GCATCCGCGCCCCCGTGAAAACGCCCTTCA |
Homo sapiens NC 001807 |
(none)
|
GCATCCCCGTTCCAGTGAGTTCACCCTCTA |
Lemur catta NC 004025 |
(none)
|
GTAACCGCATCCCAGTGAGAATGCCCTCCA |
Nycticebus coucang NC 002765 |
(none)
|
GTCACCGCGTCCCCGTGAAAATGCCCTCTA |
Otolemur crassicaudatus AF179289 |
View
|
GTTGCCGCACTCCAGTGAGAATGCCCTCTA |
Pan troglodytes NC 001643 |
(none)
|
GCATCCCCGCCCC-GTGAGT-CACCCTCTA |
Papio hamadryas NC 001992 |
(none)
|
GCATCCCCATTCCGGTGAAGACGCCCTTCC |
Pongo pygmaeus NC 001646 |
(none)
|
GCATCCCCGCCCCAGTGAGT-CGCCCTCCA |
Presbytis melalophos DQ355299 |
View
|
GCATCCCCGCCCCAGTGAAGACACCCTGCA |
Saimiri sciureus FJ785425 |
View
|
GCATCCGCAGCCCTGTGAAAATGCCCTCTA |
Tarsius tarsier 104 HM470225 |
View
|
GTATCCACTCCCCAGTGAGAATGCCCTCTG |
Tarsius bancanus 001 AF348159 |
View
|
GTATCCGCCCCCCAGTGAGAATGCCCTCTA |
Tarsius dentatus 062 HM470229 |
View
|
GTATCCACCCCCCAGTGAGAATGCCCTCTA |
Tarsius sangirensis 049 HM470205 |
View
|
GTATCCACACCCCAGTGAGGATGCCCTCTA |
Tarsius sangirensis 050 HM470206 |
View
|
GTATCCACACCCCAGTGAGGATGCCCTCTA |
Tarsius syrichta 001 AF069976 |
View
|
GTATCCGCCTCCCAGTGAGAATGCCCTCCA |
Tarsius tarsier 018 HM470211 |
View
|
GTATCCACCC{CT}CCAGTGAGAATGCCCT |
Tarsius tarsier 019 HM470212 |
View
|
GTATCCACCCCCCAGTGAGAATGCCCTCTA |
Tarsius tarsier 052 HM470219 |
View
|
GTATCCACCCCCCAGTGAGAATGCCCTCTA |
Tarsius tarsier 057 HM470220 |
View
|
GTATCCACCC{CT}CCAGTGAGAATGCCCT |
Tarsius tarsier 058 HM470221 |
View
|
GTATCCACCCCCCAGTGAGAATGCCCTCTA |
Tarsius tarsier 082 HM470207 |
View
|
GTATCCACCCCCCAGTGAGAATGCCCTCTA |
Tarsius tarsier 084 HM470209 |
View
|
GTATACACCCCCCAGTGAGAATGCCCTCTA |
Tarsius tarsier 085 HM470210 |
View
|
GTATCCACCCCCCAGTGAGAATGCCCTCTA |
Tarsius tarsier 090 HM470213 |
View
|
GTATCCACCCCCCAGTGAGAATGCCCTCTA |
Tarsius tarsier 096 HM470217 |
View
|
GTATCCACCCCCCAGTGAGAATGCCCTCTA |
Tarsius tarsier 100 HM470218 |
View
|
GTATCCACCCCCCAGTGAGAATGCCCTCTA |
Tarsius tarsier 074 HM470215 |
View
|
GTATCCACCTTCCAGTGAGAATGCCCTCTA |
Theropithecus gelada EU580083 |
View
|
GTATCCTCGCTCCGGTGAAGACGCCCCCCC |
Columns
None of the columns has a description.