Week |
Lecture
Topic |
Readings
(* = non text) |
1 |
No Class
|
|
|
Introduction |
Chpt.
1 Plant systematics-an overview
*Daly et al. 2012.
Systematic Agenda 2020. Systematic Biology 61: 549-552. |
|
Angiosperm
morphology |
Chpt.
9 Plant morphology, 451-493 |
2 |
No Class |
|
|
Angiosperm
morphology |
Chpt.
6 Evolution of flowering plants |
|
Nomenclature: the art of naming |
Chpt.
16 Plant nomenclature
*Payne 2016.
Why do taxonomists write the meanest obituaries? Nautilus, Issue 35: Boundaries |
3
|
Classification:
the art of grouping |
Chpt.
7 Diversity and classification of angiosperms, 181-185 |
|
Angiosperm
classification |
Chpt.
7 Diversity and classification of angiosperms, 181-185 |
|
Angiosperm
classification |
Chpt.
7: Diversity and classification of angiosperms, 185-200 |
4 |
Magnolids
& Paleoherbs: magnolias and wild gingers |
Chpt.
8 Diversity and classification of angiosperms, 276-285 |
|
Ranunculids:
buttercups |
Chpt.
8 Diversity and classification of angiosperms, 276-285 |
|
Darwin's
"abominable mystery" |
*Saquet et al. 2017. The ancestral flower of angiosperms and its early diversification. Nature Communications DOI: 10.1038/ncomms16047.
Chpt.
6 Evolution of flowering plants, 176-178 |
5 |
Lecture
Exam #1 |
|
|
Chemosystematics:
sensual compounds |
*Edger et al. 2015. The butterfly plant arms-race escalated by gene and genome duplications. PNAS 112: 8362–8366. |
|
Caryophyllids:
carnations, cacti, and chenopods |
Chpt.
8 Diversity and classification of angiosperms, 295-312 |
6 |
Biosystematics:
evolution, isolating mechanisms |
*Rieseberg
et al. 2006. The nature of plant species. Nature 440: 524-527. |
|
Biosystematics:
speciation |
Chpt. 19 Species and conservation in plant systematics, 649-662 |
|
Biosystematics:
speciation |
|
7 |
Phylogenetics:
Tracing the tree of life |
Chpt.
2 Phylogenetic systematics |
|
Phylogenetics
II |
|
|
Rosids
I: roses and currants |
Chpt.
8 Diversity and classification of angiosperms, 285-292, 331-339 |
8 |
Rosids
II: legumes and hemp |
Chpt.
8: 328-331 |
|
Rosids
III: walnuts and violets |
Chpt.
8: 315-327, 339-344 |
|
Rosids
IV: willows and maples |
Chpt.
8: 366-371 |
9 |
Rosids
V: mustards and mallows |
Chpt.
8: 291-293, 347-366 |
|
Biosystematics: pollination biology |
Chpt.
13 Plant reproductive biology
*Serrano-Serrano et al. 2017. Hummingbird pollination and the diversification of angiosperms: an old and successful association in Gesneriaceae.
Proc. R. Soc. B 284: 20162816 |
|
Plant
oddities and systematic puzzles |
*Davis
et al. 2007. Floral
gigantism in Rafflesiaceae. Science 315: 1812. |
10 |
Lecture
Exam #2 |
|
|
Lower
Asterids: blueberries and dogwoods |
Chpt.
8 Diversity and classification of angiosperms, 372-389 |
|
Asterids
I: gentians and milkweeds |
Chpt.
8: 389-400, 412-416 |
11 |
Asterids
II: mints and snapdragons |
Chpt.
8: 400-412 |
|
Asterids
III: ginseng, honeysuckles, asters |
Chpt.
8: 416-435 |
|
Monocots
I: origins, aquatics and aroids |
Chpt.
7 Diversity and classification of angiosperms, 200-210 |
12
|
Monocots
II: lilies and irises |
Chpt.
7: 210-224 |
|
Monocots
III: orchids and palms |
Chpt.
7: 210-224
*Givnish
et al. 2015. Orchid phylogenomics and multiple drivers of their extraordinary diversification. Proc. R. Soc. B 282: 20151553. |
|
Monocots
IV: sedges and grasses |
Chpt.
7: 224-254
*Givnish
et al. 2015. Orchid phylogenomics and multiple drivers of their extraordinary diversification. Proc. R. Soc. B 282: 20151553. |
13 |
Molecular phylogenetics |
Chpt.
14: Plant molecular systematics |
|
NO CLASS |
|
|
NO CLASS
- Thanksgiving |
|
14 |
Historical biogeography |
*Crisp et al. 2009. Phylogenetic biome conservatism on a global scale. Nature 458 doi:10.1038/nature07764 |
|
Adaptive
radiations: evolutionary and systematic repercussions |
|
|
Land plant radiations |
|
15 |
Lecture
Exam #3 - take home |
|
|
|
|