2003s

    Reference management

    I have been working through my references and papers trying to regain some control over the literature. Being reintroduced to the tedium of reference management, it seems like there must be a better way to catalogue and organize this important component of research. Ideally, with the Internet and some good citation support from publishers, I would never have to type a citation – just automagically download whatever I need. Obviously this is not currently available.

    I use BibDesk for my reference management and the author has some interesting ideas about sharing reference databases easily among colleagues. In this spirit of sharing, I’’ve decided to make my reference database available here. It is in BibTeX format, which most useful reference management software should recognize. As BibDesk matures I hope to make this database accessible in a more useful format (i.e., automatic synchronization). Until then I will update the publicly available database as often as possible. Ideally the database will become a group effort, maintained and expanded by whoever uses it. If you are interested in participating, let me know. There are some fields in the database that may not be useful. In particular, there is a link to the PDF location on my harddrive. I considered transfering these links and associated files to the Internet as well. However, there are copyright concerns with such a setup that need to be considered.

    Seed set of dichogamous plants

    Description:

    • These data are the average seed set estimates for dichogamous and adichogamous Chamerion angustifolium at different inflorescence sizes.

    Format:

    • maternalID: Identification code for the maternal plant (i.e., grandmother of the counted seeds).
    • individualID: Identification code of the plant.
    • array#: The array identification number.
    • dichogamyType: Indicates if the plant was dichogamous.
    • flowerPosition: Flowers were sampled from either the bottom or top of the inflorescence.
    • inflorescenceSize: The number of open flowers on each plant in the array.
    • seedCount: Number of full seeds
    • notSeedCount: Number of aborted seeds

    Citation:

    • Routley, M.B. & B.C. Husband. 2003. The effect of protandry on siring success in Chamerion angustifolium (Onagraceae) with different inflorescence sizes. Evolution, 57: 240-248 PubMed PDF

    Download: SeedSetData.txt

    Ecology Division Seminar Series, University of Calgary

    Routley, M.B. The evolutionary significance of being one gender at a time. Ecology Division Seminar Series, University of Calgary

    Download https://matt.routleynet.org/uploads/2020/97fb2da280.pdf

    Siring success of dichogamous plants

    Description:

    • These data are the average siring-success estimates for dichogamous and adichogamous Chamerion angustifolium. Siring success is estimated from the proportion of heterozygous progeny produced at the PGI locus. Dichogamy classes were homozygous for alternate PGI alleles, so that heterozygous progeny represent interclass pollen transfer.

    Format:

    • Array: The array identification number.
    • DichogamyType: The dichogamy status of the plants in the array.
    • FlowerSize: The number of open flowers on each plant in the array.
    • ProportionHeterozygousProgeny: The ratio of heterozygous to homozygous progeny at the PGI locus.

    Citation:

    • Routley, M.B. & B.C. Husband. 2003. The effect of protandry on siring success in Chamerion angustifolium (Onagraceae) with different inflorescence sizes. Evolution, 57: 240-248 PubMed ProtandryDiscounting.pdf

    Download:

    Pollen deposition after single bee visits in the field

    Description:

    • These data are pollen counts from stigmas after single bee visits in populations of Chamerion angustifolium from Montana. Pollen was quantified with a Beckman-Coulter Multisizer 3 particle counter.

    Format:

    • Ploidy: The cytotype of sampled plant, either tetraploid or diploid.
    • AntherPresence: Some flowers had their anthers removed with forceps. Others were left intact.
    • PollenCount: The estimated amount of pollen deposited on the stigma.

    Citation:

    Download:

    Pollen removal after single bee visits in the field

    • These data are pollen counts from anthers before and after single bee visits in populations of Chamerion angustifolium from Montana. Pollen was quantified with a Beckman-Coulter Multisizer 3 particle counter.

    Format:

    • Population: The population sampled, either tetraploid or diploid.
    • Sample: An identification code representing the plant and flower sampled.
    • StigmaPresence: Some flowers had their stigma and style removed with forceps. Others were left intact.
    • Visitation: Whether the anther was sampled before or after a single bee visit.
    • PollenCount: The estimated amount of pollen present in the flower.

    Citation:

    Download:

    Floral Integration

    Unrelated to my β€œofficial” thesis work, I have been thinking about floral form and its influence on plant fitness. As an excuse to start a discussion with anyone interested, I’ve posted this overview of what I hope to work on next.

    Plant mating systems control the transmission of genes between generations and, therefore, are a fundamental characteristic of populations. Since flowers are the reproductive organs of plants, floral form fundamentally influences plant mating systems. However, research into floral evolution has traditionally β€œatomized” flowers into conspicuous traits that are then investigated independently. Despite the undeniable success of this reductionist approach, an alternate research strategy called phenotypic integration, found at the intersection of morphometrics, quantitative genetics, reproductive ecology, and plant evolution, offers a unique perspective. Floral integration, in particular, asserts that the variance-covariance structure of entire flowers, rather than mean values of individual traits, may be an important target for selection. This is especially relevant for animal-pollinated, hermaphroditic flowers (i.e., most angiosperms) in which the male and female sexual organs must be positioned precisely within the path of pollen movement. Consequently, I expect high integration for anther and stigma placement relative to, for example, vegetative characters. After a long period of neglect, floral integration is beginning to receive more attention. To date, most of this research has focussed on quantifying the magnitude of integration, whereas the evolutionary significance of variation in floral integration remains an open question.