Welcome
to the CUGI aquilegia project home page. CUGI has partnered
with other
research institutions to
help provide a robust set of genetic resources for the
aquilegia community. This project consists of the physical
map construction of Aquilegia formosa and BAC-end sequencing
in the form of STCs. This
Information is made freely available to researchers
for basic and applied studies in aquilegia molecular
genetics via our web site. Two BAC libraries of A. formosa,
digested with HindIII and MboI respectively
have been provided to CUGI for
use in physical mapping and BAC end-sequencing.
All
information generated at CUGI is made freely available to researchers for
basic and applied studies in
Aquilegia molecular genetics. A
similarity server is also available for researchers to perform
BLAST or
FASTA homology
searches against our
Aquilegia STC database.
The evolution of life on earth has been punctuated by numerous
examples of adaptive radiation. These dramatic events quickly
create a large amount of biodiversity and are evidenced
by rapid speciation
along with morphological and physiological adaptations to
numerous ecological niches. Species in the flowering plant
genus Aquilegia
have undergone
a very recent adaptive radiation and present a unique opportunity
to investigate the molecular genetic changes underlying
adaptations. Species
in this genus have spectacularly different floral morphologies
with specializations to different pollinators. In addition,
species differ
radically in their habitats ranging from coastal forests to
desert springs to the high alpine. Because any two species
in the genus can be successfully
crossed it is possible to dissect the genetic basis for essentially
any trait in any species. By developing an array of molecular
genetic resources for this genus, this project will provide
the infrastructure
for a host of studies by a broad community of scientists.
All of these studies will be facilitated
by the fact that the genome of Aquilegia is among the smallest
for a flowering plant at about 350 Mbp. The specific
goals of this project
are to evaluate the genetic basis of three important traits,
morphological adaptation to a specific pollinator, physiological
adaptation for flowering
time and adaptation to different soil/habitats.