|
Member |
Research Interests |
|
Prof. Christine Raines
(University of Essex)
 |
Main research
interests include:
-
Carbon fixation in transgenic tobacco plants
-
The role of chloroplast protein CP12 in the
regulation of carbon fluxes
-
Carbon metabolism in the mechanism
controlling of stomatal responses
- The high impact of
CO2 growth on photosynthesis and carbohydrate accumulation
|
|
Prof. Richard Geider
(University of Essex)
 |
Main research
interest includes evaluating the relative importance of genetic adaptation,
physiological acclimation and physiological regulation of algal
photosynthesis to the success of phytoplankton taxa in the sea and:
-
Marine primary
productivity
-
Algal
photosynthesis
-
Modelling
phytoplankton growth
- Optical
properties of phytoplankton
|
|
Dr Stéphane Lefebvre
(University of Essex)

|
Research to date
has focused on:
-
Metabolism pathways
controlling primary CO2 assimilation in plants
-
Plant growth and
carbon distribution
-
Light harvesting and
CO2 fixation genes expression in E huxleyi in response to light
intensity and elevated CO2
|
|
Dr Tracy Lawson
(University of Essex)

|
Research interests:
- Algal physiology
- Laser Induced
Breakdown Spectroscopy (LIBS)
- Stomatal
physiology, control of gas exchange and carbon metabolism
- Plant growth and
water use efficiency
- The effects of
climate change on plant ecophysiology
- Interaction between
plants and their microclimate
- Genetic
manipulation of guard cell metabolism
|
|
Dr Prashant Singh
(University of Essex)

|
Main research
interests include:
- Regulation of the
Calvin cycle with regards to the GAPDH/CP12/PRK complex
- Molecular analysis
of the CP12 gene family in Arabidopsis Thaliana, tobacco and potato
- Antisense study of
CP12 in Arabidopsis, tobacco and potato
- Microarray analysis
of Arabidopsis CP12 genes
|
|
Prof.
Betsy Read
(California
State University, San Marcos)
 |
Interested in
molecular mechanisms of biomineralization and coccolithogenesis in E.
huxleyi, and/or about the complex life cycle. Current projects in
the laboratory involve:
-
Creating a
genetic system for E. huxleyi
-
Identifying
genes and proteins involved in biomineralization and coccolithogenesis
-
Identification
of the molecular mechanisms involved in E. huxleyi phase variation
|
|
Dr Thomas
Wahlund
(California
State University, San Marcos)
 |
Major research
area is in microbial genetics and physiology however present research
includes :
- employing genomics
and functional genomics approaches for investigating the processes of
biomineralization and coccolithogenesis in coccolithophorid algae
- identifying genes
and proteins involved in the expression and regulation of inorganic carbon
acquisition and metabolism pathways in these algae
|
|
Dr Alison Taylor
(Marine
Biological Association)
 |
Research: Phytoplankton Physiology and Algal Cell Physiology
Main
Interests:
-
Phytoplankton membrane transport and cell signalling
-
Coccolilthophore calcification
-
Phytoplankton nutrient and metal acquisition
|
|
Prof. Colin
Brownlee
(Marine
Biological Association)

|
Research interests
include:
- Intracellular
signalling in plants and algae.
- Mechanisms of
calcium signalling during early development and in response to
environmental cues.
- Polarization
mechanisms in fucoid algae.
- Signalling
interactions between the cell cycle and polarization during early
embryogenesis.
- Mechanisms and
function of calcification in coccolithophorid phytoplankton.
- Calcium transport
mechanisms during calcification.
- Cellular physiology
and homeostasis in phytoplankton
|
Dr Declan Schroeder
(Marine
Biological Association)

|
Research
interests include Algal Pathology, Algal Virology and Viral Genomics.
Viruses are the most abundant biological agents in the sea. My research
primarily focuses on determining the role these viruses have on many
biogeochemical and ecological processes, including:
- algal
biodiversity and species distributions
- algal
biofouling
- algal bloom
control
- dimethyl
sulphide formation
Viruses that
infect Emiliania huxleyi and Ectocarpus sp. serve as excellent biological
models to investigate these processes in both unicellular and multicellular
algae, respectively. |