Curriculum Vitae
PERSONAL DETAILS
Full Name:
James Doughty
Department:
Biology and Biochemistry
Current Post:
Lecturer (Director of Postgraduate Studies, Research)
Start date in current post:
1st September 2000
Posts prior to joining the University of Bath:1994 – 2000
Senior Post-Doctoral Research Officer. BBSRC funded posts.
Department of Plant Sciences, University of Oxford, UK.
1992 – 1994
Department of Plant Sciences, University of Oxford, UK.
Completed PhD at Oxford.
1989 – 1992
School of Plant Sciences, University of Reading, UK.
Department of Plant Sciences, University of Oxford, UK.
Initiated PhD research
1987 – 1989
Department of Botany, University of Leicester, UK.
Qualifications:
B.Sc. - Biological Sciences (Hons. 2.1)
University of Leicester 1987
Ph.D University of Reading / University of Oxford, 1994
Membership of professional bodies:
The Biochemical Society – Theme Panel VII ‘Development and Disease’
-
I have been an active member of Theme Panel VII since September 2006.
International Association of Sexual Plant Reproduction Research (IASPRR)
-
From 2008 to Aug 2010 member of core organising committee for a large international
meeting based in the UK
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Internal posts of responsibility
Director of Postgraduate Studies (Research) – August 2009-present
Responsible for all PhD students in the department of Biology and Biochemistry

Overseas PG Recruitment Group
I have volunteered to represent the University abroad to raise our profile for PG/UG recruitment
purposes. In my role of DoS I am keen to be involved in shaping strategy for overseas recruitment
and have been moving this forward through the Graduate School Committee.

Postgraduate University Scholarship Award Panel
Jan 2009 – 10
The Faculty of Science allocated £150,000 of PG fees scholarships last year to enhance PG
recruitment. Departments had to put candidates/cases forward which were reviewed and ranked
by this panel.
Committees external to the University

Biochemical Society Theme Panel VI ‘Biological Systems’
Sept 2006 - present
I represent the plant science research field on the panel. The panel develops ideas for
conferences, considers conference proposals and highlights hot topics to the Meetings Board for
inclusion in the conference programme. The Theme Panels also develop interdisciplinary activities
and collaborate with appropriate sister societies. We also consider nominations for prestigious
Biochemical Society medals, prizes and awards. In addition I am involved in ranking of applications
for Scholarships awarded by the society.
Committee members are expected to organise conferences. I have lead the organisation of two
international focus conferences: 2009 - ‘Cell-Cell Communication in Plant Reproductive Biology’ – University of Bath
 2013 - ‘Regulation of fertilisation and early seed development’ – University of Bath
 International Association of Sexual Plant Reproduction Research (IASPRR)
I served as a key member of the organising committee for a major international conference held at
the University of Bristol in Aug 2010. This enhanced our links with Bristol and international
research groups. My roles included:- engagement with sponsors, publicity and helping organise a
BBSRC public outreach event during the meeting.
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RESEARCH Interests
My research interests are currently focussed on i) molecular recognition events and
signalling between male and female reproductive cell types in plant species belonging to the
Brassicaceae (including oil seed rape, Brassica oleracea and the genetic model Arabidopsis
thaliana) and ii) mechanisms that regulate appropriate development of reproductive structures,
seeds and gametes.
Recognition events between cells are key to appropriate regulation of a multitude of steps in
plant sexual reproduction. At the start of the reproductive process recognition between pollen
and stigma can lead to either compatibility, where pollen is accepted and seed potentially set, or
conversely incompatibility where a breeding barrier is imposed. I am interested in the molecular
basis of these barriers both within species and between species. Importantly I was the first to
identify a diverse family of pollen-borne small secreted cysteine-rich proteins which have turned
out to be important signalling molecules in plant reproduction. Through gene knockout analyses in
Arabidopsis I have been dissecting their roles in early pollination.
In later stages of plant reproduction the egg cell must fuse with sperm (delivered by the
pollen tube). Understanding this highly regulated fusion event is also a focus of my research and I
am currently tackling this through the analysis of the Arabidopsis sperm proteome with the aim of
identifying cell surface proteins involved in the sperm-egg interaction. In collaboration with Prof
Rod Scott (Bath) we have also been investigating mechanisms that prevent multiple sperm cells
from fusing with the egg (blocks to polyspermy) – initial findings resulted in a publication (2008)
and this work will continue when resources permit. Other collaborative work with the Scott lab
includes a study on a gene (ttg2) that appears to be able to regulate seed to development such
that seed abortion is ‘rescued’ in normally inviable crosses.
A new collaborative project has also been established between the Doughty and Scott labs
with the appointment of a second new PhD student (URS Excellent Student). The project involves
the identification and characterisation of highly active beta glucanase enzymes involved in male
reproductive development.
In addition a new area of research is directed at understanding the role of lipid kinases in
plant male reproductive development. The research has proved very fruitful resulting in a high
profile publication and opportunities for wider external collaborations and grant applications.
Interestingly this work may also lead into transgenic approaches to improve a plant’s ability to
tolerate osmotic stress (drought).
Major research achievements:
i) Roles of small cysteine-rich proteins in reproductive biology - I would consider one of my most
significant research achievements to be the identification of a diverse group of small cysteine-rich
proteins in pollen (PCPs / CRPs) which have crucial roles in cell-cell signalling during plant
reproduction. In particular I showed that certain members of this family were capable of binding
stigmatic proteins known to be involved in pollen recognition and rejection (self-incompatibility). I
was the first to identify the importance of these proteins in this context and my initial work paved
the way for further exciting developments by labs around the world. These protein ligands are
now known to be involved at multiple stages of plant reproduction from the pollen-stigma
interaction to acting as guidance cues for targeting of pollen tubes to egg cells. Although in recent
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years my research in this area has been under resourced I have maintained a research programme
that will result this coming year in a publication. This work demonstrates that PCPs play a role in
regulating hydration of pollen in compatible pollinations and I anticipate the work to be worthy of
publication in a good journal.
ii) Establishing methodologies for the isolation and characterisation of Arabidopsis sperm cells –
Over the last 5 years or so work in the lab has also focussed on developing a solid methodological
foundation for work on Arabidopsis sperm cells. The isolation of pure Arabidopsis sperm has
proved to be a major technological hurdle to research in this field, particularly in the area of
understanding the sperm-egg interaction. This work formed a major part of the research carried
out by a PhD student in the lab and we were successful, for the first time, in developing an
efficient Arabidopsis sperm isolation protocol that involved enzymatic digestion of the pollen wall,
osmotic shock and Fluorescence Activated Cell Sorting (FACS) of released sperm. Preliminary
proteomic and molecular data has been obtained from these sperm cells proving their purity.
Importantly this work will form the foundation of future research proposals. The impact of this
technical advance will undoubtedly feed into research both in my lab and others in the coming
years.
iii) FAB1 lipid kinases play crucial roles in pollen development - Phosphatidylinositol 3,5
bisphosphate (PtdIns(3,5)P2) is a phospholipid that has a role in controlling membrane trafficking
events in yeast and animal cells. The function of this lipid in plants was until recently unknown
although its synthesis has been shown to be upregulated upon osmotic stress in plant cells. In a
recent collaboration with Paul Whitley (Bath) we were able to identify genes in Arabidopsis that
encode proteins responsible for the synthesis of PtdIns(3,5)P 2 and look at the consequences of
knocking out these genes. Our data showed that PtdIns(3,5)P2 is crucial for modulating the
dynamics of vacuolar rearrangement during pollen development, a process that permits pollen
grains to cope with a dramatic process of dehydration as they mature. Importantly this adds
weight to the thesis that this lipid is essential in cellular responses to reduced water availability
and could therefore be a good target in relation to engineering plants with increased resistance to
drought. Our work was published in a high profile plant journal in 2009.
Key Research Audiences:
My particular research field is truly international with major groups working on plant reproductive
biology in the UK, USA, and other European nations, Japan, China and Australia. Interest in plant
signalling biology in not just restricted to the plant science community but is also seen as import to
researchers working on other model organisms. The research audience is largely academic
however industry has always had a keen interest in understanding the nature of hybridisation
barriers between species.
Impact of Research:
The impact of my research has to some extent been alluded to in previous sections; briefly:i) Work on PCPs / CRPs – my work was the first to identify small cysteine-rich proteins as key
players in signalling events during reproduction. This work has continued not only in my own lab
but internationally and this field has been particularly vibrant over the last 5 years with many
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conferences having a significant number of papers being presented on related proteins with
diverse roles in reproduction. My work also led to the discovery of the pollen-borne factor for selfincompatibility in Brassica, a major research goal that had eluded researchers in the field for 15
years – unfortunately a group at Cornell beat me to this.
ii) FAB1 lipid kinases and role of PtdIns(3,5)P2 in vacuolar dynamics – this work was published
within the last year and interest in the academic community is evident. For the first time this
demonstrated a crucial role for PtdIns(3,5)P2 in regulating membrane trafficking and vacuolar
dynamics in plants. This has very recently led to the establishment of a new collaboration with the
lab of Rui Malho (Lisbon) to investigate the role of other FAB1-related proteins in Arabidopsis.
Publications
Articles in Journals
1, Qi, B.; Doughty, J.; Hooley, R. (2013). A Golgi and tonoplast localized S-acyl transferase is
involved in cell expansion, cell division, vascular patterning and fertility in Arabidopsis. New
Phytologis, 200, 444-456
2, Whitley, P., Hinz, S., Doughty, J. (2009). Arabidopsis FAB1 / PIKfyve proteins are essential for
development of viable pollen. Plant Physiology, 151, 1812-1822.
Scott, RJ; Armstrong, SJ; Doughty, J; Spielman, M (2008). Double fertilization in Arabidopsis
thaliana involves a polyspermy block on the egg but not the central cell. Molecular Plant 1 (4):611619.
3, Kemp, BP; Doughty, J (2007). S cysteine-rich (SCR) binding domain analysis of the Brassica selfincompatibility S-locus receptor kinase. New Phytologist 175 (4):619-629
4, Kemp, B.P. and Doughty, J. (2003). Just how complex is the Brassica S-receptor complex?
Journal of Experimental Botany, 54, 157-168.
5, Doughty, J., Wong, H.Y. and Dickinson H.G. (2000). Cysteine-rich pollen coat proteins (PCPs)
and their interactions with stigmatic S (incompatibility) and S-related proteins in Brassica: putative
roles in SI and pollination. Annals of Botany, 85, suppl. A, 161-169.
6, Dickinson, H.G., Elleman, C.J. and Doughty, J. (2000). Pollen coatings – Chimaeric genetics and
new functions. Sexual Plant Reproduction, 12, 302-309.
7, Doughty, J., Dixon, S., Hiscock, S.J., Willis, A.C., Parkin, I.A.P and Dickinson, H.G. (1998). PCP-A1, a
defensin-like pollen coat protein that binds the S-locus glycoprotein, is the product of gametophytic
gene expression. The Plant Cell, 10, 1333-1347
8, Stephenson, A.G., Doughty, J., Dixon, S., Elleman, C. Hiscock, S. and Dickinson, H.G. (1997). The
male determinant of self-incompatibility in Brassica oleracea is located in the pollen coating. The
Plant Journal, 12, 1351-1359.
9, Ruiter, R.K., Mettenmeyer, T., van Laarhoven, D., van Eldik, G.J., Doughty, J., van Herpen, M.M.A.,
Schrauwen, J.A.M., Dickinson, H.G. and Wullems, G.J. (1997). Proteins of the pollen coat of Brassica
oleracea. Journal of Plant Physiology, 150, 85-92.
10, Stanchev, B.S., Doughty, J., Scutt, C.P., Dickinson, H.G. and Croy, R.R.D. (1996). Cloning of PCP1,
a member of a family of pollen coat protein (PCP) genes from Brassica oleracea encoding novel
cysteine-rich proteins involved in pollen-stigma interactions. The Plant Journal, 10, 303-313.
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11, Hiscock, S.J., Doughty, J., Willis, A.C. and Dickinson H.G. (1995). A 7-kDa pollen coating-borne
peptide from Brassica napus interacts with S-locus glycoprotein and S-locus related glycoprotein.
Planta, 196, 367-374
12, Hiscock, S.J., Doughty, J., and Dickinson, H.G. (1995). Synthesis and phosphorylation of pollen
proteins during the pollen-stigma interaction in self-compatible Brassica napus L. and selfincompatible Brassica oleracea L. Sexual Plant Reproduction, 8, 345-353.
13, Doughty, J., Heddereson, F., McCubbin, A. and Dickinson, H.G. (1993). Interaction between a
coating-borne peptide of the Brassica pollen grain and S (incompatibility)-locus linked stigmatic
glycoproteins. Proceedings of the National Academy of Sciences USA, 90, 467-471
Forthcoming Publications
Eason, R., Hayes, K and Doughty, J. (20114). PCP-B class pollen coat proteins are required for rapid
initiation of pollen hydration in Arabidopsis thaliana. Manuscript in preparation for Plant Journal
(impact factor 6.95)
Tratt, J., Speilman, M., Aljabri, M.,. Doughty, J. and Scott, R.J. (2014). Maternal control of
endosperm development and seed size through the flavonoid biosynthesis pathway. Manuscript in
preparation for The Plant Cell (impact factor 10.6).
Peer Reviewing Activity
I am regularly invited to review manuscripts submitted to a range of plant journals and I also
review grants for the BBSRC.
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