Blog Archives - Page 20 of 25 - The Global Plant Council

Feb 12

Flowers of the Global Plant Council

By Isabel | Blog, GPC Community

A while ago we published a blog post about the sequencing of the Bauhinia genome. Bauhinia x blakeana is the national flower of Hong Kong, so naturally this sparked our interest in the global importance of flowers as national symbols, such as the English rose. Here we list just a few of the more interesting and unusual plants that are the national symbols of countries hosting GPC member organizations.

India Indian Society for Plant Physiology

Nelumbo nucifera

The Lotus Plant (Nelumbo nucifera) is an aquatic plant in the Nelumbonaceae family, and is the national flower of India and Vietnam. Image by alterna used under Creative Commons 2.0.

The lotus plant (Nelumbo nucifera) is considered sacred in the Buddhist and Hindu religions, and been used for over 7000 years in Asia as a source of food, herbal remedy and fibers for clothing. In 2013 its genome was sequenced, allowing its phylogenetic history and adaptations for the aquatic environment to be more fully understood. For example, the plant has a number of genes enabling its adaptation to the nutrient poor soils in waterways, altering its novel root growth, iron regulation and phosphate starvation.

Researchers at the University of Adelaide, Australia, showed that the lotus actually has the ability to regulate the temperature of its flowers, maintaining them between 30 and 36 °C even when air temperature dropped below this. Quite how or why it does this is still unknown, but warmer flowers could play a role in attracting cold-blooded insects and increasing their activity once on the flowers to enhance pollination. An alternative explanation could be that warmer temperatures are required for pollen production.

Another fantastic fact about the lotus is seed viability. A 1300 year old lotus fruit found in a dry lakebed in China was successfully germinated, providing an insight into the aging process of fruits and other organisms

Australia Australian Society of Plant Scientists

Acacia pycnantha

The golden wattle (Acacia pycnantha) is a member of the Fabaceae family. The plant is a small tree that can grow up to 12 meters high! In Australia the 1st September is National Wattle Day. Image by Sydney Oats used under Creative Commons 2.0.

The Australian national flower is the Acacia pycnantha, or wattle, first described in 1942. Its name comes from the Greek pyknos (dense) and anthos (flowers) describing the dense groups of flowers that form on the tree. The wattle is an important source of tannins, and as such has been introduced to parts of southern Europe such as Italy and Portugal in addition to India and New Zealand. The wattle is also found in South Africa where it has now become an invasive pest, and various methods of biological control such as gall forming wasps (Trichilogaster signiventris) are being used to control populations.

Galls on a wattle tree from T. signiventris. Eggs are laid by the wasp in the buds of flower heads and the hatched larvae induce gall formation which prevents flower development. This in turn prevents pollination and continued propagation of the Wattle population. Image by Sydney Oats used under Creative Commons 2.0.

Japan The Japanese Society of Plant Physiologists

Yellow Chrysanthemum

The yellow Chrysanthemum is a member of the Asteraceae family. Species of the Chrysanthemum enus are popular ornamental plants, and as such many hybrids and thousands of cultivars in a variety of colors and shapes can be found. Image by Joe deSousa used under Creative Commons 1.0.

Although cherry blossom is often the flower most associated with Japan, yellow Chrysanthemum flowers are equally as important. The flower is used as the Imperial Seal of Japan and on the cover of Japanese passports. Species of the genus Chrysanthemum are members of the Asteraceae (daisy) family.

Two species of the Chrysanthemum genus, C. cinerariifolium and C. coccineum, synthesize pyrethrum compounds, which attack insect nervous systems. As such these species make good companion plants in the field, repelling insects from economically valuable neighboring plants that do not have their own defense mechanisms. The naturally produced toxins are widely used in organic farming, and many synthetic versions are also available commercially.

South Africa African Crop Science Society

Protea cynaroides

The king protea (Protea cynaroides) is a member of the Proteaceae family and the national flower of South Africa. The South African cricket team has the nickname the Proteas, after the flower. Image by Virginia Manso, used under Creative Commonds 2.0.

The king protea (Protea cynaroides) can grow up to 2 meters in height and comes in several colors and varieties. The plant grows in harsh, dry regions prone to wildfire, and as such has a number of adaptations for the environment. For example, a long tap-root is used for accessing deep water, and tough leathery leaves are resilient to both biotic and abiotic stress. The protea has a thick underground stem with many dormant buds. After a wildfire these dormant buds can become active, forming new stems allowing the plant to survive!

The king protea is only one species within the large Proteaceae family, 120 species of which are now endangered listed on the IUCN Red List of threatened species. The Protea Atlas Project aims to map the geographical location of proteas through Southern Africa in order to help preserve the family. In addition to protea, Southern Africa is home to around 24 000 plant taxa, 80% of which occur no where else in the world. A wider objective of the Protea Atlas Project is to map species-richness patterns in Southern Africa. The distribution of Protea plants within the region largely seems to match the species-richness patterns of other plant species, and therefore proteas are being used as surrogates for plant diversity. Find out more about the project and get involved here.

Germany and Estonia EUCARPIA, EPSO, FESPB, SPPS

Centaurea cyanus

The cornflower (Centaurea cyanus) is a member of the Asteraceae family, like the Chrysanthemum. Image by Anita used under Creative Commons 2.0.

We have a large number of European and Scandinavian member groups, and choosing one flower to represent all of those was a challenge. However, the humble Cornflower seemed an appropriate choice to represent our European societies. This member of the daisy family is not only the national flower of Germany and Estonia, but has a place in many Scandinavian cultures being the symbol for a number of political parties in Finland and Sweden.

In the past this beautiful flower was regarded as a weed, but now due to intensive agricultural practices has become endangered. Cornflowers have many uses in addition to being an ornamental plant. The plant is used in many blends of herbal tea, flowers are edible in salads, and the blue coloring can be used as a clothes dye.

Canada Canadian Society of Plant Biologists

Acer

Although not technically a flower, the leaf of the maple tree is such an iconic symbol on the Canadian flag we just had to include it (we are the Global Plant Council after all). There are many species of maple tree in the genus Acer, which can be distinguished from other genus of trees by their distinctive leaf shape. The most important species of maple in Canada is probably Acer saccharum, the sugar maple. The sap of this species is the major source of maple syrup, and its hard wood is popular for use in flooring and furniture.

Acer saccharum, the sugar maple, in Autumn. Image by Mark K. used under Creative Commons 2.0.

The sugar maple grows throughout the USA and Canada, favoring cooler climates and is a very shade tolerant species. Despite this, the sugar maple is now in decline in many regions. It is highly susceptible to increased levels of air pollution and changes to salt levels. As such the species is now being replaced in many regions by the hardier Norway Maple.

Argentina Argentinian Society of Plant Physiology

Erythrina crista-galli

E. crista-galli, the cockspur coral tree, is the national tree in Argentina. Also known in Argentina as the ceibo, the bright red flower of this tree is also the national flower of Argentina and Uruguay.

The bright red flowers of E.crista-galli are the national flowers of Argentina and Uruguay. Image by Gabriella F.Ruellan used under Creative Commons 2.0.

The small tree is a legume from the family Fabaceae. Characteristically of species from this family, the fruit of the cockspur coral tree are dry pods, and the roots have nodules containing nitrogen fixing bacteria making them important for increasing the available nitrogen in the soil. Although native to South America, the tree is also naturalized in Australia, where it is becoming an emerging environmental weed. The tree is invading waterways and wetlands displacing native species, and its spread is now being controlled in New South Wales.

If your country has a particularly interesting national flower that we have missed let us know! Perhaps we can include it in a future blog post.

Jan 30

Connecting Plant Science Researchers, Entrepreneurs and Industry Professionals

By Isabel | Blog, Canadian Society of Plant Biologists, Scientific Meetings

From Lab Bench to Boardroom workshop at Botany 2015

This blog post was written by Amanda Gregoris and R. Glen Uhrig who organized a workshop entitled “Lab Bench to Boardroom” at the Botany 2015 meeting in Edmonton, Alberta, Canada.

Our motivation behind holding this workshop was to engage graduate students and post-doctoral fellows to consider the science behind biotechnology. We designed this workshop to be an opportunity to expose students and post-doctoral fellows to how industry experts and entrepreneurs develop ideas, and how they refine those ideas to make them attractive business opportunities for investors. We created an environment where students and post-doctoral fellows could ‘pitch’ their own plant science business ideas to a panel of industry experts. Through cooperative idea development with the panel and audience members, presenters were able to learn how to evolve their ideas, as well as how their peers viewed their proposed ideas.

Workshops such as Lab Bench to Boardroom are of central importance given the limited availability of academic positions. In light of this fact, students and post-doctoral fellows alike need to consider career options outside of academia prior to completion of their degrees, contracts or fellowships. It is imperative that early career researchers invest time to maximize long-term career outcomes. Workshops like ours and others assist in this by developing a thorough understanding of the non-academic opportunities available.

If you are an early career researcher looking to move away from academia, some industry positions for graduates and post-doctoral fellows may include:

research and development,
quality control,
marketing,
market research analyst,
business development manager,
competitive intelligence analyst,
product manager, and
management consulting.

Notice that these opportunities are not only based at the lab bench, but can be in more managerial or consulting positions. Your experiences as a researcher have given you highly valued skills, so don’t limit your options! Of course, industry is not the only option, and other opportunities may include working in a government lab, public policy, science writing, herbarium curation or patent agent.

The question of whether enough is being done to inform graduate students and post-doctoral fellows of alternative, non-academic career paths is one often asked, and is one that varies by institution. In our experience, universities have taken a largely standard approach, offering lectures by professionals from industry, as well as informal social gatherings aimed at connecting students to industry. Although these are good opportunities, they represent just the tip of the iceberg in terms of what could be done to inspire entrepreneurship amongst the upcoming generation of plant scientists, and better assist them with the transition from an academic focus to an industry focus.

Workshop concepts similar to Lab Bench to Boardroom could be developed at the departmental level, or by university career centers, to allow graduate students and post-doctoral fellows to gain an elevated understanding of non-academic career opportunities. Some universities have made great strides in this area, creating internship resources for current graduate students in the areas of biotechnology and public policy. Along these lines, university career centers will usually have databases of current job postings that can assist students in the search for life after grad school.

In the end, it is imperative that universities, governments and industry continue to work to develop strategies that assist graduate students and post-doctoral fellows in the transition from academics to successful non-academic careers. This can be accomplished either individually, or through partnerships between these groups. We believe that developing these strategies is undoubtedly essential to the sustainable development of new ideas and technologies in the plant sciences that will be required to address the current and future needs of society.

Amanda Gregoris is a Ph.D. candidate in the Department of Biological Sciences at the University of Alberta, Canada and Dr. R. Glen Uhrig is a post-doctoral fellow at the ETH Zurich, Switzerland. Both are members of the Canadian Society of Plant Biologists.

Glen Uhrig

Amanda Gregoris

Jan 18

Creating stress resilient agricultural systems: Video interviews

By Isabel | Blog, Scientific Meetings, SEB

The global population is projected to reach 9.6 billion by 2050, and to accommodate this, crop production must increase by 60% in the next 35 years. Furthermore, our global climate is rapidly changing, putting our cropping systems under more strain than ever before. Agriculture will need to adapt to accommodate more extreme weather events and changing conditions that may mean increased instance of drought, heatwaves or flooding. The Global Plant Council Stress Resilience initiative, was created to address these issues.

Back in October the Global Plant Council, in collaboration with the Society for Experimental Biology brought together experts from around the world at a Stress Resilience Forum to identify gaps in current research, and decide how best the plant science community can move forwards in terms of developing more resilient agricultural systems. We interviewed a number of researchers throughout the meeting, asking about their current work and priorities for the future. Watch the best bits in the video below:

Jan 07

New Year, New Executive Board

By Isabel | Blog, Future Directions, GPC Community

Happy New Year!

Although they’ve actually been in post since our Annual General Meeting (AGM) in October 2015, I thought I’d take this opportunity to introduce you to our new(ish!) Executive Board; the elected committee of plant science experts from around who help Ruth and myself, and Bill our President, to direct and drive the GPC’s activities and initiatives.

Barry Pogson – Chair

Aussie Barry is stepping into the (very large!) shoes of our outgoing Chair, Willi Gruissem. Barry is no stranger to the GPC, having been a GPC Member Organization representative of the Australian Society of Plant Scientists since the GPC’s inception, and being the lead on our Biofortification initiative.

In the lab, based at the Australian National University in Canberra, Barry explores the signaling pathways between chloroplasts and nuclei, particularly investigating how these can impact plants’ tolerance to drought, and carotenoid synthesis and accumulation. His work has important implications for plant biology as a whole, but also for human nutrition, particularly in the biofortification of crops as a means to reduce micronutrient deficiencies.

Barry is Chair of the Golden Rice Technical Advisory Committee and has won numerous awards for his research, teaching and supervision excellence. You can read more about Barry on the GPC website.

Ariel Orellana – Vice Chair

Ariel replaces outgoing Vice-Chair Henry Nguyen. A Professor of Plant Biotechnology at the Universidad Andrés Bello in Santiago, Chile, Ariel has also been involved with the GPC for a number of years as a representative of Chile’s National Network of Plant Biologists, and we look forward to continuing to work with him as a key point of contact in South America.

A highly decorated scientist with many awards, titles, and attributions to his name, Ariel’s research interests are in plant cell wall polysaccharide biosynthesis in the Golgi, particularly looking at the contribution of nucleotide sugar transporters, and he also uses genomics as a tool for the marker-assisted breeding of fruit.

Vicky Buchanan-Wollaston – Treasurer

Vicky joins the GPC Executive Board as our new Treasurer, taking over control of the purse-strings from Brazil’s Gustavo Habermann.

Vicky is Emeritus Professor of Plant Sciences at the University of Warwick, UK, where her research interests are focused on plant senescence, using both Arabidopsis and vegetable Brassicas to carry out functional analysis of leaf senescence-regulating genes. She is a GPC Member Organization representative for the Society for Experimental Biology, and with Professor Jim Beynon, leads the GPC’s initiative on Stress Resilience. Read more about Vicky here.

Carl Douglas – Board Member

Now joining us as Board Member – together with Yusuke Saijo (below) replacing former Board Members Kasem Ahmed and Zhihong Xu, Carl is also a GPC Member Organization representative for the Canadian Society of Plant Biologists (CSPB). He works at the University of British Columbia in Vancouver, where he is a Professor in the Department of Botany. He leads research exploring plant cell wall biosynthesis, and is an expert in tree genomics.

A highly cited and well published author, Carl is also a former President of the CSPB, a Corresponding Member of the American Society of Plant Biologists, and a Fellow of the American Association for the Advancement of Science. You can find out a bit more about Carl here.

Yusuke Saijo – Board Member

As well as being a newly elected GPC Board Member, Yusuke Saijo is also new to the GPC, replacing his predecessor Takashi Ueda as the Member Organization representative for the Japanese Society of Plant Physiologists.

His lab work at the Nara Institute of Science and Technology in Japan is focused on understanding plant–microbe interactions, particularly plants’ ability to sense danger, undergo transcriptional reprogramming and priming, and the control of plant immunity under fluctuating environmental conditions.

Thank you

Huge thanks to our outgoing Board Members – Wilhelm Gruissem, Henry Nguyen, Gustavo Habermann, Kasem Ahmed and Zhihong Xu – for all their hard work and support during their terms.

And don’t forget…

The members of the GPC’s Executive Board are an elected subset of the Council’s representatives from professional plant, crop, environmental and agricultural societies from all over the world. But, if you are a member of one of our Member Organizations, you’re also a part of the GPC community! We encourage you to get in touch with your GPC representative, especially if you would like to get involved with our activities, or if you have any ideas as to how we can help filter the GPC’s news and information down from the Council to your society’s individual members.

You can find a full list of our member societies, their reps, and their contact details here.

Finally, if your society or professional association is not already a member of the GPC and would like to be, we’d love to hear from you! Please contact us at info@globalplantcouncil.org.

Jan 01

2015 Plant Science Round Up

By Isabel | Blog, GPC Community, Research

Following on from last week’s post, Now That’s What I Call Plant Science 2015, we bring you a year in Plant Science!

January

Image credit: Jean Weber. Used under license CC BY 2.0.

The year began with a surprising paper that turned our understanding of the phytohormone auxin on its head. Researchers in China and the USA created Arabidopsis knockout mutants of AUXIN BINDING PROTEIN 1 (ABP1), expecting them to fail to respond to auxin and have developmental defects, as previously seen in the abp1-1 knockdown mutant. Instead, these plants were indistinguishable from wild type plants, leading the authors to conclude that ABP1 is not required for auxin signaling or Arabidopsis development as previously believed.

Read the paper in PNAS: Auxin binding protein 1 (ABP1) is not required for either auxin signaling or Arabidopsis development.

A paper later in the year from the same authors found that the embryonic lethality of the abp1-1 mutant is actually caused by the off-target linked deletion of the adjacent BSM gene.

Read this paper in Nature Plants: Embryonic lethality of Arabidopsis abp1-1 is caused by deletion of the adjacent BSM gene.

The tale of ABP1 was examined in more detail on the GARNet blog, Weeding the Gems, which concluded: “In many ways this story is an excellent example of how science should work, where claims are independently tested to ensure that earlier experiments have been conducted or interpreted correctly.” Click here to read more.

February

A clever experiment from Germany led to a significant breakthrough in crop protection from insect pests.

When double-stranded RNA (dsRNA) is present within a eukaryotic cell, it is cleaved by the Dicer enzyme to form short interfering RNAs. These can bind to complementary RNA within a cell to target it for destruction, thus silencing the corresponding gene expression. This process is known as RNA interference (RNAi).

RNAi has previously been used to tackle insect herbivory by expressing insect-specific dsRNA in plants; however the protection has previously been incomplete. In this new study, published in Science, researchers produced dsRNA within chloroplasts, which do not have RNAi machinery. When dsRNA is expressed in the cytoplasm, the plant’s own Dicer enzyme breaks most of it down. When expressed in the chloroplasts, the dsRNA remained intact when eaten by insects, which proved much more effective at killing these pests.

Read the paper here: Full crop protection from an insect pest by expression of long double-stranded RNAs in plastids.

March

Another crop protection study followed in March, when researchers in China cloned the genetic locus in rice that confers broad-spectrum resistance to planthoppers – insect pests that cause the loss of billions of dollars of crops per year. Three lectin receptor kinase genes were found in rice cultivars from the Philippines, which enable plants to survive an infestation of insects. When cloned into a susceptible rice cultivar, these genes conferred resistance to two different planthopper species.

Understanding the genetic basis of resistance is very important as marker-assisted breeding and selection could be used to develop resistant rice varieties, and potentially utilized in other species of cereal.

Read the paper in Nature Biotechnology: A gene cluster encoding lectin receptor kinases confers broad-spectrum and durable insect resistance in rice

April

A European collaboration led to the development of 3DCellAtlas, a computational approach that semi-automatically identifies cell types in a developing 3D organ without the need for transgenic lineage markers. This program will enable the interpretation of dynamic organ growth and the spatial and temporal context of developmental cell divisions that produce the resultant plant. It could be integrated with growth in different conditions or with developmental mutants to examine exactly how these processes affect growth in 3D.

Image credit: Montenegro-Johnson et al., 2015. Digital Single-Cell Analysis of Plant Organ Development Using 3DCellAtlas. The Plant Cell, vol. 27 no. 4, 1018–1033.

May

A special issue of the Plant Biotechnology Journal was published in May, focusing on the amazing advances in molecular farming. While the entire issue is worth delving into, we were particularly intrigued by the review on moss-made pharmaceuticals, which outlines the rapid progress made in the field.

The model moss Physcomitrella patens has rapidly become one of the organisms of choice in biotechnology, with a fully sequenced genome and an outstanding toolbox for genome-engineering. The authors describe how moss-made pharmaceuticals can easily be produced while remaining remarkably more stable from batch to batch than cultured animal cells. The system is easily scalable, making their production highly cost effective, and safe. The first moss-made pharmaceuticals are currently in clinical trials, so keep an eye out for much more from this field over the next few years.

Read the review: Moss-made pharmaceuticals: from bench to bedside.

June

In June, US researchers discovered a new role for chloroplast stromules, protrusions that extend from the surface of all plastid types. The function of stromules has been difficult to determine, but this research, published in Developmental Cell, suggests that they may provide a mechanism by which plastid signals are conveyed to the nucleus. The paper shows that chloroplast stromules are induced by defense responses such as programmed cell death signaling, and that the stromules extend to form dynamic connections with the nucleus. The stromules may therefore aid in the amplification and/or transport of immune response signals into the nucleus.

Read the paper: Chloroplast Stromules Function during Innate Immunity.

July

Image credit: Veresoglou et al., 2015. Self-DNA: a blessing in disguise? New Phytologist, vol. 207, no. 3, 488–490.

In late 2014 and early 2015, Italian researchers published a set of articles showing that extracellular self-DNA, DNA from conspecifics, could inhibit the growth of organisms from a wide range of taxa, including plants, bacteria, fungi and animals. Conversely, these organisms were not affected by extracellular DNA from other unrelated species.

In July, New Phytologist published a letter offering an interpretation of the data as it relates to plants. Plants could interpret extracellular self-DNA as an indicator of intraspecific competition (which seeds could use as a cue to remain dormant) or of a hostile environment that has already caused the death of conspecifics, signaling them to ramp up their pre-emptive immune response to increase survival after neighbors have been damaged or killed. There are still a lot of mechanisms and ecological effects to be investigated in this new field, but this letter suggests several interesting avenues to investigate.

Read the article: Self-DNA: a blessing in disguise?

Original research papers in New Phytologist:

Inhibitory and toxic effects of extracellular self-DNA in litter: a mechanism for negative plant–soil feedbacks?

Inhibitory effects of extracellular self-DNA: a general biological process?

August

A US study in August revealed a surprising degree of conservation in gene expression patterns across a wide range of plant taxa during root development. This was particularly interesting because the spikemoss Selaginella was shown to use many of the same genes as the evolutionarily distant angiosperms, despite the fossil record suggesting that roots evolved independently in these two lineages. Perhaps roots in these two groups evolved by independently recruiting the same developmental program, or perhaps by elaborating on a previously unknown proto-root that existed in the common ancestor of vascular plants.

Read the paper in The Plant Cell: Conserved Gene Expression Programs in Developing Roots from Diverse Plants.

September

Salt stress can significantly reduce the growth and yield of plants. Researchers in Germany identified two components of the cellulose synthase complex that directly interact with the microtubules and promote their dynamics, which interestingly were highly produced during salt stress conditions. During salt stress, cellulose microtubules depolymerize, however the newly discovered compounds, known as Companions of Cellulose Synthase, promote the reassembly of the microtubule to allow cellulose synthesis to continue.

Read the paper in Cell: A Mechanism for Sustained Cellulose Synthesis during Salt Stress

October

Throughout the year the GM debate in Europe reached several important milestones. In January the European Union (EU) changed its rules, giving individual countries more flexibility to decide for themselves whether or not to plant GM crops. In February, the UK Science and Technology Committee report stated that EU regulations preventing GM crops are not fit for purpose, and that they should be replaced with a trait-based system.

In October, EU member states revealed their stances on GM crops, with over half of Europe opting out of growing GM crops. Germany was the largest country to opt out of growing GM. The full list can be viewed here: Restrictions of geographical scope of GMO.

Read the news articles here:

EU changes rules on GM crop cultivation – January 2015

EU regulation on GM Organisms not ‘fit for purpose’ – February 2015

Half of Europe opts out of new GM crop scheme – October 2015

November

Image credit: University of Warwick, UK.

A collaboration between South African and UK scientists revealed how plants can use their circadian clock to pre-emptively boost their immune resistance at dawn, when fungal infection is most likely. Plants tend to decrease in susceptibility at dawn, but those with dysfunctional circadian clocks remained highly susceptible throughout the day. The research also showed that jasmonate signaling plays a crucial role in the circadian timing of resistance.

Read the article in The Plant Journal: Jasmonate signalling drives time-of-day differences in susceptibility of Arabidopsis to the fungal pathogen Botrytis cinerea.

December

Image credit: Guo & Liu., 2015. A single-nucleotide exon found in Arabidopsis. Scientific Reports, 5:18087.

Researchers in China published the surprising finding that a single-nucleotide exon exists in the APC11 gene in Arabidopsis. This is the smallest exon ever to be discovered before. The team used an elegant set of APC11-GFP constructs to show that intron splicing around the single-nucleotide exon is effective in both Arabidopsis and rice. This finding has implications for future genome annotations, which might reveal many more single-nucleotide exons.

Read the paper in Scientific Reports: A single-nucleotide exon found in Arabidopsis.

What a wonderful year of science! What new knowledge will 2016 bring?

Jan 01

Plant scientists respond: “Plants are boring!”

By Isabel | Blog, GPC Community

Throughout my PhD, I often found myself explaining why plants are fascinating, justifying why I was devoting four years of my life to researching the minute details of their biology.

A few weeks ago, I thought I’d ask the #plantsci community on Twitter what makes them love plants. The response was phenomenal, so I thought I’d share it here as a fun way to transition to 2017!

(This is just a handful of the huge number of comments. To read them all, click here.)

Hey #plantsci, I need your help! What makes you love plants? What’s your comeback to “plants are boring”? Thanks! Plz RT! @PlantTeaching 😉

— Sarah Jose (@JoseSci) November 9, 2016

Many of us are amazed by the fact that they can fend for themselves, rather than running away from harsh conditions or predators:

@JoseSci @PlantTeaching Plants have to deal with many of the same struggles as animals – and they can’t even run away. — Alice Foxall (@alicefoxall) November 13, 2016

@JoseSci @PlantTeaching They’re incredibly resilient and adaptive all without having a nervous system or being able to move!

— Silvia Caldararu (@SCaldararu) November 10, 2016

@JoseSci @DJPMoore Plants survive and thrive in places most humans would never dare even to visit. — Tom Buckley (@TomBuckleyLab) November 10, 2016

@JoseSci forever plastic and survive in the situation wherever they lay their roots. Not denying that’s cool!

— Kelly (@kaatkins7) November 10, 2016

Don’t worry though, because plants can fight back:

@JoseSci @PlantTeaching my tree was attacked by aphids. It released a sweet liquid that attracted ants, chasing away the aphids! — Allen Greeley (@taku2473allen) November 9, 2016

They can alter their environments in really interesting ways too:

@JoseSci @SCIHorticulture @PlantTeaching exudates – active modification of rhizosphere to block toxins entering roots and mobilise nutrients

— Mark Nason (@Cornwall_SciEnv) November 9, 2016

A lot of people are interested in plant reproduction:

@JoseSci @PlantTeaching #Plant sex lives (reproductive life cycles) are so much more complex than ours. Animal life cycles are boring. — Eve Emshwiller (@EveEmshwiller) November 10, 2016

@JoseSci @Botanical_ @PlantTeaching look at all of those reproductive strategies. Plants are truly amazing!

— The Morris Lab @MTSU (@themorrislab) November 9, 2016

Some species can survive for millennia:

@JoseSci @PlantTeaching even relatively short lived yes love longer than humans… some trees count in centuries — Dave Moore (@DJPMoore) November 9, 2016

@JoseSci @PlantTeaching Try cutting one of your appendages off and see if it regrowth like a plant can.

— Edith L. Hardcastle (@elhardcast) November 9, 2016

@JoseSci @PlantTeaching some genetic individuals (plants) might live forever — Dave Moore (@DJPMoore) November 9, 2016

Much of the rest of the ecosystem relies on them…

@JoseSci @DJPMoore Plants can live without us, but we can’t live without them. Animals are just parasites on a biosphere fueled by plants.

— Tom Buckley (@TomBuckleyLab) November 10, 2016

@JoseSci @PlantTeaching if animals died out many plants would survive…if plants died out most animals would die also — Dave Moore (@DJPMoore) November 9, 2016

… and of course, they give us much of what we need to survive…

@JoseSci @PlantTeaching bread, beer, wine, oxygen…

— Matthew Gilliham (@IonPlants) November 10, 2016

@MMLewandowski52 @PlantTeaching @JoseSci literally food out of (thin) air…especially in aeroponic systems — Krishna Udaiwal (@Plant_Learner) November 10, 2016

@JoseSci @PlantTeaching Plants do everything we do + capture sun E + synthesize virtually all useful medicines and poisons + are beautiful

— Paul Twigg (@UNKBiol106) November 9, 2016

@JoseSci @PlantTeaching Kinda hard to breathe without ’em, for one! — Dan Lin (@DLinYZ) November 10, 2016

@JoseSci @PlantTeaching Well, they make colours, flavours, fragrances, drugs…

— Anne Osbourn (@AnneOsbourn1) November 10, 2016

@JoseSci @PlantTeaching we depend on plants for just about everything, plants are _not_ boring! — McPanos (@panagopucakes) November 18, 2016

We need to highlight how amazing plants are, to counteract “plant blindness”:

@JoseSci @PlantTeaching read this amazing article about #plantblindness by @fossilplants https://t.co/xYWS0MATGM — Lyza Maron (@LyzaMaron) November 10, 2016

@JoseSci @Botanical_ @PlantTeaching plants are all around, always. We watch them seldom. The beauty of the unseen — SEB (@SEBriologia) November 9, 2016

Plant blindness means that many people are unaware of the amazing things that are happening around them:

@JoseSci @PlantTeaching 1) only boring on a minute-by-minute timescale – sped-up timelapses reveal remarkable behaviour (eg phototropism) — Daniel Seaton (@DanielDSeaton) November 11, 2016

@JoseSci @PlantTeaching plants are more just more veiled about how cool they are…like the quiet kid w/ some WILD tricks up their sleeve

— Beth Ansaldi (@AWomaninSTEM) November 9, 2016

Being scientists, a lot of people liked how easy plants are to work with!

@JoseSci @PlantTeaching Plants stay in one place, so I can sample them easily. I love them for that! — A.C. Papageorgiou (@ACPapageorgiou) November 10, 2016

@JoseSci @PlantTeaching It is not as much paperwork when you want to dissects plants! And their stem cells make Sequoia trees live (almost) forever ! — Marie Pireyre (@MapiMry) November 10, 2016

@JoseSci @PlantTeaching They stand still while I measure them! — Vigdis Vandvik (@VVandvik) November 10, 2016

Some of the biggest scientific discoveries were made in plants:

@JoseSci @PlantTeaching the big discoveries. Mendel & the pea; Hook & first cell; McClintock & transposable elements; PTGS in petunia

— Peter Etchells (@peter_etchells) November 9, 2016

In conclusion:

.@JoseSci @JohnInnesCentre @PlantTeaching

Plants are awesome!

— Molecular Plant Path (@MPPjournal) November 11, 2016

Thanks to everyone who took part in this twitter chat! This is just a subset of the huge number of comments we received. To read them all, click here!

Have we missed anything? Why do you love plants?

Dec 22

Now That’s What I Call Plant Science 2015

By Isabel | Blog, Research, Science communication

With another year nearly over we recently put out a call for nominations for the Most Influential Plant Science Research of 2015. Suggestions flooded in, and we also trawled through our social media feeds to see which stories inspired the most discussion and engagement. It was fantastic to read about so much amazing research from around the world. Below are our top five, selected based on impact for the plant science research community, engagement on social media, and importance for both policy and potential end product/application.

Choosing the most inspiring stories was not an easy job. If you think we’ve missed something, please let us know in the comments below, or via Twitter! In the coming weeks we’ll be posting a 2015 Plant Science Round Up, which will include other exciting research that didn’t quite make the top five, so watch this space!

Sweet potato is a naturally occurring GM crop

Sweet potato contains genes from bacteria making it a naturally occurring GM crop. Image from Mike Licht used under creative commons license 2.0

Scientists at the International Potato Center in Lima, Peru, found that 291 varieties of sweet potato actually contain bacterial genes. This technically means that sweet potato is a naturally occurring genetically modified crop! Alongside all the general discussion about GM regulations, particularly in parts of Europe where regulations about growing GM crops have been decentralized from Brussels to individual EU Member States, this story caused much discussion on social media when it was published in March of this year.

It is thought that ancestors of the modern sweet potato were genetically modified by bacteria in the soil some 8000 years ago. Scientists hypothesize that it was this modification that made consumption and domestication of the crop possible. Unlike the potato, sweet potato is not a tuber but a mere root. The bacteria genes are thought to be responsible for root swelling, giving it the fleshy appearance we recognize today.

This story is incredibly important, firstly because sweet potato is the world’s seventh most important food crop, so knowledge of its genetics and development are essential for future food supply. Secondly, Agrobacterium is frequently used by scientists to artificially genetically modify plants. Evidence that this process occurs in nature opens up the conversation about GM, the methods used in this technology, and the safety of these products for human consumption.

Read the original paper in PNAS here.

RNA-guided Cas9 nuclease creates targetable heritable mutations in Barley and Brassica

Our number two on the list also relates to genetic modification, this time focusing on methods. Regardless of whether or not we want to have genetically modified crops in our food supply, GM is a valuable tool used by researchers to advance knowledge of gene function at the genetic and phenotypic level. Therefore, systems of modification that make the process faster, cheaper, and more accurate provide fantastic opportunities for the plant science community to progress its understanding.

The Cas9 system is a method of genome editing that can make precise changes at specific locations in the genome relatively cheaply. This novel system uses small non-coding RNA to direct Cas9 nuclease to the DNA target site. This type of RNA is small and easy to program, providing a flexible and easily accessible system for genome editing.

Barley in the field. Image by Moldova_field used under creative commons license 2.0

Inheritance of genome modifications using Cas9 has previously been shown in the model plants, Arabidopsis and rice. However, the efficiency of this inheritance, and therefore potential application in crop plants has been questionable.

The breakthrough study published in November by researchers at The Sainsbury Laboratory and John Innes Centre both in Norwich, UK, demonstrated the mutation of two commercial crop plants, Barley and Brassica oleracea, using the Cas9 system and subsequent inheritance mutations.

This is an incredibly exciting development in the plant sciences and opens up many options in the future in terms of genome editing and plant science research.

Read the full paper in Genome Biology here.

Control of Striga growth

Striga is a parasitic plant that mainly affects parts of Africa. It is a major threat to food crops such as rice and corn, leading to yield losses worth over 10 billion US dollars, and affecting over 100 million people.

Striga infects the host crop plant through its roots, depriving them of their nutrients and water. The plant hormone strigolactone, which is released by host plants, is known to induce Striga germination when host plants are nearby.

In a study published in August of this year the Striga receptors for this hormone, and the proteins responsible for striga germination were identified.

Striga plants are known to wither and die if they cannot find a host plant upon germination. Induction of early germination using synthetic hormones could therefore remove Striga populations before crops are planted. This work is vital in terms of regulating Striga populations in areas where they are hugely damaging to crop plants and people’s livelihoods.

Read the full study in Science here.

Striga, a parasitic plant. Also known as Witchweed. Image from the International Institute of Tropical Agriculture used under creative commons license 2.0

Resurrection plants genome harvesting

Resurrection plants are a unique group of flora that can survive extreme water shortages for months or even years. There are more than 130 varieties in the world, and many researchers believe that unlocking the genetic codes of drought-tolerant plants could help farmers working in increasingly hot and dry conditions.

During a drought, the plant acts like a seed, becoming so dry that it appears dead. But as soon as the rains come, the shriveled plant bursts ‘back to life’, turning green and robust in just a few hours.

In November, researchers from the Donald Danforth Plant Science Centre in Missouri, US, published the complete draft genome of Oropetium thomaeum, a resurrection grass species.

O. thomaeum is a small C4 grass species found in Africa and India. It is closely related to major food feed and bioenergy crops. Therefore this work represents a significant step in terms of understanding novel drought tolerance mechanisms that could be used in agriculture.

Read the full paper in Nature here.

Supercomputing overcomes major ecological challenge

Currently, one of the greatest challenges for ecologists is to quantify plant diversity and understand how this affects plant survival. For the last 500 years independent research groups around the world have collected this diversity data, which has made organization and collaboration difficult in the past.

Over the last 500 years, independent research groups have collected a wealth of diversity data. The Botanical Information and Ecology Network (BIEN) are collecting and collating these data together for the Americas using high performance computing (HPC) and data resources, via the iPlant Collaborative and the Texas Advanced Computing Center (TACC). This will allow researchers to draw on data right from the earliest plant collections up to the modern day to understand plant diversity.

There are approximately 120,000 plant species in North and South America, but mapping and determining the hotspots of species richness requires computationally intensive geographic range estimates. With supercomputing the BIEN group could generate and store geographic range estimates for plant species in the Americas.

It also gives ecologists the ability to document continental scale patterns of species diversity, which show where any species of plant might be found. These novel maps could prove a fantastic resource for ecologists working on diversity and conservation.

Read more about this story on the TACC website, here.

Dec 16

How to create a successful crop research partnership: the Generation Challenge Programme

By Isabel | Blog, GPC Community, Scientific Meetings

The Generation Challenge Programme (GCP – not to be confused with GPC!) was enthused about repeatedly during the three day GPC/SEB Stress Resilience Forum held in Iguassu Falls, Brazil. This 10-year program was created by the Consultative Group on International Agricultural Research (CGIAR) in 2003 as a collaborative approach to developing food crops with improved stress resilience, and is widely hailed as a very successful example of the benefits of international collaboration and practical targeted research funding.

Dr Jean-Marcel Ribault, director of the GCP, spoke at the meeting about the success of the $170 M program, and the key things that other projects should consider when designing collaborative partnerships.

Research initiatives

During its second phase (2009–2014), the GCP focused on seven key research initiatives: improving cassava, rice and sorghum for Africa’s drought-prone environments; improving drought tolerance in maize and wheat for Asia; tackling tropical legume productivity in marginal land in Africa and Asia; and the use of comparative genomics to improve cereal yields in high aluminum and low phosphorus soils.

The GCP acted as an international umbrella organization, distributing grants to fund research across different types of organizations (CG centers, universities and National Programs), either as commissioned projects or competitive funding calls. The aim was to bridge the gap between upstream research and applied crop science, enabling the development of markers and tools that could be of direct benefit to breeders and farmers in developing nations.

Ribault described one of the success stories of the GCP that highlighted the power of international collaborations working together on a problem to benefit people around the world. A team at Cornell University, working alongside Brazilian scientists, won a competitive grant to investigate aluminum (Al) tolerance in sorghum. They discovered a major gene responsible for Al tolerance by growing different accessions of sorghum in hydroponic systems, and began to breed tolerance into Brazilian sorghum cultivars through a commissioned project. The Brazilian team, with the support of scientists from Cornell, took on leadership to transfer these Al tolerant alleles to Africa, where they were also used to improve germplasm for Kenya and Niger.

An ongoing legacy of knowledge

The research funded by the GCP yielded many major research outputs, including a huge variety of genetic and genomic resources, improved germplasm and new bioinformatic tools to aid data management, diversity studies and breeding.

One of the most important parts of the GCP program was its support service component, a key part of which was the development of the Integrated Breeding Platform (IBP), an amazing resource for crop breeders. The IBP was designed as a way to disseminate knowledge and technology, giving breeders in developing countries access to the latest modern plant breeding tools and services in a practical manner.

The IBP’s core product, the Breeding Management System (BMS), allows breeders to manage their breeding program, including lists of crop genetic stocks as well as pedigree and germplasm information and field designs. It provides functionality for electronic phenotypic data capture and statistical analysis, access to molecular markers, breeding design and decision-support tools, and more. Through the Platform, users can also access climate data, geographic information system (GIS) information, genotyping services at concessionary prices, training opportunities and other relevant breeding support services.

A legacy of the GCP, the IBP lives on for further development and deployment, thanks to a grant from the Bill and Melinda Gates Foundation (phase II, 2014–2019). Ribault hinted that dissemination of the platform will be more difficult than its development; indeed it can be challenging to change a person’s behavior and work practices, even if breeders see the benefits of using the IBP!

The keys to success

Throughout his talk, Ribault described how the partnerships formed by and within the GCP were an important foundation to the success of the program. These dynamic networks were based on trust and on an evolution of responsibilities, and many of the partners have continued to work together after the GCP ended in 2014.

Working on projects around the world was not always easy, Ribault explained, but it meant that the results arising from the research were directly relevant to the agricultural practices in those countries, and therefore more likely to be used.

Photo credit: IB-MYC Students – Ramzi Belkhodja/IAMZ

One of the most innovative approaches of the GCP was to dedicate around 15–20% of its budget each year to capacity development, which included holding workshops and training sessions, as well as funding studentships and fellowships to ensure future sustainability of the research projects. One novel practice was to run multi-year breeding courses, where participants were expected to bring along the outputs of their research each year. Anti-bottleneck funding was used to alleviate the problems that people were facing by providing much-needed resources or access to technology; Ribault highlighted this as one of the most important drivers of GCP’s success.

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If you’d like to read more about the Generation Challenge Programme, please visit the GCP website.

If you’d like to read more about the Integrated Breeding Platform, please visit the IBP website.

Dec 11

Making Plant Genomics Front Page News with an Emblematic Genome Project: The Bauhinia Flower

By Isabel | Blog, Future Directions

Bahunia is the national flower of Hong Kong, GigaScience is launching a crowdfunding campaign to learn more about the biological and genetic history of this flower.

By Scott Edmunds, Executive Editor, GigaScience Journal

‘Big Data’ is becoming increasingly ubiquitous in our lives, and we at GigaScience are big fans of approaches democratizing its utility through crowdfunding and crowdsourcing. With much mistrust and fear of genetic technologies there is also a huge need to educate and throw light on “what goes on under the hood” during the process of genomic sequencing and research.

After helping promote community genome and microbiome projects such as the Puerto Rican “peoples parrot”, Azolla Genome, Kittybiome, and the community cactus (previously highlighted in the Global Plant Council Blog), the team at GigaScience has finally decided to launch our own.

Inspired by our Hong Kong home, this month we’ve launched an exciting new crowdfunding project to help learn about the enigmatic biological and genetic history of the beautiful symbol of Hong Kong: the Bauhinia flower.

Hong Kong’s emblem is the beautiful flower of the Hong Kong Orchid Tree Bauhinia x blakeana: it is mysterious in origin, and lovely along the roadside and in any garden. Being used as a food crop in India and Nepal, Bauhinias are actually a legume rather than an orchid, and while a transcriptome has been sequenced as part of the 1KP project (Bauhinia tomentosa) no species of the genus has yet had its genome sequenced.

A Brief History of Bauhinia blakeana

It was first discovered in the 1880’s by the famous horticulturist Father Jean-Marie Delavey

The Bahunia flower is the symbol of Hong Kong

growing on a remote mountainside in Hong Kong, but how it got there is a mystery – especially since it is sterile. The missionary collector subsequently propagated it in the grounds of the nearby Pokfulam Sanatorium, and from there it was introduced to the Hong Kong Botanic Gardens and across the world. Originally described as a new species in 1908, it was subsequently named after the Hong Kong governor Sir Henry Blake, who had a strong interest in botany. We have an opportunity to get a glimpse into this fascinating history by carrying out a crowdfunding project to determine its entire genetic make up.

In addition, it’s a project we are trying to get everyone involved in: from gardeners to botanists, historians to photographers, university researchers to school children – really, anyone interested in being a part of Hong Kong’s First Emblematic Genome Project and understanding the biological secrets of this unique flower.

Plant Genomics for the Masses

Teaming up with BGI Hong Kong and scientists at the Chinese University of Hong Kong, this new crowdfunding project will use one of the best techniques to help uncover the secrets of any living being: genomic sequencing. While the cost of sequencing has crashed a million fold since the human genome project, plant genomes are still challenging. While Bauhinia have a relatively small genome (0.6C), being a hybrid means it will be very challenging to assemble using current short-read technologies. To get around this we are having to sequence the two likely parents first, pushing the reagent costs that we need to cover through crowdfunding up to about $10,000. Studies using individual genetic markers have shown that the species is likely a hybrid of two local species, Bauhinia variegata and Bauhinia purpurea, but this has yet to be confirmed at a genomic scale.

Genome sequencing is also one of the key technologies defining the 21st century, and a field in which Hong Kong has made major advances (for example in BGI Hong Kong’s giant sequencing capacity, as well circulating DNA diagnostics), though more effort is needed to engage and inform the general public.

Through sequencing the genome of our emblem to better understand where it came from; this will help to train local students to assemble and analyze the data – crucial skills needed for this field to advance; and engage and educate the public through local pride. Outreach and awareness-building is key, and we have already managed to get plant genomics and Bauhinia onto the front cover of the SCMP Sunday Magazine and on Hong Kong radio.

You can also access the YouKu version of the above video here.

Get involved!

The project seeks a variety of things from the community: at its most basic level, help in the form of donations can be provided at the project’s website. As a community project no contribution is too small, so please contribute via the crowdfunding page.

Furthermore, we’ll be carrying out community engagement and citizen science in the form of Bauhinia Watch, where people in the community can inform researchers about sightings of the flower and its relatives, and look for the hypothesized very rare individual plants that may produce seeds. Photographs along with location information are especially desired, and can be shared with the global community on social media (use the #BauhiniaWatch hashtag).

Also, getting involved in educating the community is key. The project’s website, in addition to explaining the science behind the project, provides information for identifying the different Bauhinia species, which can be fun for curiosity driven individuals of any age. Now is the time! Bauhinia blakeana is in peak flowering season in Hong Kong from November to March.

Moreover, this is a great opportunity for creating school projects, to learn about botany, evolution, the latest scientific technologies, and to participate in the research or carry out fundraising to join the Bauhinia community.

This will be the first Hong Kong genome project: funded by the public; sequenced in Hong Kong; assembled and analyzed by local students; and directly shared with the community.

Being Open Data advocates, all data produced will immediately be shared with our GigaDB platform, and all methods, analyses and teaching materials will be captured and made open to empower others to carry out similar efforts around the world.

Bauhinia Genome welcomes contributions and interest from across the globe, hoping this serves as a model to inspire and inform other national genome projects, and aid the development of crucial genomic literacy and skills across the globe; inspiring and training a new generation of scientists to use these tools to tackle the biggest threats to mankind: climate change, disease and food security. We have already collected enough money to fund the transcriptome, and the next goal is to get enough funds to start sequencing the genomes of the family members. To enable us to do this support us through our crowdfunding site, like us on Facebook or twitter, and help spread the word.

For more information and to support the project visit the website and crowdfunding page. follow us on Twitter @BauhiniaGenome, or on Facebook, and include the hashtag #BauhiniaWatch for any news or pictures you’d like to share on social media.

Dec 04

GPC/SEB Stress Resilience Symposium: online tools for stress resilience research

By Isabel | Blog, GPC Community, Scientific Meetings

Lisa Martin reports on the GPC’s recent Stress Resilience Symposium and Discussion Forum in Brazil, and highlights some of the brilliant online tools that are available to scientists working in this area.

It’s a strange thing to be packing for 38ºC weather while the temperature at home in England steadily plummets towards 0ºC. Nevertheless, leaving a cold and rainy London behind, Team GPC took to the skies on 21^st October and touched down in tropical Foz do Iguaçu, a resort town on the Brazil/Argentina/Paraguay border.

Iguaçu is best known for its spectacular UNESCO World Heritage waterfalls, but we – that is myself, Executive Director Ruth Bastow, and our two New Media Fellows Amelia and Sarah – were in town for three different reasons. As well as attending the International Plant Molecular Biology conference, followed by the GPC’s Annual General Meeting, we were also running a Stress Resilience Symposium in collaboration with the Society for Experimental Biology (SEB), on 23^rd and 24^th October.

The intention of this Symposium was to bring together experts from around the world to discuss current research efforts in developing plant stress resilience, to showcase new approaches and technologies, and build new networks and collaborations. Our goal is to help contribute to global efforts to develop crops and cropping systems that are better able to deal with fluctuating and stressful environmental conditions.

Food Security Challenges

After a welcome from the new GPC President Professor Bill Davies (Lancaster University, UK), the Symposium got started with a session focused on how scientists are helping to overcome existing and emerging barriers to food security.

Speakers included Matthew Reynolds, who gave an overview of the crops and climate change research at CIMMYT in Mexico; Lancaster’s Martin Parry, who described his group’s work to translate findings in Arabidopsis to capture more carbon and improve the water and nutrient use efficiency of crops; and Bob Sharp from the University of Missouri (USA), who spoke about trying to understand root responses to drought.

As well as hearing from Matthew Gilliham (University of Adelaide, Australia), and Sarah Harvey (University of Warwick, UK), Jean-Marcel Ribault from CGIAR in Mexico described the collaborative approach to developing food crops, with stress resilience in mind, being taken by partners involved in the Generation Challenge Program (GCP, not to be confused with GPC!).

The ultimate aim of this program, Jean-Marcel said, is to improve the germplasm in farmers’ fields, focusing on research on six staple crops, the integration of data management, and building capacity for the future.

To help with the ‘integration of data management’ arm of the project, the GCP consortium has developed the Integrated Breeding Platform (IBP). As well as providing access to many different germplasm resources and diagnostic markers, central to the IBP’s offering is the Breeding Management System, “a suite of interconnected software specifically designed to help breeders manage their day-to-day activities through all phases of their breeding programs. From straightforward phenotyping to complex genotyping, it provides all the tools you need to conduct modern breeding in one comprehensive package”.

iplant_logo The IBP is hosted on the cyberinfrastructure provided by the iPlant Collaborative, which, in case you’ve never heard of it, provides free and open access not only to high performance computing power via virtual machines, but also to a huge range of user-friendly, largely user-generated software for biological data analysis. Quick plug: you can find out more about it by reading this JXB paper I wrote with my former colleagues at the UK Arabidopsis research network GARNet…:-)

Improving stress tolerance in variable environments

The session after lunch took a closer look at some specific stress-related challenges. Drought tolerance was a popular topic, with Andrew Borrell of the University of Queensland (Australia), Vincent Vadez from ICRISAT, and INRA’s François Tardieu all presenting work in this area. Scott Chapman also provided some insights into the modeling work going on at Australia’s CSIRO, which is helping crop breeders to decide which traits to focus on to adapt to different sources of stress. He mentioned QuGene, a tool available via the Integrated Breeding Platform, which is simulation software to investigate the characteristics of genetic material undergoing repeated cycles of selection and molecular marking.

In presenting her work on understanding aluminium toxicity and tolerance in rice, Lyza Maron from Cornell University (USA) introduced us to the Rice Diversity Project, a collaborative effort to explore the genetic basis of variation in rice and its wild ancestors. The Rice Diversity Project website (www.ricediversity.org) hosts a large number of freely available data sets for different rice lines, and a number of tools developed during the project are also made freely available, including a genome browser, a genome subpopulation browser, a seed photo library viewer, and other pieces of analysis software that you can download.

Innovating for Stress Resilience

In the next session, we heard about some exciting projects being carried out across the globe that are advancing our understanding of stress resilience in plants. Chile’s Ariel Orellana gave a fascinating talk about mining the genome of Cystanthe longiscapa, a flowering plant native to the extremely barren and dry Atacama desert; Elizabete Carmo Silva from Lancaster University talked about high-throughput phenotyping in the field, China’s Xinguang Zhu demonstrated some quite stunning 3D models simulating cell structures, water and metabolite movement in the leaf; and potato root architecture was the theme of the presentation made by Awais Khan from the International Potato Center in Peru.

Speaking about the part her lab played in the PRESTA project, Warwick’s Katherine Denby showed us some of the complex, intricate transcriptional network models used to predict, test and reveal interactions between genes involved in Arabidopsis’ defence against Botrytis cinerea. Source code for the WIGWAMS tool, which was specially created to help analyse multiple gene expression time series data, is available here.

Short poster talks

At the end of a fascinating day of fantastic science, we heard some short talks from up and coming researchers whose posters had been selected for an oral presentation: make sure to look up the awesome work of rising stars Elizabeth Neilson from the University of Copenhagen, Nicolas Franck from Universidad de Chile, Cristina Barrero-Sicilia from Rothamsted, and our very own Amelia Frizell-Armitage from the John Innes Centre!

Day 2 – the discussion forum

But the Stress Resilience Symposium didn’t end there… The next day a smaller group of invited experts returned to the meeting venue for some in depth discussion and debate. The aim of the day was to prepare the ground for a forthcoming GPC report, which will highlight the specific challenges facing plant science in terms of developing stress resilient crops and cropping systems, and outline some potential solutions that the plant science community – and those beyond it – can initiate to meet these challenges.

After hearing some presentations about successful large-scale, international projects such as DROPS, IDuWUE, IWYP and others, attendees split off into breakout groups to discuss what they felt to be the key challenges facing stress resilience research today, and the areas in which plant scientists around the world need to come together to mitigate these challenges. Unsurprisingly, this session was lively and animated, with several differences of opinion, but each thought was a valuable and useful contribution to the assessment of the global landscape. Participants talked about the current regulatory climate, particularly surrounding GM and gene edited crops; the need for silos of knowledge to be linked and shared, and for effective technology transfer to make sure that the science we do in the lab has impact in the field – and in the fields where that science is most needed.

After a long but fruitful two days of great science, effective knowledge and ideas sharing, the Stress Resilience Symposium ended with a team photo and further opportunities for “networking” by the hotel pool (or for the Australian participants among us, the Argentina vs. Australia Rugby World Cup Semi Final!). The GPC is now compiling an official report, based on the discussions at the meeting, which we hope will provide a powerful and realistic call to action for stress resilience scientists across the globe to come together. Watch this space!

Thanks to Oliver Kingham and Paul Hutchinson from the SEB, Professors Vicky Buchanan-Wollaston and Jim Beynon from the University of Warwick, Professor Bill Davies from Lancaster University and Andrew Borrell from the University of Queensland for their help in making this symposium possible.

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