Poster prizes at ‘Defining and defeating metastasis’ – meet the winners!

We are excited to present the poster prizes awarded at the recent EMBO | EMBL Symposium  ‘Defining and defeating metastasis’,  hosted at the Advanced Training Centre in Heidelberg and bringing together researchers from diverse fields to enhance our understanding of the dissemination and metastatic colonisation of tumour cells. It provided a unique opportunity for interdisciplinary exchange on current approaches and future collaborations on metastasis and its therapeutic challenges. As with most events this year, for many participants this was the first onsite meeting that they attended since early 2020 which made it very special. It was a fantastic opportunity to meet in person for the three days full of exciting science, exchanging ideas, presenting latest research, catching up with old friends and making new ones. There were two live poster sessions during which the presenters could discuss their research– their work was then voted for by other attendees and speakers. We are pleased to be able to share with you the research from four out of six winners of the conference prizes: congratulations to all!

Jagged-1 promotes breast cancer metastasis through the lymphatic system

Presenter: Benjamin Gordon

Benjamin Gordon – University of Illinois at Chicago College of Medicine, USA
Abstract

While early detection of breast cancer (BC) has improved prognoses, there is an urgent need to improve outcomes for patients with distant metastatic disease. Higher expression of the Notch ligand JAG1 in primary BC tumors is strongly associated with lymph node metastasis and patient mortality, but causality is unclear. We show that JAG1 expression is higher in metastatic BC cells colonizing lymph nodes than in primary tumors, suggesting that tumor cells with high JAG1 are preferentially able to metastasize to lymph nodes. JAG1 expression is higher in a derivative of BC line MDA MB 231 selected for tropism to lymph nodes (MDA231 LN) than in the parental line or derivatives with other tropisms. To determine the mechanism(s) of JAG1 mediated metastasis, we generated clonal JAG1 knockout cell lines from MDA231 LN cells with corresponding JAG1 rescue lines. We investigated the role of JAG1 in spontaneous metastasis under clinically relevant conditions by orthotopically implanting JAG1 knockout and expressing cells, resecting the primary tumor, and following long term metastatic spread in a mouse model. Quantification of tumor cells in blood showed that survival, metastatic burden, and JAG1 expression did not correlate with the number of circulating tumor cells. Conversely, JAG1 expression drove an increase in lymph node and body wide metastatic burden and a trend toward decreased survival. In this model, metastatic cells were abundant throughout lymph vessels, suggesting lymphatics are the primarily route of dissemination. Preliminary transcriptional analysis suggests that JAG1 alters interactions with lymphatic endothelial cells (LEC), leading us to examine downstream events in co cultures of LEC with lymphatically invasive BC lines. Deciphering tumor lymphatic endothelial signaling events may open new avenues to target BC metastasis.

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Poster Prize from the EMBO Journal

Biphasic contribution of platelets to metastasis

Presenter: María J. García-León

Maria J. Garcia-Leon – INSERM UMR_S1109, Tumor Biomechanics, Université de Strasbourg, France
Abstract

Metastasis still remains elusive to treatment, with an overwhelming mortality rate of 90%. Accumulating evidence indicates that metastatic potential of circulating tumor cells (CTCs) can be tuned by intravascular components, including platelets. Platelet depletion impairs metastasis, which can be rescued upon platelet transfusion. Mechanistically, CTCs rapidly bind, activate and aggregate platelets, events that are crucial for the arrest, survival, and extravasation of the former. The current dogma states that platelets tune metastasis by impacting CTCs behaviour at early stages of metastatic seeding. However, whether platelets can regulate metastasis at later stage and which receptors may be involved remains unknown. In this study, we first documented the efficiency of platelet binding to a large panel of metastatic TCs and observed that not all recruit or aggregate platelets with the same efficiency. Interestingly, such binding impacts their intravascular fate by favoring their arrest, as observed in a combination of experimental metastasis models in thrombocytopenic (TCP) mice and zebrafish embryo. Using longitudinal imaging of metastatic seeding and growth in TCP mice at unprecedented spatial and temporal resolution, we demonstrated that binding and aggregation correlates with their metastatic potential in vivo. Additionally, by the dynamic in vivo tracking of TCs in the lungs of fully TCP mice, and the quantification of platelets depositions around arrested CTCs at seeding and late metastatic outgrowth, we showed that early platelet binding, aggregation, clot formation, and the subsequent increased adhesion and survival at lung microvessels, are capital but not exclusive factors increasing TC metastatic fitness. We observed that platelets contribute to late steps of metastatic outgrowth by experimentally interfering with platelet counts in animals already carrying metastatic foci. Doing so, we observed that platelets tune the growth of established foci, independently of their early intravascular interaction with CTCs. Finally, we have identified the platelet collagen receptor GPVI as key in this late modulation of metastatic outgrowth, suggesting its targeting in specific cancer types as a promising adjuvant therapy in oncologic patients to stop the metastatic progression.

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Poster Prize from EMBO Molecular Medicine

Colonic fibroblasts in tissue homeostasis and cancer

Presenter: Michael Brügger

Michael Brügger – University of Zürich, Switzerland
Abstract

Colorectal cancer (CRC) is among the most prevalent cancers in Switzerland (2nd in women 3rd in men, BFS statistics 2013 2017) and worldwide (3rd in women and men). More than half of the patients diagnosed with CRC either harbour metastases or will develop metastatic disease, which is the primary cause of death for CRC patients. There is therefore a dire need for new therapies. These must be guided by a better understanding of the metastatic process. We are only now starting to appreciate the contribution of not only tumour cells themselves, but also the non tumour stromal cells of the tumour microenvironment (TME) to tumour growth, progression and metastasis. To understand how non tumour stromal cells are changed in CRC it is integral to first characterize their identity and functions during colonic homeostasis.
To describe the stromal cell populations in an unbiased manner, we carried out a single cell transcriptome analysis of the adult murine colon, producing a high quality atlas of matched colonic epithelium and mesenchyme. We identify two crypt associated colonic fibroblast populations that are demarcated by different strengths of platelet derived growth factor receptor A (Pdgfra) expression. Crypt bottom fibroblasts (CBFs), close to the intestinal stem cells, express low levels of Pdgfra and secrete canonical Wnt ligands, Wnt potentiators, and bone morphogenetic protein (Bmp) inhibitors. Crypt top fibroblasts (CTFs) exhibit high Pdgfra levels and secrete noncanonical Wnts and Bmp ligands. While the Pdgfralow cells maintain intestinal stem cell proliferation, the Pdgfrahigh cells induce differentiation of the epithelial cells. Notably, these cell populations are conserved in the human colon.
Recently, we established a murine model of metastatic colorectal cancer, based on the orthotopic endoscopy guided injection of cancer organoids (colonic organoids harbouring mutations in APC, Kras, Tp53 and Smad4). In this context we study how the abovementioned fibroblast populations are affected by the primary tumour and how they in turn affect tumour progression.

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Single cell transcriptomic profiling of brain metastatic founders in small cell lung cancer patient derived models to identify potential vulnerabilities

Presenter: Maria Peiris-Pagès

Maria Peiris Pages – Cancer Research UK Manchester Institute, UK
Abstract

Background: Brain metastasis is a major cause of patient morbidity and mortality in small cell lung cancer (SCLC) with an ~80% incidence during disease progression, contributing to the dismal 5 year survival rate of <7%. Mechanisms underpinning SCLC brain metastasis are understudied due to scarcity of brain biopsies and preclinical models. We have developed a biobank of >60 circulating tumour cell (CTC) derived patient explant models of SCLC in immunodeficient mice (CDX) where brain metastasis is routinely observed upon resection of the subcutaneous (S.C) tumour
Methods: We developed an in vivo S.C tumour resection workflow in brain tropic CDX3P to isolate single CTCs, early brain founder tumour cells and subsequent established brain metastases. Following FACS of CDX cells from dissociated mouse brain (using a human CD147 antibody) we performed single cell RNA sequencing (scRNAseq) to reveal potential molecular regulators hypothesised to support brain metastatic founding and subsequent colonisation
Results: Brain metastases were detectable in CDX3P on average 195 days after S.C implantation (study length 174 230 days). We analysed 58 single CTCs (n=6 mice, 191 230 days) and 214 brain metastatic founder cells (n=2 mice, 205 218 days) by scRNAseq. Bioinformatics analyses defined transcriptomic features underpinning single cell heterogeneity and identified sub populations within CTCs and metastatic founders indicative of brain tropic CTC sub clones. We also characterised molecular features unique to brain founders as candidates that could serve as therapy targets
Future Tissue expression of candidate genes of brain metastatic founding will be validated in CDX and patient samples. Genetic manipulation of CDX cells ex vivo combined with pharmacological approaches will be used to explore their roles in metastatic seeding and to identify potential vulnerabilities. Transcriptomic analysis of cells from established brain metastases obtained from the above in vivo protocol will be conducted to explore molecular programs of brain colonisation. Combined, these data will contribute to our long term goal of identifying novel therapeutic strategies that may ultimately improve the quality of life for the significant number of patients with SCLC who present with or subsequently develop brain lesions.

Due to the confidentiality of the unpublished data, we cannot share the poster.

Effective treatment of colorectal peritoneal metastases by exploiting a molecular subtype specific vulnerability

Presenter: Sanne Bootsma

Sanne Bootsma, Amsterdam UMC, The Netherlands
Abstract

In colorectal cancer, peritoneal metastases (PMs) associate with severe morbidity and dismal prognosis. Given the incidence of this disease and the lack of adequate treatments currently available, PMs pose a large unmet clinical need. Although PMs can be accompanied by more widespread metastatic disease, it often occurs as the only sign of dissemination. This implies that the route of metastatic spread to the peritoneum differs from that to distant organs. PMs are thought to result from cancer cells that spill into the abdominal cavity, and are able to attach to the peritoneal lining and form tumor deposits. This cascade places specific demands on the cancer cells.
Here, we report that colorectal cancers that present with PMs almost universally classify as consensus molecular subtype 4 (CMS4). This previously recognized disease entity is characterized by mesenchymal features, poor prognosis, and resistance to therapies currently used against peritoneal metastases, which explains their limited efficacy. By leveraging disease models that capture CMS4 specific features, including the ability to form PMs in vivo, we identified elesclomol as a highly effective agent. Elesclomol kills cancer cells in a copper dependent fashion by targeting the oxidative phosphorylation machinery, which we found to be a specific vulnerability of CMS4 cancers. Elesclomol Cu2+ was effective following only minutes of exposure to CMS4 cell lines and organoids, supporting its use in intra abdominal treatment procedures. It is therefore a promising candidate for the local treatment of peritoneal metastases of colorectal cancer.

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Poster Prize from Metastasis Research Society

 

The remaining prize was:

Short talk Prize from Metastasis Research Society: Eric Rahrmann – University of Cambridge, UK

 

Congratulations to all six winners!

The EMBO | EMBL Symposium ‘Defining and defeating metastasis’ took place from 19 – 22 June 2022 at EMBL Heidelberg and was streamed online for virtual participants.

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Best Poster Awards – EMBO|EMBL Symposium: Organoids 2020

The recent virtual EMBO|EMBL Symposium on Organ Development and Disease in 3D Culture saw the highest number of registrations we have had since we launched the format. A total of 880 researchers from around the world got together online to discuss recent developments in the formation and maintenance of organoids and their use in disease studies and regenerative medicine.

Out of the 200 digital posters that were presented at the three poster sessions, four were distinguished with a poster prize by a committee appointed by the scientific organisers. Here are the winners:

Organoids model transcriptional hallmarks of oncogenic KRAS activation in lung epithelial progenitor cells

PHOTO: Antonella Dost

Authors: Aaron Moye (1), Antonella Dost (1), Marall Vedaie (2), Linh Tran (5), Eileen Fung (5), Dar Heinze (2), Carlos Villacorta-Martin (2), Jessie Huang (2), Ryan Hekman (2), Julian Kwan Kwan (2), Benjamin Blum (2), Sharon Louie (1), Sam Rowbotham (1), Julio Sainz de Aja (1), Mary Piper (4), Preetida Bhetariya (4), Roderick Bronson (3), Andrew Emili (2), Gustavo Mostoslavsky (2), Gregory Fishbein (5), William Wallace (5), Kostyantyn Krysan (5), Steven Dubinett (5), Jane Yanagawa (5), Darrell Kotton (2), Carla Kim (1)

Presenter: Antonella Dost (1)

Mutant KRAS is the most common oncogenic driver of epithelial cancers. Nevertheless, the molecular changes induced by KRAS activation in primary epithelial cells beyond activation of proliferation remain elusive. Here, we determined transcriptional changes at single-cell resolution after KRAS activation in distal lung epithelial cell populations. We developed a new in vitro organoid system to define the early oncogenic KRAS transcriptional program and model early-stage lung adenocarcinoma (LUAD) using primary murine lung cells. Alveolar epithelial progenitor (AT2) cells expressing oncogenic KRAS lost their mature identity and acquired a transcriptional program similar to lung development and progenitor cells. Similar changes were observed in an early-stage LUAD mouse model, in human induced pluripotent stem cell derived AT2 cells, and in stage I lung cancer patient samples, validating our organoid model. While these events have been observed in advanced lung cancers in mice and humans, we show that KRAS induced dedifferentiation occurs in early-stage lung cancer. This work provides a new organoid tool to rapidly recapitulate lung cancer progression in vitro and a window into the transcriptional changes that immediately follow oncogenic KRAS expression in epithelial cells, revealing candidate targets for early intervention of KRAS-driven lung cancer.

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View related paper

(1) Boston Children’s Hospital, United States of America
(2) Boston University, United States of America
(3) Harvard Medical School, United States of America
(4) Harvard T. C. Chan School of Public Health, United States of America
(5) University of California Los Angeles, United States of America


Using human pluripotent stem cell-derived organoids to investigate regional-specific features of the small intestine

PHOTO: Guillermo Sanchez

Authors: J Guillermo Sanchez, Heather McCauley, Jacob Enriquez, James Wells, Cincinnati Children’s Hospital, United States of America

Presenter: J Guillermo Sanchez

The gastrointestinal tract is the largest endocrine organ in the body. Specialised nutrient sensing cells, called enteroendocrine cells, are embedded in the intestinal epithelium and secrete over 20 hormones that regulate processes such as satiety, gut motility and gastric emptying. Directed differentiation of human pluripotent stem cells into human intestinal organoids has been used to study and mimic intestinal development; however, most of these models generate intestinal tissue which resembles duodenum and proximal jejunum (Spence, et al 2011). The intestine displays distinct regional functions along the proximal-distal axis, with the ileum being important for unique enteroendocrine hormone secretion, bile acid resorption and interactions with the microbiome. It is known that major signaling pathways such as Wnt, FGF and BMP can affect the regional identity of the developing GI tract. Consistent with previous studies (Munera, Tsai) we found that manipulation of the exposure time of intestinal spheroids to these signaling pathways generated distal intestinal tissue by expression of epithelial markers, nutrient transporters, and hormone expression. These distally-patterned human intestinal organoids retain their regional identity after transplantation in vivo, and can be used to generate epithelial-only enteroid cultures. It remains unknown how diverse cellular types and functions are established along the proximal-distal axis of the small intestine. This model enables us to compare the early transcriptional changes involved in conferring regional-specific features, including enteroendocrine cell allocation, to the GI tract.

Poster currently not available


Recapitulating the somitogenesis in vitro to identify novel causative genes for congenital bone diseases

PHOTO: Marina Matsumiya

Authors: Marina Matsumiya (1), Mitsuhiro Matsuda (1), Nao Otomo (2), Yoshiro Yonezawa (2), Shiro Ikegawa (2), Miki Ebisuya (1)

Presenter: Marina Matsumiya

Somites are periodically formed though the segmentation of anterior parts of presomitic mesoderm (PSM) in embryos. This periodicity is controlled by the segmentation clock gene Hes7, which exhibits a wave-like oscillatory expression in the PSM. The periodical somite formation is a crucial event for body segment formation and abnormal somitogenesis leads to congenital bone diseases.

Spondylocostal dysostosis (SCD) is a bone malformation disease which is characterised by morphological abnormalities of vertebrae and ribs. Mutations in several somitogenesis-related genes, including HES7, are already known as the cause of SCD. As for 75% of SCD patients, however, the causative gene and at what stage of bone development the abnormality occurs are still unclear.

Thus, the aim of this study is to establish a method to recapitulate the somitogenesis in vitro and to identify novel a causative gene of SCD.

To recapitulate the somitogenesis in vitro, we previously reported a simple and efficient method to generate mouse embryonic stem (ES) cell-derived PSM-like tissues (Matsumiya et al., Development, 2018). In these tissues, Hes7 oscillation was synchronized among neighboring cells, the anterior-posterior axis was self-organised, and somite-like structures were observed. We are currently developing a similar method to recapitulate the human somitogenesis by using human induced pluripotent stem (iPS) cells instead mouse ES cells. Furthermore, by using human iPS cell lines that lack the candidate gene of SCD for the in vitro somitogenesis, we are trying to identify a novel causative gene of SCD.

Poster currently not available

(1) EMBL Barcelona, Spain
(2) RIKEN Center for Integrative Medical Sciences, Japan


Heme oxygenase 1 upregulation is induced by stress via alpha-synuclein aggregation in transgenic mice and in Parkinson’s disease derived brain organoids

PHOTO: Silke Frahm-Barske

Authors: Silke Frahm-Barske (2), Sebastian Diecke (2), Franz Theuring (1)

Presenter: Silke Frahm-Barske

Excessive accumulation of alpha-synuclein (a-syn) predisposes to the development of Parkinson’s disease (PD), a disorder characterised by neurodegeneration in the substantia nigra and concomitant motor impairments. It was previously shown that stress-induced release of glucocorticoids accelerates the progression of PD and that the glucocorticoid receptor (GR) is downregulated in several neurodegenerative as well as in stress-related diseases. The impact of altered a-syn protein levels on GR dysfunction and stress-related protein expression is largely unexplored, but may have severe implications for PD manifestation and disease progression. Therefore, we examined the effect of chronic stress in two models overexpressing human a-syn: a transgenic mouse model (h-a-synL62) and brain organoids derived from iPSCs of a PD patient. Wildtype mice that underwent daily restraint for 6 weeks presented typical chronic stress induced features, such as GR-deficiency and increased a-syn protein levels in prefrontal cortex and hippocampus. Importantly, these molecular alterations were reproduced in forebrain organoids generated from healthy donors after treatment with the synthetic glucocorticoid Dexamethasone for 2 weeks. In contrast, glucocorticoid exposure had no effect on GR expression and normalised the level of a-syn in h-a-synL62 mice and PD brain organoids. Accordingly, heme oxygenase 1 (HO-1), an antioxidant protein that can be induced by soluble oligomers and protofibrils and that triggers proteosomal degradation of a-syn, was upregulated. Together, our work provides a new link between a-syn overexpression, GR-deficiency and oxidative stress and their contribution to the development and progression of PD. Further, we established and validated a human 3D tissue culture model that can be used to study stress related diseases, offering replacement of research animals exposed to disturbing procedures.

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(1) Charité – University Medicine Berlin, Germany
(2) Max-Delbrück-Center, Germany


Working on your own conference poster? Then check out these 8 tips for preparing a digital poster that stands out from the crowd.

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How to present a memorable flash talk in 12 easy steps

Flash talks are a great way to give an introduction to your work, and whet people’s appetite for your research.

Generally flash talks last for 1 to 2 minutes, and presenters are normally allowed one simple PowerPoint slide or, in the case of virtual events, a 1 – 2 minute pre-recorded video. But is it really possible to present something really memorable within such limitations?

Here are some things to take into account when preparing your flash talk to make sure the audience remembers you, and contacts you after the session to find out more. Because that’s the goal, right?

1. Keep it brief

You should definitely start by giving a very brief introduction that makes people understand why your work is interesting, and ends by saying how people can contact you afterwards. Of course you can say where you’re from and your affiliation, but the critical thing is to attract to people’s attention.

2. Cover the basics

Answer the following questions:

  • Why is it interesting?
  • What is it about?
  • How did you do it?
  • With whom did you carry out the work?

3. Connect with the audience

For live events be sure to always look at the audience – don’t lose eye contact. Keep scanning the room for the duration of your talk, and definitely do not turn your back to them. In the case of a pre-recorded video, treat your camera like an audience and talk directly to it.

 4. Leave the audience asking for more

Try to build up the anticipation and attention of the people who are listening and watching– put out something you’ve investigated but don’t tell them the whole story. You want to leave them hanging and intrigued enough to want to find out more.

5. Be dynamic

Your flash talk is going to be short so your audience will generally be paying attention to you. Build up to something where you clearly emphasise one or two points. These are the sort of things that are going to bring their attention to the most important parts. Be enthusiastic – if you show that you’re really into your science people will come along and want to know more.

6. Don’t be afraid to use visual tools

If it’s relevant, there is no problem with using props in your flash talk. Alternatively, make your talk visually memorable by using dynamic diagrams, graphics and images. Videos will normally not be possible for live flash talks, so don’t rely on these.

7. Avoid special effects

It is possible to make something visually memorable without going overboard on big special effects such as PowerPoint animations. If your science is good it doesn’t need any fireworks.

8. Do the unexpected

If it fits with your character, you can try to make people laugh. Doing something that the audience is not expecting can be very effective. We’ve seen everything from interpretive dance to a guitar-accompanied talk – anything is possible! Just make sure it matches to who you are so that it appears natural.

9. Include your poster number

Definitely, definitely, definitely include your poster number during your flash talk! It will make it much easier for people to come and find you later on at the poster session.

10. Be a slide minimalist

As already mentioned, diagrams, graphs and images are great when you have only 1 or 2 slides at your disposal. Make sure though that there is a minimum of information on your slides to try to bring people into the main message – focus on the thing that you want them to remember.

11. Practise!

Like all talks, you need to practise beforehand! Even if you want to bring across that you’re relaxed and everything is quite informal there is no way around it – you’ve got to practise to be prepared.

12. Stick to the time limit

With a flash talk this is so important – the time limitations are extremely strict, and you will be moved off the stage when your time is up, or your video won’t be uploaded to a virtual event platform. So make sure you have condensed everything into the time provided, and don’t go over or you may be stopped mid-sentence!

Check out these examples of great flash talk slides!
Single-slide flash talk by Fariha Akter
Multi-slide flash talk by Pablo Gonzalez-Suarez

Original video with Dr. Cornelius Gross, EMBL Rome, and Dr. Francesca Peri, University of Zurich

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A sneak peek into the upcoming training programme

It’s safe to say that 2020 has been – and continues to be – a strange year! We have all been forced to adapt the way we live and think, and at EMBL it is no different.

Download our 2020 / 2021 poster!

Traditionally we would now be presenting a sneak peek of our 2021 training programme. However, since we have had to make a range of changes to adapt our programme to the current circumstances, we are doing things a bit differently this year! Our new poster includes the updated 2020 events (virtual of course!), as well as the planned training courses and conferences for the first half of 2021.

We hope to welcome people onsite in 2021, but have back-up plans in place should this not be possible! Our EMBO | EMBL Symposia series continues, and we continue to offer a range of EMBL Conferences, EMBO Workshops, and Courses – both established and new.  Ever wondered what all these different event types are? Here’s an explanation!

Our online training offerings are more popular than ever, so you also have the option to learn at your own pace with our train online and webinars to make sure you stay up-to-date with the latest scientific techniques!

The complete 2021 EMBL Course and Conference Programme will be published in November – if all goes to plan!

If you’d like to keep up-to-date with the latest news from the EMBL Course and Conference Office, please sign up to our mailing list. You can also follow us on Twitter, Instagram, LinkedIn or Facebook.

Download our 2020 / 2021 poster here!
To see the full list of upcoming events, please visit our events website.

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10 tips to create a scientific poster people want to stop at

Are you attending a conference and presenting a poster, but not sure where to start? Here are 10 tips to help you transform a good poster into a great one!

(And make sure you check out our scientific poster templates at the bottom!)

  1. Make it gripping!
    The scientific poster needs to captivate your audience from the beginning. Make sure you focus on what your key message is and put that clearly in your title.
  1. Keep the title short
    The title is what will make people either read your abstract and visit your poster or not. Keep the title short and snappy to make sure it draws interest.
  1. Leave out unnecessary words
    Make sure you only use words that are really necessary. Try to minimise the text, however make sure you clearly and succinctly describe the main conclusions from your project and the take-home messages.
  1. Make good use of graphics
    Focus on the graphics – these are what will catch the eye and explain the data in a way that’s easy to comprehend. Make sure you use graphics that are easy to understand, and stick to a consistent, clean layout.
  1. Don’t try to cram everything on the poster
    The poster is not the place to publish your entire research results. It serves as a networking tool that should attract attention, and help you start up conversations with other scientists. Include only the important information on the poster – YOU are there to provide any other information!
  1. Outline your methods
    Use one graphic, for example, which outlines the design of the study and the methodology that you’ve utilised. Follow this with graphics that convey the scientific results.
  1. Have clear take-home messages
    The take-home messages need to be clearly visualised and clearly described for them to be understood by your listeners.
  1. Know what’s important
    Work out what is the most important information on your poster, and make sure it is visible / readable from a distance in order to draw people who are walking past.
  1. Tailor your poster presentation to your audience
    When you’re presenting your poster to a listener, make sure that you assess their expertise level so that you can tailor your delivery to the person that’s standing in front of you. You don’t want to give the same level of details to somebody who already knows a bit about the subject as somebody who is completely unaware of the research area you’re in.
  2. Don’t forget credits!
    Be sure to include all acknowledgements and collaborators, as well as your name and affiliation on the poster.

Still unsure? Here are some scientific poster templates to help get you started!

Scientific poster template – pdf
Scientific poster template – powerpoint

Original video with Prof. Lars Steinmetz, EMBL Senior Scientist and Director of the Life Science Alliance

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