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Applications for the 122nd Embryology Course at the MBL in Woods Whole, MA are due February 2nd.

Posted by , on 16 January 2015

We invite you to apply for admission to the longest-running course in the history of Embryology. An intensive six-week laboratory and lecture course for advanced graduate students, postdoctoral fellows, and more senior researchers who seek a broad and balanced view of the modern issues of developmental biology. Limited to 24 students.

The integrated lectures and laboratories provide a comprehensive coverage of the paradigms, problems, and technologies of modern developmental biology, cast within a framework of metazoan evolution. Students are exposed to a wide variety of embryonic systems, including intensively studied genetic model systems (e.g., C. elegans, Drosophila, zebrafish, mouse) and others with well-established experimental attributes ( e.g. chick, sea urchins, frogs, ascidians). In addition, students will be introduced to a wide range of emerging systems, including locally available marine organisms, that help fill in the evolutionary history of animal diversity (e.g., cnidarians, nemerteans, planaria, crustaceans, mollusks, and annelids) and that are becoming established as experimental systems in their own right.

  • Click on image to apply!

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The Node in York

Posted by , on 14 January 2015

In our first visit of the year will be to York, in the north of England! Our community manager Cat Vicente will be at the department of Biology this Friday (16th of January) to give two talks about careers in publishing and science communication:

– 10.30 a.m. – Coffee and Careers session, aimed at PhD students and postdocs

– 1 p.m.- careers talk aimed at undergraduate students

 

If you are based in York do get in touch. Our community manager will be around all day, and she is keen to meet Node readers and hear your thoughts about the site!

 

Node York

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Pan-American Society for Evolutionary Developmental Biology – Inaugural 2015 Meeting

Posted by , on 14 January 2015

We welcome you to join us for the inaugural meeting of the Pan-American Society for Evolutionary Developmental Biology, which will be held on the Clark Kerr Campus at the University of California Berkeley from August 5-9, 2015.  The meeting will feature an exciting lineup of 22 invited plenary speakers with an incredible diversity of approaches to understanding evolutionary developmental biology.   34 abstracts will be selected for talks to complement the plenaries, and we invite the remaining attendees to participate in what promises to be a highly stimulating poster session, for which we have allocated considerable time.

To find out more about the Society, please visit www.evodevopanam.org

To register, go to www.evodevopanam.org/meetings–events.html

Organizing Committee
Nipam H. Patel – University of California, Berkeley
Christopher Lowe – Hopkins Marine Station, Stanford University
Karen Sears – University of Illinois
Ehab Abouheif – McGill University

SEDB Meeting

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Want to attend Adult Neurogenesis 2015? Go as the official meeting reporter…

Posted by , on 12 January 2015

Adult Neurogenesis: Evolution, Regulation and Function
May 6-8, 2015 – Dresden, Germany

Website: http://www.abcam.com/AdultNeurogenesis2015

Dresden landscape 140x170 (website)

2015 is the 50th anniversary of Joseph Altman’s landmark discovery of adult neurogenesis. To celebrate, the fourth conference in Abcam’s Adult Neurogenesis meeting series this meeting will put the developmental process of adult neurogenesis and its regulation into the wider context of its functional and presumed evolutionary relevance. Hosted by the Center for Regenerative Therapies in Dresden, Germany on May 6-8, 2015, this conference offers opportunities for participants to hear the latest news and developments, present their work, take part in discussions and to network with colleagues from around the world.

 

Free registration for grabs!
Abcam and the Node are looking for an official meeting reporter to attend this meeting. The Reporter will be responsible for providing regular updates of interesting talks/discussions for social media posts (by Abcam), plus a meeting report of their experience and the sights and sounds of the meeting (for publishing on The Node and Abcam website).

To apply to be the meeting reporter, please send a short paragraph (max. 200 words) to events@abcam.com, letting let us know why you’re are the best scientist for the job! Application deadline: March 26, 2015. The winner will receive free registration to the meeting (travel and accommodation not included).

 

Meeting information:

Organizer:  Gerd Kempermann (Center for Regenerative Therapies TU Dresden, Germany)

Keynote speaker:  Fred Gage (Salk Institute, US)

Confirmed speakers:  Nora Abrous , Irmgard Amrein, Benedikt Berninger, Federico Calegari, Paul Frankland, Jonas Frisen, Wieland Huttner, Sebastian Jessberger, Caghan Kizil, Paul Manger, Ana Martin-Viallalba, Hannah Monyer, Hongjun Song

Call for abstracts:  Participants are invited to submit abstracts and a number these will be selected for short talk and poster presentations. Abstracts can be submitted during online registration.

Important dates:
•  February 9, 2015:   Early bird registration and oral abstract submission
•  March 26, 2015:  Standard registration and poster abstract submission

 

 

*9th April*

Congratulations to our meeting reporter competition winner!

GovindCongratulations to Nambirajan Govindarajan, winner of The Node/Abcam meeting reporter competition. Nambirajan has won free registration to Adult Neurogenesis: Evolution, Regulation and Function (May 6-8, 2015 in Dresden, Germany) and he will be posting, tweeting from the meeting as well as providing a full report after the meeting (available on the Node and Abcam website).

Nambirajan is a postdoctoral fellow at the German Center for Neurodegenerative Diseases (DZNE). Find out more about Nambirajan’s background and what he is most looking forward to at the meeting on the Abcam website.

To keep up with the what is happening and being discussed at the meeting by following Abcam on Facebook (link) and Twitter (link).

 

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Get involved with Young Embryologist Network!

Posted by , on 12 January 2015

Looking for a New Year’s resolution? Get involved with the Young Embryologist Network!

Last year, Young Embryologist Network (YEN) seminars took place at Oxford University, Cardiff University and institutions across London with the help of postgrads, postdocs and young PIs… just like you!

This year we want to keep growing! We plan to organise YEN seminars in various Universities and Institutions around the country in 2015.

Become a YEN representative along with others nationwide!

  • Promote the Network and annual meeting YEN:2015
  • Co-ordinate seminars at your institution
  • Blog on our website about seminars
  • Spread exciting embryology research across the country

Email youngembryologistnetwork@gmail.com for further information or visit www.youngembryologist.org to see what we are all about!

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International Neuroscience Doctoral Programme (INDP) at the Champalimaud Foundation in Lisbon – Portugal

Posted by , on 8 January 2015

Closing Date: 15 March 2021

FINAL-INDP2015-Golden

Applications from independent thinkers with curiosity, creativity and drive are sought to join the Champalimaud Foundation’s International Neuroscience Doctoral Programme (INDP). The INDP aims to provide students of diverse backgrounds with a foundation to perform innovative and interdisciplinary work in basic or applied neuroscience at an international level. The Programme is hosted at the Champalimaud Centre for the Unknown, in Lisbon, Portugal, a leading center for research, technology and clinical care.

Successful applicants will demonstrate the ability to tackle difficult intellectual challenges, to learn new skills and ways of thinking and to work passionately as part of a research team. Predoctoral training in quantitative disciplines (e.g. physics, mathematics, computer science), biological sciences (e.g. biology, medicine, bioengineering) or related fields is important. Previous research experience is also desirable but not required. Applicants should have a Masters degree and/or a 4+ year undergraduate degree, or will be obtaining their degree by no later than December 31st, 2015.

The INDP is associated to the Champalimaud Neuroscience Programme (CNP), comprising seventeen research groups with a focus on the neural circuits and systems underlying mind and behaviour. Before beginning research on a thesis project, admitted students will complete one semester of intensive courses and will be able to perform summer rotations in CNP laboratories. Courses are led by distinguished local and invited international scientists. The topics of instruction include cellular & synaptic physiology, development & neuroanatomy, sensory & motor systems, neuroethology or cognitive neuroscience. All courses have a practical component such as programming exercises, small projects, and experimental work in the INDP dedicated teaching laboratory. The overall format emphasizes participation, team-work and informal interaction in both classroom and laboratory.

The INDP is supported by funding from the Champalimaud Foundation and the Portuguese Science and Technology Foundation (Fundação para a Ciência e a Tecnologia, FCT). Full tuition and stipend to perform courses and thesis work will be ensured for successful applicants of all nationalities for a period of 4 years.

The application deadline is Feb 15th, 2015.

Applications should be submitted through this page.

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In Development this week (Vol. 142, Issue 2)

Posted by , on 6 January 2015

Here are the highlights from the new issue of Development:

 

The ‘second brain’: taking gut development up a Notch

FigureThe vertebrate gastro-intestinal (GI) tract consists of a regionalized epithelial tube surrounded by mesenchyme that later differentiates into smooth muscle. During the early stages of stomach patterning in chick embryos, the primitive GI track is colonized by vagal enteric neural crest cells (vENCCs), which will give rise to the enteric nervous system (ENS). The important role of the ENS in controlling GI function is well understood, but its contribution to the development of the GI tract has never been addressed. On p. 331, Sandrine Faure, Pascal de Santa Barbara and co-workers demonstrate that vENCC ablation impairs mesenchyme proliferation and differentiation. Moreover, reducing the number of vENCCs alters the molecular identity of both the mesenchyme and the epithelium, such that they express intestinal markers. Mechanistically, the authors show that these defects in stomach patterning and differentiation result from the ectopic activation of Notch and BMP4 signalling; the downregulation of both these pathways is necessary for proper stomach development. Altogether, this work reveals that vENCCs control stomach patterning and differentiation through the inhibition of Notch, shedding light onto the mechanisms that govern the contribution of the ENS to GI tract development.

 

Chickadee: building a nest for the germline

FigureThe apical region of the adult Drosophila testis harbours a stem cell niche that contains germ stem cells, which differentiate into spermatocytes, and somatic cells, which provide nutrients and regulate the proliferation and differentiation of the germline. During spermatogenesis, somatic cells encapsulate the germline cells, isolating them from the environment by providing a permeability barrier. Disruption of either encapsulation or permeability barrier function has catastrophic effects on spermatogenesis, resulting in sterility. Here, Guy Tanentzapf and co-workers investigate the genetic determinants of soma-germline interactions, specifically during germline encapsulation (p. 268). Using a novel permeability assay, they show that encapsulation and the creation of a permeability barrier are actually two separate processes. Furthermore, disrupting the function of chickadee, the Drosophila ortholog of Profilin, causes altered encapsulation and consequent failure of the permeability barrier formation. Lastly, the authors demonstrate that the permeability barrier, which needs functional junctional proteins, is required to restrict the range of niche-derived BMP signalling. In summary, this work identifies Chic as a key regulator of the two distinct phases of soma-germline interactions during early spermatogenesis.

 

A key role for Wnt-mediated laminin synthesis in fin morphogenesis

FigureLimb and fin morphogenesis start with the formation of the apical ectodermal ridge (AER), an epithelial signalling centre that coordinates appendage development. Wnt signalling is required for AER induction and several extracellular matrix (ECM) components are necessary for proper limb formation. Mahendra Sonawane and colleagues (p. 320) set out to explore the mechanisms regulating ECM synthesis and the role of Wnt signalling during appendage development – using the zebrafish median fin as a model. They observe that cell morphology in the distal part of the AER is distinct from the rest of the appendage epithelium, and that these differences in morphology correlate with a gradient of Wnt. Mechanistically, canonical Wnt signalling modulates cell shape with spatiotemporal precision by regulating the expression of the ECM component laminin α5, which signals via integrin α3 to influence cell morphology. Finally, the authors show that those mechanisms are conserved in the pectoral fin. This study uncovers a novel mechanism in which canonical Wnt signalling controls laminin synthesis to regulate epithelial cell shapes and tissue morphology during vertebrate appendage development.

 

Regulating progenitor pools in the lung

FigureThe secretory and multiciliated cells of the adult lung are constantly replenished by multipotent epithelial progenitors: the basal cells. Basal cells give rise to parabasal intermediate progenitors, which then terminally differentiate into ciliated or secretory cells. However, the specific molecular mechanisms governing the production of parabasal cells in the lung remain mysterious. Using genetic and pharmacological approaches in air-liquid interface cultures of adult airway progenitors, Wellington Cardoso and colleagues (p. 258) find that selective activation of Notch 3 identifies parabasal cells and controls the balance between basal and parabasal progenitor cells in airways. The authors show that Jagged 1 and 2 in basal cells are crucial for activation of Notch 3 signalling and for the generation of the pool of parabasal cells. Notably, individuals with chronic obstructive pulmonary disease were found to exhibit Notch 3 hypo-activation and an expanded basal progenitor pool. This work helps to unravel the precise molecular determinants regulating the airway progenitor pools, that are crucial for lung homeostasis.

 

PLUS…

 

Plant germline formation: common concepts and developmental flexibility in sexual and asexual reproduction

DEV229During the development of the plant reproductive lineages – the germlines – typically, single sporophytic (somatic) cells in the flower become committed to undergo meiosis.  Here, Grossniklaus and colleagues review recent studies examining the molecular mechanisms underlying cell specification and the acquisition of reproductive fate in sexual and asexual plant species. See the Review on p. 229

Establishing neural crest identity: a gene regulatory recipe

BronnerF1croppedThe neural crest is a cell population that contributes to a variety of derivatives, including sensory and autonomic ganglia, cartilage and bone of the face and pigment cells of the skin. Simões-Costa and Bronner examine neural crest development from a gene regulatory perspective and discuss how the underlying genetic circuitry results in the features that define this unique population. See the Review on p. 242

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Life’s Blueprint website

Posted by , on 5 January 2015

Dear Colleagues,

I recently published a popular book presenting the concepts of embryonic development (Life’s Blueprint: The science and art of embryo creation) at Yale University Press. In addition to the text, I tried to convey the concepts of embryonic development by presenting pairs of images, where one portrays a biological example and the other depicts a metaphor from the human world that conveys the paradigm through human interactions. The goal is to make the scientific concepts more accessible to the public through these analogies, to allow the viewers to echo their experiences, and become more active participants. Indeed, when this project was presented to diverse audiences including students, teachers, scientists or laypersons, it proved to be highly effective in engaging the audience.

In order to make the project accessible to scientists, teachers and students, I have launched a web site. All images can be freely downloaded from this site as JPEG or PPT. In addition, sample chapters, and a scientific image glossary that presents the biological background of each image can be downloaded from this site.

Finally, the site contains an Interactive board, where viewers and readers are encouraged to add their comments, and to upload their personal versions of scientific or non-scientific images that depict the concepts of embryonic development.

I encourage you to explore this site and use it.

http://shilobook.weizmann.ac.il/

Benny Shilo

Lifesblueprint

 

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The rabbit blastocyst modelling (for) vertebrate gastrulation

Posted by , on 5 January 2015

Form and function of animal gastrulation have been longstanding classics accompanying the rise of experimental embryology, and – as if to square the circle in the literal sense – the blastopore of Haeckel’s original ‘gastrea’ stage[1] was soon (and still is) considered analogous to the straight primitive streak of birds and mammals[2-4]. Both forms are capable of fixing the anterior-posterior body axis and of producing the first principal change in cell shape termed epithelio-mesenchymal transition (EMT)[5], which creates the basis for the ‘milieu intérieur’[6] and all internal organs. Current models explaining evolutionary steps between these divergent forms include intermediate morphologies in non-avian sauropsida (such as turtles, lizards and snakes) with a combination of both a small blastopore and a broad blastoporal plate[7] and lead to the proposition of a multiple evolutionary appearance of the ‘derived’ primitive streak[8]. However, despite gastrulation’s famous earmark as the nodal event in human life[9], current hypotheses on mechanisms leading to different gastrulation forms still call for evidence of cellular activity such as movement and proliferation of neighbouring cells  which are extensively described in non-amniotes such as Xenopus and Zebrafish[10, 11].

As our lab has a longstanding interest in mammalian body axis specification and formation we recently extended our live cell marking using DiI[12] (s. Figure 1) and multiphoton microscopy of DAPI-stained whole rabbit blastocysts[13]. We modified pre-gastrulation cell movements by inhibiting the Rho-kinase ROCK, a downstream effector of the PCP pathway controlling actin-dependent directed cell motility[14].

 

 

Figure 1: A living rabbit blastocyst (6 d.p.c.) with its zona pellucida equivalent still intact and mounted in a microinjection set-up for depositing DiI label into the (perivitelline) space between epiblast and zona pellucida (s. [12]). The anterior border of the embryonic disc (the anterior marginal crescent) is on the left (on the side of the holding pipette). The glass needle (right) touches the posterior pole, where the primitive streak will appear within the next 6 hours.

As published online 16 December 2014 in DEVELOPMENT (http://www.ncbi.nlm.nih.gov/pubmed/25516971) [15], our time-lapse videos show that cell movements can be disturbed specifically in the future primitive streak forming area: directed intercalation of elongated cells towards the future primitive streak as well as oriented cell divisions are severely disturbed. Intriguingly, expression analysis of several genes involved in primitive streak specification and formation as well as high-resolution morphology revealed different grades of primitive streak deformation in a dose-dependent manner; moreover, abnormal expression domains appeared to mirror gastrula forms known from a variety of vertebrates including putatively ancient forms seen in non-avian amniotes [8].

Implications of this work for the evolution of gastrulation are manifold: a quite compelling scenario for the evolution of vertebrate gastrulation suggests a shift of the circular mesoderm forming domain to the posterior pole to be ‘driven’ by the pressure of an increasing yolk mass; it also includes a further evolutionary step involving narrowing and elongation of the posterior domain into a blastoporal plate or a primitive streak[16]. Our results add some cellular ingredients to this scenario and support a model developed for the evolution of the chick primitive streak, which had brought a temporal shift of PCP-driven processes prior to gastrulation into the picture[17]. The experimentally altered migratory behaviour of neighbouring cells indeed suggests that a step-wise spatiotemporal adjustment of medio-lateral cell intercalation could have led to the transformation of the ancient circular mesoderm forming domain into a ‘precociously’ elongated midline domain, which then turns into a blastoporal plate and/or into a primitive streak. Surprisingly, the mammalian embryo proves to be more flexible than the avian embryo when it comes to ‘mimicking’ different vertebrate gastrula forms such the amphibian blastopore or the teleost embryonic shield.

Further studies could put the rabbit model(ling) to the test by analysing other mammals with a flat embryonic disc such as marsupials for basal mammals (e.g. the tammar wallaby[18]) or chiroptera for derived mammals (e.g. Carollia[19]), and, ideally, in non-human primates. The rise of reptilian model organisms[8], on the other hand, suggests that some mechanisms of the putative intermediate evolutionary step could soon be analyzed directly, also. Apart from this, the highly reproducible and relatively simple experiments on lagomorph blastocysts together with emerging molecular tools for the rabbit (s. [20]) suggest that peri-gastrulation events in mammals will be amenable to analysis of (1) further components guaranteeing directional movements during primitive streak formation, (2) effectors critically dependent on primitive streak formation (and  EMT) events, and (3) the emerging PCP orientation prior to directional cell movements, as these herald the most important time of our lives.

 

Viktoria Stankova, Nikoloz Tsikolia, and Christoph Viebahn

 

Institute of Anatomy and Embryology, University Medical Centre, University of Göttingen, Germany

 

References:
1.    Haeckel E (1874) Gastreatheorie. Jen Zeitschr Naturwiss 8

2.    Kollmann J (1886) “Gastrulasitzung” der 59. Versammlung deutscher Naturforscher und Ärzte zu Berlin. Anat Anz 1: 281-294

3.    Pasteels J (1940) Un apercu comparitif de la gastrulation chez les Chorde´s. Biol Rev Camb Philos Soc 15: 59–106

4.    Stern CD (2004) Gastrulation. Cold Spring Harbor Laboratory Press, Cold Spring Harbor, NY, USA

5.    Yang, J., & Weinberg, R. (2008). Epithelial-Mesenchymal Transition: At the Crossroads of Development and Tumor Metastasis Developmental Cell, 14 (6), 818-829 DOI: 10.1016/j.devcel.2008.05.009

6.    Bernard C (1859) Leçons sur les propriétés physiologiques et les altérations pathologiques des liquides de l`organisme. Paris, Baillière.

7.    Coolen, M., Nicolle, D., Plouhinec, J., Gombault, A., Sauka-Spengler, T., Menuet, A., Pieau, C., & Mazan, S. (2008). Molecular Characterization of the Gastrula in the Turtle Emys orbicularis: An Evolutionary Perspective on Gastrulation PLoS ONE, 3 (7) DOI: 10.1371/journal.pone.0002676

8.    Bertocchini, F., Alev, C., Nakaya, Y., & Sheng, G. (2013). A little winning streak: The reptilian-eye view of gastrulation in birds Development, Growth & Differentiation, 55 (1), 52-59 DOI: 10.1111/dgd.12014

9.    Wolpert L (1992) It’s not birth, marriage or death, which is the most important time in your life, but gastrulation. Quoted by Stern CD and Ingham PW in Development Suppl 1992: I

10.    Keller, R. (2002). Shaping the Vertebrate Body Plan by Polarized Embryonic Cell Movements Science, 298 (5600), 1950-1954 DOI: 10.1126/science.1079478

11.    Tada, M., & Heisenberg, C. (2012). Convergent extension: using collective cell migration and cell intercalation to shape embryos Development, 139 (21), 3897-3904 DOI: 10.1242/dev.073007

12.    Viebahn C, Stortz C, Mitchell SA, & Blum M (2002). Low proliferative and high migratory activity in the area of Brachyury expressing mesoderm progenitor cells in the gastrulating rabbit embryo. Development (Cambridge, England), 129 (10), 2355-65 PMID: 11973268

13.    Halacheva, V., Fuchs, M., Dönitz, J., Reupke, T., Püschel, B., & Viebahn, C. (2011). Planar cell movements and oriented cell division during early primitive streak formation in the mammalian embryo Developmental Dynamics, 240 (8), 1905-1916 DOI: 10.1002/dvdy.22687

14.    Habas, R., Kato, Y., & He, X. (2001). Wnt/Frizzled Activation of Rho Regulates Vertebrate Gastrulation and Requires a Novel Formin Homology Protein Daam1 Cell, 107 (7), 843-854 DOI: 10.1016/S0092-8674(01)00614-6

15.   Stankova, V., Tsikolia, N., & Viebahn, C. (2015). Rho kinase activity controls directional cell movements during primitive streak formation in the rabbit embryo Development, 142 (1), 92-98 DOI: 10.1242/dev.111583

16.    Arendt, D., & Nübler-Jung, K. (1999). Rearranging gastrulation in the name of yolk: evolution of gastrulation in yolk-rich amniote eggs Mechanisms of Development, 81 (1-2), 3-22 DOI: 10.1016/S0925-4773(98)00226-3

17.    Voiculescu, O., Bertocchini, F., Wolpert, L., Keller, R., & Stern, C. (2007). The amniote primitive streak is defined by epithelial cell intercalation before gastrulation Nature, 449 (7165), 1049-1052 DOI: 10.1038/nature06211

18.    Renfree, M. (2010). Review: Marsupials: Placental Mammals with a Difference Placenta, 31 DOI: 10.1016/j.placenta.2009.12.023

19.    Cretekos CJ, Weatherbee SD, Chen CH, Badwaik NK, Niswander L, Behringer RR, & Rasweiler JJ 4th (2005). Embryonic staging system for the short-tailed fruit bat, Carollia perspicillata, a model organism for the mammalian order Chiroptera, based upon timed pregnancies in captive-bred animals. Developmental dynamics, 233 (3), 721-38 PMID: 15861401
                                                                                                                                        
20.   Osteil, P., Tapponnier, Y., Markossian, S., Godet, M., Schmaltz-Panneau, B., Jouneau, L., Cabau, C., Joly, T., Blachere, T., Gocza, E., Bernat, A., Yerle, M., Acloque, H., Hidot, S., Bosze, Z., Duranthon, V., Savatier, P., & Afanassieff, M. (2013). Induced pluripotent stem cells derived from rabbits exhibit some characteristics of naive pluripotency Biology Open, 2 (6), 613-628 DOI: 10.1242/bio.20134242

 

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Top Node posts of 2014

Posted by , on 5 January 2015

by Luis Miguel Bugallo Sánchez, wikimedia commons
Happy new year everyone!

The last year saw the usual varied mix of news, research, meeting and discussion posts. We had a look at our stats to find the most popular posts of 2014:

 

 

Most viewed posts:

1- The secret to getting the postdoc you want– former SDB president Martin Chalfie shares his thoughts on how to apply for a postdoc.

2- In time of revision: of Wingless and morphogens– Alfonso Martinez-Árias posted this opinion piece in late 2013, but the discussion continued into 2014.

3- Dicty World Race 2014– Boston saw the search for the fastest Dicty Cell.

4- Outreach activity- extracting DNA from kiwi fruit– one of the several outreach activities suggested in the last year.

5- Out with the old, in with the new: reassessing morpholino knockdowns in light for genome editing technology

 

Best rated posts:

1- Green eggs and serrano ham– Mariana reported on her collaborative visit to Sevilla.

2- The secret to getting the postdoc you want– not only one of the most viewed but also one of the best rated posts of the year!

3- A day in the life of a shark lab

4- A day in the life of a turtle lab

5- When the mind is given wings…– the students of the 2014 Quintay Developmental Biology course share their experience.

 

Other highlights:

In 2014 there were many people writing about their research and new techniques. Some of the most popular research posts this year included GATA6 and the power of single cells, discussing a Developmental Cell paper, and the Colourful life of a fruit fly, introducing a technique for whole tissue labelling in Drosophila. In the top posts were also our always popular Woods Hole image competitions.

2014 also saw several new posts in our two series: our series on outreach projects and activities and ‘A day in the life‘, on the daily routine of working with different model organisms. These series are still ongoing, so expect more contributions soon!

 

 

The Node is your community blog, and could not exist without your participation. So a big thank you to all of you who wrote, commented, rated and read the Node posts in 2014. We look forward to another exciting year of developmental biology in 2015!

 

 

 Image by Luis Miguel Bugallo Sánchez (wikimedia commons)

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