Aug
17

Encouraging and improving lab-wide communication

BY:
Samantha Alsbury

Communication in the lab

Improve lab communication with BioDataGood communication is essential in any job and science is no exception. Communication in the laboratory takes many forms. Lab members must all communicate with each other on a day to day basis to know what reagents need re-ordering and where things are stored. As I mentioned in a previous blog,  lab members often teach each other, and new lab members, new techniques and share information about new developments in the laboratory reagents available or new technology. They also share modifications to protocols they’ve tried. Lab members must also communicate with the lab head to report their progress and discuss concerns or ideas.

Lab managers

Both the head of the lab and the lab members will need to communicate regularly with the lab manager, if there is one, to ensure the

Jul
26

A Protocol for Protocols: Organizing and Sharing Your Research Methods

BY:
Samantha Alsbury

Every lab has it’s own set of scientific protocols, standard techniques that it routinely uses and that new members of the lab need to learn. Some protocols are fairly routine and can be looked up in a practical manual and followed as they are but often a lot of time and effort goes into developing them. Various protocols might have been tried and combined to produce exactly the right protocol for the needs of that particular lab. Even with standard protocols that work well there is often a need to optimize the preparation of the specimens used, for example in molecular biology protocols the method of extraction for the DNA, RNA or protein will depend on the source.

Well written clear protocols are a key resource for getting new members of the lab up to speed. Joining a new lab is a challenging time and there is often much to learn:

  • who everyone is
  • what they do and what they know about
  • where everything is
  • who is responsible for what
  • how to order things
  • what the local rules are for waste disposal
  • and of course new techniques/protocols

Have a central electronic repository of Protocols

A central repository for research protocols makes a lot of sense but paper copies can end up being out of date having been optimized and updated by numerous lab members over time. A central electronic repository that everyone has access to is really the best solution, if protocols are adapted for slightly different purposes different modified forms can be saved. Biodata not only allows everyone access to this vital resource, it is then quick and simple for anyone to look up where the different reagents are stored (If this is not included in the protocol) and the ordering details so that reagents can be quickly and easily re-ordered which can help to streamline laboratory management.

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Enhance Lab Communication

Having a resource like this for protocol management helps the lab to run smoothly and even promotes good lab communication, lab members won’t always think to mention that they’ve tried a slightly different reagent or developed a modified form of the protocol but when lab members are encouraged to keep an electronic record of their protocols up to date and accessible, everyone can easily see what’s been tried. With the comment function within Biodata making it so easy to discuss things online and email alerts to let people know something new has been added, everyone will be able to stay up to date with the latest developments of their colleagues.

Some techniques require a level of practical skill that can’t easily be learnt from a written protocol, these often take some time and practice to master and really need to be learnt from someone in the lab already accomplished in the technique. Easily accessible up to date protocols help both the person learning and the person teaching. It’s always useful to have something to annotate rather than having to write everything down whilst watching, or trying to carry out, the protocol for the first time. Good protocols are detailed and clear so the person learning can see what the next stages will be and make some sense of what they are doing. Having them centrally available to all lab members means the person teaching doesn’t have to run around to find the protocol and make a copy, if they are detailed and up to date they also serve as a prompt so that nothing gets forgotten.

Tagging your Protocols

Another really useful feature of Biodata is tags, this makes protocols easy to find and identify without having to browse the whole collection, there might be one protocol for genomic DNA extraction from adult flies, for example, and another for extraction from embryos, tags allow each to be identified easily. Everyone tends to title their protocols in different ways and using tags means that the person searching for the protocol doesn’t have to know the exact title that was used.

So my protocol for protocols is:

    • Make sure they are clearly written and detailed
    • Have them stored somewhere convenient that everyone can access
    • Use tags so that they are easy to find
    • Encourage everyone to update them or comment on them online so that best practice is always shared


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About Samantha Alsbury

Samantha graduated from the University of East Anglia with a degree in Molecular Biology and Genetics having spent a very lovely year in San Diego as part of her studies. For her postgraduate degree she moved to London, a place she has called home ever since. Her doctoral research into the role of heat shock proteins and ageing in neurons led her to question how the nervous system develops. She is now a post-doctoral researcher at King’s College in London and her current research is focused on trying to understand how nerves are guided to their correct targets as they grow. Samantha is compensated for contributing to BioData blogs.

 

Jul
14

On The Way to a Nobel – Notes From Lindau

BY:
James Ankrum

As I prepared for my trip to the Lindau, Germany for the 61st meeting of Nobel Laureates, I decided that for the first time in 4 years, I was going to leave my laptop home. In its place was an iPad 2 supplied by BioData that I have been incorporating into my daily routine over the past few weeks.  I’ve equipped my iPad with Apps that make it ideal for doing science and traveling, Papers, GoodReader, Notes, and BioData. With Papers I have access to all of my papers, Good Reader allows me to mark them up as I would if they were printed, Notes allows me to easily write notes from the talks, and BioData allowed me to keep up to date on experiments that were happening back home in my absence. With this tool kit I set out on my journey to interact with Nobel Laureates and young researchers from around the world.



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The meeting was focused on Medicine & Physiology with the theme of Global Health. Nobel Laureates gave 30 min presentations in the mornings of each day and the afternoons sessions gave us opportunities to ask questions about science, life, and why we do what we do. While each laureate has taken a unique path, throughout the week a few major themes stood out that I’d like to highlight with a few quotes.

1. Do what interests you.

go for the most interesting project, not the least risky” –Elizabeth Blackburn

All of the laureates emphasized the need to find what drives you and pursue it.  For Elizabeth Blackburn it was the curiosity to know what controls telomere length, for Roger Tsien it was his love for colors, and for Peter Agre it was his desire to improve global health.

2. Do Good Science

lab notebook, write down what you’re going to do and check it off when you’ve done it, take good notes!” -Oliver Smithies

This sounds obvious, but what does it mean in todays competitive scientific environment. Prof. Smithies highlighted the need to keep a good notebook by showing us his own notebook from an experiment he performed earlier this year, meticulously documented, steps checked off when complete, notes and observations in the margins, and an image of a gel pasted in and annotated.  Its attention to detail that enables you to be prepared for the unexpected.  Secondly, doing good science means allowing your data to challenge and refine your hypothesis, not forcing your data to fit your hypothesis.  For me, this is where BioData really shines. I found BioData while I was looking for a better way to document the evolution of a project and all the small changes that I make along the way. In a paper notebook, it can be difficult to quickly look back at an experiment from a year ago or remember why I chose a particular parameter for the experiment. BioData helps me see my understanding of my project grow from the initial experiments to the figure that will end up in a paper. It also helps me easily bring students and collaborators on board to my project, as they can see my progression through the project without having to decipher my notes in my paper lab notebook.



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3. Question everything, does it make sense from 1st principles?

in the fields of observation, chance favors only the prepared mind“-Louis Pasteur

We must remember that the scientific method never proves a truth, but rather minimizes the probability of alternatives. 99 experiments can support a given hypothesis, but it only takes 1 to prove that it is wrong. As science progresses we are continually rewriting textbooks as our understanding of biology grows. Looking through Nobel Prizes it is easy to see that many of them had to challenge the current paradigm in the field to even start their work. This has challenged me in my own work to ask, what assumptions have I made, what evidence is there to support them, do those explanations make sense, what if they’re wrong?

4. Persistence is key


Accept your batting average will be low, but hopefully not zero. Accept that your best papers may be rejected from fashionable journals, or may be accepted for the wrong reasons”Roger Tsien

This goes back to the beginning really. The scientific method takes time and more hypothesis will fail than not, its our passion for the project that propels us through the trials and frustrations.

Now that I’m back in lab, its time to apply these principles. I hope you find these as helpful and challenging as I have.

James Ankrum is a PhD student in the Harvard-MIT Division of Health Sciences & Technology. James is taking part in BioData’s iPad beta program and shares his experience.

 

 

* Photos from Lindau by C. Flemming/Lindau Nobel.

 

Mar
04

What's New in Science? Week of February 27, 2011

BY:
Josh

weekly_newsOur weekly compilation of science news for the week of February 27, 2011.

Gene fuelled transporter causes breast cancer cells to self-destruct: Scientists at Queen’s University Belfast have shown that they can deliver a gene directly into breast cancer cells causing them to self-destruct, using an innovative, miniscule gene transport system, according to research published today (28 February) in the International Journal of Pharmaceutics. Using a transport system called a Designer Biomimetic Vector (DBV), Dr Helen McCarthy, from Queen’s School of Pharmacy, funded by Breast Cancer Campaign, packaged a gene into a nanoparticle 400 times smaller than the width of a human hair, allowing it to be delivered straight into breast cancer cells in the laboratory.

Scientists Book Trips Aboard Private Spaceships, In An Industry First: The commercial space industry has booked its first science expeditions, the Southwest Research Institute announced today. At least two researchers have tickets to fly on Virgin Galactic’s SpaceShipTwo, with another six seats on reserve, and the team also reserved six flights on an XCOR Lynx I rocket plane. The Virgin Galactic deal, worth $1.6 million, is the first commercial spaceflight agreement specifically designed for scientists. The researchers will conduct biomedical, microgravity and astronomical imaging experiments, according to SwRI. The SpaceShipTwo expeditions will give researchers ample room to move around and conduct their experiments at up to 350,000 feet. The Lynx I trips will involve a pilot and a single researcher flying at 200,000 feet.

An Alzheimer’s vaccine in a nasal spray: One in eight Americans will fall prey to Alzheimer’s disease at some point in their life, current statistics say. Because Alzheimer’s is associated with vascular damage in the brain, many of them will succumb through a painful and potentially fatal stroke. But researchers led by Dr. Dan Frenkel of Tel Aviv University’s Department of Neurobiology at the George S. Wise Faculty of Life Sciences are working on a nasally-delivered 2-in-1 vaccine that promises to protect against both Alzheimer’s and stroke. The new vaccine repairs vascular damage in the brain by rounding up “troops” from the body’s own immune system.

New cell therapy a promising atherosclerosis treatment: Researchers at Karolinska Institutet have shown in a new study on mice, that cell therapy can be used to reverse the effect of ‘bad’ LDL cholesterol and reduce the inflammation that leads to atherosclerosis. The new cell therapy, which is presented in the prestigious scientific journal Circulation, can open the way for new therapies for stroke and myocardial infarction if the results prove translatable to humans. Atherosclerosis is a chronic inflammation of the blood vessels. Cholesterol is transported in the blood in particles called LDL (‘bad’ cholesterol) that can accumulate in the vessel walls. This triggers the body’s immune system to react against LDL, which then cause inflammation in the vessels, and eventually thrombus formation. If such a thrombus forms in the coronary artery, the patient suffers a myocardial infarction; if it forms in the brain, a stroke can result. The research group, under the direction of Professor Göran K Hansson at the Centre for Molecular Medicine, have developed a cell therapy that selectively dampens vascular inflammation induced by LDL. The therapy makes use of dendritic cells, which are characterized by a high degree of plasticity that renders them amenable to manipulation.

Feb
25

Science News: Week of February 20, 2011

BY:
Josh

weekly_newsOur weekly compilation of science news for the week of February 20, 2011.

Antifungal compound found on tropical seaweed has promising antimalarial properties: A group of chemical compounds used by a species of tropical seaweed to ward off fungus attacks may have promising antimalarial properties for humans. The compounds are part of a unique chemical signaling system that seaweeds use to battle enemies – and that may provide a wealth of potential new pharmaceutical compounds.

Entire T-cell receptor repertoire sequenced revealing extensive and unshared diversity: T-cell receptor diversity in blood samples from healthy individuals has been extensively cataloged for the first time in a study published online today in Genome Research (www.genome.org), setting the stage for a better understanding of infectious disease, cancer, and immune system disorders.

Iowa State, Ames Lab researchers describe the pump that bacteria use to resist drugs: A research team led by Edward Yu of Iowa State University and the Ames Laboratory has identified and described two parts of the three-part system that pumps toxins from bacteria and allows them to resist antibiotics. The discoveries are published in the Feb. 24 issue of the journal Nature. The paper describes the co-crystal structure of two parts of the three-part efflux pump that recognizes and removes heavy metal toxins from bacteria. A research team led by Yu – an Iowa State associate professor of physics and astronomy, of chemistry, of biochemistry, biophysics and molecular biology and an associate of the U.S. Department of Energy’s Ames Laboratory – is working to discover the assembled structure of the entire three-part efflux pump. Yu said a better understanding of how the three parts work together could help medical researchers find ways to restore the effectiveness of antibiotics.

Simpler way of making proteins could lead to new nanomedicine agents: Researchers have developed a simple method of making short protein chains with spiral structures that can also dissolve in water, two desirable traits not often found together. Such structures could have applications as building blocks for self-assembling nanostructures and as agents for drug and gene delivery.

Newborn heart muscle can grow back by itself, UT Southwestern researchers have found: In a promising science-fiction-meets-real-world juxtaposition, researchers at UT Southwestern Medical Center have discovered that the mammalian newborn heart can heal itself completely. Researchers, working with mice, found that a portion of the heart removed during the first week after birth grew back wholly and correctly – as if nothing had happened. “This is an important step in our search for a cure for heart disease, the No. 1 killer in the developed world,” said Dr. Hesham Sadek, assistant professor of internal medicine and senior author of the study available online in the Feb. 25 issue of Science. “We found that the heart of newborn mammals can fix itself; it just forgets how as it gets older. The challenge now is to find a way to remind the adult heart how to fix itself again.”