This morning the UK’s leading higher-ed publication, Times Higher Education, featured JoVE in their headlines. Read more…
A 5% reduction in the National Institute of Health’s budget this fiscal year could have far reaching effects for scientific research. And yet, despite the recoil within the research community not everyone is panicking.
Search “research sequester” on Twitter and the results yield a powerful illustration of the controversy surrounding this summer’s $1.7 billion scientific funding shortfall. “To contain US #healthcare costs we need to change the way we deliver care, not reduce NIH-funded research,” tweeted the University Hospital for Albert Einstein College of Medicine (@MontefioreNYC). “Senseless sequester cuts are putting NIH’s life-saving innovative medical research at risk,” tweeted Senator Harry Reid of Nevada (@SenatorReid).
Since 2006, JoVE has brought high quality video articles to the biological sciences community. Currently, JoVE publishes high quality scientific video protocols in the areas of neuroscience, general biology, bioengineering, immunology and infection, clinical and translational medicine, and applied physics.
Today, February 4, 2013, JoVE proudly launches its 7th section: JoVE Chemistry. Following its successful introduction of video publications for the biological and physical sciences, JoVE received numerous requests for a chemistry counterpart. In response, the journal is launching a new section, JoVE Chemistry dedicated to visualized publication of experiments across different areas of chemistry research including organic chemistry, chemical biology, electrochemistry, and polymer chemistry, among others. Check out our Chemistry announcement here:
“Similar to research in biology and physics, experimental research in chemistry suffers from a lack of reproducibility that can be solved by visualized publication. Therefore, it is natural to expand JoVE‘s novel publication approach to chemistry as well”, says Moshe Pritsker, the CEO and co-founder of JoVE.
Today marks an important day in JoVE’s history. Today JoVE, The Journal of Visualized Experiments, published two articles in partnership with the United States government’s Defense Threat Reduction Agency (DTRA). JoVE is proud to present the work from Temple University’s Dr. Chris Schafmeister and State University of New York Buffalo’s Dr. David Pawlowski and Dr. Richard Karalus.
The support of scientists conducting research for DTRA has significant ramifications for identifying, treating, and preventing the outbreak of defense threats. DTRA exists to safeguard America and its allies from weapons of mass destruction (WMD), including chemical, biological, radiological, nuclear weapons and high-yield explosives (CBRNE), by providing capabilities to reduce, eliminate, and counter the threat and mitigate its effects. Because the techniques and technologies developed in DTRA sponsored laboratories promise a safer world and will benefit from distribution in a highly visual format, DTRA has sponsored the research and publication of their scientists in JoVE.
On Tuesday, JoVE published a fascinating article on how energy is used during complex sports, such as judo and other martial arts. Previous research on exercise science has focused on sports that can be easily recreated in the lab, such as running and cycling, but these Brazilian scientists have found a completely unique way of studying more complex sports.
Science NOW picked up the story and did an excellent job of explaining how the researchers did it:
Martial arts are exhausting, as anyone who’s traded a few punches, kicks, or throws can attest. But where exactly does the energy come from? Every form of exercise uses a different combination of the body’s metabolic systems for energy. Cyclical sports such as running and cycling are relatively easy to replicate with exercise machines in a laboratory, but that’s harder to do with more unpredictable sports such as martial arts. So a team of Brazilian researchers have taken the lab into the dojo to study the energy requirements of the Japanese art of judo.
Three different systems convert food to energy. During long periods of moderate exercise, aerobic metabolism does most of the work, using oxygen to turn sugar into energy, water, and CO2. Running a marathon or cycling for 100 miles, therefore, is almost entirely aerobic. For shorter, more intense exertion, or when the oxygen runs out, muscles can break down sugar anaerobically, although that system is far less efficient and produces muscle-burning lactic acid as a byproduct. Lastly, for very short bursts of energy, such as a 10-second sprint, muscles can rely on another type of anaerobic system: they use up energy-storing compounds, called phosphagens, in muscular tissues.
Click here to read the full story.
As many of you know, JoVE appeared on CTV National News this past weekend. Though JoVE was founded in and operates out of Cambridge, MA we are an international journal, with video-articles published from 35 countries, including over 100 articles from researchers across Canada.
The CTV news story did an excellent job of explaining why this is so significant. Despite the huge advances in scientific innovation, academic publishing has barely changed in the past 300 years. JoVE is the world’s only peer reviewed, PubMed-indexed journal publishing all of its content in both text and video format. This makes research more accessible, and easier to teach, learn and understand.
A science journal that broke the mold of academic publishing with a YouTube-inspired approach to sharing new studies is celebrating its fifth year with a growing Web audience.
The Journal of Visualized Experiments, or JoVE, is an online, peer-reviewed and indexed scientific journal that highlights the latest research on everything from plankton cells to human diseases.
What makes JoVE different from some 25,000 scientific journals published worldwide is that it presents information in video format. Subscribers can watch scientists perform and discuss experiments, show off new lab techniques and browse through microscope slides.
To read the rest of this article, please click here.
Do you believe in the future of academic publishing? Recommend JoVE to your librarian today.
Tomorrow at 1pm EST, JoVE Editorial Director Dr. Beth Hovey and Associate Editor Leiam Colbert will be discussing JoVE and academic publishing on Peer Review Radio! The program combines the latest science news with new music on the Ottawa-area radio station CHUO.
For those of you outside of the Ottawa area, you can stream the program here.
UPDATE: Due to technical difficulties, the radio segment has been rescheduled for next Tuesday at 1pm. Sorry for any confusion!
New Scientist TV posted a new video explaining how an underwater laser imaging device makes it possible to study jellyfish in their natural environment.
SCUVA was developed by Dr. Kakani Katija Young and Dr. John Dabiri to study the effect of jellyfish and other organisms on ocean mixing. The technique was published in the October issue of JoVE and can be found here.
A night dive isn’t usually ideal for spotting marine life, unless you’re using a new underwater laser imaging device. The SCUVA system shown in this video, developed by bioengineers Kakani Katija of the Woods Hole Oceanographic Institution in Falmouth, Massachusetts and John Dabiri from the California Institute of Technology, works best in darkness. In this clip, it’s being used to visualise the wake produced by jellyfish.
The device was developed by adapting technology used in the lab for open waters. After finding a good subject, a diver observes exhaled bubbles to determine the overall current. Suspended particles are then illuminated by a laser, so that a high-definition camera can capture how they move. Later, a computer programme uses the video to track the particle motion and deduce the flow around the animal.
The system is allowing researchers to better investigate marine animal behaviour, as well as their natural environment. Collaborator Sean Colin of Roger Williams University is currently using the device to study how invasive comb jellyfish use a delicate feeding current to sneak up on prey. The unique camera could also be used to help determine the effect of migrating sea organisms on ocean mixing.
To see the full article, click here.
Though her blog generally focuses on the intersection between science and art, our SCUVA experimental video was so visually compelling, it fit right in with the rest of her posts.
Dr. Kakani Katija and her colleagues published a paper this week in JOVE that shows off a cool new device they’ve developed to record fluid motion caused by the movements of animals in their native habitats using a laser and a hand held video recording device they’ve dubbed SCUVA (self-contained underwater velocimetry apparatus). The device illuminates particles in the water and records their motion as an animal moves through the field of view. The video footage can then be plugged into software that tracks each particle’s movement, creating a neat diagram of vectors around the traveling organism. The device is particularly significant because it allows data to be collected in situ rather than in a lab where native conditions and behavior are difficult if not impossible to recreate. The resulting stills are visually intriguing, but the video clips contained in the author interview are even better.
To read the rest of this post, please click here.