Do you ever wonder whether you’re on the “right” career path? If you’re in academia, the trajectory you should follow can seem pretty rigid—undergrad degree, PhD, postdoc, PI, and then the elusive tenure. Have you considered that there isn’t a single “correct” path?
That’s the message one of Promega’s Science Writers, Julia Nepper PhD, emphasized when she was interviewed recently on the HelloPhD podcast. The HelloPhD podcast offers advice to help students, postdocs, faculty and scientists navigate the hard questions they face every day related to graduate school and careers in science.
In Episode
121: A Teenager Goes to Grad School, Julia offered her insight on dealing
with failure and finding a scientific career path that’s right for you. She
also shared her unusual story of starting grad school at age 17 and some of the
unique experiences she had along the way that led her to choose a career in
scientific communications.
To listen to this podcast and learn more about HelloPhD, click here.
Formal judgment in any context is nerve-racking. Scientists, familiar with being judged, rely on others to evaluate (and hopefully accept) everything from a PhD thesis defense to grant proposals and peer-reviewed journal article submissions. The frustrating part is not knowing exactly what the judges are looking for. Sure there are requirements and guidelines to follow—but how are the judges going to interpret them? It would be a whole lot easier if we could just peek into their minds. Unfortunately for most, that fantasy isn’t likely to turn into reality.
But if you are part of an iGEM team, today is your lucky day! Our own Preeta Guptan volunteers as a judge for the iGEM competition, and in today’s article, you will get her insider’s perspective about what iGEM judges look for. You will also get some tips to help you excel in the iGEM competition—and effectively communicate about science in general.
Preeta is an External Innovation Manager at Promega, which means she seeks out and investigates technology that might be valuable for Promega to license or acquire. The opportunity to scout up-and-coming synthetic biology advances was one reason she wanted to be an iGEM judge, but curiosity was at the core of her decision. Preeta and the other judges bring their unique perspectives and experiences to each iGEM project and team they evaluate. Here are some suggestions from Preeta:
Bacteria make you sick. The idea that bacteria cause illness has become ingrained in modern society, made evident by every sign requiring employees to wash their hands before leaving a restroom and the frequent food recalls resulting from pathogens like E. coli. But a parallel idea has also taken hold. As microbiome research continues to reveal the important role that bacteria play in human health, we’re starting to see the ways that the microbiota of the human body may be as important as our genes or environment.
The story of how our microbiome affects our health continues to get more complex. For example, researchers are now beginning to understand that the composition of bacteria residing in your body can significantly impact the effects of therapeutic drugs. This is a new factor for optimizing drug response, compared to other considerations such as diet, interaction with other drugs, administration time and comorbidity, which have been understood much longer.
Sustainability is a bit of buzzword lately—for good reason—but knowing how to be more sustainable and actually putting sustainable practices in action are not the same thing. This may be one reason why scientists have been slow to adopt change in their laboratories. By sponsoring My Green Lab, we’re hoping to help spread the message that there are simple changes researchers can make in their labs to significantly impact sustainability.
Here are some easy ways to reduce energy, water and waste in your lab and start making your research more sustainable.
1. Energy
Compared to office buildings on campus, academic lab buildings consume 5 times more energy. To put that into perspective, labs typically consume 50% of the energy on a university campus despite occupying less than 30% of the space. Fortunately, reducing energy usage can be one of the easiest ways to make your lab more sustainable.
Do you love your research job? What if you couldn’t do that work anymore? What if future researchers couldn’t have the opportunity to build from what you have accomplished and feel the same joy you do about their research?
Unfortunately, these may become more than hypotheticals for the next generation of scientists due to the impact humans are having on the earth. Scientific research has an outsized impact on some aspects of our unsustainable use of resources. Academic research buildings can use four times more energy than a typical office building and can be responsible for one-third of all waste generated on campus. So, can you make scientific research more sustainable?
The 2019 iGEM Competition is on the horizon and team registration opens this month. We’re excited to partner with the iGEM Foundation again this year and offer our support to the young scientists who participate. If you’re starting an iGEM project, there are going to be things you need along the way. We are pleased to share a number of different ways we can help your iGEM team from now until the Giant Jamboree.
Grant Sponsorship
Tell us about your iGEM project and your team could win a 2019 Promega iGEM Grant Sponsorship. Ten winning teams will each receive $2000 in free Promega products to use for their iGEM projects. Tell us about your project—What problem are you addressing? What is your proposed solution? What challenges does your team face? Last year’s winning teams selected from a wide range of reagents and supplies, including master mix, restriction enzymes, ligase, DNA purification kits, expression systems, DNA ladders and markers, buffers and agarose. Click here to apply!Continue reading “It’s Almost iGEM Season—Help Is On The Way!”
Imagine you are a high school student living in a community devastated by gun violence and death. In the U.S., this could be one of many communities, but it happens to be Baltimore which had 301 deaths due to gun violence in 2017 (with a per capita rate well above other large cities). Then imagine you were part of an organization within that community that helped you, along with other students, gain knowledge and skills to come up with a viable solution to the problem using synthetic biology.
This is exactly how the Baltimore Bio-Crew came up with their iGEM project, Coagulance Rx. The Baltimore Bio-Crew decided to tackle this community issue head-on. One team member, Mercedes Ferandes, reflected, “Living in Baltimore City, I have not only witnessed gun violence in front of me, but have had family members and friends die from it. I wanted to try to decrease the amount of deaths by gun violence using iGEM.”
After some research, they discovered that many of the gun violence deaths were due to blood loss and could have been prevented. The impoverished neighborhoods where this violence occurs lack the resources to provide timely emergency medical treatment. Many of these deaths can be attributed to delayed arrival of emergency response teams—wait times for an ambulance can be over an hour.
Although there were several contributing factors beyond their control, the team wanted to address this problem by focusing on blood clotting and how it could be helpful as a quick temporary treatment for open wounds. This solution could offer a reliable, cost efficient way to save lives by slowing or stopping blood loss until a victim could get medical attention. The team decided to pursue the use of snake venom after coming across some previous iGEM projects that had used it for clotting. Team member Henry Ryles pointed out that the need for snake venom powerful enough to clot blood quickly led them to choose the venom of the Russell’s Viper (Daboia russelii).
Today NASA’s InSight lander will touch down on Mars. InSight, which launched on May 5, is NASA’s first Mars landing since the Curiosity rover in 2012. The lander will begin a two-year mission to study Mars’ deep interior, gathering data that will help scientists understand the formation of rocky planets, including Earth.
While every spacecraft that reaches Mars offers more knowledge of the Red Planet, a lot of the excitement is fueled by hopes that someday these missions will bring humans to Mars and enable us to start colonies there. While this goal seems very distant, tremendous progress is being made. Scientists around the globe are making incremental discoveries that will lead to the advances necessary to make colonization of Mars a reality.
I had the pleasure of meeting one team of scientists doing just this—eight high school students from iGEM Team Navarra BG. I met the team and their advisors at the 2018 iGEM Giant Jamboree, where they presented their synthetic biology project, BioGalaxy, as part of the iGEM competition. The problem they aimed to solve is key to helping humans stay on Mars for an extended period of time—how do you take everything you need when there isn’t enough room on the spacecraft? Continue reading “How To Make Medicine on Mars”
If you’re a student in a research lab, discussing career options with your PI can be a tricky topic to navigate. Whether real or perceived, many students feel they cannot bring up the subject of a career in industry with their PI because they will lose credibility as a serious researcher. In labs where thinking about careers outside of academia is taboo, students can’t get all the information they need to decide what career path is right for them.
This dilemma became very clear a few weeks ago when I served as a panelist for a career workshop about jobs in industry at the iGEM 2018 Giant Jamboree. The workshop participants were extremely engaged, and we fielded questions well after the official end time. Since I know there are other students who could benefit from information about science-related careers in industry, I’ve compiled some of the questions and answers from the workshop. Continue reading “Building a Career in Science: Academia or Industry?”
Tradeoffs are a constant source of challenge in any research lab. To get faster results, you will probably need to use more resources (people, money, supplies). The powerful lasers used to do live cell imaging may well kill those cells in the process. Purifying DNA often leaves you to choose between purity and yield.
Working with biologics also involves a delicate balancing act. Producing compounds in biological models rather than by chemical synthesis offers many advantages, but it is not without certain challenges. One of those tradeoffs results from scaling up; the more plasmid that is produced, the greater probability of endotoxin contamination.
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