From Antarctica to Mars: Growing Food in Extreme Conditions

Even those of us with the greenest thumbs are baffled by the idea of growing food in Antarctica. From my tiny desk plant to my neighbor’s cabbage patch, plants generally have the same requirements: soil, sun and water. At the southern end of the planet, however, those are all scarce commodities. Nonetheless, on April 5, 2018, the team managing the EDEN-ISS greenhouse at Neumayer III announced that they had harvested 8 pounds of salad greens, 18 cucumbers and 70 radishes. This project has implications beyond just Antarctica, from moderate climates on Earth to future Mars missions. Continue reading

The Intersection of Poetry and Science

March 21, 2018 is World Poetry Day, we’re getting into the spirit with some scientific poetry. Science and poetry overlap more than many diehards in either camp would like to admit. History is filled with poets who dabbled in science, as well as scientists who dabbled in poetry. In honor of World Poetry Day, I’ve pulled out some of my favorites. Continue reading

The Free Scientific Resource: Evaluating the Accuracy of Wikipedia

Several weeks ago, I came across an article on ScienceNews.org about how Wikipedia is becoming a scientific resource, whether we like it or not. Scientists are reading Wikipedia, the article said, and it’s affecting how they write. The article cited a study by researchers from MIT and Pitt that found statistical evidence of language in peer-reviewed articles being influenced by Wikipedia articles relevant to the topic. They concluded that journal articles referenced in Wikipedia are subsequently cited more than other similar articles, and that on a semantic level, Wikipedia is influencing the language of scientific journal articles at an astounding rate.

I was intrigued by the idea that reading Wikipedia affects how we later write about a subject. When I start writing about a new topic, the first thing I do is head to Wikipedia to gather a basic understanding before I dive into journal articles. I’ll skim through the overview and most relevant subsections, then check out the references to see what I should continue reading. However, the findings of the study imply that even though I don’t directly use information or language from Wikipedia in my work, it’s still subtly influencing how I write. Continue reading

The Making of a Vaccine: Preparation for Flu Season

At the time that I’m writing this, I still haven’t succumbed to the “yuck” that’s been knocking out my co-workers one-by-one since November. Those of us who are still healthy were discussing how we fortify our immune systems in preparation for the flu season. All of the suggestions were pretty typical—orange juice, Vitamin C supplements, and of course, the the annual flu shot.

For all of the agencies responsible for the production of the seasonal influenza vaccine, preparation for flu season begins long before the rest of us are stocking up on Emergen-C. Continue reading

Promega Partnering with UC-Davis Drought-Resistant Rice Project

The Foundation for Food and Agriculture Research (FFAR) announced on November 30 that they are awarding $1M to a project based at the University of California, Davis, to study protein kinases of rice plants. The team is led by Dr. Pamela Ronald, a leading expert in plant genetics who has engineered disease- and flood-resistant rice. This project aims to address the growing agricultural problem of water scarcity by gaining a better understanding of the role kinases play in enabling drought-resistance. Promega will be supporting this research by providing NanoBRET™ products to help characterize kinase inhibitors.

Principal Investigator Pamela Ronald, Ph.D. Photo Credit: Deanne Fitzmaurice

The research team will begin by screening over 1,000 human kinase inhibitors to determine which ones do interact with the plant kinome and, if applicable, which kinase(s) they inhibit. Once the compound library has been established, the team will assess the inhibitors’ phenotypic effects on rice to identify kinases that, when inhibited, positively impact root growth and development. The long-term goal is to use these findings to engineer drought-resistant rice.

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They’re Eating WHAT? Understanding Ecosystems Through Weird Meals

A few days ago, while taking an unplanned distraction break on Facebook, I came across a video of an enormous coconut crab attacking a red-footed booby. The footage was captured by a biologist studying crab behavior in the Chagos Archipelago in the middle of the Indian Ocean. On this trip he had already confirmed that the monstrous crustaceans snacked on large rats, but he never expected to watch one devour a full bird.
This video sent me on a research journey into other interesting meals discovered by animal researchers. Besides providing sensational headlines about what’s eating what, these studies help us understand everything from nutrient exchange to learned behavior. I’ve compiled a short list of observations and discoveries made in the past few months where researchers have used weird meals to understand complex phenomena. Warning: this might get gruesome! Continue reading

Tick, Tock! The Molecular Basis of Biological Clocks

A long time ago, before the rise of humans, before the first single celled organisms, before the planet even accumulated atmospheric oxygen, Earth was already turning, creating a 24-hour day-night cycle. It’s no surprise, then, that most living things reflect this cycle in their behavior. Certain plants close their leaves at night, others bloom exclusively at certain times of day. Roosters cock-a-doodle-doo every morning, and I’m drowsy by 9:00 pm every night. These behaviors roughly align with the daylight cycles, but internally they are governed by a set of highly conserved molecular circadian rhythms.

Jeffrey Hall, Michael Rosbash and Michael Young were awarded the 2017 Nobel Prize in Physiology/Medicine for their discoveries relating to molecular circadian rhythms. The official statement from the Nobel Committee reads, “…this year’s Nobel laureates isolated a gene that controls the normal daily biological rhythm. They showed that this gene encodes a protein that accumulates in the cell during the night, and is then degraded during the day. [They exposed] the mechanism governing the self-sustaining clockwork inside the cell.” What, then, does this self-sustaining clockwork look like? And how does it affect our daily lives (1)?

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