To achieve seamless cell-electronics interfacing, researchers have developed cyborg organs by growing human heart tissue together with dispersed, flexible electronics. Read Anqi Zhang’s article to learn more about cyborg organs! Continue reading “Cyborg” Human Organ Grown in a Dish
How prey species avoid multiple predators in the wild has long been puzzling, but now scientists have used GPS data from wolves, cougars, and elk at Yellowstone National Park to help unravel this mystery. Read Ben Andreone’s article to learn more! Continue reading Elk at Yellowstone National Park Outwit Multiple Predators to Stay Alive
Using fossil fuels has led to climate change; however, trees can erase some damage. By maximizing forest coverage on Earth, scientists predict that the carbon dioxide levels in the atmosphere could be reduced by a quarter—back to levels from a hundred years ago.
Continue reading ‘Branching out’ to counter climate change: how planting trees could save the day
Researchers from MIT have developed a novel method to locally deliver drugs and prevent immune activity around implanted biomedical devices over several months. The method is based on the formation of crystals of immunosuppressive drugs, which can be included in devices and slowly dissolve over the course of months. While this method substantially increases the length of time tested devices can function, difficulty of crystallizing certain drugs or introducing them into specific devices may prove to be a challenge in adapting this method to other systems. Even so, for many cases, this method will likely substantially reduce the difficulty of maintaining device stability for extended periods of time. Continue reading Slow and Steady Drug Delivery Keeps Biomedical Devices Kicking
Bacteria in the human gut can modify the ingested drugs rendering them useless. Scientists discovered how the gut bacteria degrade a Parkinson’s disease medicine and found a way to stop them from stealing our drugs. Continue reading Hey, those bacteria are stealing our drugs!
Cancer immunotherapy exploits our immune system to kill cancerous cells. Recently, researchers have discovered a novel way to do this. They engineered cells that are programmed to die and injected them into tumor. They have successfully shown that the dying cells is able to kill tumor cells via recruitment of the immune system. This strategy might be a potential new method to improve the efficacy of current cancer immunotherapy methods. Continue reading The New Trojan Horse: Using tumor cells to kill tumors
Proteins are made up of linear sequences of amino acids but understanding how these amino acids fold to form a three-dimensional structure is notoriously difficult. Knowing what a protein looks like in 3D is often necessary for understanding how it functions and how it can be manipulated. For instance, understanding how proteins such as antibodies bind to viruses like the flu would enable scientists to … Continue reading Genetic tools create new opportunities for decoding protein structures
Imagine you’re running a race. But this is no normal race—this is a 140-day trek from Huntington Beach, CA to Washington, D.C. Welcome to Race Across the USA, a seemingly-superhuman feat that provides the perfect laboratory to study human endurance. After all, extreme athletes push their bodies to the proverbial “limit”—but what, exactly, is this limit? That’s what a new study published in Science Advances … Continue reading Human endurance is not limitless
Heart attack is a leading cause of death, and often results in damage by overstretching the heart muscle. Once overstretched, the weakened heart muscle is less efficient at pumping blood, and it’s hard for the muscle to recover once the damage is formed because the heart is always beating. It can’t ever stop to heal. Researchers from Brown University and Fudan University have developed an … Continue reading Mending a Broken Heart: A new post-heart attack adhesive patch speeds healing
Researchers at McMaster University have developed a novel method for stabilizing vaccines, removing the strict requirement that the components be maintained within a specific low temperature range from development through delivery. The technique is based on drying the vaccines using two FDA-approved sugars and was shown to be successful in preserving vaccine effectiveness at elevated temperatures for twelve weeks. While it must still be validated on other vaccines, this method could be a major step toward cheap, accessible immunization in developing areas. Continue reading A Sweet Solution for Preserving Vaccines