News Type: Research

In a proof-of-principle study in mice, PhD candidate John Hickey and scientists at Johns Hopkins Medicine report the creation of a specialized gel that acts like a lymph node to successfully activate and multiply cancer-fighting immune system T-cells.

In a landmark study, a group of U.S. scientists from Johns Hopkins, Stanford University and other institutions has found no long-lasting, major differences between the epigenomes of astronaut Scott Kelly, who spent a year in space aboard the International Space Station, and his twin brother, Mark, who remained on Earth.

In studies with lab-grown human cells and in mice, Aleksander Popel and other Johns Hopkins Medicine researchers have found that an experimental drug may be twice as good at fighting vision loss as previously thought.

Working with mice, a team of Johns Hopkins Medicine researchers has developed a relatively inexpensive, portable mini microscope that could improve scientists’ ability to image the effects of cancer, stroke, Alzheimer’s disease and other conditions in the brains of living and active mice over time.

Researchers at Johns Hopkins report that a computer program they designed may help surgeons identify and label spinal segments during real time operating room procedures and avoid the costly and potentially debilitating consequences of operating on the wrong segment.

In a new study focusing on four regions of normal human brain tissue, Johns Hopkins scientists have found about 13,000 regions of epigenetic differences between neurons in different brain regions that vary by at least 10 percent.

A team led by Sridevi Sarma, associate professor of biomedical engineering at Johns Hopkins, has found that the decision to “up the ante” even in the face of long odds is the result of an internal bias that adds up over time and involves a “push-pull” dynamic between the brain’s two hemispheres.

When graduate student Luke Osborn needed to test the fingertip sensors he’d spent years developing for prosthesis wearers, he didn’t have far to look. The ensuing collaboration and results hold big promise for amputees.

If you are wondering how long you personally are willing to stand in line to buy that hot new holiday gift, scientists at Johns Hopkins Medicine say the answer may be found in the biological rules governing how animals typically forage for food and other rewards.

In a new analysis, Johns Hopkins scientists say that the collective genomes of 910 people of African descent have a large chunk — about 300 million bits — of genetic material missing from the basic reference genome.

A new Johns Hopkins study explores navigation similarities between the mind and robot swarms.

Driver genes in different metastases from the same patient are remarkably similar, providing optimism for the success of future targeted therapies, according to a published study by Science.

In a proof of concept study, scientists at Johns Hopkins report they have successfully performed 3D personalized virtual simulations of the heart to accurately identify where cardiac specialists should electrically destroy cardiac tissue to stop potentially fatal irregular and rapid heartbeats in patients with scarring in the heart.

In a “proof of concept” study, scientists at Johns Hopkins Medicine say they have successfully delivered nano-size packets of genetic code called microRNAs to treat human brain tumors implanted in mice.

The electronic ‘skin’ will enable amputees to perceive through prosthetic fingertips.

Researchers with the Johns Hopkins Kimmel Cancer Center and the Johns Hopkins University School of Medicine received a $3 million grant to use computational modeling and software to understand biological data, in combination with unique in vitro and animal studies, to better treat liver cancer.

Jeff Siewerdsen and his team are advancing imaging technologies that will make surgery more precise and improve patient safety.

Uncovering the cerebellum’s “language” reveals workings of a biological learning machine

Often people think performing in front of others will make them mess up, but a new study led by a Johns Hopkins University neuroscientist found the opposite: being watched makes people do better.

In a review article published April 5 in the New England Journal of Medicine, scientist Andrew Feinberg, M.D., calls for more integration between two fields of DNA-based research: genetics and epigenetics.

Olympians most likely to bring home the gold are those who find a way to stay focused, even when the stakes are high.

Johns Hopkins researchers report they have developed two new endoscopic probes that significantly sharpen the technology’s imaging resolution and permit direct observation of fine tissue structures and cell activity in small organs in sheep, rats, and mice.

Kathleen Cullen explains why years of practice allow elite athletes to train their brains so they can stay on balance after elaborate maneuvers.

Natalia Trayanova and her team of scientists and engineers, have developed personalized 3D computational heart models. But these aren’t just the average, stagnant 3D models. These computational models can show a heart in rhythm.

Biomedical engineer Joel Bader and cell biologist Andrew Ewald have joined forces to make sense of some of the genetic mysteries behind breast cancer.

Researchers in the Johns Hopkins Kimmel Cancer Center and the Department of Biomedical Engineering have developed a single blood test that screens for eight common cancer types and helps identify the location of the cancer.

Johns Hopkins researchers are part of an ambitious plan to fully sequence the coast redwood and giant sequoia genomes for the first time.

Patients with chronic acid reflux and other esophageal issues run an increased risk of cancer. A fiber-optic endomicroscope developed from research done by Xingde Li is likely to significantly improve diagnosis and treatment.

Natalia Trayanova explains why computer simulations are key to the future for better health care.

A team led by Johns Hopkins researchers constructed a powerful new computer model that replicates the biological activity within the heart that precedes sudden cardiac death.