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Trestle Bio Announces Research Collaboration with Humacyte

Researchers have created a cement-based material that does more than just provide structural support—it can generate and store electricity. This breakthrough could mark a turning point for future infrastructure in smart cities.

The material is a cement-hydrogel composite developed by a team led by Professor Zhou Yang at Southeast University in China. The team took inspiration from the layered structure inside plant stems to create a material that can harness thermal energy and convert it into electricity.

This is a repost. I think Andrew posted it earlier.

Researchers developed a cement-hydrogel composite that can generate and store power, paving the way for self-powered smart infrastructure.

Near-Infrared Autofluorescence for Parathyroid Detection During Endocrine Neck Surgery: A Randomized Clinical Trial

This study assesses if fiber-based near-infrared autofluorescence increases the number of intraoperatively identified parathyroid glands and reduces the occurrence of hypoparathyroidism.

Unique immune cell linked to aggressive leukemia may lead to improved treatment outcomes

A new study by Indiana University School of Medicine researchers has revealed a breakthrough in the fight against acute myeloid leukemia, one of the most aggressive and fatal blood cancers in adults. The discovery of a previously unrecognized immune cell could lead to new therapies that are less treatment-resistant than current options for patients—meaning higher survival rates for people with blood cancers.

Acute myeloid leukemia is a cancer that begins in the bone marrow and leads to impaired and function. Currently the sixth-leading cause of cancer-related death in adults, acute myeloid leukemia is resistant to many and relapse is common.

“Despite transformative progress in the treatment of many blood cancers, acute myeloid leukemia therapies have remained largely unchanged for over three decades,” said Reuben Kapur, Ph.D., director and program leader of the Hematologic Malignancies and Stem Cell Biology Program at the IU School of Medicine Herman B Wells Center for Pediatric Research, a researcher with the IU Melvin and Bren Simon Comprehensive Cancer Center and co-author of the study.

New biodegradable plastic shines in vibrant colors without dyes or pigments

Plastics are one of the largest sources of pollution on Earth, lasting for years on land or in water. But a new type of brilliantly colored cellulose-based plastic detailed in ACS Nano could change that. By adding citric acid and squid ink to a cellulose-based polymer, researchers created a variety of structurally colored plastics that were comparable in strength to traditional plastics, but made from natural biodegradable ingredients and easily recycled using water.

Many plastics are dyed using specialized colorants, which can make these materials hard to recycle using typical processes. Over time, dyes can fade or leach into the environment, posing risks to wildlife. One way to make these colorants largely unnecessary could be a phenomenon called . This occurs when tiny structures in a material reflect certain wavelengths of light rather than a dye or pigment molecule. Structural color gives peacock feathers and butterfly wings their vibrant hues and dazzling shine, but certain display structural color as well.

Hydroxypropyl cellulose (HPC), a derivative of cellulose often used in foods and pharmaceuticals, is one example of a material that can display structural color. In , it shines in iridescent tones, but its have historically made it difficult to form into a solid plastic. Researchers Lei Hou, Peiyi Wu and colleagues wanted to see if they could fine-tune the chemistry of HPC to create vibrant, structurally colored plastics that worked as well as existing petroleum-based plastics and were environmentally friendly.

LUX-ZEPLIN experiment sets more stringent constraints on cosmic ray-boosted dark matter

Dark matter, a type of matter that does not emit, absorb, or reflect light, is predicted to account for most of the universe’s mass. While theoretical predictions hint at its abundance, detecting this elusive matter has so far proved to be very difficult, leaving its composition and origin a mystery.

One widely explored hypothesis is that consists of weakly interacting , or WIMPs for short. These particles are theorized to only interact with via gravity and potentially via weak nuclear forces.

The LUX-ZEPLIN (LZ) experiment is a large-scale research effort aimed at searching for signals associated with the presence of WIMPs using a sophisticated detector known as a dual-phase xenon time projection chamber. The researchers involved in the experiment recently published their most recent findings in a paper in Physical Review Letters, which places more stringent constraints on lighter dark matter particles that could have gained energy after colliding with cosmic rays.

Next-gen tech for at-home use can quickly detect endometriosis biomarker in period blood

Almost 200 million people, including children, around the world have endometriosis, a chronic disease in which the lining of the uterus grows outside of the uterus. More severe symptoms, such as extreme pain and potentially infertility, can often be mitigated with early identification and treatment, but no single point-of-care diagnostic test for the disease exists despite the ease of access to the tissue directly implicated.

While Penn State Professor Dipanjan Pan said that the blood and tissue shed from the uterus each month is often overlooked—and even stigmatized by some—as medical waste, menstrual effluent could enable earlier, more accessible detection of biological markers to help diagnose this disease.

Pan and his group have developed a proof-of-concept device capable of detecting HMGB1, a protein implicated in endometriosis development and progression, in menstrual blood with 500% more sensitivity than existing laboratory approaches. The device, which looks and operates much like a pregnancy test in how it detects the protein, hinges on a novel technique to synthesize nanosheets made of the atomically thin 2D material borophene, according to Pan, the Dorothy Foehr Huck & J. Lloyd Huck Chair Professor in Nanomedicine and corresponding author of the study detailing the team’s work.

Gold clusters mimic atomic spin properties for scalable quantum computing applications

The efficiency of quantum computers, sensors and other applications often relies on the properties of electrons, including how they are spinning. One of the most accurate systems for high-performance quantum applications relies on tapping into the spin properties of electrons of atoms trapped in a gas, but these systems are difficult to scale up for use in larger quantum devices like quantum computers.

Now, a team of researchers from Penn State and Colorado State has demonstrated how a gold cluster can mimic these gaseous, trapped atoms, allowing scientists to take advantage of these spin properties in a system that can be easily scaled up.

“For the first time, we show that have the same key spin properties as the current state-of-the-art methods for quantum information systems,” said Ken Knappenberger, department head and professor of chemistry in the Penn State Eberly College of Science and leader of the research team.