Researchers at CUNY ASRC and Honeywell Aerospace developed pairs of ultrathin, nonmetallic coatings that work together to reduce heat transfer. The novel metasurface reduced thermal radiation emission by over 80% compared to nonstructured surfaces, maintaining performance across a wide range of operating temperatures.
The City University of New York has received an $18.1 million NSF award to create a cloud-programmable national laboratory that uses artificial intelligence and robotics to speed the discovery, design, and production of advanced bio-inspired materials. Researchers nationwide will have remote access to automated tools for developing sus...
Scientists at CUNY ASRC successfully amplify electromagnetic waves by simulating ultrafast rotation, recreating Penrose-Zel'dovich process. This breakthrough enables experimental studies of extreme rotational dynamics and opens new avenues for wireless communications and optics applications.
Researchers at CUNY ASRC have uncovered a metabolic switch that influences the formation of myelinating cells, helping shape brain development. The study reveals that glucose levels act as a signal directing behavior during development and can be harnessed to protect myelin in the developing brain and promote repair in disease states.
Researchers at CUNY ASRC have created peptide-based crystalline solids that can switch between soft layered and stiff honeycomb architectures in response to humidity. These dynamic solids exhibit large, controllable changes in mechanical and optical properties, enabling unprecedented adaptability.
Researchers at CUNY ASRC developed a metasurface that converts infrared light to visible green light and steers it using polarization control. The device is 100 times more efficient than comparable devices, enabling ultra-compact light sources and on-chip beam steering for various technologies.
A research team at CUNY and UT Austin discovered a way to control dark excitons, highly promising for quantum information and advanced photonic applications. They amplified light emission by 300,000 times, making them visible and controllable.
Researchers developed a Climate BioStress model to detect biological signatures of climate change. A Sentinel System (CBS3) is proposed to track climate stress indicators across biological, built, and social infrastructures.
Researchers at CUNY ASRC introduce twistelastics, a technique using tiny rotations to manipulate mechanical waves, allowing unprecedented adaptability in sound and vibration control. The breakthrough enables flexible wave behavior for applications in medical imaging, consumer electronics, and microfluidics.
Scientists at CUNY ASRC develop novel synthetic carbohydrate receptors that block infection from seven different viruses across five unrelated families, including Ebola and SARS-CoV-2. The breakthrough offers a promising path toward the development of broad-spectrum antivirals.
Researchers at CUNY ASRC discover that simple tripeptides can encapsulate proteins and protect them from stress, opening up possibilities for protein preservation without refrigeration. This breakthrough could lead to innovative vaccine distribution methods and smart materials.
Researchers at CUNY ASRC Nanoscience reveal that extremely simple peptides can mimic a biological process that protects sensitive proteins from environmental stress. The findings offer a promising new approach to stabilizing biomolecules like vaccines and therapeutic proteins without refrigeration.
The study outlines opportunities for advancing fundamental understanding of wave-matter interactions, unlocking exotic effects such as perfect absorption and super-resolution imaging. Complex frequency excitations offer an alternative approach to enhance wave control using conventional materials.
Researchers at the Advanced Science Research Center have developed a groundbreaking method to excite phonon-polaritons using an electrical current, enabling the creation of novel nanoscale lasers and efficient electronic device cooling. The discovery could lead to transformative advancements in energy-efficient, compact technologies.
A groundbreaking study led by CUNY researcher Stephen Chester uncovers the anatomy, lifestyle, and evolutionary connections of Mixodectes pungens, a mysterious 62-million-year-old mammal. The discovery reveals the species was close to humans and other primates on the evolutionary tree.
Researchers have developed a groundbreaking approach using specially designed peptides to improve drug formulations, significantly enhancing anti-tumor efficacy in leukemia models. The innovative method achieves high drug loadings and optimizes delivery to targeted areas, holding significant potential for treating various diseases.
Researchers have unveiled a critical mechanism linking cellular stress in the brain to Alzheimer's disease progression, highlighting microglia as central players in both protective and harmful responses. The study reveals that blocking a specific stress pathway reverses symptoms of Alzheimer's disease in preclinical models.
A team of scientists has developed a novel method to explain the behavior of water-responsive materials, which can change shape in response to humidity fluctuations. This breakthrough could advance efforts toward clean energy production, robotics, and bioelectronics.
Researchers found that specific enzymes in neurons mediate the toxicity of diets rich in palm oil, leading to mitochondrial damage and neurodegeneration. Inactivating these enzymes provides neuroprotection, suggesting a potential pathway for slowing diet-induced symptom severity in MS patients.
A recent study published in Global Environmental Change highlights the pressing need for innovative economic strategies to address global water scarcity and pollution. The research found that 71% of the world's population has high existing water security needs, with significant disparities in readiness across regions.
A new study from the CUNY Graduate Center uncovers key mechanisms responsible for the transformation of adult progenitor cells into brain tumors. Researchers found that a specific combination of genetic mutations and growth factor overproduction drives this transformation, highlighting the importance of epigenetic changes in glioma dev...
The research team has successfully demonstrated the control of thermal radiation by metasurfaces, achieving circularly polarized light with full control over emission direction. This breakthrough enables the creation of custom light sources with desired spectral, polarization, and spatial features for various applications.
A recent study reveals that urban trees are more negatively impacted by heat waves and drought than their rural counterparts. The research highlights the challenges urban trees face in the context of climate change, underscoring the importance of tailored urban forestry management to protect tree species and reduce urban heat islands.
Researchers at CUNY ASRC identify distinct histone tag in adult oligodendrocyte progenitor cells that regulates their proliferation and may lead to innovative therapies for neurodegenerative diseases. The discovery holds promise for advancing myelin repair and improving patient outcomes.
The CUNY-GLOBE partnership will advance six objectives to expand GLOBE's success, including STEM education, Earth system research, and science diplomacy. The team will design and implement initiatives to elevate GLOBE's visibility and scientific relevance.
A recent study sheds light on the genetic underpinnings behind color polymorphism in adult females of cuckoo birds, revealing a single mutation for female-only polychromatism over 1 million years ago. The study found that variations in gray or rufous coloration are associated with the full length of the female-limited W chromosome.
A new study shines light on the properties of hexagonal boron nitride, a material used in electronic and photonics technologies. The research reveals fundamental energy excitation occurring at 285 millielectron volts, triggering single photons in harmonic electronic states.
Scientists at the Advanced Science Research Center used X-ray crystallography with elevated temperature and pressure to observe distinct shapes in a protein molecule. The study reveals how proteins change shape to bind metabolites or other proteins, offering insight into disease treatment and development of novel drugs.
Researchers have developed high-performance ultrafast lasers on nanophotonic chips, enabling compact devices for GPS-free precision navigation, medical imaging, food safety inspection and other applications. The new technology has the potential to enable futuristic chip-scale atomic clocks, biological imaging and more.
Researchers at CUNY Graduate Center design stadium-shaped cavity to study and control light's complex behavior. By adjusting light intensity and delay, they demonstrate coherent control using reflectionless scattering modes, paving the way for better energy storage, computing, and signal processing.
A new study finds that fertilized lawns are hotspots of nitrogen export into our water and atmosphere, posing a growing environmental health problem. Changing just 5-10% of suburban lawns to alternative landscaping might have a major effect on watershed-wide nitrogen export.
A new study breaks down the complex structure of snail mucus, revealing three unique types of secretions with different functions. The researchers identified novel proteins, some of which have never been seen before, and found that subtle differences in composition can significantly impact properties.
Matthew Sfeir will receive a $1.25 million grant to measure the quantum properties of conducting organic polymers using far-infrared and terahertz light sources. The research aims to develop transparent electrical conductors for advanced photonic and quantum-based technologies.
Scientists at CUNY ASRC have shown that photons can collide and interact, allowing for new technologies to be developed. This breakthrough enables the manipulation of wave propagation, benefiting wireless communications, imaging, computing, and energy harvesting technologies.
The newly expanded NSF Center for the Mechanical Control of Chemistry will investigate atomic-scale mysteries of crushing chemistry, enabling new advances in chemistry. The center will provide insights necessary for scaling up mechanical chemistry research across the US.
Scientists have developed a novel mechanochemistry method that can manufacture chemicals without toxic solvent waste, reducing energy consumption and pollution. The technique uses organic chemistry and nanotechnology to push molecules together and create chemicals.
Researchers at CUNY ASRC detail a breakthrough experiment in which they observed time reflections of electromagnetic signals in a tailored metamaterial. The effect causes a significant portion of the broadband signals to be instantaneously time reversed and frequency converted, forming a strange echo.
A multi-institutional team finds that nitrogen insufficiency is a growing concern worldwide due to increased demand for nitrogen by plants and microbes. Declining nitrogen availability can slow plant growth and affect the food chain, while also constraining carbon storage and contributing to global warming.
Researchers create complex mixtures of biomolecules that spontaneously form self-organized patterns in response to environmental changes. This breakthrough bridges the complexity gap between chemistry and biology.
A research team at the Advanced Science Research Center has identified peptidoglycan as the most powerful actuator material. The new water-responsive muscles can quickly expand and contract in response to water absorption and evaporation, enabling rapid actuation of micro and macro structures.
A research team at CUNY ASRC made a breakthrough discovery in nanomaterials and light-wave interactions that enables small, low-energy optical computers capable of advanced computing. The discovery demonstrates unprecedented speeds and nearly zero energy demands for solving complex mathematical problems.
Researchers found high levels of toxic metabolites produced by gut bacteria in MS patients' cerebrospinal fluid and plasma. The discovery suggests a potential therapeutic target for developing new MS therapies.
Researchers have developed nanoparticles that can communicate with and slow the development of cancer cells. The nanoparticles aggregate in cancer cells, reducing metabolic activity and growth, and are activated by MMP-9 enzyme secreted by cancer cells.
A new study designed in collaboration with autistic scholars shows improvements in implicit biases about autism among the general public. The research found that autism trainings developed with autistic input were more effective at reducing implicit biases and improving explicit knowledge about autism.
Researchers observed ghost polaritons in calcite crystals, enabling superior control of infrared nano-light for various applications. The discovery features highly collimated propagation properties and record-long distance propagation at room temperature.
Andrea Alù, founding director of Photonics Initiative at CUNY ASRC, received the world's largest unrestricted prize for early-career scientists. His research discoveries in materials science and physics have brought about advances in electromagnetics, nano-optics, and acoustics with potential applications in various fields.
A new study identifies ten-eleven-translocation 1 (TET1) as a necessary component of myelin repair in adult brains. Higher TET1 levels are needed to form functional myelin in response to injury, which declines with age.
Rein Ulijn, a CUNY professor, receives the Vannevar Bush Faculty Fellowship to study complex mixtures of molecules and develop new biomimetic materials with diverse applications in biomedicine and green technology. The fellowship supports his research on repurposing nature's molecules to design novel functions.
A team of experts, including Phoebe Zarnetske and Jessica Gurevitch, investigate the ecological impacts of reflecting sunlight to cool the planet. Their research highlights the complexity of cascading relationships between ecosystem function and climate under different scenarios.
Researchers analyze Deccan Traps CO2 budgets and find that volcanic carbon emissions alone couldn't cause global warming, but magmas releasing CO2 beneath the surface could explain a warming event. The study provides new insights into the role of volcanism in shaping Earth's climate.